1. Data-driven approximation algorithms for rapid performance evaluation and optimization of civil structures
- Author
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Caitlin Mueller, Stavros Tseranidis, Nathan C. Brown, Massachusetts Institute of Technology. Department of Architecture, Massachusetts Institute of Technology. Program in Computation for Design and Optimization, Mueller, Caitlin T., Tseranidis, Stavros, Brown, Nathan Collin, and Mueller, Caitlin T
- Subjects
Terminal design ,Computer science ,media_common.quotation_subject ,0211 other engineering and technologies ,020101 civil engineering ,02 engineering and technology ,Machine learning ,computer.software_genre ,0201 civil engineering ,Data-driven ,Surrogate model ,Robustness (computer science) ,021105 building & construction ,Probabilistic design ,Civil and Structural Engineering ,media_common ,Creative visualization ,business.industry ,Approximation algorithm ,Building and Construction ,Industrial engineering ,Control and Systems Engineering ,Errors-in-variables models ,Artificial intelligence ,business ,computer - Abstract
This paper explores the use of data-driven approximation algorithms, often called surrogate modeling, in the early-stage design of structures. The use of surrogate models to rapidly evaluate design performance can lead to a more in-depth exploration of a design space and reduce computational time of optimization algorithms. While this approach has been widely developed and used in related disciplines such as aerospace engineering, there are few examples of its application in civil engineering. This paper focuses on the general use of surrogate modeling in the design of civil structures and examines six model types that span a wide range of characteristics. Original contributions include novel metrics and visualization techniques for understanding model error and a new robustness framework that accounts for variability in model comparison. These concepts are applied to a multi-objective case study of an airport terminal design that considers both structural material volume and operational energy consumption. Key Words: surrogate modelling, machine learning, approximation, structural design
- Published
- 2016