Introducing ChipForge: Democratizing Semiconductor Design
The semiconductor industry has a problem: it's become nearly impossible for new players to enter.
Designing a modern chip costs $500 million or more. Only a handful of giant corporations can afford to play. Innovation suffers. Progress slows.
We're here to change that.
The ChipForge Vision
ChipForge is building the world's first decentralized chip design platform on the Bittensor network.
Our vision is simple:
- Anyone can contribute to chip design
- Merit determines whose designs win
- Everyone shares in the rewards
How It Works
1. Challenge
We publish open design challenges based on the RISC-V architecture. Each challenge specifies exact requirements — from simple ALU blocks to complete neural accelerators.
2. Compete
Engineers worldwide submit RTL (Verilog) implementations. Whether you're in San Francisco or Singapore, your talent is your only barrier to entry.
3. Win
Our validator network runs industry-standard EDA tools to synthesize, simulate, and score each design. Top performers earn TAO rewards automatically.
Why Bittensor?
Bittensor provides the perfect infrastructure for decentralized chip design:
- Economic incentives — TAO rewards align everyone's interests
- Validator network — Distributed computation for verification
- Permissionless — No gatekeepers, no corporate politics
- Transparent — All designs and scores are public
The Roadmap
We're moving fast:
| Milestone | Timeline |
|---|---|
| RISC-V CPU | Q4 2024 ✓ |
| Edge AI NPUs | Q2 2025 ✓ |
| OpenMPW Tapeout | Q1 2026 |
| Real Silicon | Q3 2026 |
By the end of 2026, designs from our platform will exist as real, physical chips.
Join the Revolution
The future of chip design is open, decentralized, and accessible to everyone.
Whether you're a:
- Hardware engineer — Compete and earn TAO
- AI researcher — Get custom accelerators for your models
- Validator — Secure the network and earn rewards
There's a place for you at ChipForge.
Want to contribute?
Join our network of engineers building the future of chip design.