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ADOPT - Advancing optimisation technologies through international collaboration

Reference Number
EP/W003317/1
Title
ADOPT - Advancing optimisation technologies through international collaboration
Status
Started
Energy Categories
Not Energy Related
Energy Efficiency(Industry)
Research Types
Basic and strategic applied research
Science and Technology Fields
PHYSICAL SCIENCES AND MATHEMATICS (Statistics and Operational Research)
ENGINEERING AND TECHNOLOGY
UKERC Cross Cutting Characterisation
Not Cross-cutting
Systems Analysis related to energy R&D (Other Systems Analysis)
Principal Investigator
Dr B Chachuat
Chemical Engineering
Imperial College London
Award Type
Standard
Funding Source
EPSRC
Start Date
23 February 2022
End Date
22 February 2027
Duration
60 months
Total Grant Value
£1,344,649
Industrial Sectors
Manufacturing
Region
London
Programme
International Centre to Centre
Investigators
Principal Investigator
Dr B Chachuat, Chemical Engineering, Imperial College London
Other Investigator
Dr C Adjiman, Chemical Engineering, Imperial College London
Professor I Bogle, Chemical Engineering, University College London
Dr V Charitopoulos, Chemical Engineering, University College London
Dr R Misener, Computing, Imperial College London
Professor CC Pantelides, Chemical Engineering, Imperial College London
Dr P Parpas, Computing, Imperial College London
Dr W Wiesemann, Business School, Imperial College London
Industrial Collaborator
Project Contact, RWTH Aachen University
Project Contact, Process Systems Enterprise Limited
Project Contact, Dummy Organisation
Project Contact, Gurobi Optimization
Project Contact, Octeract
Project Contact, MOSEK ApS
Web Site
Objectives
Abstract
The complex, interconnected and fast-changing nature of today's society presents a growing challenge for decision-makers. Increased competition in the process industries (oil and gas, chemicals, personal care products, food, pharmaceuticals and agrochemicals) means that agility must be built into process design and operation. Furthermore, the need to ensure reliability across the supply chain, minimise resource use and environmental impact, and maximise energy efficiency combine to make investment and operational decisions especially difficult. Such multifaceted decision-making has long been aided by detailed mathematical models of physical and engineered processes, which enable digital twins and constitute a cornerstone of smart manufacturing technologies and the future Industry 4.0. But the full benefits afforded by these models have so far been hampered by the lack of tools for exploiting them beyond "what if?" scenario analysis. In particular, the uptake of optimisation-based decision-making has been hindered by the large-scale, nonlinear and uncertain nature of these problems that often leads to suboptimal or even unphysical solutions.In the ADOPT collaboration between the Sargent Centre for Process Systems Engineering (CPSE) and the JARA Center for Simulation and Data Science (JARA-CSD), we propose to address some of these shortcomings by developing improved methods for deterministic global optimisation, a class of optimisation methods that rely on complete search techniques and offer a rigorous conceptual framework to overcome the caveats of local optimisation. Our key research hypothesis is that the integration of deterministic global optimisation with surrogate (simplified) models and machine learning will enable transformational changes in our capability to tackle complex decision-making problems, leading to more tractable solutions with global optimality certificates and improved resilience to uncertainty. This nascent area brings about the following specific research challenges that we shall tackle within ADOPT:- identifying best-in-class theoretical / algorithmic global optimisation frameworks and surrogate modelling paradigms to empower surrogate-based optimisation;- handling uncertainty within the chain linking physical/simulated data to surrogate models and to optimisation results; and- developing bespoke deterministic global optimisation approaches for more challenging classes of problems beyond mixed-integer nonlinear programming.The ADOPT collaboration brings together two world-class teams of researchers in the field of deterministic global optimisation as well as team members who are specialists in handling uncertainty, in solving large-scale combinatorial problems, and in applying optimisation to real-world engineering problems. Furthermore, our assembled team partners with prominent optimisation software and process modelling companies in order to increase the accessibility of the research outputs and facilitate their dissemination.The ADOPT collaboration creates added-value through the combined strength of scientific expertise of the two centres, the breadth of the software infrastructure that can be brought together, the wealth of its human capital, the reach of its industrial relationships and the exceptional potential to establish a long-term partnership. It will lead to scientific advances that can be tested on practical problems quickly, ensuring maximum impact from the research.
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Added to Database
22/06/22