🎯 Advanced Hyperparameter Concepts: Multi-Objective and Automated Tuning
Watch an automated tuner search a live hyperparameter space in 3D — every trial is plotted by accuracy, model size and training time, and the Pareto-optimal frontier of best trade-offs emerges as random search, Bayesian-style exploitation or evolutionary refinement run.
An automated tuner searches a live hyperparameter space in 3D — every trial is plotted by accuracy, model size and training time, and the Pareto-optimal frontier of best trade-offs emerges as random search, Bayesian-style exploitation or evolutionary refinement run.
🔬 What It Demonstrates
Real hyperparameter tuning rarely optimizes just one number. This simulation plots every automated trial in a 3D objective space — model size, accuracy and training time — and highlights the Pareto-optimal frontier: the trials no other trial beats on every objective at once. Watch how the frontier expands and its shape changes as trials accumulate.
🎮 How to Use
Pick a search strategy (random search, Bayesian-style exploitation, or evolutionary mutation of the current frontier), adjust the trial rate, and toggle whether dominated trials and the frontier line are shown. Drag to orbit the objective-space cube and scroll to zoom.
💡 Did You Know?
Real AutoML systems such as Optuna and Google Vizier use exactly this idea — instead of chasing one metric, they maintain a Pareto front of configurations (e.g. accuracy vs. inference latency vs. model size) so an engineer can pick the trade-off that fits their deployment target after the search finishes, rather than before it starts.
Watch an automated tuner search a live hyperparameter space in 3D — every trial is plotted by accuracy, model size and training time, and the Pareto-optimal frontier of best trade-offs emerges as random search, Bayesian-style exploitation or evolutionary refinement run.
3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install