Targeting High Productivity Workforces via Data-Centric Transfer Optimization in the Internet Era
Project Description
This project aims at developing a novel computational framework that can adaptively re-use the knowledge across multiple machines potentially communicating via internet, to enhance the productivity in problem-solving. The developed framework comprises a class of optimization algorithms which are capable of automatically transferring knowledge across problem-solving tasks and by which the complicated real-world problems can be efficiently tackled. Different from the optimizers in the existing multitudinous Bayesian frameworks which are computationally demanding and prevailingly applicable in continuous search space, the optimization algorithms considered by the proposed framework are constraint-free in search space, and rely on nature-inspired, derivative-free, population-based search strategies which require little domain expertise on the user’s side. Besides, the proposed framework is significantly flexible in model selection and combination, and is highly parallelizable due to its emphasis on population-based search. The considered class of algorithms is regarded as a potential shortcut through which artificial general intelligence is achieved.
This project aims at developing a novel computational framework that can adaptively re-use the knowledge across multiple machines potentially communicating via internet, to enhance the productivity in problem-solving. The developed framework comprises a class of optimization algorithms which are capable of automatically transferring knowledge across problem-solving tasks and by which the complicated real-world problems can be efficiently tackled. Different from the optimizers in the existing multitudinous Bayesian frameworks which are computationally demanding and prevailingly applicable in continuous search space, the optimization algorithms considered by the proposed framework are constraint-free in search space, and rely on nature-inspired, derivative-free, population-based search strategies which require little domain expertise on the user’s side. Besides, the proposed framework is significantly flexible in model selection and combination, and is highly parallelizable due to its emphasis on population-based search. The considered class of algorithms is regarded as a potential shortcut through which artificial general intelligence is achieved.
Research Technical Area
Benefits to the society
The proposed project may significantly improve the productivity of real-world problem-solving and autonomous decision-making through human-like knowledge transfer across problems.
The class of optimization algorithms considered by the project may impact a wide range of real applications, such as smart logistic systems, supply chain management, path planning of autonomous vehicles, automatic traffic signal control, design of smart charging strategies for electrical vehicles, optimization of smart grids, and advanced materials manufacturing, which align with the Smart Nation Initiative of Singapore.
Project’s Publications
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Abhishek Gupta, Yew-Soon Ong:
Back to the Roots: Multi-X Evolutionary Computation. Cognitive Computation 11(1): 1-17 (2019) -
Tiantian He, Yang Liu, Tobey H. Ko, Keith C.C. Chan, Yew-Soon Ong:
Contextual Correlation Preserving Multi-View Featured Graph Clustering. IEEE Transactions on Cybernetics. 2019. PP. 10.1109/TCYB.2019.2926431. -
Hao Li, Yew-Soon Ong, Maoguo Gong, Zhenkun Wang:
Evolutionary Multitasking Sparse Reconstruction: Framework and Case Study. IEEE Transactions on Evolutionary Computation. 2018. PP. 1-1. 10.1109/TEVC.2018.2881955. - Tiantian He, Lu Bai, Yew-Soon Ong:
Manifold Regularized Stochastic Block Model. 2019. 10.1109/ICTAI.2019.00115.
Team’s Principal Investigator
Professor Ong Yew-Soon
School of Computer Science and Engineering
College of Engineering Nanyang Technological University