HomeNanotechnology & MEMSMicropillar Strain-Burst Portrait: Size Effect & Avalanche Statistics

Micropillar Strain-Burst Portrait: Size Effect & Avalanche Statistics

2D companion to the micropillar compression tank view: a draggable pillar schematic plus a stress-strain avalanche chart, a log-log strain-burst histogram, and a size-effect curve, all driven by the same source-limited dislocation avalanche model.

Nanotechnology & MEMS2DAdvanced60 FPS📱 Mobile-adapted⇄ 3D version
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This 2D companion to the rendered micropillar compression tank plots the identical source-limited dislocation-avalanche model as four linked instrument panels: a draggable, zoomable pillar schematic, a live stress-strain staircase curve, a log-log histogram of every strain-burst avalanche recorded so far, and a size-effect curve tracing the "smaller is stronger" power law across copper, nickel and gold single crystals at once. Shrinking the pillar diameter starves the crystal of dislocation sources, so flow stress climbs and each individual avalanche grows relative to total strain — visible simultaneously as taller stair-steps, a rightward-shifted histogram, and a rising marker on the size-effect curve.

⚙ Under the hood

2D companion to the micropillar compression tank view: a draggable, zoomable pillar schematic plus a live stress-strain avalanche chart, a log-log strain-burst histogram with a fitted power-law overlay, and a size-effect curve tracing 'smaller is stronger' across Cu/Ni/Au single crystals at once — all driven by the same source-limited dislocation-avalanche model.

nanomechanicsmicropillardislocationssize effectmaterials scienceFCC metalspower lawavalanche statistics

2D · HTML5 Canvas 2D · 60 FPS target · runs fully client-side, no install

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