MIVisionX#
MIVisionX toolkit is a set of comprehensive computer vision and machine intelligence libraries, utilities, and applications bundled into a single toolkit. AMD MIVisionX delivers highly optimized conformant open-source implementation of the Khronos OpenVX™ and OpenVX™ Extensions along with Convolution Neural Net Model Compiler & Optimizer supporting ONNX, and Khronos NNEF™ exchange formats. The toolkit allows for rapid prototyping and deployment of optimized computer vision and machine learning inference workloads on a wide range of computer hardware, including small embedded x86 CPUs, APUs, discrete GPUs, and heterogeneous servers.
Latest Release
Table of Contents
- Table of Contents
- Documentation
- AMD OpenVX™
- AMD OpenVX™ Extensions
- Applications
- Neural Net Model Compiler & Optimizer
- rocAL
- Toolkit
- Utilities
- Prerequisites
- Build & Install MIVisionX
- Verify the Installation
- Docker
- Technical Support
- Release Notes
- MIVisionX Dependency Map
Documentation
Run the steps below to build documentation locally.
AMD OpenVX™
AMD OpenVX™ is a highly optimized conformant open source implementation of the Khronos OpenVX™ 1.3 computer vision specification. It allows for rapid prototyping as well as fast execution on a wide range of computer hardware, including small embedded x86 CPUs and large workstation discrete GPUs.
Khronos OpenVX™ 1.0.1 conformant implementation is available in MIVisionX Lite
AMD OpenVX™ Extensions
The OpenVX framework provides a mechanism to add new vision functionality to OpenVX by vendors. This project has below mentioned OpenVX modules and utilities to extend amd_openvx, which contains the AMD OpenVX™ Core Engine.
- amd_loomsl: AMD Radeon Loom stitching library for live 360 degree video applications
- amd_media:
vx_amd_media
is an OpenVX AMD media extension module for encode and decode - amd_migraphx: amd_migraphx extension integrates the AMD's MIGraphx into an OpenVX graph. This extension allows developers to combine the vision funcions in OpenVX with the MIGraphX and build an end-to-end application for inference.
- amd_nn: OpenVX neural network module
- amd_opencv: OpenVX module that implements a mechanism to access OpenCV functionality as OpenVX kernels
- amd_rpp: OpenVX extension providing an interface to some of the RPP's (ROCm Performance Primitives) functions. This extension is used to enable rocAL to perform image augmentation.
- amd_winml: WinML extension will allow developers to import a pre-trained ONNX model into an OpenVX graph and add hundreds of different pre & post processing
vision
/generic
/user-defined
functions, available in OpenVX and OpenCV interop, to the input and output of the neural net model. This will allow developers to build an end to end application for inference.
Applications
MIVisionX has several applications built on top of OpenVX modules, it uses AMD optimized libraries to build applications that can be used to prototype or use as a model to develop products.
- Bubble Pop: This sample application creates bubbles and donuts to pop using OpenVX & OpenCV functionality.
- Cloud Inference Application: This sample application does inference using a client-server system.
- Digit Test: This sample application is used to recognize hand written digits.
- Image Augmentation: This sample application demonstrates the basic usage of rocAL's C API to load JPEG images from the disk and modify them in different possible ways and displays the output images.
- MIVisionX Inference Analyzer: This sample application uses pre-trained
ONNX
/NNEF
/Caffe
models to analyze and summarize images. - MIVisionX OpenVX Classification: This sample application shows how to run supported pre-trained caffe models with MIVisionX RunTime.
- MIVisionX Validation Tool: This sample application uses pre-trained
ONNX
/NNEF
/Caffe
models to analyze, summarize and validate models. - MIVisionX WinML Classification: This sample application shows how to run supported ONNX models with MIVisionX RunTime on Windows.
- MIVisionX WinML YoloV2: This sample application shows how to run tiny yolov2(20 classes) with MIVisionX RunTime on Windows.
- Optical Flow: This sample application creates an OpenVX graph to run Optical Flow on a video/live.
- External Applications
Neural Net Model Compiler & Optimizer
Neural Net Model Compiler & Optimizer converts pre-trained neural net models to MIVisionX runtime code for optimized inference.
rocAL
The ROCm Augmentation Library - rocAL is designed to efficiently decode and process images and videos from a variety of storage formats and modify them through a processing graph programmable by the user.
Toolkit
MIVisionX Toolkit, is a comprehensive set of helpful tools for neural net creation, development, training, and deployment. The Toolkit provides you with helpful tools to design, develop, quantize, prune, retrain, and infer your neural network work in any framework. The Toolkit is designed to help you deploy your work to any AMD or 3rd party hardware, from embedded to servers.
MIVisionX provides you with tools for accomplishing your tasks throughout the whole neural net life-cycle, from creating a model to deploying them for your target platforms.
Utilities
- inference_generator: generate inference library from pre-trained CAFFE models
- loom_shell: an interpreter to prototype 360 degree video stitching applications using a script
- RunVX: command-line utility to execute OpenVX graph described in GDF text file
- RunCL: command-line utility to build, execute, and debug OpenCL programs
Prerequisites
Hardware
- CPU: AMD64
- GPU: AMD Radeon™ Graphics [optional]
APU: AMD Radeon™
Mobile
/Embedded
[optional]Note: Some modules in MIVisionX can be built for
CPU ONLY
. To take advantage ofAdvanced Features And Modules
we recommend usingAMD GPUs
orAMD APUs
.
Operating System
Windows
- Windows
10
/11
- Windows SDK
- Visual Studio 2019 or later
- Install the latest AMD drivers
- Install OpenCL SDK
- Install OpenCV 4.6.0
- Set
OpenCV_DIR
environment variable toOpenCV/build
folder - Add
OpenCV_DIR%\x64\vc14\bin
orOpenCV_DIR%\x64\vc15\bin
to yourPATH
- Set
macOS
- macOS - Ventura
13.4
- Install Homebrew
- Install CMake
Install OpenCV
3
/4
Note: macOS build instructions
Linux
- Linux distribution
- Ubuntu -
20.04
/22.04
- CentOS -
7
/8
- RedHat -
8
/9
- SLES -
15-SP4
- Ubuntu -
- Install ROCm
- CMake 3.0 or later
- ROCm MIOpen for
Neural Net Extensions
(vx_nn) - Qt Creator for Cloud Inference Client
- Protobuf for inference generator & model compiler
- install
libprotobuf-dev
andprotobuf-compiler
needed for vx_nn
- install
- OpenCV 4.6.0
- Set
OpenCV_DIR
environment variable toOpenCV/build
folder
- Set
- FFMPEG n4.4.2
- FFMPEG is required for amd_media & mv_deploy modules
- rocAL Prerequisites
Prerequisites setup script for Linux
For the convenience of the developer, we provide the setup script MIVisionX-setup.py
which will install all the dependencies required by this project.
NOTE: This script only needs to be executed once.
Prerequisites for running the script
- Linux distribution
- Ubuntu -
20.04
/22.04
- CentOS -
7
/8
- RedHat -
8
/9
- SLES -
15-SP4
- Ubuntu -
- ROCm supported hardware
-
usage:
Note:
- ROCm upgrade with
sudo apt upgrade
requires the setup script rerun. - use
X Window
/X11
for remote GUI app control
Build & Install MIVisionX
Building on Windows
Using <tt>Visual Studio</tt>
- Install Windows Prerequisites
Use
MIVisionX.sln
to build for x64 platformNOTE:
vx_nn
is not supported onWindows
in this release
Building on macOS
macOS build instructions
Building on Linux
Using <tt>apt-get</tt> or <tt>yum</tt>
- ROCm supported hardware
- Install ROCm
- On
Ubuntu
sudo apt-get install mivisionx On
CentOS
sudo yum install mivisionxNote:
vx_winml
is not supported onLinux
- source code will not available with
apt-get
/yum
install - the installer will copy
- Executables into
/opt/rocm/bin
- Libraries into
/opt/rocm/lib
- OpenVX and module header files into
/opt/rocm/include/mivisionx
- Model compiler, & toolkit folders into
/opt/rocm/libexec/mivisionx
- Apps, & samples folder into
/opt/rocm/share/mivisionx
- Docs folder into
/opt/rocm/share/doc/mivisionx
- Executables into
- Package (.deb & .rpm) install requires
OpenCV v3+
to executeAMD OpenCV extensions
Using MIVisionX-setup.py
- Install ROCm
- Use the below commands to set up and build MIVisionX
Note: MIVisionX has support for two GPU backends: OPENCL and HIP:
- Instructions for building MIVisionX with the HIP GPU backend (i.e., default GPU backend):
- run the setup script to install all the dependencies required by the HIP GPU backend: ``` python MIVisionX-setup.py ```
- run the below commands to build MIVisionX with the HIP GPU backend: ``` mkdir build-hip cd build-hip cmake ../ make -j8 sudo cmake –build . –target PyPackageInstall sudo make install ``` Note:
PyPackageInstall
used for rocal_pybind installation- rocal_pybind not supported on windows.
sudo
required for pybind installation
- Instructions for building MIVisionX with OPENCL GPU backend:
- run the setup script to install all the dependencies required by the OPENCL GPU backend: ``` python MIVisionX-setup.py –reinstall ON –backend OCL ```
- run the below commands to build MIVisionX with the OPENCL GPU backend: ``` mkdir build-ocl cd build-ocl cmake -DBACKEND=OPENCL ../ make -j8 sudo make install ```
Note:
- MIVisionX cannot be installed for both GPU backends in the same default folder (i.e., /opt/rocm/) if an app interested in installing MIVisionX with both GPU backends, then add -DCMAKE_INSTALL_PREFIX in the cmake commands to install MIVisionX with OPENCL and HIP backends into two separate custom folders.
- vx_winml is not supported on Linux
PyPackageInstall
used for rocal_pybind installation - supported only with HIP Backend- rocal_pybind not supported on windows
sudo
required for pybind installation
Verify the Installation
Verifying on Linux / macOS
- The installer will copy
- Executables into
/opt/rocm/bin
- Libraries into
/opt/rocm/lib
- OpenVX and OpenVX module header files into
/opt/rocm/include/mivisionx
- Apps, & Samples folder into
/opt/rocm/share/mivisionx
- Documents folder into
/opt/rocm/share/doc/mivisionx
- Model Compiler, and Toolkit folder into
/opt/rocm/libexec/mivisionx
- Executables into
Run the below sample to verify the installation
Canny Edge Detection
Note: More samples are available here
Note: For macOS
use export DYLD_LIBRARY_PATH=$DYLD_LIBRARY_PATH:/opt/rocm/lib
Verifying on Windows
- MIVisionX.sln builds the libraries & executables in the folder
MIVisionX/x64
- Use RunVX to test the build
Docker
MIVisionX provides developers with docker images for Ubuntu 20.04
and CentOS 7
/ 8
. Using docker images developers can quickly prototype and build applications without having to be locked into a single system setup or lose valuable time figuring out the dependencies of the underlying software.
Docker files to build MIVisionX containers are available
MIVisionX Docker
Docker Workflow Sample on Ubuntu <tt>20.04</tt>
Sample Prerequisites
- Ubuntu
20.04
/22.04
- rocm supported hardware
Sample Workflow
- Step 1 - Install rocm-dkms
- Step 2 - Setup Docker
- Step 3 - Get Docker Image
- Step 4 - Run the docker image
Note:
- Map host directory on the docker image
- map the localhost directory to be accessed on the docker image.
- use
-v
option with docker run command:-v {LOCAL_HOST_DIRECTORY_PATH}:{DOCKER_DIRECTORY_PATH}
- usage: ``` sudo docker run -it -v /home/:/root/hostDrive/ –device=/dev/kfd –device=/dev/dri –cap-add=SYS_RAWIO –device=/dev/mem –group-add video –network host mivisionx/ubuntu-20.04:latest ```
- Display option with docker
- Using host display ``` xhost +local:root sudo docker run -it –device=/dev/kfd –device=/dev/dri –cap-add=SYS_RAWIO –device=/dev/mem –group-add video –network host –env DISPLAY=unix$DISPLAY –privileged –volume $XAUTH:/root/.Xauthority –volume /tmp/.X11-unix/:/tmp/.X11-unix mivisionx/ubuntu-20.04:latest ```
- Test display with MIVisionX sample ``` export PATH=$PATH:/opt/rocm/bin export LD_LIBRARY_PATH=$LD_LIBRARY_PATH:/opt/rocm/lib runvx /opt/rocm/share/mivisionx/samples/gdf/canny.gdf ```
Technical Support
Please email [email protected]
for questions, and feedback on MIVisionX.
Please submit your feature requests, and bug reports on the GitHub issues page.
Release Notes
Latest Release Version
Changelog
Review all notable changes with the latest release
Tested configurations
- Windows
10
/11
- Linux distribution
- Ubuntu -
20.04
/22.04
- CentOS -
7
/8
- RHEL -
8
/9
- SLES -
15-SP4
- Ubuntu -
- ROCm: rocm-core -
5.4.3.50403-121
- miopen-hip -
2.19.0.50403-121
- miopen-opencl -
2.18.0.50300-63
- migraphx -
2.4.0.50403-121
- Protobuf - V3.12.4
- OpenCV - 4.6.0
- RPP - 1.2.0
- FFMPEG - n4.4.2
- Dependencies for all the above packages
- MIVisionX Setup Script -
V2.5.4
Known issues
- OpenCV 4.X support for some apps missing
- MIVisionX Package install requires manual prerequisites installation: some prerequisites for MIVisionX are build from source and do not have equivalent packages in linux. The user has to manually install these prerequisites. Instructions for these is given below.
- Boost - Version
1.72.0
``` wget https://boostorg.jfrog.io/artifactory/main/release/1.72.0/source/boost_1_72_0.tar.bz2 tar xjvf boost_1_72_0.tar.bz2 cd ./boost_1_72_0/ ./bootstrap.sh –prefix=/usr/local –with-python=python3 ./b2 stage -j16 threading=multi link=shared cxxflags="-std=c++11" sudo ./b2 install threading=multi link=shared –with-system –with-filesystem ./b2 stage -j16 threading=multi link=static cxxflags="-std=c++11 -fpic" cflags="-fpic" sudo ./b2 install threading=multi link=static –with-system –with-filesystem `` OpenCV - Version
4.6.0- FFMPEG - Version n4.4.2
- Turbo JPEG installation - Version
2.0.6.1
``` git clone -b 2.0.6.1 https://github.com/rrawther/libjpeg-turbo.git cd libjpeg-turbo && mkdir build && cd build cmake -DCMAKE_INSTALL_PREFIX=/usr \ -DCMAKE_BUILD_TYPE=RELEASE \ -DENABLE_STATIC=FALSE \ -DCMAKE_INSTALL_DOCDIR=/usr/share/doc/libjpeg-turbo-2.0.3 \ -DCMAKE_INSTALL_DEFAULT_LIBDIR=lib \ .. make -j$nproc && sudo make install ```
- Boost - Version
MIVisionX Dependency Map
HIP Backend
Docker Image: sudo docker build -f docker/ubuntu20/{DOCKER_LEVEL_FILE_NAME}.dockerfile -t {mivisionx-level-NUMBER} .
-
new component added to the level
-
existing component from the previous level
OpenCL Backend
Docker Image: sudo docker build -f docker/ubuntu20/{DOCKER_LEVEL_FILE_NAME}.dockerfile -t {mivisionx-level-NUMBER} .
-
new component added to the level
-
existing component from the previous level
NOTE: OpenVX and the OpenVX logo are trademarks of the Khronos Group Inc.