### Description
<!-- Describe your changes. -->
Add new option `trt_engine_cache_prefix` to customize TRTEP engine cache
prefix.
i.e:
- If user specifies `trt_engine_cache_prefix|FRCNN
trt_engine_cache_enable|true` when running FRCNN model
- the cache will be saved/loaded:
`FRCNN_2068723788287043730_*_sm80.engine`. Engine profile follows same
pattern.
- If skipping this option, the engine will be saved/loaded:
`TensorrtExecutionProvider_TRTKernel_graph_torch-jit-export_2068723788287043730_*_*_sm80.engine`
as default case.
### Motivation and Context
<!-- - Why is this change required? What problem does it solve?
- If it fixes an open issue, please link to the issue here. -->
https://github.com/microsoft/onnxruntime/issues/16708
---------
Co-authored-by: Chi Lo <Chi.Lo@microsoft.com>
Co-authored-by: Chi Lo <54722500+chilo-ms@users.noreply.github.com>
### Description
<!-- Describe your changes. -->
Pass through the ConfigOptions from the session via OpKernelInfo so that
kernel behavior can be configured.
Initial usage would be to optionally enable a fast path for ARM64 bloat16 GEMM - see #17031
Other usages could be things like selected the exact implementations of the activation functions for RNN operators instead of the default approximations (e.g. use [sigmoid_exact instead of sigmoid](2d6e2e243d/onnxruntime/core/providers/cpu/rnn/rnn_helpers.h (L379-L382)))
OpKernelInfo is already passing through things from the session state, and adding a new member of ConfigOptions
is the simpler update. It's also a more natural fit given it's providing state/info to the kernel.
### Motivation and Context
<!-- - Why is this change required? What problem does it solve?
- If it fixes an open issue, please link to the issue here. -->
### Description
Introduce AppendExecutionProvider_OpenVINO_V2 API and support for OV
2023.3.
### Context
- The API is added to facilitate customers in using published official
Microsoft onnxruntime libraries with OVEP libraries.
- Add support for OpenVINO 2023.3 official release.
- Extend operator coverage
- GH fixes
---------
Co-authored-by: Suryaprakash Shanmugam <suryaprakash.shanmugam@intel.com>
When the TRT engine cache (precompiled engine) is present, it doesn't
make sense to go over the processes of model verification, model
optimization, TRT EP's GetCapability(), TRT EP's model proto
reconstruction, calling TRT parser and engine compilation.
This PR makes TRT EP skip those processes and directly load the engine
to perform inference.
The feature request:
https://github.com/microsoft/onnxruntime/issues/18072
Features:
- Replace original model with TRT engine wrapped ONNX model. It can save
a lot of time as mentioned above.
- How to get TRT engine wrapped ONNX model?
1. Set `trt_dump_ep_context_model` provider option to "true" and run the
inference. You will find the "xxx_wrapper.onnx" at the engine cache
path. (The same logic of generating engine cache)
2. Use gen_trt_engine_wrapper_onnx_model.py
- Three provider options are added,
`trt_dump_ep_context_model`: Enable dump wrapped onnx model by TRT EP
`trt_ep_context_embed_mode`: Add embed_mode as attribute. 0 means engine
cache path, 1 means engine binary data.
`trt_ep_context_compute_capability_enable`: Add hardware_arch as
attribute. When running the model, TRT EP will check consistency between
model's hardware_arch and GPU's compute capability.
- When the engine cache path is given in the wrapped model, TRT EP will
first search for the engine file using the path (relative to model
path), if it can't find it, it will change to use the path as it is
(depends on user, could be relative to working dir or absolute path)
Note:
1. This PR includes the change of
https://github.com/microsoft/onnxruntime/pull/17751
Constraints:
1. The whole model should be fully supported by TRT.
4. Users need to make sure the engine is built with min/max/opt
optimization profiles that large enough to cover the range of all
inputs. TRT EP will simply fail and won't rebuild the engine if the
input shape is out of range during runtime.
### Description
This PR has several combined ORT ETW changes that improve ORT log
diagnosability & performance.
- The existing log behavior in the ORT API and Severity behavior remain
the same as compiled by the dev using the ORT API
- The PR keeps the existing design which has 2 TraceLogging providers
defined (although both were not used before this PR)
- Keeps great inference (inf) and session load performance even with
dynamic logging enabled (see below)
- On Windows, when ONNXRuntimeTraceLoggingProvider is enabled, then ORT
will dynamically _add_ a new sink reflecting the severity level provided
by ETW dynamically. E.G Critical - Verbose per the need at runtime
- This allows previous printf style LOGS() statements both for CPU and
NPU cases to flow to ETW via a local trace (if enabled)
- This DOES NOT add any new Telemetry which can optionally be sent to
Microsoft.
- Telemetry are ETW events marked with the Measure keyword that _can_ be
sampled if a box opts-in
- Existing Microsoft.ML.ONNXRuntime events have appropriate keywords and
levels added if they were missing
- If Execution Providers (EPs) can provide more detailed insight into
their HW or component, then this PR allows for those to be dynamically
logged instead of just at compile time
- In this PR, the QNN EP for QC NPUs can have basic or detailed
profiling enabled to give some insight into how the NPU is performing
- When the Microsoft.ML.ONNXRuntime ETW provider is enabled with the
Profiling keyword and level 5 then QC QNN basic profiling info is output
to ETW
### Motivation and Context
- This make ORT logging and diagnosability more performant (on Windows)
and available in a wider variety of runtime environments.
- The performance difference for inf times was ~300x+ drastically
better/faster when these logs were output to ETW vs just stdout (Verbose
Severity)
- This style of ETW dynamic tracing is the widely used standard for
Windows components, and even by some 3rd party software since the ETW
API is open and part of the Windows API
- These ETW based logs can be seamlessly combined with other ETW logs
such as an AI component/feature using ORT, OS CPU profiling, scheduling,
and more
- Before the PR, ORT logging is largely printf style and output to a
sink (usually stdout) only if compiled with a certain log Severity. When
enabled the previous logging (to stdout) would vastly slow down
inference times. Once compiled for release the internal ORT logs were
not accessible by anyone except the AI model developer in their dev
inner loop. That means logs could not be enabled on a lab machine, or on
a production system where the runtime behavior or performance might be
different for various reasons on a wide variety of HW.
- This change was tested with performance in mind and tested with a
mobilenet small AI model with onnxruntime_perf_test
- CPU: There was no statistical difference for inf times with the
baseline (main) or this PR whether ETW was enabled or not (both ORT
providers all keywords level 5).
- NPU (QNN on SP9 or Dev Kit 2023 QC SQ3): There was no statistical
difference for inf times with this PR whether ETW (both ORT providers
all keywords) were enabled or not for Level 5 (Verbose). This is even
with QNN Basic profiling turned on and outputting NPU stats to ETW
- As expected and designed, there was perf slowdown when Max Level 255
is enabled which translates to QNN Detailed profiling. This mirrors the
expected slowdown in the NPU when individual model operations are
monitored & recorded as well. This perf is similar to the QNN SDK
Detailed profiling performance separate from this PR. This is designed
to be above level 5 (verbose) as that is commonly the max level used in
many trace profiles and won't affect inf performance.
- Other OSes such as Linux & Android are left untouched for now.
- Out of scope for this PR but TraceLogging is available for Linux with
LTTng tracing. So in the future, this optional tracing could also be
made available on other OSes where a TraceLogging API is available
### Description
<!-- Describe your changes. -->
SessionOptions use_deterministic_compute can be set via the python API.
User request to enable setting via C API.
### Motivation and Context
<!-- - Why is this change required? What problem does it solve?
- If it fixes an open issue, please link to the issue here. -->
#17416
### Description
<!-- Describe your changes. -->
If we fail to calculate the buffer size (due to overflow) we currently
return a nullptr. This is inconsistent as an actual memory allocation
failure throws. An overflow would typically be due to bad input so an
exception makes more sense given that.
Change to throw so code using MakeUniquePtr* and AllocArray* doesn't
need to check for nullptr.
Add some extra info to the log message to help debugging.
### Motivation and Context
<!-- - Why is this change required? What problem does it solve?
- If it fixes an open issue, please link to the issue here. -->
Should help with #18905 by avoiding the invalid attempted usage of a
nullptr from the allocation. Extra info _might_ help with figuring out
where the overflow is coming from which is the real issue.
Move QNN EP provider options to session options
### Description
Need to use session option to support multi-partition for context cache feature. To smooth the transaction, move the provider options to session options first.
This is the first step for PR:
PR https://github.com/microsoft/onnxruntime/pull/18865
### Allow layer-wise recompute
Early, we need users/developers to specify the subgraphs to recompute,
now we introduced a more user-friendly way to enable recompute for all
detected stashed activation recomputation subgraphs. This scarifies
getting the best configs while makes it easier to support user
requirements when they switches from PyTorch per-layer gradient
checkpoint to ORTModule.
`ORTMODULE_MEMORY_OPT_LEVEL` is introduced to control the usage, by
default, it is 0, e.g. `USER_SPECIFIED`, all subgraphs definedin
`ORTMODULE_MEMORY_OPT_CONFIG` will be recomputed. So this is compatible
to existing recompute usage in ORTModule integrated models.
Using `ORTMODULE_MEMORY_OPT_LEVEL=1`, we will enable all recompute plans
detected, so those configs in `ORTMODULE_MEMORY_OPT_CONFIG` will not be
respected any more.
Add Unit Tests using 3 layer blooms.
https://github.com/microsoft/onnxruntime/blob/pengwa/add_aggresive_recompute/docs/Memory_Optimizer.md
### Description
Use InlinedVector<int64> instead of <int64_t,5> to reduce on the number
of template instantiations.
### Motivation and Context
The reported size reduction is small, just a few Ks. Just trying it out.
- Implement MLAS function for quantized 4-bit int Gemm (Gemm with float A and quantized 4-bit int B) for ARM NEON. This is an initial implementation. Only the M=1 path (with M being number of rows of A and C) has any optimization attempted so far. More optimization to come in future PRs.
- Connect MatMulNBits contrib op to MLAS function.
### Description
When and if `If` condition proves to be a constant value, inline the
corresponding subgraph yielding to more constant folding and
optimization.
### Motivation and Context
Newly converted models feature lots of nested `If` nodes that can be
inlined and collapsed.
In particular, for the sample models we are gaining on TorchScript
exported models.
For `HF Mobile Bert Dynamo` runtime went down from 0.069 -> 0.046. In
total, AOT inlining + `If` constant folding
yields improvement of about 50% 0.102 -> 0.046. Brining us very close to
TorchScript exported models.
`HF Bart Dynamo` further improves 0.668 -> 0.45. AOT + `If` constant
folding improves 0.98 -> 0.45
Earlier the size of
HF Mobile Bert **161Mb+**, now **98Mb**
HF Bart Dynamo pre-optimized model was about **1.2Gb**. It is now
**710MB**
### Description
<!-- Describe your changes. -->
Adding static int8 quantization support for MIGraphX Execution Provider
- Allows for parsing in calibration tables generated by Onnxruntime or
TensorRT's toolsets
- Add proper environment variables into the MIGraphX EP
- Update python API to include updating execution provider flags -> was
missing on python side
- Hook into MIGraphX's int8 quantitation and optimization of models
### Motivation and Context
<!-- - Why is this change required? What problem does it solve?
- If it fixes an open issue, please link to the issue here. -->
Required so that we can get onnxruntime to pass in models while
leveraging the existing tooling for int8 static QDQ quantization.
First step in a series of PRs which will add further static quantization
on the operator level as MIGraphX releases further support.
These changes drew heavily from the tensorRT EP should allow for similar
functionality for GPU based (versus CPU) quantization of models before
an inference is performed.
---------
Co-authored-by: Ted Themistokleous <tthemist@amd.com>
Co-authored-by: Ted Themistokleous <tedthemistokleous@amd.com>
Enable option qnn_context_priority to set QNN context priority, options:
"low", "normal", "normal_high", "high".
### Description
Enable option qnn_context_priority to set QNN context priority, options:
"low", "normal", "normal_high", "high".
This feature guarantees the model inference with higher priority. Tested
with onnxruntime_perf_test tool using same model.
1. Run the model on the NPU with single instance, the latency is 300ms.
2. Run the same model on NPU with 2 instance at same time.
Case 1:
both with same priority (high ) -- latency is 600ms
Case 2:
1 with low priority -- latency is 30,000ms
1 with high priority -- latency is 300ms
Case 3:
1 with normal priority -- latency is 15,000ms
1 with high priority -- latency is 300ms
### Description
Adds the QNN session option `htp_graph_finalization_optimization_mode`
to enable QNN graph optimizations at the expense of longer preparation
time.
### Motivation and Context
Allow enabling QNN graph optimizations per app/model.
### Description
Integration to OpenVINO 2023.1
### Motivation and Context
- Alignment with latest OpenVINO Version.
- Device name change from VPUX to NPU and Remove from supported list
until official public support is available.
---------
Co-authored-by: Sahar Fatima <sfatima.3001@gmail.com>
Co-authored-by: Saurabh Kale <saurabh1.kale@intel.com>
Co-authored-by: Suryaprakash Shanmugam <suryaprakash.shanmugam@intel.com>
Co-authored-by: sfatimar <sahar.fatima@intel.com>
I am adding a new `trt_timing_cache_path` option. Internally it is
handled as `global_cache_path_` and will be set via a fall through
approach:
1. no path provided => workdir
2. `trt_engine_cache_path` provided but no `trt_timing_cache_path` =>
`trt_engine_cache_path`
3. `trt_timing_cache_path` provided => `trt_timing_cache_path` (if not
provided `trt_engine_cache_path` will still be workdir)
### Motivation and Context
A TRT timing cache can be reused across multiple models as it only holds
kernel timings and it is common that network "patterns" are reused. This
can accelerate build times a lot.
---------
Co-authored-by: Carson M <carson@pyke.io>
Historically, DML was only able to fuse partitions when all sizes are
known in advance or when we were overriding them at session creation
time. But in practice, it should be possible to compile partitions at
compute time if the caller knows that the dimensions won't be changed
for every inference (e.g. resizing a webcam window, or padding the input
to powers of 2). This graph will be cached and reused until the sizes
change.
This is an opt-in option gated under the `enable_dynamic_graph_fusion`
option, which means that it will only be enabled when the caller
requests it since they have more context on how their model will be
called between inferences.
This PR also adds the option to disable metacommands from the python
API, which is an option for the C API but was lacking for python.
### Description
Inline functions in an EP aware fashion.
The result of this PR is that models that are having been inlined by
ONNX inliner and optimized and models that have been AOT inlined appear
to be visually identical.
For tests I used two models. The only difference is the resulting size
because ONNX inliner removes local function definitions and AOT does
not. Difference in sizes for `HF Mobile` model was 2.5 MB, and for `HF
Bart` it was ~500K. It seems that the resuling model size affects the
load time more than the actual optimizations.
In general, the inlined models grow in size very fast and can easily
exceed 2Gb limit.
Q. Should we make AOT optional?
`If` costant folding and the removal of local inlined models will be
coming in other PRs.
Some stats:
Expose a new allocator from cuda stream.
The allocator manages deferred cpu memory which only get recycled before
stream destruction.
---------
Co-authored-by: Randy Shuai <rashuai@microsoft.com>
### Description
CUDA inference speed heavily relies on Tensor Cores. To have tensor
cores achieve the optimal throughput they require the data layout to be
NHWC rather than NCHW.
### Motivation and Context
Especially for convolutional networks this is very important. I will
illustrate this using a very simple network:
```
import torch
import torch.nn as nn
class Net1(nn.Module):
def __init__(self):
super(Net1, self).__init__()
# 1 input image channel, 6 output channels, 5x5 square convolution
# kernel
self.m = nn.ModuleList([
nn.Conv2d(in_channels=8, out_channels=32, kernel_size=5, stride=1),
nn.Conv2d(in_channels=32, out_channels=64, kernel_size=3, stride=1),
nn.Conv2d(in_channels=64, out_channels=128, kernel_size=3, stride=1),
nn.Conv2d(in_channels=128, out_channels=128, kernel_size=3, stride=1, bias=False),
nn.Conv2d(in_channels=128, out_channels=128, kernel_size=3, stride=1, bias=False),
])
def forward(self, x):
for module in self.m:
x = module(x)
return x
if __name__ == "__main__":
dtype = torch.half
device = "cuda"
dummy_input = torch.randn(8, 8, 512, 512, dtype=dtype, device=device)
model = Net1().to(dtype=dtype, device=device)
input_names = ["input1"]
output_names = ["output1"]
torch.onnx.export(model, dummy_input, "test.onnx",
input_names=input_names, output_names=output_names)
```
I profiled the launch of `./build/RelWithDebInfo/onnxruntime_perf_test
-e cuda -I -q -t 5 test.onnx` using sys and nvtx ranges.
Current master launches below kernels:
If I add the introduced `-l` flag we see below kernels:
Notice the missing NCHW<>NHWC kernels per operation. The layout
optimizer introduced a transpose op as first and last op of the whole
network. The `op_generic_tensor_kernel` shows the bias used which should
also be optimized out next.
Measured across some very basic models:
| CUDA EP | **NCHW** [ms] | **NHWC** [ms] | Speedup |
|:------------------------|--------------------------------------:|-----------------------------------------:|------------------:|
| | -e cuda -t 5 -q | -e cuda -t 5 -q -l | |
| resnet101-v2-7_bs8_fp16 | 18.33 | 13.07 | 1.4 |
| resnet101-v2-7_bs8 | 21.8 | 12.06 | 1.81 |
| test | 102.07 | 73.62 | 1.39 |
Average speedup: 1.53
## Outlook
Next the mission will be to first write a templated unit test to check
for correctness of NHWC vs NCHW ops. After that we have to transition
more ops to measure perf improvements on a broader range of models.
Currently this is not easily possible as we can do not support all ops
in the NHWC domain.
---------
Co-authored-by: Tianlei Wu <tlwu@microsoft.com>
Support cross qk in beam search for whisper model and related features
Make whisper exporting tools support cross qk and some related features,
* extra_decoding_ids
* no_speech_prob
Implement DTW kernel, unfold tensor kernel with unit test Several fix
related with multiple session running parallel, like:
* guard multihead_attention, fused_fp16_runner_
* some memory allocation with stream awareness
* add use_ep_level_unified_stream option
### Description
Improve the QNN context binary cache feature to reduce the memory
overhead and initialization time overhead.
Instead of dumping a Qnn context binary file with metadata as header, we
dump a Onnx format file with metadata inside Onnx node.
### Motivation and Context
reduce the memory overhead and initialization time overhead
Two major modifications of this PR:
1. Refactor OrtTensorRTProviderOptions initialization and make it easy
to add new field.
2. Make Python API capable of using TensorRT plugins by adding new
Python binding api `register_tensorrt_plugins_as_custom_ops`. (It needs
to register ep's custom op domain before model load. For C++ API, it's
slightly different, when calling
SessionOptionsAppendExecutionProvider_TensorRT_XX, it appends cutom op
domain to session option. Later ORT can register custom op domain from
session option before model loading)
### Description
- Enables option to use the QNN Saver backend for dumping QNN API calls
to file.
- Adds logic to read environment variable
`ORT_UNIT_TEST_ENABLE_QNN_SAVER` from QNN EP unit tests. If enabled,
unit tests will use the QNN Saver backend and dump files to
`./saver_output/`.
### Motivation and Context
QNN Saver makes it easier to debug issues when unit tests fail. The
output files generated by QNN Saver can be used to replay the exact QNN
API calls that lead to a specific error condition.
QNN Saver dumps QNN API calls (and weights) to disk.
- saver_output/saver_output.c: C file containing all QNN API calls.
- saver_output/params.bin: binary file containing all
input/output/parameter tensor data provided during tensor creation, op
config validation, and graph execution.
Enabling the QNN Saver backend has 2 note-worthy effects:
1. All QNN API calls will succeed.
2. Inference output returns dummy data.
Because the output files from QNN Saver are always overwritten, it is
recommended to run individual unit tests via the `--gtest_filter`
command-line option.
Example (linux):
```shell
$ ORT_UNIT_TEST_ENABLE_QNN_SAVER=1 ./onnxruntime_test_all --gtest_filter=QnnHTPBackendTests.Resize_DownSample_Linear_AlignCorners
```
### Description
Add support for specifying a custom logging function per session.
Bindings for other languages will be added after this PR is merged.
### Motivation and Context
Users want a way to override the logging provided by the environment.
### Description
<!-- Describe your changes. -->
* Allow either an allocator or a MemBuffer to be used when creating an
OrtValue from an TensorProto
* `Tensor<std::string>` requires an allocator to allocate/free the
string values
* Forcing the buffer to be allocated outside of the Tensor doesn't seem
to provide any benefit in this usage as the Tensor class disables copy
and assignment (so we wouldn't create 2 copies of the buffer via the
Tensor class that externally managing the would buffer avoid)
* New approach means we don't need to manage the buffers in the
optimizer Info class as the Tensor dtor will do that
* Update naming - MLValue was replaced by OrtValue a long time ago
### Motivation and Context
<!-- - Why is this change required? What problem does it solve?
- If it fixes an open issue, please link to the issue here. -->
#17392
### Description
Remove `Resolve()` on the entire graph as each function is resolved.
We retain `Resolve()` after each inlining iteration.
### Motivation and Context
Poor performance for inlining the model and session initialization.
Original model before Resolve() removal
FunctionTest.Profiling (**65953 ms**)
After Resolve() Removal
FunctionTest.Profiling (**2911 ms**)
RelWithDebInfo pre-inlined model. Presumably because it runs Level1
optimizers
Non-inlined model consists of functions and Level1 optimizers have no
effect.
FunctionTest.Profiling (**9851 ms**)
### Description
<!-- Describe your changes. -->
Make status.h independent from gsl.
### Motivation and Context
<!-- - Why is this change required? What problem does it solve?
- If it fixes an open issue, please link to the issue here. -->
In the coming new feature external EP API (see the prototype
https://github.com/microsoft/onnxruntime/pull/16718), we need to expose
stream in the public header, however, stream is dependent on status.h
which is dependent on gsl. We are seeking a way to decouple stream from
gsl.
From Changming's comment offline, prefast is disabled so all
GSL_SUPPRESS are not taking any effect now. He will handle the warnings
when enable prefast in the future
### Description
Add new name "WebGPU_Buffer" to OrtMemoryInfo.
This is one of the prerequisites for supporting IO binding for WebGPU
buffer in onnxruntime-web.
list of prerequisites PRs:
#17465#17469 (this one)
In flatbuffers@v23.5.9 was broken forward declaration for
FlatBufferBuilder. Trying to compile onnxruntime falls with the
following error:
```
flatbuffers/include/flatbuffers/flatbuffer_builder.h:1420:38: error: typedef redefinition with different types ('FlatBufferBuilderImpl<false>' vs 'flatbuffers::FlatBufferBuilder')
typedef FlatBufferBuilderImpl<false> FlatBufferBuilder;
^
onnx_runtime/include/onnxruntime/core/graph/graph.h:47:11: note: previous definition is here
class FlatBufferBuilder;
```
This PR removes these declarations and puts includes instead
