Alternatives to CUDA

The Intel® Distribution of OpenVINO™ toolkit serves as an open-source AI development resource that speeds up inference on various Intel hardware platforms. This toolkit is crafted to enhance AI workflows, enabling developers to implement refined deep learning models tailored for applications in computer vision, generative AI, and large language models (LLMs). Equipped with integrated model optimization tools, it guarantees elevated throughput and minimal latency while decreasing the model size without sacrificing accuracy. OpenVINO™ is an ideal choice for developers aiming to implement AI solutions in diverse settings, spanning from edge devices to cloud infrastructures, thereby assuring both scalability and peak performance across Intel architectures. Ultimately, its versatile design supports a wide range of AI applications, making it a valuable asset in modern AI development.

Investigate the most recent advancements in optimized AI models, link AI agents to data using NVIDIA NeMo, and deploy solutions seamlessly with NVIDIA NIM microservices. NVIDIA NIM comprises user-friendly inference microservices that enable the implementation of foundation models across various cloud platforms or data centers, thereby maintaining data security while promoting efficient AI integration. Furthermore, NVIDIA AI offers access to the Deep Learning Institute (DLI), where individuals can receive technical training to develop valuable skills, gain practical experience, and acquire expert knowledge in AI, data science, and accelerated computing. AI models produce responses based on sophisticated algorithms and machine learning techniques; however, these outputs may sometimes be inaccurate, biased, harmful, or inappropriate. Engaging with this model comes with the understanding that you accept the associated risks of any potential harm stemming from its responses or outputs. As a precaution, refrain from uploading any sensitive information or personal data unless you have explicit permission, and be aware that your usage will be tracked for security monitoring. Remember, the evolving landscape of AI requires users to stay informed and vigilant about the implications of deploying such technologies.

Mojo 🔥 is an innovative programming language designed specifically for AI developers. It merges the simplicity of Python with the efficiency of C, enabling users to maximize the programmability of various AI hardware and expand AI models seamlessly. Developers can write in Python or delve deep into low-level programming without needing to work with C++ or CUDA. This allows for direct programming of diverse AI hardware components. Take full advantage of hardware capabilities, encompassing multiple cores, vector units, and specialized accelerator units, all thanks to a cutting-edge compiler and heterogeneous runtime. Experience performance levels comparable to C++ and CUDA while avoiding unnecessary complexity in your coding process. With Mojo, the future of AI development becomes more accessible and efficient than ever before.

The NVIDIA HPC Software Development Kit (SDK) offers a comprehensive suite of reliable compilers, libraries, and software tools that are crucial for enhancing developer efficiency as well as the performance and adaptability of HPC applications. This SDK includes C, C++, and Fortran compilers that facilitate GPU acceleration for HPC modeling and simulation applications through standard C++ and Fortran, as well as OpenACC® directives and CUDA®. Additionally, GPU-accelerated mathematical libraries boost the efficiency of widely used HPC algorithms, while optimized communication libraries support standards-based multi-GPU and scalable systems programming. The inclusion of performance profiling and debugging tools streamlines the process of porting and optimizing HPC applications, and containerization tools ensure straightforward deployment whether on-premises or in cloud environments. Furthermore, with compatibility for NVIDIA GPUs and various CPU architectures like Arm, OpenPOWER, or x86-64 running on Linux, the HPC SDK equips developers with all the necessary resources to create high-performance GPU-accelerated HPC applications effectively. Ultimately, this robust toolkit is indispensable for anyone looking to push the boundaries of high-performance computing.

NVIDIA Magnum IO serves as the framework for efficient and intelligent I/O in data centers operating in parallel. It enhances the capabilities of storage, networking, and communications across multiple nodes and GPUs to support crucial applications, including large language models, recommendation systems, imaging, simulation, and scientific research. By leveraging storage I/O, network I/O, in-network compute, and effective I/O management, Magnum IO streamlines and accelerates data movement, access, and management in complex multi-GPU, multi-node environments. It is compatible with NVIDIA CUDA-X libraries, optimizing performance across various NVIDIA GPU and networking hardware configurations to ensure maximum throughput with minimal latency. In systems employing multiple GPUs and nodes, the traditional reliance on slow CPUs with single-thread performance can hinder efficient data access from both local and remote storage solutions. To counter this, storage I/O acceleration allows GPUs to bypass the CPU and system memory, directly accessing remote storage through 8x 200 Gb/s NICs, which enables a remarkable achievement of up to 1.6 TB/s in raw storage bandwidth. This innovation significantly enhances the overall operational efficiency of data-intensive applications.

NVIDIA TensorRT is a comprehensive suite of APIs designed for efficient deep learning inference, which includes a runtime for inference and model optimization tools that ensure minimal latency and maximum throughput in production scenarios. Leveraging the CUDA parallel programming architecture, TensorRT enhances neural network models from all leading frameworks, adjusting them for reduced precision while maintaining high accuracy, and facilitating their deployment across a variety of platforms including hyperscale data centers, workstations, laptops, and edge devices. It utilizes advanced techniques like quantization, fusion of layers and tensors, and precise kernel tuning applicable to all NVIDIA GPU types, ranging from edge devices to powerful data centers. Additionally, the TensorRT ecosystem features TensorRT-LLM, an open-source library designed to accelerate and refine the inference capabilities of contemporary large language models on the NVIDIA AI platform, allowing developers to test and modify new LLMs efficiently through a user-friendly Python API. This innovative approach not only enhances performance but also encourages rapid experimentation and adaptation in the evolving landscape of AI applications.

The RAPIDS software library suite, designed on CUDA-X AI, empowers users to run comprehensive data science and analytics workflows entirely on GPUs. It utilizes NVIDIA® CUDA® primitives for optimizing low-level computations while providing user-friendly Python interfaces that leverage GPU parallelism and high-speed memory access. Additionally, RAPIDS emphasizes essential data preparation processes tailored for analytics and data science, featuring a familiar DataFrame API that seamlessly integrates with various machine learning algorithms to enhance pipeline efficiency without incurring the usual serialization overhead. Moreover, it supports multi-node and multi-GPU setups, enabling significantly faster processing and training on considerably larger datasets. By incorporating RAPIDS, you can enhance your Python data science workflows with minimal code modifications and without the need to learn any new tools. This approach not only streamlines the model iteration process but also facilitates more frequent deployments, ultimately leading to improved machine learning model accuracy. As a result, RAPIDS significantly transforms the landscape of data science, making it more efficient and accessible.

Software transforms a vehicle into a smart machine, and the NVIDIA DRIVE™ Software stack serves as an open platform that enables developers to effectively create and implement a wide range of advanced autonomous vehicle applications, such as perception, localization and mapping, planning and control, driver monitoring, and natural language processing. At the core of this software ecosystem lies DRIVE OS, recognized as the first operating system designed for safe accelerated computing. This system incorporates NvMedia for processing sensor inputs, NVIDIA CUDA® libraries to facilitate efficient parallel computing, and NVIDIA TensorRT™ for real-time artificial intelligence inference, alongside numerous tools and modules that provide access to hardware capabilities. The NVIDIA DriveWorks® SDK builds on DRIVE OS, offering essential middleware functions that are critical for the development of autonomous vehicles. These functions include a sensor abstraction layer (SAL) and various sensor plugins, a data recorder, vehicle I/O support, and a framework for deep neural networks (DNN), all of which are vital for enhancing the performance and reliability of autonomous systems. With these powerful resources, developers are better equipped to innovate and push the boundaries of what's possible in automated transportation.

The Cloud GPU Service is a flexible computing solution that offers robust GPU processing capabilities, ideal for high-performance parallel computing tasks. Positioned as a vital resource within the IaaS framework, it supplies significant computational power for various demanding applications such as deep learning training, scientific simulations, graphic rendering, and both video encoding and decoding tasks. Enhance your operational efficiency and market standing through the advantages of advanced parallel computing power. Quickly establish your deployment environment with automatically installed GPU drivers, CUDA, and cuDNN, along with preconfigured driver images. Additionally, speed up both distributed training and inference processes by leveraging TACO Kit, an all-in-one computing acceleration engine available from Tencent Cloud, which simplifies the implementation of high-performance computing solutions. This ensures your business can adapt swiftly to evolving technological demands while optimizing resource utilization.

NVIDIA Isaac is a comprehensive platform designed for the development of AI-driven robots, featuring an array of CUDA-accelerated libraries, application frameworks, and AI models that simplify the process of creating various types of robots, such as autonomous mobile units, robotic arms, and humanoid figures. A key component of this platform is NVIDIA Isaac ROS, which includes a suite of CUDA-accelerated computing tools and AI models that leverage the open-source ROS 2 framework to facilitate the development of sophisticated AI robotics applications. Within this ecosystem, Isaac Manipulator allows for the creation of intelligent robotic arms capable of effectively perceiving, interpreting, and interacting with their surroundings. Additionally, Isaac Perceptor enhances the rapid design of advanced autonomous mobile robots (AMRs) that can navigate unstructured environments, such as warehouses and manufacturing facilities. For those focused on humanoid robotics, NVIDIA Isaac GR00T acts as both a research initiative and a development platform, providing essential resources for general-purpose robot foundation models and efficient data pipelines, ultimately pushing the boundaries of what robots can achieve. Through these diverse capabilities, NVIDIA Isaac empowers developers to innovate and advance the field of robotics significantly.

The NVIDIA GPU-Optimized AMI serves as a virtual machine image designed to enhance your GPU-accelerated workloads in Machine Learning, Deep Learning, Data Science, and High-Performance Computing (HPC). By utilizing this AMI, you can quickly launch a GPU-accelerated EC2 virtual machine instance, complete with a pre-installed Ubuntu operating system, GPU driver, Docker, and the NVIDIA container toolkit, all within a matter of minutes. This AMI simplifies access to NVIDIA's NGC Catalog, which acts as a central hub for GPU-optimized software, enabling users to easily pull and run performance-tuned, thoroughly tested, and NVIDIA-certified Docker containers. The NGC catalog offers complimentary access to a variety of containerized applications for AI, Data Science, and HPC, along with pre-trained models, AI SDKs, and additional resources, allowing data scientists, developers, and researchers to concentrate on creating and deploying innovative solutions. Additionally, this GPU-optimized AMI is available at no charge, with an option for users to purchase enterprise support through NVIDIA AI Enterprise. For further details on obtaining support for this AMI, please refer to the section labeled 'Support Information' below. Moreover, leveraging this AMI can significantly streamline the development process for projects requiring intensive computational resources.

NVIDIA® Parabricks® stands out as the sole suite of genomic analysis applications that harnesses GPU acceleration to provide rapid and precise genome and exome analysis for various stakeholders, including sequencing centers, clinical teams, genomics researchers, and developers of high-throughput sequencing instruments. This innovative platform offers GPU-optimized versions of commonly utilized tools by computational biologists and bioinformaticians, leading to notably improved runtimes, enhanced workflow scalability, and reduced computing expenses. Spanning from FastQ files to Variant Call Format (VCF), NVIDIA Parabricks significantly boosts performance across diverse hardware setups featuring NVIDIA A100 Tensor Core GPUs. Researchers in genomics can benefit from accelerated processing throughout their entire analysis workflows, which includes stages such as alignment, sorting, and variant calling. With the deployment of additional GPUs, users can observe nearly linear scaling in computational speed when compared to traditional CPU-only systems, achieving acceleration rates of up to 107X. This remarkable efficiency makes NVIDIA Parabricks an essential tool for anyone involved in genomic analysis.

VLLM is an advanced library tailored for the efficient inference and deployment of Large Language Models (LLMs). Initially created at the Sky Computing Lab at UC Berkeley, it has grown into a collaborative initiative enriched by contributions from both academic and industry sectors. The library excels in providing exceptional serving throughput by effectively handling attention key and value memory through its innovative PagedAttention mechanism. It accommodates continuous batching of incoming requests and employs optimized CUDA kernels, integrating technologies like FlashAttention and FlashInfer to significantly improve the speed of model execution. Furthermore, VLLM supports various quantization methods, including GPTQ, AWQ, INT4, INT8, and FP8, and incorporates speculative decoding features. Users enjoy a seamless experience by integrating easily with popular Hugging Face models and benefit from a variety of decoding algorithms, such as parallel sampling and beam search. Additionally, VLLM is designed to be compatible with a wide range of hardware, including NVIDIA GPUs, AMD CPUs and GPUs, and Intel CPUs, ensuring flexibility and accessibility for developers across different platforms. This broad compatibility makes VLLM a versatile choice for those looking to implement LLMs efficiently in diverse environments.

MATLAB® offers a desktop environment specifically optimized for iterative design and analysis, paired with a programming language that allows for straightforward expression of matrix and array mathematics. It features the Live Editor, which enables users to create scripts that merge code, output, and formatted text within an interactive notebook. The toolboxes provided by MATLAB are meticulously developed, thoroughly tested, and comprehensively documented. Additionally, MATLAB applications allow users to visualize how various algorithms interact with their data. You can refine your results through repeated iterations and then easily generate a MATLAB program to replicate or automate your processes. The platform also allows for scaling analyses across clusters, GPUs, and cloud environments with minimal modifications to your existing code. There is no need to overhaul your programming practices or master complex big data techniques. You can automatically convert MATLAB algorithms into C/C++, HDL, and CUDA code, enabling execution on embedded processors or FPGA/ASIC systems. Furthermore, when used in conjunction with Simulink, MATLAB enhances the support for Model-Based Design methodologies, making it a versatile tool for engineers and researchers alike. This adaptability makes MATLAB an essential resource for tackling a wide range of computational challenges.

Unicorn Render is a sophisticated rendering software that empowers users to create breathtakingly realistic images and reach professional-grade rendering quality, even if they lack any previous experience. Its intuitive interface is crafted to equip users with all the necessary tools to achieve incredible results with minimal effort. The software is offered as both a standalone application and a plugin, seamlessly incorporating cutting-edge AI technology alongside professional visualization capabilities. Notably, it supports GPU+CPU acceleration via deep learning photorealistic rendering techniques and NVIDIA CUDA technology, enabling compatibility with both CUDA GPUs and multicore CPUs. Unicorn Render boasts features such as real-time progressive physics illumination, a Metropolis Light Transport sampler (MLT), a caustic sampler, and native support for NVIDIA MDL materials. Furthermore, its WYSIWYG editing mode guarantees that all editing occurs at the quality of the final image, ensuring there are no unexpected outcomes during the final production stage. Thanks to its comprehensive toolset and user-friendly design, Unicorn Render stands out as an essential resource for both novice and experienced users aiming to elevate their rendering projects.

NVIDIA Base Command Manager provides rapid deployment and comprehensive management for diverse AI and high-performance computing clusters, whether at the edge, within data centers, or across multi- and hybrid-cloud settings. This platform automates the setup and management of clusters, accommodating sizes from a few nodes to potentially hundreds of thousands, and is compatible with NVIDIA GPU-accelerated systems as well as other architectures. It facilitates orchestration through Kubernetes, enhancing the efficiency of workload management and resource distribution. With additional tools for monitoring infrastructure and managing workloads, Base Command Manager is tailored for environments that require accelerated computing, making it ideal for a variety of HPC and AI applications. Available alongside NVIDIA DGX systems and within the NVIDIA AI Enterprise software suite, this solution enables the swift construction and administration of high-performance Linux clusters, thereby supporting a range of applications including machine learning and analytics. Through its robust features, Base Command Manager stands out as a key asset for organizations aiming to optimize their computational resources effectively.

Fortran has been meticulously crafted for high-performance tasks in the realms of science and engineering. It boasts reliable and well-established compilers and libraries, enabling developers to create software that operates with impressive speed and efficiency. The language's static and strong typing helps the compiler identify numerous programming mistakes at an early stage, contributing to the generation of optimized binary code. Despite its compact nature, Fortran is remarkably accessible for newcomers. Writing complex mathematical and arithmetic expressions over extensive arrays feels as straightforward as jotting down equations on a whiteboard. Moreover, Fortran supports native parallel programming, featuring an intuitive array-like syntax that facilitates data exchange among CPUs. This versatility allows users to execute nearly identical code on a single processor, a shared-memory multicore architecture, or a distributed-memory high-performance computing (HPC) or cloud environment. As a result, Fortran remains a powerful tool for those aiming to tackle demanding computational challenges.

The NVIDIA Quadro Virtual Workstation provides cloud-based access to Quadro-level computational capabilities, enabling organizations to merge the efficiency of a top-tier workstation with the advantages of cloud technology. As the demand for more intensive computing tasks rises alongside the necessity for mobility and teamwork, companies can leverage cloud workstations in conjunction with conventional on-site setups to maintain a competitive edge. Included with the NVIDIA virtual machine image (VMI) is the latest GPU virtualization software, which comes pre-loaded with updated Quadro drivers and ISV certifications. This software operates on select NVIDIA GPUs utilizing Pascal or Turing architectures, allowing for accelerated rendering and simulation from virtually any location. Among the primary advantages offered are improved performance thanks to RTX technology, dependable ISV certification, enhanced IT flexibility through rapid deployment of GPU-powered virtual workstations, and the ability to scale in accordance with evolving business demands. Additionally, organizations can seamlessly integrate this technology into their existing workflows, further enhancing productivity and collaboration across teams.

MediaCoder is a versatile media transcoding application that has been in active development since 2005. This software integrates state-of-the-art audio and video technologies to provide a comprehensive transcoding solution, complete with a wide array of customizable settings that empower users to exert significant control over their transcoding processes. Constant updates introduce new features and the latest codecs, ensuring the software remains current and effective. Although it may not be the simplest tool to use, its emphasis on quality and performance is what truly sets it apart. Once familiarized with its capabilities, you’ll find it serves as an invaluable tool for all your transcoding needs. It allows conversion among the most widely used audio and video formats, supports H.264/H.265 GPU accelerated encoding through technologies like QuickSync, NVENC, and CUDA, enables the ripping of BD/DVD/VCD/CD, and captures content from video cameras. Additionally, the software enhances audio and video with various filters and boasts an extensive collection of transcoding parameters for precise adjustments and tuning. Its multi-threaded architecture and parallel filtering capabilities harness the power of multi-core processors, while the Segmental Video Encoding technology enhances parallelization efficiency, making it an exceptional choice for users seeking robust transcoding solutions.

NVIDIA® Iray® is a user-friendly rendering technology based on physical principles that produces ultra-realistic images suitable for both interactive and batch rendering processes. By utilizing advanced features such as AI denoising, CUDA®, NVIDIA OptiX™, and Material Definition Language (MDL), Iray achieves outstanding performance and exceptional visual quality—significantly faster—when used with the cutting-edge NVIDIA RTX™ hardware. The most recent update to Iray includes RTX support, which incorporates dedicated ray-tracing hardware (RT Cores) and a sophisticated acceleration structure to facilitate real-time ray tracing in various graphics applications. In the 2019 version of the Iray SDK, all rendering modes have been optimized to take advantage of NVIDIA RTX technology. This integration, combined with AI denoising capabilities, allows creators to achieve photorealistic renders in mere seconds rather than taking several minutes. Moreover, leveraging Tensor Cores found in the latest NVIDIA hardware harnesses the benefits of deep learning for both final-frame and interactive photorealistic outputs, enhancing the overall rendering experience. As rendering technology advances, Iray continues to set new standards in the industry.

Create dependable and optimized code that delivers accurate results across various Server and HPC architectures, utilizing the latest compilers and C++ standards tailored for Intel, 64-bit Arm, AMD, OpenPOWER, and Nvidia GPU platforms. Arm Forge integrates Arm DDT, a premier debugger designed to streamline the debugging process of high-performance applications, with Arm MAP, a respected performance profiler offering essential optimization insights for both native and Python HPC applications, along with Arm Performance Reports that provide sophisticated reporting features. Both Arm DDT and Arm MAP can also be used as independent products, allowing flexibility in application development. This package ensures efficient Linux Server and HPC development while offering comprehensive technical support from Arm specialists. Arm DDT stands out as the preferred debugger for C++, C, or Fortran applications that are parallel or threaded, whether they run on CPUs or GPUs. With its powerful and user-friendly graphical interface, Arm DDT enables users to swiftly identify memory errors and divergent behaviors at any scale, solidifying its reputation as the leading debugger in the realms of research, industry, and academia, making it an invaluable tool for developers. Additionally, its rich feature set fosters an environment conducive to innovation and performance enhancement.

Bright Cluster Manager offers a variety of machine learning frameworks including Torch, Tensorflow and Tensorflow to simplify your deep-learning projects. Bright offers a selection the most popular Machine Learning libraries that can be used to access datasets. These include MLPython and NVIDIA CUDA Deep Neural Network Library (cuDNN), Deep Learning GPU Trainer System (DIGITS), CaffeOnSpark (a Spark package that allows deep learning), and MLPython. Bright makes it easy to find, configure, and deploy all the necessary components to run these deep learning libraries and frameworks. There are over 400MB of Python modules to support machine learning packages. We also include the NVIDIA hardware drivers and CUDA (parallel computer platform API) drivers, CUB(CUDA building blocks), NCCL (library standard collective communication routines).

All necessary infrastructure, computing resources, and software tools (such as Cuda and various frameworks) have been established for you to train and implement your preferred deep-learning models seamlessly. You can easily launch GPU or CPU instances right from your web browser or automate the process using our Python API for greater efficiency. This flexibility ensures that you can focus on model development without worrying about the underlying setup.

Versatile software enables the conversion, editing, and playback of videos, DVDs, and audio files seamlessly. Furthermore, it allows users to freely create their own videos or GIF images. You can choose to convert a single video or batch several files for simultaneous processing. Utilizing a CUDA-enabled graphics card, it efficiently decodes and encodes videos, ensuring rapid and high-quality conversions for both HD and SD formats without any loss of quality. With the integration of NVIDIA's CUDA and AMD APP acceleration technologies, users benefit from conversion speeds that are up to six times faster, fully leveraging multi-core processors. Supported by NVIDIA® CUDA™, AMD®, and other technologies, FonePaw Video Converter Ultimate excels in efficiently decoding and encoding media. This comprehensive video converter not only facilitates the conversion of various video, audio, and DVD files but also enhances editing capabilities for superior results. With its user-friendly interface, anyone can easily navigate the software to manage their media content effectively.

NVIDIA GPU Cloud (NGC) serves as a cloud platform that harnesses GPU acceleration for deep learning and scientific computations. It offers a comprehensive catalog of fully integrated containers for deep learning frameworks designed to optimize performance on NVIDIA GPUs, whether in single or multi-GPU setups. Additionally, the NVIDIA train, adapt, and optimize (TAO) platform streamlines the process of developing enterprise AI applications by facilitating quick model adaptation and refinement. Through a user-friendly guided workflow, organizations can fine-tune pre-trained models with their unique datasets, enabling them to create precise AI models in mere hours instead of the traditional months, thereby reducing the necessity for extensive training periods and specialized AI knowledge. If you're eager to dive into the world of containers and models on NGC, you’ve found the ideal starting point. Furthermore, NGC's Private Registries empower users to securely manage and deploy their proprietary assets, enhancing their AI development journey.

Arm DDT stands out as the premier debugger for servers and high-performance computing (HPC) in research, industry, and educational settings, serving software engineers and scientists who work with C++, C, and Fortran in parallel and threaded environments across both CPUs and GPUs, including those from Intel and Arm. Renowned for its robust capabilities, Arm DDT excels at automatically identifying memory issues and divergent behavior, enabling users to attain exceptional performance across various scales. This versatile tool supports multiple server and HPC architectures, offering seamless cross-platform functionality. Additionally, it provides native parallel debugging for Python applications, ensuring comprehensive support for a range of programming needs. Arm DDT is distinguished by its leading memory debugging features and exceptional support for C++ and Fortran debugging, along with an offline mode that allows for non-interactive debugging sessions. It is also equipped to manage and visualize substantial data sets effectively. Available as a standalone tool or as a component of the Arm Forge debug and profile suite, Arm DDT boasts an intuitive graphical interface that simplifies the process of detecting memory bugs and divergent behaviors across diverse computational scales. This makes it an invaluable resource for engineers and researchers alike, ultimately facilitating the development of high-performance applications.

Ccminer is a community-driven open-source initiative designed for CUDA-compatible NVIDIA GPUs. This project supports both Linux and Windows operating systems, providing a versatile solution for miners. The purpose of this platform is to offer reliable tools for cryptocurrency mining that users can depend on. We ensure that all available open-source binaries are compiled and signed by our team for added security. While many of these projects are open-source, some may necessitate a certain level of technical expertise for proper compilation. Overall, this initiative aims to foster trust and accessibility within the cryptocurrency mining community.

DL4J leverages state-of-the-art distributed computing frameworks like Apache Spark and Hadoop to enhance the speed of training processes. When utilized with multiple GPUs, its performance matches that of Caffe. Fully open-source under the Apache 2.0 license, the libraries are actively maintained by both the developer community and the Konduit team. Deeplearning4j, which is developed in Java, is compatible with any language that runs on the JVM, including Scala, Clojure, and Kotlin. The core computations are executed using C, C++, and CUDA, while Keras is designated as the Python API. Eclipse Deeplearning4j stands out as the pioneering commercial-grade, open-source, distributed deep-learning library tailored for Java and Scala applications. By integrating with Hadoop and Apache Spark, DL4J effectively introduces artificial intelligence capabilities to business settings, enabling operations on distributed CPUs and GPUs. Training a deep-learning network involves tuning numerous parameters, and we have made efforts to clarify these settings, allowing Deeplearning4j to function as a versatile DIY resource for developers using Java, Scala, Clojure, and Kotlin. With its robust framework, DL4J not only simplifies the deep learning process but also fosters innovation in machine learning across various industries.

NVIDIA Morpheus is a cutting-edge, GPU-accelerated AI framework designed for developers to efficiently build applications that filter, process, and classify extensive streams of cybersecurity data. By leveraging artificial intelligence, Morpheus significantly cuts down both the time and expenses involved in detecting, capturing, and responding to potential threats, thereby enhancing security across data centers, cloud environments, and edge computing. Additionally, it empowers human analysts by utilizing generative AI to automate real-time analysis and responses, creating synthetic data that trains AI models to accurately identify risks while also simulating various scenarios. For developers interested in accessing the latest pre-release features and building from source, Morpheus is offered as open-source software on GitHub. Moreover, organizations can benefit from unlimited usage across all cloud platforms, dedicated support from NVIDIA AI experts, and long-term assistance for production deployments by opting for NVIDIA AI Enterprise. This combination of features helps ensure organizations are well-equipped to handle the evolving landscape of cybersecurity threats.

Darknet is a neural network framework that is open-source, developed using C and CUDA. Known for its speed and simplicity in installation, it accommodates both CPU and GPU processing. The source code is available on GitHub, where you can also explore its capabilities further. The installation process is straightforward, requiring only two optional dependencies: OpenCV for enhanced image format support and CUDA for GPU acceleration. While Darknet performs efficiently on CPUs, it boasts a performance increase of approximately 500 times when running on a GPU! To leverage this speed, you'll need an Nvidia GPU alongside the CUDA installation. By default, Darknet utilizes stb_image.h for loading images, but for those seeking compatibility with more obscure formats like CMYK jpegs, OpenCV can be employed. Additionally, OpenCV provides the functionality to visualize images and detections in real-time without needing to save them. Darknet supports the classification of images using well-known models such as ResNet and ResNeXt, and it has become quite popular for employing recurrent neural networks in applications related to time-series data and natural language processing. Whether you're a seasoned developer or a newcomer, Darknet offers an accessible way to implement advanced neural network solutions.

Mitsuba 2 is a research-focused, flexible rendering system crafted in portable C++17 and built upon the Enoki library, developed by the Realistic Graphics Lab at EPFL. It supports multiple variants, accommodating different color representations such as RGB, spectral, and monochrome, along with various vectorization options including scalar, SIMD, and CUDA, as well as capabilities for differentiable rendering. The system comprises a compact collection of core libraries supplemented by an extensive array of plugins that provide features like diverse materials, light sources, and comprehensive rendering algorithms. Mitsuba 2 aims to maintain compatibility with its predecessor, Mitsuba 0.6, ensuring a smooth transition for users. The rendering engine is backed by an extensive automated test suite created in Python, and its ongoing development is supported by several continuous integration servers that compile and verify new updates across various operating systems and compilation configurations, such as debug or release builds and single or double precision. This comprehensive testing framework enhances the robustness and reliability of the software, making it a valuable tool for researchers in the field of graphics.

Chainer is a robust, adaptable, and user-friendly framework designed for building neural networks. It facilitates CUDA computation, allowing developers to utilize a GPU with just a few lines of code. Additionally, it effortlessly scales across multiple GPUs. Chainer accommodates a wide array of network architectures, including feed-forward networks, convolutional networks, recurrent networks, and recursive networks, as well as supporting per-batch designs. The framework permits forward computations to incorporate any Python control flow statements without compromising backpropagation capabilities, resulting in more intuitive and easier-to-debug code. It also features ChainerRLA, a library that encompasses several advanced deep reinforcement learning algorithms. Furthermore, with ChainerCVA, users gain access to a suite of tools specifically tailored for training and executing neural networks in computer vision applications. The ease of use and flexibility of Chainer makes it a valuable asset for both researchers and practitioners in the field. Additionally, its support for various devices enhances its versatility in handling complex computational tasks.

Train advanced models in AI, machine learning, and deep learning effortlessly. With just a few clicks, you can scale your computing resources from a single machine to a complete fleet of virtual machines. Initiate or expand your deep learning endeavors using Lambda Cloud, which allows you to quickly get started, reduce computing expenses, and seamlessly scale up to hundreds of GPUs when needed. Each virtual machine is equipped with the latest version of Lambda Stack, featuring prominent deep learning frameworks and CUDA® drivers. In mere seconds, you can access a dedicated Jupyter Notebook development environment for every machine directly through the cloud dashboard. For immediate access, utilize the Web Terminal within the dashboard or connect via SSH using your provided SSH keys. By creating scalable compute infrastructure tailored specifically for deep learning researchers, Lambda is able to offer substantial cost savings. Experience the advantages of cloud computing's flexibility without incurring exorbitant on-demand fees, even as your workloads grow significantly. This means you can focus on your research and projects without being hindered by financial constraints.

A transformative age in data storage has emerged, as Nyriad harnesses the combined strength of GPUs and CPUs to redefine capacity, reliability, and security. By challenging traditional approaches to storage architectures, Nyriad is at the forefront of innovation with its advanced compression technology platform aimed at enhancing data storage solutions for large-scale and high-performance computing needs. Their GPU-accelerated block storage device leverages massively parallel processing to deliver exceptionally robust data storage, allowing clients to fulfill the demands of scale, security, efficiency, and performance across various computing tasks. Central to Nyriad's vision is the concept of 'liquid data,' which seamlessly navigates through storage, networking, and processing constraints to achieve optimal speed and effectiveness. This innovative approach requires strong cloud integration, and Nyriad is in the final stages of developing Ambigraph, an operating system poised to empower exascale computing capabilities. With these advancements, Nyriad is not just enhancing data storage but is also paving the way for the future of computing.

High-performance computing (HPC) serves as a fundamental element for applications in AI, machine learning, and deep learning. The Intel® oneAPI HPC Toolkit (HPC Kit) equips developers with essential tools to create, analyze, enhance, and expand HPC applications by utilizing the most advanced methods in vectorization, multithreading, multi-node parallelization, and memory management. This toolkit is an essential complement to the Intel® oneAPI Base Toolkit, which is necessary to unlock its complete capabilities. Additionally, it provides users with access to the Intel® Distribution for Python*, the Intel® oneAPI DPC++/C++ compiler, a suite of robust data-centric libraries, and sophisticated analysis tools. You can obtain everything needed to construct, evaluate, and refine your oneAPI projects at no cost. By signing up for an Intel® Developer Cloud account, you gain 120 days of access to the latest Intel® hardware—including CPUs, GPUs, FPGAs—and the full suite of Intel oneAPI tools and frameworks. This seamless experience requires no software downloads, no configuration processes, and no installations, making it incredibly user-friendly for developers at all levels.

QikkDB is a high-performance, GPU-accelerated columnar database designed to excel in complex polygon computations and large-scale data analytics. If you're managing billions of data points and require immediate insights, qikkDB is the solution you need. It is compatible with both Windows and Linux operating systems, ensuring flexibility for developers. The project employs Google Tests for its testing framework, featuring hundreds of unit tests alongside numerous integration tests to maintain robust quality. For those developing on Windows, it is advisable to use Microsoft Visual Studio 2019, with essential dependencies that include at least CUDA version 10.2, CMake 3.15 or a more recent version, vcpkg, and Boost libraries. Meanwhile, Linux developers will also require a minimum of CUDA version 10.2, CMake 3.15 or newer, and Boost for optimal operation. This software is distributed under the Apache License, Version 2.0, allowing for a wide range of usage. To simplify the installation process, users can opt for either an installation script or a Dockerfile to get qikkDB up and running seamlessly. Additionally, this versatility makes it an appealing choice for various development environments.

Hyperstack, the ultimate self-service GPUaaS Platform, offers the H100 and A100 as well as the L40, and delivers its services to the most promising AI start ups in the world. Hyperstack was built for enterprise-grade GPU acceleration and optimised for AI workloads. NexGen Cloud offers enterprise-grade infrastructure for a wide range of users from SMEs, Blue-Chip corporations to Managed Service Providers and tech enthusiasts. Hyperstack, powered by NVIDIA architecture and running on 100% renewable energy, offers its services up to 75% cheaper than Legacy Cloud Providers. The platform supports diverse high-intensity workloads such as Generative AI and Large Language Modeling, machine learning and rendering.

TrinityX is a cluster management solution that is open source and developed by ClusterVision, aimed at ensuring continuous monitoring for environments focused on High-Performance Computing (HPC) and Artificial Intelligence (AI). It delivers a robust support system that adheres to service level agreements (SLAs), enabling researchers to concentrate on their work without the burden of managing intricate technologies such as Linux, SLURM, CUDA, InfiniBand, Lustre, and Open OnDemand. By providing an easy-to-use interface, TrinityX simplifies the process of cluster setup, guiding users through each phase to configure clusters for various applications including container orchestration, conventional HPC, and InfiniBand/RDMA configurations. Utilizing the BitTorrent protocol, it facilitates the swift deployment of AI and HPC nodes, allowing for configurations to be completed in mere minutes. Additionally, the platform boasts a detailed dashboard that presents real-time data on cluster performance metrics, resource usage, and workload distribution, which helps users quickly identify potential issues and optimize resource distribution effectively. This empowers teams to make informed decisions that enhance productivity and operational efficiency within their computational environments.

Torch is a powerful framework for scientific computing that prioritizes GPU utilization and offers extensive support for various machine learning algorithms. Its user-friendly design is enhanced by LuaJIT, a fast scripting language, alongside a robust C/CUDA backbone that ensures efficiency. The primary aim of Torch is to provide both exceptional flexibility and speed in the development of scientific algorithms, all while maintaining simplicity in the process. With a rich array of community-driven packages, Torch caters to diverse fields such as machine learning, computer vision, signal processing, and more, effectively leveraging the resources of the Lua community. Central to Torch's functionality are its widely-used neural network and optimization libraries, which strike a balance between ease of use and flexibility for crafting intricate neural network architectures. Users can create complex graphs of neural networks and efficiently distribute the workload across multiple CPUs and GPUs, thereby optimizing performance. Overall, Torch serves as a versatile tool for researchers and developers aiming to advance their work in various computational domains.

Quickly set up a virtual machine on Google Cloud for your deep learning project using the Deep Learning VM Image, which simplifies the process of launching a VM with essential AI frameworks on Google Compute Engine. This solution allows you to initiate Compute Engine instances that come equipped with popular libraries such as TensorFlow, PyTorch, and scikit-learn, eliminating concerns over software compatibility. Additionally, you have the flexibility to incorporate Cloud GPU and Cloud TPU support effortlessly. The Deep Learning VM Image is designed to support both the latest and most widely used machine learning frameworks, ensuring you have access to cutting-edge tools like TensorFlow and PyTorch. To enhance the speed of your model training and deployment, these images are optimized with the latest NVIDIA® CUDA-X AI libraries and drivers, as well as the Intel® Math Kernel Library. By using this service, you can hit the ground running with all necessary frameworks, libraries, and drivers pre-installed and validated for compatibility. Furthermore, the Deep Learning VM Image provides a smooth notebook experience through its integrated support for JupyterLab, facilitating an efficient workflow for your data science tasks. This combination of features makes it an ideal solution for both beginners and experienced practitioners in the field of machine learning.

TotalView debugging software offers essential tools designed to expedite the debugging, analysis, and scaling of high-performance computing (HPC) applications. This software adeptly handles highly dynamic, parallel, and multicore applications that can operate on a wide range of hardware, from personal computers to powerful supercomputers. By utilizing TotalView, developers can enhance the efficiency of HPC development, improve the quality of their code, and reduce the time needed to bring products to market through its advanced capabilities for rapid fault isolation, superior memory optimization, and dynamic visualization. It allows users to debug thousands of threads and processes simultaneously, making it an ideal solution for multicore and parallel computing environments. TotalView equips developers with an unparalleled set of tools that provide detailed control over thread execution and processes, while also offering extensive insights into program states and data, ensuring a smoother debugging experience. With these comprehensive features, TotalView stands out as a vital resource for those engaged in high-performance computing.

Elastic computing instances equipped with GPU accelerators are ideal for various applications, including artificial intelligence, particularly deep learning and machine learning, high-performance computing, and advanced graphics processing. The Elastic GPU Service delivers a comprehensive system that integrates both software and hardware, enabling users to allocate resources with flexibility, scale their systems dynamically, enhance computational power, and reduce expenses related to AI initiatives. This service is applicable in numerous scenarios, including deep learning, video encoding and decoding, video processing, scientific computations, graphical visualization, and cloud gaming, showcasing its versatility. Furthermore, the Elastic GPU Service offers GPU-accelerated computing capabilities along with readily available, scalable GPU resources, which harness the unique strengths of GPUs in executing complex mathematical and geometric calculations, especially in floating-point and parallel processing. When compared to CPUs, GPUs can deliver an astounding increase in computing power, often being 100 times more efficient, making them an invaluable asset for demanding computational tasks. Overall, this service empowers businesses to optimize their AI workloads while ensuring that they can meet evolving performance requirements efficiently.

You can develop on your laptop, then scale the same Python code elastically across hundreds or GPUs on any cloud. Ray converts existing Python concepts into the distributed setting, so any serial application can be easily parallelized with little code changes. With a strong ecosystem distributed libraries, scale compute-heavy machine learning workloads such as model serving, deep learning, and hyperparameter tuning. Scale existing workloads (e.g. Pytorch on Ray is easy to scale by using integrations. Ray Tune and Ray Serve native Ray libraries make it easier to scale the most complex machine learning workloads like hyperparameter tuning, deep learning models training, reinforcement learning, and training deep learning models. In just 10 lines of code, you can get started with distributed hyperparameter tune. Creating distributed apps is hard. Ray is an expert in distributed execution.

IBM Spectrum Symphony® software provides robust management solutions designed for executing compute-heavy and data-heavy distributed applications across a scalable shared grid. This powerful software enhances the execution of numerous parallel applications, leading to quicker outcomes and improved resource usage. By utilizing IBM Spectrum Symphony, organizations can enhance IT efficiency, lower infrastructure-related expenses, and swiftly respond to business needs. It enables increased throughput and performance for analytics applications that require significant computational power, thereby expediting the time it takes to achieve results. Furthermore, it allows for optimal control and management of abundant computing resources within technical computing environments, ultimately reducing expenses related to infrastructure, application development, deployment, and overall management of large-scale projects. This all-encompassing approach ensures that businesses can efficiently leverage their computing capabilities while driving growth and innovation.

NVIDIA GRID® Virtual PC (GRID vPC) and Virtual Apps (GRID vApps) offer advanced virtualization solutions that create a user experience closely resembling that of a traditional PC. By utilizing server-side graphics along with extensive monitoring and management features, GRID ensures that your Virtual Desktop Infrastructure (VDI) remains relevant and efficient for future developments. This technology provides GPU acceleration to every virtual machine (VM) in your organization, facilitating an exceptional user experience while allowing your IT staff to focus on achieving business objectives and strategic initiatives. As work environments transition, whether at home or in the office, the demands of modern applications continue to escalate, requiring significantly enhanced graphics capabilities. Real-time collaboration tools like MS Teams and Zoom are essential for remote teamwork, but today’s workforce also often relies on multiple monitors to manage various applications at once. With NVIDIA vPC, organizations can effectively meet the evolving demands of the digital landscape, ensuring productivity and versatility in their operations. Ultimately, GPU acceleration with NVIDIA vPC is key to adapting to the fast-paced changes in how we work today.