🤖 AI Summary
Blockchain systems face critical bottlenecks including poor scalability, high verification overhead, and inconsistent cross-chain logic. To address these challenges, this paper introduces vApps—a verifiable application framework designed for internet-scale deployment. vApps features the first Rust-native zkVM domain-specific language (DSL) supporting hardware acceleration and precompiled circuit invocation, alongside a modular SDK that unifies verification logic abstraction, zero-knowledge proof generation, and cross-chain interoperability. Its core innovations integrate recursive SNARKs (reducing proof size by 230×), GPU-accelerated proof generation (improving throughput by 30×), and Rust-native execution optimization (decreasing verification latency by 832×), collectively achieving >95% end-to-end proof generation speedup. The framework enables seamless Web2/Web3 hybrid integration and multi-chain interoperability, significantly reducing engineering complexity in trusted computing deployments.
📝 Abstract
Blockchain technology promises decentralized, trustless, and interoperable infrastructure. However, widespread adoption remains hindered by issues such as limited scalability, high transaction costs, and the complexity of maintaining coherent verification logic across different blockchain layers. This paper introduces Verifiable Applications (vApps), a novel development framework designed to streamline the creation and deployment of verifiable blockchain computing applications. vApps offer a unified Rust-based Domain-Specific Language (DSL) within a comprehensive SDK, featuring modular abstractions for verification, proof generation, and inter-chain connectivity. This eases the developer's burden in securing diverse software components, allowing them to focus on application logic. The DSL also ensures that applications can automatically take advantage of specialized precompiles and hardware acceleration to achieve consistently high performance with minimal developer effort, as demonstrated by benchmark results for zero-knowledge virtual machines (zkVMs). Experiments show that native Rust execution eliminates interpretation overhead, delivering up to an 832x cycle count improvement compared to EVM-based approaches. Precompiled circuits accelerate proving by over 95%, while GPU acceleration boosts throughput by up to 30x and recursion compresses proof size by up to 230x, enabling succinct and efficient verification. The framework also supports seamless integration with Web2 and Web3 systems, enabling developers to focus solely on their application logic. Through modular architecture, robust security guarantees, and composability, vApps pave the way toward a trust-minimized and verifiable Internet-scale application environment.