Concurrent multi-datatype execution within a processing resource
One embodiment provides for a graphics processing unit (GPU) to accelerate machine learning operations, the GPU comprising an instruction cache to store a first instruction and a second instruction, the first instruction to cause the GPU to perform a floating-point operation, including a multi-dimensional floating-point operation, and the second instruction to cause the GPU to perform an integer operation; and a general-purpose graphics compute unit having a single instruction, multiple thread architecture, the general-purpose graphics compute unit to concurrently execute the first instruction and the second instruction.
1. A graphics processing unit (GPU) comprising:
a processing cluster comprising a plurality of multiprocessors interconnected via a data crossbar, the plurality of multiprocessors configured to distribute processed data among the plurality of multiprocessors directly via the data crossbar, from a first multiprocessor of the plurality of multiprocessors to a second multiprocessor of the plurality of multiprocessors, wherein a multiprocessor of the plurality of multiprocessors comprises:
an instruction cache to store a first instruction and a second instruction, the first instruction to cause the multiprocessor to perform a floating-point operation and the second instruction to cause the multiprocessor to perform an integer operation; and
a plurality of general-purpose graphics compute units having a single instruction, multiple thread architecture, the plurality of general-purpose graphics compute units including a first general-purpose graphics compute unit to execute the first instruction concurrently with execution of the second instruction by a second general-purpose graphics compute unit.
2. The GPU as in claim 1 , wherein the floating-point operation includes a 32-bit floating point input operand and the integer operation includes a 32-bit integer input operation.
3. The GPU as in claim 1 , wherein the floating-point operation includes a 16-bit floating point input operand and the integer operation includes a 16-bit integer input operation.
4. The GPU as in claim 3 , wherein the 16-bit floating point input operand is in a half-precision floating point format.
5. The GPU as in claim 1 , additionally including a scheduler to independently schedule threads of the first instruction and the second instruction to the multiprocessor, wherein threads of the first instruction and the second instruction have independent thread state.
6. The GPU as in claim 1 , wherein the instruction cache is to store a third instruction, the third instruction to cause the GPU to perform a mixed precision matrix multiply operation via the multiprocessor.
7. The GPU as in claim 6 , the third instruction is to cause the multiprocessor to compute a 32-bit product from two or more 8-bit integer operands in response to the third instruction.
8. The GPU as in claim 6 , wherein the third instruction is to cause the multiprocessor to compute a 32-bit product from two or more 16-bit floating-point operands in response to the third instruction.
9. The GPU as in claim 8 , wherein the two or more 16-bit floating-point operands are half-precision floating-point operands.
10. A data processing system comprising:
a memory device configured to store instructions; and
a graphics processing unit (GPU) to execute the instructions, the instructions including a first instruction and a second instruction, the first instruction to cause the GPU to perform a floating-point operation, and the second instruction to cause the GPU to perform an integer operation, the GPU including:
a processing cluster comprising a plurality of multiprocessors interconnected via a data crossbar, the plurality of multiprocessors configured to distribute processed data among the plurality of multiprocessors directly via the data crossbar, from a first multiprocessor of the plurality of multiprocessors to a second multiprocessor of the plurality of multiprocessors, wherein a multiprocessor of the plurality of multiprocessors includes a plurality of general-purpose graphics compute units having a single instruction, multiple thread architecture, the plurality of general-purpose graphics compute units including a first general-purpose graphics compute unit to execute the first instruction concurrently with execution of the second instruction by a second general-purpose graphics compute unit.
11. The data processing system as in claim 10 , wherein the floating-point operation includes a 32-bit floating point input operand and the integer operation includes a 32-bit integer input operation.
12. The data processing system as in claim 10 , wherein the floating-point operation includes a 16-bit floating point input operand and the integer operation includes a 16-bit integer input operation.
13. The data processing system as in claim 12 , wherein the 16-bit floating point input operand is in a half-precision floating point format.
14. The data processing system as in claim 10 , additionally including a scheduler to independently schedule threads of the first instruction and the second instruction to the multiprocessor, wherein threads of the first instruction and the second instruction have independent thread state.
15. The data processing system as in claim 10 , wherein the instructions include a third instruction, the third instruction to cause the GPU to perform a mixed precision matrix multiply operation.
16. The data processing system as in claim 15 , wherein the third instruction is to cause the multiprocessor to compute a 32-bit product from two or more 8-bit integer operands in response to the third instruction.
17. The data processing system as in claim 15 , wherein the third instruction is to cause the multiprocessor to compute a 32-bit product from two or more 16-bit floating-point operands in response to the third instruction.
18. The data processing system as in claim 17 , wherein the two or more 16-bit floating-point operands are half-precision floating-point operands.
19. A method comprising:
decoding a first instruction and a second instruction on a graphics processing unit (GPU), the GPU having a single instruction, multiple thread architecture;
independently scheduling multiple threads of the first instruction and the second instruction, the multiple threads of the first instruction and the second instruction having independent thread state;
simultaneously executing the first instruction and the second instruction on a first multiprocessor of the GPU, wherein executing the first instruction includes performing a floating-point operation and executing the second instruction includes performing an integer operation; and
distributing a result of the first instruction and the second instruction to a second multiprocessor directly via a data crossbar that couples the first multiprocessor with the second multiprocessor, the first multiprocessor and the second multiprocessor included within a processing cluster comprising a plurality of multiprocessors.
20. The method as in claim 19 , wherein the floating-point operation includes a 32-bit floating point input operand and the integer operation includes a 32-bit integer input operation.
21. The method as in claim 19 , wherein the floating-point operation includes a 16-bit floating point input operand and the integer operation includes a 16-bit integer input operation.
22. The method as in claim 21 , wherein the 16-bit floating point input operand is in a half-precision floating point format.
23. The method as in claim 19 , additionally comprising:
decoding a third instruction, the third instruction to cause the GPU to perform a mixed precision matrix multiply operation; and
in response to the third instruction, computing a 32-bit product from two or more 8-bit integer operands or two or more 16-bit floating-point operands.
24. The method as in claim 23 , wherein the two or more 16-bit floating-point operands are half-precision floating-point operands.