How This Blockchain Works

This is a live simulation of a blockchain running inside a D3.js force‑directed physics graph. Blocks are not mined on a schedule — they are minted by emergent physical events in the scene.

• Sentry turret fires 3‑round bursts at random skill nodes. Target selection and bullet trajectories are governed by live node positions, which themselves drift under many‑body gravitational forces, collision repulsion, and card‑area obstacle fields.
• Minting trigger: when a bullet strikes a blockchain‑category node (Cryptography, ZK Proofs, Smart Contracts, Ouroboros…), a new block is appended to this chain.
• Randomness sources: D3 force simulation (charge, collision, link tension), Lissajous drone flight path pulling the graph’s center of mass, KUKA robot pick‑and‑place repositioning nodes, sentry cooldown jitter (3“–7.7“), barrel tracking lag, and bullet travel time through moving targets.
• Block data: each block records the struck node’s label, a timestamp, a hash derived from label + index + epoch, and a pointer to the previous block’s hash — mirroring a real chain’s linked‑hash structure.
• Node respawn: destroyed nodes teleport to a random open‑space coordinate, rejoining their parent links. This reshuffles the graph’s topology, altering future bullet paths and mint timing unpredictably.

Every visit produces a unique chain. No two sessions will ever generate the same sequence of blocks.