Custom Circuit Design Interface

Drag-and-drop interface to compose ZK circuits using pre-audited, modular components. Accelerates development by abstracting complex cryptographic logic into reusable blocks.

Client Value: Reduce initial circuit design time by up to 70%.

In-browser simulation and formal verification tools to test circuit logic and constraints before compilation. Includes property-based testing and edge-case analysis.

Client Value: Catch logical flaws early, reducing audit cycles and security risks.

One-click compilation to target multiple proving backends (Groth16, Plonk, Halo2) from a single circuit definition. Optimizes for proof size, generation speed, or verification cost.

Client Value: Future-proof your application with backend-agnostic circuits.

Analytics dashboard that estimates on-chain verification gas costs and off-chain proving expenses across different networks and backends. Provides optimization recommendations.

Client Value: Make informed architectural decisions to minimize operational costs.

Generates comprehensive, standardized documentation including circuit specifications, constraint polynomials, and security assumptions formatted for third-party auditors like Trail of Bits.

Client Value: Streamline the security audit process, ensuring faster time to mainnet.

Seamlessly integrate circuit testing and compilation into your existing GitHub Actions or GitLab CI workflows. Automate checks on every pull request.

Client Value: Enforce code quality and security standards, enabling continuous deployment of ZK logic.

Expert implementation using Circom, Halo2, and Noir for complex logic. We select the optimal framework for your use case to balance proof generation speed, verification cost, and developer ergonomics.

Seamless deployment of custom circuits to Ethereum, Polygon zkEVM, zkSync Era, and Scroll. We handle the full stack from circuit logic to on-chain verifier contracts for smooth user interactions.

Secure implementation of Poseidon hashes, EdDSA/ECDSA signatures, and Merkle Trees within circuits. We apply proven cryptographic constructs to protect user data and ensure computational integrity.

Rigorous audit processes using formal verification tools like Picus and manual review. Every circuit undergoes comprehensive testing for soundness, completeness, and resistance to known vulnerabilities.