Recursive Proof Circuit Construction

We design and implement custom recursive circuits using Plonk, Halo2, or Cairo, tailored to your application's logic for optimal proving time and verification gas cost.

Implement efficient proof aggregation layers to batch thousands of transactions into a single on-chain proof, drastically reducing per-transaction L1 settlement fees.

Deploy and manage high-availability proving clusters with GPU/FPGA acceleration, ensuring 99.9% uptime for real-time proof generation in production environments.

Build recursive circuits that verify state transitions and proofs from other chains (e.g., Ethereum, Cosmos), enabling secure, trust-minimized cross-chain interoperability.

Receive custom SDKs and prover/verifier libraries in Rust, Go, or TypeScript, enabling your team to seamlessly integrate and manage the recursive proof system.

Aggregate thousands of transactions into a single proof, slashing on-chain verification fees by 90-99%. This transforms the unit economics of high-frequency applications like DeFi and gaming.

Break through blockchain throughput limits. Our recursive circuits enable processing of 10,000+ TPS off-chain, with finality secured by a single on-chain proof, eliminating network congestion as a bottleneck.

Leverage battle-tested cryptographic primitives (Plonk, Groth16) and formal verification. Every aggregated proof inherits the collective security of all batched operations, auditable by users.

Deploy production-ready proof systems in weeks, not years. We provide fully managed infrastructure, SDKs, and developer tooling, so your team can focus on application logic.

Designed for a multi-chain future. Our proof aggregation layer is chain-agnostic, allowing you to verify state across Ethereum, L2s, and other ecosystems from a single, unified interface.

Built with 99.9% uptime SLAs and automated failover. Our distributed prover network ensures high availability and consistent performance for mission-critical financial applications.

We translate your zero-knowledge application logic into a formal circuit specification, defining constraints, public/private inputs, and proof systems (Plonk, Groth16, Halo2). This blueprint ensures correctness before a single line of code is written.

Our engineers hand-craft optimized R1CS or Plonkish constraint systems using Circom, Halo2, or custom DSLs. We focus on minimizing constraints for faster proving and lower on-chain verification costs.

We implement efficient recursion layers to aggregate multiple proofs into a single verifiable proof. This is critical for scaling applications like rollups and private transactions.

We profile and optimize every stage: constraint count, witness generation, and prover runtime. Techniques include custom gates, lookup arguments, and parallel computation.

Every circuit undergoes rigorous review, including manual auditing for logical bugs and side-channels, and formal verification of constraint soundness using tools like Picus.

We deliver a complete integration package: verifier smart contracts (Solidity, Cairo), prover/verifier client SDKs, and monitoring dashboards for proof generation metrics.