docs: use consistent style for comment blocks

prefix comment blocks with ///
This commit is contained in:
youben11
2022-07-07 08:29:08 +01:00
committed by Ayoub Benaissa
parent 2cfccd8f89
commit f4166a4973
45 changed files with 1073 additions and 1083 deletions

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@@ -17,13 +17,13 @@
extern "C" {
#endif
// C wrapper of the mlir::concretelang::LambdaArgument
/// C wrapper of the mlir::concretelang::LambdaArgument
struct lambdaArgument {
std::shared_ptr<mlir::concretelang::LambdaArgument> ptr;
};
typedef struct lambdaArgument lambdaArgument;
// Hold a list of lambdaArgument to represent execution arguments
/// Hold a list of lambdaArgument to represent execution arguments
struct executionArguments {
lambdaArgument *data;
size_t size;
@@ -136,13 +136,13 @@ evaluationKeysUnserialize(const std::string &buffer);
MLIR_CAPI_EXPORTED std::string evaluationKeysSerialize(
concretelang::clientlib::EvaluationKeys &evaluationKeys);
// Parse then print a textual representation of an MLIR module
/// Parse then print a textual representation of an MLIR module
MLIR_CAPI_EXPORTED std::string roundTrip(const char *module);
// Terminate parallelization
/// Terminate parallelization
MLIR_CAPI_EXPORTED void terminateParallelization();
// Create a lambdaArgument from a tensor of different data types
/// Create a lambdaArgument from a tensor of different data types
MLIR_CAPI_EXPORTED lambdaArgument lambdaArgumentFromTensorU8(
std::vector<uint8_t> data, std::vector<int64_t> dimensions);
MLIR_CAPI_EXPORTED lambdaArgument lambdaArgumentFromTensorU16(
@@ -151,22 +151,22 @@ MLIR_CAPI_EXPORTED lambdaArgument lambdaArgumentFromTensorU32(
std::vector<uint32_t> data, std::vector<int64_t> dimensions);
MLIR_CAPI_EXPORTED lambdaArgument lambdaArgumentFromTensorU64(
std::vector<uint64_t> data, std::vector<int64_t> dimensions);
// Create a lambdaArgument from a scalar
/// Create a lambdaArgument from a scalar
MLIR_CAPI_EXPORTED lambdaArgument lambdaArgumentFromScalar(uint64_t scalar);
// Check if a lambdaArgument holds a tensor
/// Check if a lambdaArgument holds a tensor
MLIR_CAPI_EXPORTED bool lambdaArgumentIsTensor(lambdaArgument &lambda_arg);
// Get tensor data from lambdaArgument
/// Get tensor data from lambdaArgument
MLIR_CAPI_EXPORTED std::vector<uint64_t>
lambdaArgumentGetTensorData(lambdaArgument &lambda_arg);
// Get tensor dimensions from lambdaArgument
/// Get tensor dimensions from lambdaArgument
MLIR_CAPI_EXPORTED std::vector<int64_t>
lambdaArgumentGetTensorDimensions(lambdaArgument &lambda_arg);
// Check if a lambdaArgument holds a scalar
/// Check if a lambdaArgument holds a scalar
MLIR_CAPI_EXPORTED bool lambdaArgumentIsScalar(lambdaArgument &lambda_arg);
// Get scalar value from lambdaArgument
/// Get scalar value from lambdaArgument
MLIR_CAPI_EXPORTED uint64_t lambdaArgumentGetScalar(lambdaArgument &lambda_arg);
// Compile the textual representation of MLIR modules to a library.
/// Compile the textual representation of MLIR modules to a library.
MLIR_CAPI_EXPORTED std::string library(std::string libraryPath,
std::vector<std::string> modules);

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@@ -29,8 +29,8 @@ using tensor1_out = std::vector<scalar_out>;
using tensor2_out = std::vector<std::vector<scalar_out>>;
using tensor3_out = std::vector<std::vector<std::vector<scalar_out>>>;
/// Low-level class to create the client side view of a FHE function.
class ClientLambda {
/// Low-level class to create the client side view of a FHE function.
public:
virtual ~ClientLambda() = default;

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@@ -104,11 +104,11 @@ static inline bool operator==(const EncryptionGate &lhs,
}
struct CircuitGateShape {
// Width of the scalar value
/// Width of the scalar value
size_t width;
// Dimensions of the tensor, empty if scalar
/// Dimensions of the tensor, empty if scalar
std::vector<int64_t> dimensions;
// Size of the buffer containing the tensor
/// Size of the buffer containing the tensor
size_t size;
};
static inline bool operator==(const CircuitGateShape &lhs,

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@@ -23,11 +23,11 @@ using concretelang::error::StringError;
class PublicArguments;
/// Temporary object used to hold and encrypt parameters before calling a
/// ClientLambda. Use preferably TypeClientLambda and serializeCall(Args...).
/// Otherwise convert it to a PublicArguments and use
/// serializeCall(PublicArguments, KeySet).
class EncryptedArguments {
/// Temporary object used to hold and encrypt parameters before calling a
/// ClientLambda. Use preferably TypeClientLambda and serializeCall(Args...).
/// Otherwise convert it to a PublicArguments and use
/// serializeCall(PublicArguments, KeySet).
public:
EncryptedArguments() : currentPos(0) {}
@@ -64,18 +64,18 @@ public:
RuntimeContext runtimeContext);
/// Check that all arguments as been pushed.
/// TODO: Remove public method here
// TODO: Remove public method here
outcome::checked<void, StringError> checkAllArgs(KeySet &keySet);
public:
// Add a uint64_t scalar argument.
/// Add a uint64_t scalar argument.
outcome::checked<void, StringError> pushArg(uint64_t arg, KeySet &keySet);
/// Add a vector-tensor argument.
outcome::checked<void, StringError> pushArg(std::vector<uint8_t> arg,
KeySet &keySet);
// Add a 1D tensor argument with data and size of the dimension.
/// Add a 1D tensor argument with data and size of the dimension.
template <typename T>
outcome::checked<void, StringError> pushArg(const T *data, int64_t dim1,
KeySet &keySet) {
@@ -114,14 +114,14 @@ public:
// Generalize by computing shape by template recursion
// Set a argument at the given pos as a 1D tensor of T.
/// Set a argument at the given pos as a 1D tensor of T.
template <typename T>
outcome::checked<void, StringError> pushArg(T *data, int64_t dim1,
KeySet &keySet) {
return pushArg<T>(data, llvm::ArrayRef<int64_t>(&dim1, 1), keySet);
}
// Set a argument at the given pos as a tensor of T.
/// Set a argument at the given pos as a tensor of T.
template <typename T>
outcome::checked<void, StringError>
pushArg(T *data, llvm::ArrayRef<int64_t> shape, KeySet &keySet) {
@@ -133,8 +133,8 @@ public:
llvm::ArrayRef<int64_t> shape,
KeySet &keySet);
// Recursive case for scalars: extract first scalar argument from
// parameter pack and forward rest
/// Recursive case for scalars: extract first scalar argument from
/// parameter pack and forward rest
template <typename Arg0, typename... OtherArgs>
outcome::checked<void, StringError> pushArgs(KeySet &keySet, Arg0 arg0,
OtherArgs... others) {
@@ -142,8 +142,8 @@ public:
return pushArgs(keySet, others...);
}
// Recursive case for tensors: extract pointer and size from
// parameter pack and forward rest
/// Recursive case for tensors: extract pointer and size from
/// parameter pack and forward rest
template <typename Arg0, typename... OtherArgs>
outcome::checked<void, StringError>
pushArgs(KeySet &keySet, Arg0 *arg0, size_t size, OtherArgs... others) {
@@ -151,7 +151,7 @@ public:
return pushArgs(keySet, others...);
}
// Terminal case of pushArgs
/// Terminal case of pushArgs
outcome::checked<void, StringError> pushArgs(KeySet &keySet) {
return checkAllArgs(keySet);
}
@@ -160,11 +160,11 @@ private:
outcome::checked<void, StringError> checkPushTooManyArgs(KeySet &keySet);
private:
// Position of the next pushed argument
/// Position of the next pushed argument
size_t currentPos;
std::vector<void *> preparedArgs;
// Store buffers of ciphertexts
/// Store buffers of ciphertexts
std::vector<TensorData> ciphertextBuffers;
};

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@@ -32,43 +32,43 @@ public:
~KeySet();
KeySet(KeySet &other) = delete;
// allocate a KeySet according the ClientParameters.
/// allocate a KeySet according the ClientParameters.
static outcome::checked<std::unique_ptr<KeySet>, StringError>
generate(ClientParameters &params, uint64_t seed_msb, uint64_t seed_lsb);
// isInputEncrypted return true if the input at the given pos is encrypted.
/// isInputEncrypted return true if the input at the given pos is encrypted.
bool isInputEncrypted(size_t pos);
// getInputLweSecretKeyParam returns the parameters of the lwe secret key for
// the input at the given `pos`.
// The input must be encrupted
/// getInputLweSecretKeyParam returns the parameters of the lwe secret key for
/// the input at the given `pos`.
/// The input must be encrupted
LweSecretKeyParam getInputLweSecretKeyParam(size_t pos) {
auto gate = inputGate(pos);
auto inputSk = this->secretKeys.find(gate.encryption->secretKeyID);
return inputSk->second.first;
}
// getOutputLweSecretKeyParam returns the parameters of the lwe secret key for
// the given output.
/// getOutputLweSecretKeyParam returns the parameters of the lwe secret key
/// for the given output.
LweSecretKeyParam getOutputLweSecretKeyParam(size_t pos) {
auto gate = outputGate(pos);
auto outputSk = this->secretKeys.find(gate.encryption->secretKeyID);
return outputSk->second.first;
}
// allocate a lwe ciphertext buffer for the argument at argPos, set the size
// of the allocated buffer.
/// allocate a lwe ciphertext buffer for the argument at argPos, set the size
/// of the allocated buffer.
outcome::checked<void, StringError>
allocate_lwe(size_t argPos, uint64_t **ciphertext, uint64_t &size);
// encrypt the input to the ciphertext for the argument at argPos.
/// encrypt the input to the ciphertext for the argument at argPos.
outcome::checked<void, StringError>
encrypt_lwe(size_t argPos, uint64_t *ciphertext, uint64_t input);
// isOuputEncrypted return true if the output at the given pos is encrypted.
/// isOuputEncrypted return true if the output at the given pos is encrypted.
bool isOutputEncrypted(size_t pos);
// decrypt the ciphertext to the output for the argument at argPos.
/// decrypt the ciphertext to the output for the argument at argPos.
outcome::checked<void, StringError>
decrypt_lwe(size_t argPos, uint64_t *ciphertext, uint64_t &output);

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@@ -32,9 +32,10 @@ namespace clientlib {
using concretelang::error::StringError;
class EncryptedArguments;
/// PublicArguments will be sended to the server. It includes encrypted
/// arguments and public keys.
class PublicArguments {
/// PublicArguments will be sended to the server. It includes encrypted
/// arguments and public keys.
public:
PublicArguments(const ClientParameters &clientParameters,
std::vector<void *> &&preparedArgs,
@@ -56,13 +57,13 @@ private:
ClientParameters clientParameters;
std::vector<void *> preparedArgs;
// Store buffers of ciphertexts
/// Store buffers of ciphertexts
std::vector<TensorData> ciphertextBuffers;
};
/// PublicResult is a result of a ServerLambda call which contains encrypted
/// results.
struct PublicResult {
/// PublicResult is a result of a ServerLambda call which contains encrypted
/// results.
PublicResult(const ClientParameters &clientParameters,
std::vector<TensorData> buffers = {})

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@@ -52,10 +52,10 @@ PlaintextType convertPlaintextTypeFromPType(mlir::MLIRContext *context,
return PlaintextType::get(context, type.getP() + 1);
}
// convertPlaintextTypeFromType create a plaintext type according the
// precision of the given type argument. The type should be a GLWECipherText
// (if operand is not yet lowered) or a LWECipherTextType (if operand is
// already lowered).
/// convertPlaintextTypeFromType create a plaintext type according the
/// precision of the given type argument. The type should be a GLWECipherText
/// (if operand is not yet lowered) or a LWECipherTextType (if operand is
/// already lowered).
PlaintextType convertPlaintextTypeFromType(mlir::MLIRContext *context,
mlir::Type &type) {
auto glwe = type.dyn_cast_or_null<GLWECipherTextType>();
@@ -76,10 +76,10 @@ CleartextType convertCleartextTypeFromPType(mlir::MLIRContext *context,
return CleartextType::get(context, type.getP() + 1);
}
// convertCleartextTypeFromType create a cleartext type according the
// precision of the given type argument. The type should be a GLWECipherText
// (if operand is not yet lowered) or a LWECipherTextType (if operand is
// already lowered).
/// convertCleartextTypeFromType create a cleartext type according the
/// precision of the given type argument. The type should be a GLWECipherText
/// (if operand is not yet lowered) or a LWECipherTextType (if operand is
/// already lowered).
CleartextType convertCleartextTypeFromType(mlir::MLIRContext *context,
mlir::Type &type) {
auto glwe = type.dyn_cast_or_null<GLWECipherTextType>();

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@@ -24,11 +24,10 @@ bool verifyEncryptedIntegerAndIntegerInputsConsistency(Operation &op,
EncryptedIntegerType &a,
IntegerType &b);
/** Shared error message for all ApplyLookupTable variant Op (several Dialect)
* E.g. FHE.apply_lookup_table(input, lut)
* Message when the lut tensor has an invalid size,
* i.e. it cannot accomodate the input elements bitwidth
*/
/// Shared error message for all ApplyLookupTable variant Op (several Dialect)
/// E.g. FHE.apply_lookup_table(input, lut)
/// Message when the lut tensor has an invalid size,
/// i.e. it cannot accomodate the input elements bitwidth
template <class Op>
void emitErrorBadLutSize(Op &op, std::string lutName, std::string inputName,
int expectedSize, int bitWidth) {

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@@ -19,7 +19,7 @@ extern void *dl_handle;
struct WorkFunctionRegistry;
extern WorkFunctionRegistry *node_level_work_function_registry;
// Recover the name of the work function
/// Recover the name of the work function
static inline const char *_dfr_get_function_name_from_address(void *fn) {
Dl_info info;
@@ -38,8 +38,8 @@ static inline wfnptr _dfr_get_function_pointer_from_name(const char *fn_name) {
return (wfnptr)ptr;
}
// Determine where new task should run. For now just round-robin
// distribution - TODO: optimise.
/// Determine where new task should run. For now just round-robin
/// distribution - TODO: optimise.
static inline size_t _dfr_find_next_execution_locality() {
static size_t num_nodes = hpx::get_num_localities().get();
static std::atomic<std::size_t> next_locality{0};

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@@ -26,7 +26,7 @@ typedef struct RuntimeContext {
RuntimeContext() {}
// Ensure that the engines map is not copied
/// Ensure that the engines map is not copied
RuntimeContext(const RuntimeContext &ctx)
: evaluationKeys(ctx.evaluationKeys) {}
RuntimeContext(const RuntimeContext &&other)

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@@ -3,9 +3,7 @@
// https://github.com/zama-ai/concrete-compiler-internal/blob/main/LICENSE.txt
// for license information.
/**
Define the API exposed to the compiler for code generation.
*/
/// Define the API exposed to the compiler for code generation.
#ifndef CONCRETELANG_DFR_RUNTIME_API_H
#define CONCRETELANG_DFR_RUNTIME_API_H

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@@ -45,7 +45,7 @@ public:
protected:
ClientParameters clientParameters;
void *(*func)(void *...);
// Retain module and open shared lib alive
/// Retain module and open shared lib alive
std::shared_ptr<DynamicModule> module;
};

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@@ -18,9 +18,9 @@
namespace mlir {
namespace concretelang {
// Compilation context that acts as the root owner of LLVM and MLIR
// data structures directly and indirectly referenced by artefacts
// produced by the `CompilerEngine`.
/// Compilation context that acts as the root owner of LLVM and MLIR
/// data structures directly and indirectly referenced by artefacts
/// produced by the `CompilerEngine`.
class CompilationContext {
public:
CompilationContext();
@@ -68,8 +68,8 @@ struct CompilationOptions {
class CompilerEngine {
public:
// Result of an invocation of the `CompilerEngine` with optional
// fields for the results produced by different stages.
/// Result of an invocation of the `CompilerEngine` with optional
/// fields for the results produced by different stages.
class CompilationResult {
public:
CompilationResult(std::shared_ptr<CompilationContext> compilationContext =
@@ -89,37 +89,35 @@ public:
std::string outputDirPath;
std::vector<std::string> objectsPath;
std::vector<mlir::concretelang::ClientParameters> clientParametersList;
/** Path to the runtime library. Will be linked to the output library if set
*/
/// Path to the runtime library. Will be linked to the output library if set
std::string runtimeLibraryPath;
bool cleanUp;
public:
/** Create a library instance on which you can add compilation results.
* Then you can emit a library file with the given path.
* cleanUp at false keeps intermediate .obj files for later use. */
/// Create a library instance on which you can add compilation results.
/// Then you can emit a library file with the given path.
/// cleanUp at false keeps intermediate .obj files for later use.
Library(std::string outputDirPath, std::string runtimeLibraryPath = "",
bool cleanUp = true)
: outputDirPath(outputDirPath), runtimeLibraryPath(runtimeLibraryPath),
cleanUp(cleanUp) {}
/** Add a compilation result to the library */
/// Add a compilation result to the library
llvm::Expected<std::string> addCompilation(CompilationResult &compilation);
/** Emit the library artifacts with the previously added compilation result
*/
/// Emit the library artifacts with the previously added compilation result
llvm::Error emitArtifacts(bool sharedLib, bool staticLib,
bool clientParameters, bool cppHeader);
/** After a shared library has been emitted, its path is here */
/// After a shared library has been emitted, its path is here
std::string sharedLibraryPath;
/** After a static library has been emitted, its path is here */
/// After a static library has been emitted, its path is here
std::string staticLibraryPath;
/** Returns the path of the shared library */
/// Returns the path of the shared library
static std::string getSharedLibraryPath(std::string outputDirPath);
/** Returns the path of the static library */
/// Returns the path of the static library
static std::string getStaticLibraryPath(std::string outputDirPath);
/** Returns the path of the static library */
/// Returns the path of the static library
static std::string getClientParametersPath(std::string outputDirPath);
// For advanced use
@@ -132,56 +130,56 @@ public:
~Library();
private:
/** Emit a shared library with the previously added compilation result */
/// Emit a shared library with the previously added compilation result
llvm::Expected<std::string> emitStatic();
/** Emit a shared library with the previously added compilation result */
/// Emit a shared library with the previously added compilation result
llvm::Expected<std::string> emitShared();
/** Emit a json ClientParameters corresponding to library content */
/// Emit a json ClientParameters corresponding to library content
llvm::Expected<std::string> emitClientParametersJSON();
/// Emit a client header file for this corresponding to library content
llvm::Expected<std::string> emitCppHeader();
};
// Specification of the exit stage of the compilation pipeline
/// Specification of the exit stage of the compilation pipeline
enum class Target {
// Only read sources and produce corresponding MLIR module
/// Only read sources and produce corresponding MLIR module
ROUND_TRIP,
// Read sources and exit before any lowering
/// Read sources and exit before any lowering
FHE,
// Read sources and lower all FHE operations to TFHE
// operations
/// Read sources and lower all FHE operations to TFHE
/// operations
TFHE,
// Read sources and lower all FHE and TFHE operations to Concrete
// operations
/// Read sources and lower all FHE and TFHE operations to Concrete
/// operations
CONCRETE,
// Read sources and lower all FHE, TFHE and Concrete operations to BConcrete
// operations
/// Read sources and lower all FHE, TFHE and Concrete operations to
/// BConcrete operations
BCONCRETE,
// Read sources and lower all FHE, TFHE and Concrete
// operations to canonical MLIR dialects. Cryptographic operations
// are lowered to invocations of the concrete library.
/// Read sources and lower all FHE, TFHE and Concrete
/// operations to canonical MLIR dialects. Cryptographic operations
/// are lowered to invocations of the concrete library.
STD,
// Read sources and lower all FHE, TFHE and Concrete
// operations to operations from the LLVM dialect. Cryptographic
// operations are lowered to invocations of the concrete library.
/// Read sources and lower all FHE, TFHE and Concrete
/// operations to operations from the LLVM dialect. Cryptographic
/// operations are lowered to invocations of the concrete library.
LLVM,
// Same as `LLVM`, but lowers to actual LLVM IR instead of the
// LLVM dialect
/// Same as `LLVM`, but lowers to actual LLVM IR instead of the
/// LLVM dialect
LLVM_IR,
// Same as `LLVM_IR`, but invokes the LLVM optimization pipeline
// to produce optimized LLVM IR
/// Same as `LLVM_IR`, but invokes the LLVM optimization pipeline
/// to produce optimized LLVM IR
OPTIMIZED_LLVM_IR,
// Same as `OPTIMIZED_LLVM_IR`, but compiles and add an object file to a
// futur library
/// Same as `OPTIMIZED_LLVM_IR`, but compiles and add an object file to a
/// futur library
LIBRARY
};

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@@ -11,21 +11,21 @@
namespace mlir {
namespace concretelang {
// Internal error class that allows for composing `llvm::Error`s
// similar to `llvm::createStringError()`, but using stream-like
// composition with `operator<<`.
//
// Example:
//
// llvm::Error foo(int i, size_t s, ...) {
// ...
// if(...) {
// return StreamStringError()
// << "Some error message with an integer: "
// << i << " and a size_t: " << s;
// }
// ...
// }
/// Internal error class that allows for composing `llvm::Error`s
/// similar to `llvm::createStringError()`, but using stream-like
/// composition with `operator<<`.
///
/// Example:
///
/// llvm::Error foo(int i, size_t s, ...) {
/// ...
/// if(...) {
/// return StreamStringError()
/// << "Some error message with an integer: "
/// << i << " and a size_t: " << s;
/// }
/// ...
/// }
class StreamStringError {
public:
StreamStringError(const llvm::StringRef &s) : buffer(s.str()), os(buffer){};

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@@ -55,9 +55,9 @@ private:
mlir::LLVM::LLVMFunctionType type;
std::string name;
std::unique_ptr<mlir::ExecutionEngine> engine;
// Tell if the DF parallelization was on or during compilation. This will be
// useful to abort execution if the runtime doesn't support dataflow
// execution, instead of having undefined symbol issues
/// Tell if the DF parallelization was on or during compilation. This will be
/// useful to abort execution if the runtime doesn't support dataflow
/// execution, instead of having undefined symbol issues
bool useDataflow = false;
};

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@@ -17,7 +17,7 @@
namespace mlir {
namespace concretelang {
// Abstract base class for lambda arguments
/// Abstract base class for lambda arguments
class LambdaArgument
: public llvm::RTTIExtends<LambdaArgument, llvm::RTTIRoot> {
public:
@@ -25,13 +25,13 @@ public:
template <typename T> bool isa() const { return llvm::isa<T>(*this); }
// Cast functions on constant instances
/// Cast functions on constant instances
template <typename T> const T &cast() const { return llvm::cast<T>(*this); }
template <typename T> const T *dyn_cast() const {
return llvm::dyn_cast<T>(this);
}
// Cast functions for mutable instances
/// Cast functions for mutable instances
template <typename T> T &cast() { return llvm::cast<T>(*this); }
template <typename T> T *dyn_cast() { return llvm::dyn_cast<T>(this); }
@@ -41,10 +41,10 @@ protected:
LambdaArgument(){};
};
// Class for integer arguments. `BackingIntType` is used as the data
// type to hold the argument's value. The precision is the actual
// precision of the value, which might be different from the precision
// of the backing integer type.
/// Class for integer arguments. `BackingIntType` is used as the data
/// type to hold the argument's value. The precision is the actual
/// precision of the value, which might be different from the precision
/// of the backing integer type.
template <typename BackingIntType = uint64_t>
class IntLambdaArgument
: public llvm::RTTIExtends<IntLambdaArgument<BackingIntType>,
@@ -75,10 +75,10 @@ protected:
template <typename BackingIntType>
char IntLambdaArgument<BackingIntType>::ID = 0;
// Class for encrypted integer arguments. `BackingIntType` is used as
// the data type to hold the argument's plaintext value. The precision
// is the actual precision of the value, which might be different from
// the precision of the backing integer type.
/// Class for encrypted integer arguments. `BackingIntType` is used as
/// the data type to hold the argument's plaintext value. The precision
/// is the actual precision of the value, which might be different from
/// the precision of the backing integer type.
template <typename BackingIntType = uint64_t>
class EIntLambdaArgument
: public llvm::RTTIExtends<EIntLambdaArgument<BackingIntType>,
@@ -91,8 +91,8 @@ template <typename BackingIntType>
char EIntLambdaArgument<BackingIntType>::ID = 0;
namespace {
// Calculates `accu *= factor` or returns an error if the result
// would overflow
/// Calculates `accu *= factor` or returns an error if the result
/// would overflow
template <typename AccuT, typename ValT>
llvm::Error safeUnsignedMul(AccuT &accu, ValT factor) {
static_assert(std::numeric_limits<AccuT>::is_integer &&
@@ -113,10 +113,10 @@ llvm::Error safeUnsignedMul(AccuT &accu, ValT factor) {
}
} // namespace
// Class for Tensor arguments. This can either be plaintext tensors
// (for `ScalarArgumentT = IntLambaArgument<T>`) or tensors
// representing encrypted integers (for `ScalarArgumentT =
// EIntLambaArgument<T>`).
/// Class for Tensor arguments. This can either be plaintext tensors
/// (for `ScalarArgumentT = IntLambaArgument<T>`) or tensors
/// representing encrypted integers (for `ScalarArgumentT =
/// EIntLambaArgument<T>`).
template <typename ScalarArgumentT>
class TensorLambdaArgument
: public llvm::RTTIExtends<TensorLambdaArgument<ScalarArgumentT>,
@@ -124,10 +124,10 @@ class TensorLambdaArgument
public:
typedef ScalarArgumentT scalar_type;
// Construct tensor argument from the one-dimensional array `value`,
// but interpreting the array's values as a linearized
// multi-dimensional tensor with the sizes of the dimensions
// specified in `dimensions`.
/// Construct tensor argument from the one-dimensional array `value`,
/// but interpreting the array's values as a linearized
/// multi-dimensional tensor with the sizes of the dimensions
/// specified in `dimensions`.
TensorLambdaArgument(
llvm::ArrayRef<typename ScalarArgumentT::value_type> value,
llvm::ArrayRef<int64_t> dimensions)
@@ -135,8 +135,8 @@ public:
std::copy(value.begin(), value.end(), std::back_inserter(this->value));
}
// Construct a one-dimensional tensor argument from the
// array `value`.
/// Construct a one-dimensional tensor argument from the
/// array `value`.
TensorLambdaArgument(
llvm::ArrayRef<typename ScalarArgumentT::value_type> value)
: TensorLambdaArgument(value, {(int64_t)value.size()}) {}
@@ -152,9 +152,9 @@ public:
const std::vector<int64_t> &getDimensions() const { return this->dimensions; }
// Returns the total number of elements in the tensor. If the number
// of elements cannot be represented as a `size_t`, the method
// returns an error.
/// Returns the total number of elements in the tensor. If the number
/// of elements cannot be represented as a `size_t`, the method
/// returns an error.
llvm::Expected<size_t> getNumElements() const {
size_t accu = 1;
@@ -165,14 +165,14 @@ public:
return accu;
}
// Returns a bare pointer to the linearized values of the tensor
// (constant version).
/// Returns a bare pointer to the linearized values of the tensor
/// (constant version).
const typename ScalarArgumentT::value_type *getValue() const {
return this->value.data();
}
// Returns a bare pointer to the linearized values of the tensor (mutable
// version).
/// Returns a bare pointer to the linearized values of the tensor (mutable
/// version).
typename ScalarArgumentT::value_type *getValue() {
return this->value.data();
}

View File

@@ -27,13 +27,13 @@ namespace {
// `typedResult` must be declared at namespace scope due to return
// type template specialization
// Helper function for implementing type-dependent preparation of the result.
/// Helper function for implementing type-dependent preparation of the result.
template <typename ResT>
llvm::Expected<ResT> typedResult(clientlib::KeySet &keySet,
clientlib::PublicResult &result);
// Specialization of `typedResult()` for scalar results, forwarding
// scalar value to caller
/// Specialization of `typedResult()` for scalar results, forwarding
/// scalar value to caller
template <>
inline llvm::Expected<uint64_t> typedResult(clientlib::KeySet &keySet,
clientlib::PublicResult &result) {
@@ -60,14 +60,13 @@ typedVectorResult(clientlib::KeySet &keySet, clientlib::PublicResult &result) {
return std::move(clearResult.value());
}
// Specializations of `typedResult()` for vector results, initializing
// an `std::vector` of the right size with the results and forwarding
// it to the caller with move semantics.
//
// Cannot factor out into a template template <typename T> inline
// llvm::Expected<std::vector<uint8_t>>
// typedResult(clientlib::KeySet &keySet, clientlib::PublicResult &result); due
// to ambiguity with scalar template
/// Specializations of `typedResult()` for vector results, initializing
/// an `std::vector` of the right size with the results and forwarding
/// it to the caller with move semantics.
/// Cannot factor out into a template template <typename T> inline
/// llvm::Expected<std::vector<uint8_t>>
/// typedResult(clientlib::KeySet &keySet, clientlib::PublicResult &result); due
/// to ambiguity with scalar template
template <>
inline llvm::Expected<std::vector<uint8_t>>
typedResult(clientlib::KeySet &keySet, clientlib::PublicResult &result) {
@@ -105,8 +104,8 @@ buildTensorLambdaResult(clientlib::KeySet &keySet,
*tensorOrError, tensorDim);
}
// pecialization of `typedResult()` for a single result wrapped into
// a `LambdaArgument`.
/// pecialization of `typedResult()` for a single result wrapped into
/// a `LambdaArgument`.
template <>
inline llvm::Expected<std::unique_ptr<LambdaArgument>>
typedResult(clientlib::KeySet &keySet, clientlib::PublicResult &result) {
@@ -138,18 +137,18 @@ typedResult(clientlib::KeySet &keySet, clientlib::PublicResult &result) {
} // namespace
// Adaptor class that push arguments specified as instances of
// `LambdaArgument` to `clientlib::EncryptedArguments`.
/// Adaptor class that push arguments specified as instances of
/// `LambdaArgument` to `clientlib::EncryptedArguments`.
class LambdaArgumentAdaptor {
public:
// Checks if the argument `arg` is an plaintext / encrypted integer
// argument or a plaintext / encrypted tensor argument with a
// backing integer type `IntT` and push the argument to `encryptedArgs`.
//
// Returns `true` if `arg` has one of the types above and its value
// was successfully added to `encryptedArgs`, `false` if none of the types
// matches or an error if a type matched, but adding the argument to
// `encryptedArgs` failed.
/// Checks if the argument `arg` is an plaintext / encrypted integer
/// argument or a plaintext / encrypted tensor argument with a
/// backing integer type `IntT` and push the argument to `encryptedArgs`.
///
/// Returns `true` if `arg` has one of the types above and its value
/// was successfully added to `encryptedArgs`, `false` if none of the types
/// matches or an error if a type matched, but adding the argument to
/// `encryptedArgs` failed.
template <typename IntT>
static inline llvm::Expected<bool>
tryAddArg(clientlib::EncryptedArguments &encryptedArgs,
@@ -174,7 +173,7 @@ public:
return false;
}
// Recursive case for `tryAddArg<IntT>(...)`
/// Recursive case for `tryAddArg<IntT>(...)`
template <typename IntT, typename NextIntT, typename... IntTs>
static inline llvm::Expected<bool>
tryAddArg(clientlib::EncryptedArguments &encryptedArgs,
@@ -191,9 +190,9 @@ public:
return true;
}
// Attempts to push a single argument `arg` to `encryptedArgs`. Returns an
// error if either the argument type is unsupported or if the argument types
// is supported, but adding it to `encryptedArgs` failed.
/// Attempts to push a single argument `arg` to `encryptedArgs`. Returns an
/// error if either the argument type is unsupported or if the argument types
/// is supported, but adding it to `encryptedArgs` failed.
static inline llvm::Error
addArgument(clientlib::EncryptedArguments &encryptedArgs,
const LambdaArgument &arg, clientlib::KeySet &keySet) {

View File

@@ -121,7 +121,7 @@ public:
private:
std::string outputPath;
std::string runtimeLibraryPath;
// Flags to select generated artifacts
/// Flags to select generated artifacts
bool generateSharedLib;
bool generateStaticLib;
bool generateClientParameters;

View File

@@ -11,20 +11,20 @@
namespace mlir {
namespace concretelang {
// Returning references to instances of different classes `S` and `T`
// is prohibited, even if `T` inherits from `S`. The wrapper class
// `StreamWrap` can be initialized with a pointer to an instance of
// `S` or any of its subclasses and acts as a proxy transparently
// forwarding all calls to `S::operator<<`. The class thus hides the
// dereferencing of the pointer and a reference to it can be used as a
// replacement for a reference to `S`.
/// Returning references to instances of different classes `S` and `T`
/// is prohibited, even if `T` inherits from `S`. The wrapper class
/// `StreamWrap` can be initialized with a pointer to an instance of
/// `S` or any of its subclasses and acts as a proxy transparently
/// forwarding all calls to `S::operator<<`. The class thus hides the
/// dereferencing of the pointer and a reference to it can be used as a
/// replacement for a reference to `S`.
template <class S> class StreamWrap {
public:
StreamWrap() = delete;
StreamWrap(S *s) : s(s) {}
// Forward all invocations of
// `StreamWrap<S>::operator<<` to S::operator<<`.
/// Forward all invocations of
/// `StreamWrap<S>::operator<<` to S::operator<<`.
template <class T> StreamWrap<S> &operator<<(const T &v) {
*this->s << v;
return *this;

View File

@@ -6,9 +6,9 @@
#ifndef CONCRETELANG_SUPPORT_MATH_H_
#define CONCRETELANG_SUPPORT_MATH_H_
// Calculates (T)ceil(log2f(v))
// TODO: Replace with some fancy bit twiddling hack
/// Calculates (T)ceil(log2f(v))
template <typename T> static T ceilLog2(const T v) {
// TODO: Replace with some fancy bit twiddling hack
T tmp = v;
T log2 = 0;