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Author SHA1 Message Date
psychedelicious
825f163492 chore: bump version to v5.4.0a1 2024-10-30 11:06:01 +11:00
472 changed files with 10879 additions and 27498 deletions

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@@ -19,4 +19,3 @@
- [ ] _The PR has a short but descriptive title, suitable for a changelog_
- [ ] _Tests added / updated (if applicable)_
- [ ] _Documentation added / updated (if applicable)_
- [ ] _Updated `What's New` copy (if doing a release after this PR)_

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@@ -1,14 +0,0 @@
# Security Policy
## Supported Versions
Only the latest version of Invoke will receive security updates.
We do not currently maintain multiple versions of the application with updates.
## Reporting a Vulnerability
To report a vulnerability, contact the Invoke team directly at security@invoke.ai
At this time, we do not maintain a formal bug bounty program.
You can also share identified security issues with our team on huntr.com

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@@ -1364,6 +1364,7 @@ the in-memory loaded model:
|----------------|-----------------|------------------|
| `config` | AnyModelConfig | A copy of the model's configuration record for retrieving base type, etc. |
| `model` | AnyModel | The instantiated model (details below) |
| `locker` | ModelLockerBase | A context manager that mediates the movement of the model into VRAM |
### get_model_by_key(key, [submodel]) -> LoadedModel

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@@ -5,7 +5,7 @@ If you're a new contributor to InvokeAI or Open Source Projects, this is the gui
## New Contributor Checklist
- [x] Set up your local development environment & fork of InvokAI by following [the steps outlined here](../dev-environment.md)
- [x] Set up your local tooling with [this guide](../LOCAL_DEVELOPMENT.md). Feel free to skip this step if you already have tooling you're comfortable with.
- [x] Set up your local tooling with [this guide](InvokeAI/contributing/LOCAL_DEVELOPMENT/#developing-invokeai-in-vscode). Feel free to skip this step if you already have tooling you're comfortable with.
- [x] Familiarize yourself with [Git](https://www.atlassian.com/git) & our project structure by reading through the [development documentation](development.md)
- [x] Join the [#dev-chat](https://discord.com/channels/1020123559063990373/1049495067846524939) channel of the Discord
- [x] Choose an issue to work on! This can be achieved by asking in the #dev-chat channel, tackling a [good first issue](https://github.com/invoke-ai/InvokeAI/contribute) or finding an item on the [roadmap](https://github.com/orgs/invoke-ai/projects/7). If nothing in any of those places catches your eye, feel free to work on something of interest to you!

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@@ -38,7 +38,7 @@ This project is a combined effort of dedicated people from across the world. [C
## Code of Conduct
The InvokeAI community is a welcoming place, and we want your help in maintaining that. Please review our [Code of Conduct](https://github.com/invoke-ai/InvokeAI/blob/main/docs/CODE_OF_CONDUCT.md) to learn more - it's essential to maintaining a respectful and inclusive environment.
The InvokeAI community is a welcoming place, and we want your help in maintaining that. Please review our [Code of Conduct](https://github.com/invoke-ai/InvokeAI/blob/main/CODE_OF_CONDUCT.md) to learn more - it's essential to maintaining a respectful and inclusive environment.
By making a contribution to this project, you certify that:

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@@ -209,7 +209,7 @@ checkpoint models.
To solve this, go to the Model Manager tab (the cube), select the
checkpoint model that's giving you trouble, and press the "Convert"
button in the upper right of your browser window. This will convert the
button in the upper right of your browser window. This will conver the
checkpoint into a diffusers model, after which loading should be
faster and less memory-intensive.

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@@ -97,16 +97,16 @@ Prior to installing PyPatchMatch, you need to take the following steps:
sudo pacman -S --needed base-devel
```
2. Install `opencv`, `blas`, and required dependencies:
2. Install `opencv` and `blas`:
```sh
sudo pacman -S opencv blas fmt glew vtk hdf5
sudo pacman -S opencv blas
```
or for CUDA support
```sh
sudo pacman -S opencv-cuda blas fmt glew vtk hdf5
sudo pacman -S opencv-cuda blas
```
3. Fix the naming of the `opencv` package configuration file:

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@@ -99,6 +99,7 @@ their descriptions.
| Scale Latents | Scales latents by a given factor. |
| Segment Anything Processor | Applies segment anything processing to image |
| Show Image | Displays a provided image, and passes it forward in the pipeline. |
| Step Param Easing | Experimental per-step parameter easing for denoising steps |
| String Primitive Collection | A collection of string primitive values |
| String Primitive | A string primitive value |
| Subtract Integers | Subtracts two numbers |

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@@ -259,7 +259,7 @@ def select_gpu() -> GpuType:
[
f"Detected the [gold1]{OS}-{ARCH}[/] platform",
"",
"See [deep_sky_blue1]https://invoke-ai.github.io/InvokeAI/installation/requirements/[/] to ensure your system meets the minimum requirements.",
"See [deep_sky_blue1]https://invoke-ai.github.io/InvokeAI/#system[/] to ensure your system meets the minimum requirements.",
"",
"[red3]🠶[/] [b]Your GPU drivers must be correctly installed before using InvokeAI![/] [red3]🠴[/]",
]

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@@ -68,7 +68,7 @@ do_line_input() {
printf "2: Open the developer console\n"
printf "3: Command-line help\n"
printf "Q: Quit\n\n"
printf "To update, download and run the installer from https://github.com/invoke-ai/InvokeAI/releases/latest\n\n"
printf "To update, download and run the installer from https://github.com/invoke-ai/InvokeAI/releases/latest.\n\n"
read -p "Please enter 1-4, Q: [1] " yn
choice=${yn:='1'}
do_choice $choice

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@@ -40,8 +40,6 @@ class AppVersion(BaseModel):
version: str = Field(description="App version")
highlights: Optional[list[str]] = Field(default=None, description="Highlights of release")
class AppDependencyVersions(BaseModel):
"""App depencency Versions Response"""

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@@ -1,7 +1,6 @@
# Copyright (c) 2023 Lincoln D. Stein
"""FastAPI route for model configuration records."""
import contextlib
import io
import pathlib
import shutil
@@ -11,7 +10,6 @@ from enum import Enum
from tempfile import TemporaryDirectory
from typing import List, Optional, Type
import huggingface_hub
from fastapi import Body, Path, Query, Response, UploadFile
from fastapi.responses import FileResponse, HTMLResponse
from fastapi.routing import APIRouter
@@ -29,7 +27,6 @@ from invokeai.app.services.model_records import (
ModelRecordChanges,
UnknownModelException,
)
from invokeai.app.util.suppress_output import SuppressOutput
from invokeai.backend.model_manager.config import (
AnyModelConfig,
BaseModelType,
@@ -37,7 +34,7 @@ from invokeai.backend.model_manager.config import (
ModelFormat,
ModelType,
)
from invokeai.backend.model_manager.load.model_cache.cache_stats import CacheStats
from invokeai.backend.model_manager.load.model_cache.model_cache_base import CacheStats
from invokeai.backend.model_manager.metadata.fetch.huggingface import HuggingFaceMetadataFetch
from invokeai.backend.model_manager.metadata.metadata_base import ModelMetadataWithFiles, UnknownMetadataException
from invokeai.backend.model_manager.search import ModelSearch
@@ -926,51 +923,3 @@ async def get_stats() -> Optional[CacheStats]:
"""Return performance statistics on the model manager's RAM cache. Will return null if no models have been loaded."""
return ApiDependencies.invoker.services.model_manager.load.ram_cache.stats
class HFTokenStatus(str, Enum):
VALID = "valid"
INVALID = "invalid"
UNKNOWN = "unknown"
class HFTokenHelper:
@classmethod
def get_status(cls) -> HFTokenStatus:
try:
if huggingface_hub.get_token_permission(huggingface_hub.get_token()):
# Valid token!
return HFTokenStatus.VALID
# No token set
return HFTokenStatus.INVALID
except Exception:
return HFTokenStatus.UNKNOWN
@classmethod
def set_token(cls, token: str) -> HFTokenStatus:
with SuppressOutput(), contextlib.suppress(Exception):
huggingface_hub.login(token=token, add_to_git_credential=False)
return cls.get_status()
@model_manager_router.get("/hf_login", operation_id="get_hf_login_status", response_model=HFTokenStatus)
async def get_hf_login_status() -> HFTokenStatus:
token_status = HFTokenHelper.get_status()
if token_status is HFTokenStatus.UNKNOWN:
ApiDependencies.invoker.services.logger.warning("Unable to verify HF token")
return token_status
@model_manager_router.post("/hf_login", operation_id="do_hf_login", response_model=HFTokenStatus)
async def do_hf_login(
token: str = Body(description="Hugging Face token to use for login", embed=True),
) -> HFTokenStatus:
HFTokenHelper.set_token(token)
token_status = HFTokenHelper.get_status()
if token_status is HFTokenStatus.UNKNOWN:
ApiDependencies.invoker.services.logger.warning("Unable to verify HF token")
return token_status

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@@ -110,7 +110,7 @@ async def cancel_by_batch_ids(
@session_queue_router.put(
"/{queue_id}/cancel_by_destination",
operation_id="cancel_by_destination",
responses={200: {"model": CancelByDestinationResult}},
responses={200: {"model": CancelByBatchIDsResult}},
)
async def cancel_by_destination(
queue_id: str = Path(description="The queue id to perform this operation on"),

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@@ -4,7 +4,6 @@ from __future__ import annotations
import inspect
import re
import sys
import warnings
from abc import ABC, abstractmethod
from enum import Enum
@@ -63,7 +62,6 @@ class Classification(str, Enum, metaclass=MetaEnum):
- `Prototype`: The invocation is not yet stable and may be removed from the application at any time. Workflows built around this invocation may break, and we are *not* committed to supporting this invocation.
- `Deprecated`: The invocation is deprecated and may be removed in a future version.
- `Internal`: The invocation is not intended for use by end-users. It may be changed or removed at any time, but is exposed for users to play with.
- `Special`: The invocation is a special case and does not fit into any of the other classifications.
"""
Stable = "stable"
@@ -71,7 +69,6 @@ class Classification(str, Enum, metaclass=MetaEnum):
Prototype = "prototype"
Deprecated = "deprecated"
Internal = "internal"
Special = "special"
class UIConfigBase(BaseModel):
@@ -195,19 +192,12 @@ class BaseInvocation(ABC, BaseModel):
"""Gets a pydantc TypeAdapter for the union of all invocation types."""
if not cls._typeadapter or cls._typeadapter_needs_update:
AnyInvocation = TypeAliasType(
"AnyInvocation", Annotated[Union[tuple(cls.get_invocations())], Field(discriminator="type")]
"AnyInvocation", Annotated[Union[tuple(cls._invocation_classes)], Field(discriminator="type")]
)
cls._typeadapter = TypeAdapter(AnyInvocation)
cls._typeadapter_needs_update = False
return cls._typeadapter
@classmethod
def invalidate_typeadapter(cls) -> None:
"""Invalidates the typeadapter, forcing it to be rebuilt on next access. If the invocation allowlist or
denylist is changed, this should be called to ensure the typeadapter is updated and validation respects
the updated allowlist and denylist."""
cls._typeadapter_needs_update = True
@classmethod
def get_invocations(cls) -> Iterable[BaseInvocation]:
"""Gets all invocations, respecting the allowlist and denylist."""
@@ -489,26 +479,6 @@ def invocation(
title="type", default=invocation_type, json_schema_extra={"field_kind": FieldKind.NodeAttribute}
)
# Validate the `invoke()` method is implemented
if "invoke" in cls.__abstractmethods__:
raise ValueError(f'Invocation "{invocation_type}" must implement the "invoke" method')
# And validate that `invoke()` returns a subclass of `BaseInvocationOutput
invoke_return_annotation = signature(cls.invoke).return_annotation
try:
# TODO(psyche): If `invoke()` is not defined, `return_annotation` ends up as the string "BaseInvocationOutput"
# instead of the class `BaseInvocationOutput`. This may be a pydantic bug: https://github.com/pydantic/pydantic/issues/7978
if isinstance(invoke_return_annotation, str):
invoke_return_annotation = getattr(sys.modules[cls.__module__], invoke_return_annotation)
assert invoke_return_annotation is not BaseInvocationOutput
assert issubclass(invoke_return_annotation, BaseInvocationOutput)
except Exception:
raise ValueError(
f'Invocation "{invocation_type}" must have a return annotation of a subclass of BaseInvocationOutput (got "{invoke_return_annotation}")'
)
docstring = cls.__doc__
cls = create_model(
cls.__qualname__,

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@@ -1,120 +1,98 @@
from typing import Optional, Union
from typing import Any, Union
import numpy as np
import numpy.typing as npt
import torch
import torchvision.transforms as T
from PIL import Image
from torchvision.transforms.functional import resize as tv_resize
from invokeai.app.invocations.baseinvocation import BaseInvocation, invocation
from invokeai.app.invocations.fields import FieldDescriptions, ImageField, Input, InputField, LatentsField
from invokeai.app.invocations.fields import FieldDescriptions, Input, InputField, LatentsField
from invokeai.app.invocations.primitives import LatentsOutput
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.backend.stable_diffusion.diffusers_pipeline import image_resized_to_grid_as_tensor
from invokeai.backend.util.devices import TorchDevice
def slerp(
t: Union[float, np.ndarray],
v0: Union[torch.Tensor, np.ndarray],
v1: Union[torch.Tensor, np.ndarray],
device: torch.device,
DOT_THRESHOLD: float = 0.9995,
):
"""
Spherical linear interpolation
Args:
t (float/np.ndarray): Float value between 0.0 and 1.0
v0 (np.ndarray): Starting vector
v1 (np.ndarray): Final vector
DOT_THRESHOLD (float): Threshold for considering the two vectors as
colineal. Not recommended to alter this.
Returns:
v2 (np.ndarray): Interpolation vector between v0 and v1
"""
inputs_are_torch = False
if not isinstance(v0, np.ndarray):
inputs_are_torch = True
v0 = v0.detach().cpu().numpy()
if not isinstance(v1, np.ndarray):
inputs_are_torch = True
v1 = v1.detach().cpu().numpy()
dot = np.sum(v0 * v1 / (np.linalg.norm(v0) * np.linalg.norm(v1)))
if np.abs(dot) > DOT_THRESHOLD:
v2 = (1 - t) * v0 + t * v1
else:
theta_0 = np.arccos(dot)
sin_theta_0 = np.sin(theta_0)
theta_t = theta_0 * t
sin_theta_t = np.sin(theta_t)
s0 = np.sin(theta_0 - theta_t) / sin_theta_0
s1 = sin_theta_t / sin_theta_0
v2 = s0 * v0 + s1 * v1
if inputs_are_torch:
v2 = torch.from_numpy(v2).to(device)
return v2
@invocation(
"lblend",
title="Blend Latents",
tags=["latents", "blend", "mask"],
tags=["latents", "blend"],
category="latents",
version="1.1.0",
version="1.0.3",
)
class BlendLatentsInvocation(BaseInvocation):
"""Blend two latents using a given alpha. If a mask is provided, the second latents will be masked before blending.
Latents must have same size. Masking functionality added by @dwringer."""
"""Blend two latents using a given alpha. Latents must have same size."""
latents_a: LatentsField = InputField(description=FieldDescriptions.latents, input=Input.Connection)
latents_b: LatentsField = InputField(description=FieldDescriptions.latents, input=Input.Connection)
mask: Optional[ImageField] = InputField(default=None, description="Mask for blending in latents B")
alpha: float = InputField(ge=0, default=0.5, description=FieldDescriptions.blend_alpha)
def prep_mask_tensor(self, mask_image: Image.Image) -> torch.Tensor:
if mask_image.mode != "L":
mask_image = mask_image.convert("L")
mask_tensor = image_resized_to_grid_as_tensor(mask_image, normalize=False)
if mask_tensor.dim() == 3:
mask_tensor = mask_tensor.unsqueeze(0)
return mask_tensor
def replace_tensor_from_masked_tensor(
self, tensor: torch.Tensor, other_tensor: torch.Tensor, mask_tensor: torch.Tensor
):
output = tensor.clone()
mask_tensor = mask_tensor.expand(output.shape)
if output.dtype != torch.float16:
output = torch.add(output, mask_tensor * torch.sub(other_tensor, tensor))
else:
output = torch.add(output, mask_tensor.half() * torch.sub(other_tensor, tensor))
return output
latents_a: LatentsField = InputField(
description=FieldDescriptions.latents,
input=Input.Connection,
)
latents_b: LatentsField = InputField(
description=FieldDescriptions.latents,
input=Input.Connection,
)
alpha: float = InputField(default=0.5, description=FieldDescriptions.blend_alpha)
def invoke(self, context: InvocationContext) -> LatentsOutput:
latents_a = context.tensors.load(self.latents_a.latents_name)
latents_b = context.tensors.load(self.latents_b.latents_name)
if self.mask is None:
mask_tensor = torch.zeros(latents_a.shape[-2:])
else:
mask_tensor = self.prep_mask_tensor(context.images.get_pil(self.mask.image_name))
mask_tensor = tv_resize(mask_tensor, latents_a.shape[-2:], T.InterpolationMode.BILINEAR, antialias=False)
latents_b = self.replace_tensor_from_masked_tensor(latents_b, latents_a, mask_tensor)
if latents_a.shape != latents_b.shape:
raise ValueError("Latents to blend must be the same size.")
raise Exception("Latents to blend must be the same size.")
device = TorchDevice.choose_torch_device()
def slerp(
t: Union[float, npt.NDArray[Any]], # FIXME: maybe use np.float32 here?
v0: Union[torch.Tensor, npt.NDArray[Any]],
v1: Union[torch.Tensor, npt.NDArray[Any]],
DOT_THRESHOLD: float = 0.9995,
) -> Union[torch.Tensor, npt.NDArray[Any]]:
"""
Spherical linear interpolation
Args:
t (float/np.ndarray): Float value between 0.0 and 1.0
v0 (np.ndarray): Starting vector
v1 (np.ndarray): Final vector
DOT_THRESHOLD (float): Threshold for considering the two vectors as
colineal. Not recommended to alter this.
Returns:
v2 (np.ndarray): Interpolation vector between v0 and v1
"""
inputs_are_torch = False
if not isinstance(v0, np.ndarray):
inputs_are_torch = True
v0 = v0.detach().cpu().numpy()
if not isinstance(v1, np.ndarray):
inputs_are_torch = True
v1 = v1.detach().cpu().numpy()
dot = np.sum(v0 * v1 / (np.linalg.norm(v0) * np.linalg.norm(v1)))
if np.abs(dot) > DOT_THRESHOLD:
v2 = (1 - t) * v0 + t * v1
else:
theta_0 = np.arccos(dot)
sin_theta_0 = np.sin(theta_0)
theta_t = theta_0 * t
sin_theta_t = np.sin(theta_t)
s0 = np.sin(theta_0 - theta_t) / sin_theta_0
s1 = sin_theta_t / sin_theta_0
v2 = s0 * v0 + s1 * v1
if inputs_are_torch:
v2_torch: torch.Tensor = torch.from_numpy(v2).to(device)
return v2_torch
else:
assert isinstance(v2, np.ndarray)
return v2
# blend
blended_latents = slerp(self.alpha, latents_a, latents_b, device)
bl = slerp(self.alpha, latents_a, latents_b)
assert isinstance(bl, torch.Tensor)
blended_latents: torch.Tensor = bl # for type checking convenience
# https://discuss.huggingface.co/t/memory-usage-by-later-pipeline-stages/23699
blended_latents = blended_latents.to("cpu")
torch.cuda.empty_cache()
TorchDevice.empty_cache()
name = context.tensors.save(tensor=blended_latents)
return LatentsOutput.build(latents_name=name, latents=blended_latents)
return LatentsOutput.build(latents_name=name, latents=blended_latents, seed=self.latents_a.seed)

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@@ -82,11 +82,10 @@ class CompelInvocation(BaseInvocation):
# apply all patches while the model is on the target device
text_encoder_info.model_on_device() as (cached_weights, text_encoder),
tokenizer_info as tokenizer,
LoRAPatcher.apply_smart_lora_patches(
LoRAPatcher.apply_lora_patches(
model=text_encoder,
patches=_lora_loader(),
prefix="lora_te_",
dtype=TorchDevice.choose_torch_dtype(),
cached_weights=cached_weights,
),
# Apply CLIP Skip after LoRA to prevent LoRA application from failing on skipped layers.
@@ -96,7 +95,6 @@ class CompelInvocation(BaseInvocation):
ti_manager,
),
):
context.util.signal_progress("Building conditioning")
assert isinstance(text_encoder, CLIPTextModel)
assert isinstance(tokenizer, CLIPTokenizer)
compel = Compel(
@@ -180,11 +178,10 @@ class SDXLPromptInvocationBase:
# apply all patches while the model is on the target device
text_encoder_info.model_on_device() as (cached_weights, text_encoder),
tokenizer_info as tokenizer,
LoRAPatcher.apply_smart_lora_patches(
LoRAPatcher.apply_lora_patches(
text_encoder,
patches=_lora_loader(),
prefix=lora_prefix,
dtype=TorchDevice.choose_torch_dtype(),
cached_weights=cached_weights,
),
# Apply CLIP Skip after LoRA to prevent LoRA application from failing on skipped layers.
@@ -194,7 +191,6 @@ class SDXLPromptInvocationBase:
ti_manager,
),
):
context.util.signal_progress("Building conditioning")
assert isinstance(text_encoder, (CLIPTextModel, CLIPTextModelWithProjection))
assert isinstance(tokenizer, CLIPTokenizer)

File diff suppressed because it is too large Load Diff

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@@ -65,7 +65,6 @@ class CreateDenoiseMaskInvocation(BaseInvocation):
img_mask = tv_resize(mask, image_tensor.shape[-2:], T.InterpolationMode.BILINEAR, antialias=False)
masked_image = image_tensor * torch.where(img_mask < 0.5, 0.0, 1.0)
# TODO:
context.util.signal_progress("Running VAE encoder")
masked_latents = ImageToLatentsInvocation.vae_encode(vae_info, self.fp32, self.tiled, masked_image.clone())
masked_latents_name = context.tensors.save(tensor=masked_latents)

View File

@@ -131,7 +131,6 @@ class CreateGradientMaskInvocation(BaseInvocation):
image_tensor = image_tensor.unsqueeze(0)
img_mask = tv_resize(mask, image_tensor.shape[-2:], T.InterpolationMode.BILINEAR, antialias=False)
masked_image = image_tensor * torch.where(img_mask < 0.5, 0.0, 1.0)
context.util.signal_progress("Running VAE encoder")
masked_latents = ImageToLatentsInvocation.vae_encode(
vae_info, self.fp32, self.tiled, masked_image.clone()
)

View File

@@ -622,7 +622,7 @@ class DenoiseLatentsInvocation(BaseInvocation):
for t2i_adapter_field in t2i_adapter:
t2i_adapter_model_config = context.models.get_config(t2i_adapter_field.t2i_adapter_model.key)
t2i_adapter_loaded_model = context.models.load(t2i_adapter_field.t2i_adapter_model)
image = context.images.get_pil(t2i_adapter_field.image.image_name, mode="RGB")
image = context.images.get_pil(t2i_adapter_field.image.image_name)
# The max_unet_downscale is the maximum amount that the UNet model downscales the latent image internally.
if t2i_adapter_model_config.base == BaseModelType.StableDiffusion1:
@@ -640,39 +640,29 @@ class DenoiseLatentsInvocation(BaseInvocation):
with t2i_adapter_loaded_model as t2i_adapter_model:
total_downscale_factor = t2i_adapter_model.total_downscale_factor
# Resize the T2I-Adapter input image.
# We select the resize dimensions so that after the T2I-Adapter's total_downscale_factor is applied, the
# result will match the latent image's dimensions after max_unet_downscale is applied.
t2i_input_height = latents_shape[2] // max_unet_downscale * total_downscale_factor
t2i_input_width = latents_shape[3] // max_unet_downscale * total_downscale_factor
# Note: We have hard-coded `do_classifier_free_guidance=False`. This is because we only want to prepare
# a single image. If CFG is enabled, we will duplicate the resultant tensor after applying the
# T2I-Adapter model.
#
# Note: We re-use the `prepare_control_image(...)` from ControlNet for T2I-Adapter, because it has many
# of the same requirements (e.g. preserving binary masks during resize).
# Assuming fixed dimensional scaling of LATENT_SCALE_FACTOR.
_, _, latent_height, latent_width = latents_shape
control_height_resize = latent_height * LATENT_SCALE_FACTOR
control_width_resize = latent_width * LATENT_SCALE_FACTOR
t2i_image = prepare_control_image(
image=image,
do_classifier_free_guidance=False,
width=control_width_resize,
height=control_height_resize,
width=t2i_input_width,
height=t2i_input_height,
num_channels=t2i_adapter_model.config["in_channels"], # mypy treats this as a FrozenDict
device=t2i_adapter_model.device,
dtype=t2i_adapter_model.dtype,
resize_mode=t2i_adapter_field.resize_mode,
)
# Resize the T2I-Adapter input image.
# We select the resize dimensions so that after the T2I-Adapter's total_downscale_factor is applied, the
# result will match the latent image's dimensions after max_unet_downscale is applied.
# We crop the image to this size so that the positions match the input image on non-standard resolutions
t2i_input_height = latents_shape[2] // max_unet_downscale * total_downscale_factor
t2i_input_width = latents_shape[3] // max_unet_downscale * total_downscale_factor
if t2i_image.shape[2] > t2i_input_height or t2i_image.shape[3] > t2i_input_width:
t2i_image = t2i_image[
:, :, : min(t2i_image.shape[2], t2i_input_height), : min(t2i_image.shape[3], t2i_input_width)
]
adapter_state = t2i_adapter_model(t2i_image)
if do_classifier_free_guidance:
@@ -1003,11 +993,10 @@ class DenoiseLatentsInvocation(BaseInvocation):
ModelPatcher.apply_freeu(unet, self.unet.freeu_config),
SeamlessExt.static_patch_model(unet, self.unet.seamless_axes), # FIXME
# Apply the LoRA after unet has been moved to its target device for faster patching.
LoRAPatcher.apply_smart_lora_patches(
LoRAPatcher.apply_lora_patches(
model=unet,
patches=_lora_loader(),
prefix="lora_unet_",
dtype=unet.dtype,
cached_weights=cached_weights,
),
):

View File

@@ -41,7 +41,6 @@ class UIType(str, Enum, metaclass=MetaEnum):
# region Model Field Types
MainModel = "MainModelField"
FluxMainModel = "FluxMainModelField"
SD3MainModel = "SD3MainModelField"
SDXLMainModel = "SDXLMainModelField"
SDXLRefinerModel = "SDXLRefinerModelField"
ONNXModel = "ONNXModelField"
@@ -53,8 +52,6 @@ class UIType(str, Enum, metaclass=MetaEnum):
T2IAdapterModel = "T2IAdapterModelField"
T5EncoderModel = "T5EncoderModelField"
CLIPEmbedModel = "CLIPEmbedModelField"
CLIPLEmbedModel = "CLIPLEmbedModelField"
CLIPGEmbedModel = "CLIPGEmbedModelField"
SpandrelImageToImageModel = "SpandrelImageToImageModelField"
# endregion
@@ -134,10 +131,8 @@ class FieldDescriptions:
clip = "CLIP (tokenizer, text encoder, LoRAs) and skipped layer count"
t5_encoder = "T5 tokenizer and text encoder"
clip_embed_model = "CLIP Embed loader"
clip_g_model = "CLIP-G Embed loader"
unet = "UNet (scheduler, LoRAs)"
transformer = "Transformer"
mmditx = "MMDiTX"
vae = "VAE"
cond = "Conditioning tensor"
controlnet_model = "ControlNet model to load"
@@ -145,7 +140,6 @@ class FieldDescriptions:
lora_model = "LoRA model to load"
main_model = "Main model (UNet, VAE, CLIP) to load"
flux_model = "Flux model (Transformer) to load"
sd3_model = "SD3 model (MMDiTX) to load"
sdxl_main_model = "SDXL Main model (UNet, VAE, CLIP1, CLIP2) to load"
sdxl_refiner_model = "SDXL Refiner Main Modde (UNet, VAE, CLIP2) to load"
onnx_main_model = "ONNX Main model (UNet, VAE, CLIP) to load"
@@ -250,17 +244,6 @@ class FluxConditioningField(BaseModel):
"""A conditioning tensor primitive value"""
conditioning_name: str = Field(description="The name of conditioning tensor")
mask: Optional[TensorField] = Field(
default=None,
description="The mask associated with this conditioning tensor. Excluded regions should be set to False, "
"included regions should be set to True.",
)
class SD3ConditioningField(BaseModel):
"""A conditioning tensor primitive value"""
conditioning_name: str = Field(description="The name of conditioning tensor")
class ConditioningField(BaseModel):

View File

@@ -30,7 +30,6 @@ from invokeai.backend.flux.controlnet.xlabs_controlnet_flux import XLabsControlN
from invokeai.backend.flux.denoise import denoise
from invokeai.backend.flux.extensions.inpaint_extension import InpaintExtension
from invokeai.backend.flux.extensions.instantx_controlnet_extension import InstantXControlNetExtension
from invokeai.backend.flux.extensions.regional_prompting_extension import RegionalPromptingExtension
from invokeai.backend.flux.extensions.xlabs_controlnet_extension import XLabsControlNetExtension
from invokeai.backend.flux.extensions.xlabs_ip_adapter_extension import XLabsIPAdapterExtension
from invokeai.backend.flux.ip_adapter.xlabs_ip_adapter_flux import XlabsIpAdapterFlux
@@ -43,7 +42,6 @@ from invokeai.backend.flux.sampling_utils import (
pack,
unpack,
)
from invokeai.backend.flux.text_conditioning import FluxTextConditioning
from invokeai.backend.lora.conversions.flux_lora_constants import FLUX_LORA_TRANSFORMER_PREFIX
from invokeai.backend.lora.lora_model_raw import LoRAModelRaw
from invokeai.backend.lora.lora_patcher import LoRAPatcher
@@ -58,7 +56,7 @@ from invokeai.backend.util.devices import TorchDevice
title="FLUX Denoise",
tags=["image", "flux"],
category="image",
version="3.2.2",
version="3.2.0",
classification=Classification.Prototype,
)
class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
@@ -83,16 +81,15 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
description=FieldDescriptions.denoising_start,
)
denoising_end: float = InputField(default=1.0, ge=0, le=1, description=FieldDescriptions.denoising_end)
add_noise: bool = InputField(default=True, description="Add noise based on denoising start.")
transformer: TransformerField = InputField(
description=FieldDescriptions.flux_model,
input=Input.Connection,
title="Transformer",
)
positive_text_conditioning: FluxConditioningField | list[FluxConditioningField] = InputField(
positive_text_conditioning: FluxConditioningField = InputField(
description=FieldDescriptions.positive_cond, input=Input.Connection
)
negative_text_conditioning: FluxConditioningField | list[FluxConditioningField] | None = InputField(
negative_text_conditioning: FluxConditioningField | None = InputField(
default=None,
description="Negative conditioning tensor. Can be None if cfg_scale is 1.0.",
input=Input.Connection,
@@ -141,12 +138,36 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
name = context.tensors.save(tensor=latents)
return LatentsOutput.build(latents_name=name, latents=latents, seed=None)
def _load_text_conditioning(
self, context: InvocationContext, conditioning_name: str, dtype: torch.dtype
) -> Tuple[torch.Tensor, torch.Tensor]:
# Load the conditioning data.
cond_data = context.conditioning.load(conditioning_name)
assert len(cond_data.conditionings) == 1
flux_conditioning = cond_data.conditionings[0]
assert isinstance(flux_conditioning, FLUXConditioningInfo)
flux_conditioning = flux_conditioning.to(dtype=dtype)
t5_embeddings = flux_conditioning.t5_embeds
clip_embeddings = flux_conditioning.clip_embeds
return t5_embeddings, clip_embeddings
def _run_diffusion(
self,
context: InvocationContext,
):
inference_dtype = torch.bfloat16
# Load the conditioning data.
pos_t5_embeddings, pos_clip_embeddings = self._load_text_conditioning(
context, self.positive_text_conditioning.conditioning_name, inference_dtype
)
neg_t5_embeddings: torch.Tensor | None = None
neg_clip_embeddings: torch.Tensor | None = None
if self.negative_text_conditioning is not None:
neg_t5_embeddings, neg_clip_embeddings = self._load_text_conditioning(
context, self.negative_text_conditioning.conditioning_name, inference_dtype
)
# Load the input latents, if provided.
init_latents = context.tensors.load(self.latents.latents_name) if self.latents else None
if init_latents is not None:
@@ -161,45 +182,15 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
dtype=inference_dtype,
seed=self.seed,
)
b, _c, latent_h, latent_w = noise.shape
packed_h = latent_h // 2
packed_w = latent_w // 2
# Load the conditioning data.
pos_text_conditionings = self._load_text_conditioning(
context=context,
cond_field=self.positive_text_conditioning,
packed_height=packed_h,
packed_width=packed_w,
dtype=inference_dtype,
device=TorchDevice.choose_torch_device(),
)
neg_text_conditionings: list[FluxTextConditioning] | None = None
if self.negative_text_conditioning is not None:
neg_text_conditionings = self._load_text_conditioning(
context=context,
cond_field=self.negative_text_conditioning,
packed_height=packed_h,
packed_width=packed_w,
dtype=inference_dtype,
device=TorchDevice.choose_torch_device(),
)
pos_regional_prompting_extension = RegionalPromptingExtension.from_text_conditioning(
pos_text_conditionings, img_seq_len=packed_h * packed_w
)
neg_regional_prompting_extension = (
RegionalPromptingExtension.from_text_conditioning(neg_text_conditionings, img_seq_len=packed_h * packed_w)
if neg_text_conditionings
else None
)
transformer_info = context.models.load(self.transformer.transformer)
is_schnell = "schnell" in transformer_info.config.config_path
# Calculate the timestep schedule.
image_seq_len = noise.shape[-1] * noise.shape[-2] // 4
timesteps = get_schedule(
num_steps=self.num_steps,
image_seq_len=packed_h * packed_w,
image_seq_len=image_seq_len,
shift=not is_schnell,
)
@@ -216,12 +207,9 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
"to be poor. Consider using a FLUX dev model instead."
)
if self.add_noise:
# Noise the orig_latents by the appropriate amount for the first timestep.
t_0 = timesteps[0]
x = t_0 * noise + (1.0 - t_0) * init_latents
else:
x = init_latents
# Noise the orig_latents by the appropriate amount for the first timestep.
t_0 = timesteps[0]
x = t_0 * noise + (1.0 - t_0) * init_latents
else:
# init_latents are not provided, so we are not doing image-to-image (i.e. we are starting from pure noise).
if self.denoising_start > 1e-5:
@@ -236,17 +224,28 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
inpaint_mask = self._prep_inpaint_mask(context, x)
b, _c, latent_h, latent_w = x.shape
img_ids = generate_img_ids(h=latent_h, w=latent_w, batch_size=b, device=x.device, dtype=x.dtype)
pos_bs, pos_t5_seq_len, _ = pos_t5_embeddings.shape
pos_txt_ids = torch.zeros(
pos_bs, pos_t5_seq_len, 3, dtype=inference_dtype, device=TorchDevice.choose_torch_device()
)
neg_txt_ids: torch.Tensor | None = None
if neg_t5_embeddings is not None:
neg_bs, neg_t5_seq_len, _ = neg_t5_embeddings.shape
neg_txt_ids = torch.zeros(
neg_bs, neg_t5_seq_len, 3, dtype=inference_dtype, device=TorchDevice.choose_torch_device()
)
# Pack all latent tensors.
init_latents = pack(init_latents) if init_latents is not None else None
inpaint_mask = pack(inpaint_mask) if inpaint_mask is not None else None
noise = pack(noise)
x = pack(x)
# Now that we have 'packed' the latent tensors, verify that we calculated the image_seq_len, packed_h, and
# packed_w correctly.
assert packed_h * packed_w == x.shape[1]
# Now that we have 'packed' the latent tensors, verify that we calculated the image_seq_len correctly.
assert image_seq_len == x.shape[1]
# Prepare inpaint extension.
inpaint_extension: InpaintExtension | None = None
@@ -296,11 +295,10 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
if config.format in [ModelFormat.Checkpoint]:
# The model is non-quantized, so we can apply the LoRA weights directly into the model.
exit_stack.enter_context(
LoRAPatcher.apply_smart_lora_patches(
LoRAPatcher.apply_lora_patches(
model=transformer,
patches=self._lora_iterator(context),
prefix=FLUX_LORA_TRANSFORMER_PREFIX,
dtype=inference_dtype,
cached_weights=cached_weights,
)
)
@@ -312,7 +310,7 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
# The model is quantized, so apply the LoRA weights as sidecar layers. This results in slower inference,
# than directly patching the weights, but is agnostic to the quantization format.
exit_stack.enter_context(
LoRAPatcher.apply_lora_wrapper_patches(
LoRAPatcher.apply_lora_sidecar_patches(
model=transformer,
patches=self._lora_iterator(context),
prefix=FLUX_LORA_TRANSFORMER_PREFIX,
@@ -336,8 +334,12 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
model=transformer,
img=x,
img_ids=img_ids,
pos_regional_prompting_extension=pos_regional_prompting_extension,
neg_regional_prompting_extension=neg_regional_prompting_extension,
txt=pos_t5_embeddings,
txt_ids=pos_txt_ids,
vec=pos_clip_embeddings,
neg_txt=neg_t5_embeddings,
neg_txt_ids=neg_txt_ids,
neg_vec=neg_clip_embeddings,
timesteps=timesteps,
step_callback=self._build_step_callback(context),
guidance=self.guidance,
@@ -351,43 +353,6 @@ class FluxDenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
x = unpack(x.float(), self.height, self.width)
return x
def _load_text_conditioning(
self,
context: InvocationContext,
cond_field: FluxConditioningField | list[FluxConditioningField],
packed_height: int,
packed_width: int,
dtype: torch.dtype,
device: torch.device,
) -> list[FluxTextConditioning]:
"""Load text conditioning data from a FluxConditioningField or a list of FluxConditioningFields."""
# Normalize to a list of FluxConditioningFields.
cond_list = [cond_field] if isinstance(cond_field, FluxConditioningField) else cond_field
text_conditionings: list[FluxTextConditioning] = []
for cond_field in cond_list:
# Load the text embeddings.
cond_data = context.conditioning.load(cond_field.conditioning_name)
assert len(cond_data.conditionings) == 1
flux_conditioning = cond_data.conditionings[0]
assert isinstance(flux_conditioning, FLUXConditioningInfo)
flux_conditioning = flux_conditioning.to(dtype=dtype, device=device)
t5_embeddings = flux_conditioning.t5_embeds
clip_embeddings = flux_conditioning.clip_embeds
# Load the mask, if provided.
mask: Optional[torch.Tensor] = None
if cond_field.mask is not None:
mask = context.tensors.load(cond_field.mask.tensor_name)
mask = mask.to(device=device)
mask = RegionalPromptingExtension.preprocess_regional_prompt_mask(
mask, packed_height, packed_width, dtype, device
)
text_conditionings.append(FluxTextConditioning(t5_embeddings, clip_embeddings, mask))
return text_conditionings
@classmethod
def prep_cfg_scale(
cls, cfg_scale: float | list[float], timesteps: list[float], cfg_scale_start_step: int, cfg_scale_end_step: int

View File

@@ -1,89 +0,0 @@
from typing import Literal
from invokeai.app.invocations.baseinvocation import (
BaseInvocation,
BaseInvocationOutput,
Classification,
invocation,
invocation_output,
)
from invokeai.app.invocations.fields import FieldDescriptions, Input, InputField, OutputField, UIType
from invokeai.app.invocations.model import CLIPField, ModelIdentifierField, T5EncoderField, TransformerField, VAEField
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.backend.flux.util import max_seq_lengths
from invokeai.backend.model_manager.config import (
CheckpointConfigBase,
SubModelType,
)
@invocation_output("flux_model_loader_output")
class FluxModelLoaderOutput(BaseInvocationOutput):
"""Flux base model loader output"""
transformer: TransformerField = OutputField(description=FieldDescriptions.transformer, title="Transformer")
clip: CLIPField = OutputField(description=FieldDescriptions.clip, title="CLIP")
t5_encoder: T5EncoderField = OutputField(description=FieldDescriptions.t5_encoder, title="T5 Encoder")
vae: VAEField = OutputField(description=FieldDescriptions.vae, title="VAE")
max_seq_len: Literal[256, 512] = OutputField(
description="The max sequence length to used for the T5 encoder. (256 for schnell transformer, 512 for dev transformer)",
title="Max Seq Length",
)
@invocation(
"flux_model_loader",
title="Flux Main Model",
tags=["model", "flux"],
category="model",
version="1.0.4",
classification=Classification.Prototype,
)
class FluxModelLoaderInvocation(BaseInvocation):
"""Loads a flux base model, outputting its submodels."""
model: ModelIdentifierField = InputField(
description=FieldDescriptions.flux_model,
ui_type=UIType.FluxMainModel,
input=Input.Direct,
)
t5_encoder_model: ModelIdentifierField = InputField(
description=FieldDescriptions.t5_encoder, ui_type=UIType.T5EncoderModel, input=Input.Direct, title="T5 Encoder"
)
clip_embed_model: ModelIdentifierField = InputField(
description=FieldDescriptions.clip_embed_model,
ui_type=UIType.CLIPEmbedModel,
input=Input.Direct,
title="CLIP Embed",
)
vae_model: ModelIdentifierField = InputField(
description=FieldDescriptions.vae_model, ui_type=UIType.FluxVAEModel, title="VAE"
)
def invoke(self, context: InvocationContext) -> FluxModelLoaderOutput:
for key in [self.model.key, self.t5_encoder_model.key, self.clip_embed_model.key, self.vae_model.key]:
if not context.models.exists(key):
raise ValueError(f"Unknown model: {key}")
transformer = self.model.model_copy(update={"submodel_type": SubModelType.Transformer})
vae = self.vae_model.model_copy(update={"submodel_type": SubModelType.VAE})
tokenizer = self.clip_embed_model.model_copy(update={"submodel_type": SubModelType.Tokenizer})
clip_encoder = self.clip_embed_model.model_copy(update={"submodel_type": SubModelType.TextEncoder})
tokenizer2 = self.t5_encoder_model.model_copy(update={"submodel_type": SubModelType.Tokenizer2})
t5_encoder = self.t5_encoder_model.model_copy(update={"submodel_type": SubModelType.TextEncoder2})
transformer_config = context.models.get_config(transformer)
assert isinstance(transformer_config, CheckpointConfigBase)
return FluxModelLoaderOutput(
transformer=TransformerField(transformer=transformer, loras=[]),
clip=CLIPField(tokenizer=tokenizer, text_encoder=clip_encoder, loras=[], skipped_layers=0),
t5_encoder=T5EncoderField(tokenizer=tokenizer2, text_encoder=t5_encoder),
vae=VAEField(vae=vae),
max_seq_len=max_seq_lengths[transformer_config.config_path],
)

View File

@@ -1,18 +1,11 @@
from contextlib import ExitStack
from typing import Iterator, Literal, Optional, Tuple
from typing import Iterator, Literal, Tuple
import torch
from transformers import CLIPTextModel, CLIPTokenizer, T5EncoderModel, T5Tokenizer
from invokeai.app.invocations.baseinvocation import BaseInvocation, Classification, invocation
from invokeai.app.invocations.fields import (
FieldDescriptions,
FluxConditioningField,
Input,
InputField,
TensorField,
UIComponent,
)
from invokeai.app.invocations.fields import FieldDescriptions, Input, InputField
from invokeai.app.invocations.model import CLIPField, T5EncoderField
from invokeai.app.invocations.primitives import FluxConditioningOutput
from invokeai.app.services.shared.invocation_context import InvocationContext
@@ -22,7 +15,6 @@ from invokeai.backend.lora.lora_model_raw import LoRAModelRaw
from invokeai.backend.lora.lora_patcher import LoRAPatcher
from invokeai.backend.model_manager.config import ModelFormat
from invokeai.backend.stable_diffusion.diffusion.conditioning_data import ConditioningFieldData, FLUXConditioningInfo
from invokeai.backend.util.devices import TorchDevice
@invocation(
@@ -30,7 +22,7 @@ from invokeai.backend.util.devices import TorchDevice
title="FLUX Text Encoding",
tags=["prompt", "conditioning", "flux"],
category="conditioning",
version="1.1.1",
version="1.1.0",
classification=Classification.Prototype,
)
class FluxTextEncoderInvocation(BaseInvocation):
@@ -49,10 +41,7 @@ class FluxTextEncoderInvocation(BaseInvocation):
t5_max_seq_len: Literal[256, 512] = InputField(
description="Max sequence length for the T5 encoder. Expected to be 256 for FLUX schnell models and 512 for FLUX dev models."
)
prompt: str = InputField(description="Text prompt to encode.", ui_component=UIComponent.Textarea)
mask: Optional[TensorField] = InputField(
default=None, description="A mask defining the region that this conditioning prompt applies to."
)
prompt: str = InputField(description="Text prompt to encode.")
@torch.no_grad()
def invoke(self, context: InvocationContext) -> FluxConditioningOutput:
@@ -65,9 +54,7 @@ class FluxTextEncoderInvocation(BaseInvocation):
)
conditioning_name = context.conditioning.save(conditioning_data)
return FluxConditioningOutput(
conditioning=FluxConditioningField(conditioning_name=conditioning_name, mask=self.mask)
)
return FluxConditioningOutput.build(conditioning_name)
def _t5_encode(self, context: InvocationContext) -> torch.Tensor:
t5_tokenizer_info = context.models.load(self.t5_encoder.tokenizer)
@@ -84,7 +71,6 @@ class FluxTextEncoderInvocation(BaseInvocation):
t5_encoder = HFEncoder(t5_text_encoder, t5_tokenizer, False, self.t5_max_seq_len)
context.util.signal_progress("Running T5 encoder")
prompt_embeds = t5_encoder(prompt)
assert isinstance(prompt_embeds, torch.Tensor)
@@ -112,11 +98,10 @@ class FluxTextEncoderInvocation(BaseInvocation):
if clip_text_encoder_config.format in [ModelFormat.Diffusers]:
# The model is non-quantized, so we can apply the LoRA weights directly into the model.
exit_stack.enter_context(
LoRAPatcher.apply_smart_lora_patches(
LoRAPatcher.apply_lora_patches(
model=clip_text_encoder,
patches=self._clip_lora_iterator(context),
prefix=FLUX_LORA_CLIP_PREFIX,
dtype=TorchDevice.choose_torch_dtype(),
cached_weights=cached_weights,
)
)
@@ -126,7 +111,6 @@ class FluxTextEncoderInvocation(BaseInvocation):
clip_encoder = HFEncoder(clip_text_encoder, clip_tokenizer, True, 77)
context.util.signal_progress("Running CLIP encoder")
pooled_prompt_embeds = clip_encoder(prompt)
assert isinstance(pooled_prompt_embeds, torch.Tensor)

View File

@@ -41,8 +41,7 @@ class FluxVaeDecodeInvocation(BaseInvocation, WithMetadata, WithBoard):
def _vae_decode(self, vae_info: LoadedModel, latents: torch.Tensor) -> Image.Image:
with vae_info as vae:
assert isinstance(vae, AutoEncoder)
vae_dtype = next(iter(vae.parameters())).dtype
latents = latents.to(device=TorchDevice.choose_torch_device(), dtype=vae_dtype)
latents = latents.to(device=TorchDevice.choose_torch_device(), dtype=TorchDevice.choose_torch_dtype())
img = vae.decode(latents)
img = img.clamp(-1, 1)
@@ -54,7 +53,6 @@ class FluxVaeDecodeInvocation(BaseInvocation, WithMetadata, WithBoard):
def invoke(self, context: InvocationContext) -> ImageOutput:
latents = context.tensors.load(self.latents.latents_name)
vae_info = context.models.load(self.vae.vae)
context.util.signal_progress("Running VAE")
image = self._vae_decode(vae_info=vae_info, latents=latents)
TorchDevice.empty_cache()

View File

@@ -44,8 +44,9 @@ class FluxVaeEncodeInvocation(BaseInvocation):
generator = torch.Generator(device=TorchDevice.choose_torch_device()).manual_seed(0)
with vae_info as vae:
assert isinstance(vae, AutoEncoder)
vae_dtype = next(iter(vae.parameters())).dtype
image_tensor = image_tensor.to(device=TorchDevice.choose_torch_device(), dtype=vae_dtype)
image_tensor = image_tensor.to(
device=TorchDevice.choose_torch_device(), dtype=TorchDevice.choose_torch_dtype()
)
latents = vae.encode(image_tensor, sample=True, generator=generator)
return latents
@@ -59,7 +60,6 @@ class FluxVaeEncodeInvocation(BaseInvocation):
if image_tensor.dim() == 3:
image_tensor = einops.rearrange(image_tensor, "c h w -> 1 c h w")
context.util.signal_progress("Running VAE")
latents = self.vae_encode(vae_info=vae_info, image_tensor=image_tensor)
latents = latents.to("cpu")

View File

@@ -1,59 +0,0 @@
from pydantic import ValidationInfo, field_validator
from invokeai.app.invocations.baseinvocation import (
BaseInvocation,
BaseInvocationOutput,
Classification,
invocation,
invocation_output,
)
from invokeai.app.invocations.fields import InputField, OutputField
from invokeai.app.services.shared.invocation_context import InvocationContext
@invocation_output("image_panel_coordinate_output")
class ImagePanelCoordinateOutput(BaseInvocationOutput):
x_left: int = OutputField(description="The left x-coordinate of the panel.")
y_top: int = OutputField(description="The top y-coordinate of the panel.")
width: int = OutputField(description="The width of the panel.")
height: int = OutputField(description="The height of the panel.")
@invocation(
"image_panel_layout",
title="Image Panel Layout",
tags=["image", "panel", "layout"],
category="image",
version="1.0.0",
classification=Classification.Prototype,
)
class ImagePanelLayoutInvocation(BaseInvocation):
"""Get the coordinates of a single panel in a grid. (If the full image shape cannot be divided evenly into panels,
then the grid may not cover the entire image.)
"""
width: int = InputField(description="The width of the entire grid.")
height: int = InputField(description="The height of the entire grid.")
num_cols: int = InputField(ge=1, default=1, description="The number of columns in the grid.")
num_rows: int = InputField(ge=1, default=1, description="The number of rows in the grid.")
panel_col_idx: int = InputField(ge=0, default=0, description="The column index of the panel to be processed.")
panel_row_idx: int = InputField(ge=0, default=0, description="The row index of the panel to be processed.")
@field_validator("panel_col_idx")
def validate_panel_col_idx(cls, v: int, info: ValidationInfo) -> int:
if v < 0 or v >= info.data["num_cols"]:
raise ValueError(f"panel_col_idx must be between 0 and {info.data['num_cols'] - 1}")
return v
@field_validator("panel_row_idx")
def validate_panel_row_idx(cls, v: int, info: ValidationInfo) -> int:
if v < 0 or v >= info.data["num_rows"]:
raise ValueError(f"panel_row_idx must be between 0 and {info.data['num_rows'] - 1}")
return v
def invoke(self, context: InvocationContext) -> ImagePanelCoordinateOutput:
x_left = self.panel_col_idx * (self.width // self.num_cols)
y_top = self.panel_row_idx * (self.height // self.num_rows)
width = self.width // self.num_cols
height = self.height // self.num_rows
return ImagePanelCoordinateOutput(x_left=x_left, y_top=y_top, width=width, height=height)

View File

@@ -117,7 +117,6 @@ class ImageToLatentsInvocation(BaseInvocation):
if image_tensor.dim() == 3:
image_tensor = einops.rearrange(image_tensor, "c h w -> 1 c h w")
context.util.signal_progress("Running VAE encoder")
latents = self.vae_encode(
vae_info=vae_info, upcast=self.fp32, tiled=self.tiled, image_tensor=image_tensor, tile_size=self.tile_size
)

View File

@@ -60,7 +60,6 @@ class LatentsToImageInvocation(BaseInvocation, WithMetadata, WithBoard):
vae_info = context.models.load(self.vae.vae)
assert isinstance(vae_info.model, (AutoencoderKL, AutoencoderTiny))
with SeamlessExt.static_patch_model(vae_info.model, self.vae.seamless_axes), vae_info as vae:
context.util.signal_progress("Running VAE decoder")
assert isinstance(vae, (AutoencoderKL, AutoencoderTiny))
latents = latents.to(vae.device)
if self.fp32:

View File

@@ -147,10 +147,6 @@ GENERATION_MODES = Literal[
"flux_img2img",
"flux_inpaint",
"flux_outpaint",
"sd3_txt2img",
"sd3_img2img",
"sd3_inpaint",
"sd3_outpaint",
]

View File

@@ -1,5 +1,5 @@
import copy
from typing import List, Optional
from typing import List, Literal, Optional
from pydantic import BaseModel, Field
@@ -13,9 +13,11 @@ from invokeai.app.invocations.baseinvocation import (
from invokeai.app.invocations.fields import FieldDescriptions, Input, InputField, OutputField, UIType
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.app.shared.models import FreeUConfig
from invokeai.backend.flux.util import max_seq_lengths
from invokeai.backend.model_manager.config import (
AnyModelConfig,
BaseModelType,
CheckpointConfigBase,
ModelType,
SubModelType,
)
@@ -137,6 +139,78 @@ class ModelIdentifierInvocation(BaseInvocation):
return ModelIdentifierOutput(model=self.model)
@invocation_output("flux_model_loader_output")
class FluxModelLoaderOutput(BaseInvocationOutput):
"""Flux base model loader output"""
transformer: TransformerField = OutputField(description=FieldDescriptions.transformer, title="Transformer")
clip: CLIPField = OutputField(description=FieldDescriptions.clip, title="CLIP")
t5_encoder: T5EncoderField = OutputField(description=FieldDescriptions.t5_encoder, title="T5 Encoder")
vae: VAEField = OutputField(description=FieldDescriptions.vae, title="VAE")
max_seq_len: Literal[256, 512] = OutputField(
description="The max sequence length to used for the T5 encoder. (256 for schnell transformer, 512 for dev transformer)",
title="Max Seq Length",
)
@invocation(
"flux_model_loader",
title="Flux Main Model",
tags=["model", "flux"],
category="model",
version="1.0.4",
classification=Classification.Prototype,
)
class FluxModelLoaderInvocation(BaseInvocation):
"""Loads a flux base model, outputting its submodels."""
model: ModelIdentifierField = InputField(
description=FieldDescriptions.flux_model,
ui_type=UIType.FluxMainModel,
input=Input.Direct,
)
t5_encoder_model: ModelIdentifierField = InputField(
description=FieldDescriptions.t5_encoder, ui_type=UIType.T5EncoderModel, input=Input.Direct, title="T5 Encoder"
)
clip_embed_model: ModelIdentifierField = InputField(
description=FieldDescriptions.clip_embed_model,
ui_type=UIType.CLIPEmbedModel,
input=Input.Direct,
title="CLIP Embed",
)
vae_model: ModelIdentifierField = InputField(
description=FieldDescriptions.vae_model, ui_type=UIType.FluxVAEModel, title="VAE"
)
def invoke(self, context: InvocationContext) -> FluxModelLoaderOutput:
for key in [self.model.key, self.t5_encoder_model.key, self.clip_embed_model.key, self.vae_model.key]:
if not context.models.exists(key):
raise ValueError(f"Unknown model: {key}")
transformer = self.model.model_copy(update={"submodel_type": SubModelType.Transformer})
vae = self.vae_model.model_copy(update={"submodel_type": SubModelType.VAE})
tokenizer = self.clip_embed_model.model_copy(update={"submodel_type": SubModelType.Tokenizer})
clip_encoder = self.clip_embed_model.model_copy(update={"submodel_type": SubModelType.TextEncoder})
tokenizer2 = self.t5_encoder_model.model_copy(update={"submodel_type": SubModelType.Tokenizer2})
t5_encoder = self.t5_encoder_model.model_copy(update={"submodel_type": SubModelType.TextEncoder2})
transformer_config = context.models.get_config(transformer)
assert isinstance(transformer_config, CheckpointConfigBase)
return FluxModelLoaderOutput(
transformer=TransformerField(transformer=transformer, loras=[]),
clip=CLIPField(tokenizer=tokenizer, text_encoder=clip_encoder, loras=[], skipped_layers=0),
t5_encoder=T5EncoderField(tokenizer=tokenizer2, text_encoder=t5_encoder),
vae=VAEField(vae=vae),
max_seq_len=max_seq_lengths[transformer_config.config_path],
)
@invocation(
"main_model_loader",
title="Main Model",

View File

@@ -1,4 +1,43 @@
import io
from typing import Literal, Optional
import matplotlib.pyplot as plt
import numpy as np
import PIL.Image
from easing_functions import (
BackEaseIn,
BackEaseInOut,
BackEaseOut,
BounceEaseIn,
BounceEaseInOut,
BounceEaseOut,
CircularEaseIn,
CircularEaseInOut,
CircularEaseOut,
CubicEaseIn,
CubicEaseInOut,
CubicEaseOut,
ElasticEaseIn,
ElasticEaseInOut,
ElasticEaseOut,
ExponentialEaseIn,
ExponentialEaseInOut,
ExponentialEaseOut,
LinearInOut,
QuadEaseIn,
QuadEaseInOut,
QuadEaseOut,
QuarticEaseIn,
QuarticEaseInOut,
QuarticEaseOut,
QuinticEaseIn,
QuinticEaseInOut,
QuinticEaseOut,
SineEaseIn,
SineEaseInOut,
SineEaseOut,
)
from matplotlib.ticker import MaxNLocator
from invokeai.app.invocations.baseinvocation import BaseInvocation, invocation
from invokeai.app.invocations.fields import InputField
@@ -26,3 +65,191 @@ class FloatLinearRangeInvocation(BaseInvocation):
def invoke(self, context: InvocationContext) -> FloatCollectionOutput:
param_list = list(np.linspace(self.start, self.stop, self.steps))
return FloatCollectionOutput(collection=param_list)
EASING_FUNCTIONS_MAP = {
"Linear": LinearInOut,
"QuadIn": QuadEaseIn,
"QuadOut": QuadEaseOut,
"QuadInOut": QuadEaseInOut,
"CubicIn": CubicEaseIn,
"CubicOut": CubicEaseOut,
"CubicInOut": CubicEaseInOut,
"QuarticIn": QuarticEaseIn,
"QuarticOut": QuarticEaseOut,
"QuarticInOut": QuarticEaseInOut,
"QuinticIn": QuinticEaseIn,
"QuinticOut": QuinticEaseOut,
"QuinticInOut": QuinticEaseInOut,
"SineIn": SineEaseIn,
"SineOut": SineEaseOut,
"SineInOut": SineEaseInOut,
"CircularIn": CircularEaseIn,
"CircularOut": CircularEaseOut,
"CircularInOut": CircularEaseInOut,
"ExponentialIn": ExponentialEaseIn,
"ExponentialOut": ExponentialEaseOut,
"ExponentialInOut": ExponentialEaseInOut,
"ElasticIn": ElasticEaseIn,
"ElasticOut": ElasticEaseOut,
"ElasticInOut": ElasticEaseInOut,
"BackIn": BackEaseIn,
"BackOut": BackEaseOut,
"BackInOut": BackEaseInOut,
"BounceIn": BounceEaseIn,
"BounceOut": BounceEaseOut,
"BounceInOut": BounceEaseInOut,
}
EASING_FUNCTION_KEYS = Literal[tuple(EASING_FUNCTIONS_MAP.keys())]
# actually I think for now could just use CollectionOutput (which is list[Any]
@invocation(
"step_param_easing",
title="Step Param Easing",
tags=["step", "easing"],
category="step",
version="1.0.2",
)
class StepParamEasingInvocation(BaseInvocation):
"""Experimental per-step parameter easing for denoising steps"""
easing: EASING_FUNCTION_KEYS = InputField(default="Linear", description="The easing function to use")
num_steps: int = InputField(default=20, description="number of denoising steps")
start_value: float = InputField(default=0.0, description="easing starting value")
end_value: float = InputField(default=1.0, description="easing ending value")
start_step_percent: float = InputField(default=0.0, description="fraction of steps at which to start easing")
end_step_percent: float = InputField(default=1.0, description="fraction of steps after which to end easing")
# if None, then start_value is used prior to easing start
pre_start_value: Optional[float] = InputField(default=None, description="value before easing start")
# if None, then end value is used prior to easing end
post_end_value: Optional[float] = InputField(default=None, description="value after easing end")
mirror: bool = InputField(default=False, description="include mirror of easing function")
# FIXME: add alt_mirror option (alternative to default or mirror), or remove entirely
# alt_mirror: bool = InputField(default=False, description="alternative mirroring by dual easing")
show_easing_plot: bool = InputField(default=False, description="show easing plot")
def invoke(self, context: InvocationContext) -> FloatCollectionOutput:
log_diagnostics = False
# convert from start_step_percent to nearest step <= (steps * start_step_percent)
# start_step = int(np.floor(self.num_steps * self.start_step_percent))
start_step = int(np.round(self.num_steps * self.start_step_percent))
# convert from end_step_percent to nearest step >= (steps * end_step_percent)
# end_step = int(np.ceil((self.num_steps - 1) * self.end_step_percent))
end_step = int(np.round((self.num_steps - 1) * self.end_step_percent))
# end_step = int(np.ceil(self.num_steps * self.end_step_percent))
num_easing_steps = end_step - start_step + 1
# num_presteps = max(start_step - 1, 0)
num_presteps = start_step
num_poststeps = self.num_steps - (num_presteps + num_easing_steps)
prelist = list(num_presteps * [self.pre_start_value])
postlist = list(num_poststeps * [self.post_end_value])
if log_diagnostics:
context.logger.debug("start_step: " + str(start_step))
context.logger.debug("end_step: " + str(end_step))
context.logger.debug("num_easing_steps: " + str(num_easing_steps))
context.logger.debug("num_presteps: " + str(num_presteps))
context.logger.debug("num_poststeps: " + str(num_poststeps))
context.logger.debug("prelist size: " + str(len(prelist)))
context.logger.debug("postlist size: " + str(len(postlist)))
context.logger.debug("prelist: " + str(prelist))
context.logger.debug("postlist: " + str(postlist))
easing_class = EASING_FUNCTIONS_MAP[self.easing]
if log_diagnostics:
context.logger.debug("easing class: " + str(easing_class))
easing_list = []
if self.mirror: # "expected" mirroring
# if number of steps is even, squeeze duration down to (number_of_steps)/2
# and create reverse copy of list to append
# if number of steps is odd, squeeze duration down to ceil(number_of_steps/2)
# and create reverse copy of list[1:end-1]
# but if even then number_of_steps/2 === ceil(number_of_steps/2), so can just use ceil always
base_easing_duration = int(np.ceil(num_easing_steps / 2.0))
if log_diagnostics:
context.logger.debug("base easing duration: " + str(base_easing_duration))
even_num_steps = num_easing_steps % 2 == 0 # even number of steps
easing_function = easing_class(
start=self.start_value,
end=self.end_value,
duration=base_easing_duration - 1,
)
base_easing_vals = []
for step_index in range(base_easing_duration):
easing_val = easing_function.ease(step_index)
base_easing_vals.append(easing_val)
if log_diagnostics:
context.logger.debug("step_index: " + str(step_index) + ", easing_val: " + str(easing_val))
if even_num_steps:
mirror_easing_vals = list(reversed(base_easing_vals))
else:
mirror_easing_vals = list(reversed(base_easing_vals[0:-1]))
if log_diagnostics:
context.logger.debug("base easing vals: " + str(base_easing_vals))
context.logger.debug("mirror easing vals: " + str(mirror_easing_vals))
easing_list = base_easing_vals + mirror_easing_vals
# FIXME: add alt_mirror option (alternative to default or mirror), or remove entirely
# elif self.alt_mirror: # function mirroring (unintuitive behavior (at least to me))
# # half_ease_duration = round(num_easing_steps - 1 / 2)
# half_ease_duration = round((num_easing_steps - 1) / 2)
# easing_function = easing_class(start=self.start_value,
# end=self.end_value,
# duration=half_ease_duration,
# )
#
# mirror_function = easing_class(start=self.end_value,
# end=self.start_value,
# duration=half_ease_duration,
# )
# for step_index in range(num_easing_steps):
# if step_index <= half_ease_duration:
# step_val = easing_function.ease(step_index)
# else:
# step_val = mirror_function.ease(step_index - half_ease_duration)
# easing_list.append(step_val)
# if log_diagnostics: logger.debug(step_index, step_val)
#
else: # no mirroring (default)
easing_function = easing_class(
start=self.start_value,
end=self.end_value,
duration=num_easing_steps - 1,
)
for step_index in range(num_easing_steps):
step_val = easing_function.ease(step_index)
easing_list.append(step_val)
if log_diagnostics:
context.logger.debug("step_index: " + str(step_index) + ", easing_val: " + str(step_val))
if log_diagnostics:
context.logger.debug("prelist size: " + str(len(prelist)))
context.logger.debug("easing_list size: " + str(len(easing_list)))
context.logger.debug("postlist size: " + str(len(postlist)))
param_list = prelist + easing_list + postlist
if self.show_easing_plot:
plt.figure()
plt.xlabel("Step")
plt.ylabel("Param Value")
plt.title("Per-Step Values Based On Easing: " + self.easing)
plt.bar(range(len(param_list)), param_list)
# plt.plot(param_list)
ax = plt.gca()
ax.xaxis.set_major_locator(MaxNLocator(integer=True))
buf = io.BytesIO()
plt.savefig(buf, format="png")
buf.seek(0)
im = PIL.Image.open(buf)
im.show()
buf.close()
# output array of size steps, each entry list[i] is param value for step i
return FloatCollectionOutput(collection=param_list)

View File

@@ -4,13 +4,7 @@ from typing import Optional
import torch
from invokeai.app.invocations.baseinvocation import (
BaseInvocation,
BaseInvocationOutput,
Classification,
invocation,
invocation_output,
)
from invokeai.app.invocations.baseinvocation import BaseInvocation, BaseInvocationOutput, invocation, invocation_output
from invokeai.app.invocations.constants import LATENT_SCALE_FACTOR
from invokeai.app.invocations.fields import (
BoundingBoxField,
@@ -24,7 +18,6 @@ from invokeai.app.invocations.fields import (
InputField,
LatentsField,
OutputField,
SD3ConditioningField,
TensorField,
UIComponent,
)
@@ -433,17 +426,6 @@ class FluxConditioningOutput(BaseInvocationOutput):
return cls(conditioning=FluxConditioningField(conditioning_name=conditioning_name))
@invocation_output("sd3_conditioning_output")
class SD3ConditioningOutput(BaseInvocationOutput):
"""Base class for nodes that output a single SD3 conditioning tensor"""
conditioning: SD3ConditioningField = OutputField(description=FieldDescriptions.cond)
@classmethod
def build(cls, conditioning_name: str) -> "SD3ConditioningOutput":
return cls(conditioning=SD3ConditioningField(conditioning_name=conditioning_name))
@invocation_output("conditioning_output")
class ConditioningOutput(BaseInvocationOutput):
"""Base class for nodes that output a single conditioning tensor"""
@@ -539,23 +521,3 @@ class BoundingBoxInvocation(BaseInvocation):
# endregion
@invocation(
"image_batch",
title="Image Batch",
tags=["primitives", "image", "batch", "internal"],
category="primitives",
version="1.0.0",
classification=Classification.Special,
)
class ImageBatchInvocation(BaseInvocation):
"""Create a batched generation, where the workflow is executed once for each image in the batch."""
images: list[ImageField] = InputField(min_length=1, description="The images to batch over", input=Input.Direct)
def __init__(self):
raise NotImplementedError("This class should never be executed or instantiated directly.")
def invoke(self, context: InvocationContext) -> ImageOutput:
raise NotImplementedError("This class should never be executed or instantiated directly.")

View File

@@ -1,338 +0,0 @@
from typing import Callable, Optional, Tuple
import torch
import torchvision.transforms as tv_transforms
from diffusers.models.transformers.transformer_sd3 import SD3Transformer2DModel
from torchvision.transforms.functional import resize as tv_resize
from tqdm import tqdm
from invokeai.app.invocations.baseinvocation import BaseInvocation, Classification, invocation
from invokeai.app.invocations.constants import LATENT_SCALE_FACTOR
from invokeai.app.invocations.fields import (
DenoiseMaskField,
FieldDescriptions,
Input,
InputField,
LatentsField,
SD3ConditioningField,
WithBoard,
WithMetadata,
)
from invokeai.app.invocations.model import TransformerField
from invokeai.app.invocations.primitives import LatentsOutput
from invokeai.app.invocations.sd3_text_encoder import SD3_T5_MAX_SEQ_LEN
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.backend.flux.sampling_utils import clip_timestep_schedule_fractional
from invokeai.backend.model_manager.config import BaseModelType
from invokeai.backend.sd3.extensions.inpaint_extension import InpaintExtension
from invokeai.backend.stable_diffusion.diffusers_pipeline import PipelineIntermediateState
from invokeai.backend.stable_diffusion.diffusion.conditioning_data import SD3ConditioningInfo
from invokeai.backend.util.devices import TorchDevice
@invocation(
"sd3_denoise",
title="SD3 Denoise",
tags=["image", "sd3"],
category="image",
version="1.1.0",
classification=Classification.Prototype,
)
class SD3DenoiseInvocation(BaseInvocation, WithMetadata, WithBoard):
"""Run denoising process with a SD3 model."""
# If latents is provided, this means we are doing image-to-image.
latents: Optional[LatentsField] = InputField(
default=None, description=FieldDescriptions.latents, input=Input.Connection
)
# denoise_mask is used for image-to-image inpainting. Only the masked region is modified.
denoise_mask: Optional[DenoiseMaskField] = InputField(
default=None, description=FieldDescriptions.denoise_mask, input=Input.Connection
)
denoising_start: float = InputField(default=0.0, ge=0, le=1, description=FieldDescriptions.denoising_start)
denoising_end: float = InputField(default=1.0, ge=0, le=1, description=FieldDescriptions.denoising_end)
transformer: TransformerField = InputField(
description=FieldDescriptions.sd3_model, input=Input.Connection, title="Transformer"
)
positive_conditioning: SD3ConditioningField = InputField(
description=FieldDescriptions.positive_cond, input=Input.Connection
)
negative_conditioning: SD3ConditioningField = InputField(
description=FieldDescriptions.negative_cond, input=Input.Connection
)
cfg_scale: float | list[float] = InputField(default=3.5, description=FieldDescriptions.cfg_scale, title="CFG Scale")
width: int = InputField(default=1024, multiple_of=16, description="Width of the generated image.")
height: int = InputField(default=1024, multiple_of=16, description="Height of the generated image.")
steps: int = InputField(default=10, gt=0, description=FieldDescriptions.steps)
seed: int = InputField(default=0, description="Randomness seed for reproducibility.")
@torch.no_grad()
def invoke(self, context: InvocationContext) -> LatentsOutput:
latents = self._run_diffusion(context)
latents = latents.detach().to("cpu")
name = context.tensors.save(tensor=latents)
return LatentsOutput.build(latents_name=name, latents=latents, seed=None)
def _prep_inpaint_mask(self, context: InvocationContext, latents: torch.Tensor) -> torch.Tensor | None:
"""Prepare the inpaint mask.
- Loads the mask
- Resizes if necessary
- Casts to same device/dtype as latents
Args:
context (InvocationContext): The invocation context, for loading the inpaint mask.
latents (torch.Tensor): A latent image tensor. Used to determine the target shape, device, and dtype for the
inpaint mask.
Returns:
torch.Tensor | None: Inpaint mask. Values of 0.0 represent the regions to be fully denoised, and 1.0
represent the regions to be preserved.
"""
if self.denoise_mask is None:
return None
mask = context.tensors.load(self.denoise_mask.mask_name)
# The input denoise_mask contains values in [0, 1], where 0.0 represents the regions to be fully denoised, and
# 1.0 represents the regions to be preserved.
# We invert the mask so that the regions to be preserved are 0.0 and the regions to be denoised are 1.0.
mask = 1.0 - mask
_, _, latent_height, latent_width = latents.shape
mask = tv_resize(
img=mask,
size=[latent_height, latent_width],
interpolation=tv_transforms.InterpolationMode.BILINEAR,
antialias=False,
)
mask = mask.to(device=latents.device, dtype=latents.dtype)
return mask
def _load_text_conditioning(
self,
context: InvocationContext,
conditioning_name: str,
joint_attention_dim: int,
dtype: torch.dtype,
device: torch.device,
) -> Tuple[torch.Tensor, torch.Tensor]:
# Load the conditioning data.
cond_data = context.conditioning.load(conditioning_name)
assert len(cond_data.conditionings) == 1
sd3_conditioning = cond_data.conditionings[0]
assert isinstance(sd3_conditioning, SD3ConditioningInfo)
sd3_conditioning = sd3_conditioning.to(dtype=dtype, device=device)
t5_embeds = sd3_conditioning.t5_embeds
if t5_embeds is None:
t5_embeds = torch.zeros(
(1, SD3_T5_MAX_SEQ_LEN, joint_attention_dim),
device=device,
dtype=dtype,
)
clip_prompt_embeds = torch.cat([sd3_conditioning.clip_l_embeds, sd3_conditioning.clip_g_embeds], dim=-1)
clip_prompt_embeds = torch.nn.functional.pad(
clip_prompt_embeds, (0, t5_embeds.shape[-1] - clip_prompt_embeds.shape[-1])
)
prompt_embeds = torch.cat([clip_prompt_embeds, t5_embeds], dim=-2)
pooled_prompt_embeds = torch.cat(
[sd3_conditioning.clip_l_pooled_embeds, sd3_conditioning.clip_g_pooled_embeds], dim=-1
)
return prompt_embeds, pooled_prompt_embeds
def _get_noise(
self,
num_samples: int,
num_channels_latents: int,
height: int,
width: int,
dtype: torch.dtype,
device: torch.device,
seed: int,
) -> torch.Tensor:
# We always generate noise on the same device and dtype then cast to ensure consistency across devices/dtypes.
rand_device = "cpu"
rand_dtype = torch.float16
return torch.randn(
num_samples,
num_channels_latents,
int(height) // LATENT_SCALE_FACTOR,
int(width) // LATENT_SCALE_FACTOR,
device=rand_device,
dtype=rand_dtype,
generator=torch.Generator(device=rand_device).manual_seed(seed),
).to(device=device, dtype=dtype)
def _prepare_cfg_scale(self, num_timesteps: int) -> list[float]:
"""Prepare the CFG scale list.
Args:
num_timesteps (int): The number of timesteps in the scheduler. Could be different from num_steps depending
on the scheduler used (e.g. higher order schedulers).
Returns:
list[float]: _description_
"""
if isinstance(self.cfg_scale, float):
cfg_scale = [self.cfg_scale] * num_timesteps
elif isinstance(self.cfg_scale, list):
assert len(self.cfg_scale) == num_timesteps
cfg_scale = self.cfg_scale
else:
raise ValueError(f"Invalid CFG scale type: {type(self.cfg_scale)}")
return cfg_scale
def _run_diffusion(
self,
context: InvocationContext,
):
inference_dtype = TorchDevice.choose_torch_dtype()
device = TorchDevice.choose_torch_device()
transformer_info = context.models.load(self.transformer.transformer)
# Load/process the conditioning data.
# TODO(ryand): Make CFG optional.
do_classifier_free_guidance = True
pos_prompt_embeds, pos_pooled_prompt_embeds = self._load_text_conditioning(
context=context,
conditioning_name=self.positive_conditioning.conditioning_name,
joint_attention_dim=transformer_info.model.config.joint_attention_dim,
dtype=inference_dtype,
device=device,
)
neg_prompt_embeds, neg_pooled_prompt_embeds = self._load_text_conditioning(
context=context,
conditioning_name=self.negative_conditioning.conditioning_name,
joint_attention_dim=transformer_info.model.config.joint_attention_dim,
dtype=inference_dtype,
device=device,
)
# TODO(ryand): Support both sequential and batched CFG inference.
prompt_embeds = torch.cat([neg_prompt_embeds, pos_prompt_embeds], dim=0)
pooled_prompt_embeds = torch.cat([neg_pooled_prompt_embeds, pos_pooled_prompt_embeds], dim=0)
# Prepare the timestep schedule.
# We add an extra step to the end to account for the final timestep of 0.0.
timesteps: list[float] = torch.linspace(1, 0, self.steps + 1).tolist()
# Clip the timesteps schedule based on denoising_start and denoising_end.
timesteps = clip_timestep_schedule_fractional(timesteps, self.denoising_start, self.denoising_end)
total_steps = len(timesteps) - 1
# Prepare the CFG scale list.
cfg_scale = self._prepare_cfg_scale(total_steps)
# Load the input latents, if provided.
init_latents = context.tensors.load(self.latents.latents_name) if self.latents else None
if init_latents is not None:
init_latents = init_latents.to(device=device, dtype=inference_dtype)
# Generate initial latent noise.
num_channels_latents = transformer_info.model.config.in_channels
assert isinstance(num_channels_latents, int)
noise = self._get_noise(
num_samples=1,
num_channels_latents=num_channels_latents,
height=self.height,
width=self.width,
dtype=inference_dtype,
device=device,
seed=self.seed,
)
# Prepare input latent image.
if init_latents is not None:
# Noise the init_latents by the appropriate amount for the first timestep.
t_0 = timesteps[0]
latents = t_0 * noise + (1.0 - t_0) * init_latents
else:
# init_latents are not provided, so we are not doing image-to-image (i.e. we are starting from pure noise).
if self.denoising_start > 1e-5:
raise ValueError("denoising_start should be 0 when initial latents are not provided.")
latents = noise
# If len(timesteps) == 1, then short-circuit. We are just noising the input latents, but not taking any
# denoising steps.
if len(timesteps) <= 1:
return latents
# Prepare inpaint extension.
inpaint_mask = self._prep_inpaint_mask(context, latents)
inpaint_extension: InpaintExtension | None = None
if inpaint_mask is not None:
assert init_latents is not None
inpaint_extension = InpaintExtension(
init_latents=init_latents,
inpaint_mask=inpaint_mask,
noise=noise,
)
step_callback = self._build_step_callback(context)
step_callback(
PipelineIntermediateState(
step=0,
order=1,
total_steps=total_steps,
timestep=int(timesteps[0]),
latents=latents,
),
)
with transformer_info.model_on_device() as (cached_weights, transformer):
assert isinstance(transformer, SD3Transformer2DModel)
# 6. Denoising loop
for step_idx, (t_curr, t_prev) in tqdm(list(enumerate(zip(timesteps[:-1], timesteps[1:], strict=True)))):
# Expand the latents if we are doing CFG.
latent_model_input = torch.cat([latents] * 2) if do_classifier_free_guidance else latents
# Expand the timestep to match the latent model input.
# Multiply by 1000 to match the default FlowMatchEulerDiscreteScheduler num_train_timesteps.
timestep = torch.tensor([t_curr * 1000], device=device).expand(latent_model_input.shape[0])
noise_pred = transformer(
hidden_states=latent_model_input,
timestep=timestep,
encoder_hidden_states=prompt_embeds,
pooled_projections=pooled_prompt_embeds,
joint_attention_kwargs=None,
return_dict=False,
)[0]
# Apply CFG.
if do_classifier_free_guidance:
noise_pred_uncond, noise_pred_cond = noise_pred.chunk(2)
noise_pred = noise_pred_uncond + cfg_scale[step_idx] * (noise_pred_cond - noise_pred_uncond)
# Compute the previous noisy sample x_t -> x_t-1.
latents_dtype = latents.dtype
latents = latents.to(dtype=torch.float32)
latents = latents + (t_prev - t_curr) * noise_pred
latents = latents.to(dtype=latents_dtype)
if inpaint_extension is not None:
latents = inpaint_extension.merge_intermediate_latents_with_init_latents(latents, t_prev)
step_callback(
PipelineIntermediateState(
step=step_idx + 1,
order=1,
total_steps=total_steps,
timestep=int(t_curr),
latents=latents,
),
)
return latents
def _build_step_callback(self, context: InvocationContext) -> Callable[[PipelineIntermediateState], None]:
def step_callback(state: PipelineIntermediateState) -> None:
context.util.sd_step_callback(state, BaseModelType.StableDiffusion3)
return step_callback

View File

@@ -1,65 +0,0 @@
import einops
import torch
from diffusers.models.autoencoders.autoencoder_kl import AutoencoderKL
from invokeai.app.invocations.baseinvocation import BaseInvocation, Classification, invocation
from invokeai.app.invocations.fields import (
FieldDescriptions,
ImageField,
Input,
InputField,
WithBoard,
WithMetadata,
)
from invokeai.app.invocations.model import VAEField
from invokeai.app.invocations.primitives import LatentsOutput
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.backend.model_manager.load.load_base import LoadedModel
from invokeai.backend.stable_diffusion.diffusers_pipeline import image_resized_to_grid_as_tensor
@invocation(
"sd3_i2l",
title="SD3 Image to Latents",
tags=["image", "latents", "vae", "i2l", "sd3"],
category="image",
version="1.0.0",
classification=Classification.Prototype,
)
class SD3ImageToLatentsInvocation(BaseInvocation, WithMetadata, WithBoard):
"""Generates latents from an image."""
image: ImageField = InputField(description="The image to encode")
vae: VAEField = InputField(description=FieldDescriptions.vae, input=Input.Connection)
@staticmethod
def vae_encode(vae_info: LoadedModel, image_tensor: torch.Tensor) -> torch.Tensor:
with vae_info as vae:
assert isinstance(vae, AutoencoderKL)
vae.disable_tiling()
image_tensor = image_tensor.to(device=vae.device, dtype=vae.dtype)
with torch.inference_mode():
image_tensor_dist = vae.encode(image_tensor).latent_dist
# TODO: Use seed to make sampling reproducible.
latents: torch.Tensor = image_tensor_dist.sample().to(dtype=vae.dtype)
latents = vae.config.scaling_factor * latents
return latents
@torch.no_grad()
def invoke(self, context: InvocationContext) -> LatentsOutput:
image = context.images.get_pil(self.image.image_name)
image_tensor = image_resized_to_grid_as_tensor(image.convert("RGB"))
if image_tensor.dim() == 3:
image_tensor = einops.rearrange(image_tensor, "c h w -> 1 c h w")
vae_info = context.models.load(self.vae.vae)
latents = self.vae_encode(vae_info=vae_info, image_tensor=image_tensor)
latents = latents.to("cpu")
name = context.tensors.save(tensor=latents)
return LatentsOutput.build(latents_name=name, latents=latents, seed=None)

View File

@@ -1,74 +0,0 @@
from contextlib import nullcontext
import torch
from diffusers.models.autoencoders.autoencoder_kl import AutoencoderKL
from einops import rearrange
from PIL import Image
from invokeai.app.invocations.baseinvocation import BaseInvocation, invocation
from invokeai.app.invocations.fields import (
FieldDescriptions,
Input,
InputField,
LatentsField,
WithBoard,
WithMetadata,
)
from invokeai.app.invocations.model import VAEField
from invokeai.app.invocations.primitives import ImageOutput
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.backend.stable_diffusion.extensions.seamless import SeamlessExt
from invokeai.backend.util.devices import TorchDevice
@invocation(
"sd3_l2i",
title="SD3 Latents to Image",
tags=["latents", "image", "vae", "l2i", "sd3"],
category="latents",
version="1.3.0",
)
class SD3LatentsToImageInvocation(BaseInvocation, WithMetadata, WithBoard):
"""Generates an image from latents."""
latents: LatentsField = InputField(
description=FieldDescriptions.latents,
input=Input.Connection,
)
vae: VAEField = InputField(
description=FieldDescriptions.vae,
input=Input.Connection,
)
@torch.no_grad()
def invoke(self, context: InvocationContext) -> ImageOutput:
latents = context.tensors.load(self.latents.latents_name)
vae_info = context.models.load(self.vae.vae)
assert isinstance(vae_info.model, (AutoencoderKL))
with SeamlessExt.static_patch_model(vae_info.model, self.vae.seamless_axes), vae_info as vae:
context.util.signal_progress("Running VAE")
assert isinstance(vae, (AutoencoderKL))
latents = latents.to(vae.device)
vae.disable_tiling()
tiling_context = nullcontext()
# clear memory as vae decode can request a lot
TorchDevice.empty_cache()
with torch.inference_mode(), tiling_context:
# copied from diffusers pipeline
latents = latents / vae.config.scaling_factor
img = vae.decode(latents, return_dict=False)[0]
img = img.clamp(-1, 1)
img = rearrange(img[0], "c h w -> h w c") # noqa: F821
img_pil = Image.fromarray((127.5 * (img + 1.0)).byte().cpu().numpy())
TorchDevice.empty_cache()
image_dto = context.images.save(image=img_pil)
return ImageOutput.build(image_dto)

View File

@@ -1,108 +0,0 @@
from typing import Optional
from invokeai.app.invocations.baseinvocation import (
BaseInvocation,
BaseInvocationOutput,
Classification,
invocation,
invocation_output,
)
from invokeai.app.invocations.fields import FieldDescriptions, Input, InputField, OutputField, UIType
from invokeai.app.invocations.model import CLIPField, ModelIdentifierField, T5EncoderField, TransformerField, VAEField
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.backend.model_manager.config import SubModelType
@invocation_output("sd3_model_loader_output")
class Sd3ModelLoaderOutput(BaseInvocationOutput):
"""SD3 base model loader output."""
transformer: TransformerField = OutputField(description=FieldDescriptions.transformer, title="Transformer")
clip_l: CLIPField = OutputField(description=FieldDescriptions.clip, title="CLIP L")
clip_g: CLIPField = OutputField(description=FieldDescriptions.clip, title="CLIP G")
t5_encoder: T5EncoderField = OutputField(description=FieldDescriptions.t5_encoder, title="T5 Encoder")
vae: VAEField = OutputField(description=FieldDescriptions.vae, title="VAE")
@invocation(
"sd3_model_loader",
title="SD3 Main Model",
tags=["model", "sd3"],
category="model",
version="1.0.0",
classification=Classification.Prototype,
)
class Sd3ModelLoaderInvocation(BaseInvocation):
"""Loads a SD3 base model, outputting its submodels."""
model: ModelIdentifierField = InputField(
description=FieldDescriptions.sd3_model,
ui_type=UIType.SD3MainModel,
input=Input.Direct,
)
t5_encoder_model: Optional[ModelIdentifierField] = InputField(
description=FieldDescriptions.t5_encoder,
ui_type=UIType.T5EncoderModel,
input=Input.Direct,
title="T5 Encoder",
default=None,
)
clip_l_model: Optional[ModelIdentifierField] = InputField(
description=FieldDescriptions.clip_embed_model,
ui_type=UIType.CLIPLEmbedModel,
input=Input.Direct,
title="CLIP L Encoder",
default=None,
)
clip_g_model: Optional[ModelIdentifierField] = InputField(
description=FieldDescriptions.clip_g_model,
ui_type=UIType.CLIPGEmbedModel,
input=Input.Direct,
title="CLIP G Encoder",
default=None,
)
vae_model: Optional[ModelIdentifierField] = InputField(
description=FieldDescriptions.vae_model, ui_type=UIType.VAEModel, title="VAE", default=None
)
def invoke(self, context: InvocationContext) -> Sd3ModelLoaderOutput:
transformer = self.model.model_copy(update={"submodel_type": SubModelType.Transformer})
vae = (
self.vae_model.model_copy(update={"submodel_type": SubModelType.VAE})
if self.vae_model
else self.model.model_copy(update={"submodel_type": SubModelType.VAE})
)
tokenizer_l = self.model.model_copy(update={"submodel_type": SubModelType.Tokenizer})
clip_encoder_l = (
self.clip_l_model.model_copy(update={"submodel_type": SubModelType.TextEncoder})
if self.clip_l_model
else self.model.model_copy(update={"submodel_type": SubModelType.TextEncoder})
)
tokenizer_g = self.model.model_copy(update={"submodel_type": SubModelType.Tokenizer2})
clip_encoder_g = (
self.clip_g_model.model_copy(update={"submodel_type": SubModelType.TextEncoder2})
if self.clip_g_model
else self.model.model_copy(update={"submodel_type": SubModelType.TextEncoder2})
)
tokenizer_t5 = (
self.t5_encoder_model.model_copy(update={"submodel_type": SubModelType.Tokenizer3})
if self.t5_encoder_model
else self.model.model_copy(update={"submodel_type": SubModelType.Tokenizer3})
)
t5_encoder = (
self.t5_encoder_model.model_copy(update={"submodel_type": SubModelType.TextEncoder3})
if self.t5_encoder_model
else self.model.model_copy(update={"submodel_type": SubModelType.TextEncoder3})
)
return Sd3ModelLoaderOutput(
transformer=TransformerField(transformer=transformer, loras=[]),
clip_l=CLIPField(tokenizer=tokenizer_l, text_encoder=clip_encoder_l, loras=[], skipped_layers=0),
clip_g=CLIPField(tokenizer=tokenizer_g, text_encoder=clip_encoder_g, loras=[], skipped_layers=0),
t5_encoder=T5EncoderField(tokenizer=tokenizer_t5, text_encoder=t5_encoder),
vae=VAEField(vae=vae),
)

View File

@@ -1,203 +0,0 @@
from contextlib import ExitStack
from typing import Iterator, Tuple
import torch
from transformers import (
CLIPTextModel,
CLIPTextModelWithProjection,
CLIPTokenizer,
T5EncoderModel,
T5Tokenizer,
T5TokenizerFast,
)
from invokeai.app.invocations.baseinvocation import BaseInvocation, Classification, invocation
from invokeai.app.invocations.fields import FieldDescriptions, Input, InputField
from invokeai.app.invocations.model import CLIPField, T5EncoderField
from invokeai.app.invocations.primitives import SD3ConditioningOutput
from invokeai.app.services.shared.invocation_context import InvocationContext
from invokeai.backend.lora.conversions.flux_lora_constants import FLUX_LORA_CLIP_PREFIX
from invokeai.backend.lora.lora_model_raw import LoRAModelRaw
from invokeai.backend.lora.lora_patcher import LoRAPatcher
from invokeai.backend.model_manager.config import ModelFormat
from invokeai.backend.stable_diffusion.diffusion.conditioning_data import ConditioningFieldData, SD3ConditioningInfo
from invokeai.backend.util.devices import TorchDevice
# The SD3 T5 Max Sequence Length set based on the default in diffusers.
SD3_T5_MAX_SEQ_LEN = 256
@invocation(
"sd3_text_encoder",
title="SD3 Text Encoding",
tags=["prompt", "conditioning", "sd3"],
category="conditioning",
version="1.0.0",
classification=Classification.Prototype,
)
class Sd3TextEncoderInvocation(BaseInvocation):
"""Encodes and preps a prompt for a SD3 image."""
clip_l: CLIPField = InputField(
title="CLIP L",
description=FieldDescriptions.clip,
input=Input.Connection,
)
clip_g: CLIPField = InputField(
title="CLIP G",
description=FieldDescriptions.clip,
input=Input.Connection,
)
# The SD3 models were trained with text encoder dropout, so the T5 encoder can be omitted to save time/memory.
t5_encoder: T5EncoderField | None = InputField(
title="T5Encoder",
default=None,
description=FieldDescriptions.t5_encoder,
input=Input.Connection,
)
prompt: str = InputField(description="Text prompt to encode.")
@torch.no_grad()
def invoke(self, context: InvocationContext) -> SD3ConditioningOutput:
# Note: The text encoding model are run in separate functions to ensure that all model references are locally
# scoped. This ensures that earlier models can be freed and gc'd before loading later models (if necessary).
clip_l_embeddings, clip_l_pooled_embeddings = self._clip_encode(context, self.clip_l)
clip_g_embeddings, clip_g_pooled_embeddings = self._clip_encode(context, self.clip_g)
t5_embeddings: torch.Tensor | None = None
if self.t5_encoder is not None:
t5_embeddings = self._t5_encode(context, SD3_T5_MAX_SEQ_LEN)
conditioning_data = ConditioningFieldData(
conditionings=[
SD3ConditioningInfo(
clip_l_embeds=clip_l_embeddings,
clip_l_pooled_embeds=clip_l_pooled_embeddings,
clip_g_embeds=clip_g_embeddings,
clip_g_pooled_embeds=clip_g_pooled_embeddings,
t5_embeds=t5_embeddings,
)
]
)
conditioning_name = context.conditioning.save(conditioning_data)
return SD3ConditioningOutput.build(conditioning_name)
def _t5_encode(self, context: InvocationContext, max_seq_len: int) -> torch.Tensor:
assert self.t5_encoder is not None
t5_tokenizer_info = context.models.load(self.t5_encoder.tokenizer)
t5_text_encoder_info = context.models.load(self.t5_encoder.text_encoder)
prompt = [self.prompt]
with (
t5_text_encoder_info as t5_text_encoder,
t5_tokenizer_info as t5_tokenizer,
):
context.util.signal_progress("Running T5 encoder")
assert isinstance(t5_text_encoder, T5EncoderModel)
assert isinstance(t5_tokenizer, (T5Tokenizer, T5TokenizerFast))
text_inputs = t5_tokenizer(
prompt,
padding="max_length",
max_length=max_seq_len,
truncation=True,
add_special_tokens=True,
return_tensors="pt",
)
text_input_ids = text_inputs.input_ids
untruncated_ids = t5_tokenizer(prompt, padding="longest", return_tensors="pt").input_ids
assert isinstance(text_input_ids, torch.Tensor)
assert isinstance(untruncated_ids, torch.Tensor)
if untruncated_ids.shape[-1] >= text_input_ids.shape[-1] and not torch.equal(
text_input_ids, untruncated_ids
):
removed_text = t5_tokenizer.batch_decode(untruncated_ids[:, max_seq_len - 1 : -1])
context.logger.warning(
"The following part of your input was truncated because `max_sequence_length` is set to "
f" {max_seq_len} tokens: {removed_text}"
)
prompt_embeds = t5_text_encoder(text_input_ids.to(t5_text_encoder.device))[0]
assert isinstance(prompt_embeds, torch.Tensor)
return prompt_embeds
def _clip_encode(
self, context: InvocationContext, clip_model: CLIPField, tokenizer_max_length: int = 77
) -> Tuple[torch.Tensor, torch.Tensor]:
clip_tokenizer_info = context.models.load(clip_model.tokenizer)
clip_text_encoder_info = context.models.load(clip_model.text_encoder)
prompt = [self.prompt]
with (
clip_text_encoder_info.model_on_device() as (cached_weights, clip_text_encoder),
clip_tokenizer_info as clip_tokenizer,
ExitStack() as exit_stack,
):
context.util.signal_progress("Running CLIP encoder")
assert isinstance(clip_text_encoder, (CLIPTextModel, CLIPTextModelWithProjection))
assert isinstance(clip_tokenizer, CLIPTokenizer)
clip_text_encoder_config = clip_text_encoder_info.config
assert clip_text_encoder_config is not None
# Apply LoRA models to the CLIP encoder.
# Note: We apply the LoRA after the transformer has been moved to its target device for faster patching.
if clip_text_encoder_config.format in [ModelFormat.Diffusers]:
# The model is non-quantized, so we can apply the LoRA weights directly into the model.
exit_stack.enter_context(
LoRAPatcher.apply_smart_lora_patches(
model=clip_text_encoder,
patches=self._clip_lora_iterator(context, clip_model),
prefix=FLUX_LORA_CLIP_PREFIX,
dtype=TorchDevice.choose_torch_dtype(),
cached_weights=cached_weights,
)
)
else:
# There are currently no supported CLIP quantized models. Add support here if needed.
raise ValueError(f"Unsupported model format: {clip_text_encoder_config.format}")
clip_text_encoder = clip_text_encoder.eval().requires_grad_(False)
text_inputs = clip_tokenizer(
prompt,
padding="max_length",
max_length=tokenizer_max_length,
truncation=True,
return_tensors="pt",
)
text_input_ids = text_inputs.input_ids
untruncated_ids = clip_tokenizer(prompt, padding="longest", return_tensors="pt").input_ids
assert isinstance(text_input_ids, torch.Tensor)
assert isinstance(untruncated_ids, torch.Tensor)
if untruncated_ids.shape[-1] >= text_input_ids.shape[-1] and not torch.equal(
text_input_ids, untruncated_ids
):
removed_text = clip_tokenizer.batch_decode(untruncated_ids[:, tokenizer_max_length - 1 : -1])
context.logger.warning(
"The following part of your input was truncated because CLIP can only handle sequences up to"
f" {tokenizer_max_length} tokens: {removed_text}"
)
prompt_embeds = clip_text_encoder(
input_ids=text_input_ids.to(clip_text_encoder.device), output_hidden_states=True
)
pooled_prompt_embeds = prompt_embeds[0]
prompt_embeds = prompt_embeds.hidden_states[-2]
return prompt_embeds, pooled_prompt_embeds
def _clip_lora_iterator(
self, context: InvocationContext, clip_model: CLIPField
) -> Iterator[Tuple[LoRAModelRaw, float]]:
for lora in clip_model.loras:
lora_info = context.models.load(lora.lora)
assert isinstance(lora_info.model, LoRAModelRaw)
yield (lora_info.model, lora.weight)
del lora_info

View File

@@ -5,7 +5,7 @@ from typing import Literal
import numpy as np
import torch
from PIL import Image
from pydantic import BaseModel, Field
from pydantic import BaseModel, Field, model_validator
from transformers import AutoModelForMaskGeneration, AutoProcessor
from transformers.models.sam import SamModel
from transformers.models.sam.processing_sam import SamProcessor
@@ -77,14 +77,19 @@ class SegmentAnythingInvocation(BaseInvocation):
default="all",
)
@model_validator(mode="after")
def check_point_lists_or_bounding_box(self):
if self.point_lists is None and self.bounding_boxes is None:
raise ValueError("Either point_lists or bounding_box must be provided.")
elif self.point_lists is not None and self.bounding_boxes is not None:
raise ValueError("Only one of point_lists or bounding_box can be provided.")
return self
@torch.no_grad()
def invoke(self, context: InvocationContext) -> MaskOutput:
# The models expect a 3-channel RGB image.
image_pil = context.images.get_pil(self.image.image_name, mode="RGB")
if self.point_lists is not None and self.bounding_boxes is not None:
raise ValueError("Only one of point_lists or bounding_box can be provided.")
if (not self.bounding_boxes or len(self.bounding_boxes) == 0) and (
not self.point_lists or len(self.point_lists) == 0
):

View File

@@ -207,9 +207,7 @@ class TiledMultiDiffusionDenoiseLatents(BaseInvocation):
with (
ExitStack() as exit_stack,
unet_info as unet,
LoRAPatcher.apply_smart_lora_patches(
model=unet, patches=_lora_loader(), prefix="lora_unet_", dtype=unet.dtype
),
LoRAPatcher.apply_lora_patches(model=unet, patches=_lora_loader(), prefix="lora_unet_"),
):
assert isinstance(unet, UNet2DConditionModel)
latents = latents.to(device=unet.device, dtype=unet.dtype)

View File

@@ -20,7 +20,7 @@ from invokeai.app.services.invocation_stats.invocation_stats_common import (
NodeExecutionStatsSummary,
)
from invokeai.app.services.invoker import Invoker
from invokeai.backend.model_manager.load.model_cache.cache_stats import CacheStats
from invokeai.backend.model_manager.load.model_cache import CacheStats
# Size of 1GB in bytes.
GB = 2**30

View File

@@ -7,7 +7,7 @@ from typing import Callable, Optional
from invokeai.backend.model_manager import AnyModel, AnyModelConfig, SubModelType
from invokeai.backend.model_manager.load import LoadedModel, LoadedModelWithoutConfig
from invokeai.backend.model_manager.load.model_cache.model_cache import ModelCache
from invokeai.backend.model_manager.load.model_cache.model_cache_base import ModelCacheBase
class ModelLoadServiceBase(ABC):
@@ -24,7 +24,7 @@ class ModelLoadServiceBase(ABC):
@property
@abstractmethod
def ram_cache(self) -> ModelCache:
def ram_cache(self) -> ModelCacheBase[AnyModel]:
"""Return the RAM cache used by this loader."""
@abstractmethod

View File

@@ -18,7 +18,7 @@ from invokeai.backend.model_manager.load import (
ModelLoaderRegistry,
ModelLoaderRegistryBase,
)
from invokeai.backend.model_manager.load.model_cache.model_cache import ModelCache
from invokeai.backend.model_manager.load.model_cache.model_cache_base import ModelCacheBase
from invokeai.backend.model_manager.load.model_loaders.generic_diffusers import GenericDiffusersLoader
from invokeai.backend.util.devices import TorchDevice
from invokeai.backend.util.logging import InvokeAILogger
@@ -30,7 +30,7 @@ class ModelLoadService(ModelLoadServiceBase):
def __init__(
self,
app_config: InvokeAIAppConfig,
ram_cache: ModelCache,
ram_cache: ModelCacheBase[AnyModel],
registry: Optional[Type[ModelLoaderRegistryBase]] = ModelLoaderRegistry,
):
"""Initialize the model load service."""
@@ -45,7 +45,7 @@ class ModelLoadService(ModelLoadServiceBase):
self._invoker = invoker
@property
def ram_cache(self) -> ModelCache:
def ram_cache(self) -> ModelCacheBase[AnyModel]:
"""Return the RAM cache used by this loader."""
return self._ram_cache
@@ -78,14 +78,15 @@ class ModelLoadService(ModelLoadServiceBase):
self, model_path: Path, loader: Optional[Callable[[Path], AnyModel]] = None
) -> LoadedModelWithoutConfig:
cache_key = str(model_path)
ram_cache = self.ram_cache
try:
return LoadedModelWithoutConfig(cache_record=self._ram_cache.get(key=cache_key), cache=self._ram_cache)
return LoadedModelWithoutConfig(_locker=ram_cache.get(key=cache_key))
except IndexError:
pass
def torch_load_file(checkpoint: Path) -> AnyModel:
scan_result = scan_file_path(checkpoint)
if scan_result.infected_files != 0 or scan_result.scan_err:
if scan_result.infected_files != 0:
raise Exception("The model at {checkpoint} is potentially infected by malware. Aborting load.")
result = torch_load(checkpoint, map_location="cpu")
return result
@@ -108,5 +109,5 @@ class ModelLoadService(ModelLoadServiceBase):
)
assert loader is not None
raw_model = loader(model_path)
self._ram_cache.put(key=cache_key, model=raw_model)
return LoadedModelWithoutConfig(cache_record=self._ram_cache.get(key=cache_key), cache=self._ram_cache)
ram_cache.put(key=cache_key, model=raw_model)
return LoadedModelWithoutConfig(_locker=ram_cache.get(key=cache_key))

View File

@@ -16,8 +16,7 @@ from invokeai.app.services.model_load.model_load_base import ModelLoadServiceBas
from invokeai.app.services.model_load.model_load_default import ModelLoadService
from invokeai.app.services.model_manager.model_manager_base import ModelManagerServiceBase
from invokeai.app.services.model_records.model_records_base import ModelRecordServiceBase
from invokeai.backend.model_manager.load.model_cache.model_cache import ModelCache
from invokeai.backend.model_manager.load.model_loader_registry import ModelLoaderRegistry
from invokeai.backend.model_manager.load import ModelCache, ModelLoaderRegistry
from invokeai.backend.util.devices import TorchDevice
from invokeai.backend.util.logging import InvokeAILogger

View File

@@ -15,7 +15,6 @@ from invokeai.app.util.model_exclude_null import BaseModelExcludeNull
from invokeai.backend.model_manager.config import (
AnyModelConfig,
BaseModelType,
ClipVariantType,
ControlAdapterDefaultSettings,
MainModelDefaultSettings,
ModelFormat,
@@ -86,7 +85,7 @@ class ModelRecordChanges(BaseModelExcludeNull):
# Checkpoint-specific changes
# TODO(MM2): Should we expose these? Feels footgun-y...
variant: Optional[ModelVariantType | ClipVariantType] = Field(description="The variant of the model.", default=None)
variant: Optional[ModelVariantType] = Field(description="The variant of the model.", default=None)
prediction_type: Optional[SchedulerPredictionType] = Field(
description="The prediction type of the model.", default=None
)

View File

@@ -16,7 +16,6 @@ from pydantic import (
from pydantic_core import to_jsonable_python
from invokeai.app.invocations.baseinvocation import BaseInvocation
from invokeai.app.invocations.fields import ImageField
from invokeai.app.services.shared.graph import Graph, GraphExecutionState, NodeNotFoundError
from invokeai.app.services.workflow_records.workflow_records_common import (
WorkflowWithoutID,
@@ -52,7 +51,11 @@ class SessionQueueItemNotFoundError(ValueError):
# region Batch
BatchDataType = Union[StrictStr, float, int, ImageField]
BatchDataType = Union[
StrictStr,
float,
int,
]
class NodeFieldValue(BaseModel):

View File

@@ -160,10 +160,6 @@ class LoggerInterface(InvocationContextInterface):
class ImagesInterface(InvocationContextInterface):
def __init__(self, services: InvocationServices, data: InvocationContextData, util: "UtilInterface") -> None:
super().__init__(services, data)
self._util = util
def save(
self,
image: Image,
@@ -190,8 +186,6 @@ class ImagesInterface(InvocationContextInterface):
The saved image DTO.
"""
self._util.signal_progress("Saving image")
# If `metadata` is provided directly, use that. Else, use the metadata provided by `WithMetadata`, falling back to None.
metadata_ = None
if metadata:
@@ -342,10 +336,6 @@ class ConditioningInterface(InvocationContextInterface):
class ModelsInterface(InvocationContextInterface):
"""Common API for loading, downloading and managing models."""
def __init__(self, services: InvocationServices, data: InvocationContextData, util: "UtilInterface") -> None:
super().__init__(services, data)
self._util = util
def exists(self, identifier: Union[str, "ModelIdentifierField"]) -> bool:
"""Check if a model exists.
@@ -378,15 +368,11 @@ class ModelsInterface(InvocationContextInterface):
if isinstance(identifier, str):
model = self._services.model_manager.store.get_model(identifier)
return self._services.model_manager.load.load_model(model, submodel_type)
else:
submodel_type = submodel_type or identifier.submodel_type
_submodel_type = submodel_type or identifier.submodel_type
model = self._services.model_manager.store.get_model(identifier.key)
message = f"Loading model {model.name}"
if submodel_type:
message += f" ({submodel_type.value})"
self._util.signal_progress(message)
return self._services.model_manager.load.load_model(model, submodel_type)
return self._services.model_manager.load.load_model(model, _submodel_type)
def load_by_attrs(
self, name: str, base: BaseModelType, type: ModelType, submodel_type: Optional[SubModelType] = None
@@ -411,10 +397,6 @@ class ModelsInterface(InvocationContextInterface):
if len(configs) > 1:
raise ValueError(f"More than one model found with name {name}, base {base}, and type {type}")
message = f"Loading model {name}"
if submodel_type:
message += f" ({submodel_type.value})"
self._util.signal_progress(message)
return self._services.model_manager.load.load_model(configs[0], submodel_type)
def get_config(self, identifier: Union[str, "ModelIdentifierField"]) -> AnyModelConfig:
@@ -485,7 +467,6 @@ class ModelsInterface(InvocationContextInterface):
Returns:
Path to the downloaded model
"""
self._util.signal_progress(f"Downloading model {source}")
return self._services.model_manager.install.download_and_cache_model(source=source)
def load_local_model(
@@ -508,8 +489,6 @@ class ModelsInterface(InvocationContextInterface):
Returns:
A LoadedModelWithoutConfig object.
"""
self._util.signal_progress(f"Loading model {model_path.name}")
return self._services.model_manager.load.load_model_from_path(model_path=model_path, loader=loader)
def load_remote_model(
@@ -535,8 +514,6 @@ class ModelsInterface(InvocationContextInterface):
A LoadedModelWithoutConfig object.
"""
model_path = self._services.model_manager.install.download_and_cache_model(source=str(source))
self._util.signal_progress(f"Loading model {source}")
return self._services.model_manager.load.load_model_from_path(model_path=model_path, loader=loader)
@@ -730,12 +707,12 @@ def build_invocation_context(
"""
logger = LoggerInterface(services=services, data=data)
images = ImagesInterface(services=services, data=data)
tensors = TensorsInterface(services=services, data=data)
models = ModelsInterface(services=services, data=data)
config = ConfigInterface(services=services, data=data)
util = UtilInterface(services=services, data=data, is_canceled=is_canceled)
conditioning = ConditioningInterface(services=services, data=data)
models = ModelsInterface(services=services, data=data, util=util)
images = ImagesInterface(services=services, data=data, util=util)
boards = BoardsInterface(services=services, data=data)
ctx = InvocationContext(

View File

@@ -1,382 +0,0 @@
{
"name": "SD3.5 Text to Image",
"author": "InvokeAI",
"description": "Sample text to image workflow for Stable Diffusion 3.5",
"version": "1.0.0",
"contact": "invoke@invoke.ai",
"tags": "text2image, SD3.5, default",
"notes": "",
"exposedFields": [
{
"nodeId": "3f22f668-0e02-4fde-a2bb-c339586ceb4c",
"fieldName": "model"
},
{
"nodeId": "e17d34e7-6ed1-493c-9a85-4fcd291cb084",
"fieldName": "prompt"
}
],
"meta": {
"version": "3.0.0",
"category": "default"
},
"id": "e3a51d6b-8208-4d6d-b187-fcfe8b32934c",
"nodes": [
{
"id": "3f22f668-0e02-4fde-a2bb-c339586ceb4c",
"type": "invocation",
"data": {
"id": "3f22f668-0e02-4fde-a2bb-c339586ceb4c",
"type": "sd3_model_loader",
"version": "1.0.0",
"label": "",
"notes": "",
"isOpen": true,
"isIntermediate": true,
"useCache": true,
"nodePack": "invokeai",
"inputs": {
"model": {
"name": "model",
"label": "",
"value": {
"key": "f7b20be9-92a8-4cfb-bca4-6c3b5535c10b",
"hash": "placeholder",
"name": "stable-diffusion-3.5-medium",
"base": "sd-3",
"type": "main"
}
},
"t5_encoder_model": {
"name": "t5_encoder_model",
"label": ""
},
"clip_l_model": {
"name": "clip_l_model",
"label": ""
},
"clip_g_model": {
"name": "clip_g_model",
"label": ""
},
"vae_model": {
"name": "vae_model",
"label": ""
}
}
},
"position": {
"x": -55.58689609637031,
"y": -111.53602444662268
}
},
{
"id": "f7e394ac-6394-4096-abcb-de0d346506b3",
"type": "invocation",
"data": {
"id": "f7e394ac-6394-4096-abcb-de0d346506b3",
"type": "rand_int",
"version": "1.0.1",
"label": "",
"notes": "",
"isOpen": true,
"isIntermediate": true,
"useCache": false,
"nodePack": "invokeai",
"inputs": {
"low": {
"name": "low",
"label": "",
"value": 0
},
"high": {
"name": "high",
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"value": 2147483647
}
}
},
"position": {
"x": 470.45870147220353,
"y": 350.3141781644303
}
},
{
"id": "9eb72af0-dd9e-4ec5-ad87-d65e3c01f48b",
"type": "invocation",
"data": {
"id": "9eb72af0-dd9e-4ec5-ad87-d65e3c01f48b",
"type": "sd3_l2i",
"version": "1.3.0",
"label": "",
"notes": "",
"isOpen": true,
"isIntermediate": false,
"useCache": true,
"nodePack": "invokeai",
"inputs": {
"board": {
"name": "board",
"label": ""
},
"metadata": {
"name": "metadata",
"label": ""
},
"latents": {
"name": "latents",
"label": ""
},
"vae": {
"name": "vae",
"label": ""
}
}
},
"position": {
"x": 1192.3097009334897,
"y": -366.0994675072209
}
},
{
"id": "3b4f7f27-cfc0-4373-a009-99c5290d0cd6",
"type": "invocation",
"data": {
"id": "3b4f7f27-cfc0-4373-a009-99c5290d0cd6",
"type": "sd3_text_encoder",
"version": "1.0.0",
"label": "",
"notes": "",
"isOpen": true,
"isIntermediate": true,
"useCache": true,
"nodePack": "invokeai",
"inputs": {
"clip_l": {
"name": "clip_l",
"label": ""
},
"clip_g": {
"name": "clip_g",
"label": ""
},
"t5_encoder": {
"name": "t5_encoder",
"label": ""
},
"prompt": {
"name": "prompt",
"label": "",
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}
}
},
"position": {
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}
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{
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"type": "sd3_text_encoder",
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"isOpen": true,
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"useCache": true,
"nodePack": "invokeai",
"inputs": {
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"name": "clip_l",
"label": ""
},
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"label": ""
},
"t5_encoder": {
"name": "t5_encoder",
"label": ""
},
"prompt": {
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"label": "",
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}
}
},
"position": {
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"y": -302.65777497352553
}
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{
"id": "c7539f7b-7ac5-49b9-93eb-87ede611409f",
"type": "invocation",
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"type": "sd3_denoise",
"version": "1.0.0",
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"notes": "",
"isOpen": true,
"isIntermediate": true,
"useCache": true,
"nodePack": "invokeai",
"inputs": {
"board": {
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"label": ""
},
"metadata": {
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},
"transformer": {
"name": "transformer",
"label": ""
},
"positive_conditioning": {
"name": "positive_conditioning",
"label": ""
},
"negative_conditioning": {
"name": "negative_conditioning",
"label": ""
},
"cfg_scale": {
"name": "cfg_scale",
"label": "",
"value": 3.5
},
"width": {
"name": "width",
"label": "",
"value": 1024
},
"height": {
"name": "height",
"label": "",
"value": 1024
},
"steps": {
"name": "steps",
"label": "",
"value": 30
},
"seed": {
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"label": "",
"value": 0
}
}
},
"position": {
"x": 813.7814762740603,
"y": -142.20529727605867
}
}
],
"edges": [
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"id": "reactflow__edge-3f22f668-0e02-4fde-a2bb-c339586ceb4cvae-9eb72af0-dd9e-4ec5-ad87-d65e3c01f48bvae",
"type": "default",
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"target": "9eb72af0-dd9e-4ec5-ad87-d65e3c01f48b",
"sourceHandle": "vae",
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},
{
"id": "reactflow__edge-3f22f668-0e02-4fde-a2bb-c339586ceb4ct5_encoder-3b4f7f27-cfc0-4373-a009-99c5290d0cd6t5_encoder",
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"type": "default",
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"target": "e17d34e7-6ed1-493c-9a85-4fcd291cb084",
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"type": "default",
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"target": "e17d34e7-6ed1-493c-9a85-4fcd291cb084",
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},
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"type": "default",
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"source": "f7e394ac-6394-4096-abcb-de0d346506b3",
"target": "c7539f7b-7ac5-49b9-93eb-87ede611409f",
"sourceHandle": "value",
"targetHandle": "seed"
},
{
"id": "reactflow__edge-c7539f7b-7ac5-49b9-93eb-87ede611409flatents-9eb72af0-dd9e-4ec5-ad87-d65e3c01f48blatents",
"type": "default",
"source": "c7539f7b-7ac5-49b9-93eb-87ede611409f",
"target": "9eb72af0-dd9e-4ec5-ad87-d65e3c01f48b",
"sourceHandle": "latents",
"targetHandle": "latents"
},
{
"id": "reactflow__edge-e17d34e7-6ed1-493c-9a85-4fcd291cb084conditioning-c7539f7b-7ac5-49b9-93eb-87ede611409fpositive_conditioning",
"type": "default",
"source": "e17d34e7-6ed1-493c-9a85-4fcd291cb084",
"target": "c7539f7b-7ac5-49b9-93eb-87ede611409f",
"sourceHandle": "conditioning",
"targetHandle": "positive_conditioning"
},
{
"id": "reactflow__edge-3b4f7f27-cfc0-4373-a009-99c5290d0cd6conditioning-c7539f7b-7ac5-49b9-93eb-87ede611409fnegative_conditioning",
"type": "default",
"source": "3b4f7f27-cfc0-4373-a009-99c5290d0cd6",
"target": "c7539f7b-7ac5-49b9-93eb-87ede611409f",
"sourceHandle": "conditioning",
"targetHandle": "negative_conditioning"
}
]
}

View File

@@ -34,25 +34,6 @@ SD1_5_LATENT_RGB_FACTORS = [
[-0.1307, -0.1874, -0.7445], # L4
]
SD3_5_LATENT_RGB_FACTORS = [
[-0.05240681, 0.03251581, 0.0749016],
[-0.0580572, 0.00759826, 0.05729818],
[0.16144888, 0.01270368, -0.03768577],
[0.14418615, 0.08460266, 0.15941818],
[0.04894035, 0.0056485, -0.06686988],
[0.05187166, 0.19222395, 0.06261094],
[0.1539433, 0.04818359, 0.07103094],
[-0.08601796, 0.09013458, 0.10893912],
[-0.12398469, -0.06766567, 0.0033688],
[-0.0439737, 0.07825329, 0.02258823],
[0.03101129, 0.06382551, 0.07753657],
[-0.01315361, 0.08554491, -0.08772475],
[0.06464487, 0.05914605, 0.13262741],
[-0.07863674, -0.02261737, -0.12761454],
[-0.09923835, -0.08010759, -0.06264447],
[-0.03392309, -0.0804029, -0.06078822],
]
FLUX_LATENT_RGB_FACTORS = [
[-0.0412, 0.0149, 0.0521],
[0.0056, 0.0291, 0.0768],
@@ -129,9 +110,6 @@ def stable_diffusion_step_callback(
sdxl_latent_rgb_factors = torch.tensor(SDXL_LATENT_RGB_FACTORS, dtype=sample.dtype, device=sample.device)
sdxl_smooth_matrix = torch.tensor(SDXL_SMOOTH_MATRIX, dtype=sample.dtype, device=sample.device)
image = sample_to_lowres_estimated_image(sample, sdxl_latent_rgb_factors, sdxl_smooth_matrix)
elif base_model == BaseModelType.StableDiffusion3:
sd3_latent_rgb_factors = torch.tensor(SD3_5_LATENT_RGB_FACTORS, dtype=sample.dtype, device=sample.device)
image = sample_to_lowres_estimated_image(sample, sd3_latent_rgb_factors)
else:
v1_5_latent_rgb_factors = torch.tensor(SD1_5_LATENT_RGB_FACTORS, dtype=sample.dtype, device=sample.device)
image = sample_to_lowres_estimated_image(sample, v1_5_latent_rgb_factors)

View File

@@ -1,10 +1,9 @@
import einops
import torch
from invokeai.backend.flux.extensions.regional_prompting_extension import RegionalPromptingExtension
from invokeai.backend.flux.extensions.xlabs_ip_adapter_extension import XLabsIPAdapterExtension
from invokeai.backend.flux.math import attention
from invokeai.backend.flux.modules.layers import DoubleStreamBlock, SingleStreamBlock
from invokeai.backend.flux.modules.layers import DoubleStreamBlock
class CustomDoubleStreamBlockProcessor:
@@ -14,12 +13,7 @@ class CustomDoubleStreamBlockProcessor:
@staticmethod
def _double_stream_block_forward(
block: DoubleStreamBlock,
img: torch.Tensor,
txt: torch.Tensor,
vec: torch.Tensor,
pe: torch.Tensor,
attn_mask: torch.Tensor | None = None,
block: DoubleStreamBlock, img: torch.Tensor, txt: torch.Tensor, vec: torch.Tensor, pe: torch.Tensor
) -> tuple[torch.Tensor, torch.Tensor, torch.Tensor]:
"""This function is a direct copy of DoubleStreamBlock.forward(), but it returns some of the intermediate
values.
@@ -46,7 +40,7 @@ class CustomDoubleStreamBlockProcessor:
k = torch.cat((txt_k, img_k), dim=2)
v = torch.cat((txt_v, img_v), dim=2)
attn = attention(q, k, v, pe=pe, attn_mask=attn_mask)
attn = attention(q, k, v, pe=pe)
txt_attn, img_attn = attn[:, : txt.shape[1]], attn[:, txt.shape[1] :]
# calculate the img bloks
@@ -69,15 +63,11 @@ class CustomDoubleStreamBlockProcessor:
vec: torch.Tensor,
pe: torch.Tensor,
ip_adapter_extensions: list[XLabsIPAdapterExtension],
regional_prompting_extension: RegionalPromptingExtension,
) -> tuple[torch.Tensor, torch.Tensor]:
"""A custom implementation of DoubleStreamBlock.forward() with additional features:
- IP-Adapter support
"""
attn_mask = regional_prompting_extension.get_double_stream_attn_mask(block_index)
img, txt, img_q = CustomDoubleStreamBlockProcessor._double_stream_block_forward(
block, img, txt, vec, pe, attn_mask=attn_mask
)
img, txt, img_q = CustomDoubleStreamBlockProcessor._double_stream_block_forward(block, img, txt, vec, pe)
# Apply IP-Adapter conditioning.
for ip_adapter_extension in ip_adapter_extensions:
@@ -91,48 +81,3 @@ class CustomDoubleStreamBlockProcessor:
)
return img, txt
class CustomSingleStreamBlockProcessor:
"""A class containing a custom implementation of SingleStreamBlock.forward() with additional features (masking,
etc.)
"""
@staticmethod
def _single_stream_block_forward(
block: SingleStreamBlock,
x: torch.Tensor,
vec: torch.Tensor,
pe: torch.Tensor,
attn_mask: torch.Tensor | None = None,
) -> torch.Tensor:
"""This function is a direct copy of SingleStreamBlock.forward()."""
mod, _ = block.modulation(vec)
x_mod = (1 + mod.scale) * block.pre_norm(x) + mod.shift
qkv, mlp = torch.split(block.linear1(x_mod), [3 * block.hidden_size, block.mlp_hidden_dim], dim=-1)
q, k, v = einops.rearrange(qkv, "B L (K H D) -> K B H L D", K=3, H=block.num_heads)
q, k = block.norm(q, k, v)
# compute attention
attn = attention(q, k, v, pe=pe, attn_mask=attn_mask)
# compute activation in mlp stream, cat again and run second linear layer
output = block.linear2(torch.cat((attn, block.mlp_act(mlp)), 2))
return x + mod.gate * output
@staticmethod
def custom_single_block_forward(
timestep_index: int,
total_num_timesteps: int,
block_index: int,
block: SingleStreamBlock,
img: torch.Tensor,
vec: torch.Tensor,
pe: torch.Tensor,
regional_prompting_extension: RegionalPromptingExtension,
) -> torch.Tensor:
"""A custom implementation of SingleStreamBlock.forward() with additional features:
- Masking
"""
attn_mask = regional_prompting_extension.get_single_stream_attn_mask(block_index)
return CustomSingleStreamBlockProcessor._single_stream_block_forward(block, img, vec, pe, attn_mask=attn_mask)

View File

@@ -7,7 +7,6 @@ from tqdm import tqdm
from invokeai.backend.flux.controlnet.controlnet_flux_output import ControlNetFluxOutput, sum_controlnet_flux_outputs
from invokeai.backend.flux.extensions.inpaint_extension import InpaintExtension
from invokeai.backend.flux.extensions.instantx_controlnet_extension import InstantXControlNetExtension
from invokeai.backend.flux.extensions.regional_prompting_extension import RegionalPromptingExtension
from invokeai.backend.flux.extensions.xlabs_controlnet_extension import XLabsControlNetExtension
from invokeai.backend.flux.extensions.xlabs_ip_adapter_extension import XLabsIPAdapterExtension
from invokeai.backend.flux.model import Flux
@@ -19,8 +18,14 @@ def denoise(
# model input
img: torch.Tensor,
img_ids: torch.Tensor,
pos_regional_prompting_extension: RegionalPromptingExtension,
neg_regional_prompting_extension: RegionalPromptingExtension | None,
# positive text conditioning
txt: torch.Tensor,
txt_ids: torch.Tensor,
vec: torch.Tensor,
# negative text conditioning
neg_txt: torch.Tensor | None,
neg_txt_ids: torch.Tensor | None,
neg_vec: torch.Tensor | None,
# sampling parameters
timesteps: list[float],
step_callback: Callable[[PipelineIntermediateState], None],
@@ -56,9 +61,9 @@ def denoise(
total_num_timesteps=total_steps,
img=img,
img_ids=img_ids,
txt=pos_regional_prompting_extension.regional_text_conditioning.t5_embeddings,
txt_ids=pos_regional_prompting_extension.regional_text_conditioning.t5_txt_ids,
y=pos_regional_prompting_extension.regional_text_conditioning.clip_embeddings,
txt=txt,
txt_ids=txt_ids,
y=vec,
timesteps=t_vec,
guidance=guidance_vec,
)
@@ -73,9 +78,9 @@ def denoise(
pred = model(
img=img,
img_ids=img_ids,
txt=pos_regional_prompting_extension.regional_text_conditioning.t5_embeddings,
txt_ids=pos_regional_prompting_extension.regional_text_conditioning.t5_txt_ids,
y=pos_regional_prompting_extension.regional_text_conditioning.clip_embeddings,
txt=txt,
txt_ids=txt_ids,
y=vec,
timesteps=t_vec,
guidance=guidance_vec,
timestep_index=step_index,
@@ -83,7 +88,6 @@ def denoise(
controlnet_double_block_residuals=merged_controlnet_residuals.double_block_residuals,
controlnet_single_block_residuals=merged_controlnet_residuals.single_block_residuals,
ip_adapter_extensions=pos_ip_adapter_extensions,
regional_prompting_extension=pos_regional_prompting_extension,
)
step_cfg_scale = cfg_scale[step_index]
@@ -93,15 +97,15 @@ def denoise(
# TODO(ryand): Add option to run positive and negative predictions in a single batch for better performance
# on systems with sufficient VRAM.
if neg_regional_prompting_extension is None:
if neg_txt is None or neg_txt_ids is None or neg_vec is None:
raise ValueError("Negative text conditioning is required when cfg_scale is not 1.0.")
neg_pred = model(
img=img,
img_ids=img_ids,
txt=neg_regional_prompting_extension.regional_text_conditioning.t5_embeddings,
txt_ids=neg_regional_prompting_extension.regional_text_conditioning.t5_txt_ids,
y=neg_regional_prompting_extension.regional_text_conditioning.clip_embeddings,
txt=neg_txt,
txt_ids=neg_txt_ids,
y=neg_vec,
timesteps=t_vec,
guidance=guidance_vec,
timestep_index=step_index,
@@ -109,7 +113,6 @@ def denoise(
controlnet_double_block_residuals=None,
controlnet_single_block_residuals=None,
ip_adapter_extensions=neg_ip_adapter_extensions,
regional_prompting_extension=neg_regional_prompting_extension,
)
pred = neg_pred + step_cfg_scale * (pred - neg_pred)

View File

@@ -1,276 +0,0 @@
from typing import Optional
import torch
import torchvision
from invokeai.backend.flux.text_conditioning import FluxRegionalTextConditioning, FluxTextConditioning
from invokeai.backend.stable_diffusion.diffusion.conditioning_data import Range
from invokeai.backend.util.devices import TorchDevice
from invokeai.backend.util.mask import to_standard_float_mask
class RegionalPromptingExtension:
"""A class for managing regional prompting with FLUX.
This implementation is inspired by https://arxiv.org/pdf/2411.02395 (though there are significant differences).
"""
def __init__(
self,
regional_text_conditioning: FluxRegionalTextConditioning,
restricted_attn_mask: torch.Tensor | None = None,
):
self.regional_text_conditioning = regional_text_conditioning
self.restricted_attn_mask = restricted_attn_mask
def get_double_stream_attn_mask(self, block_index: int) -> torch.Tensor | None:
order = [self.restricted_attn_mask, None]
return order[block_index % len(order)]
def get_single_stream_attn_mask(self, block_index: int) -> torch.Tensor | None:
order = [self.restricted_attn_mask, None]
return order[block_index % len(order)]
@classmethod
def from_text_conditioning(cls, text_conditioning: list[FluxTextConditioning], img_seq_len: int):
"""Create a RegionalPromptingExtension from a list of text conditionings.
Args:
text_conditioning (list[FluxTextConditioning]): The text conditionings to use for regional prompting.
img_seq_len (int): The image sequence length (i.e. packed_height * packed_width).
"""
regional_text_conditioning = cls._concat_regional_text_conditioning(text_conditioning)
attn_mask_with_restricted_img_self_attn = cls._prepare_restricted_attn_mask(
regional_text_conditioning, img_seq_len
)
return cls(
regional_text_conditioning=regional_text_conditioning,
restricted_attn_mask=attn_mask_with_restricted_img_self_attn,
)
# Keeping _prepare_unrestricted_attn_mask for reference as an alternative masking strategy:
#
# @classmethod
# def _prepare_unrestricted_attn_mask(
# cls,
# regional_text_conditioning: FluxRegionalTextConditioning,
# img_seq_len: int,
# ) -> torch.Tensor:
# """Prepare an 'unrestricted' attention mask. In this context, 'unrestricted' means that:
# - img self-attention is not masked.
# - img regions attend to both txt within their own region and to global prompts.
# """
# device = TorchDevice.choose_torch_device()
# # Infer txt_seq_len from the t5_embeddings tensor.
# txt_seq_len = regional_text_conditioning.t5_embeddings.shape[1]
# # In the attention blocks, the txt seq and img seq are concatenated and then attention is applied.
# # Concatenation happens in the following order: [txt_seq, img_seq].
# # There are 4 portions of the attention mask to consider as we prepare it:
# # 1. txt attends to itself
# # 2. txt attends to corresponding regional img
# # 3. regional img attends to corresponding txt
# # 4. regional img attends to itself
# # Initialize empty attention mask.
# regional_attention_mask = torch.zeros(
# (txt_seq_len + img_seq_len, txt_seq_len + img_seq_len), device=device, dtype=torch.float16
# )
# for image_mask, t5_embedding_range in zip(
# regional_text_conditioning.image_masks, regional_text_conditioning.t5_embedding_ranges, strict=True
# ):
# # 1. txt attends to itself
# regional_attention_mask[
# t5_embedding_range.start : t5_embedding_range.end, t5_embedding_range.start : t5_embedding_range.end
# ] = 1.0
# # 2. txt attends to corresponding regional img
# # Note that we reshape to (1, img_seq_len) to ensure broadcasting works as desired.
# fill_value = image_mask.view(1, img_seq_len) if image_mask is not None else 1.0
# regional_attention_mask[t5_embedding_range.start : t5_embedding_range.end, txt_seq_len:] = fill_value
# # 3. regional img attends to corresponding txt
# # Note that we reshape to (img_seq_len, 1) to ensure broadcasting works as desired.
# fill_value = image_mask.view(img_seq_len, 1) if image_mask is not None else 1.0
# regional_attention_mask[txt_seq_len:, t5_embedding_range.start : t5_embedding_range.end] = fill_value
# # 4. regional img attends to itself
# # Allow unrestricted img self attention.
# regional_attention_mask[txt_seq_len:, txt_seq_len:] = 1.0
# # Convert attention mask to boolean.
# regional_attention_mask = regional_attention_mask > 0.5
# return regional_attention_mask
@classmethod
def _prepare_restricted_attn_mask(
cls,
regional_text_conditioning: FluxRegionalTextConditioning,
img_seq_len: int,
) -> torch.Tensor | None:
"""Prepare a 'restricted' attention mask. In this context, 'restricted' means that:
- img self-attention is only allowed within regions.
- img regions only attend to txt within their own region, not to global prompts.
"""
# Identify background region. I.e. the region that is not covered by any region masks.
background_region_mask: None | torch.Tensor = None
for image_mask in regional_text_conditioning.image_masks:
if image_mask is not None:
if background_region_mask is None:
background_region_mask = torch.ones_like(image_mask)
background_region_mask *= 1 - image_mask
if background_region_mask is None:
# There are no region masks, short-circuit and return None.
# TODO(ryand): We could restrict txt-txt attention across multiple global prompts, but this would
# is a rare use case and would make the logic here significantly more complicated.
return None
device = TorchDevice.choose_torch_device()
# Infer txt_seq_len from the t5_embeddings tensor.
txt_seq_len = regional_text_conditioning.t5_embeddings.shape[1]
# In the attention blocks, the txt seq and img seq are concatenated and then attention is applied.
# Concatenation happens in the following order: [txt_seq, img_seq].
# There are 4 portions of the attention mask to consider as we prepare it:
# 1. txt attends to itself
# 2. txt attends to corresponding regional img
# 3. regional img attends to corresponding txt
# 4. regional img attends to itself
# Initialize empty attention mask.
regional_attention_mask = torch.zeros(
(txt_seq_len + img_seq_len, txt_seq_len + img_seq_len), device=device, dtype=torch.float16
)
for image_mask, t5_embedding_range in zip(
regional_text_conditioning.image_masks, regional_text_conditioning.t5_embedding_ranges, strict=True
):
# 1. txt attends to itself
regional_attention_mask[
t5_embedding_range.start : t5_embedding_range.end, t5_embedding_range.start : t5_embedding_range.end
] = 1.0
if image_mask is not None:
# 2. txt attends to corresponding regional img
# Note that we reshape to (1, img_seq_len) to ensure broadcasting works as desired.
regional_attention_mask[t5_embedding_range.start : t5_embedding_range.end, txt_seq_len:] = (
image_mask.view(1, img_seq_len)
)
# 3. regional img attends to corresponding txt
# Note that we reshape to (img_seq_len, 1) to ensure broadcasting works as desired.
regional_attention_mask[txt_seq_len:, t5_embedding_range.start : t5_embedding_range.end] = (
image_mask.view(img_seq_len, 1)
)
# 4. regional img attends to itself
image_mask = image_mask.view(img_seq_len, 1)
regional_attention_mask[txt_seq_len:, txt_seq_len:] += image_mask @ image_mask.T
else:
# We don't allow attention between non-background image regions and global prompts. This helps to ensure
# that regions focus on their local prompts. We do, however, allow attention between background regions
# and global prompts. If we didn't do this, then the background regions would not attend to any txt
# embeddings, which we found experimentally to cause artifacts.
# 2. global txt attends to background region
# Note that we reshape to (1, img_seq_len) to ensure broadcasting works as desired.
regional_attention_mask[t5_embedding_range.start : t5_embedding_range.end, txt_seq_len:] = (
background_region_mask.view(1, img_seq_len)
)
# 3. background region attends to global txt
# Note that we reshape to (img_seq_len, 1) to ensure broadcasting works as desired.
regional_attention_mask[txt_seq_len:, t5_embedding_range.start : t5_embedding_range.end] = (
background_region_mask.view(img_seq_len, 1)
)
# Allow background regions to attend to themselves.
regional_attention_mask[txt_seq_len:, txt_seq_len:] += background_region_mask.view(img_seq_len, 1)
regional_attention_mask[txt_seq_len:, txt_seq_len:] += background_region_mask.view(1, img_seq_len)
# Convert attention mask to boolean.
regional_attention_mask = regional_attention_mask > 0.5
return regional_attention_mask
@classmethod
def _concat_regional_text_conditioning(
cls,
text_conditionings: list[FluxTextConditioning],
) -> FluxRegionalTextConditioning:
"""Concatenate regional text conditioning data into a single conditioning tensor (with associated masks)."""
concat_t5_embeddings: list[torch.Tensor] = []
concat_t5_embedding_ranges: list[Range] = []
image_masks: list[torch.Tensor | None] = []
# Choose global CLIP embedding.
# Use the first global prompt's CLIP embedding as the global CLIP embedding. If there is no global prompt, use
# the first prompt's CLIP embedding.
global_clip_embedding: torch.Tensor = text_conditionings[0].clip_embeddings
for text_conditioning in text_conditionings:
if text_conditioning.mask is None:
global_clip_embedding = text_conditioning.clip_embeddings
break
cur_t5_embedding_len = 0
for text_conditioning in text_conditionings:
concat_t5_embeddings.append(text_conditioning.t5_embeddings)
concat_t5_embedding_ranges.append(
Range(start=cur_t5_embedding_len, end=cur_t5_embedding_len + text_conditioning.t5_embeddings.shape[1])
)
image_masks.append(text_conditioning.mask)
cur_t5_embedding_len += text_conditioning.t5_embeddings.shape[1]
t5_embeddings = torch.cat(concat_t5_embeddings, dim=1)
# Initialize the txt_ids tensor.
pos_bs, pos_t5_seq_len, _ = t5_embeddings.shape
t5_txt_ids = torch.zeros(
pos_bs, pos_t5_seq_len, 3, dtype=t5_embeddings.dtype, device=TorchDevice.choose_torch_device()
)
return FluxRegionalTextConditioning(
t5_embeddings=t5_embeddings,
clip_embeddings=global_clip_embedding,
t5_txt_ids=t5_txt_ids,
image_masks=image_masks,
t5_embedding_ranges=concat_t5_embedding_ranges,
)
@staticmethod
def preprocess_regional_prompt_mask(
mask: Optional[torch.Tensor], packed_height: int, packed_width: int, dtype: torch.dtype, device: torch.device
) -> torch.Tensor:
"""Preprocess a regional prompt mask to match the target height and width.
If mask is None, returns a mask of all ones with the target height and width.
If mask is not None, resizes the mask to the target height and width using 'nearest' interpolation.
packed_height and packed_width are the target height and width of the mask in the 'packed' latent space.
Returns:
torch.Tensor: The processed mask. shape: (1, 1, packed_height * packed_width).
"""
if mask is None:
return torch.ones((1, 1, packed_height * packed_width), dtype=dtype, device=device)
mask = to_standard_float_mask(mask, out_dtype=dtype)
tf = torchvision.transforms.Resize(
(packed_height, packed_width), interpolation=torchvision.transforms.InterpolationMode.NEAREST
)
# Add a batch dimension to the mask, because torchvision expects shape (batch, channels, h, w).
mask = mask.unsqueeze(0) # Shape: (1, h, w) -> (1, 1, h, w)
resized_mask = tf(mask)
# Flatten the height and width dimensions into a single image_seq_len dimension.
return resized_mask.flatten(start_dim=2)

View File

@@ -41,12 +41,10 @@ def infer_xlabs_ip_adapter_params_from_state_dict(state_dict: dict[str, torch.Te
hidden_dim = state_dict["double_blocks.0.processor.ip_adapter_double_stream_k_proj.weight"].shape[0]
context_dim = state_dict["double_blocks.0.processor.ip_adapter_double_stream_k_proj.weight"].shape[1]
clip_embeddings_dim = state_dict["ip_adapter_proj_model.proj.weight"].shape[1]
clip_extra_context_tokens = state_dict["ip_adapter_proj_model.proj.weight"].shape[0] // context_dim
return XlabsIpAdapterParams(
num_double_blocks=num_double_blocks,
context_dim=context_dim,
hidden_dim=hidden_dim,
clip_embeddings_dim=clip_embeddings_dim,
clip_extra_context_tokens=clip_extra_context_tokens,
)

View File

@@ -31,16 +31,13 @@ class XlabsIpAdapterParams:
hidden_dim: int
clip_embeddings_dim: int
clip_extra_context_tokens: int
class XlabsIpAdapterFlux(torch.nn.Module):
def __init__(self, params: XlabsIpAdapterParams):
super().__init__()
self.image_proj = ImageProjModel(
cross_attention_dim=params.context_dim,
clip_embeddings_dim=params.clip_embeddings_dim,
clip_extra_context_tokens=params.clip_extra_context_tokens,
cross_attention_dim=params.context_dim, clip_embeddings_dim=params.clip_embeddings_dim
)
self.ip_adapter_double_blocks = IPAdapterDoubleBlocks(
num_double_blocks=params.num_double_blocks, context_dim=params.context_dim, hidden_dim=params.hidden_dim

View File

@@ -5,10 +5,10 @@ from einops import rearrange
from torch import Tensor
def attention(q: Tensor, k: Tensor, v: Tensor, pe: Tensor, attn_mask: Tensor | None = None) -> Tensor:
def attention(q: Tensor, k: Tensor, v: Tensor, pe: Tensor) -> Tensor:
q, k = apply_rope(q, k, pe)
x = torch.nn.functional.scaled_dot_product_attention(q, k, v, attn_mask=attn_mask)
x = torch.nn.functional.scaled_dot_product_attention(q, k, v)
x = rearrange(x, "B H L D -> B L (H D)")
return x
@@ -24,12 +24,12 @@ def rope(pos: Tensor, dim: int, theta: int) -> Tensor:
out = torch.einsum("...n,d->...nd", pos, omega)
out = torch.stack([torch.cos(out), -torch.sin(out), torch.sin(out), torch.cos(out)], dim=-1)
out = rearrange(out, "b n d (i j) -> b n d i j", i=2, j=2)
return out.to(dtype=pos.dtype, device=pos.device)
return out.float()
def apply_rope(xq: Tensor, xk: Tensor, freqs_cis: Tensor) -> tuple[Tensor, Tensor]:
xq_ = xq.view(*xq.shape[:-1], -1, 1, 2)
xk_ = xk.view(*xk.shape[:-1], -1, 1, 2)
xq_ = xq.float().reshape(*xq.shape[:-1], -1, 1, 2)
xk_ = xk.float().reshape(*xk.shape[:-1], -1, 1, 2)
xq_out = freqs_cis[..., 0] * xq_[..., 0] + freqs_cis[..., 1] * xq_[..., 1]
xk_out = freqs_cis[..., 0] * xk_[..., 0] + freqs_cis[..., 1] * xk_[..., 1]
return xq_out.view(*xq.shape), xk_out.view(*xk.shape)
return xq_out.reshape(*xq.shape).type_as(xq), xk_out.reshape(*xk.shape).type_as(xk)

View File

@@ -5,11 +5,7 @@ from dataclasses import dataclass
import torch
from torch import Tensor, nn
from invokeai.backend.flux.custom_block_processor import (
CustomDoubleStreamBlockProcessor,
CustomSingleStreamBlockProcessor,
)
from invokeai.backend.flux.extensions.regional_prompting_extension import RegionalPromptingExtension
from invokeai.backend.flux.custom_block_processor import CustomDoubleStreamBlockProcessor
from invokeai.backend.flux.extensions.xlabs_ip_adapter_extension import XLabsIPAdapterExtension
from invokeai.backend.flux.modules.layers import (
DoubleStreamBlock,
@@ -99,7 +95,6 @@ class Flux(nn.Module):
controlnet_double_block_residuals: list[Tensor] | None,
controlnet_single_block_residuals: list[Tensor] | None,
ip_adapter_extensions: list[XLabsIPAdapterExtension],
regional_prompting_extension: RegionalPromptingExtension,
) -> Tensor:
if img.ndim != 3 or txt.ndim != 3:
raise ValueError("Input img and txt tensors must have 3 dimensions.")
@@ -122,6 +117,7 @@ class Flux(nn.Module):
assert len(controlnet_double_block_residuals) == len(self.double_blocks)
for block_index, block in enumerate(self.double_blocks):
assert isinstance(block, DoubleStreamBlock)
img, txt = CustomDoubleStreamBlockProcessor.custom_double_block_forward(
timestep_index=timestep_index,
total_num_timesteps=total_num_timesteps,
@@ -132,7 +128,6 @@ class Flux(nn.Module):
vec=vec,
pe=pe,
ip_adapter_extensions=ip_adapter_extensions,
regional_prompting_extension=regional_prompting_extension,
)
if controlnet_double_block_residuals is not None:
@@ -145,17 +140,7 @@ class Flux(nn.Module):
assert len(controlnet_single_block_residuals) == len(self.single_blocks)
for block_index, block in enumerate(self.single_blocks):
assert isinstance(block, SingleStreamBlock)
img = CustomSingleStreamBlockProcessor.custom_single_block_forward(
timestep_index=timestep_index,
total_num_timesteps=total_num_timesteps,
block_index=block_index,
block=block,
img=img,
vec=vec,
pe=pe,
regional_prompting_extension=regional_prompting_extension,
)
img = block(img, vec=vec, pe=pe)
if controlnet_single_block_residuals is not None:
img[:, txt.shape[1] :, ...] += controlnet_single_block_residuals[block_index]

View File

@@ -66,7 +66,10 @@ class RMSNorm(torch.nn.Module):
self.scale = nn.Parameter(torch.ones(dim))
def forward(self, x: Tensor):
return torch.nn.functional.rms_norm(x, self.scale.shape, self.scale, eps=1e-6)
x_dtype = x.dtype
x = x.float()
rrms = torch.rsqrt(torch.mean(x**2, dim=-1, keepdim=True) + 1e-6)
return (x * rrms).to(dtype=x_dtype) * self.scale
class QKNorm(torch.nn.Module):

View File

@@ -1,36 +0,0 @@
from dataclasses import dataclass
import torch
from invokeai.backend.stable_diffusion.diffusion.conditioning_data import Range
@dataclass
class FluxTextConditioning:
t5_embeddings: torch.Tensor
clip_embeddings: torch.Tensor
# If mask is None, the prompt is a global prompt.
mask: torch.Tensor | None
@dataclass
class FluxRegionalTextConditioning:
# Concatenated text embeddings.
# Shape: (1, concatenated_txt_seq_len, 4096)
t5_embeddings: torch.Tensor
# Shape: (1, concatenated_txt_seq_len, 3)
t5_txt_ids: torch.Tensor
# Global CLIP embeddings.
# Shape: (1, 768)
clip_embeddings: torch.Tensor
# A binary mask indicating the regions of the image that the prompt should be applied to. If None, the prompt is a
# global prompt.
# image_masks[i] is the mask for the ith prompt.
# image_masks[i] has shape (1, image_seq_len) and dtype torch.bool.
image_masks: list[torch.Tensor | None]
# List of ranges that represent the embedding ranges for each mask.
# t5_embedding_ranges[i] contains the range of the t5 embeddings that correspond to image_masks[i].
t5_embedding_ranges: list[Range]

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@@ -45,9 +45,8 @@ def lora_model_from_flux_diffusers_state_dict(state_dict: Dict[str, torch.Tensor
# Constants for FLUX.1
num_double_layers = 19
num_single_layers = 38
hidden_size = 3072
mlp_ratio = 4.0
mlp_hidden_dim = int(hidden_size * mlp_ratio)
# inner_dim = 3072
# mlp_ratio = 4.0
layers: dict[str, AnyLoRALayer] = {}
@@ -63,43 +62,30 @@ def lora_model_from_flux_diffusers_state_dict(state_dict: Dict[str, torch.Tensor
layers[dst_key] = LoRALayer.from_state_dict_values(values=value)
assert len(src_layer_dict) == 0
def add_qkv_lora_layer_if_present(
src_keys: list[str],
src_weight_shapes: list[tuple[int, int]],
dst_qkv_key: str,
allow_missing_keys: bool = False,
) -> None:
def add_qkv_lora_layer_if_present(src_keys: list[str], dst_qkv_key: str) -> None:
"""Handle the Q, K, V matrices for a transformer block. We need special handling because the diffusers format
stores them in separate matrices, whereas the BFL format used internally by InvokeAI concatenates them.
"""
# If none of the keys are present, return early.
# We expect that either all src keys are present or none of them are. Verify this.
keys_present = [key in grouped_state_dict for key in src_keys]
assert all(keys_present) or not any(keys_present)
# If none of the keys are present, return early.
if not any(keys_present):
return
src_layer_dicts = [grouped_state_dict.pop(key) for key in src_keys]
sub_layers: list[LoRALayer] = []
for src_key, src_weight_shape in zip(src_keys, src_weight_shapes, strict=True):
src_layer_dict = grouped_state_dict.pop(src_key, None)
if src_layer_dict is not None:
values = {
"lora_down.weight": src_layer_dict.pop("lora_A.weight"),
"lora_up.weight": src_layer_dict.pop("lora_B.weight"),
}
if alpha is not None:
values["alpha"] = torch.tensor(alpha)
assert values["lora_down.weight"].shape[1] == src_weight_shape[1]
assert values["lora_up.weight"].shape[0] == src_weight_shape[0]
sub_layers.append(LoRALayer.from_state_dict_values(values=values))
assert len(src_layer_dict) == 0
else:
if not allow_missing_keys:
raise ValueError(f"Missing LoRA layer: '{src_key}'.")
values = {
"lora_up.weight": torch.zeros((src_weight_shape[0], 1)),
"lora_down.weight": torch.zeros((1, src_weight_shape[1])),
}
sub_layers.append(LoRALayer.from_state_dict_values(values=values))
layers[dst_qkv_key] = ConcatenatedLoRALayer(lora_layers=sub_layers)
for src_layer_dict in src_layer_dicts:
values = {
"lora_down.weight": src_layer_dict.pop("lora_A.weight"),
"lora_up.weight": src_layer_dict.pop("lora_B.weight"),
}
if alpha is not None:
values["alpha"] = torch.tensor(alpha)
sub_layers.append(LoRALayer.from_state_dict_values(values=values))
assert len(src_layer_dict) == 0
layers[dst_qkv_key] = ConcatenatedLoRALayer(lora_layers=sub_layers, concat_axis=0)
# time_text_embed.timestep_embedder -> time_in.
add_lora_layer_if_present("time_text_embed.timestep_embedder.linear_1", "time_in.in_layer")
@@ -132,7 +118,6 @@ def lora_model_from_flux_diffusers_state_dict(state_dict: Dict[str, torch.Tensor
f"transformer_blocks.{i}.attn.to_k",
f"transformer_blocks.{i}.attn.to_v",
],
[(hidden_size, hidden_size), (hidden_size, hidden_size), (hidden_size, hidden_size)],
f"double_blocks.{i}.img_attn.qkv",
)
add_qkv_lora_layer_if_present(
@@ -141,7 +126,6 @@ def lora_model_from_flux_diffusers_state_dict(state_dict: Dict[str, torch.Tensor
f"transformer_blocks.{i}.attn.add_k_proj",
f"transformer_blocks.{i}.attn.add_v_proj",
],
[(hidden_size, hidden_size), (hidden_size, hidden_size), (hidden_size, hidden_size)],
f"double_blocks.{i}.txt_attn.qkv",
)
@@ -191,14 +175,7 @@ def lora_model_from_flux_diffusers_state_dict(state_dict: Dict[str, torch.Tensor
f"single_transformer_blocks.{i}.attn.to_v",
f"single_transformer_blocks.{i}.proj_mlp",
],
[
(hidden_size, hidden_size),
(hidden_size, hidden_size),
(hidden_size, hidden_size),
(mlp_hidden_dim, hidden_size),
],
f"single_blocks.{i}.linear1",
allow_missing_keys=True,
)
# Output projections.

View File

@@ -1,133 +0,0 @@
import torch
from invokeai.backend.lora.layers.any_lora_layer import AnyLoRALayer
from invokeai.backend.lora.layers.concatenated_lora_layer import ConcatenatedLoRALayer
from invokeai.backend.lora.layers.lora_layer import LoRALayer
class LoRASidecarWrapper(torch.nn.Module):
def __init__(self, orig_module: torch.nn.Module, lora_layers: list[AnyLoRALayer], lora_weights: list[float]):
super().__init__()
self._orig_module = orig_module
self._lora_layers = lora_layers
self._lora_weights = lora_weights
@property
def orig_module(self) -> torch.nn.Module:
return self._orig_module
def add_lora_layer(self, lora_layer: AnyLoRALayer, lora_weight: float):
self._lora_layers.append(lora_layer)
self._lora_weights.append(lora_weight)
@torch.no_grad()
def _get_lora_patched_parameters(
self, orig_params: dict[str, torch.Tensor], lora_layers: list[AnyLoRALayer], lora_weights: list[float]
) -> dict[str, torch.Tensor]:
params: dict[str, torch.Tensor] = {}
for lora_layer, lora_weight in zip(lora_layers, lora_weights, strict=True):
layer_params = lora_layer.get_parameters(self._orig_module)
for param_name, param_weight in layer_params.items():
if orig_params[param_name].shape != param_weight.shape:
param_weight = param_weight.reshape(orig_params[param_name].shape)
if param_name not in params:
params[param_name] = param_weight * (lora_layer.scale() * lora_weight)
else:
params[param_name] += param_weight * (lora_layer.scale() * lora_weight)
return params
class LoRALinearWrapper(LoRASidecarWrapper):
def _lora_linear_forward(self, input: torch.Tensor, lora_layer: LoRALayer, lora_weight: float) -> torch.Tensor:
"""An optimized implementation of the residual calculation for a Linear LoRALayer."""
x = torch.nn.functional.linear(input, lora_layer.down)
if lora_layer.mid is not None:
x = torch.nn.functional.linear(x, lora_layer.mid)
x = torch.nn.functional.linear(x, lora_layer.up, bias=lora_layer.bias)
x *= lora_weight * lora_layer.scale()
return x
def _concatenated_lora_forward(
self, input: torch.Tensor, concatenated_lora_layer: ConcatenatedLoRALayer, lora_weight: float
) -> torch.Tensor:
"""An optimized implementation of the residual calculation for a Linear ConcatenatedLoRALayer."""
x_chunks: list[torch.Tensor] = []
for lora_layer in concatenated_lora_layer.lora_layers:
x_chunk = torch.nn.functional.linear(input, lora_layer.down)
if lora_layer.mid is not None:
x_chunk = torch.nn.functional.linear(x_chunk, lora_layer.mid)
x_chunk = torch.nn.functional.linear(x_chunk, lora_layer.up, bias=lora_layer.bias)
x_chunk *= lora_weight * lora_layer.scale()
x_chunks.append(x_chunk)
# TODO(ryand): Generalize to support concat_axis != 0.
assert concatenated_lora_layer.concat_axis == 0
x = torch.cat(x_chunks, dim=-1)
return x
def forward(self, input: torch.Tensor) -> torch.Tensor:
# Split the LoRA layers into those that have optimized implementations and those that don't.
optimized_layer_types = (LoRALayer, ConcatenatedLoRALayer)
optimized_layers = [
(layer, weight)
for layer, weight in zip(self._lora_layers, self._lora_weights, strict=True)
if isinstance(layer, optimized_layer_types)
]
non_optimized_layers = [
(layer, weight)
for layer, weight in zip(self._lora_layers, self._lora_weights, strict=True)
if not isinstance(layer, optimized_layer_types)
]
# First, calculate the residual for LoRA layers for which there is an optimized implementation.
residual = None
for lora_layer, lora_weight in optimized_layers:
if isinstance(lora_layer, LoRALayer):
added_residual = self._lora_linear_forward(input, lora_layer, lora_weight)
elif isinstance(lora_layer, ConcatenatedLoRALayer):
added_residual = self._concatenated_lora_forward(input, lora_layer, lora_weight)
else:
raise ValueError(f"Unsupported LoRA layer type: {type(lora_layer)}")
if residual is None:
residual = added_residual
else:
residual += added_residual
# Next, calculate the residuals for the LoRA layers for which there is no optimized implementation.
if non_optimized_layers:
unoptimized_layers, unoptimized_weights = zip(*non_optimized_layers, strict=True)
params = self._get_lora_patched_parameters(
orig_params={"weight": self._orig_module.weight, "bias": self._orig_module.bias},
lora_layers=unoptimized_layers,
lora_weights=unoptimized_weights,
)
added_residual = torch.nn.functional.linear(input, params["weight"], params.get("bias", None))
if residual is None:
residual = added_residual
else:
residual += added_residual
return self.orig_module(input) + residual
class LoRAConv1dWrapper(LoRASidecarWrapper):
def forward(self, input: torch.Tensor) -> torch.Tensor:
params = self._get_lora_patched_parameters(
orig_params={"weight": self._orig_module.weight, "bias": self._orig_module.bias},
lora_layers=self._lora_layers,
lora_weights=self._lora_weights,
)
return self.orig_module(input) + torch.nn.functional.conv1d(input, params["weight"], params.get("bias", None))
class LoRAConv2dWrapper(LoRASidecarWrapper):
def forward(self, input: torch.Tensor) -> torch.Tensor:
params = self._get_lora_patched_parameters(
orig_params={"weight": self._orig_module.weight, "bias": self._orig_module.bias},
lora_layers=self._lora_layers,
lora_weights=self._lora_weights,
)
return self.orig_module(input) + torch.nn.functional.conv2d(input, params["weight"], params.get("bias", None))

View File

@@ -4,126 +4,19 @@ from typing import Dict, Iterable, Optional, Tuple
import torch
from invokeai.backend.lora.layers.any_lora_layer import AnyLoRALayer
from invokeai.backend.lora.lora_layer_wrappers import (
LoRAConv1dWrapper,
LoRAConv2dWrapper,
LoRALinearWrapper,
LoRASidecarWrapper,
)
from invokeai.backend.lora.layers.concatenated_lora_layer import ConcatenatedLoRALayer
from invokeai.backend.lora.layers.lora_layer import LoRALayer
from invokeai.backend.lora.lora_model_raw import LoRAModelRaw
from invokeai.backend.lora.sidecar_layers.concatenated_lora.concatenated_lora_linear_sidecar_layer import (
ConcatenatedLoRALinearSidecarLayer,
)
from invokeai.backend.lora.sidecar_layers.lora.lora_linear_sidecar_layer import LoRALinearSidecarLayer
from invokeai.backend.lora.sidecar_layers.lora_sidecar_module import LoRASidecarModule
from invokeai.backend.util.devices import TorchDevice
from invokeai.backend.util.original_weights_storage import OriginalWeightsStorage
class LoRAPatcher:
@staticmethod
@torch.no_grad()
@contextmanager
def apply_smart_lora_patches(
model: torch.nn.Module,
patches: Iterable[Tuple[LoRAModelRaw, float]],
prefix: str,
dtype: torch.dtype,
cached_weights: Optional[Dict[str, torch.Tensor]] = None,
):
"""Apply 'smart' LoRA patching that chooses whether to use direct patching or a sidecar wrapper for each module."""
# original_weights are stored for unpatching layers that are directly patched.
original_weights = OriginalWeightsStorage(cached_weights)
# original_modules are stored for unpatching layers that are wrapped in a LoRASidecarWrapper.
original_modules: dict[str, torch.nn.Module] = {}
try:
for patch, patch_weight in patches:
LoRAPatcher._apply_smart_lora_patch(
model=model,
prefix=prefix,
patch=patch,
patch_weight=patch_weight,
original_weights=original_weights,
original_modules=original_modules,
dtype=dtype,
)
yield
finally:
# Restore directly patched layers.
for param_key, weight in original_weights.get_changed_weights():
model.get_parameter(param_key).copy_(weight)
# Restore LoRASidecarWrapper modules.
# Note: This logic assumes no nested modules in original_modules.
for module_key, orig_module in original_modules.items():
module_parent_key, module_name = LoRAPatcher._split_parent_key(module_key)
parent_module = model.get_submodule(module_parent_key)
LoRAPatcher._set_submodule(parent_module, module_name, orig_module)
@staticmethod
@torch.no_grad()
def _apply_smart_lora_patch(
model: torch.nn.Module,
prefix: str,
patch: LoRAModelRaw,
patch_weight: float,
original_weights: OriginalWeightsStorage,
original_modules: dict[str, torch.nn.Module],
dtype: torch.dtype,
):
"""Apply a single LoRA patch to a model using the 'smart' patching strategy that chooses whether to use direct
patching or a sidecar wrapper for each module.
"""
if patch_weight == 0:
return
# If the layer keys contain a dot, then they are not flattened, and can be directly used to access model
# submodules. If the layer keys do not contain a dot, then they are flattened, meaning that all '.' have been
# replaced with '_'. Non-flattened keys are preferred, because they allow submodules to be accessed directly
# without searching, but some legacy code still uses flattened keys.
layer_keys_are_flattened = "." not in next(iter(patch.layers.keys()))
prefix_len = len(prefix)
for layer_key, layer in patch.layers.items():
if not layer_key.startswith(prefix):
continue
module_key, module = LoRAPatcher._get_submodule(
model, layer_key[prefix_len:], layer_key_is_flattened=layer_keys_are_flattened
)
# Decide whether to use direct patching or a sidecar wrapper.
# Direct patching is preferred, because it results in better runtime speed.
# Reasons to use sidecar patching:
# - The module is already wrapped in a LoRASidecarWrapper.
# - The module is quantized.
# - The module is on the CPU (and we don't want to store a second full copy of the original weights on the
# CPU, since this would double the RAM usage)
# NOTE: For now, we don't check if the layer is quantized here. We assume that this is checked in the caller
# and that the caller will use the 'apply_lora_wrapper_patches' method if the layer is quantized.
# TODO(ryand): Handle the case where we are running without a GPU. Should we set a config flag that allows
# forcing full patching even on the CPU?
if isinstance(module, LoRASidecarWrapper) or LoRAPatcher._is_any_part_of_layer_on_cpu(module):
LoRAPatcher._apply_lora_layer_wrapper_patch(
model=model,
module_to_patch=module,
module_to_patch_key=module_key,
patch=layer,
patch_weight=patch_weight,
original_modules=original_modules,
dtype=dtype,
)
else:
LoRAPatcher._apply_lora_layer_patch(
module_to_patch=module,
module_to_patch_key=module_key,
patch=layer,
patch_weight=patch_weight,
original_weights=original_weights,
)
@staticmethod
def _is_any_part_of_layer_on_cpu(layer: torch.nn.Module) -> bool:
return any(p.device.type == "cpu" for p in layer.parameters())
@staticmethod
@torch.no_grad()
@contextmanager
@@ -147,7 +40,7 @@ class LoRAPatcher:
original_weights = OriginalWeightsStorage(cached_weights)
try:
for patch, patch_weight in patches:
LoRAPatcher._apply_lora_patch(
LoRAPatcher.apply_lora_patch(
model=model,
prefix=prefix,
patch=patch,
@@ -163,7 +56,7 @@ class LoRAPatcher:
@staticmethod
@torch.no_grad()
def _apply_lora_patch(
def apply_lora_patch(
model: torch.nn.Module,
prefix: str,
patch: LoRAModelRaw,
@@ -198,67 +91,48 @@ class LoRAPatcher:
model, layer_key[prefix_len:], layer_key_is_flattened=layer_keys_are_flattened
)
LoRAPatcher._apply_lora_layer_patch(
module_to_patch=module,
module_to_patch_key=module_key,
patch=layer,
patch_weight=patch_weight,
original_weights=original_weights,
)
# All of the LoRA weight calculations will be done on the same device as the module weight.
# (Performance will be best if this is a CUDA device.)
device = module.weight.device
dtype = module.weight.dtype
@staticmethod
@torch.no_grad()
def _apply_lora_layer_patch(
module_to_patch: torch.nn.Module,
module_to_patch_key: str,
patch: AnyLoRALayer,
patch_weight: float,
original_weights: OriginalWeightsStorage,
):
# All of the LoRA weight calculations will be done on the same device as the module weight.
# (Performance will be best if this is a CUDA device.)
device = module_to_patch.weight.device
dtype = module_to_patch.weight.dtype
layer_scale = layer.scale()
layer_scale = patch.scale()
# We intentionally move to the target device first, then cast. Experimentally, this was found to
# be significantly faster for 16-bit CPU tensors being moved to a CUDA device than doing the
# same thing in a single call to '.to(...)'.
layer.to(device=device)
layer.to(dtype=torch.float32)
# We intentionally move to the target device first, then cast. Experimentally, this was found to
# be significantly faster for 16-bit CPU tensors being moved to a CUDA device than doing the
# same thing in a single call to '.to(...)'.
patch.to(device=device)
patch.to(dtype=torch.float32)
# TODO(ryand): Using torch.autocast(...) over explicit casting may offer a speed benefit on CUDA
# devices here. Experimentally, it was found to be very slow on CPU. More investigation needed.
for param_name, lora_param_weight in layer.get_parameters(module).items():
param_key = module_key + "." + param_name
module_param = module.get_parameter(param_name)
# TODO(ryand): Using torch.autocast(...) over explicit casting may offer a speed benefit on CUDA
# devices here. Experimentally, it was found to be very slow on CPU. More investigation needed.
for param_name, lora_param_weight in patch.get_parameters(module_to_patch).items():
param_key = module_to_patch_key + "." + param_name
module_param = module_to_patch.get_parameter(param_name)
# Save original weight
original_weights.save(param_key, module_param)
# Save original weight
original_weights.save(param_key, module_param)
if module_param.shape != lora_param_weight.shape:
lora_param_weight = lora_param_weight.reshape(module_param.shape)
if module_param.shape != lora_param_weight.shape:
lora_param_weight = lora_param_weight.reshape(module_param.shape)
lora_param_weight *= patch_weight * layer_scale
module_param += lora_param_weight.to(dtype=dtype)
lora_param_weight *= patch_weight * layer_scale
module_param += lora_param_weight.to(dtype=dtype)
patch.to(device=TorchDevice.CPU_DEVICE)
layer.to(device=TorchDevice.CPU_DEVICE)
@staticmethod
@torch.no_grad()
@contextmanager
def apply_lora_wrapper_patches(
def apply_lora_sidecar_patches(
model: torch.nn.Module,
patches: Iterable[Tuple[LoRAModelRaw, float]],
prefix: str,
dtype: torch.dtype,
):
"""Apply one or more LoRA wrapper patches to a model within a context manager. Wrapper patches incur some
runtime overhead compared to normal LoRA patching, but they enable:
- LoRA layers to be applied to quantized models
- LoRA layers to be applied to CPU layers without needing to store a full copy of the original weights (i.e.
avoid doubling the memory requirements).
"""Apply one or more LoRA sidecar patches to a model within a context manager. Sidecar patches incur some
overhead compared to normal LoRA patching, but they allow for LoRA layers to applied to base layers in any
quantization format.
Args:
model (torch.nn.Module): The model to patch.
@@ -266,11 +140,14 @@ class LoRAPatcher:
associated weights. An iterator is used so that the LoRA patches do not need to be loaded into memory
all at once.
prefix (str): The keys in the patches will be filtered to only include weights with this prefix.
dtype (torch.dtype): The compute dtype of the sidecar layers. This cannot easily be inferred from the model,
since the sidecar layers are typically applied on top of quantized layers whose weight dtype is
different from their compute dtype.
"""
original_modules: dict[str, torch.nn.Module] = {}
try:
for patch, patch_weight in patches:
LoRAPatcher._apply_lora_wrapper_patch(
LoRAPatcher._apply_lora_sidecar_patch(
model=model,
prefix=prefix,
patch=patch,
@@ -288,7 +165,7 @@ class LoRAPatcher:
LoRAPatcher._set_submodule(parent_module, module_name, orig_module)
@staticmethod
def _apply_lora_wrapper_patch(
def _apply_lora_sidecar_patch(
model: torch.nn.Module,
patch: LoRAModelRaw,
patch_weight: float,
@@ -296,7 +173,7 @@ class LoRAPatcher:
original_modules: dict[str, torch.nn.Module],
dtype: torch.dtype,
):
"""Apply a single LoRA wrapper patch to a model."""
"""Apply a single LoRA sidecar patch to a model."""
if patch_weight == 0:
return
@@ -317,47 +194,28 @@ class LoRAPatcher:
model, layer_key[prefix_len:], layer_key_is_flattened=layer_keys_are_flattened
)
LoRAPatcher._apply_lora_layer_wrapper_patch(
model=model,
module_to_patch=module,
module_to_patch_key=module_key,
patch=layer,
patch_weight=patch_weight,
original_modules=original_modules,
dtype=dtype,
)
# Initialize the LoRA sidecar layer.
lora_sidecar_layer = LoRAPatcher._initialize_lora_sidecar_layer(module, layer, patch_weight)
@staticmethod
@torch.no_grad()
def _apply_lora_layer_wrapper_patch(
model: torch.nn.Module,
module_to_patch: torch.nn.Module,
module_to_patch_key: str,
patch: AnyLoRALayer,
patch_weight: float,
original_modules: dict[str, torch.nn.Module],
dtype: torch.dtype,
):
"""Apply a single LoRA wrapper patch to a model."""
# Replace the original module with a LoRASidecarModule if it has not already been done.
if module_key in original_modules:
# The module has already been patched with a LoRASidecarModule. Append to it.
assert isinstance(module, LoRASidecarModule)
lora_sidecar_module = module
else:
# The module has not yet been patched with a LoRASidecarModule. Create one.
lora_sidecar_module = LoRASidecarModule(module, [])
original_modules[module_key] = module
module_parent_key, module_name = LoRAPatcher._split_parent_key(module_key)
module_parent = model.get_submodule(module_parent_key)
LoRAPatcher._set_submodule(module_parent, module_name, lora_sidecar_module)
# Replace the original module with a LoRASidecarWrapper if it has not already been done.
if not isinstance(module_to_patch, LoRASidecarWrapper):
lora_wrapper_layer = LoRAPatcher._initialize_lora_wrapper_layer(module_to_patch)
original_modules[module_to_patch_key] = module_to_patch
module_parent_key, module_name = LoRAPatcher._split_parent_key(module_to_patch_key)
module_parent = model.get_submodule(module_parent_key)
LoRAPatcher._set_submodule(module_parent, module_name, lora_wrapper_layer)
orig_module = module_to_patch
else:
assert module_to_patch_key in original_modules
lora_wrapper_layer = module_to_patch
orig_module = module_to_patch.orig_module
# Move the LoRA sidecar layer to the same device/dtype as the orig module.
# TODO(ryand): Experiment with moving to the device first, then casting. This could be faster.
lora_sidecar_layer.to(device=lora_sidecar_module.orig_module.weight.device, dtype=dtype)
# Move the LoRA layer to the same device/dtype as the orig module.
patch.to(device=orig_module.weight.device, dtype=dtype)
# Add the LoRA wrapper layer to the LoRASidecarWrapper.
lora_wrapper_layer.add_lora_layer(patch, patch_weight)
# Add the LoRA sidecar layer to the LoRASidecarModule.
lora_sidecar_module.add_lora_layer(lora_sidecar_layer)
@staticmethod
def _split_parent_key(module_key: str) -> tuple[str, str]:
@@ -378,13 +236,17 @@ class LoRAPatcher:
raise ValueError(f"Invalid module key: {module_key}")
@staticmethod
def _initialize_lora_wrapper_layer(orig_layer: torch.nn.Module):
if isinstance(orig_layer, torch.nn.Linear):
return LoRALinearWrapper(orig_layer, [], [])
elif isinstance(orig_layer, torch.nn.Conv1d):
return LoRAConv1dWrapper(orig_layer, [], [])
elif isinstance(orig_layer, torch.nn.Conv2d):
return LoRAConv2dWrapper(orig_layer, [], [])
def _initialize_lora_sidecar_layer(orig_layer: torch.nn.Module, lora_layer: AnyLoRALayer, patch_weight: float):
# TODO(ryand): Add support for more original layer types and LoRA layer types.
if isinstance(orig_layer, torch.nn.Linear) or (
isinstance(orig_layer, LoRASidecarModule) and isinstance(orig_layer.orig_module, torch.nn.Linear)
):
if isinstance(lora_layer, LoRALayer):
return LoRALinearSidecarLayer(lora_layer=lora_layer, weight=patch_weight)
elif isinstance(lora_layer, ConcatenatedLoRALayer):
return ConcatenatedLoRALinearSidecarLayer(concatenated_lora_layer=lora_layer, weight=patch_weight)
else:
raise ValueError(f"Unsupported Linear LoRA layer type: {type(lora_layer)}")
else:
raise ValueError(f"Unsupported layer type: {type(orig_layer)}")

View File

@@ -0,0 +1,34 @@
import torch
from invokeai.backend.lora.layers.concatenated_lora_layer import ConcatenatedLoRALayer
class ConcatenatedLoRALinearSidecarLayer(torch.nn.Module):
def __init__(
self,
concatenated_lora_layer: ConcatenatedLoRALayer,
weight: float,
):
super().__init__()
self._concatenated_lora_layer = concatenated_lora_layer
self._weight = weight
def forward(self, input: torch.Tensor) -> torch.Tensor:
x_chunks: list[torch.Tensor] = []
for lora_layer in self._concatenated_lora_layer.lora_layers:
x_chunk = torch.nn.functional.linear(input, lora_layer.down)
if lora_layer.mid is not None:
x_chunk = torch.nn.functional.linear(x_chunk, lora_layer.mid)
x_chunk = torch.nn.functional.linear(x_chunk, lora_layer.up, bias=lora_layer.bias)
x_chunk *= self._weight * lora_layer.scale()
x_chunks.append(x_chunk)
# TODO(ryand): Generalize to support concat_axis != 0.
assert self._concatenated_lora_layer.concat_axis == 0
x = torch.cat(x_chunks, dim=-1)
return x
def to(self, device: torch.device | None = None, dtype: torch.dtype | None = None):
self._concatenated_lora_layer.to(device=device, dtype=dtype)
return self

View File

@@ -0,0 +1,27 @@
import torch
from invokeai.backend.lora.layers.lora_layer import LoRALayer
class LoRALinearSidecarLayer(torch.nn.Module):
def __init__(
self,
lora_layer: LoRALayer,
weight: float,
):
super().__init__()
self._lora_layer = lora_layer
self._weight = weight
def forward(self, x: torch.Tensor) -> torch.Tensor:
x = torch.nn.functional.linear(x, self._lora_layer.down)
if self._lora_layer.mid is not None:
x = torch.nn.functional.linear(x, self._lora_layer.mid)
x = torch.nn.functional.linear(x, self._lora_layer.up, bias=self._lora_layer.bias)
x *= self._weight * self._lora_layer.scale()
return x
def to(self, device: torch.device | None = None, dtype: torch.dtype | None = None):
self._lora_layer.to(device=device, dtype=dtype)
return self

View File

@@ -0,0 +1,24 @@
import torch
class LoRASidecarModule(torch.nn.Module):
"""A LoRA sidecar module that wraps an original module and adds LoRA layers to it."""
def __init__(self, orig_module: torch.nn.Module, lora_layers: list[torch.nn.Module]):
super().__init__()
self.orig_module = orig_module
self._lora_layers = lora_layers
def add_lora_layer(self, lora_layer: torch.nn.Module):
self._lora_layers.append(lora_layer)
def forward(self, input: torch.Tensor) -> torch.Tensor:
x = self.orig_module(input)
for lora_layer in self._lora_layers:
x += lora_layer(input)
return x
def to(self, device: torch.device | None = None, dtype: torch.dtype | None = None):
self._orig_module.to(device=device, dtype=dtype)
for lora_layer in self._lora_layers:
lora_layer.to(device=device, dtype=dtype)

View File

@@ -53,7 +53,6 @@ class BaseModelType(str, Enum):
Any = "any"
StableDiffusion1 = "sd-1"
StableDiffusion2 = "sd-2"
StableDiffusion3 = "sd-3"
StableDiffusionXL = "sdxl"
StableDiffusionXLRefiner = "sdxl-refiner"
Flux = "flux"
@@ -84,10 +83,8 @@ class SubModelType(str, Enum):
Transformer = "transformer"
TextEncoder = "text_encoder"
TextEncoder2 = "text_encoder_2"
TextEncoder3 = "text_encoder_3"
Tokenizer = "tokenizer"
Tokenizer2 = "tokenizer_2"
Tokenizer3 = "tokenizer_3"
VAE = "vae"
VAEDecoder = "vae_decoder"
VAEEncoder = "vae_encoder"
@@ -95,13 +92,6 @@ class SubModelType(str, Enum):
SafetyChecker = "safety_checker"
class ClipVariantType(str, Enum):
"""Variant type."""
L = "large"
G = "gigantic"
class ModelVariantType(str, Enum):
"""Variant type."""
@@ -157,17 +147,6 @@ class ModelSourceType(str, Enum):
DEFAULTS_PRECISION = Literal["fp16", "fp32"]
AnyVariant: TypeAlias = Union[ModelVariantType, ClipVariantType, None]
class SubmodelDefinition(BaseModel):
path_or_prefix: str
model_type: ModelType
variant: AnyVariant = None
model_config = ConfigDict(protected_namespaces=())
class MainModelDefaultSettings(BaseModel):
vae: str | None = Field(default=None, description="Default VAE for this model (model key)")
vae_precision: DEFAULTS_PRECISION | None = Field(default=None, description="Default VAE precision for this model")
@@ -214,9 +193,6 @@ class ModelConfigBase(BaseModel):
schema["required"].extend(["key", "type", "format"])
model_config = ConfigDict(validate_assignment=True, json_schema_extra=json_schema_extra)
submodels: Optional[Dict[SubModelType, SubmodelDefinition]] = Field(
description="Loadable submodels in this model", default=None
)
class CheckpointConfigBase(ModelConfigBase):
@@ -359,7 +335,7 @@ class MainConfigBase(ModelConfigBase):
default_settings: Optional[MainModelDefaultSettings] = Field(
description="Default settings for this model", default=None
)
variant: AnyVariant = ModelVariantType.Normal
variant: ModelVariantType = ModelVariantType.Normal
class MainCheckpointConfig(CheckpointConfigBase, MainConfigBase):
@@ -443,33 +419,12 @@ class CLIPEmbedDiffusersConfig(DiffusersConfigBase):
type: Literal[ModelType.CLIPEmbed] = ModelType.CLIPEmbed
format: Literal[ModelFormat.Diffusers] = ModelFormat.Diffusers
variant: ClipVariantType = ClipVariantType.L
@staticmethod
def get_tag() -> Tag:
return Tag(f"{ModelType.CLIPEmbed.value}.{ModelFormat.Diffusers.value}")
class CLIPGEmbedDiffusersConfig(CLIPEmbedDiffusersConfig):
"""Model config for CLIP-G Embeddings."""
variant: ClipVariantType = ClipVariantType.G
@staticmethod
def get_tag() -> Tag:
return Tag(f"{ModelType.CLIPEmbed.value}.{ModelFormat.Diffusers.value}.{ClipVariantType.G}")
class CLIPLEmbedDiffusersConfig(CLIPEmbedDiffusersConfig):
"""Model config for CLIP-L Embeddings."""
variant: ClipVariantType = ClipVariantType.L
@staticmethod
def get_tag() -> Tag:
return Tag(f"{ModelType.CLIPEmbed.value}.{ModelFormat.Diffusers.value}.{ClipVariantType.L}")
class CLIPVisionDiffusersConfig(DiffusersConfigBase):
"""Model config for CLIPVision."""
@@ -546,8 +501,6 @@ AnyModelConfig = Annotated[
Annotated[SpandrelImageToImageConfig, SpandrelImageToImageConfig.get_tag()],
Annotated[CLIPVisionDiffusersConfig, CLIPVisionDiffusersConfig.get_tag()],
Annotated[CLIPEmbedDiffusersConfig, CLIPEmbedDiffusersConfig.get_tag()],
Annotated[CLIPLEmbedDiffusersConfig, CLIPLEmbedDiffusersConfig.get_tag()],
Annotated[CLIPGEmbedDiffusersConfig, CLIPGEmbedDiffusersConfig.get_tag()],
],
Discriminator(get_model_discriminator_value),
]

View File

@@ -8,7 +8,7 @@ from pathlib import Path
from invokeai.backend.model_manager.load.load_base import LoadedModel, LoadedModelWithoutConfig, ModelLoaderBase
from invokeai.backend.model_manager.load.load_default import ModelLoader
from invokeai.backend.model_manager.load.model_cache.model_cache import ModelCache
from invokeai.backend.model_manager.load.model_cache.model_cache_default import ModelCache
from invokeai.backend.model_manager.load.model_loader_registry import ModelLoaderRegistry, ModelLoaderRegistryBase
# This registers the subclasses that implement loaders of specific model types

View File

@@ -5,6 +5,7 @@ Base class for model loading in InvokeAI.
from abc import ABC, abstractmethod
from contextlib import contextmanager
from dataclasses import dataclass
from logging import Logger
from pathlib import Path
from typing import Any, Dict, Generator, Optional, Tuple
@@ -17,17 +18,19 @@ from invokeai.backend.model_manager.config import (
AnyModelConfig,
SubModelType,
)
from invokeai.backend.model_manager.load.model_cache.cache_record import CacheRecord
from invokeai.backend.model_manager.load.model_cache.model_cache import ModelCache
from invokeai.backend.model_manager.load.model_cache.model_cache_base import ModelCacheBase, ModelLockerBase
@dataclass
class LoadedModelWithoutConfig:
"""Context manager object that mediates transfer from RAM<->VRAM.
"""
Context manager object that mediates transfer from RAM<->VRAM.
This is a context manager object that has two distinct APIs:
1. Older API (deprecated):
Use the LoadedModel object directly as a context manager. It will move the model into VRAM (on CUDA devices), and
Use the LoadedModel object directly as a context manager.
It will move the model into VRAM (on CUDA devices), and
return the model in a form suitable for passing to torch.
Example:
```
@@ -37,9 +40,13 @@ class LoadedModelWithoutConfig:
```
2. Newer API (recommended):
Call the LoadedModel's `model_on_device()` method in a context. It returns a tuple consisting of a copy of the
model's state dict in CPU RAM followed by a copy of the model in VRAM. The state dict is provided to allow LoRAs and
other model patchers to return the model to its unpatched state without expensive copy and restore operations.
Call the LoadedModel's `model_on_device()` method in a
context. It returns a tuple consisting of a copy of
the model's state dict in CPU RAM followed by a copy
of the model in VRAM. The state dict is provided to allow
LoRAs and other model patchers to return the model to
its unpatched state without expensive copy and restore
operations.
Example:
```
@@ -48,42 +55,43 @@ class LoadedModelWithoutConfig:
image = vae.decode(latents)[0]
```
The state_dict should be treated as a read-only object and never modified. Also be aware that some loadable models
do not have a state_dict, in which case this value will be None.
The state_dict should be treated as a read-only object and
never modified. Also be aware that some loadable models do
not have a state_dict, in which case this value will be None.
"""
def __init__(self, cache_record: CacheRecord, cache: ModelCache):
self._cache_record = cache_record
self._cache = cache
_locker: ModelLockerBase
def __enter__(self) -> AnyModel:
self._cache.lock(self._cache_record.key)
"""Context entry."""
self._locker.lock()
return self.model
def __exit__(self, *args: Any, **kwargs: Any) -> None:
self._cache.unlock(self._cache_record.key)
"""Context exit."""
self._locker.unlock()
@contextmanager
def model_on_device(self) -> Generator[Tuple[Optional[Dict[str, torch.Tensor]], AnyModel], None, None]:
"""Return a tuple consisting of the model's state dict (if it exists) and the locked model on execution device."""
self._cache.lock(self._cache_record.key)
locked_model = self._locker.lock()
try:
yield (self._cache_record.cached_model.get_cpu_state_dict(), self._cache_record.cached_model.model)
state_dict = self._locker.get_state_dict()
yield (state_dict, locked_model)
finally:
self._cache.unlock(self._cache_record.key)
self._locker.unlock()
@property
def model(self) -> AnyModel:
"""Return the model without locking it."""
return self._cache_record.cached_model.model
return self._locker.model
@dataclass
class LoadedModel(LoadedModelWithoutConfig):
"""Context manager object that mediates transfer from RAM<->VRAM."""
def __init__(self, config: Optional[AnyModelConfig], cache_record: CacheRecord, cache: ModelCache):
super().__init__(cache_record=cache_record, cache=cache)
self.config = config
config: Optional[AnyModelConfig] = None
# TODO(MM2):
@@ -102,7 +110,7 @@ class ModelLoaderBase(ABC):
self,
app_config: InvokeAIAppConfig,
logger: Logger,
ram_cache: ModelCache,
ram_cache: ModelCacheBase[AnyModel],
):
"""Initialize the loader."""
pass
@@ -130,6 +138,6 @@ class ModelLoaderBase(ABC):
@property
@abstractmethod
def ram_cache(self) -> ModelCache:
def ram_cache(self) -> ModelCacheBase[AnyModel]:
"""Return the ram cache associated with this loader."""
pass

View File

@@ -14,8 +14,7 @@ from invokeai.backend.model_manager import (
)
from invokeai.backend.model_manager.config import DiffusersConfigBase
from invokeai.backend.model_manager.load.load_base import LoadedModel, ModelLoaderBase
from invokeai.backend.model_manager.load.model_cache.cache_record import CacheRecord
from invokeai.backend.model_manager.load.model_cache.model_cache import ModelCache, get_model_cache_key
from invokeai.backend.model_manager.load.model_cache.model_cache_base import ModelCacheBase, ModelLockerBase
from invokeai.backend.model_manager.load.model_util import calc_model_size_by_fs
from invokeai.backend.model_manager.load.optimizations import skip_torch_weight_init
from invokeai.backend.util.devices import TorchDevice
@@ -29,14 +28,13 @@ class ModelLoader(ModelLoaderBase):
self,
app_config: InvokeAIAppConfig,
logger: Logger,
ram_cache: ModelCache,
ram_cache: ModelCacheBase[AnyModel],
):
"""Initialize the loader."""
self._app_config = app_config
self._logger = logger
self._ram_cache = ram_cache
self._torch_dtype = TorchDevice.choose_torch_dtype()
self._torch_device = TorchDevice.choose_torch_device()
def load_model(self, model_config: AnyModelConfig, submodel_type: Optional[SubModelType] = None) -> LoadedModel:
"""
@@ -55,11 +53,11 @@ class ModelLoader(ModelLoaderBase):
raise InvalidModelConfigException(f"Files for model '{model_config.name}' not found at {model_path}")
with skip_torch_weight_init():
cache_record = self._load_and_cache(model_config, submodel_type)
return LoadedModel(config=model_config, cache_record=cache_record, cache=self._ram_cache)
locker = self._load_and_cache(model_config, submodel_type)
return LoadedModel(config=model_config, _locker=locker)
@property
def ram_cache(self) -> ModelCache:
def ram_cache(self) -> ModelCacheBase[AnyModel]:
"""Return the ram cache associated with this loader."""
return self._ram_cache
@@ -67,10 +65,10 @@ class ModelLoader(ModelLoaderBase):
model_base = self._app_config.models_path
return (model_base / config.path).resolve()
def _load_and_cache(self, config: AnyModelConfig, submodel_type: Optional[SubModelType] = None) -> CacheRecord:
def _load_and_cache(self, config: AnyModelConfig, submodel_type: Optional[SubModelType] = None) -> ModelLockerBase:
stats_name = ":".join([config.base, config.type, config.name, (submodel_type or "")])
try:
return self._ram_cache.get(key=get_model_cache_key(config.key, submodel_type), stats_name=stats_name)
return self._ram_cache.get(config.key, submodel_type, stats_name=stats_name)
except IndexError:
pass
@@ -79,11 +77,16 @@ class ModelLoader(ModelLoaderBase):
loaded_model = self._load_model(config, submodel_type)
self._ram_cache.put(
get_model_cache_key(config.key, submodel_type),
config.key,
submodel_type=submodel_type,
model=loaded_model,
)
return self._ram_cache.get(key=get_model_cache_key(config.key, submodel_type), stats_name=stats_name)
return self._ram_cache.get(
key=config.key,
submodel_type=submodel_type,
stats_name=stats_name,
)
def get_size_fs(
self, config: AnyModelConfig, model_path: Path, submodel_type: Optional[SubModelType] = None

View File

@@ -0,0 +1,6 @@
"""Init file for ModelCache."""
from .model_cache_base import ModelCacheBase, CacheStats # noqa F401
from .model_cache_default import ModelCache # noqa F401
_all__ = ["ModelCacheBase", "ModelCache", "CacheStats"]

View File

@@ -1,31 +0,0 @@
from dataclasses import dataclass
from invokeai.backend.model_manager.load.model_cache.cached_model.cached_model_only_full_load import (
CachedModelOnlyFullLoad,
)
from invokeai.backend.model_manager.load.model_cache.cached_model.cached_model_with_partial_load import (
CachedModelWithPartialLoad,
)
@dataclass
class CacheRecord:
"""A class that represents a model in the model cache."""
# Cache key.
key: str
# Model in memory.
cached_model: CachedModelWithPartialLoad | CachedModelOnlyFullLoad
# If locks > 0, the model is actively being used, so we should do our best to keep it on the compute device.
_locks: int = 0
def lock(self) -> None:
self._locks += 1
def unlock(self) -> None:
self._locks -= 1
assert self._locks >= 0
@property
def is_locked(self) -> bool:
return self._locks > 0

View File

@@ -1,15 +0,0 @@
from dataclasses import dataclass, field
from typing import Dict
@dataclass
class CacheStats(object):
"""Collect statistics on cache performance."""
hits: int = 0 # cache hits
misses: int = 0 # cache misses
high_watermark: int = 0 # amount of cache used
in_cache: int = 0 # number of models in cache
cleared: int = 0 # number of models cleared to make space
cache_size: int = 0 # total size of cache
loaded_model_sizes: Dict[str, int] = field(default_factory=dict)

View File

@@ -1,81 +0,0 @@
from typing import Any
import torch
class CachedModelOnlyFullLoad:
"""A wrapper around a PyTorch model to handle full loads and unloads between the CPU and the compute device.
Note: "VRAM" is used throughout this class to refer to the memory on the compute device. It could be CUDA memory,
MPS memory, etc.
"""
def __init__(self, model: torch.nn.Module | Any, compute_device: torch.device, total_bytes: int):
"""Initialize a CachedModelOnlyFullLoad.
Args:
model (torch.nn.Module | Any): The model to wrap. Should be on the CPU.
compute_device (torch.device): The compute device to move the model to.
total_bytes (int): The total size (in bytes) of all the weights in the model.
"""
# model is often a torch.nn.Module, but could be any model type. Throughout this class, we handle both cases.
self._model = model
self._compute_device = compute_device
self._total_bytes = total_bytes
self._is_in_vram = False
@property
def model(self) -> torch.nn.Module:
return self._model
def get_cpu_state_dict(self) -> dict[str, torch.Tensor] | None:
"""Get a read-only copy of the model's state dict in RAM."""
# TODO(ryand): Document this better and implement it.
return None
def total_bytes(self) -> int:
"""Get the total size (in bytes) of all the weights in the model."""
return self._total_bytes
def cur_vram_bytes(self) -> int:
"""Get the size (in bytes) of the weights that are currently in VRAM."""
if self._is_in_vram:
return self._total_bytes
else:
return 0
def is_in_vram(self) -> bool:
"""Return true if the model is currently in VRAM."""
return self._is_in_vram
def full_load_to_vram(self) -> int:
"""Load all weights into VRAM (if supported by the model).
Returns:
The number of bytes loaded into VRAM.
"""
if self._is_in_vram:
# Already in VRAM.
return 0
if not hasattr(self._model, "to"):
# Model doesn't support moving to a device.
return 0
self._model.to(self._compute_device)
self._is_in_vram = True
return self._total_bytes
def full_unload_from_vram(self) -> int:
"""Unload all weights from VRAM.
Returns:
The number of bytes unloaded from VRAM.
"""
if not self._is_in_vram:
# Already in RAM.
return 0
self._model.to("cpu")
self._is_in_vram = False
return self._total_bytes

View File

@@ -1,150 +0,0 @@
import itertools
import torch
from invokeai.backend.model_manager.load.model_cache.torch_function_autocast_context import (
add_autocast_to_module_forward,
)
from invokeai.backend.util.calc_tensor_size import calc_tensor_size
def set_nested_attr(obj: object, attr: str, value: object):
"""A helper function that extends setattr() to support nested attributes.
Example:
set_nested_attr(model, "module.encoder.conv1.weight", new_conv1_weight)
"""
attrs = attr.split(".")
for attr in attrs[:-1]:
obj = getattr(obj, attr)
setattr(obj, attrs[-1], value)
class CachedModelWithPartialLoad:
"""A wrapper around a PyTorch model to handle partial loads and unloads between the CPU and the compute device.
Note: "VRAM" is used throughout this class to refer to the memory on the compute device. It could be CUDA memory,
MPS memory, etc.
"""
def __init__(self, model: torch.nn.Module, compute_device: torch.device):
self._model = model
self._compute_device = compute_device
# A CPU read-only copy of the model's state dict.
self._cpu_state_dict: dict[str, torch.Tensor] = model.state_dict()
# Monkey-patch the model to add autocasting to the model's forward method.
add_autocast_to_module_forward(model, compute_device)
self._total_bytes = sum(
calc_tensor_size(p) for p in itertools.chain(self._model.parameters(), self._model.buffers())
)
self._cur_vram_bytes: int | None = None
@property
def model(self) -> torch.nn.Module:
return self._model
def get_cpu_state_dict(self) -> dict[str, torch.Tensor] | None:
"""Get a read-only copy of the model's state dict in RAM."""
# TODO(ryand): Document this better.
return self._cpu_state_dict
def total_bytes(self) -> int:
"""Get the total size (in bytes) of all the weights in the model."""
return self._total_bytes
def cur_vram_bytes(self) -> int:
"""Get the size (in bytes) of the weights that are currently in VRAM."""
if self._cur_vram_bytes is None:
self._cur_vram_bytes = sum(
calc_tensor_size(p)
for p in itertools.chain(self._model.parameters(), self._model.buffers())
if p.device.type == self._compute_device.type
)
return self._cur_vram_bytes
def full_load_to_vram(self) -> int:
"""Load all weights into VRAM."""
return self.partial_load_to_vram(self.total_bytes())
def full_unload_from_vram(self) -> int:
"""Unload all weights from VRAM."""
return self.partial_unload_from_vram(self.total_bytes())
@torch.no_grad()
def partial_load_to_vram(self, vram_bytes_to_load: int) -> int:
"""Load more weights into VRAM without exceeding vram_bytes_to_load.
Returns:
The number of bytes loaded into VRAM.
"""
vram_bytes_loaded = 0
for key, param in itertools.chain(self._model.named_parameters(), self._model.named_buffers()):
# Skip parameters that are already on the compute device.
if param.device.type == self._compute_device.type:
continue
# Check the size of the parameter.
param_size = calc_tensor_size(param)
if vram_bytes_loaded + param_size > vram_bytes_to_load:
# TODO(ryand): Should we just break here? If we couldn't fit this parameter into VRAM, is it really
# worth continuing to search for a smaller parameter that would fit?
continue
# Copy the parameter to the compute device.
# We use the 'overwrite' strategy from torch.nn.Module._apply().
# TODO(ryand): For some edge cases (e.g. quantized models?), we may need to support other strategies (e.g.
# swap).
if isinstance(param, torch.nn.Parameter):
assert param.is_leaf
out_param = torch.nn.Parameter(
param.to(self._compute_device, copy=True), requires_grad=param.requires_grad
)
set_nested_attr(self._model, key, out_param)
# We did not port the param.grad handling from torch.nn.Module._apply(), because we do not expect to be
# handling gradients. We assert that this assumption is true.
assert param.grad is None
else:
# Handle buffers.
set_nested_attr(self._model, key, param.to(self._compute_device, copy=True))
vram_bytes_loaded += param_size
if self._cur_vram_bytes is not None:
self._cur_vram_bytes += vram_bytes_loaded
return vram_bytes_loaded
@torch.no_grad()
def partial_unload_from_vram(self, vram_bytes_to_free: int) -> int:
"""Unload weights from VRAM until vram_bytes_to_free bytes are freed. Or the entire model is unloaded.
Returns:
The number of bytes unloaded from VRAM.
"""
vram_bytes_freed = 0
for key, param in itertools.chain(self._model.named_parameters(), self._model.named_buffers()):
if vram_bytes_freed >= vram_bytes_to_free:
break
if param.device.type != self._compute_device.type:
continue
if isinstance(param, torch.nn.Parameter):
# Create a new parameter, but inject the existing CPU tensor into it.
out_param = torch.nn.Parameter(self._cpu_state_dict[key], requires_grad=param.requires_grad)
set_nested_attr(self._model, key, out_param)
else:
# Handle buffers.
set_nested_attr(self._model, key, self._cpu_state_dict[key])
vram_bytes_freed += calc_tensor_size(param)
if self._cur_vram_bytes is not None:
self._cur_vram_bytes -= vram_bytes_freed
return vram_bytes_freed

View File

@@ -1,538 +0,0 @@
import gc
from logging import Logger
from typing import Dict, List, Optional
import torch
from invokeai.backend.model_manager import AnyModel, SubModelType
from invokeai.backend.model_manager.load.memory_snapshot import MemorySnapshot
from invokeai.backend.model_manager.load.model_cache.cache_record import CacheRecord
from invokeai.backend.model_manager.load.model_cache.cache_stats import CacheStats
from invokeai.backend.model_manager.load.model_cache.cached_model.cached_model_only_full_load import (
CachedModelOnlyFullLoad,
)
from invokeai.backend.model_manager.load.model_cache.cached_model.cached_model_with_partial_load import (
CachedModelWithPartialLoad,
)
from invokeai.backend.model_manager.load.model_util import calc_model_size_by_data
from invokeai.backend.util.devices import TorchDevice
from invokeai.backend.util.logging import InvokeAILogger
from invokeai.backend.util.prefix_logger_adapter import PrefixedLoggerAdapter
# Size of a GB in bytes.
GB = 2**30
# Size of a MB in bytes.
MB = 2**20
# TODO(ryand): Where should this go? The ModelCache shouldn't be concerned with submodels.
def get_model_cache_key(model_key: str, submodel_type: Optional[SubModelType] = None) -> str:
"""Get the cache key for a model based on the optional submodel type."""
if submodel_type:
return f"{model_key}:{submodel_type.value}"
else:
return model_key
class ModelCache:
"""A cache for managing models in memory.
The cache is based on two levels of model storage:
- execution_device: The device where most models are executed (typically "cuda", "mps", or "cpu").
- storage_device: The device where models are offloaded when not in active use (typically "cpu").
The model cache is based on the following assumptions:
- storage_device_mem_size > execution_device_mem_size
- disk_to_storage_device_transfer_time >> storage_device_to_execution_device_transfer_time
A copy of all models in the cache is always kept on the storage_device. A subset of the models also have a copy on
the execution_device.
Models are moved between the storage_device and the execution_device as necessary. Cache size limits are enforced
on both the storage_device and the execution_device. The execution_device cache uses a smallest-first offload
policy. The storage_device cache uses a least-recently-used (LRU) offload policy.
Note: Neither of these offload policies has really been compared against alternatives. It's likely that different
policies would be better, although the optimal policies are likely heavily dependent on usage patterns and HW
configuration.
The cache returns context manager generators designed to load the model into the execution device (often GPU) within
the context, and unload outside the context.
Example usage:
```
cache = ModelCache(max_cache_size=7.5, max_vram_cache_size=6.0)
with cache.get_model('runwayml/stable-diffusion-1-5') as SD1:
do_something_on_gpu(SD1)
```
"""
def __init__(
self,
max_cache_size: float,
max_vram_cache_size: float,
execution_device: torch.device = torch.device("cuda"),
storage_device: torch.device = torch.device("cpu"),
lazy_offloading: bool = True,
log_memory_usage: bool = False,
logger: Optional[Logger] = None,
):
"""
Initialize the model RAM cache.
:param max_cache_size: Maximum size of the storage_device cache in GBs.
:param max_vram_cache_size: Maximum size of the execution_device cache in GBs.
:param execution_device: Torch device to load active model into [torch.device('cuda')]
:param storage_device: Torch device to save inactive model in [torch.device('cpu')]
:param lazy_offloading: Keep model in VRAM until another model needs to be loaded
:param log_memory_usage: If True, a memory snapshot will be captured before and after every model cache
operation, and the result will be logged (at debug level). There is a time cost to capturing the memory
snapshots, so it is recommended to disable this feature unless you are actively inspecting the model cache's
behaviour.
:param logger: InvokeAILogger to use (otherwise creates one)
"""
# allow lazy offloading only when vram cache enabled
# TODO(ryand): Think about what lazy_offloading should mean in the new model cache.
self._lazy_offloading = lazy_offloading and max_vram_cache_size > 0
self._max_cache_size: float = max_cache_size
self._max_vram_cache_size: float = max_vram_cache_size
self._execution_device: torch.device = execution_device
self._storage_device: torch.device = storage_device
self._logger = PrefixedLoggerAdapter(
logger or InvokeAILogger.get_logger(self.__class__.__name__), "MODEL CACHE"
)
self._log_memory_usage = log_memory_usage
self._stats: Optional[CacheStats] = None
self._cached_models: Dict[str, CacheRecord] = {}
self._cache_stack: List[str] = []
@property
def max_cache_size(self) -> float:
"""Return the cap on cache size."""
return self._max_cache_size
@max_cache_size.setter
def max_cache_size(self, value: float) -> None:
"""Set the cap on cache size."""
self._max_cache_size = value
@property
def max_vram_cache_size(self) -> float:
"""Return the cap on vram cache size."""
return self._max_vram_cache_size
@max_vram_cache_size.setter
def max_vram_cache_size(self, value: float) -> None:
"""Set the cap on vram cache size."""
self._max_vram_cache_size = value
@property
def stats(self) -> Optional[CacheStats]:
"""Return collected CacheStats object."""
return self._stats
@stats.setter
def stats(self, stats: CacheStats) -> None:
"""Set the CacheStats object for collecting cache statistics."""
self._stats = stats
def put(self, key: str, model: AnyModel) -> None:
"""Add a model to the cache."""
if key in self._cached_models:
self._logger.debug(
f"Attempted to add model {key} ({model.__class__.__name__}), but it already exists in the cache. No action necessary."
)
return
size = calc_model_size_by_data(self._logger, model)
self.make_room(size)
# Wrap model.
if isinstance(model, torch.nn.Module):
wrapped_model = CachedModelWithPartialLoad(model, self._execution_device)
else:
wrapped_model = CachedModelOnlyFullLoad(model, self._execution_device, size)
# running_on_cpu = self._execution_device == torch.device("cpu")
# state_dict = model.state_dict() if isinstance(model, torch.nn.Module) and not running_on_cpu else None
cache_record = CacheRecord(key=key, cached_model=wrapped_model)
self._cached_models[key] = cache_record
self._cache_stack.append(key)
self._logger.debug(
f"Added model {key} (Type: {model.__class__.__name__}, Wrap mode: {wrapped_model.__class__.__name__}, Model size: {size/MB:.2f}MB)"
)
def get(self, key: str, stats_name: Optional[str] = None) -> CacheRecord:
"""Retrieve a model from the cache.
:param key: Model key
:param stats_name: A human-readable id for the model for the purposes of stats reporting.
Raises IndexError if the model is not in the cache.
"""
if key in self._cached_models:
if self.stats:
self.stats.hits += 1
else:
if self.stats:
self.stats.misses += 1
self._logger.debug(f"Cache miss: {key}")
raise IndexError(f"The model with key {key} is not in the cache.")
cache_entry = self._cached_models[key]
# more stats
if self.stats:
stats_name = stats_name or key
self.stats.cache_size = int(self._max_cache_size * GB)
self.stats.high_watermark = max(self.stats.high_watermark, self._get_ram_in_use())
self.stats.in_cache = len(self._cached_models)
self.stats.loaded_model_sizes[stats_name] = max(
self.stats.loaded_model_sizes.get(stats_name, 0), cache_entry.cached_model.total_bytes()
)
# this moves the entry to the top (right end) of the stack
self._cache_stack = [k for k in self._cache_stack if k != key]
self._cache_stack.append(key)
self._logger.debug(f"Cache hit: {key} (Type: {cache_entry.cached_model.model.__class__.__name__})")
return cache_entry
def lock(self, key: str) -> None:
"""Lock a model for use and move it into VRAM."""
cache_entry = self._cached_models[key]
cache_entry.lock()
self._logger.debug(f"Locking model {key} (Type: {cache_entry.cached_model.model.__class__.__name__})")
try:
self._load_locked_model(cache_entry)
self._logger.debug(
f"Finished locking model {key} (Type: {cache_entry.cached_model.model.__class__.__name__})"
)
except torch.cuda.OutOfMemoryError:
self._logger.warning("Insufficient GPU memory to load model. Aborting")
cache_entry.unlock()
raise
except Exception:
cache_entry.unlock()
raise
self._log_cache_state()
def unlock(self, key: str) -> None:
"""Unlock a model."""
cache_entry = self._cached_models[key]
cache_entry.unlock()
self._logger.debug(f"Unlocked model {key} (Type: {cache_entry.cached_model.model.__class__.__name__})")
def _load_locked_model(self, cache_entry: CacheRecord) -> None:
"""Helper function for self.lock(). Loads a locked model into VRAM."""
vram_available = self._get_vram_available()
# Calculate model_vram_needed, the amount of additional VRAM that will be used if we fully load the model into
# VRAM.
model_cur_vram_bytes = cache_entry.cached_model.cur_vram_bytes()
model_total_bytes = cache_entry.cached_model.total_bytes()
model_vram_needed = model_total_bytes - model_cur_vram_bytes
# The amount of VRAM that must be freed to make room for model_vram_needed.
vram_bytes_to_free = max(0, model_vram_needed - vram_available)
self._logger.debug(
f"Before unloading: {self._get_vram_state_str(model_cur_vram_bytes, model_total_bytes, vram_available)}"
)
# Make room for the model in VRAM.
# 1. If the model can fit entirely in VRAM, then make enough room for it to be loaded fully.
# 2. If the model can't fit fully into VRAM, then unload all other models and load as much of the model as
# possible.
vram_bytes_freed = self._offload_unlocked_models(vram_bytes_to_free)
self._logger.debug(f"Unloaded models (if necessary): vram_bytes_freed={(vram_bytes_freed/MB):.2f}MB")
# Check the updated vram_available after offloading.
vram_available = self._get_vram_available()
self._logger.debug(
f"After unloading: {self._get_vram_state_str(model_cur_vram_bytes, model_total_bytes, vram_available)}"
)
# Move as much of the model as possible into VRAM.
model_bytes_loaded = 0
if isinstance(cache_entry.cached_model, CachedModelWithPartialLoad):
model_bytes_loaded = cache_entry.cached_model.partial_load_to_vram(vram_available)
elif isinstance(cache_entry.cached_model, CachedModelOnlyFullLoad): # type: ignore
# Partial load is not supported, so we have not choice but to try and fit it all into VRAM.
model_bytes_loaded = cache_entry.cached_model.full_load_to_vram()
else:
raise ValueError(f"Unsupported cached model type: {type(cache_entry.cached_model)}")
model_cur_vram_bytes = cache_entry.cached_model.cur_vram_bytes()
vram_available = self._get_vram_available()
self._logger.debug(f"Loaded model onto execution device: model_bytes_loaded={(model_bytes_loaded/MB):.2f}MB, ")
self._logger.debug(
f"After loading: {self._get_vram_state_str(model_cur_vram_bytes, model_total_bytes, vram_available)}"
)
def _get_vram_available(self) -> int:
"""Get the amount of VRAM available in the cache."""
return int(self._max_vram_cache_size * GB) - self._get_vram_in_use()
def _get_vram_in_use(self) -> int:
"""Get the amount of VRAM currently in use."""
return sum(ce.cached_model.cur_vram_bytes() for ce in self._cached_models.values())
def _get_ram_available(self) -> int:
"""Get the amount of RAM available in the cache."""
return int(self._max_cache_size * GB) - self._get_ram_in_use()
def _get_ram_in_use(self) -> int:
"""Get the amount of RAM currently in use."""
return sum(ce.cached_model.total_bytes() for ce in self._cached_models.values())
def _capture_memory_snapshot(self) -> Optional[MemorySnapshot]:
if self._log_memory_usage:
return MemorySnapshot.capture()
return None
def _get_vram_state_str(self, model_cur_vram_bytes: int, model_total_bytes: int, vram_available: int) -> str:
"""Helper function for preparing a VRAM state log string."""
model_cur_vram_bytes_percent = model_cur_vram_bytes / model_total_bytes if model_total_bytes > 0 else 0
return (
f"model_total={model_total_bytes/MB:.0f} MB, "
+ f"model_vram={model_cur_vram_bytes/MB:.0f} MB ({model_cur_vram_bytes_percent:.1%} %), "
+ f"vram_total={int(self._max_vram_cache_size * GB)/MB:.0f} MB, "
+ f"vram_available={(vram_available/MB):.0f} MB, "
)
def _offload_unlocked_models(self, vram_bytes_to_free: int) -> int:
"""Offload models from the execution_device until vram_bytes_to_free bytes are freed, or all models are
offloaded. Of course, locked models are not offloaded.
Returns:
int: The number of bytes freed.
"""
self._logger.debug(f"Offloading unlocked models with goal of freeing {vram_bytes_to_free/MB:.2f}MB of VRAM.")
vram_bytes_freed = 0
# TODO(ryand): Give more thought to the offloading policy used here.
cache_entries_increasing_size = sorted(self._cached_models.values(), key=lambda x: x.cached_model.total_bytes())
for cache_entry in cache_entries_increasing_size:
if vram_bytes_freed >= vram_bytes_to_free:
break
if cache_entry.is_locked:
continue
if isinstance(cache_entry.cached_model, CachedModelWithPartialLoad):
cache_entry_bytes_freed = cache_entry.cached_model.partial_unload_from_vram(
vram_bytes_to_free - vram_bytes_freed
)
elif isinstance(cache_entry.cached_model, CachedModelOnlyFullLoad): # type: ignore
cache_entry_bytes_freed = cache_entry.cached_model.full_unload_from_vram()
else:
raise ValueError(f"Unsupported cached model type: {type(cache_entry.cached_model)}")
if cache_entry_bytes_freed > 0:
self._logger.debug(
f"Unloaded {cache_entry.key} from VRAM to free {(cache_entry_bytes_freed/MB):.0f} MB."
)
vram_bytes_freed += cache_entry_bytes_freed
TorchDevice.empty_cache()
return vram_bytes_freed
# def _move_model_to_device(self, cache_entry: CacheRecord, target_device: torch.device) -> None:
# """Move model into the indicated device.
# :param cache_entry: The CacheRecord for the model
# :param target_device: The torch.device to move the model into
# May raise a torch.cuda.OutOfMemoryError
# """
# self._logger.debug(f"Called to move {cache_entry.key} to {target_device}")
# source_device = cache_entry.device
# # Note: We compare device types only so that 'cuda' == 'cuda:0'.
# # This would need to be revised to support multi-GPU.
# if torch.device(source_device).type == torch.device(target_device).type:
# return
# # Some models don't have a `to` method, in which case they run in RAM/CPU.
# if not hasattr(cache_entry.model, "to"):
# return
# # This roundabout method for moving the model around is done to avoid
# # the cost of moving the model from RAM to VRAM and then back from VRAM to RAM.
# # When moving to VRAM, we copy (not move) each element of the state dict from
# # RAM to a new state dict in VRAM, and then inject it into the model.
# # This operation is slightly faster than running `to()` on the whole model.
# #
# # When the model needs to be removed from VRAM we simply delete the copy
# # of the state dict in VRAM, and reinject the state dict that is cached
# # in RAM into the model. So this operation is very fast.
# start_model_to_time = time.time()
# snapshot_before = self._capture_memory_snapshot()
# try:
# if cache_entry.state_dict is not None:
# assert hasattr(cache_entry.model, "load_state_dict")
# if target_device == self._storage_device:
# cache_entry.model.load_state_dict(cache_entry.state_dict, assign=True)
# else:
# new_dict: Dict[str, torch.Tensor] = {}
# for k, v in cache_entry.state_dict.items():
# new_dict[k] = v.to(target_device, copy=True)
# cache_entry.model.load_state_dict(new_dict, assign=True)
# cache_entry.model.to(target_device)
# cache_entry.device = target_device
# except Exception as e: # blow away cache entry
# self._delete_cache_entry(cache_entry)
# raise e
# snapshot_after = self._capture_memory_snapshot()
# end_model_to_time = time.time()
# self._logger.debug(
# f"Moved model '{cache_entry.key}' from {source_device} to"
# f" {target_device} in {(end_model_to_time-start_model_to_time):.2f}s."
# f"Estimated model size: {(cache_entry.size/GB):.3f} GB."
# f"{get_pretty_snapshot_diff(snapshot_before, snapshot_after)}"
# )
# if (
# snapshot_before is not None
# and snapshot_after is not None
# and snapshot_before.vram is not None
# and snapshot_after.vram is not None
# ):
# vram_change = abs(snapshot_before.vram - snapshot_after.vram)
# # If the estimated model size does not match the change in VRAM, log a warning.
# if not math.isclose(
# vram_change,
# cache_entry.size,
# rel_tol=0.1,
# abs_tol=10 * MB,
# ):
# self._logger.debug(
# f"Moving model '{cache_entry.key}' from {source_device} to"
# f" {target_device} caused an unexpected change in VRAM usage. The model's"
# " estimated size may be incorrect. Estimated model size:"
# f" {(cache_entry.size/GB):.3f} GB.\n"
# f"{get_pretty_snapshot_diff(snapshot_before, snapshot_after)}"
# )
def _log_cache_state(self, title: str = "Model cache state:", include_entry_details: bool = True):
ram_size_bytes = self._max_cache_size * GB
ram_in_use_bytes = self._get_ram_in_use()
ram_in_use_bytes_percent = ram_in_use_bytes / ram_size_bytes if ram_size_bytes > 0 else 0
ram_available_bytes = self._get_ram_available()
ram_available_bytes_percent = ram_available_bytes / ram_size_bytes if ram_size_bytes > 0 else 0
vram_size_bytes = self._max_vram_cache_size * GB
vram_in_use_bytes = self._get_vram_in_use()
vram_in_use_bytes_percent = vram_in_use_bytes / vram_size_bytes if vram_size_bytes > 0 else 0
vram_available_bytes = self._get_vram_available()
vram_available_bytes_percent = vram_available_bytes / vram_size_bytes if vram_size_bytes > 0 else 0
log = f"{title}\n"
log_format = " {:<30} Limit: {:>7.1f} MB, Used: {:>7.1f} MB ({:>5.1%}), Available: {:>7.1f} MB ({:>5.1%})\n"
log += log_format.format(
f"Storage Device ({self._storage_device.type})",
ram_size_bytes / MB,
ram_in_use_bytes / MB,
ram_in_use_bytes_percent,
ram_available_bytes / MB,
ram_available_bytes_percent,
)
log += log_format.format(
f"Compute Device ({self._execution_device.type})",
vram_size_bytes / MB,
vram_in_use_bytes / MB,
vram_in_use_bytes_percent,
vram_available_bytes / MB,
vram_available_bytes_percent,
)
if torch.cuda.is_available():
log += " {:<30} {} MB\n".format("CUDA Memory Allocated:", torch.cuda.memory_allocated() / MB)
log += " {:<30} {}\n".format("Total models:", len(self._cached_models))
if include_entry_details and len(self._cached_models) > 0:
log += " Models:\n"
log_format = (
" {:<80} total={:>7.1f} MB, vram={:>7.1f} MB ({:>5.1%}), ram={:>7.1f} MB ({:>5.1%}), locked={}\n"
)
for cache_record in self._cached_models.values():
total_bytes = cache_record.cached_model.total_bytes()
cur_vram_bytes = cache_record.cached_model.cur_vram_bytes()
cur_vram_bytes_percent = cur_vram_bytes / total_bytes if total_bytes > 0 else 0
cur_ram_bytes = total_bytes - cur_vram_bytes
cur_ram_bytes_percent = cur_ram_bytes / total_bytes if total_bytes > 0 else 0
log += log_format.format(
f"{cache_record.key} ({cache_record.cached_model.model.__class__.__name__}):",
total_bytes / MB,
cur_vram_bytes / MB,
cur_vram_bytes_percent,
cur_ram_bytes / MB,
cur_ram_bytes_percent,
cache_record.is_locked,
)
self._logger.debug(log)
def make_room(self, bytes_needed: int) -> None:
"""Make enough room in the cache to accommodate a new model of indicated size.
Note: This function deletes all of the cache's internal references to a model in order to free it. If there are
external references to the model, there's nothing that the cache can do about it, and those models will not be
garbage-collected.
"""
self._logger.debug(f"Making room for {bytes_needed/MB:.2f}MB of RAM.")
self._log_cache_state(title="Before dropping models:")
ram_bytes_available = self._get_ram_available()
ram_bytes_to_free = max(0, bytes_needed - ram_bytes_available)
ram_bytes_freed = 0
pos = 0
models_cleared = 0
while ram_bytes_freed < ram_bytes_to_free and pos < len(self._cache_stack):
model_key = self._cache_stack[pos]
cache_entry = self._cached_models[model_key]
if not cache_entry.is_locked:
ram_bytes_freed += cache_entry.cached_model.total_bytes()
self._logger.debug(
f"Dropping {model_key} from RAM cache to free {(cache_entry.cached_model.total_bytes()/MB):.2f}MB."
)
self._delete_cache_entry(cache_entry)
del cache_entry
models_cleared += 1
else:
pos += 1
if models_cleared > 0:
# There would likely be some 'garbage' to be collected regardless of whether a model was cleared or not, but
# there is a significant time cost to calling `gc.collect()`, so we want to use it sparingly. (The time cost
# is high even if no garbage gets collected.)
#
# Calling gc.collect(...) when a model is cleared seems like a good middle-ground:
# - If models had to be cleared, it's a signal that we are close to our memory limit.
# - If models were cleared, there's a good chance that there's a significant amount of garbage to be
# collected.
#
# Keep in mind that gc is only responsible for handling reference cycles. Most objects should be cleaned up
# immediately when their reference count hits 0.
if self.stats:
self.stats.cleared = models_cleared
gc.collect()
TorchDevice.empty_cache()
self._logger.debug(f"Dropped {models_cleared} models to free {ram_bytes_freed/MB:.2f}MB of RAM.")
self._log_cache_state(title="After dropping models:")
def _delete_cache_entry(self, cache_entry: CacheRecord) -> None:
self._cache_stack.remove(cache_entry.key)
del self._cached_models[cache_entry.key]

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@@ -0,0 +1,221 @@
# Copyright (c) 2024 Lincoln D. Stein and the InvokeAI Development team
# TODO: Add Stalker's proper name to copyright
"""
Manage a RAM cache of diffusion/transformer models for fast switching.
They are moved between GPU VRAM and CPU RAM as necessary. If the cache
grows larger than a preset maximum, then the least recently used
model will be cleared and (re)loaded from disk when next needed.
"""
from abc import ABC, abstractmethod
from dataclasses import dataclass, field
from logging import Logger
from typing import Dict, Generic, Optional, TypeVar
import torch
from invokeai.backend.model_manager.config import AnyModel, SubModelType
class ModelLockerBase(ABC):
"""Base class for the model locker used by the loader."""
@abstractmethod
def lock(self) -> AnyModel:
"""Lock the contained model and move it into VRAM."""
pass
@abstractmethod
def unlock(self) -> None:
"""Unlock the contained model, and remove it from VRAM."""
pass
@abstractmethod
def get_state_dict(self) -> Optional[Dict[str, torch.Tensor]]:
"""Return the state dict (if any) for the cached model."""
pass
@property
@abstractmethod
def model(self) -> AnyModel:
"""Return the model."""
pass
T = TypeVar("T")
@dataclass
class CacheRecord(Generic[T]):
"""
Elements of the cache:
key: Unique key for each model, same as used in the models database.
model: Model in memory.
state_dict: A read-only copy of the model's state dict in RAM. It will be
used as a template for creating a copy in the VRAM.
size: Size of the model
loaded: True if the model's state dict is currently in VRAM
Before a model is executed, the state_dict template is copied into VRAM,
and then injected into the model. When the model is finished, the VRAM
copy of the state dict is deleted, and the RAM version is reinjected
into the model.
The state_dict should be treated as a read-only attribute. Do not attempt
to patch or otherwise modify it. Instead, patch the copy of the state_dict
after it is loaded into the execution device (e.g. CUDA) using the `LoadedModel`
context manager call `model_on_device()`.
"""
key: str
model: T
device: torch.device
state_dict: Optional[Dict[str, torch.Tensor]]
size: int
loaded: bool = False
_locks: int = 0
def lock(self) -> None:
"""Lock this record."""
self._locks += 1
def unlock(self) -> None:
"""Unlock this record."""
self._locks -= 1
assert self._locks >= 0
@property
def locked(self) -> bool:
"""Return true if record is locked."""
return self._locks > 0
@dataclass
class CacheStats(object):
"""Collect statistics on cache performance."""
hits: int = 0 # cache hits
misses: int = 0 # cache misses
high_watermark: int = 0 # amount of cache used
in_cache: int = 0 # number of models in cache
cleared: int = 0 # number of models cleared to make space
cache_size: int = 0 # total size of cache
loaded_model_sizes: Dict[str, int] = field(default_factory=dict)
class ModelCacheBase(ABC, Generic[T]):
"""Virtual base class for RAM model cache."""
@property
@abstractmethod
def storage_device(self) -> torch.device:
"""Return the storage device (e.g. "CPU" for RAM)."""
pass
@property
@abstractmethod
def execution_device(self) -> torch.device:
"""Return the exection device (e.g. "cuda" for VRAM)."""
pass
@property
@abstractmethod
def lazy_offloading(self) -> bool:
"""Return true if the cache is configured to lazily offload models in VRAM."""
pass
@property
@abstractmethod
def max_cache_size(self) -> float:
"""Return the maximum size the RAM cache can grow to."""
pass
@max_cache_size.setter
@abstractmethod
def max_cache_size(self, value: float) -> None:
"""Set the cap on vram cache size."""
@property
@abstractmethod
def max_vram_cache_size(self) -> float:
"""Return the maximum size the VRAM cache can grow to."""
pass
@max_vram_cache_size.setter
@abstractmethod
def max_vram_cache_size(self, value: float) -> float:
"""Set the maximum size the VRAM cache can grow to."""
pass
@abstractmethod
def offload_unlocked_models(self, size_required: int) -> None:
"""Offload from VRAM any models not actively in use."""
pass
@abstractmethod
def move_model_to_device(self, cache_entry: CacheRecord[AnyModel], target_device: torch.device) -> None:
"""Move model into the indicated device."""
pass
@property
@abstractmethod
def stats(self) -> Optional[CacheStats]:
"""Return collected CacheStats object."""
pass
@stats.setter
@abstractmethod
def stats(self, stats: CacheStats) -> None:
"""Set the CacheStats object for collectin cache statistics."""
pass
@property
@abstractmethod
def logger(self) -> Logger:
"""Return the logger used by the cache."""
pass
@abstractmethod
def make_room(self, size: int) -> None:
"""Make enough room in the cache to accommodate a new model of indicated size."""
pass
@abstractmethod
def put(
self,
key: str,
model: T,
submodel_type: Optional[SubModelType] = None,
) -> None:
"""Store model under key and optional submodel_type."""
pass
@abstractmethod
def get(
self,
key: str,
submodel_type: Optional[SubModelType] = None,
stats_name: Optional[str] = None,
) -> ModelLockerBase:
"""
Retrieve model using key and optional submodel_type.
:param key: Opaque model key
:param submodel_type: Type of the submodel to fetch
:param stats_name: A human-readable id for the model for the purposes of
stats reporting.
This may raise an IndexError if the model is not in the cache.
"""
pass
@abstractmethod
def cache_size(self) -> int:
"""Get the total size of the models currently cached."""
pass
@abstractmethod
def print_cuda_stats(self) -> None:
"""Log debugging information on CUDA usage."""
pass

View File

@@ -0,0 +1,426 @@
# Copyright (c) 2024 Lincoln D. Stein and the InvokeAI Development team
# TODO: Add Stalker's proper name to copyright
""" """
import gc
import math
import time
from contextlib import suppress
from logging import Logger
from typing import Dict, List, Optional
import torch
from invokeai.backend.model_manager import AnyModel, SubModelType
from invokeai.backend.model_manager.load.memory_snapshot import MemorySnapshot, get_pretty_snapshot_diff
from invokeai.backend.model_manager.load.model_cache.model_cache_base import (
CacheRecord,
CacheStats,
ModelCacheBase,
ModelLockerBase,
)
from invokeai.backend.model_manager.load.model_cache.model_locker import ModelLocker
from invokeai.backend.model_manager.load.model_util import calc_model_size_by_data
from invokeai.backend.util.devices import TorchDevice
from invokeai.backend.util.logging import InvokeAILogger
# Size of a GB in bytes.
GB = 2**30
# Size of a MB in bytes.
MB = 2**20
class ModelCache(ModelCacheBase[AnyModel]):
"""A cache for managing models in memory.
The cache is based on two levels of model storage:
- execution_device: The device where most models are executed (typically "cuda", "mps", or "cpu").
- storage_device: The device where models are offloaded when not in active use (typically "cpu").
The model cache is based on the following assumptions:
- storage_device_mem_size > execution_device_mem_size
- disk_to_storage_device_transfer_time >> storage_device_to_execution_device_transfer_time
A copy of all models in the cache is always kept on the storage_device. A subset of the models also have a copy on
the execution_device.
Models are moved between the storage_device and the execution_device as necessary. Cache size limits are enforced
on both the storage_device and the execution_device. The execution_device cache uses a smallest-first offload
policy. The storage_device cache uses a least-recently-used (LRU) offload policy.
Note: Neither of these offload policies has really been compared against alternatives. It's likely that different
policies would be better, although the optimal policies are likely heavily dependent on usage patterns and HW
configuration.
The cache returns context manager generators designed to load the model into the execution device (often GPU) within
the context, and unload outside the context.
Example usage:
```
cache = ModelCache(max_cache_size=7.5, max_vram_cache_size=6.0)
with cache.get_model('runwayml/stable-diffusion-1-5') as SD1:
do_something_on_gpu(SD1)
```
"""
def __init__(
self,
max_cache_size: float,
max_vram_cache_size: float,
execution_device: torch.device = torch.device("cuda"),
storage_device: torch.device = torch.device("cpu"),
precision: torch.dtype = torch.float16,
lazy_offloading: bool = True,
log_memory_usage: bool = False,
logger: Optional[Logger] = None,
):
"""
Initialize the model RAM cache.
:param max_cache_size: Maximum size of the storage_device cache in GBs.
:param max_vram_cache_size: Maximum size of the execution_device cache in GBs.
:param execution_device: Torch device to load active model into [torch.device('cuda')]
:param storage_device: Torch device to save inactive model in [torch.device('cpu')]
:param precision: Precision for loaded models [torch.float16]
:param lazy_offloading: Keep model in VRAM until another model needs to be loaded
:param log_memory_usage: If True, a memory snapshot will be captured before and after every model cache
operation, and the result will be logged (at debug level). There is a time cost to capturing the memory
snapshots, so it is recommended to disable this feature unless you are actively inspecting the model cache's
behaviour.
:param logger: InvokeAILogger to use (otherwise creates one)
"""
# allow lazy offloading only when vram cache enabled
self._lazy_offloading = lazy_offloading and max_vram_cache_size > 0
self._max_cache_size: float = max_cache_size
self._max_vram_cache_size: float = max_vram_cache_size
self._execution_device: torch.device = execution_device
self._storage_device: torch.device = storage_device
self._logger = logger or InvokeAILogger.get_logger(self.__class__.__name__)
self._log_memory_usage = log_memory_usage
self._stats: Optional[CacheStats] = None
self._cached_models: Dict[str, CacheRecord[AnyModel]] = {}
self._cache_stack: List[str] = []
@property
def logger(self) -> Logger:
"""Return the logger used by the cache."""
return self._logger
@property
def lazy_offloading(self) -> bool:
"""Return true if the cache is configured to lazily offload models in VRAM."""
return self._lazy_offloading
@property
def storage_device(self) -> torch.device:
"""Return the storage device (e.g. "CPU" for RAM)."""
return self._storage_device
@property
def execution_device(self) -> torch.device:
"""Return the exection device (e.g. "cuda" for VRAM)."""
return self._execution_device
@property
def max_cache_size(self) -> float:
"""Return the cap on cache size."""
return self._max_cache_size
@max_cache_size.setter
def max_cache_size(self, value: float) -> None:
"""Set the cap on cache size."""
self._max_cache_size = value
@property
def max_vram_cache_size(self) -> float:
"""Return the cap on vram cache size."""
return self._max_vram_cache_size
@max_vram_cache_size.setter
def max_vram_cache_size(self, value: float) -> None:
"""Set the cap on vram cache size."""
self._max_vram_cache_size = value
@property
def stats(self) -> Optional[CacheStats]:
"""Return collected CacheStats object."""
return self._stats
@stats.setter
def stats(self, stats: CacheStats) -> None:
"""Set the CacheStats object for collectin cache statistics."""
self._stats = stats
def cache_size(self) -> int:
"""Get the total size of the models currently cached."""
total = 0
for cache_record in self._cached_models.values():
total += cache_record.size
return total
def put(
self,
key: str,
model: AnyModel,
submodel_type: Optional[SubModelType] = None,
) -> None:
"""Store model under key and optional submodel_type."""
key = self._make_cache_key(key, submodel_type)
if key in self._cached_models:
return
size = calc_model_size_by_data(self.logger, model)
self.make_room(size)
running_on_cpu = self.execution_device == torch.device("cpu")
state_dict = model.state_dict() if isinstance(model, torch.nn.Module) and not running_on_cpu else None
cache_record = CacheRecord(key=key, model=model, device=self.storage_device, state_dict=state_dict, size=size)
self._cached_models[key] = cache_record
self._cache_stack.append(key)
def get(
self,
key: str,
submodel_type: Optional[SubModelType] = None,
stats_name: Optional[str] = None,
) -> ModelLockerBase:
"""
Retrieve model using key and optional submodel_type.
:param key: Opaque model key
:param submodel_type: Type of the submodel to fetch
:param stats_name: A human-readable id for the model for the purposes of
stats reporting.
This may raise an IndexError if the model is not in the cache.
"""
key = self._make_cache_key(key, submodel_type)
if key in self._cached_models:
if self.stats:
self.stats.hits += 1
else:
if self.stats:
self.stats.misses += 1
raise IndexError(f"The model with key {key} is not in the cache.")
cache_entry = self._cached_models[key]
# more stats
if self.stats:
stats_name = stats_name or key
self.stats.cache_size = int(self._max_cache_size * GB)
self.stats.high_watermark = max(self.stats.high_watermark, self.cache_size())
self.stats.in_cache = len(self._cached_models)
self.stats.loaded_model_sizes[stats_name] = max(
self.stats.loaded_model_sizes.get(stats_name, 0), cache_entry.size
)
# this moves the entry to the top (right end) of the stack
with suppress(Exception):
self._cache_stack.remove(key)
self._cache_stack.append(key)
return ModelLocker(
cache=self,
cache_entry=cache_entry,
)
def _capture_memory_snapshot(self) -> Optional[MemorySnapshot]:
if self._log_memory_usage:
return MemorySnapshot.capture()
return None
def _make_cache_key(self, model_key: str, submodel_type: Optional[SubModelType] = None) -> str:
if submodel_type:
return f"{model_key}:{submodel_type.value}"
else:
return model_key
def offload_unlocked_models(self, size_required: int) -> None:
"""Offload models from the execution_device to make room for size_required.
:param size_required: The amount of space to clear in the execution_device cache, in bytes.
"""
reserved = self._max_vram_cache_size * GB
vram_in_use = torch.cuda.memory_allocated() + size_required
self.logger.debug(f"{(vram_in_use/GB):.2f}GB VRAM needed for models; max allowed={(reserved/GB):.2f}GB")
for _, cache_entry in sorted(self._cached_models.items(), key=lambda x: x[1].size):
if vram_in_use <= reserved:
break
if not cache_entry.loaded:
continue
if not cache_entry.locked:
self.move_model_to_device(cache_entry, self.storage_device)
cache_entry.loaded = False
vram_in_use = torch.cuda.memory_allocated() + size_required
self.logger.debug(
f"Removing {cache_entry.key} from VRAM to free {(cache_entry.size/GB):.2f}GB; vram free = {(torch.cuda.memory_allocated()/GB):.2f}GB"
)
TorchDevice.empty_cache()
def move_model_to_device(self, cache_entry: CacheRecord[AnyModel], target_device: torch.device) -> None:
"""Move model into the indicated device.
:param cache_entry: The CacheRecord for the model
:param target_device: The torch.device to move the model into
May raise a torch.cuda.OutOfMemoryError
"""
self.logger.debug(f"Called to move {cache_entry.key} to {target_device}")
source_device = cache_entry.device
# Note: We compare device types only so that 'cuda' == 'cuda:0'.
# This would need to be revised to support multi-GPU.
if torch.device(source_device).type == torch.device(target_device).type:
return
# Some models don't have a `to` method, in which case they run in RAM/CPU.
if not hasattr(cache_entry.model, "to"):
return
# This roundabout method for moving the model around is done to avoid
# the cost of moving the model from RAM to VRAM and then back from VRAM to RAM.
# When moving to VRAM, we copy (not move) each element of the state dict from
# RAM to a new state dict in VRAM, and then inject it into the model.
# This operation is slightly faster than running `to()` on the whole model.
#
# When the model needs to be removed from VRAM we simply delete the copy
# of the state dict in VRAM, and reinject the state dict that is cached
# in RAM into the model. So this operation is very fast.
start_model_to_time = time.time()
snapshot_before = self._capture_memory_snapshot()
try:
if cache_entry.state_dict is not None:
assert hasattr(cache_entry.model, "load_state_dict")
if target_device == self.storage_device:
cache_entry.model.load_state_dict(cache_entry.state_dict, assign=True)
else:
new_dict: Dict[str, torch.Tensor] = {}
for k, v in cache_entry.state_dict.items():
new_dict[k] = v.to(target_device, copy=True)
cache_entry.model.load_state_dict(new_dict, assign=True)
cache_entry.model.to(target_device)
cache_entry.device = target_device
except Exception as e: # blow away cache entry
self._delete_cache_entry(cache_entry)
raise e
snapshot_after = self._capture_memory_snapshot()
end_model_to_time = time.time()
self.logger.debug(
f"Moved model '{cache_entry.key}' from {source_device} to"
f" {target_device} in {(end_model_to_time-start_model_to_time):.2f}s."
f"Estimated model size: {(cache_entry.size/GB):.3f} GB."
f"{get_pretty_snapshot_diff(snapshot_before, snapshot_after)}"
)
if (
snapshot_before is not None
and snapshot_after is not None
and snapshot_before.vram is not None
and snapshot_after.vram is not None
):
vram_change = abs(snapshot_before.vram - snapshot_after.vram)
# If the estimated model size does not match the change in VRAM, log a warning.
if not math.isclose(
vram_change,
cache_entry.size,
rel_tol=0.1,
abs_tol=10 * MB,
):
self.logger.debug(
f"Moving model '{cache_entry.key}' from {source_device} to"
f" {target_device} caused an unexpected change in VRAM usage. The model's"
" estimated size may be incorrect. Estimated model size:"
f" {(cache_entry.size/GB):.3f} GB.\n"
f"{get_pretty_snapshot_diff(snapshot_before, snapshot_after)}"
)
def print_cuda_stats(self) -> None:
"""Log CUDA diagnostics."""
vram = "%4.2fG" % (torch.cuda.memory_allocated() / GB)
ram = "%4.2fG" % (self.cache_size() / GB)
in_ram_models = 0
in_vram_models = 0
locked_in_vram_models = 0
for cache_record in self._cached_models.values():
if hasattr(cache_record.model, "device"):
if cache_record.model.device == self.storage_device:
in_ram_models += 1
else:
in_vram_models += 1
if cache_record.locked:
locked_in_vram_models += 1
self.logger.debug(
f"Current VRAM/RAM usage: {vram}/{ram}; models_in_ram/models_in_vram(locked) ="
f" {in_ram_models}/{in_vram_models}({locked_in_vram_models})"
)
def make_room(self, size: int) -> None:
"""Make enough room in the cache to accommodate a new model of indicated size.
Note: This function deletes all of the cache's internal references to a model in order to free it. If there are
external references to the model, there's nothing that the cache can do about it, and those models will not be
garbage-collected.
"""
bytes_needed = size
maximum_size = self.max_cache_size * GB # stored in GB, convert to bytes
current_size = self.cache_size()
if current_size + bytes_needed > maximum_size:
self.logger.debug(
f"Max cache size exceeded: {(current_size/GB):.2f}/{self.max_cache_size:.2f} GB, need an additional"
f" {(bytes_needed/GB):.2f} GB"
)
self.logger.debug(f"Before making_room: cached_models={len(self._cached_models)}")
pos = 0
models_cleared = 0
while current_size + bytes_needed > maximum_size and pos < len(self._cache_stack):
model_key = self._cache_stack[pos]
cache_entry = self._cached_models[model_key]
device = cache_entry.model.device if hasattr(cache_entry.model, "device") else None
self.logger.debug(
f"Model: {model_key}, locks: {cache_entry._locks}, device: {device}, loaded: {cache_entry.loaded}"
)
if not cache_entry.locked:
self.logger.debug(
f"Removing {model_key} from RAM cache to free at least {(size/GB):.2f} GB (-{(cache_entry.size/GB):.2f} GB)"
)
current_size -= cache_entry.size
models_cleared += 1
self._delete_cache_entry(cache_entry)
del cache_entry
else:
pos += 1
if models_cleared > 0:
# There would likely be some 'garbage' to be collected regardless of whether a model was cleared or not, but
# there is a significant time cost to calling `gc.collect()`, so we want to use it sparingly. (The time cost
# is high even if no garbage gets collected.)
#
# Calling gc.collect(...) when a model is cleared seems like a good middle-ground:
# - If models had to be cleared, it's a signal that we are close to our memory limit.
# - If models were cleared, there's a good chance that there's a significant amount of garbage to be
# collected.
#
# Keep in mind that gc is only responsible for handling reference cycles. Most objects should be cleaned up
# immediately when their reference count hits 0.
if self.stats:
self.stats.cleared = models_cleared
gc.collect()
TorchDevice.empty_cache()
self.logger.debug(f"After making room: cached_models={len(self._cached_models)}")
def _delete_cache_entry(self, cache_entry: CacheRecord[AnyModel]) -> None:
self._cache_stack.remove(cache_entry.key)
del self._cached_models[cache_entry.key]

View File

@@ -0,0 +1,64 @@
"""
Base class and implementation of a class that moves models in and out of VRAM.
"""
from typing import Dict, Optional
import torch
from invokeai.backend.model_manager import AnyModel
from invokeai.backend.model_manager.load.model_cache.model_cache_base import (
CacheRecord,
ModelCacheBase,
ModelLockerBase,
)
class ModelLocker(ModelLockerBase):
"""Internal class that mediates movement in and out of GPU."""
def __init__(self, cache: ModelCacheBase[AnyModel], cache_entry: CacheRecord[AnyModel]):
"""
Initialize the model locker.
:param cache: The ModelCache object
:param cache_entry: The entry in the model cache
"""
self._cache = cache
self._cache_entry = cache_entry
@property
def model(self) -> AnyModel:
"""Return the model without moving it around."""
return self._cache_entry.model
def get_state_dict(self) -> Optional[Dict[str, torch.Tensor]]:
"""Return the state dict (if any) for the cached model."""
return self._cache_entry.state_dict
def lock(self) -> AnyModel:
"""Move the model into the execution device (GPU) and lock it."""
self._cache_entry.lock()
try:
if self._cache.lazy_offloading:
self._cache.offload_unlocked_models(self._cache_entry.size)
self._cache.move_model_to_device(self._cache_entry, self._cache.execution_device)
self._cache_entry.loaded = True
self._cache.logger.debug(f"Locking {self._cache_entry.key} in {self._cache.execution_device}")
self._cache.print_cuda_stats()
except torch.cuda.OutOfMemoryError:
self._cache.logger.warning("Insufficient GPU memory to load model. Aborting")
self._cache_entry.unlock()
raise
except Exception:
self._cache_entry.unlock()
raise
return self.model
def unlock(self) -> None:
"""Call upon exit from context."""
self._cache_entry.unlock()
if not self._cache.lazy_offloading:
self._cache.offload_unlocked_models(0)
self._cache.print_cuda_stats()

View File

@@ -1,33 +0,0 @@
from typing import Any, Callable
import torch
from torch.overrides import TorchFunctionMode
def add_autocast_to_module_forward(m: torch.nn.Module, to_device: torch.device):
"""Monkey-patch m.forward(...) with a new forward(...) method that activates device autocasting for its duration."""
old_forward = m.forward
def new_forward(*args: Any, **kwargs: Any):
with TorchFunctionAutocastDeviceContext(to_device):
return old_forward(*args, **kwargs)
m.forward = new_forward
def _cast_to_device_and_run(
func: Callable[..., Any], args: tuple[Any, ...], kwargs: dict[str, Any], to_device: torch.device
):
args_on_device = [a.to(to_device) if isinstance(a, torch.Tensor) else a for a in args]
kwargs_on_device = {k: v.to(to_device) if isinstance(v, torch.Tensor) else v for k, v in kwargs.items()}
return func(*args_on_device, **kwargs_on_device)
class TorchFunctionAutocastDeviceContext(TorchFunctionMode):
def __init__(self, to_device: torch.device):
self._to_device = to_device
def __torch_function__(
self, func: Callable[..., Any], types, args: tuple[Any, ...] = (), kwargs: dict[str, Any] | None = None
):
return _cast_to_device_and_run(func, args, kwargs or {}, self._to_device)

View File

@@ -84,15 +84,7 @@ class FluxVAELoader(ModelLoader):
model = AutoEncoder(ae_params[config.config_path])
sd = load_file(model_path)
model.load_state_dict(sd, assign=True)
# VAE is broken in float16, which mps defaults to
if self._torch_dtype == torch.float16:
try:
vae_dtype = torch.tensor([1.0], dtype=torch.bfloat16, device=self._torch_device).dtype
except TypeError:
vae_dtype = torch.float32
else:
vae_dtype = self._torch_dtype
model.to(vae_dtype)
model.to(dtype=self._torch_dtype)
return model
@@ -136,9 +128,9 @@ class BnbQuantizedLlmInt8bCheckpointModel(ModelLoader):
"The bnb modules are not available. Please install bitsandbytes if available on your platform."
)
match submodel_type:
case SubModelType.Tokenizer2 | SubModelType.Tokenizer3:
case SubModelType.Tokenizer2:
return T5Tokenizer.from_pretrained(Path(config.path) / "tokenizer_2", max_length=512)
case SubModelType.TextEncoder2 | SubModelType.TextEncoder3:
case SubModelType.TextEncoder2:
te2_model_path = Path(config.path) / "text_encoder_2"
model_config = AutoConfig.from_pretrained(te2_model_path)
with accelerate.init_empty_weights():
@@ -180,9 +172,9 @@ class T5EncoderCheckpointModel(ModelLoader):
raise ValueError("Only T5EncoderConfig models are currently supported here.")
match submodel_type:
case SubModelType.Tokenizer2 | SubModelType.Tokenizer3:
case SubModelType.Tokenizer2:
return T5Tokenizer.from_pretrained(Path(config.path) / "tokenizer_2", max_length=512)
case SubModelType.TextEncoder2 | SubModelType.TextEncoder3:
case SubModelType.TextEncoder2:
return T5EncoderModel.from_pretrained(Path(config.path) / "text_encoder_2", torch_dtype="auto")
raise ValueError(

View File

@@ -26,7 +26,7 @@ from invokeai.backend.model_manager import (
SubModelType,
)
from invokeai.backend.model_manager.load.load_default import ModelLoader
from invokeai.backend.model_manager.load.model_cache.model_cache import ModelCache
from invokeai.backend.model_manager.load.model_cache.model_cache_base import ModelCacheBase
from invokeai.backend.model_manager.load.model_loader_registry import ModelLoaderRegistry
@@ -40,7 +40,7 @@ class LoRALoader(ModelLoader):
self,
app_config: InvokeAIAppConfig,
logger: Logger,
ram_cache: ModelCache,
ram_cache: ModelCacheBase[AnyModel],
):
"""Initialize the loader."""
super().__init__(app_config, logger, ram_cache)

View File

@@ -25,7 +25,6 @@ from invokeai.backend.model_manager.config import (
DiffusersConfigBase,
MainCheckpointConfig,
)
from invokeai.backend.model_manager.load.model_cache.model_cache import get_model_cache_key
from invokeai.backend.model_manager.load.model_loader_registry import ModelLoaderRegistry
from invokeai.backend.model_manager.load.model_loaders.generic_diffusers import GenericDiffusersLoader
from invokeai.backend.util.silence_warnings import SilenceWarnings
@@ -43,7 +42,6 @@ VARIANT_TO_IN_CHANNEL_MAP = {
@ModelLoaderRegistry.register(
base=BaseModelType.StableDiffusionXLRefiner, type=ModelType.Main, format=ModelFormat.Diffusers
)
@ModelLoaderRegistry.register(base=BaseModelType.StableDiffusion3, type=ModelType.Main, format=ModelFormat.Diffusers)
@ModelLoaderRegistry.register(base=BaseModelType.StableDiffusion1, type=ModelType.Main, format=ModelFormat.Checkpoint)
@ModelLoaderRegistry.register(base=BaseModelType.StableDiffusion2, type=ModelType.Main, format=ModelFormat.Checkpoint)
@ModelLoaderRegistry.register(base=BaseModelType.StableDiffusionXL, type=ModelType.Main, format=ModelFormat.Checkpoint)
@@ -53,6 +51,13 @@ VARIANT_TO_IN_CHANNEL_MAP = {
class StableDiffusionDiffusersModel(GenericDiffusersLoader):
"""Class to load main models."""
model_base_to_model_type = {
BaseModelType.StableDiffusion1: "FrozenCLIPEmbedder",
BaseModelType.StableDiffusion2: "FrozenOpenCLIPEmbedder",
BaseModelType.StableDiffusionXL: "SDXL",
BaseModelType.StableDiffusionXLRefiner: "SDXL-Refiner",
}
def _load_model(
self,
config: AnyModelConfig,
@@ -133,5 +138,5 @@ class StableDiffusionDiffusersModel(GenericDiffusersLoader):
if subtype == submodel_type:
continue
if submodel := getattr(pipeline, subtype.value, None):
self._ram_cache.put(get_model_cache_key(config.key, subtype), model=submodel)
self._ram_cache.put(config.key, submodel_type=subtype, model=submodel)
return getattr(pipeline, submodel_type.value)

View File

@@ -1,7 +1,7 @@
import json
import re
from pathlib import Path
from typing import Any, Callable, Dict, Literal, Optional, Union
from typing import Any, Dict, Literal, Optional, Union
import safetensors.torch
import spandrel
@@ -22,7 +22,6 @@ from invokeai.backend.lora.conversions.flux_kohya_lora_conversion_utils import i
from invokeai.backend.model_hash.model_hash import HASHING_ALGORITHMS, ModelHash
from invokeai.backend.model_manager.config import (
AnyModelConfig,
AnyVariant,
BaseModelType,
ControlAdapterDefaultSettings,
InvalidModelConfigException,
@@ -34,15 +33,8 @@ from invokeai.backend.model_manager.config import (
ModelType,
ModelVariantType,
SchedulerPredictionType,
SubmodelDefinition,
SubModelType,
)
from invokeai.backend.model_manager.load.model_loaders.generic_diffusers import ConfigLoader
from invokeai.backend.model_manager.util.model_util import (
get_clip_variant_type,
lora_token_vector_length,
read_checkpoint_meta,
)
from invokeai.backend.model_manager.util.model_util import lora_token_vector_length, read_checkpoint_meta
from invokeai.backend.quantization.gguf.ggml_tensor import GGMLTensor
from invokeai.backend.quantization.gguf.loaders import gguf_sd_loader
from invokeai.backend.spandrel_image_to_image_model import SpandrelImageToImageModel
@@ -120,7 +112,6 @@ class ModelProbe(object):
"StableDiffusionXLPipeline": ModelType.Main,
"StableDiffusionXLImg2ImgPipeline": ModelType.Main,
"StableDiffusionXLInpaintPipeline": ModelType.Main,
"StableDiffusion3Pipeline": ModelType.Main,
"LatentConsistencyModelPipeline": ModelType.Main,
"AutoencoderKL": ModelType.VAE,
"AutoencoderTiny": ModelType.VAE,
@@ -131,12 +122,8 @@ class ModelProbe(object):
"CLIPTextModel": ModelType.CLIPEmbed,
"T5EncoderModel": ModelType.T5Encoder,
"FluxControlNetModel": ModelType.ControlNet,
"SD3Transformer2DModel": ModelType.Main,
"CLIPTextModelWithProjection": ModelType.CLIPEmbed,
}
TYPE2VARIANT: Dict[ModelType, Callable[[str], Optional[AnyVariant]]] = {ModelType.CLIPEmbed: get_clip_variant_type}
@classmethod
def register_probe(
cls, format: Literal["diffusers", "checkpoint", "onnx"], model_type: ModelType, probe_class: type[ProbeBase]
@@ -183,10 +170,7 @@ class ModelProbe(object):
fields["path"] = model_path.as_posix()
fields["type"] = fields.get("type") or model_type
fields["base"] = fields.get("base") or probe.get_base_type()
variant_func = cls.TYPE2VARIANT.get(fields["type"], None)
fields["variant"] = (
fields.get("variant") or (variant_func and variant_func(model_path.as_posix())) or probe.get_variant_type()
)
fields["variant"] = fields.get("variant") or probe.get_variant_type()
fields["prediction_type"] = fields.get("prediction_type") or probe.get_scheduler_prediction_type()
fields["image_encoder_model_id"] = fields.get("image_encoder_model_id") or probe.get_image_encoder_model_id()
fields["name"] = fields.get("name") or cls.get_model_name(model_path)
@@ -233,10 +217,6 @@ class ModelProbe(object):
and fields["prediction_type"] == SchedulerPredictionType.VPrediction
)
get_submodels = getattr(probe, "get_submodels", None)
if fields["base"] == BaseModelType.StableDiffusion3 and callable(get_submodels):
fields["submodels"] = get_submodels()
model_info = ModelConfigFactory.make_config(fields) # , key=fields.get("key", None))
return model_info
@@ -469,7 +449,7 @@ class ModelProbe(object):
"""
# scan model
scan_result = scan_file_path(checkpoint)
if scan_result.infected_files != 0 or scan_result.scan_err:
if scan_result.infected_files != 0:
raise Exception("The model {model_name} is potentially infected by malware. Aborting import.")
@@ -485,7 +465,6 @@ MODEL_NAME_TO_PREPROCESSOR = {
"lineart anime": "lineart_anime_image_processor",
"lineart_anime": "lineart_anime_image_processor",
"lineart": "lineart_image_processor",
"soft": "hed_image_processor",
"softedge": "hed_image_processor",
"hed": "hed_image_processor",
"shuffle": "content_shuffle_image_processor",
@@ -768,33 +747,18 @@ class FolderProbeBase(ProbeBase):
class PipelineFolderProbe(FolderProbeBase):
def get_base_type(self) -> BaseModelType:
# Handle pipelines with a UNet (i.e SD 1.x, SD2, SDXL).
config_path = self.model_path / "unet" / "config.json"
if config_path.exists():
with open(config_path) as file:
unet_conf = json.load(file)
if unet_conf["cross_attention_dim"] == 768:
return BaseModelType.StableDiffusion1
elif unet_conf["cross_attention_dim"] == 1024:
return BaseModelType.StableDiffusion2
elif unet_conf["cross_attention_dim"] == 1280:
return BaseModelType.StableDiffusionXLRefiner
elif unet_conf["cross_attention_dim"] == 2048:
return BaseModelType.StableDiffusionXL
else:
raise InvalidModelConfigException(f"Unknown base model for {self.model_path}")
# Handle pipelines with a transformer (i.e. SD3).
config_path = self.model_path / "transformer" / "config.json"
if config_path.exists():
with open(config_path) as file:
transformer_conf = json.load(file)
if transformer_conf["_class_name"] == "SD3Transformer2DModel":
return BaseModelType.StableDiffusion3
else:
raise InvalidModelConfigException(f"Unknown base model for {self.model_path}")
raise InvalidModelConfigException(f"Unknown base model for {self.model_path}")
with open(self.model_path / "unet" / "config.json", "r") as file:
unet_conf = json.load(file)
if unet_conf["cross_attention_dim"] == 768:
return BaseModelType.StableDiffusion1
elif unet_conf["cross_attention_dim"] == 1024:
return BaseModelType.StableDiffusion2
elif unet_conf["cross_attention_dim"] == 1280:
return BaseModelType.StableDiffusionXLRefiner
elif unet_conf["cross_attention_dim"] == 2048:
return BaseModelType.StableDiffusionXL
else:
raise InvalidModelConfigException(f"Unknown base model for {self.model_path}")
def get_scheduler_prediction_type(self) -> SchedulerPredictionType:
with open(self.model_path / "scheduler" / "scheduler_config.json", "r") as file:
@@ -806,23 +770,6 @@ class PipelineFolderProbe(FolderProbeBase):
else:
raise InvalidModelConfigException("Unknown scheduler prediction type: {scheduler_conf['prediction_type']}")
def get_submodels(self) -> Dict[SubModelType, SubmodelDefinition]:
config = ConfigLoader.load_config(self.model_path, config_name="model_index.json")
submodels: Dict[SubModelType, SubmodelDefinition] = {}
for key, value in config.items():
if key.startswith("_") or not (isinstance(value, list) and len(value) == 2):
continue
model_loader = str(value[1])
if model_type := ModelProbe.CLASS2TYPE.get(model_loader):
variant_func = ModelProbe.TYPE2VARIANT.get(model_type, None)
submodels[SubModelType(key)] = SubmodelDefinition(
path_or_prefix=(self.model_path / key).resolve().as_posix(),
model_type=model_type,
variant=variant_func and variant_func((self.model_path / key).as_posix()),
)
return submodels
def get_variant_type(self) -> ModelVariantType:
# This only works for pipelines! Any kind of
# exception results in our returning the

View File

@@ -140,22 +140,6 @@ flux_dev = StarterModel(
type=ModelType.Main,
dependencies=[t5_base_encoder, flux_vae, clip_l_encoder],
)
sd35_medium = StarterModel(
name="SD3.5 Medium",
base=BaseModelType.StableDiffusion3,
source="stabilityai/stable-diffusion-3.5-medium",
description="Medium SD3.5 Model: ~15GB",
type=ModelType.Main,
dependencies=[],
)
sd35_large = StarterModel(
name="SD3.5 Large",
base=BaseModelType.StableDiffusion3,
source="stabilityai/stable-diffusion-3.5-large",
description="Large SD3.5 Model: ~19G",
type=ModelType.Main,
dependencies=[],
)
cyberrealistic_sd1 = StarterModel(
name="CyberRealistic v4.1",
base=BaseModelType.StableDiffusion1,
@@ -298,12 +282,13 @@ ip_adapter_sdxl = StarterModel(
previous_names=["IP Adapter SDXL"],
)
ip_adapter_flux = StarterModel(
name="Standard Reference (XLabs FLUX IP-Adapter v2)",
name="Standard Reference (XLabs FLUX IP-Adapter)",
base=BaseModelType.Flux,
source="https://huggingface.co/XLabs-AI/flux-ip-adapter-v2/resolve/main/ip_adapter.safetensors",
source="https://huggingface.co/XLabs-AI/flux-ip-adapter/resolve/main/flux-ip-adapter.safetensors",
description="References images with a more generalized/looser degree of precision.",
type=ModelType.IPAdapter,
dependencies=[clip_vit_l_image_encoder],
previous_names=["XLabs FLUX IP-Adapter"],
)
# endregion
# region ControlNet
@@ -585,8 +570,6 @@ STARTER_MODELS: list[StarterModel] = [
flux_dev_quantized,
flux_schnell,
flux_dev,
sd35_medium,
sd35_large,
cyberrealistic_sd1,
rev_animated_sd1,
dreamshaper_8_sd1,

View File

@@ -8,7 +8,6 @@ import safetensors
import torch
from picklescan.scanner import scan_file_path
from invokeai.backend.model_manager.config import ClipVariantType
from invokeai.backend.quantization.gguf.loaders import gguf_sd_loader
@@ -44,7 +43,7 @@ def _fast_safetensors_reader(path: str) -> Dict[str, torch.Tensor]:
return checkpoint
def read_checkpoint_meta(path: Union[str, Path], scan: bool = True) -> Dict[str, torch.Tensor]:
def read_checkpoint_meta(path: Union[str, Path], scan: bool = False) -> Dict[str, torch.Tensor]:
if str(path).endswith(".safetensors"):
try:
path_str = path.as_posix() if isinstance(path, Path) else path
@@ -55,7 +54,7 @@ def read_checkpoint_meta(path: Union[str, Path], scan: bool = True) -> Dict[str,
else:
if scan:
scan_result = scan_file_path(path)
if scan_result.infected_files != 0 or scan_result.scan_err:
if scan_result.infected_files != 0:
raise Exception(f'The model file "{path}" is potentially infected by malware. Aborting import.')
if str(path).endswith(".gguf"):
# The GGUF reader used here uses numpy memmap, so these tensors are not loaded into memory during this function
@@ -166,25 +165,3 @@ def convert_bundle_to_flux_transformer_checkpoint(
del transformer_state_dict[k]
return original_state_dict
def get_clip_variant_type(location: str) -> Optional[ClipVariantType]:
try:
path = Path(location)
config_path = path / "config.json"
if not config_path.exists():
config_path = path / "text_encoder" / "config.json"
if not config_path.exists():
return ClipVariantType.L
with open(config_path) as file:
clip_conf = json.load(file)
hidden_size = clip_conf.get("hidden_size", -1)
match hidden_size:
case 1280:
return ClipVariantType.G
case 768:
return ClipVariantType.L
case _:
return ClipVariantType.L
except Exception:
return ClipVariantType.L

View File

@@ -85,7 +85,6 @@ def _filter_by_variant(files: List[Path], variant: ModelRepoVariant) -> Set[Path
"""Select the proper variant files from a list of HuggingFace repo_id paths."""
result: set[Path] = set()
subfolder_weights: dict[Path, list[SubfolderCandidate]] = {}
safetensors_detected = False
for path in files:
if path.suffix in [".onnx", ".pb", ".onnx_data"]:
if variant == ModelRepoVariant.ONNX:
@@ -120,27 +119,19 @@ def _filter_by_variant(files: List[Path], variant: ModelRepoVariant) -> Set[Path
# We prefer safetensors over other file formats and an exact variant match. We'll score each file based on
# variant and format and select the best one.
if safetensors_detected and path.suffix == ".bin":
continue
parent = path.parent
score = 0
if path.suffix == ".safetensors":
safetensors_detected = True
if parent in subfolder_weights:
subfolder_weights[parent] = [sfc for sfc in subfolder_weights[parent] if sfc.path.suffix != ".bin"]
score += 1
candidate_variant_label = path.suffixes[0] if len(path.suffixes) == 2 else None
# Some special handling is needed here if there is not an exact match and if we cannot infer the variant
# from the file name. In this case, we only give this file a point if the requested variant is FP32 or DEFAULT.
if (
variant is not ModelRepoVariant.Default
and candidate_variant_label
and candidate_variant_label.startswith(f".{variant.value}")
) or (not candidate_variant_label and variant in [ModelRepoVariant.FP32, ModelRepoVariant.Default]):
if candidate_variant_label == f".{variant}" or (
not candidate_variant_label and variant in [ModelRepoVariant.FP32, ModelRepoVariant.Default]
):
score += 1
if parent not in subfolder_weights:
@@ -155,7 +146,7 @@ def _filter_by_variant(files: List[Path], variant: ModelRepoVariant) -> Set[Path
# Check if at least one of the files has the explicit fp16 variant.
at_least_one_fp16 = False
for candidate in candidate_list:
if len(candidate.path.suffixes) == 2 and candidate.path.suffixes[0].startswith(".fp16"):
if len(candidate.path.suffixes) == 2 and candidate.path.suffixes[0] == ".fp16":
at_least_one_fp16 = True
break
@@ -171,16 +162,7 @@ def _filter_by_variant(files: List[Path], variant: ModelRepoVariant) -> Set[Path
# candidate.
highest_score_candidate = max(candidate_list, key=lambda candidate: candidate.score)
if highest_score_candidate:
pattern = r"^(.*?)-\d+-of-\d+(\.\w+)$"
match = re.match(pattern, highest_score_candidate.path.as_posix())
if match:
for candidate in candidate_list:
if candidate.path.as_posix().startswith(match.group(1)) and candidate.path.as_posix().endswith(
match.group(2)
):
result.add(candidate.path)
else:
result.add(highest_score_candidate.path)
result.add(highest_score_candidate.path)
# If one of the architecture-related variants was specified and no files matched other than
# config and text files then we return an empty list

View File

@@ -1,58 +0,0 @@
import torch
class InpaintExtension:
"""A class for managing inpainting with SD3."""
def __init__(self, init_latents: torch.Tensor, inpaint_mask: torch.Tensor, noise: torch.Tensor):
"""Initialize InpaintExtension.
Args:
init_latents (torch.Tensor): The initial latents (i.e. un-noised at timestep 0).
inpaint_mask (torch.Tensor): A mask specifying which elements to inpaint. Range [0, 1]. Values of 1 will be
re-generated. Values of 0 will remain unchanged. Values between 0 and 1 can be used to blend the
inpainted region with the background.
noise (torch.Tensor): The noise tensor used to noise the init_latents.
"""
assert init_latents.dim() == inpaint_mask.dim() == noise.dim() == 4
assert init_latents.shape[-2:] == inpaint_mask.shape[-2:] == noise.shape[-2:]
self._init_latents = init_latents
self._inpaint_mask = inpaint_mask
self._noise = noise
def _apply_mask_gradient_adjustment(self, t_prev: float) -> torch.Tensor:
"""Applies inpaint mask gradient adjustment and returns the inpaint mask to be used at the current timestep."""
# As we progress through the denoising process, we promote gradient regions of the mask to have a full weight of
# 1.0. This helps to produce more coherent seams around the inpainted region. We experimented with a (small)
# number of promotion strategies (e.g. gradual promotion based on timestep), but found that a simple cutoff
# threshold worked well.
# We use a small epsilon to avoid any potential issues with floating point precision.
eps = 1e-4
mask_gradient_t_cutoff = 0.5
if t_prev > mask_gradient_t_cutoff:
# Early in the denoising process, use the inpaint mask as-is.
return self._inpaint_mask
else:
# After the cut-off, promote all non-zero mask values to 1.0.
mask = self._inpaint_mask.where(self._inpaint_mask <= (0.0 + eps), 1.0)
return mask
def merge_intermediate_latents_with_init_latents(
self, intermediate_latents: torch.Tensor, t_prev: float
) -> torch.Tensor:
"""Merge the intermediate latents with the initial latents for the current timestep using the inpaint mask. I.e.
update the intermediate latents to keep the regions that are not being inpainted on the correct noise
trajectory.
This function should be called after each denoising step.
"""
mask = self._apply_mask_gradient_adjustment(t_prev)
# Noise the init latents for the current timestep.
noised_init_latents = self._noise * t_prev + (1.0 - t_prev) * self._init_latents
# Merge the intermediate latents with the noised_init_latents using the inpaint_mask.
return intermediate_latents * mask + noised_init_latents * (1.0 - mask)

View File

@@ -499,22 +499,6 @@ class StableDiffusionGeneratorPipeline(StableDiffusionPipeline):
for idx, value in enumerate(single_t2i_adapter_data.adapter_state):
accum_adapter_state[idx] += value * t2i_adapter_weight
# Hack: force compatibility with irregular resolutions by padding the feature map with zeros
for idx, tensor in enumerate(accum_adapter_state):
# The tensor size is supposed to be some integer downscale factor of the latents size.
# Internally, the unet will pad the latents before downscaling between levels when it is no longer divisible by its downscale factor.
# If the latent size does not scale down evenly, we need to pad the tensor so that it matches the the downscaled padded latents later on.
scale_factor = latents.size()[-1] // tensor.size()[-1]
required_padding_width = math.ceil(latents.size()[-1] / scale_factor) - tensor.size()[-1]
required_padding_height = math.ceil(latents.size()[-2] / scale_factor) - tensor.size()[-2]
tensor = torch.nn.functional.pad(
tensor,
(0, required_padding_width, 0, required_padding_height, 0, 0, 0, 0),
mode="constant",
value=0,
)
accum_adapter_state[idx] = tensor
down_intrablock_additional_residuals = accum_adapter_state
# Handle inpainting models.

View File

@@ -49,32 +49,9 @@ class FLUXConditioningInfo:
return self
@dataclass
class SD3ConditioningInfo:
clip_l_pooled_embeds: torch.Tensor
clip_l_embeds: torch.Tensor
clip_g_pooled_embeds: torch.Tensor
clip_g_embeds: torch.Tensor
t5_embeds: torch.Tensor | None
def to(self, device: torch.device | None = None, dtype: torch.dtype | None = None):
self.clip_l_pooled_embeds = self.clip_l_pooled_embeds.to(device=device, dtype=dtype)
self.clip_l_embeds = self.clip_l_embeds.to(device=device, dtype=dtype)
self.clip_g_pooled_embeds = self.clip_g_pooled_embeds.to(device=device, dtype=dtype)
self.clip_g_embeds = self.clip_g_embeds.to(device=device, dtype=dtype)
if self.t5_embeds is not None:
self.t5_embeds = self.t5_embeds.to(device=device, dtype=dtype)
return self
@dataclass
class ConditioningFieldData:
conditionings: (
List[BasicConditioningInfo]
| List[SDXLConditioningInfo]
| List[FLUXConditioningInfo]
| List[SD3ConditioningInfo]
)
conditionings: List[BasicConditioningInfo] | List[SDXLConditioningInfo] | List[FLUXConditioningInfo]
@dataclass

View File

@@ -1,12 +0,0 @@
import logging
from typing import Any, MutableMapping
# Issue with type hints related to LoggerAdapter: https://github.com/python/typeshed/issues/7855
class PrefixedLoggerAdapter(logging.LoggerAdapter): # type: ignore
def __init__(self, logger: logging.Logger, prefix: str):
super().__init__(logger, {})
self.prefix = prefix
def process(self, msg: str, kwargs: MutableMapping[str, Any]) -> tuple[str, MutableMapping[str, Any]]:
return f"[{self.prefix}] {msg}", kwargs

View File

@@ -9,7 +9,6 @@ const config: KnipConfig = {
'src/services/api/schema.ts',
'src/features/nodes/types/v1/**',
'src/features/nodes/types/v2/**',
'src/features/parameters/types/parameterSchemas.ts',
// TODO(psyche): maybe we can clean up these utils after canvas v2 release
'src/features/controlLayers/konva/util.ts',
// TODO(psyche): restore HRF functionality?

View File

@@ -52,13 +52,13 @@
}
},
"dependencies": {
"@atlaskit/pragmatic-drag-and-drop": "^1.4.0",
"@atlaskit/pragmatic-drag-and-drop-auto-scroll": "^1.4.0",
"@atlaskit/pragmatic-drag-and-drop-hitbox": "^1.0.3",
"@dagrejs/dagre": "^1.1.4",
"@dagrejs/graphlib": "^2.2.4",
"@dnd-kit/core": "^6.1.0",
"@dnd-kit/sortable": "^8.0.0",
"@dnd-kit/utilities": "^3.2.2",
"@fontsource-variable/inter": "^5.1.0",
"@invoke-ai/ui-library": "^0.0.44",
"@invoke-ai/ui-library": "^0.0.43",
"@nanostores/react": "^0.7.3",
"@reduxjs/toolkit": "2.2.3",
"@roarr/browser-log-writer": "^1.3.0",

View File

@@ -5,27 +5,27 @@ settings:
excludeLinksFromLockfile: false
dependencies:
'@atlaskit/pragmatic-drag-and-drop':
specifier: ^1.4.0
version: 1.4.0
'@atlaskit/pragmatic-drag-and-drop-auto-scroll':
specifier: ^1.4.0
version: 1.4.0
'@atlaskit/pragmatic-drag-and-drop-hitbox':
specifier: ^1.0.3
version: 1.0.3
'@dagrejs/dagre':
specifier: ^1.1.4
version: 1.1.4
'@dagrejs/graphlib':
specifier: ^2.2.4
version: 2.2.4
'@dnd-kit/core':
specifier: ^6.1.0
version: 6.1.0(react-dom@18.3.1)(react@18.3.1)
'@dnd-kit/sortable':
specifier: ^8.0.0
version: 8.0.0(@dnd-kit/core@6.1.0)(react@18.3.1)
'@dnd-kit/utilities':
specifier: ^3.2.2
version: 3.2.2(react@18.3.1)
'@fontsource-variable/inter':
specifier: ^5.1.0
version: 5.1.0
'@invoke-ai/ui-library':
specifier: ^0.0.44
version: 0.0.44(@chakra-ui/form-control@2.2.0)(@chakra-ui/icon@3.2.0)(@chakra-ui/media-query@3.3.0)(@chakra-ui/menu@2.2.1)(@chakra-ui/spinner@2.1.0)(@chakra-ui/system@2.6.2)(@fontsource-variable/inter@5.1.0)(@types/react@18.3.11)(i18next@23.15.1)(react-dom@18.3.1)(react@18.3.1)
specifier: ^0.0.43
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@@ -95,10 +95,7 @@
"none": "Keine",
"new": "Neu",
"ok": "OK",
"close": "Schließen",
"clipboard": "Zwischenablage",
"generating": "Generieren",
"loadingModel": "Lade Modell"
"close": "Schließen"
},
"gallery": {
"galleryImageSize": "Bildgröße",
@@ -538,12 +535,14 @@
"addModels": "Model hinzufügen",
"deleteModelImage": "Lösche Model Bild",
"huggingFaceRepoID": "HuggingFace Repo ID",
"hfToken": "HuggingFace Schlüssel",
"huggingFacePlaceholder": "besitzer/model-name",
"modelSettings": "Modelleinstellungen",
"typePhraseHere": "Phrase hier eingeben",
"spandrelImageToImage": "Bild zu Bild (Spandrel)",
"starterModels": "Einstiegsmodelle",
"t5Encoder": "T5-Kodierer",
"useDefaultSettings": "Standardeinstellungen verwenden",
"uploadImage": "Bild hochladen",
"urlOrLocalPath": "URL oder lokaler Pfad",
"install": "Installieren",
@@ -593,15 +592,7 @@
"loraTriggerPhrases": "LoRA-Auslösephrasen",
"installingBundle": "Bündel wird installiert",
"triggerPhrases": "Auslösephrasen",
"mainModelTriggerPhrases": "Hauptmodell-Auslösephrasen",
"noDefaultSettings": "Für dieses Modell sind keine Standardeinstellungen konfiguriert. Besuchen Sie den Modell-Manager, um Standardeinstellungen hinzuzufügen.",
"defaultSettingsOutOfSync": "Einige Einstellungen stimmen nicht mit den Standardeinstellungen des Modells überein:",
"clipLEmbed": "CLIP-L einbetten",
"clipGEmbed": "CLIP-G einbetten",
"hfTokenLabel": "HuggingFace-Token (für einige Modelle erforderlich)",
"hfTokenHelperText": "Für die Nutzung einiger Modelle ist ein HF-Token erforderlich. Klicken Sie hier, um Ihr Token zu erstellen oder zu erhalten.",
"hfForbidden": "Sie haben keinen Zugriff auf dieses HF-Modell",
"hfTokenInvalid": "Ungültiges oder fehlendes HF-Token"
"mainModelTriggerPhrases": "Hauptmodell-Auslösephrasen"
},
"parameters": {
"images": "Bilder",
@@ -687,41 +678,10 @@
"toast": {
"uploadFailed": "Hochladen fehlgeschlagen",
"imageCopied": "Bild kopiert",
"parametersNotSet": "Parameter nicht zurückgerufen",
"parametersNotSet": "Parameter nicht festgelegt",
"addedToBoard": "Dem Board hinzugefügt",
"loadedWithWarnings": "Workflow mit Warnungen geladen",
"imageSaved": "Bild gespeichert",
"linkCopied": "Link kopiert",
"problemCopyingLayer": "Ebene kann nicht kopiert werden",
"problemSavingLayer": "Ebene kann nicht gespeichert werden",
"parameterSetDesc": "{{parameter}} zurückgerufen",
"imageUploaded": "Bild hochgeladen",
"problemCopyingImage": "Bild kann nicht kopiert werden",
"parameterNotSetDesc": "{{parameter}} kann nicht zurückgerufen werden",
"prunedQueue": "Warteschlange bereinigt",
"modelAddedSimple": "Modell zur Warteschlange hinzugefügt",
"parametersSet": "Parameter zurückgerufen",
"imageNotLoadedDesc": "Bild konnte nicht gefunden werden",
"setControlImage": "Als Kontrollbild festlegen",
"sentToUpscale": "An Vergrößerung gesendet",
"parameterNotSetDescWithMessage": "{{parameter}} kann nicht zurückgerufen werden: {{message}}",
"unableToLoadImageMetadata": "Bildmetadaten können nicht geladen werden",
"unableToLoadImage": "Bild kann nicht geladen werden",
"serverError": "Serverfehler",
"parameterNotSet": "Parameter nicht zurückgerufen",
"sessionRef": "Sitzung: {{sessionId}}",
"problemDownloadingImage": "Bild kann nicht heruntergeladen werden",
"parameters": "Parameter",
"parameterSet": "Parameter zurückgerufen",
"importFailed": "Import fehlgeschlagen",
"importSuccessful": "Import erfolgreich",
"setNodeField": "Als Knotenfeld festlegen",
"somethingWentWrong": "Etwas ist schief gelaufen",
"workflowLoaded": "Arbeitsablauf geladen",
"workflowDeleted": "Arbeitsablauf gelöscht",
"errorCopied": "Fehler kopiert",
"layerCopiedToClipboard": "Ebene in die Zwischenablage kopiert",
"sentToCanvas": "An Leinwand gesendet"
"imageSaved": "Bild gespeichert"
},
"accessibility": {
"uploadImage": "Bild hochladen",
@@ -778,8 +738,7 @@
"deletedPrivateBoardsCannotbeRestored": "Gelöschte Boards können nicht wiederhergestellt werden. Wenn Sie „Nur Board löschen“ wählen, werden die Bilder in einen privaten, nicht kategorisierten Status für den Ersteller des Bildes versetzt.",
"assetsWithCount_one": "{{count}} in der Sammlung",
"assetsWithCount_other": "{{count}} in der Sammlung",
"deletedBoardsCannotbeRestored": "Gelöschte Ordner können nicht wiederhergestellt werden. Die Auswahl von \"Nur Ordner löschen\" verschiebt Bilder in einen unkategorisierten Zustand.",
"updateBoardError": "Fehler beim Aktualisieren des Ordners"
"deletedBoardsCannotbeRestored": "Gelöschte Ordner können nicht wiederhergestellt werden. Die Auswahl von \"Nur Ordner löschen\" verschiebt Bilder in einen unkategorisierten Zustand."
},
"queue": {
"status": "Status",
@@ -851,8 +810,7 @@
"upscaling": "Hochskalierung",
"canvas": "Leinwand",
"prompts_one": "Prompt",
"prompts_other": "Prompts",
"batchSize": "Stapelgröße"
"prompts_other": "Prompts"
},
"metadata": {
"negativePrompt": "Negativ Beschreibung",
@@ -867,6 +825,7 @@
"width": "Breite",
"createdBy": "Erstellt von",
"steps": "Schritte",
"seamless": "Nahtlos",
"positivePrompt": "Positiver Prompt",
"generationMode": "Generierungsmodus",
"Threshold": "Rauschen-Schwelle",
@@ -883,9 +842,7 @@
"recallParameter": "{{label}} Abrufen",
"parsingFailed": "Parsing Fehlgeschlagen",
"canvasV2Metadata": "Leinwand",
"guidance": "Führung",
"seamlessXAxis": "Nahtlose X Achse",
"seamlessYAxis": "Nahtlose Y Achse"
"guidance": "Führung"
},
"popovers": {
"noiseUseCPU": {
@@ -1092,21 +1049,6 @@
},
"patchmatchDownScaleSize": {
"heading": "Herunterskalieren"
},
"paramHeight": {
"heading": "Höhe",
"paragraphs": [
"Höhe des generierten Bildes. Muss ein Vielfaches von 8 sein."
]
},
"paramUpscaleMethod": {
"heading": "Vergrößerungsmethode",
"paragraphs": [
"Methode zum Hochskalieren des Bildes für High Resolution Fix."
]
},
"paramHrf": {
"heading": "High Resolution Fix aktivieren"
}
},
"invocationCache": {
@@ -1228,19 +1170,7 @@
"workflowVersion": "Version",
"saveToGallery": "In Galerie speichern",
"noWorkflows": "Keine Arbeitsabläufe",
"noMatchingWorkflows": "Keine passenden Arbeitsabläufe",
"unknownErrorValidatingWorkflow": "Unbekannter Fehler beim Validieren des Arbeitsablaufes",
"inputFieldTypeParseError": "Typ des Eingabefelds {{node}}.{{field}} kann nicht analysiert werden ({{message}})",
"workflowSettings": "Arbeitsablauf Editor Einstellungen",
"unableToLoadWorkflow": "Arbeitsablauf kann nicht geladen werden",
"viewMode": "In linearen Ansicht verwenden",
"unableToValidateWorkflow": "Arbeitsablauf kann nicht validiert werden",
"outputFieldTypeParseError": "Typ des Ausgabefelds {{node}}.{{field}} kann nicht analysiert werden ({{message}})",
"unableToGetWorkflowVersion": "Version des Arbeitsablaufschemas kann nicht bestimmt werden",
"unknownFieldType": "$t(nodes.unknownField) Typ: {{type}}",
"unknownField": "Unbekanntes Feld",
"unableToUpdateNodes_one": "{{count}} Knoten kann nicht aktualisiert werden",
"unableToUpdateNodes_other": "{{count}} Knoten können nicht aktualisiert werden"
"noMatchingWorkflows": "Keine passenden Arbeitsabläufe"
},
"hrf": {
"enableHrf": "Korrektur für hohe Auflösungen",
@@ -1370,7 +1300,15 @@
"enableLogging": "Protokollierung aktivieren"
},
"whatsNew": {
"whatsNewInInvoke": "Was gibt's Neues"
"whatsNewInInvoke": "Was gibt's Neues",
"canvasV2Announcement": {
"fluxSupport": "Unterstützung für Flux-Modelle",
"newCanvas": "Eine leistungsstarke neue Kontrollfläche",
"newLayerTypes": "Neue Ebenentypen für noch mehr Kontrolle",
"readReleaseNotes": "Anmerkungen zu dieser Version lesen",
"watchReleaseVideo": "Video über diese Version anzeigen",
"watchUiUpdatesOverview": "Interface-Updates Übersicht"
}
},
"stylePresets": {
"name": "Name",
@@ -1421,13 +1359,7 @@
"pullBboxIntoLayerOk": "Bbox in die Ebene gezogen",
"saveBboxToGallery": "Bbox in Galerie speichern",
"tool": {
"bbox": "Bbox",
"brush": "Pinsel",
"eraser": "Radiergummi",
"colorPicker": "Farbwähler",
"view": "Ansicht",
"rectangle": "Rechteck",
"move": "Verschieben"
"bbox": "Bbox"
},
"transform": {
"fitToBbox": "An Bbox anpassen",
@@ -1469,6 +1401,7 @@
"deleteReferenceImage": "Referenzbild löschen",
"referenceImage": "Referenzbild",
"opacity": "Opazität",
"resetCanvas": "Leinwand zurücksetzen",
"removeBookmark": "Lesezeichen entfernen",
"rasterLayer": "Raster-Ebene",
"rasterLayers_withCount_visible": "Raster-Ebenen ({{count}})",
@@ -1545,30 +1478,7 @@
"layer_one": "Ebene",
"layer_other": "Ebenen",
"layer_withCount_one": "Ebene ({{count}})",
"layer_withCount_other": "Ebenen ({{count}})",
"fill": {
"fillStyle": "Füllstil",
"diagonal": "Diagonal",
"vertical": "Vertikal",
"fillColor": "Füllfarbe",
"grid": "Raster",
"solid": "Solide",
"crosshatch": "Kreuzschraffur",
"horizontal": "Horizontal"
},
"filter": {
"apply": "Anwenden",
"reset": "Zurücksetzen",
"cancel": "Abbrechen",
"spandrel_filter": {
"label": "Bild-zu-Bild Modell",
"description": "Ein Bild-zu-Bild Modell auf der ausgewählten Ebene ausführen.",
"model": "Modell"
},
"filters": "Filter",
"filterType": "Filtertyp",
"filter": "Filter"
}
"layer_withCount_other": "Ebenen ({{count}})"
},
"upsell": {
"shareAccess": "Zugang teilen",

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