A language for intent-centric and declarative decentralised applications
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Updated
Nov 5, 2025 - Haskell
A language for intent-centric and declarative decentralised applications
🕸️ Graphs, finite fields and discrete dynamical systems in Kotlin
A framework to execute and verify algorithms using Groth16 zkSNARKs.
ZPiE: Zero-knowledge Proofs in Embedded systems
Sparse Circuits on the GPU (ICLR2025)
Solutions for The Nand Game, a game that teaches the fundamentals of computing by building a computer from scratch.
Plonk grand product copy-constraint permutation argument tracking wire routing equality
Rank-1 Constraint System (R1CS) to Quadratic Arithmetic Program (QAP) transformation using polynomial roots and witness verification.
Rank-1 Constraint System (R1CS) to Quadratic Arithmetic Program (QAP) transformation using polynomial roots and witness verification.
Plonk grand product copy-constraint permutation argument tracking wire routing equality
Experiments with circuit compilation and zk-snarks
Circuits, Proofs, and Algebra: research papers and reproducible code on complexity lower bounds, motivated by P vs NP and VP vs VNP.
Fault injection environment (finjenv) of permanent hardware faults for various arithmetic circuits based on QuestaSIM logic simulator
Rust implementation of some Arithmetization-Oriented cryptographic primitives in the Plonk framework
A collection of synthesizable hardware modules and digital design patterns implemented in SystemVerilog. Features optimized RTL for arithmetic units (BCLA, Booth's algorithm) and memory structures (Sync FIFO) with verification suites.
Sublinear-space zero-knowledge proof system with production REST API. TinyZKP is a high-performance ZKP prover/verifier that uses only O(√T) memory for proofs over traces of length T, rather than the typical O(T) that most systems require.
Designed and simulated ultra low-voltage, low-power CMOS 5:2 compressors in Cadence Virtuoso, based on Figure 13 from the referenced IEEE paper. Focused on optimizing power, delay, and area for efficient high-speed arithmetic circuits used in VLSI and DSP applications.
approximations of arithmetic circuits using Cartesian Genetic Programming
Rectangular matrix multiplication over arbitrary and noncommutative rings: exponent 9/4 (2.25), dual exponent >= 1/2, shared-leg entropy, Lean 4 formal proofs. 任意环与非交换环上的矩阵乘法形式化证明。
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