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Bayesian Optimisation

Expensive black-box functions are a common problem in many disciplines, including tuning the parameters of machine learning algorithms, robotics, and other engineering design problems. Bayesian Optimisation is a principled and efficient technique for the global optimisation of these functions. The idea behind Bayesian Optimisation is to place a prior distribution over the target function and then update that prior with a set of “true” observations of the target function by expensively evaluating it in order to produce a posterior predictive distribution. The posterior then informs where to make the next observation of the target function through the use of an acquisition function, which balances the exploitation of regions known to have good performance with the exploration of regions where there is little information about the function’s response.

Source: A Bayesian Approach for the Robust Optimisation of Expensive-to-Evaluate Functions

Papers

Showing 7180 of 221 papers

TitleStatusHype
Developing Optimal Causal Cyber-Defence Agents via Cyber Security SimulationCode1
Investigating Bayesian optimization for expensive-to-evaluate black box functions: Application in fluid dynamicsCode0
A Two-Stage Bayesian Optimisation for Automatic Tuning of an Unscented Kalman Filter for Vehicle Sideslip Angle Estimation0
A penalisation method for batch multi-objective Bayesian optimisation with application in heat exchanger designCode0
Neural Diffusion ProcessesCode1
Information-theoretic Inducing Point Placement for High-throughput Bayesian Optimisation0
Sample-Efficient Optimisation with Probabilistic Transformer Surrogates0
Bayesian learning of effective chemical master equations in crowded intracellular conditionsCode0
Mono-surrogate vs Multi-surrogate in Multi-objective Bayesian Optimisation0
R-MBO: A Multi-surrogate Approach for Preference Incorporation in Multi-objective Bayesian Optimisation0
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