A Collection of Main Papers on Multitasking Optimization
Survey
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Back to the Roots Multi-X Evolutionary Computation |
Cognitive Computation |
2019 |
Gupta et al. |
[paper] |
|
2. Evolutionary Multitask Optimization a Methodological Overview Challenges and Future Research Directions |
arXiv |
2021 |
Osaba et al. |
[paper] |
|
3. Multi-Task Optimization and Multi-Task Evolutionary Computation in the Past Five Years A Brief Review |
Mathematics |
2021 |
Xu et al. |
[paper] |
|
4. Evolutionary Transfer Optimization A New Frontier in Evolutionary Computation Research |
CIM |
2021 |
Tan et al. |
[paper] |
|
5. Half a Dozen Real-World Applications of Evolutionary Multitasking and More |
CIM |
2022 |
Gupta et al. |
[paper] |
|
6. A Review on Evolutionary Multi-Task Optimization: Trends and Challenges |
TEVC |
2022 |
Wei et al._ |
[paper] |
|
Multitasking Single-objective Optimization
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Multifactorial Evolution Toward Evolutionary Multitasking |
TEVC |
2016 |
Gupta et al. |
[paper] [code] |
[blog] |
2. Evolutionary Multitasking via Explicit autoencoding |
TCYB |
2018 |
Feng st al. |
[paper] [code] |
[blog] |
3. A Group-based Approach to Improve Multifactorial Evolutionary Algorithm |
IJCAI |
2018 |
Tang st al. |
[paper] |
|
4. Self-regulated Evolutionary Multi-task Optimization |
TEVC |
2019 |
Zheng st al. |
[paper] [code] |
[blog] |
5. MFEA-II Multifactorial Evolutionary Algorithm with Online Transfer Parameter Estimation MFEA-II |
TEVC |
2019 |
Bali st al. |
[paper] [code] |
[blog] |
6. An Adaptive Archive-Based Evolutionary Framework for Many-Task Optimization |
TETCI |
2019 |
Chen st al. |
[paper] [code] |
|
7. Evolutionary Manytasking Optimization Based on Symbiosis in Biocoenosis |
AAAI |
2019 |
Liaw st al. |
[paper] |
[blog] |
8. Regularized Evolutionary Multi-Task Optimization Learning to Inter-Task Transfer in Aligned Subspace |
TEVC |
2020 |
Tang st al. |
[paper] |
|
9. Solving Multi-task Optimization Problems with Adaptive Knowledge Transfer via Anomaly Detection |
TEVC |
2021 |
Wang st al. |
[paper] [code] |
|
10. Evolutionary Multi-task Optimization with Adaptive Knowledge Transfer |
TEVC |
2021 |
Xu st al. |
[paper] |
|
11. Evolutionary Many-task Optimization Based on Multi-source Knowledge Transfer |
TEVC |
2021 |
Liang st al. |
[paper] |
|
12. Multi-Task Shape Optimization Using a 3D Point Cloud Autoencoder as Unified Representation |
TEVC |
2021 |
Rios st al. |
[paper] |
|
13. Towards Large-Scale Evolutionary Multi-Tasking: A GPU-Based Paradigm |
TEVC |
2021 |
Huang st al. |
[paper] |
|
14. Improving Evolutionary Multitasking Optimization by Leveraging Inter-Task Gene Similarity and Mirror Transformation |
CIM |
2021 |
Ma st al. |
[paper] |
|
15. A Bi-objective Knowledge Transfer Framework for Evolutionary Many-Task Optimization |
TEVC |
2022 |
Jiang st al. |
[paper] |
|
16. An Effective Knowledge Transfer Method Based on Semi-supervised Learning for Evolutionary Optimization |
IS |
2022 |
Gao st al. |
[paper] |
|
17. Orthogonal Transfer for Multitask Optimization |
TEVC |
2022 |
Wu st al. |
[paper] |
|
Multitasking Multi-objective Optimization
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Multiobjective Multifactorial Optimization in Evolutionary Multitasking |
TCYB |
2017 |
Gupta et al. |
[paper] [code] |
|
2. Evolutionary Multitasking via Explicit autoencoding |
TCYB |
2018 |
Feng et al. |
[paper] [code] |
|
3. Multiobjective Multitasking OptimizationBased on Incremental Learning |
TEVC |
2020 |
Lin et al. |
[paper] |
|
4. An Effective Knowledge Transfer Approach for Multiobjective Multitasking Optimization |
TCYB |
2020 |
Lin st al. |
[paper] [code] |
|
5. Evolutionary Multitasking for Multiobjective Optimization With Subspace Alignmentand Adaptive Differential Evolution |
TCYB |
2020 |
Liang st al. |
[paper] [code] |
|
6. Cognizant Multitasking in Multiobjective Multifactorial Evolution MO-MFEA-II |
TCYB |
2020 |
Bali et al. |
[paper] [code] |
|
7. Multiobjective Multitasking Optimization Based on Decomposition with Dual Neighborhoods |
arXiv |
2021 |
Wang et al. |
[paper] |
|
8. Towards Generalized Resource Allocation on Evolutionary Multitasking for Multi-Objective Optimization |
CIM |
2021 |
Wei et al. |
[paper] |
|
9. Evolutionary Multitasking for Multi-objective Optimization Based on Generative Strategies |
TEVC |
2022 |
Liang et al. |
[paper] |
|
10. Dynamic Auxiliary Task-Based Evolutionary Multitasking for Constrained Multi-objective Optimization |
TEVC |
2022 |
Qiao et al. |
[paper] |
|
11. Multiobjective Multitask Optimization -Neighborhood as a Bridge for Knowledge Transfer |
TEVC |
2022 |
Wang et al. |
[paper] |
|
12. A Multi-objective Multitask Optimization Algorithm Using Transfer Rank |
TEVC |
2022 |
Chen et al. |
[paper] |
|
13. A Multiform Optimization Framework for Constrained Multiobjective Optimization |
TCYB |
2022 |
Jiao et al. |
[paper] |
|
14. Multiobjective Multitasking Optimization With Subspace Distribution Alignment and Decision Variable Transfer |
TETCI |
2022 |
Gao et al. |
[paper] |
|
Multitasking Combination Optimization
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Evolutionary Multitasking in Permutation-Based Combinatorial Optimization Problems Realization with TSP QAP LOP and JSP |
TENCON |
2016 |
Yuan et al. |
[paper] |
|
2. Evolutionary Multitasking in Combinatorial Search Spaces A Case Study in Capacitated Vehicle Routing Problem |
SSCI |
2016 |
Zhou et al. |
[paper] |
|
3. Solving Generalized Vehicle Routing Problem With Occasional Drivers via Evolutionary Multitasking |
TCYB |
2019 |
Feng st al. |
[paper] [code] |
|
4. Explicit Evolutionary Multitasking for Combinatorial Optimization A Case Study on Capacitated Vehicle Routing Problem |
TCYB |
2020 |
Feng st al. |
[paper] [code] |
|
5. A Unified Framework of Graph-based Evolutionary Multitasking Hyper-heuristic |
TEVC |
2021 |
Hao et al. |
[paper] |
|
6. Many-Objective Job-Shop Scheduling: A Multiple Populations for Multiple Objectives-Based Genetic Algorithm Approach |
TCYB |
2022 |
Liu et al. |
[paper] |
|
7. Transfer Learning Assisted Batch Optimization of Jobs Arriving Dynamically in Manufacturing Cloud |
JOMS |
2022 |
Zhou et al. |
[paper] |
|
8. Task Relatedness Based Multitask Genetic Programming for Dynamic Flexible Job Shop Scheduling |
TEVC |
2022 |
Zhang et al. |
[paper] |
|
9. Knowledge Transfer Genetic Programming with Auxiliary Population for Solving Uncertain Capacitated Arc Routing Problem |
TEVC |
2022 |
Ardeh et al. |
[paper] |
|
10. Multitask Multiobjective Genetic Programming for Automated Scheduling Heuristic Learning in Dynamic Flexible Job-Shop Scheduling |
TCYB |
2022 |
Zhang et al. |
[paper] |
|
Multitasking High-dimensional Optimization
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Large Scale optimization via Evolutionary Multitasking assisted Random Embedding |
CEC |
2020 |
Feng et al. |
[paper] |
|
2. A Multi-Variation Multifactorial Evolutionary Algorithm for Large-Scale Multi-Objective Optimization |
TEVC |
2021 |
Feng et al. |
[paper] |
|
3. Evolutionary Multitasking for Large-Scale Multiobjective Optimization |
TEVC |
2022 |
Liu et al. |
[paper] |
|
Multitasking Data-Driven Evolutionary Optimization
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Generalized Multi-tasking for Evolutionary Optimization of Expensive Problems |
TEVC |
2017 |
Ding et al. |
[paper] [code] |
|
2. Novel Multitask Conditional Neural-Network Surrogate Models for Expensive Optimization |
TCYB |
2020 |
Luo et al. |
[paper] |
|
3. Evolutionary Multitasking for Expensive Minimax Optimization in Multiple Scenarios |
CIM |
2021 |
Wang et al. |
[paper] [code] |
|
Multitasking Genetic Programming and Swarm Intelligence
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Learning Ensemble of Decision Trees through Multifactorial Genetic Programming |
CEC |
2016 |
Wen et al. |
[paper] |
|
2. Multifactorial Genetic Programming for Symbolic Regression Problems |
TSMC |
2018 |
Zhong et al. |
[paper] |
|
3. Self-Adjusting Multi-Task Particle Swarm Optimization |
TEVC |
2021 |
Han et al. |
[paper] |
|
4. Self-adaptive Multi-task Particle Swarm Optimization |
arxiv |
2021 |
Zheng et al. |
[paper] |
|
5. Multi-Task Particle Swarm Optimization with Dynamic On-Demand Allocation |
TEVC |
2022 |
Han et al. |
[paper] |
|
6. Multi-Task Particle Swarm Optimization With Dynamic Neighbor and Level-Based Inter-Task Learning |
TETCI |
2022 |
Tang et al. |
[paper] |
|
Multitasking Optimization in Complex Networks
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Evolutionary Multitasking Sparse Reconstruction Framework and Case Study |
TEVC |
2018 |
Li et al. |
[paper] |
|
2. MUMI Multitask Module Identification for Biological Networks |
TEVC |
2020 |
Chen et al. |
[paper] [code] |
|
3. Evolutionary Multitasking Network Reconstruction from Time Series with Online Parameter Estimation |
KBS |
2021 |
Shen et al. |
[paper] |
|
4. Learning Large-Scale Fuzzy Cognitive Maps Using an Evolutionary Many-Task Algorithm |
ASOC |
2021 |
Wang et al. |
[paper] |
|
5. Evolutionary Multitasking Multilayer Network Reconstruction |
TCYB |
2021 |
Wang et al. |
[paper] [code] |
|
6. Community detection in multiplex networks based on evolutionary multi-task optimization and evolutionary clustering ensemble |
TEVC |
2022 |
Lyu et al. |
[paper] |
|
Multitasking Optimization in Machine Learning
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Multi-task Bayesian Optimization |
NIPS |
2012 |
Swersky et al. |
[paper] |
|
2. Co-evolutionary Multi-Task Learning for Dynamic Time Series Prediction |
ASOC |
2018 |
Chandra et al. |
[paper] [code] |
|
3. Adaptive Multi-factorial Evolutionary Optimization for Multi-task Reinforcement Learning |
TEVC |
2021 |
Martinez et al. |
[paper] [code] |
|
4. Can Transfer Neuroevolution Tractably Solve Your Differential Equations |
arXiv |
2021 |
Huang et al. |
[paper] |
|
5.Simultaneously Evolving Deep Reinforcement Learning Models using Multifactorial Optimization |
arXiv |
2020 |
Martinez et al. |
[paper] [code] |
|
6.Evolutionary Multitasking for Feature Selection in High-dimensional Classification via Particle Swarm Optimisation |
TEVC |
2021 |
Chen et al. |
[paper] |
|
7.Evolutionary Machine Learning with Minions: A Case Study in Feature Selection |
TEVC |
2021 |
Zhang et al. |
[paper] |
|
8.Learning and Sharing: A Multitask Genetic Programming Approach to Image Feature Learning |
TEVC |
2021 |
Bi et al. |
[paper] |
|
Transfer Optimization
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Insights on Transfer Optimization Because Experience is the Best Teacher |
TETCI |
2018 |
Gupta et al. |
[paper] |
|
2. Curbing Negative Influences Online for Seamless Transfer Evolutionary Optimization |
TCYB |
2019 |
Da et al. |
[paper] [code] |
|
3. Warm Starting CMA-ES for Hyperparameter Optimization |
AAAI |
2020 |
Nomura et al. |
[paper] |
|
4. Generalizing Transfer Bayesian Optimization to Source-Target Heterogeneity |
TASE |
2020 |
Min et al. |
[paper] |
|
5. Scalable Transfer Evolutionary Optimization Coping with Big Task Instances |
arXiv |
2020 |
Shakeri et al. |
[paper] [code] |
|
6. Transfer Stacking from Low-to High-Fidelity A Surrogate-Assisted Bi-Fidelity Evolutionary Algorithm |
ASOC |
2020 |
Wang et al. |
[paper] [code] |
|
7. Transfer Learning Based Co-surrogate Assisted Evolutionary Bi-objective Optimization for Objectives with Non-uniform Evaluation Times |
arxiv |
2021 |
Wang et al. |
[paper] |
|
8. Evolutionary Sequential Transfer Optimization for Objective-Heterogeneous Problems |
TEVC |
2022 |
Xue st al. |
[paper] |
|
9. Transfer Learning Based Co-Surrogate Assisted Evolutionary Bi-Objective Optimization for Objectives with Non-Uniform Evaluation Times |
EC |
2022 |
Wang st al. |
[paper] |
|
Theoretical Analysis
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Improve Theoretical Upper Bound of Jumpk Function by Evolutionary Multitasking |
HPCCT |
2019 |
Lian et al. |
[paper] |
|
2. Analysis on the Efficiency of Multifactorial Evolutionary Algorithms |
PPSN |
2020 |
Huang et al. |
[paper] |
|
3. From Multi-Task Gradient Descent to Gradient-Free Evolutionary Multitasking A Proof of Faster Convergence |
TCYB |
2021 |
Bai et al. |
[paper] |
|
Other Applications
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Evolutionary Multitasking In Bi-Level Optimization |
Complex & Intelligent Systems |
2015 |
Gupta et al. |
[paper] |
|
2. An Evolutionary Multitasking Algorithm for Cloud Computing Service Composition |
World Congress on Services |
2018 |
Bao st al. |
[paper] |
|
3. Multi-Tasking Genetic Algorithm (MTGA) |
TFS |
2019 |
Wu et al. |
[paper] |
[blog] |
4. A Multitasking Electric Power Dispatch Approach With Multi-Objective Multifactorial Optimization Algorithm |
Access |
2020 |
Liu et al. |
[paper] |
|
5. Solving Dynamic Multiobjective Problem via Autoencoding Evolutionary Search |
TCYB |
2020 |
Liang et al. |
[paper] [code] |
|
6. A Multi-Task Bee Colony Band Selection Algorithm with Variable-size Clustering for Hyperspectral Images |
TEVC |
2022 |
He et al. |
[paper] |
|
7. Predicting Demands of COVID-19 Prevention and Control Materials via Co-Evolutionary Transfer Learning |
TCYB |
2022 |
Song et al. |
[paper] |
|
8. Multi-View Point Cloud Registration Based on Evolutionary Multitasking With Bi-Channel Knowledge Sharing Mechanism |
TETCI |
2022 |
Wu et al. |
[paper] |
|
Datasets
Paper Title |
Venue |
Year |
Authors |
Materials |
Comment |
1. Evolutionary Multitasking for Single-objective Continuous Optimization Benchmark Problems Performance Metric and Baseline Results |
arXiv |
2017 |
Da et al. |
[paper] [code] |
|
2. Evolutionary Multitasking for Multiobjective Continuous Optimization Benchmark Problems Performance Metrics and Baseline Results |
arXiv |
2017 |
Yuan et al. |
[paper] [code] |
|
3. Evolutionary Multitasking Optimization for Complex Problems |
CEC, GECCO |
2017~2021 |
Feng et al. |
[code] |
|
4. Evolutionary Many-tasking Optimization |
CEC, GECCO |
2017~2021 |
Feng et al. |
[code] |
|
5. Evolutionary Transfer Optimization |
CEC |
2021 |
Tan et al. |
[paper] [code] |
|
Name |
Authors/Organizations |
Materials |
Comment |
1. Deap |
Fortin et al. |
[paper] [code] |
DEAP is a novel evolutionary computation framework for rapid prototyping and testing of ideas. It seeks to make algorithms explicit and data structures transparent. It works in perfect harmony with parallelisation mechanisms such as multiprocessing and SCOOP. |
2. Geatpy2 |
South China Agricultural University et al. |
[homepage] [code] |
Capability of solving single-objective, multi-objectives, many-objectives and combinatorial optimization problems fast. A huge number of operators with high performance of evolutionary algorithms (selection, recombination, mutation, migration…). Support numerous encodings for the chromosome of the population. Many evolutionary algorithm templates, including GA, DE, ES for single/multi-objective(s) evolution. Multiple population evolution. Support polysomy evolution. Parallelization and distribution of evaluations. Testbeds containing most common benchmarks functions. Support tracking analysis of the evolution iteration. Many evaluation metrics of algorithms. |
3. Inspyred |
Garrett et al. |
[homepage] [code] |
Inspyred is a free, open source framework for creating biologically-inspired computational intelligence algorithms in Python, including evolutionary computation, swarm intelligence, and immunocomputing. Additionally, inspyred provides easy-to-use canonical versions of many bio-inspired algorithms for users who do not need much customization. |
4. PlatEMO |
Tian et al. |
[paper] [code] |
Developed by BIMK (Institute of Bioinspired Intelligence and Mining Knowledge) of Anhui University and NICE (Nature Inspired Computing and Engineering Group) of University of Surrey. 150+ open source evolutionary algorithms, 300+ open source benchmark problems, Powerful GUI for performing experiments in parallel, Generating results in the format of Excel or LaTeX table by one-click operation, State-of-the-art algorithms will be included continuously. |
5. EvoGrad |
Uber AI Labs |
[code] |
EvoGrad is a lightweight tool for differentiating through expectation, built on top of PyTorch. EvoGrad enables fast prototyping of NES-like algorithms. We believe there are many interesting algorithms yet to be discovered in this vein, and we hope this library will help to catalyze progress in the machine learning community. |
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Emails: xiaofengxd@126.com
Authors of scientific papers including results generated using MTEA-AD or EM2MNR are encouraged to cite the following paper:
@ARTICLE{9489377, author={Wu, Kai and Wang, Chao and Liu, Jing}, journal={IEEE Transactions on Cybernetics}, title={Evolutionary Multitasking Multilayer Network Reconstruction}, year={2021}, volume={}, number={}, pages={1-15}, doi={10.1109/TCYB.2021.3090769}}
@ARTICLE{9385398, author={Wang, Chao and Liu, Jing and Wu, Kai and Wu, Zhaoyang}, journal={IEEE Transactions on Evolutionary Computation}, title={Solving Multi-task Optimization Problems with Adaptive Knowledge Transfer via Anomaly Detection}, year={2021}, volume={}, number={}, pages={1-1}, doi={10.1109/TEVC.2021.3068157}}
@article{WANG2021107441,
title = {Learning large-scale fuzzy cognitive maps using an evolutionary many-task algorithm},
journal = {Applied Soft Computing},
volume = {108},
pages = {107441},
year = {2021},
issn = {1568-4946},
doi = {https://doi.org/10.1016/j.asoc.2021.107441},
url = {https://www.sciencedirect.com/science/article/pii/S1568494621003641},
author = {Chao Wang and Jing Liu and Kai Wu and Chaolong Ying}}
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