Optimizing Folding Wing Spring Parameters Using the Honeybee Algorithm

The spring material was predefined and was not used as a variable in the optimization. Since many different types of springs are used in aircraft and rockets, BA will be applied to design other types of springs using different materials to achieve optimal spring design in future research.
We declare that this manuscript is original, has not been previously published, and is not currently being considered for publication elsewhere.
All data generated or analyzed in this study is included in this published article [and additional information file].
Min, Z., Kin, V.K. and Richard, L.J. Aircraft Modernization of the airfoil concept through radical geometric changes. IES J. Part A Civilization. composition. project. 3(3), 188–195 (2010).
Sun, J., Liu, K. and Bhushan, B. An overview of the beetle’s hindwing: structure, mechanical properties, mechanisms, and biological inspiration. J. Mecha. Behavior. Biomedical Science. alma mater. 94, 63–73 (2019).
Chen, Z., Yu, J., Zhang, A., and Zhang, F. Design and analysis of a folding propulsion mechanism for a hybrid powered underwater glider. Ocean Engineering 119, 125–134 (2016).
Kartik, H.S. and Prithvi, K. Design and Analysis of a Helicopter Horizontal Stabilizer Folding Mechanism. internal J. Ing. storage tank. technology. (IGERT) 9(05), 110–113 (2020).
Kulunk, Z. and Sahin, M. Optimization of the mechanical parameters of a folding rocket wing design using an experiment design approach. internal J. Model. optimization. 9(2), 108–112 (2019).
Ke, J., Wu, ZY, Liu, YS, Xiang, Z. & Hu, XD Design Method, Performance Study, and Manufacturing Process of Composite Coil Springs: A Review. compose. composition. 252, 112747 (2020).
Taktak M., Omheni K., Alui A., Dammak F. and Khaddar M. Dynamic design optimization of coil springs. Apply for sound. 77, 178–183 (2014).
Paredes, M., Sartor, M., and Mascle, K. A procedure for optimizing the design of tension springs. a computer. application of the method. fur. project. 191(8-10), 783-797 (2001).
Zebdi O., Bouhili R. and Trochu F. Optimal design of composite helical springs using multiobjective optimization. J. Reinf. plastic. compose. 28 (14), 1713–1732 (2009).
Pawart, H. B. and Desale, D. D. Optimization of tricycle front suspension coil springs. process. manufacturer. 20, 428–433 (2018).
Bahshesh M. and Bahshesh M. Optimization of steel coil springs with composite springs. internal J. Multidisciplinary. the science. project. 3(6), 47–51 (2012).
Chen, L. et al. Learn about the many parameters that affect the static and dynamic performance of composite coil springs. J. Market. storage tank. 20, 532–550 (2022).
Frank, J. Analysis and Optimization of Composite Helical Springs, PhD Thesis, Sacramento State University (2020).
Gu, Z., Hou, X. and Ye, J. Methods for designing and analyzing nonlinear helical springs using a combination of methods: finite element analysis, Latin hypercube limited sampling, and genetic programming. process. Fur Institute. project. CJ Mecha. project. the science. 235(22), 5917–5930 (2021).
Wu, L., et al. Adjustable Spring Rate Carbon Fiber Multi-Strand Coil Springs: A Design and Mechanism Study. J. Market. storage tank. 9(3), 5067–5076 (2020).
Patil D.S., Mangrulkar K.S. and Jagtap S.T. Weight optimization of compression helical springs. internal J. Innov. storage tank. Multidisciplinary. 2(11), 154–164 (2016).
Rahul, M.S. and Rameshkumar, K. Multipurpose optimization and numerical simulation of coil springs for automotive applications. alma mater. process today. 46. ​​4847–4853 (2021).


Post time: Jan-27-2023