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COMPUTE · FPGA

FPGA Acceleration

When the hot path is too slow, too power-hungry or too jittery on a CPU, it moves to fabric. FPGA accelerators sit beside the host over PCIe or CXL and run the work — AI inference, video, cryptography, genomics, line-rate packet and data processing — with deterministic latency and throughput-per-watt a CPU cannot match.

OffloadPCIe · CXLAI inferenceVideo · cryptoLow latencyHLS · RTL
An FPGA accelerator beside the host — the hot path in fabric
FASTSTREAM TECHNOLOGIESFIG. 01 · FPGA ACCELERATIONHost CPUapplicationPCIe / CXLFPGA accelerator cardDMA / shelldata movementKernelsAI infer · videocrypto · genomicsHBM /DDROffloading the hot path to FPGA kernels beside the host delivers deterministic latency and throughput-per-watt a CPU cannot — for inference, video, crypto and line-rate data.
WHAT WE ACCELERATE

Moving the hot path to fabric.

WHY FPGA, NOT GPU OR CPU

Latency and watts.

COMMON QUESTIONS

What engineers ask about this.

01

When is an FPGA better than a GPU for acceleration?

When latency must be low and deterministic, when power-per-operation matters, or when the datapath benefits from custom precision — FPGAs win. GPUs win on raw, batchable floating-point throughput. The honest answer is workload-dependent, which is why we benchmark against the current approach before recommending fabric.

02

How does the accelerator connect to the host?

Over PCIe, or CXL where coherent host memory access helps, with a DMA/shell layer moving data between host memory and on-card HBM or DDR, and the compute kernels in fabric. Feeding the kernels with enough memory bandwidth is often the real constraint, not the compute.

03

Do you use high-level synthesis or hand-written RTL?

Both, chosen per block. HLS accelerates development for dataflow-heavy kernels; hand-written RTL is used where the last measure of performance or resource efficiency matters. The goal is the result on the card, not a methodology preference.

KEEP READING

Related work.

BUILD WITH FASTSTREAM

Bring us the difficult part.

Tell us the specification, the constraint and the deadline.