Presentation
The ReDICE Consortium is a research project gathering partners from industry and academia around innovative mathematical methods for the design and analysis of computer experiments.
Partners
- UNIBE (University of Bern): Academic partner and project coordinator
- EMSE (École Nationale Supérieure des Mines de Saint-Étienne): Academic partner
- INRIA (Institut National de Recherche en Informatique et Automatique): Academic and project administration partner
- IRSN (Institut de Radioprotection et de Sûreté Nucléaire): Industry partner
- EDF R&D (Électricité de France): Industry partner
- Renault: Industry partner
- CEA (Commissariat à l'Énergie Atomique): Industry partner
- IFPen (IFP Énergies Nouvelles): Industry partner
- IMT (Institut de Mathématiques de Toulouse): Scientific expertise
- UNICE (Université de Nice): Scientific expertise
- Alpestat : Software expertise
Main research topics
- Metamodel-based optimization, inversion, and related strategies
- Multi-fidelity metamodels and mixtures of metamodels
- Computer experiments involving functional data
- Special kernels and designs
Ph.D. theses
- François Bachoc: Designs and algorithms for hyperparameter estimation (Associate CEA Ph.D. student).
- Mickaël Binois: Gaussian process-assisted multiobjective optimization (Ph.D. funded by Renault and ReDICE).
- Clément Chevalier: Kriging-based strategies for inversion under uncertainty (Ph.D. funded by IRSN and ReDICE).
- Loïc Le Gratiet: Multi-fidelity kriging for uncertainty quantification (Associate CEA Ph.D. student).
- Federico Zertuche: New multi-fidelity kriging metamodels (Ph.D. funded by Université Joseph Fourier and ReDICE).
Selected research reports and publications
-
DiceKriging, DiceOptim: Two R packages for the
analysis of computer experiments by kriging-based
metamodelling and optimization.
Status: In Journal of Statistical Software, 51 (1), 2012.
Olivier Roustant, David Ginsbourger, Yves Deville. -
Estimating and quantifying uncertainties on level sets
using the Vorob'ev expectation and deviation with
Gaussian process models.
Status: To appear in mODa 10 Advances in Model-Oriented Design and Analysis, Physica-Verlag HD, 2013.
Clément Chevalier, David Ginsbourger, Julien Bect, and Ilya Molchanov. -
Fast kriging-based stepwise uncertainty reduction with
application to the identification of an excursion
set.
Status: Accepted with minor revisions to Technometrics.
Clément Chevalier, Julien Bect, David Ginsbourger, Victor Picheny, Yann Richet and Emmanuel Vazquez. -
The KrigInv package: An efficient and user-friendly R
implementation of Kriging-based inversion
algorithms.
Status: To appear in Computational Statistics and Data Analysis (author version already available online here).
Clément Chevalier, Victor Picheny, and David Ginsbourger. -
Cross Validation and Maximum Likelihood estimations of hyper-parameters of
Gaussian processes with model misspecification.
Status: To appear in Computational Statistics and Data Analysis.
François Bachoc. -
Asymptotic analysis of the role of spatial sampling for hyper-parameter
estimation of Gaussian processes.
Status: Submitted.
François Bachoc. -
Fast computation of the multipoint Expected Improvement with
applications in batch selection.
Status: To appear in the proceedings of the LION7 conference, Lecture Notes in Computer Science, 2013.
Clément Chevalier and David Ginsbourger. -
Using the Efficient Global Optimization Algorithm to
assist Nuclear Criticality Safety Assessment.
Status: To appear in Nuclear Science and Engineering.
Yann Richet, Gregory Caplin, Jérome Crevel, David Ginsbourger, and Victor Picheny.
Publicly available software (R packages)
- KrigInv: Kriging-based Inversion for Deterministic and Noisy Computer Experiments
- MuFiCokriging: Multi-Fidelity Cokriging models
- DiceKriging: Kriging methods for computer experiments (Continuation of a package initiated within the DICE Consortium)
- DiceOptim : Kriging-based optimization for computer experiments (Continuation of a package initiated within the DICE Consortium)