Boundless Network’s core features are a universal verifiable compute layer, a decentralized prover marketplace powered by Proof of Verifiable Work (PoVW), cross‑chain proof verification, developer‑friendly zkVM tooling, and efficient proof aggregation for low-cost on‑chain verification.

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Universal verifiable compute

  • Offloads heavy computation off‑chain and returns succinct zero‑knowledge proofs that can be verified on any supported chain, decoupling execution from consensus to unlock internet‑scale throughput.

  • Works as a chain‑agnostic layer so rollups, L1s, and dApps on ecosystems like Ethereum, Base, Solana, and Cosmos can verify results without re‑execution on every node.

Proof of Verifiable Work (PoVW)

  • Introduces a market where independent provers stake ZKC, bid for jobs, and earn rewards for generating valid proofs, aligning token emissions with useful computing rather than arbitrary work.

  • Uses ZKC as collateral for liveness and correctness guarantees, with rewards distributed to provers upon successful proof settlement on‑chain.

Decentralized prover marketplace

  • Permissionless participation for CPU/GPU clusters and data centers to supply proving power on demand, enabling elastic scaling as application needs grow.

  • Bidding/assignment workflows and settlement contracts coordinate jobs and payouts without a centralized operator, improving cost efficiency over time.

Cross‑chain verification and composability

  • “Universal proof verification” contracts let applications verify Boundless proofs across multiple chains, enabling secure cross‑chain workflows and global composability of state and liquidity.

  • Integrations with cross‑chain stacks (e.g., Wormhole/EigenLayer in ecosystem coverage) are designed to make verifiable compute portable across rollups and L1s.

Developer‑friendly zkVM and tooling

  • Built on RISC Zero’s RISC‑V zkVM so developers can write in familiar languages like Rust and C++ instead of bespoke circuit DSLs, lowering ZK adoption barriers.

  • Offers toolkits like Steel and OP Kailua to plug ZK co‑processing into EVM apps and optimistic rollups, streamlining integration for existing contracts and infrastructure.

Efficient proof aggregation

  • Batches many proofs into a single on‑chain verification to amortize gas and reduce latency, improving economic viability at scale for diverse workloads.

  • Shared verification costs make ZK more affordable as demand rises, supporting high‑throughput use cases like DeFi risk, oracle updates, and rollup fault/finality proofs.

Security and trust guarantees

  • Verifiable compute preserves target‑chain security assumptions; proofs inherit settlement chain security while keeping sensitive execution off‑chain.

  • Permissionless verification on destination chains ensures censorship resistance and transparent correctness without trusting centralized services.



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