NVIDIA Shifts To Open-Source GPU Kernel Modules
NVIDIA fully moves to open source GPU core modules
NVIDIA has taken an important step in its commitment to open source software. The company announced that its upcoming R560 driver will be fully switched to open source GPU core modules . This move marks a significant shift in NVIDIA's strategy for driver development and distribution.
Table of contents
- Progress and improvements
- Supported GPUs
- Installer changes
- Package Manager using CUDA Metapackage
- Run file installation
- Install Assistant Script
- Package Manager Details
- Windows Subsystem for Linux
- CUDA toolkit installation
- in conclusion
background
In May 2022, NVIDIA introduced an open source Linux GPU core module in the R515 driver. These modules are released under dual GPL and MIT licenses and were originally targeted at data center computing GPUs. At that time, support for GeForce and workstation GPUs was in the alpha stage.
Progress and improvements
Over the past two years, NVIDIA has made substantial progress:
- Performance : The performance of open source modules has now reached or exceeded the performance of closed source drivers.
- New features :
- Heterogeneous memory management (HMM) support,
- Confidential computing function,
- Support for coherent memory architectures on the Grace platform.
Supported GPUs
The transition to open source modules has different effects on different GPU generations:
- Cutting-edge platforms : Grace Hopper and Blackwell platforms require open source modules.
- Supported GPUs : Newer architectures such as Turing, Ampere, Ada Lovelace and Hopper are fully supported by open source modules.
- Unsupported GPUs : Legacy GPUs from Maxwell, Pascal, and Volta architectures require continued use of proprietary drivers due to compatibility limitations.
- Hybrid deployment : Systems with a mix of old and new GPUs should continue to use proprietary drivers for optimal performance and stability.
If you are not sure which driver to install, don't worry! NVIDIA provides a detection assistant script to guide users to select the right driver.
Installer changes
NVIDIA is changing the default installation method for all installation methods from proprietary drivers to open source drivers.
1. Package Manager using CUDA Metapackage
When installing CUDA toolkits using the package manager, the top-level cuda package installs both the CUDA toolkit and the associated driver version. For example, installing cuda during CUDA version 12.5 provides the proprietary NVIDIA driver 555 and CUDA toolkit 12.5.
Previously, using open source GPU core modules required the installation of the distribution-specific NVIDIA driver open package and the selected cuda-toolkit-XY package.
Starting with CUDA 12.6, this process has changed. The default installation now includes open source drivers.
2. Run the file installation
The .run file installer for CUDA or NVIDIA drivers is now:
- Query your hardware,
- Automatically install the most suitable drivers.
- Provides UI switching to choose between proprietary and open source drivers.
For command line or automated installations (such as Ansible ), use the following override:
<code># 用于CUDA安装sh ./cuda_12.6.0_560.22_linux.run --override --kernel-module-type=proprietary # 用于NVIDIA驱动程序安装sh ./NVIDIA-Linux-x86_64-560.run --kernel-module-type=proprietary</code>
3. Install the Assistant Script
NVIDIA provides an assistant script to guide driver selection. To use it, first install the nvidia-driver-assistant package and then run the script:
<code>$ nvidia-driver-assistant</code>
4. Package Manager Details
NVIDIA recommends using a package manager for consistent CUDA toolkit and driver installation. Here are the release-specific instructions:
Debian-based system :
Install open source drivers:
<code>$ sudo apt-get install nvidia-open</code>
For Ubuntu 20.04, first upgrade to the open kernel module, and then install the open source driver like this:
<code>$ sudo apt-get install -V nvidia-kernel-source-open $ sudo apt-get install nvidia-open</code>
RHEL-based system :
Install open source drivers:
<code>$ sudo dnf module install nvidia-driver:open-dkms</code>
To upgrade using CUDA metapackage, disable module flow:
<code>$ echo "module_hotfixes=1" | tee -a /etc/yum.repos.d/cuda*.repo $ sudo dnf install --allowerasing nvidia-open $ sudo dnf module reset nvidia-driver</code>
SUSE or OpenSUSE :
Select the appropriate command according to your kernel:
<code># 默认内核版本$ sudo zypper install nvidia-open # Azure内核版本(sles15/x86_64) $ sudo zypper install nvidia-open-azure # 64kb内核版本(sles15/sbsa)适用于Grace-Hopper $ sudo zypper install nvidia-open-64k</code>
5. Windows Subsystem for Linux
WSL users do not need to do anything because it uses the NVIDIA kernel driver from the host Windows system.
6. CUDA toolkit installation
The installation process of the CUDA toolkit remains the same. Users can install it through their package manager as before.
<code>$ sudo apt-get/dnf/zypper install cuda-toolkit</code>
For more detailed information about driver installation or CUDA toolkit settings, users can refer to the CUDA installation guide .
in conclusion
NVIDIA's move to open source GPU core modules marks a significant shift in the company's approach to driver development.
I really hope this will improve compatibility, performance, and user choice for a variety of GPU generations and Linux distributions.
resource :
- NVIDIA fully moves to open source GPU core modules
Featured image from Pixabay's Mizter_X94 .
The above is the detailed content of NVIDIA Shifts To Open-Source GPU Kernel Modules. For more information, please follow other related articles on the PHP Chinese website!

Hot AI Tools

Undresser.AI Undress
AI-powered app for creating realistic nude photos

AI Clothes Remover
Online AI tool for removing clothes from photos.

Undress AI Tool
Undress images for free

Clothoff.io
AI clothes remover

Video Face Swap
Swap faces in any video effortlessly with our completely free AI face swap tool!

Hot Article

Hot Tools

Notepad++7.3.1
Easy-to-use and free code editor

SublimeText3 Chinese version
Chinese version, very easy to use

Zend Studio 13.0.1
Powerful PHP integrated development environment

Dreamweaver CS6
Visual web development tools

SublimeText3 Mac version
God-level code editing software (SublimeText3)

Hot Topics

Linux is best used as server management, embedded systems and desktop environments. 1) In server management, Linux is used to host websites, databases, and applications, providing stability and reliability. 2) In embedded systems, Linux is widely used in smart home and automotive electronic systems because of its flexibility and stability. 3) In the desktop environment, Linux provides rich applications and efficient performance.

The five basic components of Linux are: 1. The kernel, managing hardware resources; 2. The system library, providing functions and services; 3. Shell, the interface for users to interact with the system; 4. The file system, storing and organizing data; 5. Applications, using system resources to implement functions.

Linux system management ensures the system stability, efficiency and security through configuration, monitoring and maintenance. 1. Master shell commands such as top and systemctl. 2. Use apt or yum to manage the software package. 3. Write automated scripts to improve efficiency. 4. Common debugging errors such as permission problems. 5. Optimize performance through monitoring tools.

The methods for basic Linux learning from scratch include: 1. Understand the file system and command line interface, 2. Master basic commands such as ls, cd, mkdir, 3. Learn file operations, such as creating and editing files, 4. Explore advanced usage such as pipelines and grep commands, 5. Master debugging skills and performance optimization, 6. Continuously improve skills through practice and exploration.

Linux is widely used in servers, embedded systems and desktop environments. 1) In the server field, Linux has become an ideal choice for hosting websites, databases and applications due to its stability and security. 2) In embedded systems, Linux is popular for its high customization and efficiency. 3) In the desktop environment, Linux provides a variety of desktop environments to meet the needs of different users.

Linux devices are hardware devices running Linux operating systems, including servers, personal computers, smartphones and embedded systems. They take advantage of the power of Linux to perform various tasks such as website hosting and big data analytics.

The disadvantages of Linux include user experience, software compatibility, hardware support, and learning curve. 1. The user experience is not as friendly as Windows or macOS, and it relies on the command line interface. 2. The software compatibility is not as good as other systems and lacks native versions of many commercial software. 3. Hardware support is not as comprehensive as Windows, and drivers may be compiled manually. 4. The learning curve is steep, and mastering command line operations requires time and patience.

The Internet does not rely on a single operating system, but Linux plays an important role in it. Linux is widely used in servers and network devices and is popular for its stability, security and scalability.
