AI-Powered Silicon Engineering
Turn a simple prompt into a device-locked FPGA bitfile, built from our IP and your own proven IP, with matching RISC-V firmware when your design has a processor, test it on real boards in our Remote FPGA Lab, then license it for FPGA production or take the ASIC path.
Conceptual illustration
Prompt
Illustrative stage sequence, not output from a real build. Target support is confirmed for each device and configuration.
01 · Core principle
If your prompt includes a RISC-V processor, SIGPT also generates firmware that matches it: boot code, drivers for every IP it selected, and an application skeleton written from your specification. Hardware and software come from the same spec, so they share one memory map and boot together in the Remote FPGA Lab.
Any RISC-V in the design brings a standard stack. Behaviour you describe in the prompt is added on top.
Register addresses, interrupts and clocks come from the same spec as the RTL, so drivers and hardware always line up.
Boot code, board support, drivers, an optional RTOS and your application skeleton, with build files included.
Program the bitfile, load the firmware and watch the UART console in the Remote FPGA Lab.
Firmware generation uses credits based on its complexity and code length. You see the estimate before it runs.
How firmware generation works →Upload your proven IP or custom logic, encrypted, to a private vault. SIGPT treats it as a sealed block, connects it to our IP through standard interfaces, builds one device-locked bitfile and lets you test it in the Remote FPGA Lab.
Only your organisation can access it, with named users and multi-factor sign-in. Never used for training.
SIGPT reads ports, clocks and resets, never the internals. Nothing from inside appears in reports or logs.
AXI4, AXI4-Lite, AXI4-Stream, AHB or APB. Glue logic is generated around your block.
One bitfile, tested on a real board in the Remote FPGA Lab. Your IP stays yours.
You prove the block, we prove the join. Your own blocks cost no catalogue credits.
How bring-your-own IP works →Synthesised, implemented and timing-closed for your FPGA.
FPGA Build → 02 · Test Run it on a real remote boardReserve a lab FPGA by the hour. No hardware on your desk.
Remote FPGA Lab → 03 · FPGA Production or ASIC Path Ship it, or go to siliconLicense for FPGA production, or continue with ASIC Readiness.
See your options →Build the bitfile, test it in the Remote FPGA Lab, license it, then continue toward silicon with ASIC Readiness.
From a simple prompt to a device-locked FPGA bitfile.
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Real AMD boards online 24/7 from $5/hr, plus custom setups with lab instruments.
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License the tested bitfile for production, or buy the full project source.
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Continue from your validated prototype toward an ASIC design package.
Explore →Three of our nine example projects. Each one starts with a simple prompt.
A RISC-V system that samples sensors, logs to NVMe and streams over Ethernet.
Build an FPGA-based smart data logger using a RISC-V processor integrated with SPI, I²C, GPIO, timer, AXI interconnect, DMA, DDR memory controller, 1Gb Ethernet MAC and PCIe/NVMe host IPs.
Earth-observation imagery compressed, stored reliably and queued for downlink.
Design an FPGA-based satellite payload recorder that receives Earth-observation imagery, compresses it, stores it reliably and prepares prioritized data for downlink.
Filter, timestamp and spread flows across host queues.
Build a packet-capture accelerator for my network-monitoring appliance. Filter traffic by IP address, port and VLAN, timestamp selected packets and distribute each flow consistently across host receive queues. Report capture rate, queue occupancy and packet drops.
Your prompt. A working FPGA. Test it in the Remote FPGA Lab, then license it for FPGA production or take the ASIC path.