Compressing thousands of constraints into a low-dimensional latent space lets Bayesian optimization solve a 108D aeroelastic-tailoring problem with 1,786 black-box constraints, at the cost of slightly worse solution quality on a benchmark.
High Dimensional Bayesian Optimisation and Bandits via Additive Models
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abstract
Bayesian Optimisation (BO) is a technique used in optimising a $D$-dimensional function which is typically expensive to evaluate. While there have been many successes for BO in low dimensions, scaling it to high dimensions has been notoriously difficult. Existing literature on the topic are under very restrictive settings. In this paper, we identify two key challenges in this endeavour. We tackle these challenges by assuming an additive structure for the function. This setting is substantially more expressive and contains a richer class of functions than previous work. We prove that, for additive functions the regret has only linear dependence on $D$ even though the function depends on all $D$ dimensions. We also demonstrate several other statistical and computational benefits in our framework. Via synthetic examples, a scientific simulation and a face detection problem we demonstrate that our method outperforms naive BO on additive functions and on several examples where the function is not additive.
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cs.CE 1years
2024 1verdicts
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High-Dimensional Bayesian Optimisation with Large-Scale Constraints via Latent Space Gaussian Processes
Compressing thousands of constraints into a low-dimensional latent space lets Bayesian optimization solve a 108D aeroelastic-tailoring problem with 1,786 black-box constraints, at the cost of slightly worse solution quality on a benchmark.