Edge AI Silicon · Founded for the post-GPU inference era

Hardware executes.
Software only configures.

Chipveda designs deterministic AI silicon for edge inference — systems that run language and vision models from fixed hardware state machines, without an operating system, a driver stack, or a scheduler standing between the model and the result.

SIGNAL // deterministic_clock jitter: 0.00 ns — by design, not by luck

Inference accelerators inherited a software stack built for training. We didn't inherit it.

Most AI accelerators bolt a chip onto the same runtime, driver, and scheduler stack used for training clusters — because that stack already existed. At the edge, that inheritance becomes the bottleneck: every layer between the model and the silicon is a layer that can stall, jitter, or fail open. Chipveda's architecture removes the inheritance.

The inherited stack
OS scheduler arbitrates every inference call against everything else on the device
A driver and runtime sit resident in memory for the life of the workload
Worst-case latency is a statistical claim, not a guarantee
Power and silicon area spent on generality the edge workload never uses
Chipveda's silicon
A hardware loader configures the chip once at deploy time, then steps aside
Inference runs from fixed-function state machines — no resident runtime
Worst-case latency is a hardware property, bounded and provable
Every transistor on the inference path is there because the workload uses it
PRINCIPLE 01

Configure once, execute forever

The model is compiled to a hardware configuration at deploy time. From the first token onward, nothing resembling a software scheduler is in the critical path.

PRINCIPLE 02

Security below the firmware line

On-chip communication between functional blocks is encrypted and authenticated in hardware, with keys that no firmware update can ever read out.

PRINCIPLE 03

Built for what's next, not just now

A portion of the fabric stays reconfigurable by design — long enough to track how inference architectures evolve without a silicon respin.

0
resident software schedulers on the inference path
3
silicon generations mapped: FPGA, AI-class FPGA, ASIC
2
model families supported natively in hardware lanes
256b
on-die fabric encryption, keys fused at manufacture

A real sequence, not a slide. Every stage is in motion.

Chipveda's architecture is being proven on hardware before a single mask is cut. Each stage exists to retire risk the one before it couldn't reach.

Stage 1

FPGA prototype

Core architecture running on commercial evaluation hardware — proving the control philosophy before committing it to silicon.

In progress
Stage 2

AI-class FPGA

Migration to a platform built for AI workloads at scale, validating the architecture against real model throughput and power targets.

Next
Stage 3

ASIC tapeout

Advanced-node production silicon. Everything proven in stages one and two, fixed permanently into hardware.

Planned

We're building the team that gets to do this once and get it right.

Chipveda is small on purpose. Every engineer here owns real silicon, not a slice of a slice of someone else's architecture. If the idea of inference with no scheduler in the loop sounds like the right problem to spend years on, we want to talk to you.

RTL Design Engineer Silicon Architecture
Verification Engineer Silicon Architecture
Compiler / Model Toolchain Engineer Software
Physical Design Engineer Silicon Architecture
Don't see your role? We're still small enough that this matters

Edge inference is becoming a hardware problem again. We started there.

We share architecture detail, benchmarks, and the full development roadmap directly with qualified investors under a brief conversation first — not published here, by design. Reach out and we'll set up time.

Investor relations
invest@chipveda.com