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Home Mobile Qualcomm Talks Next-Gen Oryon CPU, Adreno GPU, and Hexagon NPU

Qualcomm Talks Next-Gen Oryon CPU, Adreno GPU, and Hexagon NPU

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Diagram showing Oryon CPU, Adreno GPU, and Hexagon NPU connected to task boxes and a cloud icon.
Agentic AI Platform Diagram

Ahead of its Snapdragon Summit later this month, Qualcomm disclosed the Oryon CPU, Adreno GPU, and Hexagon NPU for its next premium mobile Snapdragon platform. The NPU adds an Element Accelerator and larger shared memory, positioning it alongside the previously detailed Oryon CPU with 5 GHz Prime cores and FlexCache, and the Adreno GPU with Matrix Cores. Since it is the agentic AI era, Qualcomm is talking about the platform in terms of how AI runs on it in a bit of a teaser.

Qualcomm Oryon CPU

The Oryon CPU orchestrates agentic work, coordinating planning, tool calls, and accelerator tasks. Our Computex 2025 coverage anticipated that newer mobile Oryon designs would move into PC chips, though the current architecture here remains mobile-focused.

Diagram showing Oryon CPU, Adreno GPU, and Hexagon NPU connected to task boxes and a cloud icon.
Agentic AI Platform Diagram

The two Prime cores in the next-generation premium Snapdragon platform are rated at 5 GHz, a figure the company says marks the first mobile CPU to reach that frequency. Qualcomm attributes the design to its custom CPU microarchitecture, implementation, and subsystem.

Slide titled 'First 5 GHz mobile CPU' showing two Prime Core blocks labeled 5 GHz and six other core blocks.
First 5 GHz Mobile CPU

FlexCache is a dynamically allocated cache pool shared by heterogeneous CPU cores on the new platform.

Slide titled 'Introducing FlexCache' with CPU core blocks and a FlexCache label below them.
Introducing FlexCache

Prime cores can draw on the entire pool as workloads demand, keeping larger working sets cached and reducing system-memory accesses. Hopefully we will get more CPU details soon.

Qualcomm Adreno GPU

The Adreno GPU comprises three slices clocked at 1.45 GHz, a command processor, and one 18 MB Adreno High Performance Memory (HPM) block. HPM serves as local graphics storage for working data such as tiles and frame buffers, reducing traffic to system memory.

GPU diagram showing three rows labeled 1.45 GHz, an 18 MB Adreno HPM block, and a command processor.
Adreno GPU with 18 MB HPM

Qualcomm says this delivers a 12% power improvement over the Snapdragon 8 Elite Gen 5 baseline.

Slide titled 'High Performance Memory' with a 12% Power Improvement callout and a footnote referencing Snapdragon 8 Elite Gen5.
High Performance Memory

Each of the three GPU slices contains Matrix Cores, which bring dedicated matrix and AI processing into the graphics pipeline. Adreno High Performance Memory (HPM) keeps working data nearby, reducing reliance on external memory and improving efficiency.

GPU diagram with three slice rows, each highlighting Matrix Cores.
GPU Matrix Cores Highlight

Neural Fusion provides AI rendering and super-resolution, integrating with Unity and Unreal Engine upscaling frameworks.

Slide titled 'Adreno Neural Fusion' with a 40% power-savings claim and a footnote about an internal Dragon Alley demo.
Adreno Neural Fusion

With Neural Fusion enabled, Qualcomm reports a 40 percent power savings in its internal Dragon Alley demo.

Qualcomm Hexagon NPU

The NPU features a new Element Accelerator for transformer operations, plus vector and scalar extensions that handle AI math and agent decision or routing tasks. It supports context lengths up to 32K and includes KV-cache acceleration.

Slide titled 'Inside the Hexagon NPU' showing labels for Element Accelerator, Fast Action Loops, up to 32K context, and KV-cache acceleration.
Inside the Hexagon NPU

Shared memory grows by 50 percent, according to Qualcomm, though the company does not disclose the absolute capacity. Positioned alongside the tensor, vector, scalar, and element compute regions, this block keeps model state, context, and KV-cache near the accelerators, thereby reducing external-memory movement.

NPU diagram with a Large Shared Memory region and a 50% more memory callout, alongside Tensor, Vector, Scalar, and Element regions.
NPU Shared Memory 50% More

For INT4 models, Qualcomm reports up to 50 percent prefill uplift on its next-generation premium mobile Snapdragon platform versus the Snapdragon 8 Elite Gen 5. Prefill processes the input prompt before the model generates subsequent tokens.

Slide titled 'INT4 Models' with callouts for prefill uplift and time-to-first-token.
INT4 Models Prefill Uplift

Mixture of Experts (MoE) models up to 30 billion total parameters run on the Hexagon NPU, with roughly 3 billion active parameters routed per token generation step. Flash-to-memory expert management and caching handle the model.

Slide with text 'Up to 30B MOE Models' over a platform illustration.
Up to 30B MOE Models

The Sensing Hub captures voice input and routes it to the Oryon CPU, which orchestrates task execution.

Conceptual platform diagram showing the agentic loop with CPU, GPU, NPU, Sensing Hub, other platform labels, flow boxes, and a cloud icon.
Agentic Loop Platform Diagram

Inference workloads are dispatched to the GPU or NPU, with a cloud path available for offloading.

Final Words

The common thread is keeping data and computation close to the processing resources that use them, reducing reliance on slower system memory. We expect fairly substantial gains when this line finally makes its way into products. Hopefully we get to see them soon and also get a lot more detail on the chips.

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