2/ Real-time Ethereum proving marks a historic moment in the ZK space race.
The ability to prove mainnet Ethereum blocks in <12 seconds has major implications for the L1’s scalability roadmap.
3/ With SP1 Hypercube, we combined novel cryptography and relentless performance engineering to become the first zkVM to achieve real-time Ethereum proving.
In a benchmark of 10,000 mainnet blocks, 93%+ of blocks were proven in <12 secs, with an average proving time of just 10.3 secs.
4/ At the heart of SP1 Hypercube is a custom-built proof system that pushes the frontier of zkVM performance by leveraging multilinear polynomials and a new polynomial commitment scheme known as the Jagged PCS.
Read our research paper:
5/ SP1 Hypercube is also up to 5x faster for workloads vs. our previous SOTA zkVM SP1 Turbo.
6/ While we’ve long focused on arithmetization and hardware performance, SP1 Hypercube reflects our growing focus on the full stack of zkVM performance, including theory and proof system design.
7/ We expect that operating a real-time proving cluster for Ethereum requires ~160 4090 GPUs and can be built for ~$300-400k. With more cost-efficient hardware and proof system improvements, we estimate costs could be as low as ~$100k.
8/ After the SP1 Hypercube audit finishes, we will publish an open-source prover and cluster implementation, making it feasible for anyone to run their own real-time Ethereum prover.
9/ SP1 Hypercube’s verifier and our codebase for proving Ethereum blocks are open-source here and here respectively.
10/ This historic achievement has been a labor of love by our team.
With each SP1 release, we’re accelerating performance at a pace that puts ZK on a clear path to becoming dramatically easier for developers to build with.
1/ @LidoFinance is upgrading their protocol to use ZKPs.
SP1 will soon help secure over $28B of staked ETH by augmenting Lido’s oracles with verifiably computed validator statistics.
2/ Lido, the most used Liquid Staking Token (LST), currently relies on offchain oracles to compute the daily $stETH rebase.
This is done offchain because the required data is not easily accessible in the EVM. Computing it naively requires >1M hashes and bigint additions.
3/ With SP1, Lido can integrate a ZK coprocessor to shift this computation fully offchain.
These proofs can be verified for just 200-300k gas and provide additive security to the existing nine validators that secure the Lido Accounting Oracle.
Over the past few months, we collaborated closely with the @OPLabsPBC team to build OP Succinct, a seamless way to upgrade any OP Stack chain to use ZKPs in 1 hour.
Introducing SP1 GPU, a next-generation prover for SP1.
SP1 GPU brings a 10x reduction in cost and latency, another critical step towards making ZK accessible to any developer 👇
Today, SP1 achieves state of the art performance based on our precompile-centric architecture, which reduces zkVM cycle-count substantially for real-world workloads.
SP1 GPU is another phase shift in SP1's performance, driving down cost and latency by another 10x.
Our benchmarks with GPU show that parts of our prover benefit from GPU acceleration by 20x.
The dominant prover time today is spent on committing and quotient computation. With GPU this reduces substantially and is no longer a bottleneck.
1/ We are excited to announce Succinct Processor 1 (SP1), our first generation, 100% open-source zkVM that proves arbitrary Rust programs.
SP1 targets an order of magnitude performance improvement vs. existing zkVMs, and is already up to 28x faster for certain programs.
Blog:
2/ The future of programmable truth is normal code. Performant, general-purpose zkVMs like SP1 will disrupt the status quo of one-off, custom proving stacks, and create a future where all blockchain infra uses ZKPs via maintainable Rust code.blog.succinct.xyz/introducing-sp…
3/ SP1 is 100% open-source and achieves state of the art performance on real-world workloads.
Its speed comes from using the latest ZKP research, with a cross-table lookup architecture, a customizable “precompile” system that can accelerate any performance bottleneck, and more.
We're excited to introduce Telepathy, the first decentralized and secure zkSNARK interoperability protocol for Ethereum.
Read Ethereum state on any chain with the security of Ethereum's light client protocol.
Live on Mainnet today.
For the first time, Ethereum bridge security does not depend on a multisig or an optimistic fraud system. Instead, it directly verifies Ethereum validator signatures in a zkSNARK. Proof of consensus enables interoperability without compromise. Read more: blog.succinct.xyz/blog/telepathy
The core innovation powering Telepathy is something we call "proof of consensus": a zero-knowledge succinct proof of Ethereum's light client protocol, allowing us to run a gas-efficient on-chain light client for Ethereum on any chain.