Quantum Art Lab

Table of Contents What We Learned from 100 NFTs Larger Circuits: Beyond 8 Qubits Different Gate Sets, Different Aesthetics Error-Corrected Circuits: Pure Quantum Randomness New Processors on the Horizon Real-Time Quantum Art Quantum Art as Performance Collaboration with Quantum Labs The Emerging Quantum Creative Economy NFTs as Quantum Experiment Records Our Roadmap: Quantum Genesis v2 On March 19, 2026, we completed the minting of 100 Quantum Genesis NFTs — each one generated from measurements on real quantum computers. NFTs #1 through #18 came from Origin Quantum's WK_C180, a 180-qubit superconducting chip in Hefei, China. NFTs #19 through #100 came from IBM's ibm_fez and ibm_torino processors in the United States. The art is on IPFS. The tokens are on Polygon. The collection is live on OpenSea . Now we're asking: what's next? This post is part retrospective, part roadmap, part speculation about where quantum art goes from here. Some of these ideas ...

Table of Contents The Two Worlds: Python Off-Chain, Solidity On-Chain Compiling Solidity from Python with solcx Connecting to the Blockchain with web3.py Deploying the Contract from Python Setting the baseURI to IPFS Minting NFTs: Single and Batch Reading On-Chain State Verifying on Block Explorer The Full Automated Workflow Quantum Genesis lives in two worlds. The art — quantum circuits, measurements, SHA-256 seeds, SVG generation, PNG rendering — all happens in Python. The ownership, scarcity, and marketplace integration — ERC-721 tokens, royalties, transfers — all happens in Solidity on the Polygon blockchain. This post shows how to build the bridge between them. Everything here uses real code from our project: compiling Solidity contracts, deploying them, setting metadata URIs, and minting tokens — all from Python scripts. 1. The Two Worlds: Python Off-Chain, Solidity On-Chain Understanding the separation is critical before writing any code: Layer Language R...