Our groups has proposed several algorithms that may be helpful:
G. Ladkany and M. Trabia, "A Genetic Algorithm with Weighted Average Normally-Distributed Arithmetic Crossover and Twinkling," Applied Mathematics, Vol. 3 No. 10, 2012, pp. 1220-1235.
D. Somasundaram and M. Trabia, “A Fuzzy-Controlled Hooke-Jeeves Optimization Algorithm,” Journal of Engineering Optimization, Vol. 43, No. 10, 2011, pp. 1043-1062.
M. Trabia, “A Hybrid Fuzzy Simplex Genetic Algorithm,” ASME Journal of Mechanical Design, November 2004, pp. 969-974.
M. Trabia, and X. Lu, “A Fuzzy Adaptive Simplex Search Optimization Algorithm,” ASME Journal of Mechanical Design, Vol. 123, June 2001, pp. 216-225.
There are some popular local search techniques like Memetic search(golden section search), levy flight search in order to increase exploration of local search space. These strategies also useful in nondominated sorting genetic algorithm II.
Mohamed B Trabia: Thanks for the papers, actually in this step I deal with this question >>> Which algorithm should be selected for hybridization with NSGA-II?
Sandeep Kumar: Thanks for reply, the question is how to add the local search while the local search has only 1 best solution while we deal with multiple objective?
Your question is very general and wide also. What do you intend by using HM with local searcher. But if you want some of the thechniques, I suggest that you to take a look to these two papers:
A. Sbihi, Adaptive perturbed neighbourhood search for the expanding capacity
multiple-choice knapsack problem, Journal of the Operational Research Society,
vol. 64, pp: 1461{1473, 2013
A. Sbihi, A cooperative local search-based algorithm for the multiple-scenario
max{min knapsack problem, European Journal of Operational Research, vol.
202, pp: 339{346, 2010
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3 Recommendations
Mohamed B Trabia
University of Nevada, Las Vegas
Hi Askan
There is no unique answer! Perhaps you should ask yourself these questions:
1. Is the problem highly nonlinear?
2. Does it have lots of discontinuities?
3. Do you have mathematical representation of the problem?
4. Is it computationally intensive?
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2 Recommendations
Ashkan Memari
Central Queensland University
Abdelkader Sbihi:
Hi
Thanks for reply. However I am looking for the best fitted local search with NSGA-II. Some of the pervious metaheuristic such as Simulated Annealing is widely applied so far. I am looking for recently developed metaheuristic with good ability to be fitted with NSGA-II
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1 Recommendation
Ashkan Memari
Central Queensland University
Mohamed B Trabia:
Hi
The problem is a discrete linear bi-objective optimization model. I already solve the problem using NSGA-II. In order to enhance the performance, I would like to add a local search. Now the problem is 2 folded:
1. Which currently metaheuristic can be added as a local search? Why?
I don't want to apply the pervious methods like SA or TS.
2. How to add this local search to NSGA-II ?
Cite
1 Recommendation
Mohamed B Trabia
University of Nevada, Las Vegas
Hi Askan
I suspect that any method would work to some extent in a problem like yours. I would start with something like Hooke-Jeeves
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2 Recommendations
Ashkan Memari
Central Queensland University
Mohamed B Trabia:
Hi
Thank you for reply. But I think it is difficult to apply to my model. What is your next suggestion?
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1 Recommendation
Mohamed B Trabia
University of Nevada, Las Vegas
I think it is doable by modifying any of the simple search algorithms to fit your model
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1 Recommendation
Ashkan Memari
Central Queensland University
what is the advantages of this method vs others local search such as simulated annealing?
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1 Recommendation
Mohamed B Trabia
University of Nevada, Las Vegas
Simulated annealing is a global method similar to GA. You make the search hybrid to enhance speed or to identify additional minima
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1 Recommendation
Ashkan Memari
Central Queensland University
I would like to increase the performance measures of multi-objective optimization like generational distance (GD), Spacing and son on. It would be great if both performance & speed boost up.
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1 Recommendation
Alireza Soroudi
The Institution of Engineering and Technology
I had some good experienced using Immune algorithm hybrid with GA.
S. Sharma, R. Kapoor and S. Dhiman, "A Novel Hybrid Metaheuristic Based on Augmented Grey Wolf Optimizer and Cuckoo Search for Global Optimization,"2021 2nd International Conference on Secure Cyber Computing and Communications (ICSCCC), 2021, pp. 376-381, doi: 10.1109/ICSCCC51823.2021.9478142.
Or refer to the same paper at the following address:
Although I am only just now beginning to look into hybrid studies, this link may be of some interest in the area of hybrid metaheuristics:
"📷
Applied Soft Computing
Volume 11, Issue 6, September 2011, Pages 4135-4151
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Hybrid metaheuristics in combinatorial optimization: A survey
Author links open overlay panel-Christian-BlumaJ-akob-Puchingerb-Günther R.Raidlc-Andrea-Rolid
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Abstract
Research in metaheuristics for combinatorial optimization problems has lately experienced a noteworthy shift towards the hybridization of metaheuristics with other techniques for optimization. At the same time, the focus of research has changed from being rather algorithm-oriented to being more problem-oriented. Nowadays the focus is on solving the problem at hand in the best way possible, rather than promoting a certain metaheuristic. This has led to an enormously fruitful cross-fertilization of different areas of optimization. This cross-fertilization is documented by a multitude of powerful hybrid algorithms that were obtained by combining components from several different optimization techniques. Hereby, hybridization is not restricted to the combination of different metaheuristics but includes, for example, the combination of exact algorithms and metaheuristics. In this work we provide a survey of some of the most important lines of hybridization. The literature review is accompanied by the presentation of illustrative examples."
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Hybrid Metaheuristics📷
Part of the Studies in Computational Intelligence book series (SCI, volume 114)Hybrid Metaheuristics pp 1-30| Cite asHybrid Metaheuristics: An Introduction Authors Authors and affiliations Christian Blum Andrea Roli 1. 2. Chapter49Citations 1.6kDownloads In many real life settings, high quality solutions to hard optimization problems such as flight scheduling or load balancing in telecommunication networks are required in a short amount of time. Due to the practical importance of optimization problems for industry and science, many algorithms to tackle them have been developed. One important class of such algorithms are metaheuristics. The field of metaheuristic research has enjoyed a considerable popularity in the last decades. In this introductory chapter we first provide a general overview on metaheuristics. Then we turn towards a new and highly successful branch of metaheuristic research, namely the hybridization of metaheuristics with algorithmic components originating from other techniques for optimization. The chapter ends with an outline of the remaining book chapters.Keywords Search Space Local Search Constraint Satisfaction Problem Memetic Algorithm Greedy Randomize Adaptive Search ProcedureThese keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.This is a preview of subscription content, log in to check access. Preview References
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SOURCE: Chapter Hybrid Metaheuristics: An Introduction
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1 Recommendation
Nancy Ann Watanabe
University of Oklahoma-Norman
This is another scientific research article which I located on the Springer website, and, again, you might find a relevant item listed in the reference section at the end.
Conference Paper A Unified View on Hybrid Metaheuristics
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Hybrid Metaheuristics📷
Part of the Lecture Notes in Computer Science book series (LNCS, volume 4030)International Workshop on Hybrid MetaheuristicsHM 2006: Hybrid Metaheuristics pp 1-12| Cite asA Unified View on Hybrid Metaheuristics Authors Authors and affiliations Günther R. Raidl 1. Conference paper112Citations 1kDownloads Abstract Manifold possibilities of hybridizing individual metaheuristics with each other and/or with algorithms from other fields exist. A large number of publications documents the benefits and great success of such hybrids. This article overviews several popular hybridization approaches and classifies them based on various characteristics. In particular with respect to low-level hybrids of different metaheuristics, a unified view based on a common pool template is described. It helps in making similarities and different key components of existing metaheuristics explicit. We then consider these key components as a toolbox for building new, effective hybrid metaheuristics. This approach of thinking seems to be superior to sticking too strongly to the philosophies and historical backgrounds behind the different metaheuristic paradigms. Finally, particularly promising possibilities of combining metaheuristics with constraint programming and integer programming techniques are highlighted.
Keywords Local Search Integer Linear Programming Constraint Programming Memetic Algorithm Greedy Randomized Adaptive Search Procedure
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.
This work is supported by the European RTN ADONET under grant 504438.This is a preview of subscription content, log in to check access.
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Cite this paper as: Raidl G.R. (2006) A Unified View on Hybrid Metaheuristics. In: Almeida F. et al. (eds) Hybrid Metaheuristics. HM 2006. Lecture Notes in Computer Science, vol. 4030. Springer, Berlin, Heidelberg. https://doi.org/10.1007/11890584_1
Source: Conference Paper A Unified View on Hybrid Metaheuristics
Cite
3 Recommendations
Mehdi Neshat
University of South Australia
Dear Ashkan,
I would be happy to share my experience in the hybrid optimisation methods and local search in solving the real-engineering problem. Please find some of my publication as follows:
Article New Insights into Position optimisation of Wave Energy Conve...
Article A Hybrid Cooperative Co-evolution Algorithm Framework for Op...
Preprint Optimization of Large Wave Farms Using a Multi-Strategy Evol...
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