A chip up to 20x more efficient than the NVIDIA Jetson.

By leveraging compute graphs to identify inefficiencies in the compute chain, we close those gaps with ultra-efficient custom hardware blocks—creating the ultimate 'GCC for hardware' to maximize efficiency and minimize latency across the pipeline, delivering up to 20× more efficient computation.

A chip up to 20x more efficient than the NVIDIA Jetson.

By leveraging compute graphs to identify inefficiencies in the compute chain, we close those gaps with ultra-efficient custom hardware blocks—creating the ultimate 'GCC for hardware' to maximize efficiency and minimize latency across the pipeline, delivering up to 20× more efficient computation.

A chip up to 20x more efficient than the NVIDIA Jetson.

By leveraging compute graphs to identify inefficiencies in the compute chain, we close those gaps with ultra-efficient custom hardware blocks—creating the ultimate 'GCC for hardware' to maximize efficiency and minimize latency across the pipeline, delivering up to 20× more efficient computation.

Logic Circuits Optimized for Your Workload

Bring your code or AI/ML model, and we'll optimize the computing architecture and software to match.

Hardware Architecture

from compute chain

Hardware Architecture That Mirrors Your Compute Chain: Our architecture translates your compute graph directly into hardware logic blocks. Each module—whether it’s a matrix multiplication, soft-max, broadcast, or memory transfer—is synthesized to serve a specific function in your workload. No general-purpose overhead. Just pure performance.

Hardware logic circuits

Optimized Software
for this hardware

From Compute Graph to Execution: We start by analyzing your compute graph—mapping data dependencies, control flow, and bottlenecks. This stage doesn't just optimize code; it finds the most efficient execution paths, guiding the hardware to eliminate latency and idle cycles. Every instruction is placed carefully.

Optimized Sofware

Hardware Architecture

from compute chain

Hardware Architecture That Mirrors Your Compute Chain: Our architecture translates your compute graph directly into hardware logic blocks. Each module—whether it’s a matrix multiplication, soft-max, broadcast, or memory transfer—is synthesized to serve a specific function in your workload. No general-purpose overhead. Just pure performance.

Hardware logic circuits

Optimized Software
for this hardware

From Compute Graph to Execution: We start by analyzing your compute graph—mapping data dependencies, control flow, and bottlenecks. This stage doesn't just optimize code; it finds the most efficient execution paths, guiding the hardware to eliminate latency and idle cycles. Every instruction is placed carefully.

Optimized Sofware

Hardware Architecture

Hardware architecture built to run your compute chain at full utilization.

Low Latency

Custom hardware blocks for real-time performance.

Low Latency
Power Efficiency

Power Efficiency

No idle cycles or blocking operations.

Reconfigurable

Reconfigurable

Modular compute blocks adapt to your compute chain.

Optimized Software

Mapping the compute chain with maximum efficiency to freshly generated hardware.

Advance Scheduling

We analyze your compute chain to optimize execution order, reduce stalls, and minimize latency.

Optimized Sofware

Advance Scheduling

We analyze your compute chain to optimize execution order, reduce stalls, and minimize latency.

Optimized Sofware

Hardware-Oriented Software

Software is co-designed with hardware. Every instruction is scheduled with an awareness of logic placement, timing, and resources.

Hardware-Oriented Software

Hardware-Oriented Software

Software is co-designed with hardware. Every instruction is scheduled with an awareness of logic placement, timing, and resources.

Hardware-Oriented Software

AI at the Edge Devices

We enable complex AI models—LLMs, vision transformers, and VLA architectures—to run efficiently on edge devices. Our compute design delivers high performance with low power usage, while keeping data local for maximum privacy and responsiveness.