Why Rayls Built an L1
At Rayls, our goal is to create a unified infrastructure that seamlessly connects traditional finance (TradFi) with decentralized finance (DeFi), enabling the tokenization of up to $100 trillion in assets and bringing 6 billion users onchain. We deeply respect the groundbreaking work done by projects across the blockchain space, including Ethereum's foundational L1 and the innovative L2 solutions built upon it. These technologies have driven tremendous progress in scalability, security, and accessibility. However, after a thorough evaluation of available options, we identified certain gaps that were particularly relevant to our focus on institutional-grade requirements like privacy, compliance, and deterministic performance. This led us to develop our own sovereign L1 as the most effective way to meet those needs without compromising on interoperability or future collaboration.
To illustrate this decision-making process, consider the following comparison of key features across major blockchain architectures, drawn from our analysis:
| Feature | Ethereum L1 | OP Rollups | ZK Rollups | Private L1s | Rayls |
|---|---|---|---|---|---|
| Deterministic finality | No | Nearly impossible | Nearly impossible | Yes | Yes |
| Stable gas fee model | No | Nearly impossible | Nearly impossible | Yes | Yes (USDr gas) |
| Censorship resistant | Yes | Yes | Yes | No | Yes (distributed validators are all trusted financial institutions, with further decentralisation in time) |
| EVM compatibility | Yes | Yes | Yes | Sometimes | Yes (Reth-based) |
| Performance (TPS) | Limited | Limited | Limited | 10,000+ | 10,000+ |
| Privacy | Limited | Limited | Limited | Possible | Yes (via Enygma) |
| Uptime | 100% | 100% | 100% | Unknown | 100% (enterprise deployments) |
| Compliance | Determined at smart contract layer | Determined at smart contract layer | Determined at smart contract layer | Unknown | Determined at smart contract layer |
| MEV Protection | No | No | No | Possible | Yes (in time) |
| Permissionless validators | Yes | Sometimes | Sometimes | Likely not | Yes (in time) |
Ethereum's L1 provides excellent censorship resistance, permissionless validators, and a robust foundation for the ecosystem. It has enabled a thriving DeFi landscape with global accessibility. However, for institutional applications, challenges such as the lack of sub-second deterministic finality, volatile gas fees, and limited native privacy can hinder real-time settlements and confidential operations—essential for TradFi workflows like credit tokenization and cross-border payments.
L2 rollups, such as those using optimistic (OP) or zero-knowledge (ZK) approaches, build admirably on Ethereum's security while improving throughput and reducing costs in many scenarios. They inherit Ethereum's strengths and have been instrumental in scaling DeFi. Yet, achieving sub-second deterministic finality remains challenging due to reliance on L1 settlement processes, and features like stable gas fees, comprehensive privacy, and built-in MEV protection are not inherently optimized for high-stakes financial environments. These limitations could introduce unpredictability in costs and expose sensitive data, which institutions prioritize avoiding.
Private L1s offer strong performance metrics, including high TPS, fast finality, and potential privacy, making them suitable for controlled settings. We value their contributions to enterprise blockchain adoption. That said, they often lack censorship resistance and permissionless validators, which can limit global interoperability and create silos—counter to our vision of bridging TradFi's private liquidity with DeFi's open markets.
The cause-and-effect here is straightforward: While existing solutions excel in many areas, no single architecture fully aligned with our requirements for combining institutional privacy and control (e.g., via Privacy Nodes and Networks) with public DeFi accessibility, all while ensuring compliance, low risk, and scalability to 10,000+ TPS. This gap prompted us to build the Rayls L1 Public Chain, powered by our novel Rayls Byzantine Fault Tolerance (RBFT) consensus mechanism (evolving into Axyl). It achieves sub-second finality in a permissionless setting, incorporates USD-pegged gas fees for stability, and uses our Enygma protocol for privacy-preserving transactions with zero-knowledge proofs and post-quantum cryptography.
Looking ahead, we're particularly excited about Ethereum's ongoing developments in privacy and scalability, which align closely with our own innovations. Initiatives like the Ethereum Foundation's dedicated Privacy Cluster and the Kohaku roadmap for enhancing wallet privacy and security are promising steps toward confidential transactions and reduced reliance on centralized services. On the scalability front, advancements such as ZK-EVM integration and efforts to support privacy-first dApp ecosystems by 2026 could further unlock global adoption. We see great potential for collaboration and are eager to explore how these evolutions can complement Rayls' ecosystem, fostering a more inclusive and efficient financial future for all.
Updated about 8 hours ago