Efficient Global Optimization of Expensive Black-Box Functions
By Donald R. Jones, Matthias Schonlau, William J. Welch. 1998
Subfields: Mathematical Optimization
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Mathematical Optimization
- Frank Hutter
- Nando de Freitas
- Kirthevasan Kandasamy
- Holger H. Hoos
- Peter I. Frazier
- Karen E. Willcox
- Aaron Klein
- Andy J. Keane
Citations in the corpus
- Hyper-Parameter Optimization: A Review of Algorithms and Applications (2020, background): “where σn(x) > 0, φ(·) and Φ(·) are the standard normal probability density function and cumulative standard normal distribution function; and μn(x) is the best observed value thus far (Jones et al., 1998).”
- Bayesian Neural Architecture Search using A Training-Free Performance Metric (2020, methodology): “The so-called Bayesian Optimization (BO) (a.k.a. Efficient Global Optimization) [23, 33] algorithm has been applied extensively for automated algorithm configuration tasks [2, 21, 22].”
- Automated Machine Learning: State-of-The-Art and Open Challenges (2019, methodology): “Bayesian Optimization is one of the state-of-the-art blackbox optimization techniques which is tailored for expensive objective functions [69, 134, 88, 55].”
- An evaluation of adaptive surrogate modeling based optimization with two benchmark problems (2014, background): “For example, S obester et al. (2005) suggested that about 35% of the samples should be spent in the initial stage, while Jones et al. (1998) recommended that the initial sample size should be about ten times the dimensionality of the problem.”
- Taking the Human Out of the Loop: A Review of Bayesian Optimization (2016, methodology): “The typical estimation of the hyperparameters by maximizing the marginal likelihood [126], [82] can easily fall into traps, as shown in [32].”
- Grammar Variational Autoencoder (2017, methodology): “After training the SGP, we then perform 5 iterations of batch Bayesian optimization using the expected improvement (EI) heuristic (Jones et al., 1998).”
- Automatic Chemical Design Using a Data-Driven Continuous Representation of Molecules (2016, neutral): “After this, we performed 10 iterations of Bayesian optimization using the expected improvement (EI) heuristic [49].”
- Learning to Learn for Global Optimization of Black Box Functions (2016, background): “…2012, Russo and Van Roy, 2014, Shahriari et al., 2014, Hern ´ andez-Lobato et al., 2015], probability of improvement [Kushner, 1964, Jones et al., 1998], expected improvement [Moˇckus et al., 1978, Jones et al., 1998, Jones, 2001, Brochu et al., 2009, Snoek et al., 2012, Wang and de Freitas,…”
- Meta-Learning: A Survey (2018, neutral): “expected improvement (Jones et al., 1998) on Pi,new and the predicted improvements on all prior Pi,j.”
- Initializing Bayesian Hyperparameter Optimization via Meta-Learning (2015, methodology): “A classic approach is to initialize SMBO with a space-filling design (Jones, Schonlau, and Welch 1998).”
- Multi-fidelity Bayesian Optimisation with Continuous Approximations (2017, methodology): “We compare BOCA to the following four baselines: (i) GP-UCB , (ii) the GP-EI criterion in BO (Jones et al., 1998), (iii) MF-GP-UCB (Kandasamy et al., 2016a) and (iv) MF-SKO , the multi-fidelity sequential kriging optimisation method from Huang et al. (2006).”
- APRIL: Active Preference-learning based Reinforcement Learning (2012, neutral): “They further note that returning the optimal solution, e.g. using the Expected Global Improvement criterion [17] with a branch-and-bound method, raises technical issues on high-dimensional search spaces.”
- ParamILS: An Automatic Algorithm Configuration Framework (2014, background): “The metric underlying the choice of promising parameter configurations is the expected improvement criterion (Jones et al., 1998).”
- Parallelizing Exploration-Exploitation Tradeoffs with Gaussian Process Bandit Optimization (2012, methodology): “We compare it with four alternatives: (1) The strictly sequential GP-UCB algorithm (B = 1); (2) NRB-UCB, an approach that simply picks the maximizer of the GP-UCB score B times; (3) NTB-UCB, an approach that picks the top B scores according to the GP-UCB criterion; (4) A state of the art algorithm f”