Solid Electrolyte Crack-Driven Dendrite Shorting
Interactive fracture-mechanics simulator: a pre-existing flaw in a ceramic solid electrolyte grows into a lithium-filled crack when the electrochemical wedging stress from plating current exceeds the electrolyte's fracture toughness — tune current density, flaw size, fracture toughness and applied stack pressure and watch it arrest or run away to a short circuit.
Solid-state battery electrolytes don't fail the way liquid ones do — instead of a dendrite squeezing through free liquid, lithium metal wedges into a pre-existing microscopic flaw in the ceramic and forces it open, crack by crack, until it bridges the electrolyte. This simulator models that fracture-mechanics competition directly: an electrochemical wedging stress driven by your plating current pushes against the electrolyte's fracture toughness at a flaw of a chosen starting size, and applied stack pressure pushes back. Watch the stress-intensity factor and crack length update live as you tune the four parameters, and see the crack self-arrest at a stable length or run away to a short circuit exactly as the Griffith criterion K = σ√(πa) predicts.
A fracture-mechanics simulator: lithium metal wedges into a pre-existing flaw in a ceramic solid electrolyte, and the crack grows into a short circuit whenever the electrochemical stress intensity exceeds the electrolyte's fracture toughness — tune current density, flaw size, fracture toughness and stack pressure to arrest it or watch it run away.
3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install