**Show HN: Immutability Redefined - A Chip that Can't be Changed by Software**

The concept of immutability in blockchain technology has been a topic of discussion for years, with many promising that their systems are unalterable. However, when issues arise, they often resort to forking their codebase or implementing "upgrades" that can have unintended consequences. But what if it were truly impossible to change the rules?

I set out to design a system where the fundamental economics of the network would be embedded in silicon at fabrication time, making it physically impossible to alter through software updates. The result is a chip with a unique transaction split mechanism, combined with other innovative features that ensure the integrity of the system.

**A Chip that Binds its Own Rules**

The heart of this design is an arithmetic circuit etched into the chip's silicon at fabrication time, which computes the 6.18% transaction split. This cannot be altered through software updates or any other means, as it requires new photomasks, re-fabrication, and replacement of every single chip.

The split itself allocates 1% to the founder, 3% to liquidity, 2.18% to maintenance, and a whopping 93.82% to users. This design ensures that no single entity can manipulate the rules for their own gain.

**Additional Features**

In addition to the immutable transaction split, this chip incorporates several other cutting-edge features:

* **SRAM-PUF identity**: Each chip is physically unique, thanks to the SRAM-PUF (Secure Random Number Generator) mechanism. * **Proof of Innovation**: Rewards are given to those who innovate and contribute value to the network, rather than simply accumulating wealth through mining. * **Logarithmic governance**: This system prevents "whale" wallets from dominating decision-making, as 1000x activity equals only 10x votes. * **30-day mortality clause**: Dead wallets revert their funds after a month, unlike Bitcoin's lost coins, which are forever gone.

**Real Performance**

Estimated to perform at ~500M transactions per second @ 500MHz, this system boasts impressive real-world performance. No "trillion-TPS" claims here - only honest estimates based on actual hardware capabilities.

The architecture is comprised of 31 fully synthesizable SystemVerilog modules, with no formal verification yet performed. It's still in the RTL (Register Transfer Level) stage and has not been fabricated yet. The estimated performance figures are provided for reference purposes only.

**Open Source and Community-Driven**

This project is entirely open source and community-driven. I invite anyone to review the architecture, find flaws, and tell me why it won't work. That's how it gets better. GitHub repository:

I'm not selling anything - just looking for constructive feedback to improve this groundbreaking system.

**Let the Criticism Begin!**

Please, take a close look at this design and tell me what you think. I want to hear your concerns, your suggestions, and your doubts. That's how we make it better together.