Engineering intelligence into silicon — FPGA & ASIC, embedded, and AI-driven systems for teams who need hardware and software to work as one.
Four disciplines, one team — so the boundary between hardware and software stops being someone else's problem.
Custom RTL design, verification, and timing closure for high-performance, low-latency digital systems.
Learn more →Firmware and hardware-software co-design for resource-constrained devices, built for reliability in the field.
Learn more →Machine learning pipelines and edge inference, tuned to run efficiently on the hardware you actually ship.
Learn more →Full-stack and systems software that talks fluently to the hardware beneath it.
Learn more →Ingenious Technologies has over 25 years of experience across FPGA & ASIC development, embedded systems, AI, and software engineering. We know these disciplines thoroughly, and we bring a professional, dependable approach to every project we take on.
More about us →A UK engineering studio built around one idea: hardware and software should be designed by people who understand both — not handed off between teams that don't talk to each other.
Ingenious Technologies has over 25 years of experience across FPGA & ASIC development, embedded systems, AI, and software engineering. We know these disciplines thoroughly, and we bring a professional, dependable approach to every project we take on.
Most engineering teams draw a hard line between the people who build hardware and the people who build software — and that line is where projects slow down, requirements get lost in translation, and timing bugs turn up two weeks before launch. We built this studio to work on both sides of that line at once, so the boundary between hardware and software stops being someone else's problem.
Whether that means closing timing on an FPGA & ASIC design, hardening firmware for a device that has to run unattended for years, deploying AI inference on constrained hardware, or writing the systems software that ties it all together, it's handled by the same team, start to finish.
The habits that carry across every discipline we work in — from RTL to production software.
Our engineers move between hardware and software rather than working in separate silos, so integration problems get caught at the design stage, not after fabrication or deployment.
Verification, timing closure, and testing aren't a phase we get to eventually — they're built into how we design from the first block diagram.
Two decades in, our reputation rests on shipping systems that keep working in the field, not just in the demo. We plan for that from day one.
Tell us what you're building — we'll tell you honestly whether it's a fit.
FPGA & ASIC, embedded systems, AI, and software — handled by people who understand how they fit together, so the boundary between hardware and software stops being someone else's problem.
Pick one discipline or bring us the whole stack — the same team covers all four.
Custom RTL design, verification, and timing closure for high-performance, low-latency digital systems.
Learn more →Firmware and hardware-software co-design for resource-constrained devices, built for reliability in the field.
Learn more →Machine learning pipelines and edge inference, tuned to run efficiently on the hardware you actually ship.
Learn more →Full-stack and systems software that talks fluently to the hardware beneath it.
Learn more →Most projects fall into one of three shapes — we'll tell you honestly which one fits.
A defined deliverable — a board bring-up, an RTL block, a model deployed to the edge — scoped, built, and handed over.
Our engineers work inside your team and your codebase on an ongoing basis, covering the disciplines you're short on.
An outside, cross-disciplinary look at an existing design — before it ships, or before you commit to fixing it.
Tell us what you're building — we'll point you at the right discipline, or tell you if it needs all four.
Custom RTL design, verification, and timing closure for high-performance, low-latency digital systems.
Clean, well-documented Verilog/VHDL built for the timing and area budget you actually have, not just to pass simulation.
Testbenches, functional coverage, and static timing analysis, so surprises show up in simulation rather than in the lab.
Xilinx, Intel/Altera, and Lattice toolflows, from constraints to bitstream, without treating the vendor tools as a black box.
FPGA work fails quietly until it doesn't — a design that simulates clean can still miss timing on real silicon. We design with the target device's constraints in from the start: floorplanning, clock domains, and resource budget considered alongside the logic itself, not bolted on after the fact.
Most projects touch more than one discipline — here's the rest of what we do.
Ready to talk specifics?
Firmware and hardware-software co-design for resource-constrained devices, built for reliability in the field.
Bare-metal and RTOS firmware, bootloaders, and peripheral drivers, written for devices that run unattended for years.
Input on board bring-up and peripheral selection early enough that firmware isn't fighting the schematic later.
Watchdogs, power-fail handling, and update paths designed for devices you can't just walk over and reboot.
Most embedded failures happen in the field, not on the bench — a brownout during a write, a firmware update that bricks a unit, a sensor that drifts after a year of vibration. We design the boring parts (power-fail handling, watchdogs, update paths) with the same care as the interesting parts, because that’s what keeps a fleet of deployed devices out of a support queue.
Most projects touch more than one discipline — here's the rest of what we do.
Ready to talk specifics?
Machine learning pipelines and edge inference, tuned to run efficiently on the hardware you actually ship.
Training pipelines and model selection built around the constraints of the target hardware, not a GPU cluster that never ships.
Quantization, pruning, and inference optimization so models run within the power and latency budget of embedded and FPGA targets.
Pipelines for data collection, labeling, and retraining that keep a deployed model useful after launch, not just at demo time.
A model that only runs well on the training rig isn't finished. We work backward from the power, memory, and latency budget of the actual target — often the same embedded or FPGA hardware our other teams are building — so the model that gets demoed is the one that ships.
Most projects touch more than one discipline — here's the rest of what we do.
Ready to talk specifics?
Full-stack and systems software that talks fluently to the hardware beneath it.
Drivers, APIs, and middleware that sit close to the hardware and expose it cleanly to everything above.
Web and desktop applications and tooling that turn hardware data into something a user or another system can actually use.
Internal tools, test rigs, and CI pipelines that make hardware-in-the-loop testing routine instead of a one-off.
A lot of software bugs at the hardware boundary come from software engineers guessing at how the hardware behaves. Ours don't have to guess — the same studio building the firmware and RTL is available to answer exactly how a peripheral or protocol behaves, which is why the software layer tends to just work.
Most projects touch more than one discipline — here's the rest of what we do.
Ready to talk specifics?
A sample of the kind of engagements we take on across FPGA & ASIC, embedded, AI, and software — representative of our work rather than a client list.
Custom RTL for a real-time DSP pipeline, designed and verified against a strict clock-cycle latency budget.
Bare-metal firmware for a battery-powered sensor node, built around aggressive power management and an over-the-air update path.
A vision model trained, quantized, and deployed to run inference directly on embedded hardware on a factory floor.
Board bring-up and peripheral driver development for a new hardware revision, from first boot to a stable BSP.
A hardware-in-the-loop test rig and CI pipeline that turned manual bench testing into an automated regression suite.
An FPGA-based bridge between two high-speed interfaces, closing timing at line rate with margin to spare.
Tell us what you're building — we'll tell you honestly whether it's a fit.
Tell us about your project — hardware, software, or the space in between.