About ZEROBASE
At ZEROBASE, we are building a high-performance decentralized zero-knowledge (ZK) proving network optimized for real-time computation, regulatory compliance, and large-scale commercial adoption. Our mission is to close fundamental trust gaps across global finance, where systems remain fragmented, opaque, and resistant to verification.
We operate a scalable, multi-role architecture that routes and generates ZK proofs through a HUB-Prover coordination model. This ensures high availability, low-latency task execution, and verifiability at the cryptographic level.
Our network supports a wide range of applications—including zkLogin, zkDarkPool, zkVote, zkCEX—and offers fast onboarding for developers with both standardized and custom circuit support. We are fully compatible with Circom, Gnark, and support optional decryptable proof layers for advanced enterprise integrations.
To ensure privacy and compliance, all circuit inputs are processed within TEE (Trusted Execution Environments), and never exposed to Prover operators. Every Proving Node is required to stake stablecoins, ensuring performance accountability and network security.
Our Economic Model
ZEROBASE is powered by the ZBT token, which serves as the utility backbone of the network:
- Proving Nodes earn yield by completing proof tasks, backed by mandatory stablecoin collateral and performance-based rewards.
- HUB Nodes earn continuous ZBT emissions by routing proofs and sharing bandwidth.
- General users can participate in zkStaking, where stablecoin deposits generate off-chain yield through capital-efficient strategies. All returns are zero-knowledge attested on-chain for transparency and auditability.
We combine ZK verification, TEE privacy guarantees, and a multi-asset staking layer to create a provable, compliant, and yield-generating infrastructure—bridging Web3 freedom with institutional-grade integrity.
Backed by years of core research and active ecosystem partnerships, ZEROBASE is positioned to become the foundational layer for privacy-preserving, trustless computation in both public and regulated environments.