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NAS Performance Estimation: Weight Sharing vs Full Training (2D)

Interactive 2D supernet lattice: watch a Neural Architecture Search controller sample child architectures from a weight-sharing supernet and compare how Full Training, Early Stopping and Weight Sharing performance-estimation strategies trade compute cost against how well their accuracy estimate actually ranks true architecture quality.

AI & Machine Learning2DAdvanced60 FPS📱 Mobile-adapted⇄ 3D version
2d-ds-topic-56 ↗ Open standalone

Neural Architecture Search has to rank thousands of candidate networks it can never afford to fully train, so real NAS systems trade estimation accuracy for speed. This simulator builds a small weight-sharing supernet — six stages of six candidate operations each — and lets a search controller sample child architectures (paths through the lattice) while you switch the performance-estimation strategy between Full Training, Early Stopping and Weight Sharing. Each strategy has its own simulated compute cost and its own gap between the fast proxy score and the ground-truth accuracy a path would get if trained standalone; a live Spearman-style correlation readout shows that gap actually widening as Weight Sharing's shared weights co-adapt to whichever paths get sampled most, exactly the effect documented in the NAS "one-shot" evaluation literature.

⚙ Under the hood

2D supernet lattice where a search controller samples child architectures and you compare how Full Training, Early Stopping and Weight Sharing performance-estimation strategies trade compute cost against how well their accuracy estimate ranks true architecture quality.

neural architecture searchNASweight sharingmachine learningAutoMLsupernetevolutionary search

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

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