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* [Refactor] Improve flash attention example and layout comparison logic - Removed unnecessary annotation for `lse_local_split` in the flash attention example to streamline the code. - Updated the handling of `lse_local_split` to utilize parallel processing for better performance. - Refactored kernel compilation and profiling logic to enhance clarity and maintainability in the flash attention example. - Added a condition in `FragmentNode::IsEqual` to handle broadcast cases, improving the robustness of layout comparisons. * lint fix * [Enhancement] Add support for shared memory scope in Fill operation - Introduced handling for `shared.dyn` and `shared` memory scopes in the Fill operation. - Implemented parallel operation and layout inference for improved performance in shared memory scenarios. - Updated thread loop partitioning and vectorization logic to accommodate new memory scope handling. * [Refactor] Remove deprecated decorator and enhance Cython kernel handling - Removed the deprecated decorator from the main module and added a new implementation in the utils module for better organization. - Introduced a pointer map in the Cython kernel adapter to manage pointer arguments, improving runtime shape resolution. - Updated the Cython kernel wrapper to utilize the new pointer map for handling kernel arguments. - Enhanced error checking in the tensor utility functions to ensure static shapes are enforced. - Added a new proxy module for buffer and tensor handling, streamlining the interface for TIR programs. * [Feature] Add matrix multiplication test and kernel implementation - Introduced a new test file `test_tilelang_language_ptr.py` that implements a matrix multiplication function using TileLang's primitives. - The `matmul_test` function defines a kernel for performing tile-level GEMM operations with customizable block sizes and data types. - Added a `run_matmul` function to compile and execute the kernel, along with a test function to validate the implementation. - Updated the `proxy.py` file to enhance type handling for buffer and tensor proxies, ensuring compatibility with TIR programs. - Minor formatting improvements in `deprecated.py` for better readability. * lint fix * [Refactor] Update tensor creation in matrix multiplication test - Replaced `T.Tensor.from_ptr` with `T.make_tensor` in `matmul_test` for improved clarity and consistency. - Updated imports in `__init__.py` to include `make_tensor`. - Added `make_tensor` function in `proxy.py` to streamline tensor creation from pointers. * [Refactor] Update tensor definitions across multiple files - Replaced instances of `T.Tensor` with updated tensor definitions in various benchmark and example files to enhance consistency and clarity. - Adjusted tensor shapes and types in functions related to matrix multiplication, attention mechanisms, and other operations. - Improved documentation in README and example files to reflect changes in tensor usage. * lint fix * [Refactor] Update tensor types in attention and matrix multiplication examples - Replaced instances of `T.Tensor` with `T.SharedTensor` and `T.FragmentTensor` in various attention and matrix multiplication functions to improve consistency and clarity. - Adjusted tensor definitions in benchmark and example files to align with the new tensor types. - Enhanced the overall structure and readability of the code by standardizing tensor usage across multiple files. * lint fix * [Refactor] Update tensor types in GEMM example and test files - Replaced instances of `T.Tensor` with `T.LocalTensor` and `T.Buffer` in the GEMM example and related test functions to improve consistency and clarity. - Enhanced the overall structure of the code by standardizing tensor usage across multiple files, aligning with recent updates in tensor definitions. * [Refactor] Update tensor usage in customize.py - Replaced instances of `T.Tensor` with `T.Buffer` in the `reshape` and `view` functions to enhance consistency with recent tensor definitions. - Improved code clarity by standardizing buffer usage across the file. * [Refactor] Update tensor types in test_tilelang_transform_annotate_device_regions.py - Replaced instances of `T.Tensor` with `T.Buffer` in the `before` and `expected` methods of the `TestAnnotateThreadExtent` and `TestAnnotateDeviceScope` classes to enhance consistency with recent tensor definitions. - Improved code clarity by standardizing buffer usage across the test file. * [Refactor] Update tensor types to SharedBuffer and FragmentBuffer - Replaced instances of `T.SharedTensor` and `T.FragmentTensor` with `T.SharedBuffer` and `T.FragmentBuffer` across multiple benchmark, example, and test files to enhance consistency with recent tensor definitions. - Improved code clarity and structure by standardizing buffer usage in attention and matrix multiplication functions. * [Refactor] Introduce Tensor alias for Buffer in proxy.py - Added a new alias `Tensor` for `Buffer` in `proxy.py` to facilitate JIT compilation, ensuring that inputs and outputs are mapped with `torch.Tensor`. - This change enhances clarity and consistency in tensor usage across the codebase.
182 lines
6.0 KiB
Python
182 lines
6.0 KiB
Python
import torch
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import torch.backends
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import tilelang.testing
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from tilelang import tvm as tvm
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from tvm import DataType
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import tilelang.language as T
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from tilelang import JITKernel
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from tilelang.transform.simplify import apply_simplify
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from tilelang.utils.tensor import map_torch_type
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from typing import Optional
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tilelang.testing.set_random_seed(0)
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def gemv_simt(
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M: int,
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N: int,
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K: int,
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in_dtype: str,
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out_dtype: str,
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accum_dtype: str,
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trans_A: bool,
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trans_B: bool,
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with_bias: bool = False,
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n_partition: Optional[int] = 4,
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reduce_thread: Optional[int] = 32,
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):
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assert n_partition is not None, "n_partition must be provided"
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assert reduce_thread is not None, (
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"reduce_thread must be provided currently, as related bitblas.gpu.gemv.GEMV"
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"sch_outer_reduction_with_config is not implemented")
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assert isinstance(N, int) and isinstance(K, int), "Do not support dynamic N and K Currently"
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assert trans_A is False, "Dequantize only implement for trans_A=False currently"
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assert trans_B is True, "Dequantize only implement for trans_B=TRue currently"
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MAX_TRANSACTION_SIZE_IN_BITS = 128
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micro_size_k = MAX_TRANSACTION_SIZE_IN_BITS // DataType(in_dtype).bits
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block_K = reduce_thread * micro_size_k
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A_shape = (M, K)
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B_shape = (N, K)
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Bias_shape = (N,)
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C_shape = (M, N)
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dp4a_size = 4
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use_dp4a = in_dtype == "int8" and accum_dtype == "int32"
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@T.prim_func
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def main(
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A: T.Tensor(A_shape, in_dtype),
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B: T.Tensor(B_shape, in_dtype),
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Bias: T.Tensor(Bias_shape, out_dtype),
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C: T.Tensor(C_shape, out_dtype),
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):
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with T.Kernel(
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T.ceildiv(N, n_partition), M, threads=(reduce_thread, n_partition)) as (
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bx,
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by,
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):
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A_local = T.alloc_local((micro_size_k,), in_dtype)
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B_local = T.alloc_local((micro_size_k,), in_dtype)
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accum_res = T.alloc_local((1,), accum_dtype)
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reduced_accum_res = T.alloc_local((1,), accum_dtype)
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kr = T.get_thread_binding(0)
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ni = T.get_thread_binding(1)
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T.clear(accum_res)
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for ko in T.serial(T.ceildiv(K, block_K)):
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for v in T.vectorized(micro_size_k):
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A_local[v] = A[by, ko * block_K + kr * micro_size_k + v]
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for v in T.vectorized(micro_size_k):
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B_local[v] = B[
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bx * n_partition + ni,
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ko * block_K + kr * micro_size_k + v,
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]
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if use_dp4a:
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for ki in T.serial(micro_size_k // dp4a_size):
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T.dp4a(
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A_local[ki * dp4a_size],
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B_local[ki * dp4a_size],
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accum_res[0],
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)
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else:
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for ki in T.serial(micro_size_k):
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accum_res[0] += A_local[ki].astype(accum_dtype) * B_local[ki].astype(
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accum_dtype)
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with T.attr(
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T.comm_reducer(lambda x, y: x + y, [T.Cast(accum_dtype, 0)]),
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"reduce_scope",
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T.reinterpret(T.uint64(0), dtype="handle"),
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):
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T.evaluate(
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T.tvm_thread_allreduce(
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T.uint32(1),
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accum_res[0],
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True,
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reduced_accum_res[0],
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kr,
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dtype="handle",
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))
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if kr == 0:
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if with_bias:
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C[by,
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bx * n_partition + ni] = reduced_accum_res[0] + Bias[bx * n_partition + ni]
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else:
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C[by, bx * n_partition + ni] = reduced_accum_res[0]
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return apply_simplify(main)
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def evaluate_gemv_simt(
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M: int,
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N: int,
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K: int,
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in_dtype: str,
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out_dtype: str,
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accum_dtype: str,
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trans_A: bool = False,
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trans_B: bool = True,
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with_bias: bool = False,
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):
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program = gemv_simt(M, N, K, in_dtype, out_dtype, accum_dtype, trans_A, trans_B, with_bias)
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kernel = JITKernel(program, target="cuda")
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in_dtype = map_torch_type(in_dtype)
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out_dtype = map_torch_type(out_dtype)
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accum_dtype = map_torch_type(accum_dtype)
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if in_dtype in {torch.int8, torch.int32}:
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A = torch.randint(-128, 128, (M, K), dtype=torch.int8).to(in_dtype).cuda()
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B = torch.randint(-128, 128, (N, K), dtype=torch.int8).to(in_dtype).cuda()
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Bias = torch.randint(-128, 128, (N,), dtype=torch.int32).to(accum_dtype).cuda()
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elif in_dtype in {torch.float8_e4m3fn, torch.float8_e5m2}:
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A = torch.randn(M, K).to(in_dtype).cuda()
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B = torch.randn(N, K).to(in_dtype).cuda()
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Bias = torch.randn(N).to(accum_dtype).cuda()
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else:
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A = torch.randn(M, K).to(in_dtype).cuda() - 0.5
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B = torch.randn(N, K).to(in_dtype).cuda() - 0.5
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Bias = torch.randn(N).to(accum_dtype).cuda() - 0.5
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C = torch.zeros(M, N).to(out_dtype).cuda()
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if with_bias:
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kernel(A, B, Bias, C)
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else:
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kernel(A, B, C)
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ref_c = torch.mm(A.to(torch.float32), B.T.to(torch.float32))
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if with_bias:
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ref_c += Bias.to(torch.float32)
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ref_c = ref_c.to(out_dtype)
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print(C)
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print(ref_c)
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tilelang.testing.torch_assert_close(C, ref_c, rtol=1e-2, atol=1e-2)
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@tilelang.testing.requires_cuda
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@tilelang.testing.requires_cuda_compute_version(8, 0)
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def test_gemv_simt():
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evaluate_gemv_simt(1, 1024, 1024, "float16", "float16", "float16", with_bias=False)
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evaluate_gemv_simt(1, 1024, 1024, "int8", "int32", "int32", with_bias=False)
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@tilelang.testing.requires_cuda
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@tilelang.testing.requires_cuda_compute_version(8, 9)
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def test_gemv_simt_fp8():
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evaluate_gemv_simt(1, 1024, 1024, "e4m3_float8", "float32", "float32", with_bias=False)
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evaluate_gemv_simt(1, 1024, 1024, "e5m2_float8", "float32", "float32", with_bias=False)
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if __name__ == "__main__":
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tilelang.testing.main()
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