Heterogeneous Compute for AI Workloads
A heterogeneous compute platform integrates multiple types of processors, such as CPUs, GPUs, NPUs, within a single system to optimize performance and energy efficiency. Each processor type is specialized for particular tasks. For instance, CPUs handle general-purpose computing, GPUs excel at parallel processing, and NPUs are tailored for AI workloads. By assigning tasks to the most suitable processor, these platforms help enhance computational speed and reduce energy consumption, making them ideal for applications in AI, machine learning, and complex data processing.
Key AI Solutions from Edge to Cloud
The Arm compute platform provides the future-proof, trusted, and secure foundation for the evolution of AI. Our solutions are designed for AI everywhere, with a unique blend of performance, efficiency, and collaboration across our vast ecosystem.
Heterogeneous Computing Architecture
Arm provides the foundational architecture for next-generation, heterogeneous computing platforms, integrating CPUs, GPUs, NPUs, and system-level security to power intelligent, efficient, and secure devices.
Arm Lumex CSS
Arm Lumex CSS is an AI-first compute platform for consumer devices. It combines high-performance CPUs, advanced GPUs, and optimized software. Together, they deliver efficient, scalable on-device intelligence across next-generation mobile experiences and AI applications.
Arm Zena CSS
Arm Zena CSS is an AI-first compute platform for AI-defined vehicles. With high-performance CPUs, safety-certified subsystems, and security-enhanced hardware, it enables scalable, intelligent in-vehicle computing. This foundation powers next-generation ADAS, digital cockpit, and autonomous driving applications.
Arm Neoverse CSS
Arm Neoverse CSS delivers fully validated, performance-optimized compute building blocks, integrating Neoverse CPU cores, mesh interconnect, memory, and I/O. This approach reduces engineering risk, lower development cost, and accelerate CPU time to market across cloud, AI, 5G, and networking infrastructure.
Arm Corstone Reference Design Platform
Arm Corstone is a family of pre-integrated and verified system-on-chip (SoC) reference designs that help to accelerate the development of secure and power-efficient IoT devices and other embedded systems.
Scale and Optimize AI Workloads
To scale the AI opportunity, developers need access to rapid AI deployment methods, together with optimal performance that best suits their specific workload.
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Key Takeaways
- Heterogeneous compute powers AI workloads
Arm emphasizes the necessity of a heterogeneous architecture—CPUs for control logic, GPUs for parallel processing, and NPUs for neural acceleration—to meet AI’s performance and efficiency demands across edge, embedded, autonomous, and cloud systems. - End-to-end solutions from edge to cloud
The Arm Compute Platform includes Compute Subsystems (CSS) combining CPUs, GPUs, NPUs, and system IP; reference designs; and modular architecture, enabling scalable AI deployments from devices to datacenters. - Modular compute subsystems and reference designs accelerate innovation and speed time to market
Arm CSS packages core compute components, such as Arm Neoverse CSS for datacenter and cloud, Arm Zena CSS for automotive, and Arm Lumex CSS Platform for consumer devices, allowing partners to streamline development, speed time to market and invest in AI innovation more efficiently. - Software and resources improve AI deployment
A rich set of resources, including AI software tools, blogs, whitepapers, and guides support developers in optimizing and scaling AI workloads.
Frequently Asked Questions
Arm plays a central role in heterogeneous compute by offering a unified architecture that integrates CPUs, GPUs, NPUs, and interconnects. This allows developers to deploy the right compute engine for each task, optimizing performance and energy efficiency across AI, graphics, and control workloads.
Heterogeneous compute in AI refers to using multiple types of processors, such as CPUs, GPUs, and NPUs, within a single system to run different parts of an AI workload. Each processor type is optimized for specific tasks: CPUs manage general-purpose logic; GPUs handle high-throughput parallel operations; and NPUs accelerate machine learning inference. On Arm-based platforms, this architecture enables efficient, scalable AI execution from cloud to edge, improving performance, energy efficiency, and responsiveness for complex models like those used in generative AI.
Heterogeneous computing improves AI performance by distributing workloads across specialized processing units—CPUs, GPUs, and NPUs—each optimized for different tasks. On Arm-based platforms, this approach enables efficient use of compute resources: CPUs handle control and logic, GPUs accelerate parallel processing, and NPUs (where available) optimize AI inference. This division helps reduce bottlenecks, lower power consumption, and increase throughput, so AI models, especially generative ones, can run faster and more efficiently across cloud, edge, and endpoint environments.
Industries that rely on AI, real-time processing, or high-performance computing benefit most from heterogeneous computing. These include:
- Automotive: Enables advanced driver-assistance systems (ADAS) and in-vehicle AI by distributing tasks across CPUs, GPUs, and NPUs.
- Healthcare: Supports medical imaging and diagnostics through parallel processing and low-latency inference.
- Consumer technologies: Powers AI-driven experiences in smartphones, wearables, and smart home devices with efficient on-device compute.
- Cloud and datacenter: Improves throughput and energy efficiency for large-scale AI workloads and generative models.
- Industrial IoT: Enhances predictive maintenance and automation with efficient edge AI processing.
Heterogeneous computing allows each of these sectors to optimize for performance, power, and responsiveness based on workload needs.
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