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Author SHA1 Message Date
Mayeul@Zama
5201ff1c51 add assert 2023-10-11 17:30:04 +02:00
669 changed files with 24093 additions and 99189 deletions

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@@ -1,6 +1,6 @@
---
name: Bug report
about: Report a problem with TFHE-rs
about: Report a problem with concrete
title: ''
labels: triage_required
assignees: ''

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@@ -1,6 +1,6 @@
---
name: Feature request
about: Suggest an idea for TFHE-rs
about: Suggest an idea for concrete
title: ''
labels: feature_request
assignees: ''

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@@ -1,34 +0,0 @@
# Manage approved label in pull request
name: PR approved label manager
on:
pull_request:
pull_request_review:
types: [submitted]
jobs:
trigger-tests:
runs-on: ubuntu-latest
permissions:
pull-requests: write
steps:
- name: Get current labels
uses: snnaplab/get-labels-action@f426df40304808ace3b5282d4f036515f7609576
# Remove label if a push is performed after an approval
- name: Remove approved label
if: ${{ github.event_name == 'pull_request' && contains(fromJSON(env.LABELS), 'approved') }}
uses: actions-ecosystem/action-remove-labels@2ce5d41b4b6aa8503e285553f75ed56e0a40bae0
with:
# We use a PAT to have the same user (zama-bot) for label deletion as for creation.
github_token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
labels: approved
# Add label only if the review is approved and if the label doesn't already exist
- name: Add approved label
uses: actions-ecosystem/action-add-labels@18f1af5e3544586314bbe15c0273249c770b2daf
if: ${{ github.event_name == 'pull_request_review' && github.event.review.state == 'approved' && !contains(fromJSON(env.LABELS), 'approved') }}
with:
# We need to use a PAT to be able to trigger `labeled` event for the other workflow.
github_token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
labels: approved

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@@ -5,54 +5,66 @@ env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
# All the inputs are provided by Slab
inputs:
instance_id:
description: "AWS instance ID"
type: string
instance_image_id:
description: "AWS instance AMI ID"
type: string
instance_type:
description: "AWS instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: 'Slab request ID'
type: string
fork_repo:
description: 'Name of forked repo as user/repo'
type: string
fork_git_sha:
description: 'Git SHA to checkout from fork'
type: string
jobs:
setup-ec2:
name: Setup EC2 instance (fast-tests)
runs-on: ubuntu-latest
outputs:
runner-name: ${{ steps.start-instance.outputs.label }}
instance-id: ${{ steps.start-instance.outputs.ec2-instance-id }}
steps:
- name: Start instance
id: start-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: start
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
fast-tests:
name: Fast CPU tests
needs: setup-ec2
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
group: ${{ github.workflow }}_${{ github.ref }}_${{ inputs.instance_image_id }}_${{ inputs.instance_type }}
cancel-in-progress: true
runs-on: ${{ needs.setup-ec2.outputs.runner-name }}
runs-on: ${{ inputs.runner_name }}
steps:
# Step used for log purpose.
- name: Instance configuration used
run: |
echo "ID: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
echo "Fork repo: ${{ inputs.fork_repo }}"
echo "Fork git sha: ${{ inputs.fork_git_sha }}"
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: ${{ inputs.fork_repo }}
ref: ${{ inputs.fork_git_sha }}
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
default: true
- name: Run concrete-csprng tests
run: |
@@ -108,29 +120,8 @@ jobs:
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Fast AWS tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
teardown-ec2:
name: Teardown EC2 instance (fast-tests)
if: ${{ always() && needs.setup-ec2.result != 'skipped' }}
needs: [ setup-ec2, fast-tests ]
runs-on: ubuntu-latest
steps:
- name: Stop instance
id: stop-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: stop
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
label: ${{ needs.setup-ec2.outputs.runner-name }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "EC2 teardown (fast-tests) failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

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@@ -1,70 +0,0 @@
# Compile and test tfhe-cuda-backend on an RTX 4090 machine
name: TFHE Cuda Backend - 4090 full tests
env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
types: [labeled]
jobs:
cuda-tests-linux:
name: CUDA tests (RTX 4090)
if: ${{ github.event_name == 'workflow_dispatch' || contains(github.event.label.name, '4090_test') }}
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
cancel-in-progress: true
runs-on: ["self-hosted", "4090-desktop"]
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: stable
- name: Run fmt checks
run: |
make check_fmt_gpu
- name: Run clippy checks
run: |
make clippy_gpu
- name: Run all tests
run: |
make test_gpu
- name: Run user docs tests
run: |
make test_user_doc_gpu
- name: Test C API
run: |
make test_c_api_gpu
- uses: actions-ecosystem/action-remove-labels@2ce5d41b4b6aa8503e285553f75ed56e0a40bae0
if: ${{ github.event_name == 'pull_request' }}
with:
labels: 4090_test
github_token: ${{ secrets.GITHUB_TOKEN }}
- name: Slack Notification
if: ${{ always() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "CUDA RTX 4090 tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"

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@@ -1,137 +0,0 @@
# Compile and test tfhe-cuda-backend on an AWS instance
name: TFHE Cuda Backend - Full tests
env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
jobs:
setup-ec2:
name: Setup EC2 instance (cuda-tests)
runs-on: ubuntu-latest
outputs:
runner-name: ${{ steps.start-instance.outputs.label }}
instance-id: ${{ steps.start-instance.outputs.ec2-instance-id }}
steps:
- name: Start instance
id: start-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: start
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: gpu-test
cuda-tests-linux:
name: CUDA tests
needs: setup-ec2
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
cancel-in-progress: ${{ github.ref != 'refs/heads/main' }}
runs-on: ${{ needs.setup-ec2.outputs.runner-name }}
strategy:
fail-fast: false
# explicit include-based build matrix, of known valid options
matrix:
include:
- os: ubuntu-22.04
cuda: "12.2"
gcc: 9
env:
CUDA_PATH: /usr/local/cuda-${{ matrix.cuda }}
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: stable
- name: Export CUDA variables
if: ${{ !cancelled() }}
run: |
echo "CUDA_PATH=$CUDA_PATH" >> "${GITHUB_ENV}"
echo "$CUDA_PATH/bin" >> "${GITHUB_PATH}"
echo "LD_LIBRARY_PATH=$CUDA_PATH/lib:$LD_LIBRARY_PATH" >> "${GITHUB_ENV}"
echo "CUDACXX=/usr/local/cuda-${{ matrix.cuda }}/bin/nvcc" >> "${GITHUB_ENV}"
# Specify the correct host compilers
- name: Export gcc and g++ variables
if: ${{ !cancelled() }}
run: |
echo "CC=/usr/bin/gcc-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CUDAHOSTCXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Run fmt checks
run: |
make check_fmt_gpu
- name: Run clippy checks
run: |
make clippy_gpu
- name: Run all tests
run: |
make test_gpu
- name: Run user docs tests
run: |
make test_user_doc_gpu
- name: Test C API
run: |
make test_c_api_gpu
- name: Slack Notification
if: ${{ always() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "CUDA AWS tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
teardown-ec2:
name: Teardown EC2 instance (cuda-tests)
if: ${{ always() && needs.setup-ec2.result != 'skipped' }}
needs: [ setup-ec2, cuda-tests-linux ]
runs-on: ubuntu-latest
steps:
- name: Stop instance
id: stop-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: stop
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: gpu-test
label: ${{ needs.setup-ec2.outputs.runner-name }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "EC2 teardown (cuda-tests) failed. (${{ env.ACTION_RUN_URL }})"

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@@ -1,75 +1,77 @@
name: AWS Unsigned Integer Tests on CPU
name: AWS Integer Tests on CPU
env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
types: [ labeled ]
# All the inputs are provided by Slab
inputs:
instance_id:
description: "AWS instance ID"
type: string
instance_image_id:
description: "AWS instance AMI ID"
type: string
instance_type:
description: "AWS instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: 'Slab request ID'
type: string
fork_repo:
description: 'Name of forked repo as user/repo'
type: string
fork_git_sha:
description: 'Git SHA to checkout from fork'
type: string
jobs:
setup-ec2:
name: Setup EC2 instance (unsigned-integer-tests)
if: ${{ github.event_name == 'workflow_dispatch' || contains(github.event.label.name, 'approved') }}
runs-on: ubuntu-latest
outputs:
runner-name: ${{ steps.start-instance.outputs.label }}
instance-id: ${{ steps.start-instance.outputs.ec2-instance-id }}
steps:
- name: Start instance
id: start-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: start
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
unsigned-integer-tests:
name: Unsigned integer tests
needs: setup-ec2
integer-tests:
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
group: ${{ github.workflow }}_${{ github.ref }}_${{ inputs.instance_image_id }}_${{ inputs.instance_type }}
cancel-in-progress: true
runs-on: ${{ needs.setup-ec2.outputs.runner-name }}
runs-on: ${{ inputs.runner_name }}
steps:
# Step used for log purpose.
- name: Instance configuration used
run: |
echo "ID: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
echo "Fork repo: ${{ inputs.fork_repo }}"
echo "Fork git sha: ${{ inputs.fork_git_sha }}"
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: ${{ inputs.fork_repo }}
ref: ${{ inputs.fork_git_sha }}
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
- name: Gen Keys if required
run: |
make GEN_KEY_CACHE_MULTI_BIT_ONLY=TRUE gen_key_cache
- name: Run unsigned integer multi-bit tests
run: |
AVX512_SUPPORT=ON make test_unsigned_integer_multi_bit_ci
default: true
- name: Gen Keys if required
run: |
make gen_key_cache
- name: Run unsigned integer tests
- name: Run integer tests
run: |
AVX512_SUPPORT=ON BIG_TESTS_INSTANCE=TRUE make test_unsigned_integer_ci
BIG_TESTS_INSTANCE=TRUE make test_integer_ci
- name: Slack Notification
if: ${{ always() }}
@@ -77,29 +79,8 @@ jobs:
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "Unsigned Integer tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
teardown-ec2:
name: Teardown EC2 instance (unsigned-integer-tests)
if: ${{ always() && needs.setup-ec2.result != 'skipped' }}
needs: [ setup-ec2, unsigned-integer-tests ]
runs-on: ubuntu-latest
steps:
- name: Stop instance
id: stop-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: stop
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
label: ${{ needs.setup-ec2.outputs.runner-name }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "EC2 teardown (unsigned-integer-tests) failed. (${{ env.ACTION_RUN_URL }})"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Integer tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

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@@ -0,0 +1,90 @@
name: AWS Multi Bit Tests on CPU
env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
# All the inputs are provided by Slab
inputs:
instance_id:
description: "AWS instance ID"
type: string
instance_image_id:
description: "AWS instance AMI ID"
type: string
instance_type:
description: "AWS instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: 'Slab request ID'
type: string
fork_repo:
description: 'Name of forked repo as user/repo'
type: string
fork_git_sha:
description: 'Git SHA to checkout from fork'
type: string
jobs:
multi-bit-tests:
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}_${{ inputs.instance_image_id }}_${{ inputs.instance_type }}
cancel-in-progress: true
runs-on: ${{ inputs.runner_name }}
steps:
# Step used for log purpose.
- name: Instance configuration used
run: |
echo "ID: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
echo "Fork repo: ${{ inputs.fork_repo }}"
echo "Fork git sha: ${{ inputs.fork_git_sha }}"
- name: Checkout tfhe-rs
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: ${{ inputs.fork_repo }}
ref: ${{ inputs.fork_git_sha }}
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
default: true
- name: Gen Keys if required
run: |
make GEN_KEY_CACHE_MULTI_BIT_ONLY=TRUE gen_key_cache
- name: Run shortint multi-bit tests
run: |
make test_shortint_multi_bit_ci
- name: Run integer multi-bit tests
run: |
make test_integer_multi_bit_ci
- name: Slack Notification
if: ${{ always() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Shortint tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

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@@ -1,109 +0,0 @@
name: AWS Signed Integer Tests on CPU
env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
types: [ labeled ]
jobs:
setup-ec2:
name: Setup EC2 instance (signed-integer-tests)
if: ${{ github.event_name == 'workflow_dispatch' || contains(github.event.label.name, 'approved') }}
runs-on: ubuntu-latest
outputs:
runner-name: ${{ steps.start-instance.outputs.label }}
instance-id: ${{ steps.start-instance.outputs.ec2-instance-id }}
steps:
- name: Start instance
id: start-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: start
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
signed-integer-tests:
name: Signed integer tests
needs: setup-ec2
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
cancel-in-progress: true
runs-on: ${{ needs.setup-ec2.outputs.runner-name }}
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: stable
- name: Gen Keys if required
run: |
make GEN_KEY_CACHE_MULTI_BIT_ONLY=TRUE gen_key_cache
- name: Run shortint multi-bit tests
run: |
make test_shortint_multi_bit_ci
- name: Run signed integer multi-bit tests
run: |
AVX512_SUPPORT=ON make test_signed_integer_multi_bit_ci
- name: Gen Keys if required
run: |
make gen_key_cache
- name: Run signed integer tests
run: |
AVX512_SUPPORT=ON BIG_TESTS_INSTANCE=TRUE make test_signed_integer_ci
- name: Slack Notification
if: ${{ always() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "Signed Integer tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
teardown-ec2:
name: Teardown EC2 instance (signed-integer-tests)
if: ${{ always() && needs.setup-ec2.result != 'skipped' }}
needs: [ setup-ec2, signed-integer-tests ]
runs-on: ubuntu-latest
steps:
- name: Stop instance
id: stop-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: stop
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
label: ${{ needs.setup-ec2.outputs.runner-name }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "EC2 teardown (signed-integer-tests) failed. (${{ env.ACTION_RUN_URL }})"

View File

@@ -4,56 +4,66 @@ env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
types: [ labeled ]
# All the inputs are provided by Slab
inputs:
instance_id:
description: "AWS instance ID"
type: string
instance_image_id:
description: "AWS instance AMI ID"
type: string
instance_type:
description: "AWS instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: 'Slab request ID'
type: string
fork_repo:
description: 'Name of forked repo as user/repo'
type: string
fork_git_sha:
description: 'Git SHA to checkout from fork'
type: string
jobs:
setup-ec2:
name: Setup EC2 instance (cpu-tests)
if: ${{ github.event_name == 'workflow_dispatch' || contains(github.event.label.name, 'approved') }}
runs-on: ubuntu-latest
outputs:
runner-name: ${{ steps.start-instance.outputs.label }}
instance-id: ${{ steps.start-instance.outputs.ec2-instance-id }}
steps:
- name: Start instance
id: start-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: start
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
cpu-tests:
name: CPU tests
needs: setup-ec2
shortint-tests:
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
group: ${{ github.workflow }}_${{ github.ref }}_${{ inputs.instance_image_id }}_${{ inputs.instance_type }}
cancel-in-progress: true
runs-on: ${{ needs.setup-ec2.outputs.runner-name }}
runs-on: ${{ inputs.runner_name }}
steps:
# Step used for log purpose.
- name: Instance configuration used
run: |
echo "ID: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
echo "Fork repo: ${{ inputs.fork_repo }}"
echo "Fork git sha: ${{ inputs.fork_git_sha }}"
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: ${{ inputs.fork_repo }}
ref: ${{ inputs.fork_git_sha }}
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
default: true
- name: Run concrete-csprng tests
run: |
@@ -90,12 +100,6 @@ jobs:
- name: Run example tests
run: |
make test_examples
make dark_market
- name: Run apps tests
run: |
make test_trivium
make test_kreyvium
- name: Slack Notification
if: ${{ always() }}
@@ -103,29 +107,8 @@ jobs:
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "CPU tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
teardown-ec2:
name: Teardown EC2 instance (cpu-tests)
if: ${{ always() && needs.setup-ec2.result != 'skipped' }}
needs: [ setup-ec2, cpu-tests ]
runs-on: ubuntu-latest
steps:
- name: Stop instance
id: stop-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: stop
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-big
label: ${{ needs.setup-ec2.outputs.runner-name }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "EC2 teardown (cpu-tests) failed. (${{ env.ACTION_RUN_URL }})"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Shortint tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -4,56 +4,66 @@ env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
types: [ labeled ]
# All the inputs are provided by Slab
inputs:
instance_id:
description: "AWS instance ID"
type: string
instance_image_id:
description: "AWS instance AMI ID"
type: string
instance_type:
description: "AWS instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: 'Slab request ID'
type: string
fork_repo:
description: 'Name of forked repo as user/repo'
type: string
fork_git_sha:
description: 'Git SHA to checkout from fork'
type: string
jobs:
setup-ec2:
name: Setup EC2 instance (wasm-tests)
if: ${{ github.event_name == 'workflow_dispatch' || contains(github.event.label.name, 'approved') }}
runs-on: ubuntu-latest
outputs:
runner-name: ${{ steps.start-instance.outputs.label }}
instance-id: ${{ steps.start-instance.outputs.ec2-instance-id }}
steps:
- name: Start instance
id: start-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: start
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-small
wasm-tests:
name: WASM tests
needs: setup-ec2
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
group: ${{ github.workflow }}_${{ github.ref }}_${{ inputs.instance_image_id }}_${{ inputs.instance_type }}
cancel-in-progress: true
runs-on: ${{ needs.setup-ec2.outputs.runner-name }}
runs-on: ${{ inputs.runner_name }}
steps:
# Step used for log purpose.
- name: Instance configuration used
run: |
echo "ID: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
echo "Fork repo: ${{ inputs.fork_repo }}"
echo "Fork git sha: ${{ inputs.fork_git_sha }}"
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: ${{ inputs.fork_repo }}
ref: ${{ inputs.fork_git_sha }}
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
default: true
- name: Run js on wasm API tests
run: |
@@ -70,29 +80,8 @@ jobs:
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "WASM tests finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
teardown-ec2:
name: Teardown EC2 instance (wasm-tests)
if: ${{ always() && needs.setup-ec2.result != 'skipped' }}
needs: [ setup-ec2, wasm-tests ]
runs-on: ubuntu-latest
steps:
- name: Stop instance
id: stop-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: stop
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-small
label: ${{ needs.setup-ec2.outputs.runner-name }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "EC2 teardown (wasm-tests) failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -32,7 +32,6 @@ env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-boolean-benchmarks:
@@ -52,7 +51,7 @@ jobs:
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -62,13 +61,14 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Run benchmarks with AVX512
run: |
make bench_boolean
make AVX512_SUPPORT=ON bench_boolean
- name: Parse results
run: |
@@ -96,13 +96,13 @@ jobs:
--append-results
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_boolean
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

View File

@@ -6,7 +6,6 @@ on:
env:
CARGO_TERM_COLOR: always
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
concurrency:
group: ${{ github.workflow }}-${{ github.head_ref }}
@@ -18,11 +17,11 @@ jobs:
strategy:
matrix:
os: [ubuntu-latest, macos-latest-large, windows-latest]
os: [ubuntu-latest, macos-latest, windows-latest]
fail-fast: false
steps:
- uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
- uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
- name: Install and run newline linter checks
if: matrix.os == 'ubuntu-latest'

View File

@@ -4,7 +4,6 @@ env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
@@ -39,7 +38,6 @@ jobs:
group: ${{ github.workflow }}_${{ github.ref }}_${{ inputs.instance_image_id }}_${{ inputs.instance_type }}
cancel-in-progress: true
runs-on: ${{ inputs.runner_name }}
timeout-minutes: 1080
steps:
# Step used for log purpose.
- name: Instance configuration used
@@ -52,7 +50,7 @@ jobs:
echo "Fork git sha: ${{ inputs.fork_git_sha }}"
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: ${{ inputs.fork_repo }}
ref: ${{ inputs.fork_git_sha }}
@@ -62,13 +60,14 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
default: true
- name: Check for file changes
id: changed-files
uses: tj-actions/changed-files@ec75ae5ab7296b81fd4cddb77294d6718932ebab
uses: tj-actions/changed-files@db153baf731265ad02cd490b07f470e2d55e3345
with:
files_yaml: |
tfhe:
@@ -80,12 +79,6 @@ jobs:
if: steps.changed-files.outputs.tfhe_any_changed == 'true'
run: |
make GEN_KEY_CACHE_COVERAGE_ONLY=TRUE gen_key_cache
make gen_key_cache_core_crypto
- name: Run coverage for core_crypto
if: steps.changed-files.outputs.tfhe_any_changed == 'true'
run: |
make test_core_crypto_cov AVX512_SUPPORT=ON
- name: Run coverage for boolean
if: steps.changed-files.outputs.tfhe_any_changed == 'true'
@@ -98,13 +91,13 @@ jobs:
make test_shortint_cov
- name: Upload tfhe coverage to Codecov
uses: codecov/codecov-action@e0b68c6749509c5f83f984dd99a76a1c1a231044
uses: codecov/codecov-action@eaaf4bedf32dbdc6b720b63067d99c4d77d6047d
if: steps.changed-files.outputs.tfhe_any_changed == 'true'
with:
token: ${{ secrets.CODECOV_TOKEN }}
directory: ./coverage/
fail_ci_if_error: true
files: shortint/cobertura.xml,boolean/cobertura.xml,core_crypto/cobertura.xml,core_crypto_avx512/cobertura.xml
files: shortint/cobertura.xml,boolean/cobertura.xml
- name: Slack Notification
if: ${{ failure() }}

View File

@@ -1,153 +0,0 @@
# Run core crypto benchmarks on an AWS instance with CUDA and return parsed results to Slab CI bot.
name: Core crypto GPU benchmarks
on:
workflow_dispatch:
inputs:
instance_id:
description: "Instance ID"
type: string
instance_image_id:
description: "Instance AMI ID"
type: string
instance_type:
description: "Instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: "Slab request ID"
type: string
# This input is not used in this workflow but still mandatory since a calling workflow could
# use it. If a triggering command include a user_inputs field, then the triggered workflow
# must include this very input, otherwise the workflow won't be called.
# See start_full_benchmarks.yml as example.
user_inputs:
description: "Type of benchmarks to run"
type: string
default: "weekly_benchmarks"
env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
jobs:
run-core-crypto-benchmarks:
name: Execute GPU core crypto benchmarks in EC2
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
strategy:
fail-fast: false
# explicit include-based build matrix, of known valid options
matrix:
include:
- os: ubuntu-22.04
cuda: "12.2"
gcc: 9
env:
CUDA_PATH: /usr/local/cuda-${{ matrix.cuda }}
steps:
- name: Instance configuration used
run: |
echo "IDs: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
- name: Get benchmark date
run: |
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
fetch-depth: 0
- name: Set up home
# "Install rust" step require root user to have a HOME directory which is not set.
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: nightly
- name: Export CUDA variables
if: ${{ !cancelled() }}
run: |
echo "CUDA_PATH=$CUDA_PATH" >> "${GITHUB_ENV}"
echo "$CUDA_PATH/bin" >> "${GITHUB_PATH}"
echo "LD_LIBRARY_PATH=$CUDA_PATH/lib:$LD_LIBRARY_PATH" >> "${GITHUB_ENV}"
echo "CUDACXX=/usr/local/cuda-${{ matrix.cuda }}/bin/nvcc" >> "${GITHUB_ENV}"
# Specify the correct host compilers
- name: Export gcc and g++ variables
if: ${{ !cancelled() }}
run: |
echo "CC=/usr/bin/gcc-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CUDAHOSTCXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Run benchmarks with AVX512
run: |
make bench_pbs_gpu
make bench_ks_gpu
- name: Parse results
run: |
COMMIT_DATE="$(git --no-pager show -s --format=%cd --date=iso8601-strict ${{ github.sha }})"
COMMIT_HASH="$(git describe --tags --dirty)"
python3 ./ci/benchmark_parser.py target/criterion ${{ env.RESULTS_FILENAME }} \
--database tfhe_rs \
--hardware ${{ inputs.instance_type }} \
--backend gpu \
--project-version "${COMMIT_HASH}" \
--branch ${{ github.ref_name }} \
--commit-date "${COMMIT_DATE}" \
--bench-date "${{ env.BENCH_DATE }}" \
--name-suffix avx512 \
--walk-subdirs \
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_core_crypto
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
repository: zama-ai/slab
path: slab
token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
- name: Send data to Slab
shell: bash
run: |
echo "Computing HMac on downloaded artifact"
SIGNATURE="$(slab/scripts/hmac_calculator.sh ${{ env.RESULTS_FILENAME }} '${{ secrets.JOB_SECRET }}')"
echo "Sending results to Slab..."
curl -v -k \
-H "Content-Type: application/json" \
-H "X-Slab-Repository: ${{ github.repository }}" \
-H "X-Slab-Command: store_data_v2" \
-H "X-Hub-Signature-256: sha256=${SIGNATURE}" \
-d @${{ env.RESULTS_FILENAME }} \
${{ secrets.SLAB_URL }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "PBS GPU benchmarks failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -0,0 +1,74 @@
name: CSPRNG randomness testing Workflow
env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
# All the inputs are provided by Slab
inputs:
instance_id:
description: "AWS instance ID"
type: string
instance_image_id:
description: "AWS instance AMI ID"
type: string
instance_type:
description: "AWS instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: 'Slab request ID'
type: string
fork_repo:
description: 'Name of forked repo as user/repo'
type: string
fork_git_sha:
description: 'Git SHA to checkout from fork'
type: string
jobs:
csprng-randomness-teting:
name: CSPRNG randomness testing
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}_${{ inputs.instance_image_id }}_${{ inputs.instance_type }}
cancel-in-progress: true
runs-on: ${{ inputs.runner_name }}
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: ${{ inputs.fork_repo }}
ref: ${{ inputs.fork_git_sha }}
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
default: true
- name: Dieharder randomness test suite
run: |
make dieharder_csprng
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "concrete-csprng randomness check finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -1,94 +0,0 @@
name: CSPRNG randomness testing Workflow
env:
CARGO_TERM_COLOR: always
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}
on:
# Allows you to run this workflow manually from the Actions tab as an alternative.
workflow_dispatch:
pull_request:
types: [ labeled ]
jobs:
setup-ec2:
name: Setup EC2 instance (csprng-randomness-tests)
if: ${{ github.event_name == 'workflow_dispatch' || contains(github.event.label.name, 'approved') }}
runs-on: ubuntu-latest
outputs:
runner-name: ${{ steps.start-instance.outputs.label }}
instance-id: ${{ steps.start-instance.outputs.ec2-instance-id }}
steps:
- name: Start instance
id: start-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: start
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-small
csprng-randomness-tests:
name: CSPRNG randomness tests
needs: setup-ec2
concurrency:
group: ${{ github.workflow }}_${{ github.ref }}
cancel-in-progress: true
runs-on: ${{ needs.setup-ec2.outputs.runner-name }}
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
- name: Set up home
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: stable
- name: Dieharder randomness test suite
run: |
make dieharder_csprng
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "concrete-csprng randomness check finished with status: ${{ job.status }}. (${{ env.ACTION_RUN_URL }})"
teardown-ec2:
name: Teardown EC2 instance (csprng-randomness-tests)
if: ${{ always() && needs.setup-ec2.result != 'skipped' }}
needs: [ setup-ec2, csprng-randomness-tests ]
runs-on: ubuntu-latest
steps:
- name: Stop instance
id: stop-instance
uses: zama-ai/slab-github-runner@ab65ad70bb9f9e9251e4915ea5612bcad23cd9b1
with:
mode: stop
github-token: ${{ secrets.SLAB_ACTION_TOKEN }}
slab-url: ${{ secrets.SLAB_BASE_URL }}
job-secret: ${{ secrets.JOB_SECRET }}
profile: cpu-small
label: ${{ needs.setup-ec2.outputs.runner-name }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_MESSAGE: "EC2 teardown (csprng-randomness-tests) failed. (${{ env.ACTION_RUN_URL }})"

View File

@@ -25,7 +25,6 @@ env:
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
PARSE_INTEGER_BENCH_CSV_FILE: tfhe_rs_integer_benches_${{ github.sha }}.csv
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-integer-benchmarks:
@@ -45,7 +44,7 @@ jobs:
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -55,13 +54,14 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Run benchmarks with AVX512
run: |
make FAST_BENCH=TRUE bench_integer
make AVX512_SUPPORT=ON FAST_BENCH=TRUE bench_integer
- name: Parse benchmarks to csv
run: |
@@ -69,7 +69,7 @@ jobs:
parse_integer_benches
- name: Upload csv results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_csv_integer
path: ${{ env.PARSE_INTEGER_BENCH_CSV_FILE }}
@@ -90,13 +90,13 @@ jobs:
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_integer
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

View File

@@ -28,7 +28,6 @@ env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
prepare-matrix:
@@ -40,12 +39,15 @@ jobs:
- name: Weekly benchmarks
if: ${{ github.event.inputs.user_inputs == 'weekly_benchmarks' }}
run: |
echo "OP_FLAVOR=[\"default\"]" >> ${GITHUB_ENV}
echo "OP_FLAVOR=[\"default\", \"default_comp\", \"default_scalar\", \"default_scalar_comp\"]" >> ${GITHUB_ENV}
- name: Quarterly benchmarks
if: ${{ github.event.inputs.user_inputs == 'quarterly_benchmarks' }}
run: |
echo "OP_FLAVOR=[\"default\", \"smart\", \"unchecked\", \"misc\"]" >> ${GITHUB_ENV}
echo "OP_FLAVOR=[\"default\", \"default_comp\", \"default_scalar\", \"default_scalar_comp\", \
\"smart\", \"smart_comp\", \"smart_scalar\", \"smart_parallelized\", \"smart_parallelized_comp\", \"smart_scalar_parallelized\", \"smart_scalar_parallelized_comp\", \
\"unchecked\", \"unchecked_comp\", \"unchecked_scalar\", \"unchecked_scalar_comp\", \
\"misc\"]" >> ${GITHUB_ENV}
- name: Set operation flavor output
id: set_op_flavor
@@ -58,7 +60,6 @@ jobs:
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
continue-on-error: true
timeout-minutes: 1440 # 24 hours
strategy:
max-parallel: 1
matrix:
@@ -73,7 +74,7 @@ jobs:
echo "Request ID: ${{ inputs.request_id }}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -89,12 +90,13 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab
@@ -102,7 +104,7 @@ jobs:
- name: Run benchmarks with AVX512
run: |
make BENCH_OP_FLAVOR=${{ matrix.op_flavor }} bench_${{ matrix.command }}
make AVX512_SUPPORT=ON BENCH_OP_FLAVOR=${{ matrix.op_flavor }} bench_${{ matrix.command }}
- name: Parse results
run: |
@@ -118,7 +120,7 @@ jobs:
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_${{ matrix.command }}_${{ matrix.op_flavor }}
path: ${{ env.RESULTS_FILENAME }}

View File

@@ -1,157 +0,0 @@
# Run integer benchmarks on an AWS instance with CUDA and return parsed results to Slab CI bot.
name: Integer GPU benchmarks
on:
workflow_dispatch:
inputs:
instance_id:
description: "Instance ID"
type: string
instance_image_id:
description: "Instance AMI ID"
type: string
instance_type:
description: "Instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: "Slab request ID"
type: string
env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
PARSE_INTEGER_BENCH_CSV_FILE: tfhe_rs_integer_benches_${{ github.sha }}.csv
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-integer-benchmarks:
name: Execute integer benchmarks in EC2
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
strategy:
fail-fast: false
# explicit include-based build matrix, of known valid options
matrix:
include:
- os: ubuntu-22.04
cuda: "12.2"
gcc: 9
env:
CUDA_PATH: /usr/local/cuda-${{ matrix.cuda }}
steps:
- name: Instance configuration used
run: |
echo "IDs: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
- name: Get benchmark date
run: |
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
fetch-depth: 0
- name: Set up home
# "Install rust" step require root user to have a HOME directory which is not set.
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: nightly
- name: Export CUDA variables
if: ${{ !cancelled() }}
run: |
echo "CUDA_PATH=$CUDA_PATH" >> "${GITHUB_ENV}"
echo "$CUDA_PATH/bin" >> "${GITHUB_PATH}"
echo "LD_LIBRARY_PATH=$CUDA_PATH/lib:$LD_LIBRARY_PATH" >> "${GITHUB_ENV}"
echo "CUDACXX=/usr/local/cuda-${{ matrix.cuda }}/bin/nvcc" >> "${GITHUB_ENV}"
# Specify the correct host compilers
- name: Export gcc and g++ variables
if: ${{ !cancelled() }}
run: |
echo "CC=/usr/bin/gcc-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CUDAHOSTCXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Run benchmarks with AVX512
run: |
make FAST_BENCH=TRUE BENCH_OP_FLAVOR=default bench_integer_gpu
- name: Parse benchmarks to csv
run: |
make PARSE_INTEGER_BENCH_CSV_FILE=${{ env.PARSE_INTEGER_BENCH_CSV_FILE }} \
parse_integer_benches
- name: Upload csv results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_csv_integer
path: ${{ env.PARSE_INTEGER_BENCH_CSV_FILE }}
- name: Parse results
run: |
COMMIT_DATE="$(git --no-pager show -s --format=%cd --date=iso8601-strict ${{ github.sha }})"
COMMIT_HASH="$(git describe --tags --dirty)"
python3 ./ci/benchmark_parser.py target/criterion ${{ env.RESULTS_FILENAME }} \
--database tfhe_rs \
--hardware ${{ inputs.instance_type }} \
--backend gpu \
--project-version "${COMMIT_HASH}" \
--branch ${{ github.ref_name }} \
--commit-date "${COMMIT_DATE}" \
--bench-date "${{ env.BENCH_DATE }}" \
--walk-subdirs \
--name-suffix avx512 \
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_integer
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
repository: zama-ai/slab
path: slab
token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
- name: Send data to Slab
shell: bash
run: |
echo "Computing HMac on results file"
SIGNATURE="$(slab/scripts/hmac_calculator.sh ${{ env.RESULTS_FILENAME }} '${{ secrets.JOB_SECRET }}')"
echo "Sending results to Slab..."
curl -v -k \
-H "Content-Type: application/json" \
-H "X-Slab-Repository: ${{ github.repository }}" \
-H "X-Slab-Command: store_data_v2" \
-H "X-Hub-Signature-256: sha256=${SIGNATURE}" \
-d @${{ env.RESULTS_FILENAME }} \
${{ secrets.SLAB_URL }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Integer GPU benchmarks failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -1,162 +0,0 @@
# Run all integer benchmarks on an AWS instance with CUDA and return parsed results to Slab CI bot.
name: Integer GPU full benchmarks
on:
workflow_dispatch:
inputs:
instance_id:
description: "Instance ID"
type: string
instance_image_id:
description: "Instance AMI ID"
type: string
instance_type:
description: "Instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: "Slab request ID"
type: string
# This input is not used in this workflow but still mandatory since a calling workflow could
# use it. If a triggering command include a user_inputs field, then the triggered workflow
# must include this very input, otherwise the workflow won't be called.
# See start_full_benchmarks.yml as example.
user_inputs:
description: "Type of benchmarks to run"
type: string
default: "weekly_benchmarks"
env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
integer-benchmarks:
name: Execute integer benchmarks for all operations flavor
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
continue-on-error: true
strategy:
fail-fast: false
max-parallel: 1
matrix:
command: [ integer, integer_multi_bit]
op_flavor: [ default, unchecked ]
# explicit include-based build matrix, of known valid options
include:
- os: ubuntu-22.04
cuda: "12.2"
gcc: 9
env:
CUDA_PATH: /usr/local/cuda-${{ matrix.cuda }}
steps:
- name: Instance configuration used
run: |
echo "IDs: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
fetch-depth: 0
- name: Get benchmark details
run: |
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
echo "COMMIT_DATE=$(git --no-pager show -s --format=%cd --date=iso8601-strict ${{ github.sha }})" >> "${GITHUB_ENV}"
echo "COMMIT_HASH=$(git describe --tags --dirty)" >> "${GITHUB_ENV}"
- name: Set up home
# "Install rust" step require root user to have a HOME directory which is not set.
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: nightly
- name: Export CUDA variables
if: ${{ !cancelled() }}
run: |
echo "CUDA_PATH=$CUDA_PATH" >> "${GITHUB_ENV}"
echo "$CUDA_PATH/bin" >> "${GITHUB_PATH}"
echo "LD_LIBRARY_PATH=$CUDA_PATH/lib:$LD_LIBRARY_PATH" >> "${GITHUB_ENV}"
echo "CUDACXX=/usr/local/cuda-${{ matrix.cuda }}/bin/nvcc" >> "${GITHUB_ENV}"
# Specify the correct host compilers
- name: Export gcc and g++ variables
if: ${{ !cancelled() }}
run: |
echo "CC=/usr/bin/gcc-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CUDAHOSTCXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
repository: zama-ai/slab
path: slab
token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
- name: Run benchmarks with AVX512
run: |
make BENCH_OP_FLAVOR=${{ matrix.op_flavor }} bench_${{ matrix.command }}_gpu
- name: Parse results
run: |
python3 ./ci/benchmark_parser.py target/criterion ${{ env.RESULTS_FILENAME }} \
--database tfhe_rs \
--hardware ${{ inputs.instance_type }} \
--backend gpu \
--project-version "${{ env.COMMIT_HASH }}" \
--branch ${{ github.ref_name }} \
--commit-date "${{ env.COMMIT_DATE }}" \
--bench-date "${{ env.BENCH_DATE }}" \
--walk-subdirs \
--name-suffix avx512 \
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_${{ matrix.command }}_${{ matrix.op_flavor }}
path: ${{ env.RESULTS_FILENAME }}
- name: Send data to Slab
shell: bash
run: |
echo "Computing HMac on results file"
SIGNATURE="$(slab/scripts/hmac_calculator.sh ${{ env.RESULTS_FILENAME }} '${{ secrets.JOB_SECRET }}')"
echo "Sending results to Slab..."
curl -v -k \
-H "Content-Type: application/json" \
-H "X-Slab-Repository: ${{ github.repository }}" \
-H "X-Slab-Command: store_data_v2" \
-H "X-Hub-Signature-256: sha256=${SIGNATURE}" \
-d @${{ env.RESULTS_FILENAME }} \
${{ secrets.SLAB_URL }}
slack-notification:
name: Slack Notification
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ failure() }}
needs: integer-benchmarks
steps:
- name: Notify
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Integer GPU full benchmarks failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -25,7 +25,6 @@ env:
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
PARSE_INTEGER_BENCH_CSV_FILE: tfhe_rs_integer_benches_${{ github.sha }}.csv
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-integer-benchmarks:
@@ -45,7 +44,7 @@ jobs:
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -55,13 +54,14 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Run multi-bit benchmarks with AVX512
run: |
make FAST_BENCH=TRUE bench_integer_multi_bit
make AVX512_SUPPORT=ON FAST_BENCH=TRUE bench_integer_multi_bit
- name: Parse benchmarks to csv
run: |
@@ -69,7 +69,7 @@ jobs:
parse_integer_benches
- name: Upload csv results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_csv_integer
path: ${{ env.PARSE_INTEGER_BENCH_CSV_FILE }}
@@ -90,13 +90,13 @@ jobs:
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_integer
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

View File

@@ -1,158 +0,0 @@
# Run integer benchmarks with multi-bit cryptographic parameters on an AWS instance and return parsed results to Slab CI bot.
name: Integer Multi-bit benchmarks
on:
workflow_dispatch:
inputs:
instance_id:
description: "Instance ID"
type: string
instance_image_id:
description: "Instance AMI ID"
type: string
instance_type:
description: "Instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: "Slab request ID"
type: string
env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
PARSE_INTEGER_BENCH_CSV_FILE: tfhe_rs_integer_benches_${{ github.sha }}.csv
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-integer-benchmarks:
name: Execute integer multi-bit benchmarks in EC2
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
strategy:
fail-fast: false
# explicit include-based build matrix, of known valid options
matrix:
include:
- os: ubuntu-22.04
cuda: "11.8"
cuda_arch: "70"
gcc: 9
env:
CUDA_PATH: /usr/local/cuda-${{ matrix.cuda }}
steps:
- name: Instance configuration used
run: |
echo "IDs: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
- name: Get benchmark date
run: |
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
fetch-depth: 0
- name: Set up home
# "Install rust" step require root user to have a HOME directory which is not set.
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: nightly
- name: Export CUDA variables
if: ${{ !cancelled() }}
run: |
echo "CUDA_PATH=$CUDA_PATH" >> "${GITHUB_ENV}"
echo "$CUDA_PATH/bin" >> "${GITHUB_PATH}"
echo "LD_LIBRARY_PATH=$CUDA_PATH/lib:$LD_LIBRARY_PATH" >> "${GITHUB_ENV}"
echo "CUDACXX=/usr/local/cuda-${{ matrix.cuda }}/bin/nvcc" >> "${GITHUB_ENV}"
# Specify the correct host compilers
- name: Export gcc and g++ variables
if: ${{ !cancelled() }}
run: |
echo "CC=/usr/bin/gcc-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "CUDAHOSTCXX=/usr/bin/g++-${{ matrix.gcc }}" >> "${GITHUB_ENV}"
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Run multi-bit benchmarks with AVX512
run: |
make FAST_BENCH=TRUE BENCH_OP_FLAVOR=default bench_integer_multi_bit_gpu
- name: Parse benchmarks to csv
run: |
make PARSE_INTEGER_BENCH_CSV_FILE=${{ env.PARSE_INTEGER_BENCH_CSV_FILE }} \
parse_integer_benches
- name: Upload csv results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_csv_integer
path: ${{ env.PARSE_INTEGER_BENCH_CSV_FILE }}
- name: Parse results
run: |
COMMIT_DATE="$(git --no-pager show -s --format=%cd --date=iso8601-strict ${{ github.sha }})"
COMMIT_HASH="$(git describe --tags --dirty)"
python3 ./ci/benchmark_parser.py target/criterion ${{ env.RESULTS_FILENAME }} \
--database tfhe_rs \
--hardware ${{ inputs.instance_type }} \
--backend gpu \
--project-version "${COMMIT_HASH}" \
--branch ${{ github.ref_name }} \
--commit-date "${COMMIT_DATE}" \
--bench-date "${{ env.BENCH_DATE }}" \
--walk-subdirs \
--name-suffix avx512 \
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_integer
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
repository: zama-ai/slab
path: slab
token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
- name: Send data to Slab
shell: bash
run: |
echo "Computing HMac on results file"
SIGNATURE="$(slab/scripts/hmac_calculator.sh ${{ env.RESULTS_FILENAME }} '${{ secrets.JOB_SECRET }}')"
echo "Sending results to Slab..."
curl -v -k \
-H "Content-Type: application/json" \
-H "X-Slab-Repository: ${{ github.repository }}" \
-H "X-Slab-Command: store_data_v2" \
-H "X-Hub-Signature-256: sha256=${SIGNATURE}" \
-d @${{ env.RESULTS_FILENAME }} \
${{ secrets.SLAB_URL }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Integer GPU benchmarks failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -14,8 +14,8 @@ on:
env:
CARGO_TERM_COLOR: always
RUSTFLAGS: "-C target-cpu=native"
RUST_BACKTRACE: "full"
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
CARGO_PROFILE: release_lto_off
FAST_TESTS: "TRUE"
concurrency:
@@ -28,12 +28,13 @@ jobs:
runs-on: ["self-hosted", "m1mac"]
steps:
- uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
- uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
- name: Install latest stable
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: stable
default: true
- name: Run pcc checks
run: |
@@ -110,9 +111,10 @@ jobs:
run: |
make test_shortint_multi_bit_ci
- name: Run integer multi bit tests
run: |
make test_integer_multi_bit_ci
# # These multi bit integer tests are too slow on M1 with low core count and low RAM
# - name: Run integer multi bit tests
# run: |
# make test_integer_multi_bit_ci
remove_label:
name: Remove m1_test label

View File

@@ -30,7 +30,7 @@ jobs:
runs-on: ubuntu-latest
steps:
- name: Checkout
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -49,7 +49,7 @@ jobs:
- name: Publish web package
if: ${{ inputs.push_web_package }}
uses: JS-DevTools/npm-publish@4b07b26a2f6e0a51846e1870223e545bae91c552
uses: JS-DevTools/npm-publish@fe72237be0920f7a0cafd6a966c9b929c9466e9b
with:
token: ${{ secrets.NPM_TOKEN }}
package: tfhe/pkg/package.json
@@ -65,7 +65,7 @@ jobs:
- name: Publish Node package
if: ${{ inputs.push_node_package }}
uses: JS-DevTools/npm-publish@4b07b26a2f6e0a51846e1870223e545bae91c552
uses: JS-DevTools/npm-publish@fe72237be0920f7a0cafd6a966c9b929c9466e9b
with:
token: ${{ secrets.NPM_TOKEN }}
package: tfhe/pkg/package.json

View File

@@ -18,7 +18,7 @@ jobs:
runs-on: ubuntu-latest
steps:
- name: Checkout
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0

View File

@@ -17,10 +17,10 @@ jobs:
runs-on: ubuntu-latest
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
- name: Checkout lattice-estimator
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: malb/lattice-estimator
path: lattice_estimator

View File

@@ -1,5 +1,5 @@
# Run core crypto benchmarks on an AWS instance and return parsed results to Slab CI bot.
name: Core crypto benchmarks
# Run PBS benchmarks on an AWS instance and return parsed results to Slab CI bot.
name: PBS benchmarks
on:
workflow_dispatch:
@@ -32,11 +32,10 @@ env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-core-crypto-benchmarks:
name: Execute core crypto benchmarks in EC2
run-pbs-benchmarks:
name: Execute PBS benchmarks in EC2
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
steps:
@@ -52,7 +51,7 @@ jobs:
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -62,14 +61,14 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Run benchmarks with AVX512
run: |
make bench_pbs
make bench_ks
make AVX512_SUPPORT=ON bench_pbs
- name: Parse results
run: |
@@ -87,13 +86,13 @@ jobs:
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_core_crypto
name: ${{ github.sha }}_pbs
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

View File

@@ -24,7 +24,6 @@ env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-shortint-benchmarks:
@@ -44,7 +43,7 @@ jobs:
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -54,13 +53,14 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Run benchmarks with AVX512
run: |
make bench_shortint
make AVX512_SUPPORT=ON bench_shortint
- name: Parse results
run: |
@@ -88,13 +88,13 @@ jobs:
--append-results
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_shortint
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

View File

@@ -32,7 +32,6 @@ env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
shortint-benchmarks:
@@ -52,7 +51,7 @@ jobs:
echo "Request ID: ${{ inputs.request_id }}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -68,12 +67,13 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab
@@ -81,7 +81,7 @@ jobs:
- name: Run benchmarks with AVX512
run: |
make BENCH_OP_FLAVOR=${{ matrix.op_flavor }} bench_shortint
make AVX512_SUPPORT=ON BENCH_OP_FLAVOR=${{ matrix.op_flavor }} bench_shortint
- name: Parse results
run: |
@@ -112,7 +112,7 @@ jobs:
--append-results
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_shortint_${{ matrix.op_flavor }}
path: ${{ env.RESULTS_FILENAME }}

View File

@@ -1,129 +0,0 @@
# Run signed integer benchmarks on an AWS instance and return parsed results to Slab CI bot.
name: Signed Integer benchmarks
on:
workflow_dispatch:
inputs:
instance_id:
description: "Instance ID"
type: string
instance_image_id:
description: "Instance AMI ID"
type: string
instance_type:
description: "Instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: "Slab request ID"
type: string
env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
PARSE_INTEGER_BENCH_CSV_FILE: tfhe_rs_integer_benches_${{ github.sha }}.csv
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-integer-benchmarks:
name: Execute signed integer benchmarks in EC2
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
steps:
- name: Instance configuration used
run: |
echo "IDs: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
- name: Get benchmark date
run: |
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
fetch-depth: 0
- name: Set up home
# "Install rust" step require root user to have a HOME directory which is not set.
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: nightly
- name: Run benchmarks with AVX512
run: |
make FAST_BENCH=TRUE bench_signed_integer
- name: Parse benchmarks to csv
run: |
make PARSE_INTEGER_BENCH_CSV_FILE=${{ env.PARSE_INTEGER_BENCH_CSV_FILE }} \
parse_integer_benches
- name: Upload csv results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_csv_integer
path: ${{ env.PARSE_INTEGER_BENCH_CSV_FILE }}
- name: Parse results
run: |
COMMIT_DATE="$(git --no-pager show -s --format=%cd --date=iso8601-strict ${{ github.sha }})"
COMMIT_HASH="$(git describe --tags --dirty)"
python3 ./ci/benchmark_parser.py target/criterion ${{ env.RESULTS_FILENAME }} \
--database tfhe_rs \
--hardware ${{ inputs.instance_type }} \
--project-version "${COMMIT_HASH}" \
--branch ${{ github.ref_name }} \
--commit-date "${COMMIT_DATE}" \
--bench-date "${{ env.BENCH_DATE }}" \
--walk-subdirs \
--name-suffix avx512 \
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_integer
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
repository: zama-ai/slab
path: slab
token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
- name: Send data to Slab
shell: bash
run: |
echo "Computing HMac on results file"
SIGNATURE="$(slab/scripts/hmac_calculator.sh ${{ env.RESULTS_FILENAME }} '${{ secrets.JOB_SECRET }}')"
echo "Sending results to Slab..."
curl -v -k \
-H "Content-Type: application/json" \
-H "X-Slab-Repository: ${{ github.repository }}" \
-H "X-Slab-Command: store_data_v2" \
-H "X-Hub-Signature-256: sha256=${SIGNATURE}" \
-d @${{ env.RESULTS_FILENAME }} \
${{ secrets.SLAB_URL }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Signed integer benchmarks failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -1,133 +0,0 @@
# Run all signed integer benchmarks on an AWS instance and return parsed results to Slab CI bot.
name: Signed Integer full benchmarks
on:
workflow_dispatch:
inputs:
instance_id:
description: "Instance ID"
type: string
instance_image_id:
description: "Instance AMI ID"
type: string
instance_type:
description: "Instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: "Slab request ID"
type: string
user_inputs:
description: "Type of benchmarks to run"
type: string
default: "weekly_benchmarks"
env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
integer-benchmarks:
name: Execute signed integer benchmarks for all operations flavor
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
continue-on-error: true
timeout-minutes: 1440 # 24 hours
strategy:
max-parallel: 1
matrix:
command: [ integer, integer_multi_bit ]
op_flavor: [ default, unchecked ]
steps:
- name: Instance configuration used
run: |
echo "IDs: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
fetch-depth: 0
- name: Get benchmark details
run: |
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
echo "COMMIT_DATE=$(git --no-pager show -s --format=%cd --date=iso8601-strict ${{ github.sha }})" >> "${GITHUB_ENV}"
echo "COMMIT_HASH=$(git describe --tags --dirty)" >> "${GITHUB_ENV}"
- name: Set up home
# "Install rust" step require root user to have a HOME directory which is not set.
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: nightly
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
repository: zama-ai/slab
path: slab
token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
- name: Run benchmarks with AVX512
run: |
make BENCH_OP_FLAVOR=${{ matrix.op_flavor }} bench_signed_${{ matrix.command }}
- name: Parse results
run: |
python3 ./ci/benchmark_parser.py target/criterion ${{ env.RESULTS_FILENAME }} \
--database tfhe_rs \
--hardware ${{ inputs.instance_type }} \
--project-version "${{ env.COMMIT_HASH }}" \
--branch ${{ github.ref_name }} \
--commit-date "${{ env.COMMIT_DATE }}" \
--bench-date "${{ env.BENCH_DATE }}" \
--walk-subdirs \
--name-suffix avx512 \
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_${{ matrix.command }}_${{ matrix.op_flavor }}
path: ${{ env.RESULTS_FILENAME }}
- name: Send data to Slab
shell: bash
run: |
echo "Computing HMac on results file"
SIGNATURE="$(slab/scripts/hmac_calculator.sh ${{ env.RESULTS_FILENAME }} '${{ secrets.JOB_SECRET }}')"
echo "Sending results to Slab..."
curl -v -k \
-H "Content-Type: application/json" \
-H "X-Slab-Repository: ${{ github.repository }}" \
-H "X-Slab-Command: store_data_v2" \
-H "X-Hub-Signature-256: sha256=${SIGNATURE}" \
-d @${{ env.RESULTS_FILENAME }} \
${{ secrets.SLAB_URL }}
slack-notification:
name: Slack Notification
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ failure() }}
needs: integer-benchmarks
steps:
- name: Notify
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Signed integer full benchmarks failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -1,129 +0,0 @@
# Run signed integer benchmarks with multi-bit cryptographic parameters on an AWS instance and return parsed results to Slab CI bot.
name: Signed Integer Multi-bit benchmarks
on:
workflow_dispatch:
inputs:
instance_id:
description: "Instance ID"
type: string
instance_image_id:
description: "Instance AMI ID"
type: string
instance_type:
description: "Instance product type"
type: string
runner_name:
description: "Action runner name"
type: string
request_id:
description: "Slab request ID"
type: string
env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
PARSE_INTEGER_BENCH_CSV_FILE: tfhe_rs_integer_benches_${{ github.sha }}.csv
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-integer-benchmarks:
name: Execute signed integer multi-bit benchmarks in EC2
runs-on: ${{ github.event.inputs.runner_name }}
if: ${{ !cancelled() }}
steps:
- name: Instance configuration used
run: |
echo "IDs: ${{ inputs.instance_id }}"
echo "AMI: ${{ inputs.instance_image_id }}"
echo "Type: ${{ inputs.instance_type }}"
echo "Request ID: ${{ inputs.request_id }}"
- name: Get benchmark date
run: |
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
fetch-depth: 0
- name: Set up home
# "Install rust" step require root user to have a HOME directory which is not set.
run: |
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
with:
toolchain: nightly
- name: Run multi-bit benchmarks with AVX512
run: |
make FAST_BENCH=TRUE bench_signed_integer_multi_bit
- name: Parse benchmarks to csv
run: |
make PARSE_INTEGER_BENCH_CSV_FILE=${{ env.PARSE_INTEGER_BENCH_CSV_FILE }} \
parse_integer_benches
- name: Upload csv results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_csv_integer
path: ${{ env.PARSE_INTEGER_BENCH_CSV_FILE }}
- name: Parse results
run: |
COMMIT_DATE="$(git --no-pager show -s --format=%cd --date=iso8601-strict ${{ github.sha }})"
COMMIT_HASH="$(git describe --tags --dirty)"
python3 ./ci/benchmark_parser.py target/criterion ${{ env.RESULTS_FILENAME }} \
--database tfhe_rs \
--hardware ${{ inputs.instance_type }} \
--project-version "${COMMIT_HASH}" \
--branch ${{ github.ref_name }} \
--commit-date "${COMMIT_DATE}" \
--bench-date "${{ env.BENCH_DATE }}" \
--walk-subdirs \
--name-suffix avx512 \
--throughput
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
with:
name: ${{ github.sha }}_integer
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
with:
repository: zama-ai/slab
path: slab
token: ${{ secrets.CONCRETE_ACTIONS_TOKEN }}
- name: Send data to Slab
shell: bash
run: |
echo "Computing HMac on results file"
SIGNATURE="$(slab/scripts/hmac_calculator.sh ${{ env.RESULTS_FILENAME }} '${{ secrets.JOB_SECRET }}')"
echo "Sending results to Slab..."
curl -v -k \
-H "Content-Type: application/json" \
-H "X-Slab-Repository: ${{ github.repository }}" \
-H "X-Slab-Command: store_data_v2" \
-H "X-Hub-Signature-256: sha256=${SIGNATURE}" \
-d @${{ env.RESULTS_FILENAME }} \
${{ secrets.SLAB_URL }}
- name: Slack Notification
if: ${{ failure() }}
continue-on-error: true
uses: rtCamp/action-slack-notify@b24d75fe0e728a4bf9fc42ee217caa686d141ee8
env:
SLACK_COLOR: ${{ job.status }}
SLACK_CHANNEL: ${{ secrets.SLACK_CHANNEL }}
SLACK_ICON: https://pbs.twimg.com/profile_images/1274014582265298945/OjBKP9kn_400x400.png
SLACK_MESSAGE: "Signed integer benchmarks failed. (${{ env.ACTION_RUN_URL }})"
SLACK_USERNAME: ${{ secrets.BOT_USERNAME }}
SLACK_WEBHOOK: ${{ secrets.SLACK_WEBHOOK }}

View File

@@ -20,24 +20,12 @@ on:
description: "Run integer benches"
type: boolean
default: true
signed_integer_bench:
description: "Run signed integer benches"
type: boolean
default: true
integer_multi_bit_bench:
description: "Run integer multi bit benches"
type: boolean
default: true
signed_integer_multi_bit_bench:
description: "Run signed integer multi bit benches"
type: boolean
default: true
core_crypto_bench:
description: "Run core crypto benches"
type: boolean
default: true
core_crypto_gpu_bench:
description: "Run core crypto benches on GPU"
pbs_bench:
description: "Run PBS benches"
type: boolean
default: true
wasm_client_bench:
@@ -50,21 +38,17 @@ jobs:
if: ${{ (github.event_name == 'push' && github.repository == 'zama-ai/tfhe-rs') || github.event_name == 'workflow_dispatch' }}
strategy:
matrix:
command: [ boolean_bench, shortint_bench,
integer_bench, integer_multi_bit_bench,
signed_integer_bench, signed_integer_multi_bit_bench,
integer_gpu_bench, integer_multi_bit_gpu_bench,
core_crypto_bench, core_crypto_gpu_bench, wasm_client_bench ]
command: [boolean_bench, shortint_bench, integer_bench, integer_multi_bit_bench, pbs_bench, wasm_client_bench]
runs-on: ubuntu-latest
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
- name: Check for file changes
id: changed-files
uses: tj-actions/changed-files@ec75ae5ab7296b81fd4cddb77294d6718932ebab
uses: tj-actions/changed-files@db153baf731265ad02cd490b07f470e2d55e3345
with:
files_yaml: |
common_benches:
@@ -85,33 +69,23 @@ jobs:
integer_bench:
- tfhe/src/shortint/**
- tfhe/src/integer/**
- tfhe/benches/integer/bench.rs
- tfhe/benches/integer/**
- .github/workflows/integer_benchmark.yml
integer_multi_bit_bench:
- tfhe/src/shortint/**
- tfhe/src/integer/**
- tfhe/benches/integer/bench.rs
- .github/workflows/integer_multi_bit_benchmark.yml
signed_integer_bench:
- tfhe/src/shortint/**
- tfhe/src/integer/**
- tfhe/benches/integer/signed_bench.rs
- .github/workflows/signed_integer_benchmark.yml
signed_integer_multi_bit_bench:
- tfhe/src/shortint/**
- tfhe/src/integer/**
- tfhe/benches/integer/signed_bench.rs
- .github/workflows/signed_integer_multi_bit_benchmark.yml
core_crypto_bench:
- tfhe/benches/integer/**
- .github/workflows/integer_benchmark.yml
pbs_bench:
- tfhe/src/core_crypto/**
- tfhe/benches/core_crypto/**
- .github/workflows/core_crypto_benchmark.yml
- .github/workflows/pbs_benchmark.yml
wasm_client_bench:
- tfhe/web_wasm_parallel_tests/**
- .github/workflows/wasm_client_benchmark.yml
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

View File

@@ -24,18 +24,16 @@ jobs:
if: ${{ (github.event_name == 'schedule' && github.repository == 'zama-ai/tfhe-rs') || github.event_name == 'workflow_dispatch' }}
strategy:
matrix:
command: [ boolean_bench, shortint_full_bench,
integer_full_bench, signed_integer_full_bench, integer_gpu_full_bench,
core_crypto_bench, core_crypto_gpu_bench, wasm_client_bench ]
command: [ boolean_bench, shortint_full_bench, integer_full_bench, pbs_bench, wasm_client_bench ]
runs-on: ubuntu-latest
steps:
- name: Checkout tfhe-rs
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

View File

@@ -13,11 +13,11 @@ jobs:
runs-on: ubuntu-latest
steps:
- name: Checkout repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
- name: Save repo
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: repo-archive
path: '.'

View File

@@ -0,0 +1,54 @@
# Trigger an AWS build each time commits are pushed to a pull request.
name: PR AWS build trigger
on:
pull_request:
pull_request_review:
types: [submitted]
jobs:
trigger-tests:
runs-on: ubuntu-latest
permissions:
pull-requests: write
steps:
- name: Get current labels
uses: snnaplab/get-labels-action@f426df40304808ace3b5282d4f036515f7609576
- name: Remove approved label
if: ${{ github.event_name == 'pull_request' && contains(fromJSON(env.LABELS), 'approved') }}
uses: actions-ecosystem/action-remove-labels@2ce5d41b4b6aa8503e285553f75ed56e0a40bae0
with:
github_token: ${{ secrets.GITHUB_TOKEN }}
labels: approved
- name: Launch fast tests
if: ${{ github.event_name == 'pull_request' }}
uses: mshick/add-pr-comment@a65df5f64fc741e91c59b8359a4bc56e57aaf5b1
with:
allow-repeats: true
message: |
@slab-ci cpu_fast_test
- name: Add approved label
uses: actions-ecosystem/action-add-labels@18f1af5e3544586314bbe15c0273249c770b2daf
if: ${{ github.event_name == 'pull_request_review' && github.event.review.state == 'approved' && !contains(fromJSON(env.LABELS), 'approved') }}
with:
github_token: ${{ secrets.GITHUB_TOKEN }}
labels: approved
# PR label 'approved' presence is checked to avoid running the full test suite several times
# in case of multiple approvals without new commits in between.
- name: Launch full tests suite
if: ${{ github.event_name == 'pull_request_review' && github.event.review.state == 'approved' && !contains(fromJSON(env.LABELS), 'approved') }}
uses: mshick/add-pr-comment@a65df5f64fc741e91c59b8359a4bc56e57aaf5b1
with:
allow-repeats: true
message: |
Pull Request has been approved :tada:
Launching full test suite...
@slab-ci cpu_test
@slab-ci cpu_integer_test
@slab-ci cpu_multi_bit_test
@slab-ci cpu_wasm_test
@slab-ci csprng_randomness_testing

View File

@@ -32,7 +32,6 @@ env:
CARGO_TERM_COLOR: always
RESULTS_FILENAME: parsed_benchmark_results_${{ github.sha }}.json
ACTION_RUN_URL: ${{ github.server_url }}/${{ github.repository }}/actions/runs/${{ github.run_id }}
RUST_BACKTRACE: "full"
jobs:
run-wasm-client-benchmarks:
@@ -52,7 +51,7 @@ jobs:
echo "BENCH_DATE=$(date --iso-8601=seconds)" >> "${GITHUB_ENV}"
- name: Checkout tfhe-rs repo with tags
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
fetch-depth: 0
@@ -62,9 +61,10 @@ jobs:
echo "HOME=/home/ubuntu" >> "${GITHUB_ENV}"
- name: Install rust
uses: dtolnay/rust-toolchain@be73d7920c329f220ce78e0234b8f96b7ae60248
uses: actions-rs/toolchain@16499b5e05bf2e26879000db0c1d13f7e13fa3af
with:
toolchain: nightly
override: true
- name: Run benchmarks
run: |
@@ -97,13 +97,13 @@ jobs:
--append-results
- name: Upload parsed results artifact
uses: actions/upload-artifact@5d5d22a31266ced268874388b861e4b58bb5c2f3
uses: actions/upload-artifact@a8a3f3ad30e3422c9c7b888a15615d19a852ae32
with:
name: ${{ github.sha }}_wasm
path: ${{ env.RESULTS_FILENAME }}
- name: Checkout Slab repo
uses: actions/checkout@b4ffde65f46336ab88eb53be808477a3936bae11
uses: actions/checkout@8ade135a41bc03ea155e62e844d188df1ea18608
with:
repository: zama-ai/slab
path: slab

6
.gitignore vendored
View File

@@ -3,9 +3,9 @@ target/
.vscode/
# Path we use for internal-keycache during tests
/keys/
./keys/
# In case of symlinked keys
/keys
./keys
**/Cargo.lock
**/*.bin
@@ -18,4 +18,4 @@ target/
dieharder_run.log
# Coverage reports
/coverage/
./coverage/

View File

@@ -1,6 +1,6 @@
[workspace]
resolver = "2"
members = ["tfhe", "tasks", "apps/trivium", "concrete-csprng", "backends/tfhe-cuda-backend"]
members = ["tfhe", "tasks", "apps/trivium", "concrete-csprng"]
[profile.bench]
lto = "fat"

View File

@@ -1,6 +1,6 @@
BSD 3-Clause Clear License
Copyright © 2024 ZAMA.
Copyright © 2023 ZAMA.
All rights reserved.
Redistribution and use in source and binary forms, with or without modification,

362
Makefile
View File

@@ -6,7 +6,7 @@ TARGET_ARCH_FEATURE:=$(shell ./scripts/get_arch_feature.sh)
RS_BUILD_TOOLCHAIN:=stable
CARGO_RS_BUILD_TOOLCHAIN:=+$(RS_BUILD_TOOLCHAIN)
CARGO_PROFILE?=release
MIN_RUST_VERSION:=$(shell grep '^rust-version[[:space:]]*=' tfhe/Cargo.toml | cut -d '=' -f 2 | xargs)
MIN_RUST_VERSION:=$(shell grep rust-version tfhe/Cargo.toml | cut -d '=' -f 2 | xargs)
AVX512_SUPPORT?=OFF
WASM_RUSTFLAGS:=
BIG_TESTS_INSTANCE?=FALSE
@@ -16,18 +16,6 @@ PARSE_INTEGER_BENCH_CSV_FILE?=tfhe_rs_integer_benches.csv
FAST_TESTS?=FALSE
FAST_BENCH?=FALSE
BENCH_OP_FLAVOR?=DEFAULT
NODE_VERSION=20
FORWARD_COMPAT?=OFF
# sed: -n, do not print input stream, -e means a script/expression
# 1,/version/ indicates from the first line, to the line matching version at the start of the line
# p indicates to print, so we keep only the start of the Cargo.toml until we hit the first version
# entry which should be the version of tfhe
TFHE_CURRENT_VERSION:=\
$(shell sed -n -e '1,/^version/p' tfhe/Cargo.toml | \
grep '^version[[:space:]]*=' | cut -d '=' -f 2 | xargs)
# Cargo has a hard time distinguishing between our package from the workspace and a package that
# could be a dependency, so we build an unambiguous spec here
TFHE_SPEC:=tfhe@$(TFHE_CURRENT_VERSION)
# This is done to avoid forgetting it, we still precise the RUSTFLAGS in the commands to be able to
# copy paste the command in the terminal and change them if required without forgetting the flags
export RUSTFLAGS?=-C target-cpu=native
@@ -50,20 +38,10 @@ else
COVERAGE_ONLY=
endif
ifeq ($(FORWARD_COMPAT),ON)
FORWARD_COMPAT_FEATURE=forward_compatibility
else
FORWARD_COMPAT_FEATURE=
endif
# Variables used only for regex_engine example
REGEX_STRING?=''
REGEX_PATTERN?=''
# tfhe-cuda-backend
TFHECUDA_SRC="backends/tfhe-cuda-backend/cuda"
TFHECUDA_BUILD=$(TFHECUDA_SRC)/build
# Exclude these files from coverage reports
define COVERAGE_EXCLUDED_FILES
--exclude-files apps/trivium/src/trivium/* \
@@ -121,7 +99,7 @@ install_wasm_pack: install_rs_build_toolchain
install_node:
curl -o- https://raw.githubusercontent.com/nvm-sh/nvm/v0.39.3/install.sh | $(SHELL)
source ~/.bashrc
$(SHELL) -i -c 'nvm install $(NODE_VERSION)' || \
$(SHELL) -i -c 'nvm install node' || \
( echo "Unable to install node, unknown error." && exit 1 )
.PHONY: install_dieharder # Install dieharder for apt distributions or macOS
@@ -142,32 +120,16 @@ install_tarpaulin: install_rs_build_toolchain
.PHONY: check_linelint_installed # Check if linelint newline linter is installed
check_linelint_installed:
@printf "\n" | linelint - > /dev/null 2>&1 || \
( echo "Unable to locate linelint. Try installing it: https://github.com/fernandrone/linelint/releases" && exit 1 )
( echo "Unable to locate linelint. Try installing it: https://github.com/fernandrone/linelint/releases" && exit 1 )
.PHONY: fmt # Format rust code
fmt: install_rs_check_toolchain
cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" fmt
.PHONY: fmt_gpu # Format rust and cuda code
fmt_gpu: install_rs_check_toolchain
cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" fmt
cd "$(TFHECUDA_SRC)" && ./format_tfhe_cuda_backend.sh
.PHONY: check_fmt # Check rust code format
check_fmt: install_rs_check_toolchain
cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" fmt --check
.PHONY: check_fmt_gpu # Check rust and cuda code format
check_fmt_gpu: install_rs_check_toolchain
cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" fmt --check
cd "$(TFHECUDA_SRC)" && ./format_tfhe_cuda_backend.sh -c
.PHONY: clippy_gpu # Run clippy lints on tfhe with "gpu" enabled
clippy_gpu: install_rs_check_toolchain clippy_cuda_backend
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),integer,shortint,gpu \
-p $(TFHE_SPEC) -- --no-deps -D warnings
.PHONY: fix_newline # Fix newline at end of file issues to be UNIX compliant
fix_newline: check_linelint_installed
linelint -a .
@@ -180,52 +142,46 @@ check_newline: check_linelint_installed
clippy_core: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE) \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),experimental \
-p $(TFHE_SPEC) -- --no-deps -D warnings
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),nightly-avx512 \
-p $(TFHE_SPEC) -- --no-deps -D warnings
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),experimental,nightly-avx512 \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_boolean # Run clippy lints enabling the boolean features
clippy_boolean: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),boolean \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_shortint # Run clippy lints enabling the shortint features
clippy_shortint: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),shortint \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_integer # Run clippy lints enabling the integer features
clippy_integer: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),integer \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
.PHONY: clippy # Run clippy lints enabling the boolean, shortint, integer
clippy: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy --all-targets \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_c_api # Run clippy lints enabling the boolean, shortint and the C API
clippy_c_api: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=$(TARGET_ARCH_FEATURE),boolean-c-api,shortint-c-api \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_js_wasm_api # Run clippy lints enabling the boolean, shortint, integer and the js wasm API
clippy_js_wasm_api: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
--features=boolean-client-js-wasm-api,shortint-client-js-wasm-api,integer-client-js-wasm-api \
-p $(TFHE_SPEC) -- --no-deps -D warnings
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_tasks # Run clippy lints on helper tasks crate.
clippy_tasks:
@@ -234,14 +190,15 @@ clippy_tasks:
.PHONY: clippy_trivium # Run clippy lints on Trivium app
clippy_trivium: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
-p tfhe-trivium -- --no-deps -D warnings
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy -p tfhe-trivium \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer \
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_all_targets # Run clippy lints on all targets (benches, examples, etc.)
clippy_all_targets:
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy --all-targets \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache \
-p $(TFHE_SPEC) -- --no-deps -D warnings
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache,safe-deserialization \
-p tfhe -- --no-deps -D warnings
.PHONY: clippy_concrete_csprng # Run clippy lints on concrete-csprng
clippy_concrete_csprng:
@@ -257,75 +214,62 @@ clippy_js_wasm_api clippy_tasks clippy_core clippy_concrete_csprng clippy_triviu
clippy_fast: clippy clippy_all_targets clippy_c_api clippy_js_wasm_api clippy_tasks clippy_core \
clippy_concrete_csprng
.PHONY: clippy_cuda_backend # Run clippy lints on the tfhe-cuda-backend
clippy_cuda_backend: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" clippy \
-p tfhe-cuda-backend -- --no-deps -D warnings
.PHONY: gen_key_cache # Run the script to generate keys and cache them for shortint tests
gen_key_cache: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) run --profile $(CARGO_PROFILE) \
--example generates_test_keys \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,internal-keycache -p tfhe -- \
$(MULTI_BIT_ONLY) $(COVERAGE_ONLY)
.PHONY: build_core # Build core_crypto without experimental features
build_core: install_rs_build_toolchain install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE) -p $(TFHE_SPEC)
--features=$(TARGET_ARCH_FEATURE) -p tfhe
@if [[ "$(AVX512_SUPPORT)" == "ON" ]]; then \
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),$(AVX512_FEATURE) -p $(TFHE_SPEC); \
--features=$(TARGET_ARCH_FEATURE),$(AVX512_FEATURE) -p tfhe; \
fi
.PHONY: build_core_experimental # Build core_crypto with experimental features
build_core_experimental: install_rs_build_toolchain install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),experimental -p $(TFHE_SPEC)
--features=$(TARGET_ARCH_FEATURE),experimental -p tfhe
@if [[ "$(AVX512_SUPPORT)" == "ON" ]]; then \
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),experimental,$(AVX512_FEATURE) -p $(TFHE_SPEC); \
--features=$(TARGET_ARCH_FEATURE),experimental,$(AVX512_FEATURE) -p tfhe; \
fi
.PHONY: build_boolean # Build with boolean enabled
build_boolean: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean -p $(TFHE_SPEC) --all-targets
--features=$(TARGET_ARCH_FEATURE),boolean -p tfhe --all-targets
.PHONY: build_shortint # Build with shortint enabled
build_shortint: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),shortint -p $(TFHE_SPEC) --all-targets
--features=$(TARGET_ARCH_FEATURE),shortint -p tfhe --all-targets
.PHONY: build_integer # Build with integer enabled
build_integer: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),integer -p $(TFHE_SPEC) --all-targets
--features=$(TARGET_ARCH_FEATURE),integer -p tfhe --all-targets
.PHONY: build_tfhe_full # Build with boolean, shortint and integer enabled
build_tfhe_full: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer -p $(TFHE_SPEC) --all-targets
.PHONY: symlink_c_libs_without_fingerprint # Link the .a and .so files without the changing hash part in target
symlink_c_libs_without_fingerprint:
@./scripts/symlink_c_libs_without_fingerprint.sh \
--cargo-profile "$(CARGO_PROFILE)" \
--lib-name tfhe-c-api-dynamic-buffer
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer -p tfhe --all-targets
.PHONY: build_c_api # Build the C API for boolean, shortint and integer
build_c_api: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean-c-api,shortint-c-api,high-level-c-api,$(FORWARD_COMPAT_FEATURE) \
-p $(TFHE_SPEC)
@"$(MAKE)" symlink_c_libs_without_fingerprint
.PHONY: build_c_api_gpu # Build the C API for boolean, shortint and integer
build_c_api_gpu: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean-c-api,shortint-c-api,high-level-c-api,gpu \
-p $(TFHE_SPEC)
@"$(MAKE)" symlink_c_libs_without_fingerprint
--features=$(TARGET_ARCH_FEATURE),boolean-c-api,shortint-c-api,high-level-c-api, \
-p tfhe
.PHONY: build_c_api_experimental_deterministic_fft # Build the C API for boolean, shortint and integer with experimental deterministic FFT
build_c_api_experimental_deterministic_fft: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean-c-api,shortint-c-api,high-level-c-api,experimental-force_fft_algo_dif4,$(FORWARD_COMPAT_FEATURE) \
-p $(TFHE_SPEC)
@"$(MAKE)" symlink_c_libs_without_fingerprint
--features=$(TARGET_ARCH_FEATURE),boolean-c-api,shortint-c-api,high-level-c-api,experimental-force_fft_algo_dif4 \
-p tfhe
.PHONY: build_web_js_api # Build the js API targeting the web browser
build_web_js_api: install_rs_build_toolchain install_wasm_pack
@@ -355,60 +299,19 @@ build_concrete_csprng: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) build --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE) -p concrete-csprng --all-targets
#.PHONY: test_core_crypto # Run the tests of the core_crypto module including experimental ones
#test_core_crypto: install_rs_build_toolchain install_rs_check_toolchain
# RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
# --features=$(TARGET_ARCH_FEATURE),experimental -p $(TFHE_SPEC) -- core_crypto::
# @if [[ "$(AVX512_SUPPORT)" == "ON" ]]; then \
# RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
# --features=$(TARGET_ARCH_FEATURE),experimental,$(AVX512_FEATURE) -p $(TFHE_SPEC) -- core_crypto::; \
# fi
.PHONY: test_core_crypto # Run the tests of the core_crypto module including experimental ones
test_core_crypto: install_rs_build_toolchain install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),experimental -p $(TFHE_SPEC) -- glwe_encrypt_tensor_prod_decrypt
--features=$(TARGET_ARCH_FEATURE),experimental -p tfhe -- core_crypto::
@if [[ "$(AVX512_SUPPORT)" == "ON" ]]; then \
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),experimental,$(AVX512_FEATURE) -p $(TFHE_SPEC) -- core_crypto::; \
--features=$(TARGET_ARCH_FEATURE),experimental,$(AVX512_FEATURE) -p tfhe -- core_crypto::; \
fi
.PHONY: test_core_crypto_cov # Run the tests of the core_crypto module with code coverage
test_core_crypto_cov: install_rs_build_toolchain install_rs_check_toolchain install_tarpaulin
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) tarpaulin --profile $(CARGO_PROFILE) \
--out xml --output-dir coverage/core_crypto --line --engine llvm --timeout 500 \
--implicit-test-threads $(COVERAGE_EXCLUDED_FILES) \
--features=$(TARGET_ARCH_FEATURE),experimental,internal-keycache,__coverage \
-p $(TFHE_SPEC) -- core_crypto::
@if [[ "$(AVX512_SUPPORT)" == "ON" ]]; then \
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) tarpaulin --profile $(CARGO_PROFILE) \
--out xml --output-dir coverage/core_crypto_avx512 --line --engine llvm --timeout 500 \
--implicit-test-threads $(COVERAGE_EXCLUDED_FILES) \
--features=$(TARGET_ARCH_FEATURE),experimental,internal-keycache,__coverage,$(AVX512_FEATURE) \
-p $(TFHE_SPEC) -- core_crypto::; \
fi
.PHONY: test_gpu # Run the tests of the core_crypto module including experimental on the gpu backend
test_gpu: test_core_crypto_gpu test_integer_gpu
.PHONY: test_core_crypto_gpu # Run the tests of the core_crypto module including experimental on the gpu backend
test_core_crypto_gpu: install_rs_build_toolchain install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),gpu -p $(TFHE_SPEC) -- core_crypto::gpu::
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --doc --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),gpu -p $(TFHE_SPEC) -- core_crypto::gpu::
.PHONY: test_integer_gpu # Run the tests of the integer module including experimental on the gpu backend
test_integer_gpu: install_rs_build_toolchain install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),integer,gpu -p $(TFHE_SPEC) -- integer::gpu::server_key::
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --doc --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),integer,gpu -p $(TFHE_SPEC) -- integer::gpu::server_key::
.PHONY: test_boolean # Run the tests of the boolean module
test_boolean: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean -p $(TFHE_SPEC) -- boolean::
--features=$(TARGET_ARCH_FEATURE),boolean -p tfhe -- boolean::
.PHONY: test_boolean_cov # Run the tests of the boolean module with code coverage
test_boolean_cov: install_rs_check_toolchain install_tarpaulin
@@ -416,13 +319,13 @@ test_boolean_cov: install_rs_check_toolchain install_tarpaulin
--out xml --output-dir coverage/boolean --line --engine llvm --timeout 500 \
$(COVERAGE_EXCLUDED_FILES) \
--features=$(TARGET_ARCH_FEATURE),boolean,internal-keycache,__coverage \
-p $(TFHE_SPEC) -- boolean::
-p tfhe -- boolean::
.PHONY: test_c_api_rs # Run the rust tests for the C API
test_c_api_rs: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean-c-api,shortint-c-api,high-level-c-api \
-p $(TFHE_SPEC) \
-p tfhe \
c_api
.PHONY: test_c_api_c # Run the C tests for the C API
@@ -432,28 +335,24 @@ test_c_api_c: build_c_api
.PHONY: test_c_api # Run all the tests for the C API
test_c_api: test_c_api_rs test_c_api_c
.PHONY: test_c_api_gpu # Run the C tests for the C API
test_c_api_gpu: build_c_api_gpu
./scripts/c_api_tests.sh --gpu
.PHONY: test_shortint_ci # Run the tests for shortint ci
test_shortint_ci: install_rs_build_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/shortint-tests.sh --rust-toolchain $(CARGO_RS_BUILD_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --tfhe-package "$(TFHE_SPEC)"
--cargo-profile "$(CARGO_PROFILE)"
.PHONY: test_shortint_multi_bit_ci # Run the tests for shortint ci running only multibit tests
test_shortint_multi_bit_ci: install_rs_build_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/shortint-tests.sh --rust-toolchain $(CARGO_RS_BUILD_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --multi-bit --tfhe-package "$(TFHE_SPEC)"
--cargo-profile "$(CARGO_PROFILE)" --multi-bit
.PHONY: test_shortint # Run all the tests for shortint
test_shortint: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache -p $(TFHE_SPEC) -- shortint::
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache -p tfhe -- shortint::
.PHONY: test_shortint_cov # Run the tests of the shortint module with code coverage
test_shortint_cov: install_rs_check_toolchain install_tarpaulin
@@ -461,90 +360,44 @@ test_shortint_cov: install_rs_check_toolchain install_tarpaulin
--out xml --output-dir coverage/shortint --line --engine llvm --timeout 500 \
$(COVERAGE_EXCLUDED_FILES) \
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache,__coverage \
-p $(TFHE_SPEC) -- shortint::
-p tfhe -- shortint::
.PHONY: test_integer_ci # Run the tests for integer ci
test_integer_ci: install_rs_check_toolchain install_cargo_nextest
test_integer_ci: install_rs_build_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_CHECK_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --avx512-support "$(AVX512_SUPPORT)" \
--tfhe-package "$(TFHE_SPEC)"
.PHONY: test_unsigned_integer_ci # Run the tests for unsigned integer ci
test_unsigned_integer_ci: install_rs_check_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_CHECK_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --avx512-support "$(AVX512_SUPPORT)" \
--unsigned-only --tfhe-package "$(TFHE_SPEC)"
.PHONY: test_signed_integer_ci # Run the tests for signed integer ci
test_signed_integer_ci: install_rs_check_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_CHECK_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --avx512-support "$(AVX512_SUPPORT)" \
--signed-only --tfhe-package "$(TFHE_SPEC)"
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_BUILD_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)"
.PHONY: test_integer_multi_bit_ci # Run the tests for integer ci running only multibit tests
test_integer_multi_bit_ci: install_rs_check_toolchain install_cargo_nextest
test_integer_multi_bit_ci: install_rs_build_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_CHECK_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --multi-bit --avx512-support "$(AVX512_SUPPORT)" \
--tfhe-package "$(TFHE_SPEC)"
.PHONY: test_unsigned_integer_multi_bit_ci # Run the tests for nsigned integer ci running only multibit tests
test_unsigned_integer_multi_bit_ci: install_rs_check_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_CHECK_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --multi-bit --avx512-support "$(AVX512_SUPPORT)" \
--unsigned-only --tfhe-package "$(TFHE_SPEC)"
.PHONY: test_signed_integer_multi_bit_ci # Run the tests for nsigned integer ci running only multibit tests
test_signed_integer_multi_bit_ci: install_rs_check_toolchain install_cargo_nextest
BIG_TESTS_INSTANCE="$(BIG_TESTS_INSTANCE)" \
FAST_TESTS="$(FAST_TESTS)" \
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_CHECK_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --multi-bit --avx512-support "$(AVX512_SUPPORT)" \
--signed-only --tfhe-package "$(TFHE_SPEC)"
./scripts/integer-tests.sh --rust-toolchain $(CARGO_RS_BUILD_TOOLCHAIN) \
--cargo-profile "$(CARGO_PROFILE)" --multi-bit
.PHONY: test_safe_deserialization # Run the tests for safe deserialization
test_safe_deserialization: install_rs_build_toolchain install_cargo_nextest
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache -p $(TFHE_SPEC) -- safe_deserialization::
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache,safe-deserialization -p tfhe -- safe_deserialization::
.PHONY: test_integer # Run all the tests for integer
test_integer: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache -p $(TFHE_SPEC) -- integer::
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache -p tfhe -- integer::
.PHONY: test_high_level_api # Run all the tests for high_level_api
test_high_level_api: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache -p $(TFHE_SPEC) \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache -p tfhe \
-- high_level_api::
.PHONY: test_user_doc # Run tests from the .md documentation
test_user_doc: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) --doc \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache -p $(TFHE_SPEC) \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache -p tfhe \
-- test_user_docs::
.PHONY: test_user_doc_gpu # Run tests for GPU from the .md documentation
test_user_doc_gpu: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) --doc \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer,internal-keycache,gpu -p $(TFHE_SPEC) \
-- test_user_docs::
.PHONY: test_fhe_strings # Run tests for fhe_strings example
test_fhe_strings: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
--example fhe_strings \
--features=$(TARGET_ARCH_FEATURE),integer
.PHONY: test_regex_engine # Run tests for regex_engine example
test_regex_engine: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --profile $(CARGO_PROFILE) \
@@ -579,7 +432,7 @@ test_concrete_csprng:
doc: install_rs_check_toolchain
RUSTDOCFLAGS="--html-in-header katex-header.html" \
cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" doc \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer --no-deps -p $(TFHE_SPEC)
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer --no-deps
.PHONY: docs # Build rust doc alias for doc
docs: doc
@@ -588,7 +441,7 @@ docs: doc
lint_doc: install_rs_check_toolchain
RUSTDOCFLAGS="--html-in-header katex-header.html -Dwarnings" \
cargo "$(CARGO_RS_CHECK_TOOLCHAIN)" doc \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer -p $(TFHE_SPEC) --no-deps
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,integer --no-deps
.PHONY: lint_docs # Build rust doc with linting enabled alias for lint_doc
lint_docs: lint_doc
@@ -605,18 +458,18 @@ format_doc_latex:
.PHONY: check_compile_tests # Build tests in debug without running them
check_compile_tests:
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --no-run \
--features=$(TARGET_ARCH_FEATURE),experimental,boolean,shortint,integer,internal-keycache \
-p $(TFHE_SPEC)
--features=$(TARGET_ARCH_FEATURE),experimental,boolean,shortint,integer,internal-keycache,safe-deserialization \
-p tfhe
@if [[ "$(OS)" == "Linux" || "$(OS)" == "Darwin" ]]; then \
"$(MAKE)" build_c_api && \
"$(MAKE)" build_c_api; \
./scripts/c_api_tests.sh --build-only; \
fi
.PHONY: build_nodejs_test_docker # Build a docker image with tools to run nodejs tests for wasm API
build_nodejs_test_docker:
DOCKER_BUILDKIT=1 docker build --build-arg RUST_TOOLCHAIN="$(RS_BUILD_TOOLCHAIN)" \
-f docker/Dockerfile.wasm_tests --build-arg NODE_VERSION=$(NODE_VERSION) -t tfhe-wasm-tests .
-f docker/Dockerfile.wasm_tests -t tfhe-wasm-tests .
.PHONY: test_nodejs_wasm_api_in_docker # Run tests for the nodejs on wasm API in a docker container
test_nodejs_wasm_api_in_docker: build_nodejs_test_docker
@@ -640,8 +493,7 @@ test_web_js_api_parallel: build_web_js_api_parallel
.PHONY: ci_test_web_js_api_parallel # Run tests for the web wasm api
ci_test_web_js_api_parallel: build_web_js_api_parallel
source ~/.nvm/nvm.sh && \
nvm install $(NODE_VERSION) && \
nvm use $(NODE_VERSION) && \
nvm use node && \
$(MAKE) -C tfhe/web_wasm_parallel_tests test-ci
.PHONY: no_tfhe_typo # Check we did not invert the h and f in tfhe
@@ -660,70 +512,27 @@ dieharder_csprng: install_dieharder build_concrete_csprng
# Benchmarks
#
.PHONY: bench_integer # Run benchmarks for unsigned integer
.PHONY: bench_integer # Run benchmarks for integer
bench_integer: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" __TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) __TFHE_RS_FAST_BENCH=$(FAST_BENCH) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench integer-bench \
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache,nightly-avx512 -p $(TFHE_SPEC) --
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache,$(AVX512_FEATURE) -p tfhe --
.PHONY: bench_signed_integer # Run benchmarks for signed integer
bench_signed_integer: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" __TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) __TFHE_RS_FAST_BENCH=$(FAST_BENCH) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench integer-signed-bench \
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache,nightly-avx512 -p $(TFHE_SPEC) --
.PHONY: bench_integer_gpu # Run benchmarks for integer on GPU backend
bench_integer_gpu: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" __TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) __TFHE_RS_FAST_BENCH=$(FAST_BENCH) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench integer-bench \
--features=$(TARGET_ARCH_FEATURE),integer,gpu,internal-keycache,nightly-avx512 -p $(TFHE_SPEC) --
.PHONY: bench_integer_multi_bit # Run benchmarks for unsigned integer using multi-bit parameters
.PHONY: bench_integer_multi_bit # Run benchmarks for integer using multi-bit parameters
bench_integer_multi_bit: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" __TFHE_RS_BENCH_TYPE=MULTI_BIT \
__TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) __TFHE_RS_FAST_BENCH=$(FAST_BENCH) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench integer-bench \
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache,nightly-avx512 -p $(TFHE_SPEC) --
.PHONY: bench_signed_integer_multi_bit # Run benchmarks for signed integer using multi-bit parameters
bench_signed_integer_multi_bit: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" __TFHE_RS_BENCH_TYPE=MULTI_BIT \
__TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) __TFHE_RS_FAST_BENCH=$(FAST_BENCH) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench integer-signed-bench \
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache,nightly-avx512 -p $(TFHE_SPEC) --
.PHONY: bench_integer_multi_bit_gpu # Run benchmarks for integer on GPU backend using multi-bit parameters
bench_integer_multi_bit_gpu: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" __TFHE_RS_BENCH_TYPE=MULTI_BIT \
__TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) __TFHE_RS_FAST_BENCH=$(FAST_BENCH) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench integer-bench \
--features=$(TARGET_ARCH_FEATURE),integer,gpu,internal-keycache,nightly-avx512 -p $(TFHE_SPEC) --
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache,$(AVX512_FEATURE) -p tfhe --
.PHONY: bench_shortint # Run benchmarks for shortint
bench_shortint: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" __TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench shortint-bench \
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
.PHONY: bench_oprf # Run benchmarks for shortint
bench_oprf: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench oprf-shortint-bench \
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
RUSTFLAGS="$(RUSTFLAGS)" \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench oprf-integer-bench \
--features=$(TARGET_ARCH_FEATURE),integer,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache,$(AVX512_FEATURE) -p tfhe
.PHONY: bench_shortint_multi_bit # Run benchmarks for shortint using multi-bit parameters
bench_shortint_multi_bit: install_rs_check_toolchain
@@ -731,38 +540,20 @@ bench_shortint_multi_bit: install_rs_check_toolchain
__TFHE_RS_BENCH_OP_FLAVOR=$(BENCH_OP_FLAVOR) \
cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench shortint-bench \
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache,nightly-avx512 -p $(TFHE_SPEC) --
--features=$(TARGET_ARCH_FEATURE),shortint,internal-keycache,$(AVX512_FEATURE) -p tfhe --
.PHONY: bench_boolean # Run benchmarks for boolean
bench_boolean: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench boolean-bench \
--features=$(TARGET_ARCH_FEATURE),boolean,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
--features=$(TARGET_ARCH_FEATURE),boolean,internal-keycache,$(AVX512_FEATURE) -p tfhe
.PHONY: bench_pbs # Run benchmarks for PBS
bench_pbs: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench pbs-bench \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
.PHONY: bench_pbs_gpu # Run benchmarks for PBS on GPU backend
bench_pbs_gpu: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench pbs-bench \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,gpu,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
.PHONY: bench_ks # Run benchmarks for keyswitch
bench_ks: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench ks-bench \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
.PHONY: bench_ks_gpu # Run benchmarks for PBS on GPU backend
bench_ks_gpu: install_rs_check_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_CHECK_TOOLCHAIN) bench \
--bench ks-bench \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,gpu,internal-keycache,nightly-avx512 -p $(TFHE_SPEC)
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,internal-keycache,$(AVX512_FEATURE) -p tfhe
.PHONY: bench_web_js_api_parallel # Run benchmarks for the web wasm api
bench_web_js_api_parallel: build_web_js_api_parallel
@@ -777,18 +568,6 @@ ci_bench_web_js_api_parallel: build_web_js_api_parallel
#
# Utility tools
#
.PHONY: gen_key_cache # Run the script to generate keys and cache them for shortint tests
gen_key_cache: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) run --profile $(CARGO_PROFILE) \
--example generates_test_keys \
--features=$(TARGET_ARCH_FEATURE),boolean,shortint,internal-keycache -- \
$(MULTI_BIT_ONLY) $(COVERAGE_ONLY)
.PHONY: gen_key_cache_core_crypto # Run function to generate keys and cache them for core_crypto tests
gen_key_cache_core_crypto: install_rs_build_toolchain
RUSTFLAGS="$(RUSTFLAGS)" cargo $(CARGO_RS_BUILD_TOOLCHAIN) test --tests --profile $(CARGO_PROFILE) \
--features=$(TARGET_ARCH_FEATURE),experimental,internal-keycache -p $(TFHE_SPEC) -- --nocapture \
core_crypto::keycache::generate_keys
.PHONY: measure_hlapi_compact_pk_ct_sizes # Measure sizes of public keys and ciphertext for high-level API
measure_hlapi_compact_pk_ct_sizes: install_rs_check_toolchain
@@ -851,12 +630,9 @@ sha256_bool: install_rs_check_toolchain
--example sha256_bool \
--features=$(TARGET_ARCH_FEATURE),boolean
.PHONY: pcc # pcc stands for pre commit checks (except GPU)
.PHONY: pcc # pcc stands for pre commit checks
pcc: no_tfhe_typo no_dbg_log check_fmt lint_doc clippy_all check_compile_tests
.PHONY: pcc_gpu # pcc stands for pre commit checks for GPU compilation
pcc_gpu: pcc clippy_gpu
.PHONY: fpcc # pcc stands for pre commit checks, the f stands for fast
fpcc: no_tfhe_typo no_dbg_log check_fmt lint_doc clippy_fast check_compile_tests

191
README.md
View File

@@ -2,66 +2,36 @@
<!-- product name logo -->
<img width=600 src="https://user-images.githubusercontent.com/5758427/231206749-8f146b97-3c5a-4201-8388-3ffa88580415.png">
</p>
<hr/>
<p align="center">
<a href="https://docs.zama.ai/tfhe-rs"> 📒 Read documentation</a> | <a href="https://zama.ai/community"> 💛 Community support</a>
</p>
<p align="center">
<!-- Version badge using shields.io -->
<a href="https://github.com/zama-ai/tfhe-rs/releases">
<img src="https://img.shields.io/github/v/release/zama-ai/tfhe-rs?style=flat-square">
</a>
<!-- Zama Bounty Program -->
<a href="https://github.com/zama-ai/bounty-program">
<img src="https://img.shields.io/badge/Contribute-Zama%20Bounty%20Program-yellow?style=flat-square">
</a>
</p>
<hr/>
<p align="center">
<a href="https://docs.zama.ai/tfhe-rs"> 📒 Documentation</a> | <a href="https://zama.ai/community"> 💛 Community support</a> | <a href="https://github.com/zama-ai/awesome-zama"> 📚 FHE resources by Zama</a>
</p>
**TFHE-rs** is a pure Rust implementation of TFHE for boolean and integer
arithmetics over encrypted data. It includes:
- a **Rust** API
- a **C** API
- and a **client-side WASM** API
<p align="center">
<a href="https://github.com/zama-ai/tfhe-rs/releases"><img src="https://img.shields.io/github/v/release/zama-ai/tfhe-rs?style=flat-square"></a>
<a href="LICENSE"><img src="https://img.shields.io/badge/License-BSD--3--Clause--Clear-%23ffb243?style=flat-square"></a>
<a href="https://github.com/zama-ai/bounty-program"><img src="https://img.shields.io/badge/Contribute-Zama%20Bounty%20Program-%23ffd208?style=flat-square"></a>
</p>
## About
### What is TFHE-rs
**TFHE-rs** is a pure Rust implementation of TFHE for boolean and integer arithmetics over encrypted data.
It includes:
- a **Rust** API
- a **C** API
- and a **client-side WASM** API
TFHE-rs is designed for developers and researchers who want full control over
what they can do with TFHE, while not having to worry about the low-level
**TFHE-rs** is meant for developers and researchers who want full control over
what they can do with TFHE, while not having to worry about the low level
implementation. The goal is to have a stable, simple, high-performance, and
production-ready library for all the advanced features of TFHE.
<br></br>
### Main features
- **Low-level cryptographic library** that implements Zamas variant of TFHE, including programmable bootstrapping
- **Implementation of the original TFHE boolean API** that can be used as a drop-in replacement for other TFHE libraries
- **Short integer API** that enables exact, unbounded FHE integer arithmetics with up to 8 bits of message space
- **Size-efficient public key encryption**
- **Ciphertext and server key compression** for efficient data transfer
- **Full Rust API, C bindings to the Rust High-Level API, and client-side Javascript API using WASM**.
*Learn more about TFHE-rs features in the [documentation](https://docs.zama.ai/tfhe-rs/readme).*
<br></br>
## Table of Contents
- **[Getting Started](#getting-started)**
- [Cargo.toml configuration](#cargotoml-configuration)
- [A simple example](#a-simple-example)
- **[Resources](#resources)**
- [TFHE deep dive](#tfhe-deep-dive)
- [Tutorials](#tutorials)
- [Documentation](#documentation)
- **[Working with TFHE-rs](#working-with-tfhe-rs)**
- [Disclaimers](#disclaimers)
- [Citations](#citations)
- [Contributing](#contributing)
- [License](#license)
- **[Support](#support)**
<br></br>
## Getting Started
The steps to run a first example are described below.
### Cargo.toml configuration
To use the latest version of `TFHE-rs` in your project, you first need to add it as a dependency in your `Cargo.toml`:
@@ -77,24 +47,20 @@ tfhe = { version = "*", features = ["boolean", "shortint", "integer", "x86_64-un
```toml
tfhe = { version = "*", features = ["boolean", "shortint", "integer", "aarch64-unix"] }
```
Note: users with ARM devices must compile `TFHE-rs` using a stable toolchain with version >= 1.72.
+ For x86_64-based machines with the [`rdseed instruction`](https://en.wikipedia.org/wiki/RDRAND) running Windows:
+ For x86_64-based machines with the [`rdseed instruction`](https://en.wikipedia.org/wiki/RDRAND)
running Windows:
```toml
tfhe = { version = "*", features = ["boolean", "shortint", "integer", "x86_64"] }
```
> [!Note]
> Note: You need to use a Rust version >= 1.72 to compile TFHE-rs.
Note: aarch64-based machines are not yet supported for Windows as it's currently missing an entropy source to be able to seed the [CSPRNGs](https://en.wikipedia.org/wiki/Cryptographically_secure_pseudorandom_number_generator) used in TFHE-rs
> [!Note]
> Note: aarch64-based machines are not yet supported for Windows as it's currently missing an entropy source to be able to seed the [CSPRNGs](https://en.wikipedia.org/wiki/Cryptographically_secure_pseudorandom_number_generator) used in TFHE-rs.
<p align="right">
<a href="#about" > ↑ Back to top </a>
</p>
### A simple example
## A simple example
Here is a full example:
@@ -104,7 +70,9 @@ use tfhe::{generate_keys, set_server_key, ConfigBuilder, FheUint32, FheUint8};
fn main() -> Result<(), Box<dyn std::error::Error>> {
// Basic configuration to use homomorphic integers
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
// Key generation
let (client_key, server_keys) = generate_keys(config);
@@ -151,64 +119,32 @@ fn main() -> Result<(), Box<dyn std::error::Error>> {
To run this code, use the following command:
<p align="center"> <code> cargo run --release </code> </p>
> [!Note]
> Note that when running code that uses `TFHE-rs`, it is highly recommended
to run in release mode with cargo's `--release` flag to have the best performances possible.
*Find an example with more explanations in [this part of the documentation](https://docs.zama.ai/tfhe-rs/getting-started/quick_start)*
<p align="right">
<a href="#about" > ↑ Back to top </a>
</p>
Note that when running code that uses `tfhe-rs`, it is highly recommended
to run in release mode with cargo's `--release` flag to have the best performances possible,
## Contributing
## Resources
There are two ways to contribute to TFHE-rs:
### TFHE deep dive
- [TFHE Deep Dive - Part I - Ciphertext types](https://www.zama.ai/post/tfhe-deep-dive-part-1)
- [TFHE Deep Dive - Part II - Encodings and linear leveled operations](https://www.zama.ai/post/tfhe-deep-dive-part-2)
- [TFHE Deep Dive - Part III - Key switching and leveled multiplications](https://www.zama.ai/post/tfhe-deep-dive-part-3)
- [TFHE Deep Dive - Part IV - Programmable Bootstrapping](https://www.zama.ai/post/tfhe-deep-dive-part-4)
<br></br>
- you can open issues to report bugs or typos, or to suggest new ideas
- you can ask to become an official contributor by emailing [hello@zama.ai](mailto:hello@zama.ai).
(becoming an approved contributor involves signing our Contributor License Agreement (CLA))
### Tutorials
- [Homomorphic Parity Bit](https://docs.zama.ai/tfhe-rs/tutorials/parity_bit)
- [Homomorphic Case Changing on Ascii String](https://docs.zama.ai/tfhe-rs/tutorials/ascii_fhe_string)
- [Boolean SHA256 with TFHE-rs](https://www.zama.ai/post/boolean-sha256-tfhe-rs)
- [Dark Market with TFHE-rs](https://www.zama.ai/post/dark-market-tfhe-rs)
- [Regular Expression Engine with TFHE-rs](https://www.zama.ai/post/regex-engine-tfhe-rs)
Only approved contributors can send pull requests, so please make sure to get in touch before you do!
## Credits
*Explore more useful resources in [TFHE-rs tutorials](https://docs.zama.ai/tfhe-rs/tutorials) and [Awesome Zama repo](https://github.com/zama-ai/awesome-zama)*
<br></br>
### Documentation
This library uses several dependencies and we would like to thank the contributors of those
libraries.
Full, comprehensive documentation is available here: [https://docs.zama.ai/tfhe-rs](https://docs.zama.ai/tfhe-rs).
<p align="right">
<a href="#about" > ↑ Back to top </a>
</p>
## Need support?
<a target="_blank" href="https://community.zama.ai">
<img src="https://user-images.githubusercontent.com/5758427/231115030-21195b55-2629-4c01-9809-be5059243999.png">
</a>
## Citing TFHE-rs
## Working with TFHE-rs
### Disclaimers
#### Security Estimation
Security estimations are done using the
[Lattice Estimator](https://github.com/malb/lattice-estimator)
with `red_cost_model = reduction.RC.BDGL16`.
When a new update is published in the Lattice Estimator, we update parameters accordingly.
#### Side-Channel Attacks
Mitigation for side-channel attacks has not yet been implemented in TFHE-rs,
and will be released in upcoming versions.
<br></br>
### Citations
To cite TFHE-rs in academic papers, please use the following entry:
```text
@@ -220,31 +156,22 @@ To cite TFHE-rs in academic papers, please use the following entry:
}
```
### Contributing
## License
There are two ways to contribute to TFHE-rs:
This software is distributed under the BSD-3-Clause-Clear license. If you have any questions,
please contact us at `hello@zama.ai`.
- [Open issues](https://github.com/zama-ai/tfhe-rs/issues/new/choose) to report bugs and typos, or to suggest new ideas
- Request to become an official contributor by emailing [hello@zama.ai](mailto:hello@zama.ai).
## Disclaimers
Becoming an approved contributor involves signing our Contributor License Agreement (CLA). Only approved contributors can send pull requests, so please make sure to get in touch before you do!
<br></br>
### Security Estimation
### License
This software is distributed under the **BSD-3-Clause-Clear** license. If you have any questions, please contact us at hello@zama.ai.
<p align="right">
<a href="#about" > ↑ Back to top </a>
</p>
Security estimations are done using the
[Lattice Estimator](https://github.com/malb/lattice-estimator)
with `red_cost_model = reduction.RC.BDGL16`.
When a new update is published in the Lattice Estimator, we update parameters accordingly.
## Support
### Side-Channel Attacks
<a target="_blank" href="https://community.zama.ai">
<img src="https://github.com/zama-ai/tfhe-rs/assets/157474013/8da6cf5b-51a0-4c86-9e75-fd0e4a4c64a4">
</a>
🌟 If you find this project helpful or interesting, please consider giving it a star on GitHub! Your support helps to grow the community and motivates further development.
<p align="right">
<a href="#about" > ↑ Back to top </a>
</p>
Mitigation for side channel attacks have not yet been implemented in TFHE-rs,
and will be released in upcoming versions.

View File

@@ -6,7 +6,7 @@ use tfhe_trivium::KreyviumStream;
use criterion::Criterion;
pub fn kreyvium_bool_gen(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled().enable_default_bool().build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB000000000000".to_string();
@@ -41,7 +41,7 @@ pub fn kreyvium_bool_gen(c: &mut Criterion) {
}
pub fn kreyvium_bool_warmup(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled().enable_default_bool().build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB000000000000".to_string();

View File

@@ -6,8 +6,9 @@ use tfhe_trivium::{KreyviumStreamByte, TransCiphering};
use criterion::Criterion;
pub fn kreyvium_byte_gen(c: &mut Criterion) {
let config = ConfigBuilder::default()
.enable_function_evaluation()
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.enable_function_evaluation_integers()
.build();
let (client_key, server_key) = generate_keys(config);
@@ -35,8 +36,9 @@ pub fn kreyvium_byte_gen(c: &mut Criterion) {
}
pub fn kreyvium_byte_trans(c: &mut Criterion) {
let config = ConfigBuilder::default()
.enable_function_evaluation()
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.enable_function_evaluation_integers()
.build();
let (client_key, server_key) = generate_keys(config);
@@ -65,8 +67,9 @@ pub fn kreyvium_byte_trans(c: &mut Criterion) {
}
pub fn kreyvium_byte_warmup(c: &mut Criterion) {
let config = ConfigBuilder::default()
.enable_function_evaluation()
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.enable_function_evaluation_integers()
.build();
let (client_key, server_key) = generate_keys(config);

View File

@@ -8,7 +8,9 @@ use tfhe_trivium::{KreyviumStreamShortint, TransCiphering};
use criterion::Criterion;
pub fn kreyvium_shortint_warmup(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();
@@ -58,7 +60,9 @@ pub fn kreyvium_shortint_warmup(c: &mut Criterion) {
}
pub fn kreyvium_shortint_gen(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();
@@ -103,7 +107,9 @@ pub fn kreyvium_shortint_gen(c: &mut Criterion) {
}
pub fn kreyvium_shortint_trans(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();

View File

@@ -6,7 +6,7 @@ use tfhe_trivium::TriviumStream;
use criterion::Criterion;
pub fn trivium_bool_gen(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled().enable_default_bool().build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();
@@ -41,7 +41,7 @@ pub fn trivium_bool_gen(c: &mut Criterion) {
}
pub fn trivium_bool_warmup(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled().enable_default_bool().build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();

View File

@@ -6,7 +6,9 @@ use tfhe_trivium::{TransCiphering, TriviumStreamByte};
use criterion::Criterion;
pub fn trivium_byte_gen(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();
@@ -33,7 +35,9 @@ pub fn trivium_byte_gen(c: &mut Criterion) {
}
pub fn trivium_byte_trans(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();
@@ -61,7 +65,9 @@ pub fn trivium_byte_trans(c: &mut Criterion) {
}
pub fn trivium_byte_warmup(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();

View File

@@ -8,7 +8,9 @@ use tfhe_trivium::{TransCiphering, TriviumStreamShortint};
use criterion::Criterion;
pub fn trivium_shortint_warmup(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();
@@ -58,7 +60,9 @@ pub fn trivium_shortint_warmup(c: &mut Criterion) {
}
pub fn trivium_shortint_gen(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();
@@ -103,7 +107,9 @@ pub fn trivium_shortint_gen(c: &mut Criterion) {
}
pub fn trivium_shortint_trans(c: &mut Criterion) {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();

View File

@@ -170,7 +170,7 @@ fn kreyvium_test_4() {
#[test]
fn kreyvium_test_fhe_long() {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled().enable_default_bool().build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB000000000000".to_string();
@@ -217,7 +217,9 @@ use tfhe::shortint::prelude::*;
#[test]
fn kreyvium_test_shortint_long() {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();
@@ -300,8 +302,9 @@ fn kreyvium_test_clear_byte() {
#[test]
fn kreyvium_test_byte_long() {
let config = ConfigBuilder::default()
.enable_function_evaluation()
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.enable_function_evaluation_integers()
.build();
let (client_key, server_key) = generate_keys(config);
@@ -339,8 +342,9 @@ fn kreyvium_test_byte_long() {
#[test]
fn kreyvium_test_fhe_byte_transciphering_long() {
let config = ConfigBuilder::default()
.enable_function_evaluation()
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.enable_function_evaluation_integers()
.build();
let (client_key, server_key) = generate_keys(config);

View File

@@ -4,7 +4,6 @@
use crate::{KreyviumStreamByte, KreyviumStreamShortint, TriviumStreamByte, TriviumStreamShortint};
use tfhe::shortint::Ciphertext;
use tfhe::prelude::*;
use tfhe::{set_server_key, unset_server_key, FheUint64, FheUint8, ServerKey};
use rayon::prelude::*;

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@@ -232,7 +232,7 @@ fn trivium_test_clear_byte() {
#[test]
fn trivium_test_fhe_long() {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled().enable_default_bool().build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();
@@ -277,7 +277,9 @@ fn trivium_test_fhe_long() {
#[test]
fn trivium_test_fhe_byte_long() {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();
@@ -314,7 +316,9 @@ fn trivium_test_fhe_byte_long() {
#[test]
fn trivium_test_fhe_byte_transciphering_long() {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (client_key, server_key) = generate_keys(config);
let key_string = "0053A6F94C9FF24598EB".to_string();
@@ -353,7 +357,9 @@ use tfhe::shortint::prelude::*;
#[test]
fn trivium_test_shortint_long() {
let config = ConfigBuilder::default().build();
let config = ConfigBuilder::all_disabled()
.enable_default_integers()
.build();
let (hl_client_key, hl_server_key) = generate_keys(config);
let underlying_ck: tfhe::shortint::ClientKey = (*hl_client_key.as_ref()).clone().into();
let underlying_sk: tfhe::shortint::ServerKey = (*hl_server_key.as_ref()).clone().into();

View File

@@ -1,18 +0,0 @@
[package]
name = "tfhe-cuda-backend"
version = "0.1.2"
edition = "2021"
authors = ["Zama team"]
license = "BSD-3-Clause-Clear"
description = "Cuda implementation of TFHE-rs primitives."
homepage = "https://www.zama.ai/"
documentation = "https://docs.zama.ai/tfhe-rs"
repository = "https://github.com/zama-ai/tfhe-rs"
readme = "README.md"
keywords = ["fully", "homomorphic", "encryption", "fhe", "cryptography"]
[build-dependencies]
cmake = { version = "0.1" }
[dependencies]
thiserror = "1.0"

View File

@@ -1,28 +0,0 @@
BSD 3-Clause Clear License
Copyright © 2024 ZAMA.
All rights reserved.
Redistribution and use in source and binary forms, with or without modification,
are permitted provided that the following conditions are met:
1. Redistributions of source code must retain the above copyright notice, this
list of conditions and the following disclaimer.
2. Redistributions in binary form must reproduce the above copyright notice, this
list of conditions and the following disclaimer in the documentation and/or other
materials provided with the distribution.
3. Neither the name of ZAMA nor the names of its contributors may be used to endorse
or promote products derived from this software without specific prior written permission.
NO EXPRESS OR IMPLIED LICENSES TO ANY PARTY'S PATENT RIGHTS ARE GRANTED BY THIS LICENSE.
THIS SOFTWARE IS PROVIDED BY THE ZAMA AND CONTRIBUTORS "AS IS" AND ANY EXPRESS OR
IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF
MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL
ZAMA OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY,
OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF
ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.

View File

@@ -1,52 +0,0 @@
# TFHE Cuda backend
## Introduction
The `tfhe-cuda-backend` holds the code for GPU acceleration of Zama's variant of TFHE.
It implements CUDA/C++ functions to perform homomorphic operations on LWE ciphertexts.
It provides functions to allocate memory on the GPU, to copy data back
and forth between the CPU and the GPU, to create and destroy Cuda streams, etc.:
- `cuda_create_stream`, `cuda_destroy_stream`
- `cuda_malloc`, `cuda_check_valid_malloc`
- `cuda_memcpy_async_to_cpu`, `cuda_memcpy_async_to_gpu`
- `cuda_get_number_of_gpus`
- `cuda_synchronize_device`
The cryptographic operations it provides are:
- an amortized implementation of the TFHE programmable bootstrap: `cuda_bootstrap_amortized_lwe_ciphertext_vector_32` and `cuda_bootstrap_amortized_lwe_ciphertext_vector_64`
- a low latency implementation of the TFHE programmable bootstrap: `cuda_bootstrap_low latency_lwe_ciphertext_vector_32` and `cuda_bootstrap_low_latency_lwe_ciphertext_vector_64`
- the keyswitch: `cuda_keyswitch_lwe_ciphertext_vector_32` and `cuda_keyswitch_lwe_ciphertext_vector_64`
- the larger precision programmable bootstrap (wop PBS, which supports up to 16 bits of message while the classical PBS only supports up to 8 bits of message) and its sub-components: `cuda_wop_pbs_64`, `cuda_extract_bits_64`, `cuda_circuit_bootstrap_64`, `cuda_cmux_tree_64`, `cuda_blind_rotation_sample_extraction_64`
- acceleration for leveled operations: `cuda_negate_lwe_ciphertext_vector_64`, `cuda_add_lwe_ciphertext_vector_64`, `cuda_add_lwe_ciphertext_vector_plaintext_vector_64`, `cuda_mult_lwe_ciphertext_vector_cleartext_vector`.
## Dependencies
**Disclaimer**: Compilation on Windows/Mac is not supported yet. Only Nvidia GPUs are supported.
- nvidia driver - for example, if you're running Ubuntu 20.04 check this [page](https://linuxconfig.org/how-to-install-the-nvidia-drivers-on-ubuntu-20-04-focal-fossa-linux) for installation
- [nvcc](https://docs.nvidia.com/cuda/cuda-installation-guide-linux/index.html) >= 10.0
- [gcc](https://gcc.gnu.org/) >= 8.0 - check this [page](https://gist.github.com/ax3l/9489132) for more details about nvcc/gcc compatible versions
- [cmake](https://cmake.org/) >= 3.24
## Build
The Cuda project held in `tfhe-cuda-backend` can be compiled independently from TFHE-rs in the following way:
```
git clone git@github.com:zama-ai/tfhe-rs
cd backends/tfhe-cuda-backend/cuda
mkdir build
cd build
cmake ..
make
```
The compute capability is detected automatically (with the first GPU information) and set accordingly.
If your machine does not have an available Nvidia GPU, the compilation will work if you have the nvcc compiler installed. The generated executable will target a 7.0 compute capability (sm_70).
## Links
- [TFHE](https://eprint.iacr.org/2018/421.pdf)
## License
This software is distributed under the BSD-3-Clause-Clear license. If you have any questions,
please contact us at `hello@zama.ai`.

View File

@@ -1,28 +0,0 @@
use std::env;
use std::process::Command;
fn main() {
println!("Build tfhe-cuda-backend");
if env::consts::OS == "linux" {
let output = Command::new("./get_os_name.sh").output().unwrap();
let distribution = String::from_utf8(output.stdout).unwrap();
if distribution != "Ubuntu\n" {
println!(
"cargo:warning=This Linux distribution is not officially supported. \
Only Ubuntu is supported by tfhe-cuda-backend at this time. Build may fail\n"
);
}
let dest = cmake::build("cuda");
println!("cargo:rustc-link-search=native={}", dest.display());
println!("cargo:rustc-link-lib=static=tfhe_cuda_backend");
println!("cargo:rustc-link-search=native=/usr/local/cuda/lib64");
println!("cargo:rustc-link-lib=gomp");
println!("cargo:rustc-link-lib=cudart");
println!("cargo:rustc-link-search=native=/usr/lib/x86_64-linux-gnu/");
println!("cargo:rustc-link-lib=stdc++");
} else {
panic!(
"Error: platform not supported, tfhe-cuda-backend not built (only Linux is supported)"
);
}
}

View File

@@ -1,10 +0,0 @@
# -----------------------------
# Options effecting formatting.
# -----------------------------
with section("format"):
# How wide to allow formatted cmake files
line_width = 120
# How many spaces to tab for indent
tab_size = 2

View File

@@ -1,90 +0,0 @@
cmake_minimum_required(VERSION 3.24 FATAL_ERROR)
project(tfhe_cuda_backend LANGUAGES CXX)
# See if the minimum CUDA version is available. If not, only enable documentation building.
set(MINIMUM_SUPPORTED_CUDA_VERSION 10.0)
include(CheckLanguage)
# See if CUDA is available
check_language(CUDA)
# If so, enable CUDA to check the version.
if(CMAKE_CUDA_COMPILER)
enable_language(CUDA)
endif()
# If CUDA is not available, or the minimum version is too low do not build
if(NOT CMAKE_CUDA_COMPILER)
message(FATAL_ERROR "Cuda compiler not found.")
endif()
if(CMAKE_CUDA_COMPILER_VERSION VERSION_LESS ${MINIMUM_SUPPORTED_CUDA_VERSION})
message(FATAL_ERROR "CUDA ${MINIMUM_SUPPORTED_CUDA_VERSION} or greater is required for compilation.")
endif()
# Get CUDA compute capability
set(OUTPUTFILE ${CMAKE_CURRENT_SOURCE_DIR}/cuda_script) # No suffix required
set(CUDAFILE ${CMAKE_CURRENT_SOURCE_DIR}/check_cuda.cu)
execute_process(COMMAND nvcc -lcuda ${CUDAFILE} -o ${OUTPUTFILE})
execute_process(
COMMAND ${OUTPUTFILE}
RESULT_VARIABLE CUDA_RETURN_CODE
OUTPUT_VARIABLE ARCH)
file(REMOVE ${OUTPUTFILE})
if(${CUDA_RETURN_CODE} EQUAL 0)
set(CUDA_SUCCESS "TRUE")
else()
set(CUDA_SUCCESS "FALSE")
endif()
if(${CUDA_SUCCESS})
message(STATUS "CUDA Architecture: ${ARCH}")
message(STATUS "CUDA Version: ${CUDA_VERSION_STRING}")
message(STATUS "CUDA Path: ${CUDA_TOOLKIT_ROOT_DIR}")
message(STATUS "CUDA Libraries: ${CUDA_LIBRARIES}")
message(STATUS "CUDA Performance Primitives: ${CUDA_npp_LIBRARY}")
else()
message(WARNING ${ARCH})
endif()
if(NOT CMAKE_BUILD_TYPE)
set(CMAKE_BUILD_TYPE Release)
endif()
# Add OpenMP support
find_package(OpenMP REQUIRED)
set(CMAKE_CXX_STANDARD 17)
set(CMAKE_CXX_FLAGS "${CMAKE_CXX_FLAGS} -Wall -Wextra")
set(CMAKE_CXX_FLAGS "${CMAKE_CXX_FLAGS} -g")
set(CMAKE_CXX_FLAGS "${CMAKE_CXX_FLAGS} ${OpenMP_CXX_FLAGS}")
set(CMAKE_CUDA_FLAGS "${CMAKE_CUDA_FLAGS} -Xcompiler ${OpenMP_CXX_FLAGS}")
if(${CUDA_SUCCESS})
set(CMAKE_CUDA_ARCHITECTURES native)
else()
set(CMAKE_CUDA_ARCHITECTURES 70)
endif()
# in production, should use -arch=sm_70 --ptxas-options=-v to see register spills -lineinfo for better debugging
set(CMAKE_CUDA_FLAGS
"${CMAKE_CUDA_FLAGS} -ccbin ${CMAKE_CXX_COMPILER} -O3 \
-std=c++17 --no-exceptions --expt-relaxed-constexpr -rdc=true \
--use_fast_math -Xcompiler -fPIC")
set(INCLUDE_DIR include)
add_subdirectory(src)
target_include_directories(tfhe_cuda_backend PRIVATE ${INCLUDE_DIR})
# This is required for rust cargo build
install(TARGETS tfhe_cuda_backend DESTINATION .)
install(TARGETS tfhe_cuda_backend DESTINATION lib)
# Define a function to add a lint target.
find_file(CPPLINT NAMES cpplint cpplint.exe)
if(CPPLINT)
# Add a custom target to lint all child projects. Dependencies are specified in child projects.
add_custom_target(all_lint)
# Don't trigger this target on ALL_BUILD or Visual Studio 'Rebuild Solution'
set_target_properties(all_lint PROPERTIES EXCLUDE_FROM_ALL TRUE)
# set_target_properties(all_lint PROPERTIES EXCLUDE_FROM_DEFAULT_BUILD TRUE)
endif()
enable_testing()

View File

@@ -1,3 +0,0 @@
set noparent
linelength=240
filter=-legal/copyright,-readability/todo,-runtime/references,-build/c++17

View File

@@ -1,22 +0,0 @@
#include <stdio.h>
int main(int argc, char **argv) {
cudaDeviceProp dP;
float min_cc = 3.0;
int rc = cudaGetDeviceProperties(&dP, 0);
if (rc != cudaSuccess) {
cudaError_t error = cudaGetLastError();
printf("CUDA error: %s", cudaGetErrorString(error));
return rc; /* Failure */
}
if ((dP.major + (dP.minor / 10)) < min_cc) {
printf("Min Compute Capability of %2.1f required: %d.%d found\n Not "
"Building CUDA Code",
min_cc, dP.major, dP.minor);
return 1; /* Failure */
} else {
printf("-arch=sm_%d%d", dP.major, dP.minor);
return 0; /* Success */
}
}

View File

@@ -1,19 +0,0 @@
#!/bin/bash
set -e
while getopts ":c" option; do
case $option in
c)
# code to execute when flag1 is provided
find ./{include,src} -iregex '^.*\.\(cpp\|cu\|h\|cuh\)$' -print | xargs clang-format-15 -i -style='file' --dry-run --Werror
cmake-format -i CMakeLists.txt -c .cmake-format-config.py
find ./{include,src} -type f -name "CMakeLists.txt" | xargs -I % sh -c 'cmake-format -i % -c .cmake-format-config.py'
git diff --exit-code
exit
;;
esac
done
find ./{include,src} -iregex '^.*\.\(cpp\|cu\|h\|cuh\)$' -print | xargs clang-format-15 -i -style='file'
cmake-format -i CMakeLists.txt -c .cmake-format-config.py
find ./{include,src} -type f -name "CMakeLists.txt" | xargs -I % sh -c 'cmake-format -i % -c .cmake-format-config.py'

View File

@@ -1,118 +0,0 @@
#ifndef CUDA_BOOTSTRAP_H
#define CUDA_BOOTSTRAP_H
#include "device.h"
#include <cstdint>
enum PBS_TYPE { MULTI_BIT = 0, LOW_LAT = 1, AMORTIZED = 2 };
extern "C" {
void cuda_fourier_polynomial_mul(void *input1, void *input2, void *output,
cuda_stream_t *stream,
uint32_t polynomial_size,
uint32_t total_polynomials);
void cuda_convert_lwe_bootstrap_key_32(void *dest, void *src,
cuda_stream_t *stream,
uint32_t input_lwe_dim,
uint32_t glwe_dim, uint32_t level_count,
uint32_t polynomial_size);
void cuda_convert_lwe_bootstrap_key_64(void *dest, void *src,
cuda_stream_t *stream,
uint32_t input_lwe_dim,
uint32_t glwe_dim, uint32_t level_count,
uint32_t polynomial_size);
void scratch_cuda_bootstrap_amortized_32(
cuda_stream_t *stream, int8_t **pbs_buffer, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t input_lwe_ciphertext_count,
uint32_t max_shared_memory, bool allocate_gpu_memory);
void scratch_cuda_bootstrap_amortized_64(
cuda_stream_t *stream, int8_t **pbs_buffer, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t input_lwe_ciphertext_count,
uint32_t max_shared_memory, bool allocate_gpu_memory);
void cuda_bootstrap_amortized_lwe_ciphertext_vector_32(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lut_vector, void *lut_vector_indexes, void *lwe_array_in,
void *lwe_input_indexes, void *bootstrapping_key, int8_t *pbs_buffer,
uint32_t lwe_dimension, uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t base_log, uint32_t level_count, uint32_t num_samples,
uint32_t num_luts, uint32_t lwe_idx, uint32_t max_shared_memory);
void cuda_bootstrap_amortized_lwe_ciphertext_vector_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lut_vector, void *lut_vector_indexes, void *lwe_array_in,
void *lwe_input_indexes, void *bootstrapping_key, int8_t *pbs_buffer,
uint32_t lwe_dimension, uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t base_log, uint32_t level_count, uint32_t num_samples,
uint32_t num_luts, uint32_t lwe_idx, uint32_t max_shared_memory);
void cleanup_cuda_bootstrap_amortized(cuda_stream_t *stream,
int8_t **pbs_buffer);
void scratch_cuda_bootstrap_low_latency_32(
cuda_stream_t *stream, int8_t **pbs_buffer, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t level_count,
uint32_t input_lwe_ciphertext_count, uint32_t max_shared_memory,
bool allocate_gpu_memory);
void scratch_cuda_bootstrap_low_latency_64(
cuda_stream_t *stream, int8_t **pbs_buffer, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t level_count,
uint32_t input_lwe_ciphertext_count, uint32_t max_shared_memory,
bool allocate_gpu_memory);
void cuda_bootstrap_low_latency_lwe_ciphertext_vector_32(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lut_vector, void *lut_vector_indexes, void *lwe_array_in,
void *lwe_input_indexes, void *bootstrapping_key, int8_t *pbs_buffer,
uint32_t lwe_dimension, uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t base_log, uint32_t level_count, uint32_t num_samples,
uint32_t num_luts, uint32_t lwe_idx, uint32_t max_shared_memory);
void cuda_bootstrap_low_latency_lwe_ciphertext_vector_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lut_vector, void *lut_vector_indexes, void *lwe_array_in,
void *lwe_input_indexes, void *bootstrapping_key, int8_t *pbs_buffer,
uint32_t lwe_dimension, uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t base_log, uint32_t level_count, uint32_t num_samples,
uint32_t num_luts, uint32_t lwe_idx, uint32_t max_shared_memory);
void cleanup_cuda_bootstrap_low_latency(cuda_stream_t *stream,
int8_t **pbs_buffer);
uint64_t get_buffer_size_bootstrap_amortized_64(
uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t input_lwe_ciphertext_count, uint32_t max_shared_memory);
uint64_t get_buffer_size_bootstrap_low_latency_64(
uint32_t glwe_dimension, uint32_t polynomial_size, uint32_t level_count,
uint32_t input_lwe_ciphertext_count, uint32_t max_shared_memory);
}
#ifdef __CUDACC__
__device__ inline int get_start_ith_ggsw(int i, uint32_t polynomial_size,
int glwe_dimension,
uint32_t level_count);
template <typename T>
__device__ T *get_ith_mask_kth_block(T *ptr, int i, int k, int level,
uint32_t polynomial_size,
int glwe_dimension, uint32_t level_count);
template <typename T>
__device__ T *get_ith_body_kth_block(T *ptr, int i, int k, int level,
uint32_t polynomial_size,
int glwe_dimension, uint32_t level_count);
template <typename T>
__device__ T *get_multi_bit_ith_lwe_gth_group_kth_block(
T *ptr, int g, int i, int k, int level, uint32_t grouping_factor,
uint32_t polynomial_size, uint32_t glwe_dimension, uint32_t level_count);
#endif
#endif // CUDA_BOOTSTRAP_H

View File

@@ -1,46 +0,0 @@
#ifndef CUDA_MULTI_BIT_H
#define CUDA_MULTI_BIT_H
#include <cstdint>
extern "C" {
void cuda_convert_lwe_multi_bit_bootstrap_key_64(
void *dest, void *src, cuda_stream_t *stream, uint32_t input_lwe_dim,
uint32_t glwe_dim, uint32_t level_count, uint32_t polynomial_size,
uint32_t grouping_factor);
void cuda_multi_bit_pbs_lwe_ciphertext_vector_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lut_vector, void *lut_vector_indexes, void *lwe_array_in,
void *lwe_input_indexes, void *bootstrapping_key, int8_t *pbs_buffer,
uint32_t lwe_dimension, uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t grouping_factor, uint32_t base_log, uint32_t level_count,
uint32_t num_samples, uint32_t num_luts, uint32_t lwe_idx,
uint32_t max_shared_memory, uint32_t chunk_size = 0);
void scratch_cuda_multi_bit_pbs_64(
cuda_stream_t *stream, int8_t **pbs_buffer, uint32_t lwe_dimension,
uint32_t glwe_dimension, uint32_t polynomial_size, uint32_t level_count,
uint32_t grouping_factor, uint32_t input_lwe_ciphertext_count,
uint32_t max_shared_memory, bool allocate_gpu_memory,
uint32_t chunk_size = 0);
void cleanup_cuda_multi_bit_pbs(cuda_stream_t *stream, int8_t **pbs_buffer);
}
#ifdef __CUDACC__
__host__ uint32_t get_lwe_chunk_size(uint32_t lwe_dimension,
uint32_t level_count,
uint32_t glwe_dimension,
uint32_t num_samples);
__host__ uint32_t get_average_lwe_chunk_size(uint32_t lwe_dimension,
uint32_t level_count,
uint32_t glwe_dimension,
uint32_t ct_count);
__host__ uint64_t get_max_buffer_size_multibit_bootstrap(
uint32_t lwe_dimension, uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t level_count, uint32_t max_input_lwe_ciphertext_count);
#endif
#endif // CUDA_MULTI_BIT_H

View File

@@ -1,18 +0,0 @@
#ifndef CUDA_CIPHERTEXT_H
#define CUDA_CIPHERTEXT_H
#include <cstdint>
extern "C" {
void cuda_convert_lwe_ciphertext_vector_to_gpu_64(void *dest, void *src,
void *v_stream,
uint32_t gpu_index,
uint32_t number_of_cts,
uint32_t lwe_dimension);
void cuda_convert_lwe_ciphertext_vector_to_cpu_64(void *dest, void *src,
void *v_stream,
uint32_t gpu_index,
uint32_t number_of_cts,
uint32_t lwe_dimension);
};
#endif

View File

@@ -1,92 +0,0 @@
#ifndef DEVICE_H
#define DEVICE_H
#include <cstdint>
#include <cstdio>
#include <cstdlib>
#include <cstring>
#include <cuda_runtime.h>
#define synchronize_threads_in_block() __syncthreads()
extern "C" {
#define check_cuda_error(ans) \
{ cuda_error((ans), __FILE__, __LINE__); }
inline void cuda_error(cudaError_t code, const char *file, int line) {
if (code != cudaSuccess) {
std::fprintf(stderr, "Cuda error: %s %s %d\n", cudaGetErrorString(code),
file, line);
std::abort();
}
}
#define PANIC(format, ...) \
{ \
std::fprintf(stderr, "%s::%d::%s: panic.\n" format "\n", __FILE__, \
__LINE__, __func__, ##__VA_ARGS__); \
std::abort(); \
}
struct cuda_stream_t {
cudaStream_t stream;
uint32_t gpu_index;
cuda_stream_t(uint32_t gpu_index) {
this->gpu_index = gpu_index;
check_cuda_error(cudaStreamCreate(&stream));
}
void release() {
check_cuda_error(cudaSetDevice(gpu_index));
check_cuda_error(cudaStreamDestroy(stream));
}
void synchronize() { check_cuda_error(cudaStreamSynchronize(stream)); }
};
cuda_stream_t *cuda_create_stream(uint32_t gpu_index);
void cuda_destroy_stream(cuda_stream_t *stream);
void *cuda_malloc(uint64_t size, uint32_t gpu_index);
void *cuda_malloc_async(uint64_t size, cuda_stream_t *stream);
void cuda_check_valid_malloc(uint64_t size, uint32_t gpu_index);
bool cuda_check_support_cooperative_groups();
void cuda_memcpy_to_cpu(void *dest, const void *src, uint64_t size);
void cuda_memcpy_async_to_gpu(void *dest, void *src, uint64_t size,
cuda_stream_t *stream);
void cuda_memcpy_async_gpu_to_gpu(void *dest, void *src, uint64_t size,
cuda_stream_t *stream);
void cuda_memcpy_to_gpu(void *dest, void *src, uint64_t size);
void cuda_memcpy_async_to_cpu(void *dest, const void *src, uint64_t size,
cuda_stream_t *stream);
void cuda_memset_async(void *dest, uint64_t val, uint64_t size,
cuda_stream_t *stream);
int cuda_get_number_of_gpus();
void cuda_synchronize_device(uint32_t gpu_index);
void cuda_drop(void *ptr, uint32_t gpu_index);
void cuda_drop_async(void *ptr, cuda_stream_t *stream);
int cuda_get_max_shared_memory(uint32_t gpu_index);
void cuda_synchronize_stream(cuda_stream_t *stream);
}
template <typename Torus>
void cuda_set_value_async(cudaStream_t *stream, Torus *d_array, Torus value,
Torus n);
#endif

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@@ -1,100 +0,0 @@
#include "cuComplex.h"
#include "thrust/complex.h"
#include <iostream>
#include <string>
#include <type_traits>
#define PRINT_VARS
#ifdef PRINT_VARS
#define PRINT_DEBUG_5(var, begin, end, step, cond) \
_print_debug(var, #var, begin, end, step, cond, "", false)
#define PRINT_DEBUG_6(var, begin, end, step, cond, text) \
_print_debug(var, #var, begin, end, step, cond, text, true)
#define CAT(A, B) A##B
#define PRINT_SELECT(NAME, NUM) CAT(NAME##_, NUM)
#define GET_COUNT(_1, _2, _3, _4, _5, _6, COUNT, ...) COUNT
#define VA_SIZE(...) GET_COUNT(__VA_ARGS__, 6, 5, 4, 3, 2, 1)
#define PRINT_DEBUG(...) \
PRINT_SELECT(PRINT_DEBUG, VA_SIZE(__VA_ARGS__))(__VA_ARGS__)
#else
#define PRINT_DEBUG(...)
#endif
template <typename T>
__device__ typename std::enable_if<std::is_unsigned<T>::value, void>::type
_print_debug(T *var, const char *var_name, int start, int end, int step,
bool cond, const char *text, bool has_text) {
__syncthreads();
if (cond) {
if (has_text)
printf("%s\n", text);
for (int i = start; i < end; i += step) {
printf("%s[%u]: %u\n", var_name, i, var[i]);
}
}
__syncthreads();
}
template <typename T>
__device__ typename std::enable_if<std::is_signed<T>::value, void>::type
_print_debug(T *var, const char *var_name, int start, int end, int step,
bool cond, const char *text, bool has_text) {
__syncthreads();
if (cond) {
if (has_text)
printf("%s\n", text);
for (int i = start; i < end; i += step) {
printf("%s[%u]: %d\n", var_name, i, var[i]);
}
}
__syncthreads();
}
template <typename T>
__device__ typename std::enable_if<std::is_floating_point<T>::value, void>::type
_print_debug(T *var, const char *var_name, int start, int end, int step,
bool cond, const char *text, bool has_text) {
__syncthreads();
if (cond) {
if (has_text)
printf("%s\n", text);
for (int i = start; i < end; i += step) {
printf("%s[%u]: %.15f\n", var_name, i, var[i]);
}
}
__syncthreads();
}
template <typename T>
__device__
typename std::enable_if<std::is_same<T, thrust::complex<double>>::value,
void>::type
_print_debug(T *var, const char *var_name, int start, int end, int step,
bool cond, const char *text, bool has_text) {
__syncthreads();
if (cond) {
if (has_text)
printf("%s\n", text);
for (int i = start; i < end; i += step) {
printf("%s[%u]: %.15f , %.15f\n", var_name, i, var[i].real(),
var[i].imag());
}
}
__syncthreads();
}
template <typename T>
__device__
typename std::enable_if<std::is_same<T, cuDoubleComplex>::value, void>::type
_print_debug(T *var, const char *var_name, int start, int end, int step,
bool cond, const char *text, bool has_text) {
__syncthreads();
if (cond) {
if (has_text)
printf("%s\n", text);
for (int i = start; i < end; i += step) {
printf("%s[%u]: %.15f , %.15f\n", var_name, i, var[i].x, var[i].y);
}
}
__syncthreads();
}

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@@ -1,21 +0,0 @@
#ifndef CNCRT_KS_H_
#define CNCRT_KS_H_
#include <cstdint>
extern "C" {
void cuda_keyswitch_lwe_ciphertext_vector_32(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lwe_array_in, void *lwe_input_indexes, void *ksk,
uint32_t lwe_dimension_in, uint32_t lwe_dimension_out, uint32_t base_log,
uint32_t level_count, uint32_t num_samples);
void cuda_keyswitch_lwe_ciphertext_vector_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lwe_array_in, void *lwe_input_indexes, void *ksk,
uint32_t lwe_dimension_in, uint32_t lwe_dimension_out, uint32_t base_log,
uint32_t level_count, uint32_t num_samples);
}
#endif // CNCRT_KS_H_

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@@ -1,50 +0,0 @@
#ifndef CUDA_LINALG_H_
#define CUDA_LINALG_H_
#include "bootstrap.h"
#include <cstdint>
#include <device.h>
extern "C" {
void cuda_negate_lwe_ciphertext_vector_32(cuda_stream_t *stream,
void *lwe_array_out,
void *lwe_array_in,
uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
void cuda_negate_lwe_ciphertext_vector_64(cuda_stream_t *stream,
void *lwe_array_out,
void *lwe_array_in,
uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
void cuda_add_lwe_ciphertext_vector_32(cuda_stream_t *stream,
void *lwe_array_out,
void *lwe_array_in_1,
void *lwe_array_in_2,
uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
void cuda_add_lwe_ciphertext_vector_64(cuda_stream_t *stream,
void *lwe_array_out,
void *lwe_array_in_1,
void *lwe_array_in_2,
uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
void cuda_add_lwe_ciphertext_vector_plaintext_vector_32(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_in,
void *plaintext_array_in, uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
void cuda_add_lwe_ciphertext_vector_plaintext_vector_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_in,
void *plaintext_array_in, uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
void cuda_mult_lwe_ciphertext_vector_cleartext_vector_32(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_in,
void *cleartext_array_in, uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
void cuda_mult_lwe_ciphertext_vector_cleartext_vector_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_in,
void *cleartext_array_in, uint32_t input_lwe_dimension,
uint32_t input_lwe_ciphertext_count);
}
#endif // CUDA_LINALG_H_

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@@ -1,18 +0,0 @@
set(SOURCES
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/bit_extraction.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/bitwise_ops.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/bootstrap.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/bootstrap_multibit.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/ciphertext.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/circuit_bootstrap.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/device.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/integer.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/keyswitch.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/linear_algebra.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/shifts.h
${CMAKE_SOURCE_DIR}/${INCLUDE_DIR}/vertical_packing.h)
file(GLOB_RECURSE SOURCES "*.cu")
add_library(tfhe_cuda_backend STATIC ${SOURCES})
set_target_properties(tfhe_cuda_backend PROPERTIES CUDA_SEPARABLE_COMPILATION ON CUDA_RESOLVE_DEVICE_SYMBOLS ON)
target_link_libraries(tfhe_cuda_backend PUBLIC cudart OpenMP::OpenMP_CXX)
target_include_directories(tfhe_cuda_backend PRIVATE .)

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@@ -1 +0,0 @@
#include "ciphertext.cuh"

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@@ -1,44 +0,0 @@
#ifndef CUDA_CIPHERTEXT_CUH
#define CUDA_CIPHERTEXT_CUH
#include "ciphertext.h"
#include "device.h"
#include <cstdint>
template <typename T>
void cuda_convert_lwe_ciphertext_vector_to_gpu(T *dest, T *src,
cuda_stream_t *stream,
uint32_t number_of_cts,
uint32_t lwe_dimension) {
cudaSetDevice(stream->gpu_index);
uint64_t size = number_of_cts * (lwe_dimension + 1) * sizeof(T);
cuda_memcpy_async_to_gpu(dest, src, size, stream);
}
void cuda_convert_lwe_ciphertext_vector_to_gpu_64(void *dest, void *src,
cuda_stream_t *stream,
uint32_t number_of_cts,
uint32_t lwe_dimension) {
cuda_convert_lwe_ciphertext_vector_to_gpu<uint64_t>(
(uint64_t *)dest, (uint64_t *)src, stream, number_of_cts, lwe_dimension);
}
template <typename T>
void cuda_convert_lwe_ciphertext_vector_to_cpu(T *dest, T *src,
cuda_stream_t *stream,
uint32_t number_of_cts,
uint32_t lwe_dimension) {
cudaSetDevice(stream->gpu_index);
uint64_t size = number_of_cts * (lwe_dimension + 1) * sizeof(T);
cuda_memcpy_async_to_cpu(dest, src, size, stream);
}
void cuda_convert_lwe_ciphertext_vector_to_cpu_64(void *dest, void *src,
cuda_stream_t *stream,
uint32_t number_of_cts,
uint32_t lwe_dimension) {
cuda_convert_lwe_ciphertext_vector_to_cpu<uint64_t>(
(uint64_t *)dest, (uint64_t *)src, stream, number_of_cts, lwe_dimension);
}
#endif

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@@ -1,162 +0,0 @@
#ifndef CNCRT_CRYPTO_CUH
#define CNCRT_CRPYTO_CUH
#include "device.h"
#include <cstdint>
/**
* GadgetMatrix implements the iterator design pattern to decompose a set of
* num_poly consecutive polynomials with degree params::degree. A total of
* level_count levels is expected and each call to decompose_and_compress_next()
* writes to the result the next level. It is also possible to advance an
* arbitrary amount of levels by using decompose_and_compress_level().
*
* This class always decomposes the entire set of num_poly polynomials.
* By default, it works on a single polynomial.
*/
#pragma once
template <typename T, class params> class GadgetMatrix {
private:
uint32_t level_count;
uint32_t base_log;
uint32_t mask;
uint32_t halfbg;
uint32_t num_poly;
T offset;
int current_level;
T mask_mod_b;
T *state;
public:
__device__ GadgetMatrix(uint32_t base_log, uint32_t level_count, T *state,
uint32_t num_poly = 1)
: base_log(base_log), level_count(level_count), num_poly(num_poly),
state(state) {
mask_mod_b = (1ll << base_log) - 1ll;
current_level = level_count;
int tid = threadIdx.x;
for (int i = 0; i < num_poly * params::opt; i++) {
state[tid] >>= (sizeof(T) * 8 - base_log * level_count);
tid += params::degree / params::opt;
}
synchronize_threads_in_block();
}
// Decomposes all polynomials at once
__device__ void decompose_and_compress_next(double2 *result) {
for (int j = 0; j < num_poly; j++) {
auto result_slice = result + j * params::degree / 2;
decompose_and_compress_next_polynomial(result_slice, j);
}
}
// Decomposes a single polynomial
__device__ void decompose_and_compress_next_polynomial(double2 *result,
int j) {
if (j == 0)
current_level -= 1;
int tid = threadIdx.x;
auto state_slice = state + j * params::degree;
for (int i = 0; i < params::opt / 2; i++) {
T res_re = state_slice[tid] & mask_mod_b;
T res_im = state_slice[tid + params::degree / 2] & mask_mod_b;
state_slice[tid] >>= base_log;
state_slice[tid + params::degree / 2] >>= base_log;
T carry_re = ((res_re - 1ll) | state_slice[tid]) & res_re;
T carry_im =
((res_im - 1ll) | state_slice[tid + params::degree / 2]) & res_im;
carry_re >>= (base_log - 1);
carry_im >>= (base_log - 1);
state_slice[tid] += carry_re;
state_slice[tid + params::degree / 2] += carry_im;
res_re -= carry_re << base_log;
res_im -= carry_im << base_log;
result[tid].x = (int32_t)res_re;
result[tid].y = (int32_t)res_im;
tid += params::degree / params::opt;
}
synchronize_threads_in_block();
}
// Decomposes a single polynomial
__device__ void
decompose_and_compress_next_polynomial_elements(double2 *result, int j) {
if (j == 0)
current_level -= 1;
int tid = threadIdx.x;
auto state_slice = state + j * params::degree;
for (int i = 0; i < params::opt / 2; i++) {
T res_re = state_slice[tid] & mask_mod_b;
T res_im = state_slice[tid + params::degree / 2] & mask_mod_b;
state_slice[tid] >>= base_log;
state_slice[tid + params::degree / 2] >>= base_log;
T carry_re = ((res_re - 1ll) | state_slice[tid]) & res_re;
T carry_im =
((res_im - 1ll) | state_slice[tid + params::degree / 2]) & res_im;
carry_re >>= (base_log - 1);
carry_im >>= (base_log - 1);
state_slice[tid] += carry_re;
state_slice[tid + params::degree / 2] += carry_im;
res_re -= carry_re << base_log;
res_im -= carry_im << base_log;
result[i].x = (int32_t)res_re;
result[i].y = (int32_t)res_im;
tid += params::degree / params::opt;
}
synchronize_threads_in_block();
}
__device__ void decompose_and_compress_level(double2 *result, int level) {
for (int i = 0; i < level_count - level; i++)
decompose_and_compress_next(result);
}
};
template <typename T> class GadgetMatrixSingle {
private:
uint32_t level_count;
uint32_t base_log;
uint32_t mask;
uint32_t halfbg;
T offset;
public:
__device__ GadgetMatrixSingle(uint32_t base_log, uint32_t level_count)
: base_log(base_log), level_count(level_count) {
uint32_t bg = 1 << base_log;
this->halfbg = bg / 2;
this->mask = bg - 1;
T temp = 0;
for (int i = 0; i < this->level_count; i++) {
temp += 1ULL << (sizeof(T) * 8 - (i + 1) * this->base_log);
}
this->offset = temp * this->halfbg;
}
__device__ T decompose_one_level_single(T element, uint32_t level) {
T s = element + this->offset;
uint32_t decal = (sizeof(T) * 8 - (level + 1) * this->base_log);
T temp1 = (s >> decal) & this->mask;
return (T)(temp1 - this->halfbg);
}
};
template <typename Torus>
__device__ Torus decompose_one(Torus &state, Torus mask_mod_b, int base_log) {
Torus res = state & mask_mod_b;
state >>= base_log;
Torus carry = ((res - 1ll) | state) & res;
carry >>= base_log - 1;
state += carry;
res -= carry << base_log;
return res;
}
#endif // CNCRT_CRPYTO_H

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@@ -1,74 +0,0 @@
#ifndef CNCRT_GGSW_CUH
#define CNCRT_GGSW_CUH
#include "device.h"
#include "fft/bnsmfft.cuh"
#include "polynomial/parameters.cuh"
template <typename T, typename ST, class params, sharedMemDegree SMD>
__global__ void device_batch_fft_ggsw_vector(double2 *dest, T *src,
int8_t *device_mem) {
extern __shared__ int8_t sharedmem[];
double2 *selected_memory;
if constexpr (SMD == FULLSM)
selected_memory = (double2 *)sharedmem;
else
selected_memory = (double2 *)device_mem[blockIdx.x * params::degree];
// Compression
int offset = blockIdx.x * blockDim.x;
int tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
ST x = src[(tid) + params::opt * offset];
ST y = src[(tid + params::degree / 2) + params::opt * offset];
selected_memory[tid].x = x / (double)std::numeric_limits<T>::max();
selected_memory[tid].y = y / (double)std::numeric_limits<T>::max();
tid += params::degree / params::opt;
}
synchronize_threads_in_block();
// Switch to the FFT space
NSMFFT_direct<HalfDegree<params>>(selected_memory);
synchronize_threads_in_block();
// Write the output to global memory
tid = threadIdx.x;
#pragma unroll
for (int j = 0; j < params::opt / 2; j++) {
dest[tid + (params::opt >> 1) * offset] = selected_memory[tid];
tid += params::degree / params::opt;
}
}
/**
* Applies the FFT transform on sequence of GGSW ciphertexts already in the
* global memory
*/
template <typename T, typename ST, class params>
void batch_fft_ggsw_vector(cuda_stream_t *stream, double2 *dest, T *src,
int8_t *d_mem, uint32_t r, uint32_t glwe_dim,
uint32_t polynomial_size, uint32_t level_count,
uint32_t gpu_index, uint32_t max_shared_memory) {
cudaSetDevice(stream->gpu_index);
int shared_memory_size = sizeof(double) * polynomial_size;
int gridSize = r * (glwe_dim + 1) * (glwe_dim + 1) * level_count;
int blockSize = polynomial_size / params::opt;
if (max_shared_memory < shared_memory_size) {
device_batch_fft_ggsw_vector<T, ST, params, NOSM>
<<<gridSize, blockSize, 0, stream->stream>>>(dest, src, d_mem);
} else {
device_batch_fft_ggsw_vector<T, ST, params, FULLSM>
<<<gridSize, blockSize, shared_memory_size, stream->stream>>>(dest, src,
d_mem);
}
check_cuda_error(cudaGetLastError());
}
#endif // CNCRT_GGSW_CUH

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@@ -1,48 +0,0 @@
#include "keyswitch.cuh"
#include "keyswitch.h"
#include <cstdint>
/* Perform keyswitch on a batch of 32 bits input LWE ciphertexts.
* Head out to the equivalent operation on 64 bits for more details.
*/
void cuda_keyswitch_lwe_ciphertext_vector_32(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lwe_array_in, void *lwe_input_indexes, void *ksk,
uint32_t lwe_dimension_in, uint32_t lwe_dimension_out, uint32_t base_log,
uint32_t level_count, uint32_t num_samples) {
cuda_keyswitch_lwe_ciphertext_vector(
stream, static_cast<uint32_t *>(lwe_array_out),
static_cast<uint32_t *>(lwe_output_indexes),
static_cast<uint32_t *>(lwe_array_in),
static_cast<uint32_t *>(lwe_input_indexes), static_cast<uint32_t *>(ksk),
lwe_dimension_in, lwe_dimension_out, base_log, level_count, num_samples);
}
/* Perform keyswitch on a batch of 64 bits input LWE ciphertexts.
*
* - `v_stream` is a void pointer to the Cuda stream to be used in the kernel
* launch
* - `gpu_index` is the index of the GPU to be used in the kernel launch
* - lwe_array_out: output batch of num_samples keyswitched ciphertexts c =
* (a0,..an-1,b) where n is the output LWE dimension (lwe_dimension_out)
* - lwe_array_in: input batch of num_samples LWE ciphertexts, containing
* lwe_dimension_in mask values + 1 body value
* - ksk: the keyswitch key to be used in the operation
* - base log: the log of the base used in the decomposition (should be the one
* used to create the ksk)
*
* This function calls a wrapper to a device kernel that performs the keyswitch
* - num_samples blocks of threads are launched
*/
void cuda_keyswitch_lwe_ciphertext_vector_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_output_indexes,
void *lwe_array_in, void *lwe_input_indexes, void *ksk,
uint32_t lwe_dimension_in, uint32_t lwe_dimension_out, uint32_t base_log,
uint32_t level_count, uint32_t num_samples) {
cuda_keyswitch_lwe_ciphertext_vector(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_output_indexes),
static_cast<uint64_t *>(lwe_array_in),
static_cast<uint64_t *>(lwe_input_indexes), static_cast<uint64_t *>(ksk),
lwe_dimension_in, lwe_dimension_out, base_log, level_count, num_samples);
}

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@@ -1,144 +0,0 @@
#ifndef CNCRT_KS_CUH
#define CNCRT_KS_CUH
#include "device.h"
#include "gadget.cuh"
#include "polynomial/polynomial_math.cuh"
#include "torus.cuh"
#include <thread>
#include <vector>
template <typename Torus>
__device__ Torus *get_ith_block(Torus *ksk, int i, int level,
uint32_t lwe_dimension_out,
uint32_t level_count) {
int pos = i * level_count * (lwe_dimension_out + 1) +
level * (lwe_dimension_out + 1);
Torus *ptr = &ksk[pos];
return ptr;
}
/*
* keyswitch kernel
* Each thread handles a piece of the following equation:
* $$GLWE_s2(\Delta.m+e) = (0,0,..,0,b) - \sum_{i=0,k-1} <Dec(a_i),
* (GLWE_s2(s1_i q/beta),..,GLWE(s1_i q/beta^l)>$$ where k is the dimension of
* the GLWE ciphertext. If the polynomial dimension in GLWE is > 1, this
* equation is solved for each polynomial coefficient. where Dec denotes the
* decomposition with base beta and l levels and the inner product is done
* between the decomposition of a_i and l GLWE encryptions of s1_i q/\beta^j,
* with j in [1,l] We obtain a GLWE encryption of Delta.m (with Delta the
* scaling factor) under key s2 instead of s1, with an increased noise
*
*/
template <typename Torus>
__global__ void
keyswitch(Torus *lwe_array_out, Torus *lwe_output_indexes, Torus *lwe_array_in,
Torus *lwe_input_indexes, Torus *ksk, uint32_t lwe_dimension_in,
uint32_t lwe_dimension_out, uint32_t base_log, uint32_t level_count,
int lwe_lower, int lwe_upper, int cutoff) {
int tid = threadIdx.x;
extern __shared__ int8_t sharedmem[];
Torus *local_lwe_array_out = (Torus *)sharedmem;
auto block_lwe_array_in = get_chunk(
lwe_array_in, lwe_input_indexes[blockIdx.x], lwe_dimension_in + 1);
auto block_lwe_array_out = get_chunk(
lwe_array_out, lwe_output_indexes[blockIdx.x], lwe_dimension_out + 1);
auto gadget = GadgetMatrixSingle<Torus>(base_log, level_count);
int lwe_part_per_thd;
if (tid < cutoff) {
lwe_part_per_thd = lwe_upper;
} else {
lwe_part_per_thd = lwe_lower;
}
__syncthreads();
for (int k = 0; k < lwe_part_per_thd; k++) {
int idx = tid + k * blockDim.x;
local_lwe_array_out[idx] = 0;
}
__syncthreads();
if (tid == 0) {
local_lwe_array_out[lwe_dimension_out] =
block_lwe_array_in[lwe_dimension_in];
}
for (int i = 0; i < lwe_dimension_in; i++) {
__syncthreads();
Torus a_i =
round_to_closest_multiple(block_lwe_array_in[i], base_log, level_count);
Torus state = a_i >> (sizeof(Torus) * 8 - base_log * level_count);
Torus mask_mod_b = (1ll << base_log) - 1ll;
for (int j = 0; j < level_count; j++) {
auto ksk_block = get_ith_block(ksk, i, j, lwe_dimension_out, level_count);
Torus decomposed = decompose_one<Torus>(state, mask_mod_b, base_log);
for (int k = 0; k < lwe_part_per_thd; k++) {
int idx = tid + k * blockDim.x;
local_lwe_array_out[idx] -= (Torus)ksk_block[idx] * decomposed;
}
}
}
for (int k = 0; k < lwe_part_per_thd; k++) {
int idx = tid + k * blockDim.x;
block_lwe_array_out[idx] = local_lwe_array_out[idx];
}
}
/// assume lwe_array_in in the gpu
template <typename Torus>
__host__ void cuda_keyswitch_lwe_ciphertext_vector(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_output_indexes,
Torus *lwe_array_in, Torus *lwe_input_indexes, Torus *ksk,
uint32_t lwe_dimension_in, uint32_t lwe_dimension_out, uint32_t base_log,
uint32_t level_count, uint32_t num_samples) {
cudaSetDevice(stream->gpu_index);
constexpr int ideal_threads = 128;
int lwe_dim = lwe_dimension_out + 1;
int lwe_lower, lwe_upper, cutoff;
if (lwe_dim % ideal_threads == 0) {
lwe_lower = lwe_dim / ideal_threads;
lwe_upper = lwe_dim / ideal_threads;
cutoff = 0;
} else {
int y =
ceil((double)lwe_dim / (double)ideal_threads) * ideal_threads - lwe_dim;
cutoff = ideal_threads - y;
lwe_lower = lwe_dim / ideal_threads;
lwe_upper = (int)ceil((double)lwe_dim / (double)ideal_threads);
}
int lwe_size_after = (lwe_dimension_out + 1) * num_samples;
int shared_mem = sizeof(Torus) * (lwe_dimension_out + 1);
cuda_memset_async(lwe_array_out, 0, sizeof(Torus) * lwe_size_after, stream);
check_cuda_error(cudaGetLastError());
dim3 grid(num_samples, 1, 1);
dim3 threads(ideal_threads, 1, 1);
// cudaFuncSetAttribute(keyswitch<Torus>,
// cudaFuncAttributeMaxDynamicSharedMemorySize,
// shared_mem);
keyswitch<<<grid, threads, shared_mem, stream->stream>>>(
lwe_array_out, lwe_output_indexes, lwe_array_in, lwe_input_indexes, ksk,
lwe_dimension_in, lwe_dimension_out, base_log, level_count, lwe_lower,
lwe_upper, cutoff);
check_cuda_error(cudaGetLastError());
}
#endif

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@@ -1,74 +0,0 @@
#ifndef CNCRT_TORUS_CUH
#define CNCRT_TORUS_CUH
#include "types/int128.cuh"
#include <limits>
template <typename T>
__device__ inline void typecast_double_to_torus(double x, T &r) {
r = T(x);
}
template <>
__device__ inline void typecast_double_to_torus<uint32_t>(double x,
uint32_t &r) {
r = __double2uint_rn(x);
}
template <>
__device__ inline void typecast_double_to_torus<uint64_t>(double x,
uint64_t &r) {
// The ull intrinsic does not behave in the same way on all architectures and
// on some platforms this causes the cmux tree test to fail
// Hence the intrinsic is not used here
uint128 nnnn = make_uint128_from_float(x);
uint64_t lll = nnnn.lo_;
r = lll;
}
template <typename T>
__device__ inline T round_to_closest_multiple(T x, uint32_t base_log,
uint32_t level_count) {
T shift = sizeof(T) * 8 - level_count * base_log;
T mask = 1ll << (shift - 1);
T b = (x & mask) >> (shift - 1);
T res = x >> shift;
res += b;
res <<= shift;
return res;
}
template <typename T>
__device__ __forceinline__ void rescale_torus_element(T element, T &output,
uint32_t log_shift) {
output =
round((double)element / (double(std::numeric_limits<T>::max()) + 1.0) *
(double)log_shift);
}
template <typename T>
__device__ __forceinline__ T rescale_torus_element(T element,
uint32_t log_shift) {
return round((double)element / (double(std::numeric_limits<T>::max()) + 1.0) *
(double)log_shift);
}
template <>
__device__ __forceinline__ void
rescale_torus_element<uint32_t>(uint32_t element, uint32_t &output,
uint32_t log_shift) {
output =
round(__uint2double_rn(element) /
(__uint2double_rn(std::numeric_limits<uint32_t>::max()) + 1.0) *
__uint2double_rn(log_shift));
}
template <>
__device__ __forceinline__ void
rescale_torus_element<uint64_t>(uint64_t element, uint64_t &output,
uint32_t log_shift) {
output = round(__ull2double_rn(element) /
(__ull2double_rn(std::numeric_limits<uint64_t>::max()) + 1.0) *
__uint2double_rn(log_shift));
}
#endif // CNCRT_TORUS_H

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@@ -1,254 +0,0 @@
#include "device.h"
#include <cstdint>
#include <cuda_runtime.h>
/// Unsafe function to create a CUDA stream, must check first that GPU exists
cuda_stream_t *cuda_create_stream(uint32_t gpu_index) {
check_cuda_error(cudaSetDevice(gpu_index));
cuda_stream_t *stream = new cuda_stream_t(gpu_index);
return stream;
}
/// Unsafe function to destroy CUDA stream, must check first the GPU exists
void cuda_destroy_stream(cuda_stream_t *stream) { stream->release(); }
/// Unsafe function that will try to allocate even if gpu_index is invalid
/// or if there's not enough memory. A safe wrapper around it must call
/// cuda_check_valid_malloc() first
void *cuda_malloc(uint64_t size, uint32_t gpu_index) {
check_cuda_error(cudaSetDevice(gpu_index));
void *ptr;
check_cuda_error(cudaMalloc((void **)&ptr, size));
return ptr;
}
/// Allocates a size-byte array at the device memory. Tries to do it
/// asynchronously.
void *cuda_malloc_async(uint64_t size, cuda_stream_t *stream) {
check_cuda_error(cudaSetDevice(stream->gpu_index));
void *ptr;
#ifndef CUDART_VERSION
#error CUDART_VERSION Undefined!
#elif (CUDART_VERSION >= 11020)
int support_async_alloc;
check_cuda_error(cudaDeviceGetAttribute(&support_async_alloc,
cudaDevAttrMemoryPoolsSupported,
stream->gpu_index));
if (support_async_alloc) {
check_cuda_error(cudaMallocAsync((void **)&ptr, size, stream->stream));
} else {
check_cuda_error(cudaMalloc((void **)&ptr, size));
}
#else
check_cuda_error(cudaMalloc((void **)&ptr, size));
#endif
return ptr;
}
/// Check that allocation is valid
void cuda_check_valid_malloc(uint64_t size, uint32_t gpu_index) {
check_cuda_error(cudaSetDevice(gpu_index));
size_t total_mem, free_mem;
check_cuda_error(cudaMemGetInfo(&free_mem, &total_mem));
if (size > free_mem) {
PANIC("Cuda error: not enough memory on device. "
"Available: %zu vs Requested: %lu",
free_mem, size);
}
}
/// Returns
/// false if Cooperative Groups is not supported.
/// true otherwise
bool cuda_check_support_cooperative_groups() {
int cooperative_groups_supported = 0;
check_cuda_error(cudaDeviceGetAttribute(&cooperative_groups_supported,
cudaDevAttrCooperativeLaunch, 0));
return cooperative_groups_supported > 0;
}
/// Copy memory to the GPU asynchronously
void cuda_memcpy_async_to_gpu(void *dest, void *src, uint64_t size,
cuda_stream_t *stream) {
if (size == 0)
return;
cudaPointerAttributes attr;
check_cuda_error(cudaPointerGetAttributes(&attr, dest));
if (attr.device != stream->gpu_index && attr.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid device pointer in async copy to GPU.");
}
check_cuda_error(cudaSetDevice(stream->gpu_index));
check_cuda_error(
cudaMemcpyAsync(dest, src, size, cudaMemcpyHostToDevice, stream->stream));
}
/// Copy memory to the GPU synchronously
void cuda_memcpy_to_gpu(void *dest, void *src, uint64_t size) {
if (size == 0)
return;
cudaPointerAttributes attr;
check_cuda_error(cudaPointerGetAttributes(&attr, dest));
if (attr.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid device pointer in copy to GPU.");
}
check_cuda_error(cudaMemcpy(dest, src, size, cudaMemcpyHostToDevice));
}
/// Copy memory to the CPU synchronously
void cuda_memcpy_to_cpu(void *dest, void *src, uint64_t size) {
if (size == 0)
return;
cudaPointerAttributes attr;
check_cuda_error(cudaPointerGetAttributes(&attr, src));
if (attr.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid device pointer in copy to CPU.");
}
check_cuda_error(cudaMemcpy(dest, src, size, cudaMemcpyDeviceToHost));
}
/// Copy memory within a GPU asynchronously
void cuda_memcpy_async_gpu_to_gpu(void *dest, void *src, uint64_t size,
cuda_stream_t *stream) {
if (size == 0)
return;
cudaPointerAttributes attr_dest;
check_cuda_error(cudaPointerGetAttributes(&attr_dest, dest));
if (attr_dest.device != stream->gpu_index &&
attr_dest.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid dest device pointer in copy from GPU to GPU.");
}
cudaPointerAttributes attr_src;
check_cuda_error(cudaPointerGetAttributes(&attr_src, src));
if (attr_src.device != stream->gpu_index &&
attr_src.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid src device pointer in copy from GPU to GPU.");
}
if (attr_src.device != attr_dest.device) {
PANIC("Cuda error: different devices specified in copy from GPU to GPU.");
}
check_cuda_error(cudaSetDevice(stream->gpu_index));
check_cuda_error(cudaMemcpyAsync(dest, src, size, cudaMemcpyDeviceToDevice,
stream->stream));
}
/// Synchronizes device
void cuda_synchronize_device(uint32_t gpu_index) {
check_cuda_error(cudaSetDevice(gpu_index));
check_cuda_error(cudaDeviceSynchronize());
}
void cuda_memset_async(void *dest, uint64_t val, uint64_t size,
cuda_stream_t *stream) {
if (size == 0)
return;
cudaPointerAttributes attr;
check_cuda_error(cudaPointerGetAttributes(&attr, dest));
if (attr.device != stream->gpu_index && attr.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid dest device pointer in cuda memset.");
}
check_cuda_error(cudaSetDevice(stream->gpu_index));
check_cuda_error(cudaMemsetAsync(dest, val, size, stream->stream));
}
template <typename Torus>
__global__ void cuda_set_value_kernel(Torus *array, Torus value, Torus n) {
int index = threadIdx.x + blockIdx.x * blockDim.x;
if (index < n)
array[index] = value;
}
template <typename Torus>
void cuda_set_value_async(cudaStream_t *stream, Torus *d_array, Torus value,
Torus n) {
cudaPointerAttributes attr;
check_cuda_error(cudaPointerGetAttributes(&attr, d_array));
if (attr.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid dest device pointer in cuda set value.");
}
int block_size = 256;
int num_blocks = (n + block_size - 1) / block_size;
// Launch the kernel
cuda_set_value_kernel<<<num_blocks, block_size, 0, *stream>>>(d_array, value,
n);
check_cuda_error(cudaGetLastError());
}
/// Explicitly instantiate cuda_set_value_async for 32 and 64 bits
template void cuda_set_value_async(cudaStream_t *stream, uint64_t *d_array,
uint64_t value, uint64_t n);
template void cuda_set_value_async(cudaStream_t *stream, uint32_t *d_array,
uint32_t value, uint32_t n);
/// Copy memory to the CPU asynchronously
void cuda_memcpy_async_to_cpu(void *dest, const void *src, uint64_t size,
cuda_stream_t *stream) {
if (size == 0)
return;
cudaPointerAttributes attr;
check_cuda_error(cudaPointerGetAttributes(&attr, src));
if (attr.device != stream->gpu_index && attr.type != cudaMemoryTypeDevice) {
PANIC("Cuda error: invalid src device pointer in copy to CPU async.");
}
check_cuda_error(cudaSetDevice(stream->gpu_index));
check_cuda_error(
cudaMemcpyAsync(dest, src, size, cudaMemcpyDeviceToHost, stream->stream));
}
/// Return number of GPUs available
int cuda_get_number_of_gpus() {
int num_gpus;
check_cuda_error(cudaGetDeviceCount(&num_gpus));
return num_gpus;
}
/// Drop a cuda array
void cuda_drop(void *ptr, uint32_t gpu_index) {
check_cuda_error(cudaSetDevice(gpu_index));
check_cuda_error(cudaFree(ptr));
}
/// Drop a cuda array asynchronously, if supported on the device
void cuda_drop_async(void *ptr, cuda_stream_t *stream) {
check_cuda_error(cudaSetDevice(stream->gpu_index));
#ifndef CUDART_VERSION
#error CUDART_VERSION Undefined!
#elif (CUDART_VERSION >= 11020)
int support_async_alloc;
check_cuda_error(cudaDeviceGetAttribute(&support_async_alloc,
cudaDevAttrMemoryPoolsSupported,
stream->gpu_index));
if (support_async_alloc) {
check_cuda_error(cudaFreeAsync(ptr, stream->stream));
} else {
check_cuda_error(cudaFree(ptr));
}
#else
check_cuda_error(cudaFree(ptr));
#endif
}
/// Get the maximum size for the shared memory
int cuda_get_max_shared_memory(uint32_t gpu_index) {
check_cuda_error(cudaSetDevice(gpu_index));
cudaDeviceProp prop;
check_cuda_error(cudaGetDeviceProperties(&prop, gpu_index));
int max_shared_memory = 0;
if (prop.major >= 6) {
max_shared_memory = prop.sharedMemPerMultiprocessor;
} else {
max_shared_memory = prop.sharedMemPerBlock;
}
return max_shared_memory;
}
void cuda_synchronize_stream(cuda_stream_t *stream) { stream->synchronize(); }

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@@ -1,725 +0,0 @@
#ifndef GPU_BOOTSTRAP_FFT_CUH
#define GPU_BOOTSTRAP_FFT_CUH
#include "polynomial/functions.cuh"
#include "polynomial/parameters.cuh"
#include "twiddles.cuh"
#include "types/complex/operations.cuh"
/*
* Direct negacyclic FFT:
* - before the FFT the N real coefficients are stored into a
* N/2 sized complex with the even coefficients in the real part
* and the odd coefficients in the imaginary part. This is referred to
* as the half-size FFT
* - when calling BNSMFFT_direct for the forward negacyclic FFT of PBS,
* opt is divided by 2 because the butterfly pattern is always applied
* between pairs of coefficients
* - instead of twisting each coefficient A_j before the FFT by
* multiplying by the w^j roots of unity (aka twiddles, w=exp(-i pi /N)),
* the FFT is modified, and for each level k of the FFT the twiddle:
* w_j,k = exp(-i pi j/2^k)
* is replaced with:
* \zeta_j,k = exp(-i pi (2j-1)/2^k)
*/
template <class params> __device__ void NSMFFT_direct(double2 *A) {
/* We don't make bit reverse here, since twiddles are already reversed
* Each thread is always in charge of "opt/2" pairs of coefficients,
* which is why we always loop through N/2 by N/opt strides
* The pragma unroll instruction tells the compiler to unroll the
* full loop, which should increase performance
*/
size_t tid = threadIdx.x;
size_t twid_id;
size_t i1, i2;
double2 u, v, w;
// level 1
// we don't make actual complex multiplication on level1 since we have only
// one twiddle, it's real and image parts are equal, so we can multiply
// it with simpler operations
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
i1 = tid;
i2 = tid + params::degree / 2;
u = A[i1];
v = A[i2] * (double2){0.707106781186547461715008466854,
0.707106781186547461715008466854};
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
// level 2
// from this level there are more than one twiddles and none of them has equal
// real and imag parts, so complete complex multiplication is needed
// for each level params::degree / 2^level represents number of coefficients
// inside divided chunk of specific level
//
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 4);
i1 = 2 * (params::degree / 4) * twid_id + (tid & (params::degree / 4 - 1));
i2 = i1 + params::degree / 4;
w = negtwiddles[twid_id + 2];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
// level 3
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 8);
i1 = 2 * (params::degree / 8) * twid_id + (tid & (params::degree / 8 - 1));
i2 = i1 + params::degree / 8;
w = negtwiddles[twid_id + 4];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
// level 4
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 16);
i1 =
2 * (params::degree / 16) * twid_id + (tid & (params::degree / 16 - 1));
i2 = i1 + params::degree / 16;
w = negtwiddles[twid_id + 8];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
// level 5
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 32);
i1 =
2 * (params::degree / 32) * twid_id + (tid & (params::degree / 32 - 1));
i2 = i1 + params::degree / 32;
w = negtwiddles[twid_id + 16];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
// level 6
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 64);
i1 =
2 * (params::degree / 64) * twid_id + (tid & (params::degree / 64 - 1));
i2 = i1 + params::degree / 64;
w = negtwiddles[twid_id + 32];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
// level 7
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 128);
i1 = 2 * (params::degree / 128) * twid_id +
(tid & (params::degree / 128 - 1));
i2 = i1 + params::degree / 128;
w = negtwiddles[twid_id + 64];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
// from level 8, we need to check size of params degree, because we support
// minimum actual polynomial size = 256, when compressed size is halfed and
// minimum supported compressed size is 128, so we always need first 7
// levels of butterfy operation, since butterfly levels are hardcoded
// we need to check if polynomial size is big enough to require specific level
// of butterfly.
if constexpr (params::degree >= 256) {
// level 8
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 256);
i1 = 2 * (params::degree / 256) * twid_id +
(tid & (params::degree / 256 - 1));
i2 = i1 + params::degree / 256;
w = negtwiddles[twid_id + 128];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 512) {
// level 9
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 512);
i1 = 2 * (params::degree / 512) * twid_id +
(tid & (params::degree / 512 - 1));
i2 = i1 + params::degree / 512;
w = negtwiddles[twid_id + 256];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 1024) {
// level 10
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 1024);
i1 = 2 * (params::degree / 1024) * twid_id +
(tid & (params::degree / 1024 - 1));
i2 = i1 + params::degree / 1024;
w = negtwiddles[twid_id + 512];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 2048) {
// level 11
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 2048);
i1 = 2 * (params::degree / 2048) * twid_id +
(tid & (params::degree / 2048 - 1));
i2 = i1 + params::degree / 2048;
w = negtwiddles[twid_id + 1024];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 4096) {
// level 12
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 4096);
i1 = 2 * (params::degree / 4096) * twid_id +
(tid & (params::degree / 4096 - 1));
i2 = i1 + params::degree / 4096;
w = negtwiddles[twid_id + 2048];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
}
// compressed size = 8192 is actual polynomial size = 16384.
// from this size, twiddles can't fit in constant memory,
// so from here, butterfly operation access device memory.
if constexpr (params::degree >= 8192) {
// level 13
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 8192);
i1 = 2 * (params::degree / 8192) * twid_id +
(tid & (params::degree / 8192 - 1));
i2 = i1 + params::degree / 8192;
w = negtwiddles13[twid_id];
u = A[i1];
v = A[i2] * w;
A[i1] += v;
A[i2] = u - v;
tid += params::degree / params::opt;
}
__syncthreads();
}
}
/*
* negacyclic inverse fft
*/
template <class params> __device__ void NSMFFT_inverse(double2 *A) {
/* We don't make bit reverse here, since twiddles are already reversed
* Each thread is always in charge of "opt/2" pairs of coefficients,
* which is why we always loop through N/2 by N/opt strides
* The pragma unroll instruction tells the compiler to unroll the
* full loop, which should increase performance
*/
size_t tid = threadIdx.x;
size_t twid_id;
size_t i1, i2;
double2 u, w;
// divide input by compressed polynomial size
tid = threadIdx.x;
for (size_t i = 0; i < params::opt; ++i) {
A[tid] /= params::degree;
tid += params::degree / params::opt;
}
__syncthreads();
// none of the twiddles have equal real and imag part, so
// complete complex multiplication has to be done
// here we have more than one twiddle
// mapping in backward fft is reversed
// butterfly operation is started from last level
// compressed size = 8192 is actual polynomial size = 16384.
// twiddles for this size can't fit in constant memory so
// butterfly operation for this level acess device memory to fetch
// twiddles
if constexpr (params::degree >= 8192) {
// level 13
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 8192);
i1 = 2 * (params::degree / 8192) * twid_id +
(tid & (params::degree / 8192 - 1));
i2 = i1 + params::degree / 8192;
w = negtwiddles13[twid_id];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 4096) {
// level 12
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 4096);
i1 = 2 * (params::degree / 4096) * twid_id +
(tid & (params::degree / 4096 - 1));
i2 = i1 + params::degree / 4096;
w = negtwiddles[twid_id + 2048];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 2048) {
// level 11
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 2048);
i1 = 2 * (params::degree / 2048) * twid_id +
(tid & (params::degree / 2048 - 1));
i2 = i1 + params::degree / 2048;
w = negtwiddles[twid_id + 1024];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 1024) {
// level 10
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 1024);
i1 = 2 * (params::degree / 1024) * twid_id +
(tid & (params::degree / 1024 - 1));
i2 = i1 + params::degree / 1024;
w = negtwiddles[twid_id + 512];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 512) {
// level 9
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 512);
i1 = 2 * (params::degree / 512) * twid_id +
(tid & (params::degree / 512 - 1));
i2 = i1 + params::degree / 512;
w = negtwiddles[twid_id + 256];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
}
if constexpr (params::degree >= 256) {
// level 8
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 256);
i1 = 2 * (params::degree / 256) * twid_id +
(tid & (params::degree / 256 - 1));
i2 = i1 + params::degree / 256;
w = negtwiddles[twid_id + 128];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
}
// below level 8, we don't need to check size of params degree, because we
// support minimum actual polynomial size = 256, when compressed size is
// halfed and minimum supported compressed size is 128, so we always need
// last 7 levels of butterfy operation, since butterfly levels are hardcoded
// we don't need to check if polynomial size is big enough to require
// specific level of butterfly.
// level 7
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 128);
i1 = 2 * (params::degree / 128) * twid_id +
(tid & (params::degree / 128 - 1));
i2 = i1 + params::degree / 128;
w = negtwiddles[twid_id + 64];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
// level 6
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 64);
i1 =
2 * (params::degree / 64) * twid_id + (tid & (params::degree / 64 - 1));
i2 = i1 + params::degree / 64;
w = negtwiddles[twid_id + 32];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
// level 5
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 32);
i1 =
2 * (params::degree / 32) * twid_id + (tid & (params::degree / 32 - 1));
i2 = i1 + params::degree / 32;
w = negtwiddles[twid_id + 16];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
// level 4
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 16);
i1 =
2 * (params::degree / 16) * twid_id + (tid & (params::degree / 16 - 1));
i2 = i1 + params::degree / 16;
w = negtwiddles[twid_id + 8];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
// level 3
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 8);
i1 = 2 * (params::degree / 8) * twid_id + (tid & (params::degree / 8 - 1));
i2 = i1 + params::degree / 8;
w = negtwiddles[twid_id + 4];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
// level 2
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 4);
i1 = 2 * (params::degree / 4) * twid_id + (tid & (params::degree / 4 - 1));
i2 = i1 + params::degree / 4;
w = negtwiddles[twid_id + 2];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
// level 1
tid = threadIdx.x;
#pragma unroll
for (size_t i = 0; i < params::opt / 2; ++i) {
twid_id = tid / (params::degree / 2);
i1 = 2 * (params::degree / 2) * twid_id + (tid & (params::degree / 2 - 1));
i2 = i1 + params::degree / 2;
w = negtwiddles[twid_id + 1];
u = A[i1] - A[i2];
A[i1] += A[i2];
A[i2] = u * conjugate(w);
tid += params::degree / params::opt;
}
__syncthreads();
}
/*
* global batch fft
* does fft in half size
* unrolling half size fft result in half size + 1 elements
* this function must be called with actual degree
* function takes as input already compressed input
*/
template <class params, sharedMemDegree SMD>
__global__ void batch_NSMFFT(double2 *d_input, double2 *d_output,
double2 *buffer) {
extern __shared__ double2 sharedMemoryFFT[];
double2 *fft = (SMD == NOSM) ? &buffer[blockIdx.x * params::degree / 2]
: sharedMemoryFFT;
int tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
fft[tid] = d_input[blockIdx.x * (params::degree / 2) + tid];
tid = tid + params::degree / params::opt;
}
__syncthreads();
NSMFFT_direct<HalfDegree<params>>(fft);
__syncthreads();
tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
d_output[blockIdx.x * (params::degree / 2) + tid] = fft[tid];
tid = tid + params::degree / params::opt;
}
}
/*
* global batch polynomial multiplication
* only used for fft tests
* d_input1 and d_output must not have the same pointer
* d_input1 can be modified inside the function
*/
template <class params, sharedMemDegree SMD>
__global__ void batch_polynomial_mul(double2 *d_input1, double2 *d_input2,
double2 *d_output, double2 *buffer) {
extern __shared__ double2 sharedMemoryFFT[];
double2 *fft = (SMD == NOSM) ? &buffer[blockIdx.x * params::degree / 2]
: sharedMemoryFFT;
// Move first polynomial into shared memory(if possible otherwise it will
// be moved in device buffer)
int tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
fft[tid] = d_input1[blockIdx.x * (params::degree / 2) + tid];
tid = tid + params::degree / params::opt;
}
// Perform direct negacyclic fourier transform
__syncthreads();
NSMFFT_direct<HalfDegree<params>>(fft);
__syncthreads();
// Put the result of direct fft inside input1
tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
d_input1[blockIdx.x * (params::degree / 2) + tid] = fft[tid];
tid = tid + params::degree / params::opt;
}
__syncthreads();
// Move first polynomial into shared memory(if possible otherwise it will
// be moved in device buffer)
tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
fft[tid] = d_input2[blockIdx.x * (params::degree / 2) + tid];
tid = tid + params::degree / params::opt;
}
// Perform direct negacyclic fourier transform on the second polynomial
__syncthreads();
NSMFFT_direct<HalfDegree<params>>(fft);
__syncthreads();
// calculate pointwise multiplication inside fft buffer
tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
fft[tid] *= d_input1[blockIdx.x * (params::degree / 2) + tid];
tid = tid + params::degree / params::opt;
}
// Perform backward negacyclic fourier transform
__syncthreads();
NSMFFT_inverse<HalfDegree<params>>(fft);
__syncthreads();
// copy results in output buffer
tid = threadIdx.x;
#pragma unroll
for (int i = 0; i < params::opt / 2; i++) {
d_output[blockIdx.x * (params::degree / 2) + tid] = fft[tid];
tid = tid + params::degree / params::opt;
}
}
#endif // GPU_BOOTSTRAP_FFT_CUH

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@@ -1,13 +0,0 @@
#ifndef GPU_BOOTSTRAP_TWIDDLES_CUH
#define GPU_BOOTSTRAP_TWIDDLES_CUH
/*
* 'negtwiddles' are stored in constant memory for faster access times
* because of it's limitied size, only twiddles for up to 2^12 polynomial size
* can be stored there, twiddles for 2^13 are stored in device memory
* 'negtwiddles13'
*/
extern __constant__ double2 negtwiddles[4096];
extern __device__ double2 negtwiddles13[4096];
#endif

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@@ -1,51 +0,0 @@
#include "integer/bitwise_ops.cuh"
void scratch_cuda_integer_radix_bitop_kb_64(
cuda_stream_t *stream, int8_t **mem_ptr, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t big_lwe_dimension,
uint32_t small_lwe_dimension, uint32_t ks_level, uint32_t ks_base_log,
uint32_t pbs_level, uint32_t pbs_base_log, uint32_t grouping_factor,
uint32_t lwe_ciphertext_count, uint32_t message_modulus,
uint32_t carry_modulus, PBS_TYPE pbs_type, BITOP_TYPE op_type,
bool allocate_gpu_memory) {
int_radix_params params(pbs_type, glwe_dimension, polynomial_size,
big_lwe_dimension, small_lwe_dimension, ks_level,
ks_base_log, pbs_level, pbs_base_log, grouping_factor,
message_modulus, carry_modulus);
scratch_cuda_integer_radix_bitop_kb<uint64_t>(
stream, (int_bitop_buffer<uint64_t> **)mem_ptr, lwe_ciphertext_count,
params, op_type, allocate_gpu_memory);
}
void cuda_bitop_integer_radix_ciphertext_kb_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_1,
void *lwe_array_2, int8_t *mem_ptr, void *bsk, void *ksk,
uint32_t lwe_ciphertext_count) {
host_integer_radix_bitop_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_1),
static_cast<uint64_t *>(lwe_array_2),
(int_bitop_buffer<uint64_t> *)mem_ptr, bsk, static_cast<uint64_t *>(ksk),
lwe_ciphertext_count);
}
void cuda_bitnot_integer_radix_ciphertext_kb_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_in,
int8_t *mem_ptr, void *bsk, void *ksk, uint32_t lwe_ciphertext_count) {
host_integer_radix_bitnot_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_in),
(int_bitop_buffer<uint64_t> *)mem_ptr, bsk, static_cast<uint64_t *>(ksk),
lwe_ciphertext_count);
}
void cleanup_cuda_integer_bitop(cuda_stream_t *stream, int8_t **mem_ptr_void) {
int_bitop_buffer<uint64_t> *mem_ptr =
(int_bitop_buffer<uint64_t> *)(*mem_ptr_void);
mem_ptr->release(stream);
}

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@@ -1,51 +0,0 @@
#ifndef CUDA_INTEGER_BITWISE_OPS_CUH
#define CUDA_INTEGER_BITWISE_OPS_CUH
#include "crypto/keyswitch.cuh"
#include "device.h"
#include "integer.cuh"
#include "integer.h"
#include "pbs/bootstrap_low_latency.cuh"
#include "pbs/bootstrap_multibit.cuh"
#include "polynomial/functions.cuh"
#include "utils/kernel_dimensions.cuh"
#include <omp.h>
template <typename Torus>
__host__ void
host_integer_radix_bitop_kb(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_1, Torus *lwe_array_2,
int_bitop_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto lut = mem_ptr->lut;
integer_radix_apply_bivariate_lookup_table_kb<Torus>(
stream, lwe_array_out, lwe_array_1, lwe_array_2, bsk, ksk,
num_radix_blocks, lut);
}
template <typename Torus>
__host__ void
host_integer_radix_bitnot_kb(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_in,
int_bitop_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto lut = mem_ptr->lut;
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array_out, lwe_array_in, bsk, ksk, num_radix_blocks, lut);
}
template <typename Torus>
__host__ void scratch_cuda_integer_radix_bitop_kb(
cuda_stream_t *stream, int_bitop_buffer<Torus> **mem_ptr,
uint32_t num_radix_blocks, int_radix_params params, BITOP_TYPE op,
bool allocate_gpu_memory) {
*mem_ptr = new int_bitop_buffer<Torus>(stream, op, params, num_radix_blocks,
allocate_gpu_memory);
}
#endif

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@@ -1,45 +0,0 @@
#include "integer/cmux.cuh"
void scratch_cuda_integer_radix_cmux_kb_64(
cuda_stream_t *stream, int8_t **mem_ptr, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t big_lwe_dimension,
uint32_t small_lwe_dimension, uint32_t ks_level, uint32_t ks_base_log,
uint32_t pbs_level, uint32_t pbs_base_log, uint32_t grouping_factor,
uint32_t lwe_ciphertext_count, uint32_t message_modulus,
uint32_t carry_modulus, PBS_TYPE pbs_type, bool allocate_gpu_memory) {
int_radix_params params(pbs_type, glwe_dimension, polynomial_size,
big_lwe_dimension, small_lwe_dimension, ks_level,
ks_base_log, pbs_level, pbs_base_log, grouping_factor,
message_modulus, carry_modulus);
std::function<uint64_t(uint64_t)> predicate_lut_f =
[](uint64_t x) -> uint64_t { return x == 1; };
scratch_cuda_integer_radix_cmux_kb(
stream, (int_cmux_buffer<uint64_t> **)mem_ptr, predicate_lut_f,
lwe_ciphertext_count, params, allocate_gpu_memory);
}
void cuda_cmux_integer_radix_ciphertext_kb_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_condition,
void *lwe_array_true, void *lwe_array_false, int8_t *mem_ptr, void *bsk,
void *ksk, uint32_t lwe_ciphertext_count) {
host_integer_radix_cmux_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_condition),
static_cast<uint64_t *>(lwe_array_true),
static_cast<uint64_t *>(lwe_array_false),
(int_cmux_buffer<uint64_t> *)mem_ptr, bsk, static_cast<uint64_t *>(ksk),
lwe_ciphertext_count);
}
void cleanup_cuda_integer_radix_cmux(cuda_stream_t *stream,
int8_t **mem_ptr_void) {
int_cmux_buffer<uint64_t> *mem_ptr =
(int_cmux_buffer<uint64_t> *)(*mem_ptr_void);
mem_ptr->release(stream);
}

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@@ -1,100 +0,0 @@
#ifndef CUDA_INTEGER_CMUX_CUH
#define CUDA_INTEGER_CMUX_CUH
#include "integer.cuh"
#include <omp.h>
template <typename Torus>
__host__ void zero_out_if(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_input, Torus *lwe_condition,
int_zero_out_if_buffer<Torus> *mem_ptr,
int_radix_lut<Torus> *predicate, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto params = mem_ptr->params;
int big_lwe_size = params.big_lwe_dimension + 1;
// Left message is shifted
int num_blocks = 0, num_threads = 0;
int num_entries = (params.big_lwe_dimension + 1);
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
// We can't use integer_radix_apply_bivariate_lookup_table_kb since the
// second operand is fixed
auto tmp_lwe_array_input = mem_ptr->tmp;
for (int i = 0; i < num_radix_blocks; i++) {
auto lwe_array_out_block = tmp_lwe_array_input + i * big_lwe_size;
auto lwe_array_input_block = lwe_array_input + i * big_lwe_size;
device_pack_bivariate_blocks<<<num_blocks, num_threads, 0,
stream->stream>>>(
lwe_array_out_block, lwe_array_input_block, lwe_condition,
predicate->lwe_indexes, params.big_lwe_dimension,
params.message_modulus, 1);
check_cuda_error(cudaGetLastError());
}
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array_out, tmp_lwe_array_input, bsk, ksk, num_radix_blocks,
predicate);
}
template <typename Torus>
__host__ void
host_integer_radix_cmux_kb(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_condition, Torus *lwe_array_true,
Torus *lwe_array_false,
int_cmux_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto params = mem_ptr->params;
// Since our CPU threads will be working on different streams we shall assert
// the work in the main stream is completed
stream->synchronize();
auto true_stream = mem_ptr->zero_if_true_buffer->local_stream;
auto false_stream = mem_ptr->zero_if_false_buffer->local_stream;
#pragma omp parallel sections
{
// Both sections may be executed in parallel
#pragma omp section
{
auto mem_true = mem_ptr->zero_if_true_buffer;
zero_out_if(true_stream, mem_ptr->tmp_true_ct, lwe_array_true,
lwe_condition, mem_true, mem_ptr->inverted_predicate_lut, bsk,
ksk, num_radix_blocks);
}
#pragma omp section
{
auto mem_false = mem_ptr->zero_if_false_buffer;
zero_out_if(false_stream, mem_ptr->tmp_false_ct, lwe_array_false,
lwe_condition, mem_false, mem_ptr->predicate_lut, bsk, ksk,
num_radix_blocks);
}
}
cuda_synchronize_stream(true_stream);
cuda_synchronize_stream(false_stream);
// If the condition was true, true_ct will have kept its value and false_ct
// will be 0 If the condition was false, true_ct will be 0 and false_ct will
// have kept its value
auto added_cts = mem_ptr->tmp_true_ct;
host_addition(stream, added_cts, mem_ptr->tmp_true_ct, mem_ptr->tmp_false_ct,
params.big_lwe_dimension, num_radix_blocks);
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array_out, added_cts, bsk, ksk, num_radix_blocks,
mem_ptr->message_extract_lut);
}
template <typename Torus>
__host__ void scratch_cuda_integer_radix_cmux_kb(
cuda_stream_t *stream, int_cmux_buffer<Torus> **mem_ptr,
std::function<Torus(Torus)> predicate_lut_f, uint32_t num_radix_blocks,
int_radix_params params, bool allocate_gpu_memory) {
*mem_ptr = new int_cmux_buffer<Torus>(stream, predicate_lut_f, params,
num_radix_blocks, allocate_gpu_memory);
}
#endif

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@@ -1,83 +0,0 @@
#include "integer/comparison.cuh"
void scratch_cuda_integer_radix_comparison_kb_64(
cuda_stream_t *stream, int8_t **mem_ptr, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t big_lwe_dimension,
uint32_t small_lwe_dimension, uint32_t ks_level, uint32_t ks_base_log,
uint32_t pbs_level, uint32_t pbs_base_log, uint32_t grouping_factor,
uint32_t lwe_ciphertext_count, uint32_t message_modulus,
uint32_t carry_modulus, PBS_TYPE pbs_type, COMPARISON_TYPE op_type,
bool allocate_gpu_memory) {
int_radix_params params(pbs_type, glwe_dimension, polynomial_size,
big_lwe_dimension, small_lwe_dimension, ks_level,
ks_base_log, pbs_level, pbs_base_log, grouping_factor,
message_modulus, carry_modulus);
switch (op_type) {
case EQ:
case NE:
scratch_cuda_integer_radix_equality_check_kb<uint64_t>(
stream, (int_comparison_buffer<uint64_t> **)mem_ptr,
lwe_ciphertext_count, params, op_type, allocate_gpu_memory);
break;
case GT:
case GE:
case LT:
case LE:
case MAX:
case MIN:
scratch_cuda_integer_radix_difference_check_kb<uint64_t>(
stream, (int_comparison_buffer<uint64_t> **)mem_ptr,
lwe_ciphertext_count, params, op_type, allocate_gpu_memory);
break;
}
}
void cuda_comparison_integer_radix_ciphertext_kb_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_1,
void *lwe_array_2, int8_t *mem_ptr, void *bsk, void *ksk,
uint32_t lwe_ciphertext_count) {
int_comparison_buffer<uint64_t> *buffer =
(int_comparison_buffer<uint64_t> *)mem_ptr;
switch (buffer->op) {
case EQ:
case NE:
host_integer_radix_equality_check_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_1),
static_cast<uint64_t *>(lwe_array_2), buffer, bsk,
static_cast<uint64_t *>(ksk), lwe_ciphertext_count);
break;
case GT:
case GE:
case LT:
case LE:
host_integer_radix_difference_check_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_1),
static_cast<uint64_t *>(lwe_array_2), buffer,
buffer->diff_buffer->operator_f, bsk, static_cast<uint64_t *>(ksk),
lwe_ciphertext_count);
break;
case MAX:
case MIN:
host_integer_radix_maxmin_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_1),
static_cast<uint64_t *>(lwe_array_2), buffer, bsk,
static_cast<uint64_t *>(ksk), lwe_ciphertext_count);
break;
default:
PANIC("Cuda error: integer operation not supported");
}
}
void cleanup_cuda_integer_comparison(cuda_stream_t *stream,
int8_t **mem_ptr_void) {
int_comparison_buffer<uint64_t> *mem_ptr =
(int_comparison_buffer<uint64_t> *)(*mem_ptr_void);
mem_ptr->release(stream);
}

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@@ -1,527 +0,0 @@
#ifndef CUDA_INTEGER_COMPARISON_OPS_CUH
#define CUDA_INTEGER_COMPARISON_OPS_CUH
#include "crypto/keyswitch.cuh"
#include "device.h"
#include "integer.cuh"
#include "integer.h"
#include "integer/cmux.cuh"
#include "integer/negation.cuh"
#include "integer/scalar_addition.cuh"
#include "pbs/bootstrap_low_latency.cuh"
#include "pbs/bootstrap_multibit.cuh"
#include "types/complex/operations.cuh"
#include "utils/kernel_dimensions.cuh"
// lwe_dimension + 1 threads
// todo: This kernel MUST be refactored to a binary reduction
template <typename Torus>
__global__ void device_accumulate_all_blocks(Torus *output, Torus *input_block,
uint32_t lwe_dimension,
uint32_t num_blocks) {
int idx = threadIdx.x + blockIdx.x * blockDim.x;
if (idx < lwe_dimension + 1) {
auto block = &input_block[idx];
Torus sum = block[0];
for (int i = 1; i < num_blocks; i++) {
sum += block[i * (lwe_dimension + 1)];
}
output[idx] = sum;
}
}
template <typename Torus>
__host__ void accumulate_all_blocks(cuda_stream_t *stream, Torus *output,
Torus *input, uint32_t lwe_dimension,
uint32_t num_radix_blocks) {
int num_blocks = 0, num_threads = 0;
int num_entries = (lwe_dimension + 1);
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
// Add all blocks and store in sum
device_accumulate_all_blocks<<<num_blocks, num_threads, 0, stream->stream>>>(
output, input, lwe_dimension, num_radix_blocks);
check_cuda_error(cudaGetLastError());
}
/* This takes an array of lwe ciphertexts, where each is an encryption of
* either 0 or 1.
*
* It writes in lwe_array_out a single lwe ciphertext encrypting 1 if all input
* blocks are 1 otherwise the block encrypts 0
*
*/
template <typename Torus>
__host__ void
are_all_comparisons_block_true(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_in,
int_comparison_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto glwe_dimension = params.glwe_dimension;
auto polynomial_size = params.polynomial_size;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
auto are_all_block_true_buffer =
mem_ptr->eq_buffer->are_all_block_true_buffer;
uint32_t total_modulus = message_modulus * carry_modulus;
uint32_t max_value = total_modulus - 1;
cuda_memcpy_async_gpu_to_gpu(
lwe_array_out, lwe_array_in,
num_radix_blocks * (big_lwe_dimension + 1) * sizeof(Torus), stream);
int lut_num_blocks = 0;
uint32_t remaining_blocks = num_radix_blocks;
while (remaining_blocks > 1) {
// Split in max_value chunks
uint32_t chunk_length = std::min(max_value, remaining_blocks);
int num_chunks = remaining_blocks / chunk_length;
// Since all blocks encrypt either 0 or 1, we can sum max_value of them
// as in the worst case we will be adding `max_value` ones
auto input_blocks = lwe_array_out;
auto accumulator = are_all_block_true_buffer->tmp_block_accumulated;
for (int i = 0; i < num_chunks; i++) {
accumulate_all_blocks(stream, accumulator, input_blocks,
big_lwe_dimension, chunk_length);
accumulator += (big_lwe_dimension + 1);
remaining_blocks -= (chunk_length - 1);
input_blocks += (big_lwe_dimension + 1) * chunk_length;
}
accumulator = are_all_block_true_buffer->tmp_block_accumulated;
// Selects a LUT
int_radix_lut<Torus> *lut;
if (are_all_block_true_buffer->op == COMPARISON_TYPE::NE) {
// is_non_zero_lut_buffer LUT
lut = mem_ptr->eq_buffer->is_non_zero_lut;
} else if (chunk_length == max_value) {
// is_max_value LUT
lut = are_all_block_true_buffer->is_max_value_lut;
} else {
// is_equal_to_num_blocks LUT
lut = are_all_block_true_buffer->is_equal_to_num_blocks_lut;
if (chunk_length != lut_num_blocks) {
auto is_equal_to_num_blocks_lut_f = [max_value,
chunk_length](Torus x) -> Torus {
return (x & max_value) == chunk_length;
};
generate_device_accumulator<Torus>(
stream, lut->lut, glwe_dimension, polynomial_size, message_modulus,
carry_modulus, is_equal_to_num_blocks_lut_f);
// We don't have to generate this lut again
lut_num_blocks = chunk_length;
}
}
// Applies the LUT
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array_out, accumulator, bsk, ksk, num_chunks, lut);
}
}
/* This takes an array of lwe ciphertexts, where each is an encryption of
* either 0 or 1.
*
* It writes in lwe_array_out a single lwe ciphertext encrypting 1 if at least
* one input ciphertext encrypts 1 otherwise encrypts 0
*/
template <typename Torus>
__host__ void is_at_least_one_comparisons_block_true(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_in,
int_comparison_buffer<Torus> *mem_ptr, void *bsk, Torus *ksk,
uint32_t num_radix_blocks) {
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
auto buffer = mem_ptr->eq_buffer->are_all_block_true_buffer;
uint32_t total_modulus = message_modulus * carry_modulus;
uint32_t max_value = total_modulus - 1;
cuda_memcpy_async_gpu_to_gpu(
lwe_array_out, lwe_array_in,
num_radix_blocks * (big_lwe_dimension + 1) * sizeof(Torus), stream);
uint32_t remaining_blocks = num_radix_blocks;
while (remaining_blocks > 1) {
// Split in max_value chunks
uint32_t chunk_length = std::min(max_value, remaining_blocks);
int num_chunks = remaining_blocks / chunk_length;
// Since all blocks encrypt either 0 or 1, we can sum max_value of them
// as in the worst case we will be adding `max_value` ones
auto input_blocks = lwe_array_out;
auto accumulator = buffer->tmp_block_accumulated;
for (int i = 0; i < num_chunks; i++) {
accumulate_all_blocks(stream, accumulator, input_blocks,
big_lwe_dimension, chunk_length);
accumulator += (big_lwe_dimension + 1);
remaining_blocks -= (chunk_length - 1);
input_blocks += (big_lwe_dimension + 1) * chunk_length;
}
accumulator = buffer->tmp_block_accumulated;
// Selects a LUT
int_radix_lut<Torus> *lut = mem_ptr->eq_buffer->is_non_zero_lut;
// Applies the LUT
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array_out, accumulator, bsk, ksk, num_chunks, lut);
}
}
// This takes an input slice of blocks.
//
// Each block can encrypt any value as long as its < message_modulus.
//
// It will compare blocks with 0, for either equality or difference.
//
// This returns a Vec of block, where each block encrypts 1 or 0
// depending of if all blocks matched with the comparison type with 0.
//
// E.g. For ZeroComparisonType::Equality, if all input blocks are zero
// than all returned block will encrypt 1
//
// The returned Vec will have less block than the number of input blocks.
// The returned blocks potentially needs to be 'reduced' to one block
// with eg are_all_comparisons_block_true.
//
// This function exists because sometimes it is faster to concatenate
// multiple vec of 'boolean' shortint block before reducing them with
// are_all_comparisons_block_true
template <typename Torus>
__host__ void host_compare_with_zero_equality(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_in,
int_comparison_buffer<Torus> *mem_ptr, void *bsk, Torus *ksk,
int32_t num_radix_blocks, int_radix_lut<Torus> *zero_comparison) {
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
// The idea is that we will sum chunks of blocks until carries are full
// then we compare the sum with 0.
//
// If all blocks were 0, the sum will be zero
// If at least one bock was not zero, the sum won't be zero
uint32_t total_modulus = message_modulus * carry_modulus;
uint32_t message_max = message_modulus - 1;
uint32_t num_elements_to_fill_carry = (total_modulus - 1) / message_max;
size_t big_lwe_size = big_lwe_dimension + 1;
size_t big_lwe_size_bytes = big_lwe_size * sizeof(Torus);
int num_sum_blocks = 0;
// Accumulator
auto sum = lwe_array_out;
if (num_radix_blocks == 1) {
// Just copy
cuda_memcpy_async_gpu_to_gpu(sum, lwe_array_in, big_lwe_size_bytes, stream);
num_sum_blocks = 1;
} else {
uint32_t remainder_blocks = num_radix_blocks;
auto sum_i = sum;
auto chunk = lwe_array_in;
while (remainder_blocks > 1) {
uint32_t chunk_size =
std::min(remainder_blocks, num_elements_to_fill_carry);
accumulate_all_blocks(stream, sum_i, chunk, big_lwe_dimension,
chunk_size);
num_sum_blocks++;
remainder_blocks -= (chunk_size - 1);
// Update operands
chunk += chunk_size * big_lwe_size;
sum_i += big_lwe_size;
}
}
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, sum, sum, bsk, ksk, num_sum_blocks, zero_comparison);
are_all_comparisons_block_true(stream, lwe_array_out, sum, mem_ptr, bsk, ksk,
num_sum_blocks);
// The result will be in the two first block. Everything else is
// garbage.
cuda_memset_async(lwe_array_out + big_lwe_size, 0,
big_lwe_size_bytes * (num_radix_blocks - 1), stream);
}
template <typename Torus>
__host__ void host_integer_radix_equality_check_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_1,
Torus *lwe_array_2, int_comparison_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto eq_buffer = mem_ptr->eq_buffer;
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
// Applies the LUT for the comparison operation
auto comparisons = mem_ptr->tmp_block_comparisons;
integer_radix_apply_bivariate_lookup_table_kb(
stream, comparisons, lwe_array_1, lwe_array_2, bsk, ksk, num_radix_blocks,
eq_buffer->operator_lut);
// This takes a Vec of blocks, where each block is either 0 or 1.
//
// It return a block encrypting 1 if all input blocks are 1
// otherwise the block encrypts 0
are_all_comparisons_block_true(stream, lwe_array_out, comparisons, mem_ptr,
bsk, ksk, num_radix_blocks);
// Zero all blocks but the first
size_t big_lwe_size = big_lwe_dimension + 1;
size_t big_lwe_size_bytes = big_lwe_size * sizeof(Torus);
cuda_memset_async(lwe_array_out + big_lwe_size, 0,
big_lwe_size_bytes * (num_radix_blocks - 1), stream);
}
template <typename Torus>
__host__ void scratch_cuda_integer_radix_equality_check_kb(
cuda_stream_t *stream, int_comparison_buffer<Torus> **mem_ptr,
uint32_t num_radix_blocks, int_radix_params params, COMPARISON_TYPE op,
bool allocate_gpu_memory) {
*mem_ptr = new int_comparison_buffer<Torus>(
stream, op, params, num_radix_blocks, allocate_gpu_memory);
}
template <typename Torus>
__host__ void
compare_radix_blocks_kb(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_left, Torus *lwe_array_right,
int_comparison_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
// When rhs > lhs, the subtraction will overflow, and the bit of padding will
// be set to 1
// meaning that the output of the pbs will be the negative (modulo message
// space)
//
// Example:
// lhs: 1, rhs: 3, message modulus: 4, carry modulus 4
// lhs - rhs = -2 % (4 * 4) = 14 = 1|1110 (padding_bit|b4b3b2b1)
// Since there was an overflow the bit of padding is 1 and not 0.
// When applying the LUT for an input value of 14 we would expect 1,
// but since the bit of padding is 1, we will get -1 modulus our message
// space, so (-1) % (4 * 4) = 15 = 1|1111 We then add one and get 0 = 0|0000
// Subtract
// Here we need the true lwe sub, not the one that comes from shortint.
host_subtraction(stream, lwe_array_out, lwe_array_left, lwe_array_right,
big_lwe_dimension, num_radix_blocks);
// Apply LUT to compare to 0
auto is_non_zero_lut = mem_ptr->eq_buffer->is_non_zero_lut;
integer_radix_apply_univariate_lookup_table_kb(
stream, lwe_array_out, lwe_array_out, bsk, ksk, num_radix_blocks,
is_non_zero_lut);
// Add one
// Here Lhs can have the following values: (-1) % (message modulus * carry
// modulus), 0, 1 So the output values after the addition will be: 0, 1, 2
host_integer_radix_add_scalar_one_inplace(stream, lwe_array_out,
big_lwe_dimension, num_radix_blocks,
message_modulus, carry_modulus);
}
// Reduces a vec containing shortint blocks that encrypts a sign
// (inferior, equal, superior) to one single shortint block containing the
// final sign
template <typename Torus>
__host__ void
tree_sign_reduction(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_block_comparisons,
int_tree_sign_reduction_buffer<Torus> *tree_buffer,
std::function<Torus(Torus)> sign_handler_f, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto params = tree_buffer->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto glwe_dimension = params.glwe_dimension;
auto polynomial_size = params.polynomial_size;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
// Tree reduction
// Reduces a vec containing shortint blocks that encrypts a sign
// (inferior, equal, superior) to one single shortint block containing the
// final sign
size_t big_lwe_size = big_lwe_dimension + 1;
size_t big_lwe_size_bytes = big_lwe_size * sizeof(Torus);
auto x = tree_buffer->tmp_x;
auto y = tree_buffer->tmp_y;
if (x != lwe_block_comparisons)
cuda_memcpy_async_gpu_to_gpu(x, lwe_block_comparisons,
big_lwe_size_bytes * num_radix_blocks, stream);
uint32_t partial_block_count = num_radix_blocks;
auto inner_tree_leaf = tree_buffer->tree_inner_leaf_lut;
while (partial_block_count > 2) {
pack_blocks(stream, y, x, big_lwe_dimension, partial_block_count, 4);
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, x, y, bsk, ksk, partial_block_count >> 1, inner_tree_leaf);
if ((partial_block_count % 2) != 0) {
partial_block_count >>= 1;
partial_block_count++;
auto last_y_block = y + (partial_block_count - 1) * big_lwe_size;
auto last_x_block = x + (partial_block_count - 1) * big_lwe_size;
cuda_memcpy_async_gpu_to_gpu(last_x_block, last_y_block,
big_lwe_size_bytes, stream);
} else {
partial_block_count >>= 1;
}
}
auto last_lut = tree_buffer->tree_last_leaf_lut;
auto block_selector_f = tree_buffer->block_selector_f;
std::function<Torus(Torus)> f;
if (partial_block_count == 2) {
pack_blocks(stream, y, x, big_lwe_dimension, partial_block_count, 4);
f = [block_selector_f, sign_handler_f](Torus x) -> Torus {
int msb = (x >> 2) & 3;
int lsb = x & 3;
int final_sign = block_selector_f(msb, lsb);
return sign_handler_f(final_sign);
};
} else {
// partial_block_count == 1
y = x;
f = sign_handler_f;
}
generate_device_accumulator<Torus>(stream, last_lut->lut, glwe_dimension,
polynomial_size, message_modulus,
carry_modulus, f);
// Last leaf
integer_radix_apply_univariate_lookup_table_kb(stream, lwe_array_out, y, bsk,
ksk, 1, last_lut);
}
template <typename Torus>
__host__ void host_integer_radix_difference_check_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_left,
Torus *lwe_array_right, int_comparison_buffer<Torus> *mem_ptr,
std::function<Torus(Torus)> reduction_lut_f, void *bsk, Torus *ksk,
uint32_t total_num_radix_blocks) {
auto diff_buffer = mem_ptr->diff_buffer;
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
uint32_t num_radix_blocks = total_num_radix_blocks;
auto lhs = lwe_array_left;
auto rhs = lwe_array_right;
if (carry_modulus == message_modulus) {
// Packing is possible
// Pack inputs
Torus *packed_left = diff_buffer->tmp_packed_left;
Torus *packed_right = diff_buffer->tmp_packed_right;
pack_blocks(stream, packed_left, lwe_array_left, big_lwe_dimension,
num_radix_blocks, message_modulus);
pack_blocks(stream, packed_right, lwe_array_right, big_lwe_dimension,
num_radix_blocks, message_modulus);
// From this point we have half number of blocks
num_radix_blocks /= 2;
// Clean noise
auto cleaning_lut = mem_ptr->cleaning_lut;
integer_radix_apply_univariate_lookup_table_kb(
stream, packed_left, packed_left, bsk, ksk, num_radix_blocks,
cleaning_lut);
integer_radix_apply_univariate_lookup_table_kb(
stream, packed_right, packed_right, bsk, ksk, num_radix_blocks,
cleaning_lut);
lhs = packed_left;
rhs = packed_right;
}
// comparisons will be assigned
// - 0 if lhs < rhs
// - 1 if lhs == rhs
// - 2 if lhs > rhs
auto comparisons = mem_ptr->tmp_block_comparisons;
compare_radix_blocks_kb(stream, comparisons, lhs, rhs, mem_ptr, bsk, ksk,
num_radix_blocks);
// Reduces a vec containing radix blocks that encrypts a sign
// (inferior, equal, superior) to one single radix block containing the
// final sign
tree_sign_reduction(stream, lwe_array_out, comparisons,
mem_ptr->diff_buffer->tree_buffer, reduction_lut_f, bsk,
ksk, num_radix_blocks);
// The result will be in the first block. Everything else is garbage.
size_t big_lwe_size = big_lwe_dimension + 1;
size_t big_lwe_size_bytes = big_lwe_size * sizeof(Torus);
cuda_memset_async(lwe_array_out + big_lwe_size, 0,
(total_num_radix_blocks - 1) * big_lwe_size_bytes, stream);
}
template <typename Torus>
__host__ void scratch_cuda_integer_radix_difference_check_kb(
cuda_stream_t *stream, int_comparison_buffer<Torus> **mem_ptr,
uint32_t num_radix_blocks, int_radix_params params, COMPARISON_TYPE op,
bool allocate_gpu_memory) {
*mem_ptr = new int_comparison_buffer<Torus>(
stream, op, params, num_radix_blocks, allocate_gpu_memory);
}
template <typename Torus>
__host__ void
host_integer_radix_maxmin_kb(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_left, Torus *lwe_array_right,
int_comparison_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t total_num_radix_blocks) {
// Compute the sign
host_integer_radix_difference_check_kb(
stream, mem_ptr->tmp_lwe_array_out, lwe_array_left, lwe_array_right,
mem_ptr, mem_ptr->cleaning_lut_f, bsk, ksk, total_num_radix_blocks);
// Selector
host_integer_radix_cmux_kb(
stream, lwe_array_out, mem_ptr->tmp_lwe_array_out, lwe_array_left,
lwe_array_right, mem_ptr->cmux_buffer, bsk, ksk, total_num_radix_blocks);
}
#endif

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@@ -1,127 +0,0 @@
#include "integer/integer.cuh"
#include <linear_algebra.h>
void cuda_full_propagation_64_inplace(
cuda_stream_t *stream, void *input_blocks, int8_t *mem_ptr, void *ksk,
void *bsk, uint32_t lwe_dimension, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t ks_base_log, uint32_t ks_level,
uint32_t pbs_base_log, uint32_t pbs_level, uint32_t grouping_factor,
uint32_t num_blocks) {
switch (polynomial_size) {
case 256:
host_full_propagate_inplace<uint64_t, int64_t, AmortizedDegree<256>>(
stream, static_cast<uint64_t *>(input_blocks),
(int_fullprop_buffer<uint64_t> *)mem_ptr, static_cast<uint64_t *>(ksk),
bsk, lwe_dimension, glwe_dimension, polynomial_size, ks_base_log,
ks_level, pbs_base_log, pbs_level, grouping_factor, num_blocks);
break;
case 512:
host_full_propagate_inplace<uint64_t, int64_t, AmortizedDegree<512>>(
stream, static_cast<uint64_t *>(input_blocks),
(int_fullprop_buffer<uint64_t> *)mem_ptr, static_cast<uint64_t *>(ksk),
bsk, lwe_dimension, glwe_dimension, polynomial_size, ks_base_log,
ks_level, pbs_base_log, pbs_level, grouping_factor, num_blocks);
break;
case 1024:
host_full_propagate_inplace<uint64_t, int64_t, AmortizedDegree<1024>>(
stream, static_cast<uint64_t *>(input_blocks),
(int_fullprop_buffer<uint64_t> *)mem_ptr, static_cast<uint64_t *>(ksk),
bsk, lwe_dimension, glwe_dimension, polynomial_size, ks_base_log,
ks_level, pbs_base_log, pbs_level, grouping_factor, num_blocks);
break;
case 2048:
host_full_propagate_inplace<uint64_t, int64_t, AmortizedDegree<2048>>(
stream, static_cast<uint64_t *>(input_blocks),
(int_fullprop_buffer<uint64_t> *)mem_ptr, static_cast<uint64_t *>(ksk),
bsk, lwe_dimension, glwe_dimension, polynomial_size, ks_base_log,
ks_level, pbs_base_log, pbs_level, grouping_factor, num_blocks);
break;
case 4096:
host_full_propagate_inplace<uint64_t, int64_t, AmortizedDegree<4096>>(
stream, static_cast<uint64_t *>(input_blocks),
(int_fullprop_buffer<uint64_t> *)mem_ptr, static_cast<uint64_t *>(ksk),
bsk, lwe_dimension, glwe_dimension, polynomial_size, ks_base_log,
ks_level, pbs_base_log, pbs_level, grouping_factor, num_blocks);
break;
case 8192:
host_full_propagate_inplace<uint64_t, int64_t, AmortizedDegree<8192>>(
stream, static_cast<uint64_t *>(input_blocks),
(int_fullprop_buffer<uint64_t> *)mem_ptr, static_cast<uint64_t *>(ksk),
bsk, lwe_dimension, glwe_dimension, polynomial_size, ks_base_log,
ks_level, pbs_base_log, pbs_level, grouping_factor, num_blocks);
break;
case 16384:
host_full_propagate_inplace<uint64_t, int64_t, AmortizedDegree<16384>>(
stream, static_cast<uint64_t *>(input_blocks),
(int_fullprop_buffer<uint64_t> *)mem_ptr, static_cast<uint64_t *>(ksk),
bsk, lwe_dimension, glwe_dimension, polynomial_size, ks_base_log,
ks_level, pbs_base_log, pbs_level, grouping_factor, num_blocks);
break;
default:
break;
}
}
void scratch_cuda_full_propagation_64(
cuda_stream_t *stream, int8_t **mem_ptr, uint32_t lwe_dimension,
uint32_t glwe_dimension, uint32_t polynomial_size, uint32_t level_count,
uint32_t grouping_factor, uint32_t input_lwe_ciphertext_count,
uint32_t message_modulus, uint32_t carry_modulus, PBS_TYPE pbs_type,
bool allocate_gpu_memory) {
scratch_cuda_full_propagation<uint64_t>(
stream, (int_fullprop_buffer<uint64_t> **)mem_ptr, lwe_dimension,
glwe_dimension, polynomial_size, level_count, grouping_factor,
input_lwe_ciphertext_count, message_modulus, carry_modulus, pbs_type,
allocate_gpu_memory);
}
void cleanup_cuda_full_propagation(cuda_stream_t *stream,
int8_t **mem_ptr_void) {
int_fullprop_buffer<uint64_t> *mem_ptr =
(int_fullprop_buffer<uint64_t> *)(*mem_ptr_void);
cuda_drop_async(mem_ptr->lut_buffer, stream);
cuda_drop_async(mem_ptr->lut_indexes, stream);
cuda_drop_async(mem_ptr->pbs_buffer, stream);
cuda_drop_async(mem_ptr->tmp_small_lwe_vector, stream);
cuda_drop_async(mem_ptr->tmp_big_lwe_vector, stream);
}
void scratch_cuda_propagate_single_carry_low_latency_kb_64_inplace(
cuda_stream_t *stream, int8_t **mem_ptr, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t big_lwe_dimension,
uint32_t small_lwe_dimension, uint32_t ks_level, uint32_t ks_base_log,
uint32_t pbs_level, uint32_t pbs_base_log, uint32_t grouping_factor,
uint32_t num_blocks, uint32_t message_modulus, uint32_t carry_modulus,
PBS_TYPE pbs_type, bool allocate_gpu_memory) {
int_radix_params params(pbs_type, glwe_dimension, polynomial_size,
big_lwe_dimension, small_lwe_dimension, ks_level,
ks_base_log, pbs_level, pbs_base_log, grouping_factor,
message_modulus, carry_modulus);
scratch_cuda_propagate_single_carry_low_latency_kb_inplace(
stream, (int_sc_prop_memory<uint64_t> **)mem_ptr, num_blocks, params,
allocate_gpu_memory);
}
void cuda_propagate_single_carry_low_latency_kb_64_inplace(
cuda_stream_t *stream, void *lwe_array, int8_t *mem_ptr, void *bsk,
void *ksk, uint32_t num_blocks) {
host_propagate_single_carry_low_latency<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array),
(int_sc_prop_memory<uint64_t> *)mem_ptr, bsk,
static_cast<uint64_t *>(ksk), num_blocks);
}
void cleanup_cuda_propagate_single_carry_low_latency(cuda_stream_t *stream,
int8_t **mem_ptr_void) {
int_sc_prop_memory<uint64_t> *mem_ptr =
(int_sc_prop_memory<uint64_t> *)(*mem_ptr_void);
mem_ptr->release(stream);
}

View File

@@ -1,584 +0,0 @@
#ifndef CUDA_INTEGER_CUH
#define CUDA_INTEGER_CUH
#include "bootstrap.h"
#include "crypto/keyswitch.cuh"
#include "device.h"
#include "integer.h"
#include "integer/scalar_addition.cuh"
#include "linear_algebra.h"
#include "linearalgebra/addition.cuh"
#include "polynomial/functions.cuh"
#include "utils/kernel_dimensions.cuh"
#include <functional>
// function rotates right radix ciphertext with specific value
// grid is one dimensional
// blockIdx.x represents x_th block of radix ciphertext
template <typename Torus>
__global__ void radix_blocks_rotate_right(Torus *dst, Torus *src,
uint32_t value, uint32_t blocks_count,
uint32_t lwe_size) {
value %= blocks_count;
size_t tid = threadIdx.x;
size_t src_block_id = blockIdx.x;
size_t dst_block_id = (src_block_id + value) % blocks_count;
size_t stride = blockDim.x;
auto cur_src_block = &src[src_block_id * lwe_size];
auto cur_dst_block = &dst[dst_block_id * lwe_size];
for (size_t i = tid; i < lwe_size; i += stride) {
cur_dst_block[i] = cur_src_block[i];
}
}
// function rotates left radix ciphertext with specific value
// grid is one dimensional
// blockIdx.x represents x_th block of radix ciphertext
template <typename Torus>
__global__ void radix_blocks_rotate_left(Torus *dst, Torus *src, uint32_t value,
uint32_t blocks_count,
uint32_t lwe_size) {
value %= blocks_count;
size_t src_block_id = blockIdx.x;
size_t tid = threadIdx.x;
size_t dst_block_id = (src_block_id >= value)
? src_block_id - value
: src_block_id - value + blocks_count;
size_t stride = blockDim.x;
auto cur_src_block = &src[src_block_id * lwe_size];
auto cur_dst_block = &dst[dst_block_id * lwe_size];
for (size_t i = tid; i < lwe_size; i += stride) {
cur_dst_block[i] = cur_src_block[i];
}
}
// polynomial_size threads
template <typename Torus>
__global__ void
device_pack_bivariate_blocks(Torus *lwe_array_out, Torus *lwe_array_1,
Torus *lwe_array_2, Torus *lwe_indexes,
uint32_t lwe_dimension, uint32_t message_modulus,
uint32_t num_blocks) {
int tid = threadIdx.x + blockIdx.x * blockDim.x;
if (tid < num_blocks * (lwe_dimension + 1)) {
int block_id = tid / (lwe_dimension + 1);
int coeff_id = tid % (lwe_dimension + 1);
int pos = lwe_indexes[block_id] * (lwe_dimension + 1) + coeff_id;
lwe_array_out[pos] = lwe_array_1[pos] * message_modulus + lwe_array_2[pos];
}
}
template <typename Torus>
__host__ void pack_bivariate_blocks(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_1, Torus *lwe_array_2,
Torus *lwe_indexes, uint32_t lwe_dimension,
uint32_t message_modulus,
uint32_t num_radix_blocks) {
// Left message is shifted
int num_blocks = 0, num_threads = 0;
int num_entries = num_radix_blocks * (lwe_dimension + 1);
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
device_pack_bivariate_blocks<<<num_blocks, num_threads, 0, stream->stream>>>(
lwe_array_out, lwe_array_1, lwe_array_2, lwe_indexes, lwe_dimension,
message_modulus, num_radix_blocks);
check_cuda_error(cudaGetLastError());
}
template <typename Torus>
__host__ void integer_radix_apply_univariate_lookup_table_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_in, void *bsk,
Torus *ksk, uint32_t num_radix_blocks, int_radix_lut<Torus> *lut) {
// apply_lookup_table
auto params = lut->params;
auto pbs_type = params.pbs_type;
auto big_lwe_dimension = params.big_lwe_dimension;
auto small_lwe_dimension = params.small_lwe_dimension;
auto ks_level = params.ks_level;
auto ks_base_log = params.ks_base_log;
auto pbs_level = params.pbs_level;
auto pbs_base_log = params.pbs_base_log;
auto glwe_dimension = params.glwe_dimension;
auto polynomial_size = params.polynomial_size;
auto grouping_factor = params.grouping_factor;
// Compute Keyswitch-PBS
cuda_keyswitch_lwe_ciphertext_vector(
stream, lut->tmp_lwe_after_ks, lut->lwe_indexes, lwe_array_in,
lut->lwe_indexes, ksk, big_lwe_dimension, small_lwe_dimension,
ks_base_log, ks_level, num_radix_blocks);
execute_pbs<Torus>(stream, lwe_array_out, lut->lwe_indexes, lut->lut,
lut->lut_indexes, lut->tmp_lwe_after_ks, lut->lwe_indexes,
bsk, lut->pbs_buffer, glwe_dimension, small_lwe_dimension,
polynomial_size, pbs_base_log, pbs_level, grouping_factor,
num_radix_blocks, 1, 0,
cuda_get_max_shared_memory(stream->gpu_index), pbs_type);
}
template <typename Torus>
__host__ void integer_radix_apply_bivariate_lookup_table_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_1,
Torus *lwe_array_2, void *bsk, Torus *ksk, uint32_t num_radix_blocks,
int_radix_lut<Torus> *lut) {
// apply_lookup_table_bivariate
auto params = lut->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto message_modulus = params.message_modulus;
// Left message is shifted
pack_bivariate_blocks(stream, lut->tmp_lwe_before_ks, lwe_array_1,
lwe_array_2, lut->lwe_indexes, big_lwe_dimension,
message_modulus, num_radix_blocks);
check_cuda_error(cudaGetLastError());
// Apply LUT
integer_radix_apply_univariate_lookup_table_kb(stream, lwe_array_out,
lut->tmp_lwe_before_ks, bsk,
ksk, num_radix_blocks, lut);
}
// Rotates the slice in-place such that the first mid elements of the slice move
// to the end while the last array_length elements move to the front. After
// calling rotate_left, the element previously at index mid will become the
// first element in the slice.
template <typename Torus>
void rotate_left(Torus *buffer, int mid, uint32_t array_length) {
mid = mid % array_length;
std::rotate(buffer, buffer + mid, buffer + array_length);
}
template <typename Torus>
void generate_lookup_table(Torus *acc, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t message_modulus,
uint32_t carry_modulus,
std::function<Torus(Torus)> f) {
uint32_t modulus_sup = message_modulus * carry_modulus;
uint32_t box_size = polynomial_size / modulus_sup;
Torus delta = (1ul << 63) / modulus_sup;
memset(acc, 0, glwe_dimension * polynomial_size * sizeof(Torus));
auto body = &acc[glwe_dimension * polynomial_size];
// This accumulator extracts the carry bits
for (int i = 0; i < modulus_sup; i++) {
int index = i * box_size;
for (int j = index; j < index + box_size; j++) {
auto f_eval = f(i);
body[j] = f_eval * delta;
}
}
int half_box_size = box_size / 2;
// Negate the first half_box_size coefficients
for (int i = 0; i < half_box_size; i++) {
body[i] = -body[i];
}
rotate_left(body, half_box_size, polynomial_size);
}
template <typename Torus>
void generate_lookup_table_bivariate(Torus *acc, uint32_t glwe_dimension,
uint32_t polynomial_size,
uint32_t message_modulus,
uint32_t carry_modulus,
std::function<Torus(Torus, Torus)> f) {
Torus factor_u64 = message_modulus;
auto wrapped_f = [factor_u64, message_modulus, f](Torus input) -> Torus {
Torus lhs = (input / factor_u64) % message_modulus;
Torus rhs = (input % factor_u64) % message_modulus;
return f(lhs, rhs);
};
generate_lookup_table<Torus>(acc, glwe_dimension, polynomial_size,
message_modulus, carry_modulus, wrapped_f);
}
/*
* generate bivariate accumulator for device pointer
* v_stream - cuda stream
* acc - device pointer for bivariate accumulator
* ...
* f - wrapping function with two Torus inputs
*/
template <typename Torus>
void generate_device_accumulator_bivariate(
cuda_stream_t *stream, Torus *acc_bivariate, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t message_modulus, uint32_t carry_modulus,
std::function<Torus(Torus, Torus)> f) {
// host lut
Torus *h_lut =
(Torus *)malloc((glwe_dimension + 1) * polynomial_size * sizeof(Torus));
// fill bivariate accumulator
generate_lookup_table_bivariate<Torus>(h_lut, glwe_dimension, polynomial_size,
message_modulus, carry_modulus, f);
// copy host lut and lut_indexes to device
cuda_memcpy_async_to_gpu(
acc_bivariate, h_lut,
(glwe_dimension + 1) * polynomial_size * sizeof(Torus), stream);
cuda_synchronize_stream(stream);
free(h_lut);
}
/*
* generate bivariate accumulator for device pointer
* v_stream - cuda stream
* acc - device pointer for accumulator
* ...
* f - evaluating function with one Torus input
*/
template <typename Torus>
void generate_device_accumulator(cuda_stream_t *stream, Torus *acc,
uint32_t glwe_dimension,
uint32_t polynomial_size,
uint32_t message_modulus,
uint32_t carry_modulus,
std::function<Torus(Torus)> f) {
// host lut
Torus *h_lut =
(Torus *)malloc((glwe_dimension + 1) * polynomial_size * sizeof(Torus));
// fill accumulator
generate_lookup_table<Torus>(h_lut, glwe_dimension, polynomial_size,
message_modulus, carry_modulus, f);
// copy host lut and lut_indexes to device
cuda_memcpy_async_to_gpu(
acc, h_lut, (glwe_dimension + 1) * polynomial_size * sizeof(Torus),
stream);
cuda_synchronize_stream(stream);
free(h_lut);
}
template <typename Torus>
void scratch_cuda_propagate_single_carry_low_latency_kb_inplace(
cuda_stream_t *stream, int_sc_prop_memory<Torus> **mem_ptr,
uint32_t num_radix_blocks, int_radix_params params,
bool allocate_gpu_memory) {
*mem_ptr = new int_sc_prop_memory<Torus>(stream, params, num_radix_blocks,
allocate_gpu_memory);
}
template <typename Torus>
void host_propagate_single_carry_low_latency(cuda_stream_t *stream,
Torus *lwe_array,
int_sc_prop_memory<Torus> *mem,
void *bsk, Torus *ksk,
uint32_t num_blocks) {
auto params = mem->params;
auto glwe_dimension = params.glwe_dimension;
auto polynomial_size = params.polynomial_size;
auto big_lwe_size = glwe_dimension * polynomial_size + 1;
auto big_lwe_size_bytes = big_lwe_size * sizeof(Torus);
auto generates_or_propagates = mem->generates_or_propagates;
auto step_output = mem->step_output;
auto luts_array = mem->luts_array;
auto luts_carry_propagation_sum = mem->luts_carry_propagation_sum;
auto message_acc = mem->message_acc;
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, generates_or_propagates, lwe_array, bsk, ksk, num_blocks,
luts_array);
// compute prefix sum with hillis&steele
int num_steps = ceil(log2((double)num_blocks));
int space = 1;
cuda_memcpy_async_gpu_to_gpu(step_output, generates_or_propagates,
big_lwe_size_bytes * num_blocks, stream);
for (int step = 0; step < num_steps; step++) {
auto cur_blocks = &step_output[space * big_lwe_size];
auto prev_blocks = generates_or_propagates;
int cur_total_blocks = num_blocks - space;
integer_radix_apply_bivariate_lookup_table_kb<Torus>(
stream, cur_blocks, cur_blocks, prev_blocks, bsk, ksk, cur_total_blocks,
luts_carry_propagation_sum);
cuda_memcpy_async_gpu_to_gpu(&generates_or_propagates[space * big_lwe_size],
cur_blocks,
big_lwe_size_bytes * cur_total_blocks, stream);
space *= 2;
}
radix_blocks_rotate_right<<<num_blocks, 256, 0, stream->stream>>>(
step_output, generates_or_propagates, 1, num_blocks, big_lwe_size);
cuda_memset_async(step_output, 0, big_lwe_size_bytes, stream);
host_addition(stream, lwe_array, lwe_array, step_output,
glwe_dimension * polynomial_size, num_blocks);
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array, lwe_array, bsk, ksk, num_blocks, message_acc);
}
/*
* input_blocks: input radix ciphertext propagation will happen inplace
* acc_message_carry: list of two lut s, [(message_acc), (carry_acc)]
* lut_indexes_message_carry: lut_indexes for message and carry, should always
* be {0, 1} small_lwe_vector: output of keyswitch should have size = 2 *
* (lwe_dimension + 1) * sizeof(Torus) big_lwe_vector: output of pbs should have
* size = 2 * (glwe_dimension * polynomial_size + 1) * sizeof(Torus)
*/
template <typename Torus, typename STorus, class params>
void host_full_propagate_inplace(cuda_stream_t *stream, Torus *input_blocks,
int_fullprop_buffer<Torus> *mem_ptr,
Torus *ksk, void *bsk, uint32_t lwe_dimension,
uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t ks_base_log,
uint32_t ks_level, uint32_t pbs_base_log,
uint32_t pbs_level, uint32_t grouping_factor,
uint32_t num_blocks) {
int big_lwe_size = (glwe_dimension * polynomial_size + 1);
int small_lwe_size = (lwe_dimension + 1);
for (int i = 0; i < num_blocks; i++) {
auto cur_input_block = &input_blocks[i * big_lwe_size];
cuda_keyswitch_lwe_ciphertext_vector<Torus>(
stream, mem_ptr->tmp_small_lwe_vector, mem_ptr->lwe_indexes,
cur_input_block, mem_ptr->lwe_indexes, ksk,
polynomial_size * glwe_dimension, lwe_dimension, ks_base_log, ks_level,
1);
cuda_memcpy_async_gpu_to_gpu(&mem_ptr->tmp_small_lwe_vector[small_lwe_size],
mem_ptr->tmp_small_lwe_vector,
small_lwe_size * sizeof(Torus), stream);
execute_pbs<Torus>(
stream, mem_ptr->tmp_big_lwe_vector, mem_ptr->lwe_indexes,
mem_ptr->lut_buffer, mem_ptr->lut_indexes,
mem_ptr->tmp_small_lwe_vector, mem_ptr->lwe_indexes, bsk,
mem_ptr->pbs_buffer, glwe_dimension, lwe_dimension, polynomial_size,
pbs_base_log, pbs_level, grouping_factor, 2, 2, 0,
cuda_get_max_shared_memory(stream->gpu_index), mem_ptr->pbs_type);
cuda_memcpy_async_gpu_to_gpu(cur_input_block, mem_ptr->tmp_big_lwe_vector,
big_lwe_size * sizeof(Torus), stream);
if (i < num_blocks - 1) {
auto next_input_block = &input_blocks[(i + 1) * big_lwe_size];
host_addition(stream, next_input_block, next_input_block,
&mem_ptr->tmp_big_lwe_vector[big_lwe_size],
glwe_dimension * polynomial_size, 1);
}
}
}
template <typename Torus>
void scratch_cuda_full_propagation(
cuda_stream_t *stream, int_fullprop_buffer<Torus> **mem_ptr,
uint32_t lwe_dimension, uint32_t glwe_dimension, uint32_t polynomial_size,
uint32_t pbs_level, uint32_t grouping_factor, uint32_t num_radix_blocks,
uint32_t message_modulus, uint32_t carry_modulus, PBS_TYPE pbs_type,
bool allocate_gpu_memory) {
int8_t *pbs_buffer;
execute_scratch_pbs<Torus>(stream, &pbs_buffer, glwe_dimension, lwe_dimension,
polynomial_size, pbs_level, grouping_factor,
num_radix_blocks,
cuda_get_max_shared_memory(stream->gpu_index),
pbs_type, allocate_gpu_memory);
// LUT
Torus *lut_buffer;
if (allocate_gpu_memory) {
// LUT is used as a trivial encryption, so we only allocate memory for the
// body
Torus lut_buffer_size =
2 * (glwe_dimension + 1) * polynomial_size * sizeof(Torus);
lut_buffer = (Torus *)cuda_malloc_async(lut_buffer_size, stream);
// LUTs
auto lut_f_message = [message_modulus](Torus x) -> Torus {
return x % message_modulus;
};
auto lut_f_carry = [message_modulus](Torus x) -> Torus {
return x / message_modulus;
};
//
Torus *lut_buffer_message = lut_buffer;
Torus *lut_buffer_carry =
lut_buffer + (glwe_dimension + 1) * polynomial_size;
generate_device_accumulator<Torus>(
stream, lut_buffer_message, glwe_dimension, polynomial_size,
message_modulus, carry_modulus, lut_f_message);
generate_device_accumulator<Torus>(stream, lut_buffer_carry, glwe_dimension,
polynomial_size, message_modulus,
carry_modulus, lut_f_carry);
}
Torus *lut_indexes;
if (allocate_gpu_memory) {
lut_indexes = (Torus *)cuda_malloc_async(2 * sizeof(Torus), stream);
Torus h_lut_indexes[2] = {0, 1};
cuda_memcpy_async_to_gpu(lut_indexes, h_lut_indexes, 2 * sizeof(Torus),
stream);
}
Torus *lwe_indexes;
if (allocate_gpu_memory) {
Torus lwe_indexes_size = num_radix_blocks * sizeof(Torus);
lwe_indexes = (Torus *)cuda_malloc_async(lwe_indexes_size, stream);
Torus *h_lwe_indexes = (Torus *)malloc(lwe_indexes_size);
for (int i = 0; i < num_radix_blocks; i++)
h_lwe_indexes[i] = i;
cuda_memcpy_async_to_gpu(lwe_indexes, h_lwe_indexes, lwe_indexes_size,
stream);
cuda_synchronize_stream(stream);
free(h_lwe_indexes);
}
// Temporary arrays
Torus *small_lwe_vector;
Torus *big_lwe_vector;
if (allocate_gpu_memory) {
Torus small_vector_size = 2 * (lwe_dimension + 1) * sizeof(Torus);
Torus big_vector_size =
2 * (glwe_dimension * polynomial_size + 1) * sizeof(Torus);
small_lwe_vector = (Torus *)cuda_malloc_async(small_vector_size, stream);
big_lwe_vector = (Torus *)cuda_malloc_async(big_vector_size, stream);
}
*mem_ptr = new int_fullprop_buffer<Torus>;
(*mem_ptr)->pbs_type = pbs_type;
(*mem_ptr)->pbs_buffer = pbs_buffer;
(*mem_ptr)->lut_buffer = lut_buffer;
(*mem_ptr)->lut_indexes = lut_indexes;
(*mem_ptr)->lwe_indexes = lwe_indexes;
(*mem_ptr)->tmp_small_lwe_vector = small_lwe_vector;
(*mem_ptr)->tmp_big_lwe_vector = big_lwe_vector;
}
// (lwe_dimension+1) threads
// (num_radix_blocks / 2) thread blocks
template <typename Torus>
__global__ void device_pack_blocks(Torus *lwe_array_out, Torus *lwe_array_in,
uint32_t lwe_dimension,
uint32_t num_radix_blocks, uint32_t factor) {
int tid = threadIdx.x + blockIdx.x * blockDim.x;
if (tid < (lwe_dimension + 1)) {
for (int bid = 0; bid < (num_radix_blocks / 2); bid++) {
Torus *lsb_block = lwe_array_in + (2 * bid) * (lwe_dimension + 1);
Torus *msb_block = lsb_block + (lwe_dimension + 1);
Torus *packed_block = lwe_array_out + bid * (lwe_dimension + 1);
packed_block[tid] = lsb_block[tid] + factor * msb_block[tid];
}
if (num_radix_blocks % 2 != 0) {
// We couldn't pack the last block, so we just copy it
Torus *lsb_block =
lwe_array_in + (num_radix_blocks - 1) * (lwe_dimension + 1);
Torus *last_block =
lwe_array_out + (num_radix_blocks / 2) * (lwe_dimension + 1);
last_block[tid] = lsb_block[tid];
}
}
}
// Packs the low ciphertext in the message parts of the high ciphertext
// and moves the high ciphertext into the carry part.
//
// This requires the block parameters to have enough room for two ciphertexts,
// so at least as many carry modulus as the message modulus
//
// Expects the carry buffer to be empty
template <typename Torus>
__host__ void pack_blocks(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_in, uint32_t lwe_dimension,
uint32_t num_radix_blocks, uint32_t factor) {
assert(lwe_array_out != lwe_array_in);
int num_blocks = 0, num_threads = 0;
int num_entries = (lwe_dimension + 1);
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
device_pack_blocks<<<num_blocks, num_threads, 0, stream->stream>>>(
lwe_array_out, lwe_array_in, lwe_dimension, num_radix_blocks, factor);
}
template <typename Torus>
__global__ void
device_create_trivial_radix(Torus *lwe_array, Torus *scalar_input,
int32_t num_blocks, uint32_t lwe_dimension,
uint64_t delta) {
int tid = blockIdx.x * blockDim.x + threadIdx.x;
if (tid < num_blocks) {
Torus scalar = scalar_input[tid];
Torus *body = lwe_array + tid * (lwe_dimension + 1) + lwe_dimension;
*body = scalar * delta;
}
}
template <typename Torus>
__host__ void
create_trivial_radix(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *scalar_array, uint32_t lwe_dimension,
uint32_t num_radix_blocks, uint32_t num_scalar_blocks,
uint64_t message_modulus, uint64_t carry_modulus) {
size_t radix_size = (lwe_dimension + 1) * num_radix_blocks;
cuda_memset_async(lwe_array_out, 0, radix_size * sizeof(Torus), stream);
if (num_scalar_blocks == 0)
return;
// Create a 1-dimensional grid of threads
int num_blocks = 0, num_threads = 0;
int num_entries = num_scalar_blocks;
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
dim3 grid(num_blocks, 1, 1);
dim3 thds(num_threads, 1, 1);
// Value of the shift we multiply our messages by
// If message_modulus and carry_modulus are always powers of 2 we can simplify
// this
uint64_t delta = ((uint64_t)1 << 63) / (message_modulus * carry_modulus);
device_create_trivial_radix<<<grid, thds, 0, stream->stream>>>(
lwe_array_out, scalar_array, num_scalar_blocks, lwe_dimension, delta);
check_cuda_error(cudaGetLastError());
}
#endif // TFHE_RS_INTERNAL_INTEGER_CUH

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@@ -1,107 +0,0 @@
#include "integer/multiplication.cuh"
/*
* This scratch function allocates the necessary amount of data on the GPU for
* the integer radix multiplication in keyswitch->bootstrap order.
*/
void scratch_cuda_integer_mult_radix_ciphertext_kb_64(
cuda_stream_t *stream, int8_t **mem_ptr, uint32_t message_modulus,
uint32_t carry_modulus, uint32_t glwe_dimension, uint32_t lwe_dimension,
uint32_t polynomial_size, uint32_t pbs_base_log, uint32_t pbs_level,
uint32_t ks_base_log, uint32_t ks_level, uint32_t grouping_factor,
uint32_t num_radix_blocks, PBS_TYPE pbs_type, uint32_t max_shared_memory,
bool allocate_gpu_memory) {
int_radix_params params(pbs_type, glwe_dimension, polynomial_size,
polynomial_size, lwe_dimension, ks_level, ks_base_log,
pbs_level, pbs_base_log, grouping_factor,
message_modulus, carry_modulus);
switch (polynomial_size) {
case 2048:
scratch_cuda_integer_mult_radix_ciphertext_kb<uint64_t>(
stream, (int_mul_memory<uint64_t> **)mem_ptr, num_radix_blocks, params,
allocate_gpu_memory);
break;
default:
break;
}
}
/*
* Computes a multiplication between two 64 bit radix lwe ciphertexts
* encrypting integer values. keyswitch -> bootstrap pattern is used, function
* works for single pair of radix ciphertexts, 'v_stream' can be used for
* parallelization
* - 'v_stream' is a void pointer to the Cuda stream to be used in the kernel
* launch
* - 'gpu_index' is the index of the GPU to be used in the kernel launch
* - 'radix_lwe_out' is 64 bit radix big lwe ciphertext, product of
* multiplication
* - 'radix_lwe_left' left radix big lwe ciphertext
* - 'radix_lwe_right' right radix big lwe ciphertext
* - 'bsk' bootstrapping key in fourier domain
* - 'ksk' keyswitching key
* - 'mem_ptr'
* - 'message_modulus' message_modulus
* - 'carry_modulus' carry_modulus
* - 'glwe_dimension' glwe_dimension
* - 'lwe_dimension' is the dimension of small lwe ciphertext
* - 'polynomial_size' polynomial size
* - 'pbs_base_log' base log used in the pbs
* - 'pbs_level' decomposition level count used in the pbs
* - 'ks_level' decomposition level count used in the keyswitch
* - 'num_blocks' is the number of big lwe ciphertext blocks inside radix
* ciphertext
* - 'pbs_type' selects which PBS implementation should be used
* - 'max_shared_memory' maximum shared memory per cuda block
*/
void cuda_integer_mult_radix_ciphertext_kb_64(
cuda_stream_t *stream, void *radix_lwe_out, void *radix_lwe_left,
void *radix_lwe_right, void *bsk, void *ksk, int8_t *mem_ptr,
uint32_t message_modulus, uint32_t carry_modulus, uint32_t glwe_dimension,
uint32_t lwe_dimension, uint32_t polynomial_size, uint32_t pbs_base_log,
uint32_t pbs_level, uint32_t ks_base_log, uint32_t ks_level,
uint32_t grouping_factor, uint32_t num_blocks, PBS_TYPE pbs_type,
uint32_t max_shared_memory) {
switch (polynomial_size) {
case 2048:
host_integer_mult_radix_kb<uint64_t, int64_t, AmortizedDegree<2048>>(
stream, static_cast<uint64_t *>(radix_lwe_out),
static_cast<uint64_t *>(radix_lwe_left),
static_cast<uint64_t *>(radix_lwe_right), bsk,
static_cast<uint64_t *>(ksk), (int_mul_memory<uint64_t> *)mem_ptr,
num_blocks);
break;
default:
break;
}
}
void cleanup_cuda_integer_mult(cuda_stream_t *stream, int8_t **mem_ptr_void) {
int_mul_memory<uint64_t> *mem_ptr =
(int_mul_memory<uint64_t> *)(*mem_ptr_void);
mem_ptr->release(stream);
}
void cuda_small_scalar_multiplication_integer_radix_ciphertext_64_inplace(
cuda_stream_t *stream, void *lwe_array, uint64_t scalar,
uint32_t lwe_dimension, uint32_t lwe_ciphertext_count) {
cuda_small_scalar_multiplication_integer_radix_ciphertext_64(
stream, lwe_array, lwe_array, scalar, lwe_dimension,
lwe_ciphertext_count);
}
void cuda_small_scalar_multiplication_integer_radix_ciphertext_64(
cuda_stream_t *stream, void *output_lwe_array, void *input_lwe_array,
uint64_t scalar, uint32_t lwe_dimension, uint32_t lwe_ciphertext_count) {
host_integer_small_scalar_mult_radix(
stream, static_cast<uint64_t *>(output_lwe_array),
static_cast<uint64_t *>(input_lwe_array), scalar, lwe_dimension,
lwe_ciphertext_count);
}

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@@ -1,630 +0,0 @@
#ifndef CUDA_INTEGER_MULT_CUH
#define CUDA_INTEGER_MULT_CUH
#ifdef __CDT_PARSER__
#undef __CUDA_RUNTIME_H__
#include <cuda_runtime.h>
#endif
#include "bootstrap.h"
#include "crypto/keyswitch.cuh"
#include "device.h"
#include "integer.h"
#include "integer/integer.cuh"
#include "linear_algebra.h"
#include "utils/helper.cuh"
#include "utils/kernel_dimensions.cuh"
#include <fstream>
#include <iostream>
#include <omp.h>
#include <sstream>
#include <string>
#include <vector>
template <typename Torus, class params>
__global__ void
all_shifted_lhs_rhs(Torus *radix_lwe_left, Torus *lsb_ciphertext,
Torus *msb_ciphertext, Torus *radix_lwe_right,
Torus *lsb_rhs, Torus *msb_rhs, int num_blocks) {
size_t block_id = blockIdx.x;
double D = sqrt((2 * num_blocks + 1) * (2 * num_blocks + 1) - 8 * block_id);
size_t radix_id = int((2 * num_blocks + 1 - D) / 2.);
size_t local_block_id =
block_id - (2 * num_blocks - radix_id + 1) / 2. * radix_id;
bool process_msb = (local_block_id < (num_blocks - radix_id - 1));
auto cur_lsb_block = &lsb_ciphertext[block_id * (params::degree + 1)];
auto cur_msb_block =
(process_msb)
? &msb_ciphertext[(block_id - radix_id) * (params::degree + 1)]
: nullptr;
auto cur_lsb_rhs_block = &lsb_rhs[block_id * (params::degree + 1)];
auto cur_msb_rhs_block =
(process_msb) ? &msb_rhs[(block_id - radix_id) * (params::degree + 1)]
: nullptr;
auto cur_ct_right = &radix_lwe_right[radix_id * (params::degree + 1)];
auto cur_src = &radix_lwe_left[local_block_id * (params::degree + 1)];
size_t tid = threadIdx.x;
for (int i = 0; i < params::opt; i++) {
Torus value = cur_src[tid];
if (process_msb) {
cur_lsb_block[tid] = cur_msb_block[tid] = value;
cur_lsb_rhs_block[tid] = cur_msb_rhs_block[tid] = cur_ct_right[tid];
} else {
cur_lsb_block[tid] = value;
cur_lsb_rhs_block[tid] = cur_ct_right[tid];
}
tid += params::degree / params::opt;
}
if (threadIdx.x == 0) {
Torus value = cur_src[params::degree];
if (process_msb) {
cur_lsb_block[params::degree] = cur_msb_block[params::degree] = value;
cur_lsb_rhs_block[params::degree] = cur_msb_rhs_block[params::degree] =
cur_ct_right[params::degree];
} else {
cur_lsb_block[params::degree] = value;
cur_lsb_rhs_block[params::degree] = cur_ct_right[params::degree];
}
}
}
template <typename Torus>
void compress_device_array_with_map(cuda_stream_t *stream, Torus *src,
Torus *dst, int *S, int *F, int num_blocks,
uint32_t map_size, uint32_t unit_size,
int &total_copied, bool is_message) {
for (int i = 0; i < map_size; i++) {
int s_index = i * num_blocks + S[i];
int number_of_unit = F[i] - S[i] + is_message;
auto cur_dst = &dst[total_copied * unit_size];
auto cur_src = &src[s_index * unit_size];
size_t copy_size = unit_size * number_of_unit * sizeof(Torus);
cuda_memcpy_async_gpu_to_gpu(cur_dst, cur_src, copy_size, stream);
total_copied += number_of_unit;
}
}
template <typename Torus>
void extract_message_carry_to_full_radix(cuda_stream_t *stream, Torus *src,
Torus *dst, int *S, int *F,
uint32_t map_size, uint32_t unit_size,
int &total_copied,
int &total_radix_copied,
int num_blocks, bool is_message) {
size_t radix_size = unit_size * num_blocks;
for (int i = 0; i < map_size; i++) {
auto cur_dst_radix = &dst[total_radix_copied * radix_size];
int s_index = S[i];
int number_of_unit = F[i] - s_index + is_message;
if (!is_message) {
int zero_block_count = num_blocks - number_of_unit;
cuda_memset_async(cur_dst_radix, 0,
zero_block_count * unit_size * sizeof(Torus), stream);
s_index = zero_block_count;
}
auto cur_dst = &cur_dst_radix[s_index * unit_size];
auto cur_src = &src[total_copied * unit_size];
size_t copy_size = unit_size * number_of_unit * sizeof(Torus);
cuda_memcpy_async_gpu_to_gpu(cur_dst, cur_src, copy_size, stream);
total_copied += number_of_unit;
++total_radix_copied;
}
}
template <typename Torus, class params>
__global__ void tree_add_chunks(Torus *result_blocks, Torus *input_blocks,
uint32_t chunk_size, uint32_t num_blocks) {
extern __shared__ Torus result[];
size_t chunk_id = blockIdx.x;
size_t chunk_elem_size = chunk_size * num_blocks * (params::degree + 1);
size_t radix_elem_size = num_blocks * (params::degree + 1);
auto src_chunk = &input_blocks[chunk_id * chunk_elem_size];
auto dst_radix = &result_blocks[chunk_id * radix_elem_size];
size_t block_stride = blockIdx.y * (params::degree + 1);
auto dst_block = &dst_radix[block_stride];
// init shared mem with first radix of chunk
size_t tid = threadIdx.x;
for (int i = 0; i < params::opt; i++) {
result[tid] = src_chunk[block_stride + tid];
tid += params::degree / params::opt;
}
if (threadIdx.x == 0) {
result[params::degree] = src_chunk[block_stride + params::degree];
}
// accumulate rest of the radixes
for (int r_id = 1; r_id < chunk_size; r_id++) {
auto cur_src_radix = &src_chunk[r_id * radix_elem_size];
tid = threadIdx.x;
for (int i = 0; i < params::opt; i++) {
result[tid] += cur_src_radix[block_stride + tid];
tid += params::degree / params::opt;
}
if (threadIdx.x == 0) {
result[params::degree] += cur_src_radix[block_stride + params::degree];
}
}
// put result from shared mem to global mem
tid = threadIdx.x;
for (int i = 0; i < params::opt; i++) {
dst_block[tid] = result[tid];
tid += params::degree / params::opt;
}
if (threadIdx.x == 0) {
dst_block[params::degree] = result[params::degree];
}
}
template <typename Torus, class params>
__global__ void fill_radix_from_lsb_msb(Torus *result_blocks, Torus *lsb_blocks,
Torus *msb_blocks,
uint32_t glwe_dimension,
uint32_t lsb_count, uint32_t msb_count,
uint32_t num_blocks) {
size_t big_lwe_dimension = glwe_dimension * params::degree + 1;
size_t big_lwe_id = blockIdx.x;
size_t radix_id = big_lwe_id / num_blocks;
size_t block_id = big_lwe_id % num_blocks;
size_t lsb_block_id = block_id - radix_id;
size_t msb_block_id = block_id - radix_id - 1;
bool process_lsb = (radix_id <= block_id);
bool process_msb = (radix_id + 1 <= block_id);
auto cur_res_lsb_ct = &result_blocks[big_lwe_id * big_lwe_dimension];
auto cur_res_msb_ct =
&result_blocks[num_blocks * num_blocks * big_lwe_dimension +
big_lwe_id * big_lwe_dimension];
Torus *cur_lsb_radix = &lsb_blocks[(2 * num_blocks - radix_id + 1) *
radix_id / 2 * (params::degree + 1)];
Torus *cur_msb_radix = (process_msb)
? &msb_blocks[(2 * num_blocks - radix_id - 1) *
radix_id / 2 * (params::degree + 1)]
: nullptr;
Torus *cur_lsb_ct = (process_lsb)
? &cur_lsb_radix[lsb_block_id * (params::degree + 1)]
: nullptr;
Torus *cur_msb_ct = (process_msb)
? &cur_msb_radix[msb_block_id * (params::degree + 1)]
: nullptr;
size_t tid = threadIdx.x;
for (int i = 0; i < params::opt; i++) {
cur_res_lsb_ct[tid] = (process_lsb) ? cur_lsb_ct[tid] : 0;
cur_res_msb_ct[tid] = (process_msb) ? cur_msb_ct[tid] : 0;
tid += params::degree / params::opt;
}
if (threadIdx.x == 0) {
cur_res_lsb_ct[params::degree] =
(process_lsb) ? cur_lsb_ct[params::degree] : 0;
cur_res_msb_ct[params::degree] =
(process_msb) ? cur_msb_ct[params::degree] : 0;
}
}
template <typename Torus, typename STorus, class params>
__host__ void host_integer_mult_radix_kb(
cuda_stream_t *stream, uint64_t *radix_lwe_out, uint64_t *radix_lwe_left,
uint64_t *radix_lwe_right, void *bsk, uint64_t *ksk,
int_mul_memory<Torus> *mem_ptr, uint32_t num_blocks) {
auto glwe_dimension = mem_ptr->params.glwe_dimension;
auto polynomial_size = mem_ptr->params.polynomial_size;
auto lwe_dimension = mem_ptr->params.small_lwe_dimension;
auto message_modulus = mem_ptr->params.message_modulus;
auto carry_modulus = mem_ptr->params.carry_modulus;
int big_lwe_dimension = glwe_dimension * polynomial_size;
int big_lwe_size = big_lwe_dimension + 1;
// 'vector_result_lsb' contains blocks from all possible right shifts of
// radix_lwe_left, only nonzero blocks are kept
int lsb_vector_block_count = num_blocks * (num_blocks + 1) / 2;
// 'vector_result_msb' contains blocks from all possible shifts of
// radix_lwe_left except the last blocks of each shift. Only nonzero blocks
// are kept
int msb_vector_block_count = num_blocks * (num_blocks - 1) / 2;
// total number of blocks msb and lsb
int total_block_count = lsb_vector_block_count + msb_vector_block_count;
// buffer to keep all lsb and msb shifts
// for lsb all nonzero blocks of each right shifts are kept
// for 0 shift num_blocks blocks
// for 1 shift num_blocks - 1 blocks
// for num_blocks - 1 shift 1 block
// (num_blocks + 1) * num_blocks / 2 blocks
// for msb we don't keep track for last blocks so
// for 0 shift num_blocks - 1 blocks
// for 1 shift num_blocks - 2 blocks
// for num_blocks - 1 shift 0 blocks
// (num_blocks - 1) * num_blocks / 2 blocks
// in total num_blocks^2 blocks
// in each block three is big polynomial with
// glwe_dimension * polynomial_size + 1 coefficients
auto vector_result_sb = mem_ptr->vector_result_sb;
// buffer to keep lsb_vector + msb_vector
// addition will happen in full terms so there will be
// num_blocks terms and each term will have num_blocks block
// num_blocks^2 blocks in total
// and each blocks has big lwe ciphertext with
// glwe_dimension * polynomial_size + 1 coefficients
auto block_mul_res = mem_ptr->block_mul_res;
// buffer to keep keyswitch result of num_blocks^2 ciphertext
// in total it has num_blocks^2 small lwe ciphertexts with
// lwe_dimension +1 coefficients
auto small_lwe_vector = mem_ptr->small_lwe_vector;
// it contains two lut, first for lsb extraction,
// second for msb extraction, with total length =
// 2 * (glwe_dimension + 1) * polynomial_size
auto luts_array = mem_ptr->luts_array;
// accumulator to extract message
// with length (glwe_dimension + 1) * polynomial_size
auto luts_message = mem_ptr->luts_message;
// accumulator to extract carry
// with length (glwe_dimension + 1) * polynomial_size
auto luts_carry = mem_ptr->luts_carry;
// to be used as default indexing
auto lwe_indexes = luts_array->lwe_indexes;
auto vector_result_lsb = &vector_result_sb[0];
auto vector_result_msb =
&vector_result_sb[lsb_vector_block_count *
(polynomial_size * glwe_dimension + 1)];
auto vector_lsb_rhs = &block_mul_res[0];
auto vector_msb_rhs = &block_mul_res[lsb_vector_block_count *
(polynomial_size * glwe_dimension + 1)];
dim3 grid(lsb_vector_block_count, 1, 1);
dim3 thds(params::degree / params::opt, 1, 1);
all_shifted_lhs_rhs<Torus, params><<<grid, thds, 0, stream->stream>>>(
radix_lwe_left, vector_result_lsb, vector_result_msb, radix_lwe_right,
vector_lsb_rhs, vector_msb_rhs, num_blocks);
integer_radix_apply_bivariate_lookup_table_kb<Torus>(
stream, block_mul_res, block_mul_res, vector_result_sb, bsk, ksk,
total_block_count, luts_array);
vector_result_lsb = &block_mul_res[0];
vector_result_msb = &block_mul_res[lsb_vector_block_count *
(polynomial_size * glwe_dimension + 1)];
fill_radix_from_lsb_msb<Torus, params>
<<<num_blocks * num_blocks, params::degree / params::opt, 0,
stream->stream>>>(vector_result_sb, vector_result_lsb,
vector_result_msb, glwe_dimension,
lsb_vector_block_count, msb_vector_block_count,
num_blocks);
auto new_blocks = block_mul_res;
auto old_blocks = vector_result_sb;
// amount of current radixes after block_mul
size_t r = 2 * num_blocks;
size_t total_modulus = message_modulus * carry_modulus;
size_t message_max = message_modulus - 1;
size_t chunk_size = (total_modulus - 1) / message_max;
size_t ch_amount = r / chunk_size;
int terms_degree[r * num_blocks];
int f_b[ch_amount];
int l_b[ch_amount];
for (int i = 0; i < num_blocks * num_blocks; i++) {
size_t r_id = i / num_blocks;
size_t b_id = i % num_blocks;
terms_degree[i] = (b_id >= r_id) ? 3 : 0;
}
auto terms_degree_msb = &terms_degree[num_blocks * num_blocks];
for (int i = 0; i < num_blocks * num_blocks; i++) {
size_t r_id = i / num_blocks;
size_t b_id = i % num_blocks;
terms_degree_msb[i] = (b_id > r_id) ? 2 : 0;
}
auto max_shared_memory = cuda_get_max_shared_memory(stream->gpu_index);
while (r > chunk_size) {
int cur_total_blocks = r * num_blocks;
ch_amount = r / chunk_size;
dim3 add_grid(ch_amount, num_blocks, 1);
size_t sm_size = big_lwe_size * sizeof(Torus);
cuda_memset_async(new_blocks, 0,
ch_amount * num_blocks * big_lwe_size * sizeof(Torus),
stream);
tree_add_chunks<Torus, params><<<add_grid, 256, sm_size, stream->stream>>>(
new_blocks, old_blocks, chunk_size, num_blocks);
for (int c_id = 0; c_id < ch_amount; c_id++) {
auto cur_chunk = &terms_degree[c_id * chunk_size * num_blocks];
int mx = 0;
int mn = num_blocks;
for (int r_id = 1; r_id < chunk_size; r_id++) {
auto cur_radix = &cur_chunk[r_id * num_blocks];
for (int i = 0; i < num_blocks; i++) {
if (cur_radix[i]) {
mn = min(mn, i);
mx = max(mx, i);
}
}
}
f_b[c_id] = mn;
l_b[c_id] = mx;
}
int total_copied = 0;
int message_count = 0;
int carry_count = 0;
compress_device_array_with_map<Torus>(stream, new_blocks, old_blocks, f_b,
l_b, num_blocks, ch_amount,
big_lwe_size, total_copied, true);
message_count = total_copied;
compress_device_array_with_map<Torus>(stream, new_blocks, old_blocks, f_b,
l_b, num_blocks, ch_amount,
big_lwe_size, total_copied, false);
carry_count = total_copied - message_count;
auto message_blocks_vector = old_blocks;
auto carry_blocks_vector =
&old_blocks[message_count * (glwe_dimension * polynomial_size + 1)];
cuda_keyswitch_lwe_ciphertext_vector(
stream, small_lwe_vector, lwe_indexes, old_blocks, lwe_indexes, ksk,
polynomial_size * glwe_dimension, lwe_dimension,
mem_ptr->params.ks_base_log, mem_ptr->params.ks_level, total_copied);
execute_pbs<Torus>(
stream, message_blocks_vector, lwe_indexes, luts_message->lut,
luts_message->lut_indexes, small_lwe_vector, lwe_indexes, bsk,
luts_message->pbs_buffer, glwe_dimension, lwe_dimension,
polynomial_size, mem_ptr->params.pbs_base_log,
mem_ptr->params.pbs_level, mem_ptr->params.grouping_factor,
message_count, 1, 0, max_shared_memory, mem_ptr->params.pbs_type);
execute_pbs<Torus>(stream, carry_blocks_vector, lwe_indexes,
luts_carry->lut, luts_carry->lut_indexes,
&small_lwe_vector[message_count * (lwe_dimension + 1)],
lwe_indexes, bsk, luts_carry->pbs_buffer, glwe_dimension,
lwe_dimension, polynomial_size,
mem_ptr->params.pbs_base_log, mem_ptr->params.pbs_level,
mem_ptr->params.grouping_factor, carry_count, 1, 0,
max_shared_memory, mem_ptr->params.pbs_type);
int rem_blocks = r % chunk_size * num_blocks;
int new_blocks_created = 2 * ch_amount * num_blocks;
int copy_size = rem_blocks * big_lwe_size * sizeof(Torus);
auto cur_dst = &new_blocks[new_blocks_created * big_lwe_size];
auto cur_src = &old_blocks[(cur_total_blocks - rem_blocks) * big_lwe_size];
cuda_memcpy_async_gpu_to_gpu(cur_dst, cur_src, copy_size, stream);
total_copied = 0;
int total_radix_copied = 0;
extract_message_carry_to_full_radix<Torus>(
stream, old_blocks, new_blocks, f_b, l_b, ch_amount, big_lwe_size,
total_copied, total_radix_copied, num_blocks, true);
extract_message_carry_to_full_radix<Torus>(
stream, old_blocks, new_blocks, f_b, l_b, ch_amount, big_lwe_size,
total_copied, total_radix_copied, num_blocks, false);
std::swap(new_blocks, old_blocks);
r = (new_blocks_created + rem_blocks) / num_blocks;
}
dim3 add_grid(1, num_blocks, 1);
size_t sm_size = big_lwe_size * sizeof(Torus);
cuda_memset_async(radix_lwe_out, 0, num_blocks * big_lwe_size * sizeof(Torus),
stream);
tree_add_chunks<Torus, params><<<add_grid, 256, sm_size, stream->stream>>>(
radix_lwe_out, old_blocks, r, num_blocks);
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, vector_result_sb, radix_lwe_out, bsk, ksk, num_blocks,
luts_message);
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, &block_mul_res[big_lwe_size], radix_lwe_out, bsk, ksk, num_blocks,
luts_carry);
cuda_memset_async(block_mul_res, 0, big_lwe_size * sizeof(Torus), stream);
host_addition(stream, radix_lwe_out, vector_result_sb, block_mul_res,
big_lwe_size, num_blocks);
host_propagate_single_carry_low_latency<Torus>(
stream, radix_lwe_out, mem_ptr->scp_mem, bsk, ksk, num_blocks);
}
template <typename Torus>
__host__ void scratch_cuda_integer_mult_radix_ciphertext_kb(
cuda_stream_t *stream, int_mul_memory<Torus> **mem_ptr,
uint32_t num_radix_blocks, int_radix_params params,
bool allocate_gpu_memory) {
*mem_ptr = new int_mul_memory<Torus>(stream, params, num_radix_blocks,
allocate_gpu_memory);
}
// Function to apply lookup table,
// It has two mode
// lsb_msb_mode == true - extracts lsb and msb
// lsb_msb_mode == false - extracts message and carry
template <typename Torus, typename STorus, class params>
void apply_lookup_table(Torus *input_ciphertexts, Torus *output_ciphertexts,
int_mul_memory<Torus> *mem_ptr, uint32_t glwe_dimension,
uint32_t lwe_dimension, uint32_t polynomial_size,
uint32_t pbs_base_log, uint32_t pbs_level,
uint32_t ks_base_log, uint32_t ks_level,
uint32_t grouping_factor,
uint32_t lsb_message_blocks_count,
uint32_t msb_carry_blocks_count,
uint32_t max_shared_memory, bool lsb_msb_mode) {
int total_blocks_count = lsb_message_blocks_count + msb_carry_blocks_count;
int gpu_n = mem_ptr->p2p_gpu_count;
if (total_blocks_count < gpu_n)
gpu_n = total_blocks_count;
int gpu_blocks_count = total_blocks_count / gpu_n;
int big_lwe_size = glwe_dimension * polynomial_size + 1;
// int small_lwe_size = lwe_dimension + 1;
#pragma omp parallel for num_threads(gpu_n)
for (int i = 0; i < gpu_n; i++) {
cudaSetDevice(i);
auto this_stream = mem_ptr->streams[i];
// Index where input and output blocks start for current gpu
int big_lwe_start_index = i * gpu_blocks_count * big_lwe_size;
// Last gpu might have extra blocks to process if total blocks number is not
// divisible by gpu_n
if (i == gpu_n - 1) {
gpu_blocks_count += total_blocks_count % gpu_n;
}
int can_access_peer;
cudaDeviceCanAccessPeer(&can_access_peer, i, 0);
if (i == 0) {
check_cuda_error(
cudaMemcpyAsync(mem_ptr->pbs_output_multi_gpu[i],
&input_ciphertexts[big_lwe_start_index],
gpu_blocks_count * big_lwe_size * sizeof(Torus),
cudaMemcpyDeviceToDevice, *this_stream));
} else if (can_access_peer) {
check_cuda_error(cudaMemcpyPeerAsync(
mem_ptr->pbs_output_multi_gpu[i], i,
&input_ciphertexts[big_lwe_start_index], 0,
gpu_blocks_count * big_lwe_size * sizeof(Torus), *this_stream));
} else {
// Uses host memory as middle ground
cuda_memcpy_async_to_cpu(mem_ptr->device_to_device_buffer[i],
&input_ciphertexts[big_lwe_start_index],
gpu_blocks_count * big_lwe_size * sizeof(Torus),
this_stream, i);
cuda_memcpy_async_to_gpu(
mem_ptr->pbs_output_multi_gpu[i], mem_ptr->device_to_device_buffer[i],
gpu_blocks_count * big_lwe_size * sizeof(Torus), this_stream, i);
}
// when lsb and msb have to be extracted
// for first lsb_count blocks we need lsb_acc
// for last msb_count blocks we need msb_acc
// when message and carry have tobe extracted
// for first message_count blocks we need message_acc
// for last carry_count blocks we need carry_acc
Torus *cur_lut_indexes;
if (lsb_msb_mode) {
cur_lut_indexes = (big_lwe_start_index < lsb_message_blocks_count)
? mem_ptr->lut_indexes_lsb_multi_gpu[i]
: mem_ptr->lut_indexes_msb_multi_gpu[i];
} else {
cur_lut_indexes = (big_lwe_start_index < lsb_message_blocks_count)
? mem_ptr->lut_indexes_message_multi_gpu[i]
: mem_ptr->lut_indexes_carry_multi_gpu[i];
}
// execute keyswitch on a current gpu with corresponding input and output
// blocks pbs_output_multi_gpu[i] is an input for keyswitch and
// pbs_input_multi_gpu[i] is an output for keyswitch
cuda_keyswitch_lwe_ciphertext_vector(
this_stream, i, mem_ptr->pbs_input_multi_gpu[i],
mem_ptr->pbs_output_multi_gpu[i], mem_ptr->ksk_multi_gpu[i],
polynomial_size * glwe_dimension, lwe_dimension, ks_base_log, ks_level,
gpu_blocks_count);
// execute pbs on a current gpu with corresponding input and output
cuda_multi_bit_pbs_lwe_ciphertext_vector_64(
this_stream, i, mem_ptr->pbs_output_multi_gpu[i],
mem_ptr->lut_multi_gpu[i], cur_lut_indexes,
mem_ptr->pbs_input_multi_gpu[i], mem_ptr->bsk_multi_gpu[i],
mem_ptr->pbs_buffer_multi_gpu[i], lwe_dimension, glwe_dimension,
polynomial_size, grouping_factor, pbs_base_log, pbs_level,
grouping_factor, gpu_blocks_count, 2, 0, max_shared_memory);
// lookup table is applied and now data from current gpu have to be copied
// back to gpu_0 in 'output_ciphertexts' buffer
if (i == 0) {
check_cuda_error(
cudaMemcpyAsync(&output_ciphertexts[big_lwe_start_index],
mem_ptr->pbs_output_multi_gpu[i],
gpu_blocks_count * big_lwe_size * sizeof(Torus),
cudaMemcpyDeviceToDevice, *this_stream));
} else if (can_access_peer) {
check_cuda_error(cudaMemcpyPeerAsync(
&output_ciphertexts[big_lwe_start_index], 0,
mem_ptr->pbs_output_multi_gpu[i], i,
gpu_blocks_count * big_lwe_size * sizeof(Torus), *this_stream));
} else {
// Uses host memory as middle ground
cuda_memcpy_async_to_cpu(
mem_ptr->device_to_device_buffer[i], mem_ptr->pbs_output_multi_gpu[i],
gpu_blocks_count * big_lwe_size * sizeof(Torus), this_stream, i);
cuda_memcpy_async_to_gpu(&output_ciphertexts[big_lwe_start_index],
mem_ptr->device_to_device_buffer[i],
gpu_blocks_count * big_lwe_size * sizeof(Torus),
this_stream, i);
}
}
}
template <typename T>
__global__ void device_small_scalar_radix_multiplication(T *output_lwe_array,
T *input_lwe_array,
T scalar,
uint32_t lwe_dimension,
uint32_t num_blocks) {
int index = blockIdx.x * blockDim.x + threadIdx.x;
int lwe_size = lwe_dimension + 1;
if (index < num_blocks * lwe_size) {
// Here we take advantage of the wrapping behaviour of uint
output_lwe_array[index] = input_lwe_array[index] * scalar;
}
}
template <typename T>
__host__ void host_integer_small_scalar_mult_radix(
cuda_stream_t *stream, T *output_lwe_array, T *input_lwe_array, T scalar,
uint32_t input_lwe_dimension, uint32_t input_lwe_ciphertext_count) {
cudaSetDevice(stream->gpu_index);
// lwe_size includes the presence of the body
// whereas lwe_dimension is the number of elements in the mask
int lwe_size = input_lwe_dimension + 1;
// Create a 1-dimensional grid of threads
int num_blocks = 0, num_threads = 0;
int num_entries = input_lwe_ciphertext_count * lwe_size;
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
dim3 grid(num_blocks, 1, 1);
dim3 thds(num_threads, 1, 1);
device_small_scalar_radix_multiplication<<<grid, thds, 0, stream->stream>>>(
output_lwe_array, input_lwe_array, scalar, input_lwe_dimension,
input_lwe_ciphertext_count);
check_cuda_error(cudaGetLastError());
}
#endif

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@@ -1,12 +0,0 @@
#include "integer/negation.cuh"
void cuda_negate_integer_radix_ciphertext_64_inplace(
cuda_stream_t *stream, void *lwe_array, uint32_t lwe_dimension,
uint32_t lwe_ciphertext_count, uint32_t message_modulus,
uint32_t carry_modulus) {
host_integer_radix_negation(stream, static_cast<uint64_t *>(lwe_array),
static_cast<uint64_t *>(lwe_array), lwe_dimension,
lwe_ciphertext_count, message_modulus,
carry_modulus);
}

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@@ -1,79 +0,0 @@
#ifndef CUDA_INTEGER_NEGATE_CUH
#define CUDA_INTEGER_NEGATE_CUH
#ifdef __CDT_PARSER__
#undef __CUDA_RUNTIME_H__
#include <cuda_runtime.h>
#endif
#include "device.h"
#include "integer.h"
#include "utils/kernel_dimensions.cuh"
template <typename Torus>
__global__ void
device_integer_radix_negation(Torus *output, Torus *input, int32_t num_blocks,
uint64_t lwe_dimension, uint64_t message_modulus,
uint64_t carry_modulus, uint64_t delta) {
int tid = blockIdx.x * blockDim.x + threadIdx.x;
if (tid < lwe_dimension + 1) {
bool is_body = (tid == lwe_dimension);
// z = ceil( degree / 2^p ) * 2^p
uint64_t z = (2 * message_modulus - 1) / message_modulus;
__syncthreads();
z *= message_modulus;
// (0,Delta*z) - ct
output[tid] = (is_body ? z * delta - input[tid] : -input[tid]);
for (int radix_block_id = 1; radix_block_id < num_blocks;
radix_block_id++) {
tid += (lwe_dimension + 1);
// Subtract z/B to the next ciphertext to compensate for the addition of z
uint64_t zb = z / message_modulus;
uint64_t encoded_zb = zb * delta;
__syncthreads();
// (0,Delta*z) - ct
output[tid] =
(is_body ? z * delta - (input[tid] + encoded_zb) : -input[tid]);
__syncthreads();
}
}
}
template <typename Torus>
__host__ void host_integer_radix_negation(cuda_stream_t *stream, Torus *output,
Torus *input, uint32_t lwe_dimension,
uint32_t input_lwe_ciphertext_count,
uint64_t message_modulus,
uint64_t carry_modulus) {
cudaSetDevice(stream->gpu_index);
// lwe_size includes the presence of the body
// whereas lwe_dimension is the number of elements in the mask
int lwe_size = lwe_dimension + 1;
// Create a 1-dimensional grid of threads
int num_blocks = 0, num_threads = 0;
int num_entries = lwe_size;
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
dim3 grid(num_blocks, 1, 1);
dim3 thds(num_threads, 1, 1);
uint64_t shared_mem = input_lwe_ciphertext_count * sizeof(uint32_t);
// Value of the shift we multiply our messages by
// If message_modulus and carry_modulus are always powers of 2 we can simplify
// this
uint64_t delta = ((uint64_t)1 << 63) / (message_modulus * carry_modulus);
device_integer_radix_negation<<<grid, thds, shared_mem, stream->stream>>>(
output, input, input_lwe_ciphertext_count, lwe_dimension, message_modulus,
carry_modulus, delta);
check_cuda_error(cudaGetLastError());
}
#endif

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@@ -1,12 +0,0 @@
#include "integer/scalar_addition.cuh"
void cuda_scalar_addition_integer_radix_ciphertext_64_inplace(
cuda_stream_t *stream, void *lwe_array, void *scalar_input,
uint32_t lwe_dimension, uint32_t lwe_ciphertext_count,
uint32_t message_modulus, uint32_t carry_modulus) {
host_integer_radix_scalar_addition_inplace(
stream, static_cast<uint64_t *>(lwe_array),
static_cast<uint64_t *>(scalar_input), lwe_dimension,
lwe_ciphertext_count, message_modulus, carry_modulus);
}

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@@ -1,130 +0,0 @@
#ifndef CUDA_INTEGER_ADD_CUH
#define CUDA_INTEGER_ADD_CUH
#ifdef __CDT_PARSER__
#undef __CUDA_RUNTIME_H__
#include <cuda_runtime.h>
#endif
#include "device.h"
#include "integer.h"
#include "utils/kernel_dimensions.cuh"
#include <stdio.h>
template <typename Torus>
__global__ void device_integer_radix_scalar_addition_inplace(
Torus *lwe_array, Torus *scalar_input, int32_t num_blocks,
uint32_t lwe_dimension, uint64_t delta) {
int tid = blockIdx.x * blockDim.x + threadIdx.x;
if (tid < num_blocks) {
Torus scalar = scalar_input[tid];
Torus *body = lwe_array + tid * (lwe_dimension + 1) + lwe_dimension;
*body += scalar * delta;
}
}
template <typename Torus>
__host__ void host_integer_radix_scalar_addition_inplace(
cuda_stream_t *stream, Torus *lwe_array, Torus *scalar_input,
uint32_t lwe_dimension, uint32_t input_lwe_ciphertext_count,
uint32_t message_modulus, uint32_t carry_modulus) {
cudaSetDevice(stream->gpu_index);
// Create a 1-dimensional grid of threads
int num_blocks = 0, num_threads = 0;
int num_entries = input_lwe_ciphertext_count;
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
dim3 grid(num_blocks, 1, 1);
dim3 thds(num_threads, 1, 1);
// Value of the shift we multiply our messages by
// If message_modulus and carry_modulus are always powers of 2 we can simplify
// this
uint64_t delta = ((uint64_t)1 << 63) / (message_modulus * carry_modulus);
device_integer_radix_scalar_addition_inplace<<<grid, thds, 0,
stream->stream>>>(
lwe_array, scalar_input, input_lwe_ciphertext_count, lwe_dimension,
delta);
check_cuda_error(cudaGetLastError());
}
template <typename Torus>
__global__ void device_integer_radix_add_scalar_one_inplace(
Torus *lwe_array, int32_t num_blocks, uint32_t lwe_dimension,
uint64_t delta) {
int tid = blockIdx.x * blockDim.x + threadIdx.x;
if (tid < num_blocks) {
Torus *body = lwe_array + tid * (lwe_dimension + 1) + lwe_dimension;
*body += delta;
}
}
template <typename Torus>
__host__ void host_integer_radix_add_scalar_one_inplace(
cuda_stream_t *stream, Torus *lwe_array, uint32_t lwe_dimension,
uint32_t input_lwe_ciphertext_count, uint32_t message_modulus,
uint32_t carry_modulus) {
cudaSetDevice(stream->gpu_index);
// Create a 1-dimensional grid of threads
int num_blocks = 0, num_threads = 0;
int num_entries = input_lwe_ciphertext_count;
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
dim3 grid(num_blocks, 1, 1);
dim3 thds(num_threads, 1, 1);
// Value of the shift we multiply our messages by
// If message_modulus and carry_modulus are always powers of 2 we can simplify
// this
uint64_t delta = ((uint64_t)1 << 63) / (message_modulus * carry_modulus);
device_integer_radix_add_scalar_one_inplace<<<grid, thds, 0,
stream->stream>>>(
lwe_array, input_lwe_ciphertext_count, lwe_dimension, delta);
check_cuda_error(cudaGetLastError());
}
template <typename Torus>
__global__ void device_integer_radix_scalar_subtraction_inplace(
Torus *lwe_array, Torus *scalar_input, int32_t num_blocks,
uint32_t lwe_dimension, uint64_t delta) {
int tid = blockIdx.x * blockDim.x + threadIdx.x;
if (tid < num_blocks) {
Torus scalar = scalar_input[tid];
Torus *body = lwe_array + tid * (lwe_dimension + 1) + lwe_dimension;
*body -= scalar * delta;
}
}
template <typename Torus>
__host__ void host_integer_radix_scalar_subtraction_inplace(
cuda_stream_t *stream, Torus *lwe_array, Torus *scalar_input,
uint32_t lwe_dimension, uint32_t input_lwe_ciphertext_count,
uint32_t message_modulus, uint32_t carry_modulus) {
cudaSetDevice(stream->gpu_index);
// Create a 1-dimensional grid of threads
int num_blocks = 0, num_threads = 0;
int num_entries = input_lwe_ciphertext_count;
getNumBlocksAndThreads(num_entries, 512, num_blocks, num_threads);
dim3 grid(num_blocks, 1, 1);
dim3 thds(num_threads, 1, 1);
// Value of the shift we multiply our messages by
// If message_modulus and carry_modulus are always powers of 2 we can simplify
// this
uint64_t delta = ((uint64_t)1 << 63) / (message_modulus * carry_modulus);
device_integer_radix_scalar_subtraction_inplace<<<grid, thds, 0,
stream->stream>>>(
lwe_array, scalar_input, input_lwe_ciphertext_count, lwe_dimension,
delta);
check_cuda_error(cudaGetLastError());
}
#endif

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@@ -1,14 +0,0 @@
#include "integer/scalar_bitops.cuh"
void cuda_scalar_bitop_integer_radix_ciphertext_kb_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_input,
void *clear_blocks, uint32_t num_clear_blocks, int8_t *mem_ptr, void *bsk,
void *ksk, uint32_t lwe_ciphertext_count, BITOP_TYPE op) {
host_integer_radix_scalar_bitop_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_input),
static_cast<uint64_t *>(clear_blocks), num_clear_blocks,
(int_bitop_buffer<uint64_t> *)mem_ptr, bsk, static_cast<uint64_t *>(ksk),
lwe_ciphertext_count, op);
}

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@@ -1,49 +0,0 @@
#ifndef CUDA_INTEGER_SCALAR_BITWISE_OPS_CUH
#define CUDA_INTEGER_SCALAR_BITWISE_OPS_CUH
#include "integer/bitwise_ops.cuh"
#include <omp.h>
template <typename Torus>
__host__ void host_integer_radix_scalar_bitop_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_input,
Torus *clear_blocks, uint32_t num_clear_blocks,
int_bitop_buffer<Torus> *mem_ptr, void *bsk, Torus *ksk,
uint32_t num_radix_blocks, BITOP_TYPE op) {
auto lut = mem_ptr->lut;
auto params = lut->params;
auto big_lwe_dimension = params.big_lwe_dimension;
uint32_t lwe_size = big_lwe_dimension + 1;
if (num_clear_blocks == 0) {
if (op == SCALAR_BITAND) {
cuda_memset_async(lwe_array_out, 0,
num_radix_blocks * lwe_size * sizeof(Torus), stream);
} else {
cuda_memcpy_async_gpu_to_gpu(lwe_array_out, lwe_array_input,
num_radix_blocks * lwe_size * sizeof(Torus),
stream);
}
} else {
// We have all possible LUTs pre-computed and we use the decomposed scalar
// as index to recover the right one
cuda_memcpy_async_gpu_to_gpu(lut->lut_indexes, clear_blocks,
num_clear_blocks * sizeof(Torus), stream);
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array_out, lwe_array_input, bsk, ksk, num_clear_blocks,
lut);
if (op == SCALAR_BITAND && num_clear_blocks < num_radix_blocks) {
auto lwe_array_out_block = lwe_array_out + num_clear_blocks * lwe_size;
cuda_memset_async(lwe_array_out_block, 0,
(num_radix_blocks - num_clear_blocks) * lwe_size *
sizeof(Torus),
stream);
}
}
}
#endif

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@@ -1,41 +0,0 @@
#include "integer/scalar_comparison.cuh"
void cuda_scalar_comparison_integer_radix_ciphertext_kb_64(
cuda_stream_t *stream, void *lwe_array_out, void *lwe_array_in,
void *scalar_blocks, int8_t *mem_ptr, void *bsk, void *ksk,
uint32_t lwe_ciphertext_count, uint32_t num_scalar_blocks) {
int_comparison_buffer<uint64_t> *buffer =
(int_comparison_buffer<uint64_t> *)mem_ptr;
switch (buffer->op) {
case EQ:
case NE:
host_integer_radix_scalar_equality_check_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_in),
static_cast<uint64_t *>(scalar_blocks), buffer, bsk,
static_cast<uint64_t *>(ksk), lwe_ciphertext_count, num_scalar_blocks);
break;
case GT:
case GE:
case LT:
case LE:
host_integer_radix_scalar_difference_check_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_in),
static_cast<uint64_t *>(scalar_blocks), buffer,
buffer->diff_buffer->operator_f, bsk, static_cast<uint64_t *>(ksk),
lwe_ciphertext_count, num_scalar_blocks);
break;
case MAX:
case MIN:
host_integer_radix_scalar_maxmin_kb<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array_out),
static_cast<uint64_t *>(lwe_array_in),
static_cast<uint64_t *>(scalar_blocks), buffer, bsk,
static_cast<uint64_t *>(ksk), lwe_ciphertext_count, num_scalar_blocks);
break;
default:
PANIC("Cuda error: integer operation not supported");
}
}

View File

@@ -1,400 +0,0 @@
#ifndef CUDA_INTEGER_SCALAR_COMPARISON_OPS_CUH
#define CUDA_INTEGER_SCALAR_COMPARISON_OPS_CUH
#include "integer/comparison.cuh"
#include <omp.h>
template <typename Torus>
__host__ void host_integer_radix_scalar_difference_check_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_in,
Torus *scalar_blocks, int_comparison_buffer<Torus> *mem_ptr,
std::function<Torus(Torus)> sign_handler_f, void *bsk, Torus *ksk,
uint32_t total_num_radix_blocks, uint32_t total_num_scalar_blocks) {
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto glwe_dimension = params.glwe_dimension;
auto polynomial_size = params.polynomial_size;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
auto diff_buffer = mem_ptr->diff_buffer;
size_t big_lwe_size = big_lwe_dimension + 1;
size_t big_lwe_size_bytes = big_lwe_size * sizeof(Torus);
// Reducing the signs is the bottleneck of the comparison algorithms,
// however if the scalar case there is an improvement:
//
// The idea is to reduce the number of signs block we have to
// reduce. We can do that by splitting the comparison problem in two parts.
//
// - One part where we compute the signs block between the scalar with just
// enough blocks
// from the ciphertext that can represent the scalar value
//
// - The other part is to compare the ciphertext blocks not considered for the
// sign
// computation with zero, and create a single sign block from that.
//
// The smaller the scalar value is compared to the ciphertext num bits
// encrypted, the more the comparisons with zeros we have to do, and the less
// signs block we will have to reduce.
//
// This will create a speedup as comparing a bunch of blocks with 0
// is faster
if (total_num_scalar_blocks == 0) {
// We only have to compare blocks with zero
// means scalar is zero
host_compare_with_zero_equality(
stream, mem_ptr->tmp_lwe_array_out, lwe_array_in, mem_ptr, bsk, ksk,
total_num_radix_blocks, mem_ptr->is_zero_lut);
auto scalar_last_leaf_lut_f = [sign_handler_f](Torus x) -> Torus {
x = (x == 1 ? IS_EQUAL : IS_SUPERIOR);
return sign_handler_f(x);
};
auto lut = mem_ptr->diff_buffer->tree_buffer->tree_last_leaf_scalar_lut;
generate_device_accumulator<Torus>(stream, lut->lut, glwe_dimension,
polynomial_size, message_modulus,
carry_modulus, scalar_last_leaf_lut_f);
integer_radix_apply_univariate_lookup_table_kb<Torus>(
stream, lwe_array_out, mem_ptr->tmp_lwe_array_out, bsk, ksk, 1, lut);
// The result will be in the two first block. Everything else is
// garbage.
cuda_memset_async(lwe_array_out + big_lwe_size, 0,
big_lwe_size_bytes * (total_num_radix_blocks - 1),
stream);
} else if (total_num_scalar_blocks < total_num_radix_blocks) {
// We have to handle both part of the work described above
uint32_t num_lsb_radix_blocks = total_num_scalar_blocks;
uint32_t num_msb_radix_blocks =
total_num_radix_blocks - num_lsb_radix_blocks;
auto lsb = lwe_array_in;
auto msb = lwe_array_in + num_lsb_radix_blocks * big_lwe_size;
auto lwe_array_lsb_out = mem_ptr->tmp_lwe_array_out;
auto lwe_array_msb_out = lwe_array_lsb_out + big_lwe_size;
cuda_synchronize_stream(stream);
auto lsb_stream = mem_ptr->lsb_stream;
auto msb_stream = mem_ptr->msb_stream;
#pragma omp parallel sections
{
// Both sections may be executed in parallel
#pragma omp section
{
//////////////
// lsb
Torus *lhs = diff_buffer->tmp_packed_left;
Torus *rhs = diff_buffer->tmp_packed_right;
pack_blocks(lsb_stream, lhs, lwe_array_in, big_lwe_dimension,
num_lsb_radix_blocks, message_modulus);
pack_blocks(lsb_stream, rhs, scalar_blocks, 0, total_num_scalar_blocks,
message_modulus);
// From this point we have half number of blocks
num_lsb_radix_blocks /= 2;
num_lsb_radix_blocks += (total_num_scalar_blocks % 2);
// comparisons will be assigned
// - 0 if lhs < rhs
// - 1 if lhs == rhs
// - 2 if lhs > rhs
auto comparisons = mem_ptr->tmp_block_comparisons;
scalar_compare_radix_blocks_kb(lsb_stream, comparisons, lhs, rhs,
mem_ptr, bsk, ksk, num_lsb_radix_blocks);
// Reduces a vec containing radix blocks that encrypts a sign
// (inferior, equal, superior) to one single radix block containing the
// final sign
tree_sign_reduction(lsb_stream, lwe_array_lsb_out, comparisons,
mem_ptr->diff_buffer->tree_buffer,
mem_ptr->cleaning_lut_f, bsk, ksk,
num_lsb_radix_blocks);
}
#pragma omp section
{
//////////////
// msb
host_compare_with_zero_equality(msb_stream, lwe_array_msb_out, msb,
mem_ptr, bsk, ksk, num_msb_radix_blocks,
mem_ptr->is_zero_lut);
}
}
cuda_synchronize_stream(lsb_stream);
cuda_synchronize_stream(msb_stream);
//////////////
// Reduce the two blocks into one final
auto scalar_bivariate_last_leaf_lut_f =
[sign_handler_f](Torus lsb, Torus msb) -> Torus {
if (msb == 1)
return sign_handler_f(lsb);
else
return sign_handler_f(IS_SUPERIOR);
};
auto lut = diff_buffer->tree_buffer->tree_last_leaf_scalar_lut;
generate_device_accumulator_bivariate<Torus>(
stream, lut->lut, glwe_dimension, polynomial_size, message_modulus,
carry_modulus, scalar_bivariate_last_leaf_lut_f);
integer_radix_apply_bivariate_lookup_table_kb(
stream, lwe_array_out, lwe_array_lsb_out, lwe_array_msb_out, bsk, ksk,
1, lut);
// The result will be in the first block. Everything else is garbage.
cuda_memset_async(lwe_array_out + big_lwe_size, 0,
(total_num_radix_blocks - 1) * big_lwe_size_bytes,
stream);
} else {
// We only have to do the regular comparison
// And not the part where we compare most significant blocks with zeros
// total_num_radix_blocks == total_num_scalar_blocks
uint32_t num_lsb_radix_blocks = total_num_radix_blocks;
uint32_t num_scalar_blocks = total_num_scalar_blocks;
auto lsb = lwe_array_in;
Torus *lhs = diff_buffer->tmp_packed_left;
Torus *rhs = diff_buffer->tmp_packed_right;
pack_blocks(stream, lhs, lwe_array_in, big_lwe_dimension,
num_lsb_radix_blocks, message_modulus);
pack_blocks(stream, rhs, scalar_blocks, 0, num_scalar_blocks,
message_modulus);
// From this point we have half number of blocks
num_lsb_radix_blocks /= 2;
num_scalar_blocks /= 2;
// comparisons will be assigned
// - 0 if lhs < rhs
// - 1 if lhs == rhs
// - 2 if lhs > rhs
auto comparisons = mem_ptr->tmp_lwe_array_out;
scalar_compare_radix_blocks_kb(stream, comparisons, lhs, rhs, mem_ptr, bsk,
ksk, num_lsb_radix_blocks);
// Reduces a vec containing radix blocks that encrypts a sign
// (inferior, equal, superior) to one single radix block containing the
// final sign
tree_sign_reduction(stream, lwe_array_out, comparisons,
mem_ptr->diff_buffer->tree_buffer, sign_handler_f, bsk,
ksk, num_lsb_radix_blocks);
// The result will be in the first block. Everything else is garbage.
cuda_memset_async(lwe_array_out + big_lwe_size, 0,
(total_num_radix_blocks - 1) * big_lwe_size_bytes,
stream);
}
}
template <typename Torus>
__host__ void
scalar_compare_radix_blocks_kb(cuda_stream_t *stream, Torus *lwe_array_out,
Torus *lwe_array_in, Torus *scalar_blocks,
int_comparison_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks) {
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto message_modulus = params.message_modulus;
auto carry_modulus = params.carry_modulus;
// When rhs > lhs, the subtraction will overflow, and the bit of padding will
// be set to 1
// meaning that the output of the pbs will be the negative (modulo message
// space)
//
// Example:
// lhs: 1, rhs: 3, message modulus: 4, carry modulus 4
// lhs - rhs = -2 % (4 * 4) = 14 = 1|1110 (padding_bit|b4b3b2b1)
// Since there was an overflow the bit of padding is 1 and not 0.
// When applying the LUT for an input value of 14 we would expect 1,
// but since the bit of padding is 1, we will get -1 modulus our message
// space, so (-1) % (4 * 4) = 15 = 1|1111 We then add one and get 0 = 0|0000
auto subtracted_blocks = mem_ptr->tmp_block_comparisons;
cuda_memcpy_async_gpu_to_gpu(
subtracted_blocks, lwe_array_in,
num_radix_blocks * (big_lwe_dimension + 1) * sizeof(Torus), stream);
// Subtract
// Here we need the true lwe sub, not the one that comes from shortint.
host_integer_radix_scalar_subtraction_inplace(
stream, subtracted_blocks, scalar_blocks, big_lwe_dimension,
num_radix_blocks, message_modulus, carry_modulus);
// Apply LUT to compare to 0
auto sign_lut = mem_ptr->eq_buffer->is_non_zero_lut;
integer_radix_apply_univariate_lookup_table_kb(stream, lwe_array_out,
subtracted_blocks, bsk, ksk,
num_radix_blocks, sign_lut);
// Add one
// Here Lhs can have the following values: (-1) % (message modulus * carry
// modulus), 0, 1 So the output values after the addition will be: 0, 1, 2
host_integer_radix_add_scalar_one_inplace(stream, lwe_array_out,
big_lwe_dimension, num_radix_blocks,
message_modulus, carry_modulus);
}
template <typename Torus>
__host__ void host_integer_radix_scalar_maxmin_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_in,
Torus *scalar_blocks, int_comparison_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t total_num_radix_blocks,
uint32_t total_num_scalar_blocks) {
auto params = mem_ptr->params;
// Calculates the difference sign between the ciphertext and the scalar
// - 0 if lhs < rhs
// - 1 if lhs == rhs
// - 2 if lhs > rhs
auto sign = mem_ptr->tmp_lwe_array_out;
host_integer_radix_scalar_difference_check_kb(
stream, sign, lwe_array_in, scalar_blocks, mem_ptr,
mem_ptr->cleaning_lut_f, bsk, ksk, total_num_radix_blocks,
total_num_scalar_blocks);
// There is no optimized CMUX for scalars, so we convert to a trivial
// ciphertext
auto lwe_array_left = lwe_array_in;
auto lwe_array_right = mem_ptr->tmp_block_comparisons;
create_trivial_radix(stream, lwe_array_right, scalar_blocks,
params.big_lwe_dimension, total_num_radix_blocks,
total_num_scalar_blocks, params.message_modulus,
params.carry_modulus);
// Selector
// CMUX for Max or Min
host_integer_radix_cmux_kb(
stream, lwe_array_out, mem_ptr->tmp_lwe_array_out, lwe_array_left,
lwe_array_right, mem_ptr->cmux_buffer, bsk, ksk, total_num_radix_blocks);
}
template <typename Torus>
__host__ void host_integer_radix_scalar_equality_check_kb(
cuda_stream_t *stream, Torus *lwe_array_out, Torus *lwe_array_in,
Torus *scalar_blocks, int_comparison_buffer<Torus> *mem_ptr, void *bsk,
Torus *ksk, uint32_t num_radix_blocks, uint32_t num_scalar_blocks) {
auto params = mem_ptr->params;
auto big_lwe_dimension = params.big_lwe_dimension;
auto message_modulus = params.message_modulus;
auto eq_buffer = mem_ptr->eq_buffer;
size_t big_lwe_size = big_lwe_dimension + 1;
size_t big_lwe_size_bytes = big_lwe_size * sizeof(Torus);
auto scalar_comparison_luts = eq_buffer->scalar_comparison_luts;
uint32_t num_halved_scalar_blocks =
(num_scalar_blocks / 2) + (num_scalar_blocks % 2);
uint32_t num_lsb_radix_blocks =
std::min(num_radix_blocks, 2 * num_halved_scalar_blocks);
uint32_t num_msb_radix_blocks = num_radix_blocks - num_lsb_radix_blocks;
uint32_t num_halved_lsb_radix_blocks =
(num_lsb_radix_blocks / 2) + (num_lsb_radix_blocks % 2);
auto lsb = lwe_array_in;
auto msb = lwe_array_in + big_lwe_size * num_lsb_radix_blocks;
auto lwe_array_lsb_out = mem_ptr->tmp_lwe_array_out;
auto lwe_array_msb_out =
lwe_array_lsb_out + big_lwe_size * num_halved_lsb_radix_blocks;
cuda_synchronize_stream(stream);
auto lsb_stream = mem_ptr->lsb_stream;
auto msb_stream = mem_ptr->msb_stream;
#pragma omp parallel sections
{
// Both sections may be executed in parallel
#pragma omp section
{
if (num_halved_scalar_blocks > 0) {
auto packed_blocks = mem_ptr->tmp_packed_input;
auto packed_scalar =
packed_blocks + big_lwe_size * num_halved_lsb_radix_blocks;
pack_blocks(lsb_stream, packed_blocks, lsb, big_lwe_dimension,
num_lsb_radix_blocks, message_modulus);
pack_blocks(lsb_stream, packed_scalar, scalar_blocks, 0,
num_scalar_blocks, message_modulus);
cuda_memcpy_async_gpu_to_gpu(
scalar_comparison_luts->lut_indexes, packed_scalar,
num_halved_scalar_blocks * sizeof(Torus), lsb_stream);
integer_radix_apply_univariate_lookup_table_kb(
lsb_stream, lwe_array_lsb_out, packed_blocks, bsk, ksk,
num_halved_lsb_radix_blocks, scalar_comparison_luts);
}
}
#pragma omp section
{
//////////////
// msb
if (num_msb_radix_blocks > 0) {
int_radix_lut<Torus> *msb_lut;
switch (mem_ptr->op) {
case COMPARISON_TYPE::EQ:
msb_lut = mem_ptr->is_zero_lut;
break;
case COMPARISON_TYPE::NE:
msb_lut = mem_ptr->eq_buffer->is_non_zero_lut;
break;
default:
PANIC("Cuda error: integer operation not supported");
}
host_compare_with_zero_equality(msb_stream, lwe_array_msb_out, msb,
mem_ptr, bsk, ksk, num_msb_radix_blocks,
msb_lut);
}
}
}
cuda_synchronize_stream(lsb_stream);
cuda_synchronize_stream(msb_stream);
switch (mem_ptr->op) {
case COMPARISON_TYPE::EQ:
are_all_comparisons_block_true(
stream, lwe_array_out, lwe_array_lsb_out, mem_ptr, bsk, ksk,
num_halved_scalar_blocks + (num_msb_radix_blocks > 0));
break;
case COMPARISON_TYPE::NE:
is_at_least_one_comparisons_block_true(
stream, lwe_array_out, lwe_array_lsb_out, mem_ptr, bsk, ksk,
num_halved_scalar_blocks + (num_msb_radix_blocks > 0));
break;
default:
PANIC("Cuda error: integer operation not supported");
}
// The result will be in the two first block. Everything else is
// garbage.
if (num_radix_blocks > 1)
cuda_memset_async(lwe_array_out + big_lwe_size, 0,
big_lwe_size_bytes * (num_radix_blocks - 1), stream);
}
#endif

View File

@@ -1,40 +0,0 @@
#include "scalar_rotate.cuh"
void scratch_cuda_integer_radix_scalar_rotate_kb_64(
cuda_stream_t *stream, int8_t **mem_ptr, uint32_t glwe_dimension,
uint32_t polynomial_size, uint32_t big_lwe_dimension,
uint32_t small_lwe_dimension, uint32_t ks_level, uint32_t ks_base_log,
uint32_t pbs_level, uint32_t pbs_base_log, uint32_t grouping_factor,
uint32_t num_blocks, uint32_t message_modulus, uint32_t carry_modulus,
PBS_TYPE pbs_type, SHIFT_TYPE shift_type, bool allocate_gpu_memory) {
int_radix_params params(pbs_type, glwe_dimension, polynomial_size,
big_lwe_dimension, small_lwe_dimension, ks_level,
ks_base_log, pbs_level, pbs_base_log, grouping_factor,
message_modulus, carry_modulus);
scratch_cuda_integer_radix_scalar_rotate_kb<uint64_t>(
stream, (int_shift_buffer<uint64_t> **)mem_ptr, num_blocks, params,
shift_type, allocate_gpu_memory);
}
void cuda_integer_radix_scalar_rotate_kb_64_inplace(cuda_stream_t *stream,
void *lwe_array, uint32_t n,
int8_t *mem_ptr, void *bsk,
void *ksk,
uint32_t num_blocks) {
host_integer_radix_scalar_rotate_kb_inplace<uint64_t>(
stream, static_cast<uint64_t *>(lwe_array), n,
(int_shift_buffer<uint64_t> *)mem_ptr, bsk, static_cast<uint64_t *>(ksk),
num_blocks);
}
void cleanup_cuda_integer_radix_scalar_rotate(cuda_stream_t *stream,
int8_t **mem_ptr_void) {
int_shift_buffer<uint64_t> *mem_ptr =
(int_shift_buffer<uint64_t> *)(*mem_ptr_void);
mem_ptr->release(stream);
}

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