Journal of Vibration and Sound

Journal of Vibration and Sound

Investigating the effects of cross-section shape on bladeless wind turbine performance

Document Type : research article

Authors
1 عضو هیات علمی
2 Department of mechanical Engr., Iran science and technology university
Abstract
The main objective of the present project is the experimental and numerical investigation of the aeroelastic energy harvesting from the fluctuations caused by the current passing through a flexible piezoelectric composite beam installed vertically on the floor as a base for a rigid cylinder with square, circular and mixed cross-sections as a simple configuration of Turbines without blades. In this experiment, by using a blower system, the flow passing over the bladeless wind turbine was changed and as a result of its fluctuations, the resulting kinetic energy was absorbed by the piezoelectric piece attached to the root of the elastic beam. According to the results, the maximum power extracted without dimension for cross-section 1 at speeds of about 3.4 m/s was about 1.8 and 50 times that of cross-section 3 and cross-section 5. Also, at this speed, the area under the power graph taken in terms of time for cross-section 1 was about 6 times that of cross-section 3. In this regard, in cross section 1, with an increase in speed from 2.8m/s to 3.4m/s, it can be seen that the dimensionless energy harvesting has grown by about 3.5 times, which means an increase in the working efficiency of the system at higher speeds.
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[1]. هاشمی نژاد، سید محمود ؛ هانیه نعیمی، "کنترل پاسخ دینامیکی پوسته‌ی استوانه‌ای پیزوالکتریک مدفون تحت اثر بارگذاری متحرکمجله صوت و ارتعاش، دوره 12، شماره 24، 1402، صفحه 120-142.
[2]. پناهی، امیر؛ علیرضا حسن‌زاده؛ "علی مولوی مدل­سازی تأثیر نوفه صدا بر روی یک تیرک پیزوالکتریک برای جمع آوری انرژی"، مجله صوت و ارتعاش، دوره 9، شماره 17، 1399، صفحه 10-23.
[3]. Lian, Jijian, Xiang Yan, Fang Liu, and Jun Zhang. "Analysis on flow induced motion of cylinders with different cross sections and the potential capacity of energy transference from the flow." Shock and vibration 2017, no. 1 (2017): 4356367.
[4]. Asre, Chaitanya M., Vijay K. Kurkute, and Nand Jee Kanu. "Power generation with the application of vortex wind turbine." Materials Today: Proceedings 56 (2022): 2428-2436.
[5]. Balakrishnan, S. P., R. Arun, and N. Vinoth Babu. "Design Analysis and Prototype of Vortex Bladeless Wind Turbine." International Research Journal of Engineering and Technology (IRJET) 6, no. 3 (2019): 2395-0072.
[6]. Dehghan Manshadi, Mahsa, Majid Ghassemi, Seyed Milad Mousavi, Amir H. Mosavi, and Levente Kovacs. "Predicting the parameters of vortex bladeless wind turbine using deep learning method of long short-term memory." Energies 14, no. 16 (2021): 4867.
[7]. Villarreal, DJ Yáñez, and Vortex Bladeless SL. "VIV resonant wind generators." Vortex Bladeless SL (2018).
[8]. Song, Rujun, Xiaobiao Shan, Fengchi Lv, and Tao Xie. "A study of vortex-induced energy harvesting from water using PZT piezoelectric cantilever with cylindrical extension." Ceramics International 41 (2015): S768-S773.
[9]. Dai, Hu Liang, A. Abdelkefi, Y. Yang, and L. Wang. "Orientation of bluff body for designing efficient energy harvesters from vortex-induced vibrations." Applied Physics Letters 108, no. 5 (2016).
[10]. Zhang, L. B., H. L. Dai, A. Abdelkefi, and L. Wang. "Improving the performance of aeroelastic energy harvesters by an interference cylinder." Applied Physics Letters 111, no. 7 (2017).
[11]. Song, Jie, Gang Hu, K. T. Tse, S. W. Li, and K. C. S. Kwok. "Performance of a circular cylinder piezoelectric wind energy harvester fitted with a splitter plate." Applied Physics Letters 111, no. 22 (2017).
[12].     Jia, Jinda, Xiaobiao Shan, Deepesh Upadrashta, Tao Xie, Yaowen Yang, and Rujun Song. "Modeling and analysis of upright piezoelectric energy harvester under aerodynamic vortex-induced vibration." Micromachines 9, no. 12 (2018): 667.
[13].     Thomai, Micha Premkumar, Lasoodawanki Kharsati, Nakandhrakumar Rama Samy, Seralathan Sivamani, and Hariram Venkatesan. "Experimental analysis of vortex induced vibration in the bladeless small wind turbine." In Gas Turbine India Conference, vol. 83532, p. V002T06A009. American Society of Mechanical Engineers, 2019.
[14].     Francis, Sigil, V. Umesh, and S. Shivakumar. "Design and analysis of vortex bladeless wind turbine." Materials Today: Proceedings 47 (2021): 5584-5588.
[15].     Maftouni, Negin, Mahsa Dehghan Manshadi, and Seyed Milad Mousavi. "The effect of drag force on the body frequencies and the power spectrum of a bladeless wind turbine." Transactions of the Canadian Society for Mechanical Engineering 45, no. 4 (2021): 604-611.
[16]. Sabab, Muhammad Wafi, and Sofian Mohd. "Aerodynamic Characteristic Of Vortex Bladeless Wind Turbine: A Short Review." Research Progress in Mechanical and Manufacturing Engineering 2, no. 1 (2021): 177-186.
[17]. Ramadhany, Muhammad Farhan, Theo Aden Kusuma, Yessika Natalia Chelsie, and Gandha Satria Adi. "Optimization of Mechanical Design Bladeless Wind Turbine for Electricity Fulfilment in Nusa Tenggara Timur, Indonesia." arXiv preprint arXiv:2205.02786 (2022).
[18]. Younis, Adel, Zuomin Dong, Mohamed ElBadawy, Abeer AlAnazi, Hayder Salem, and Abdullah AlAwadhi. "Design and development of bladeless vibration-based piezoelectric energy–harvesting wind turbine." Applied Sciences 12, no. 15 (2022): 7769.
[19]. Zheng, Xiaotian, Lipeng He, Shuangjian Wang, Xuejin Liu, Renwen Liu, and Guangming Cheng. "A review of piezoelectric energy harvesters for harvesting wind energy." Sensors and Actuators A: Physical 352 (2023): 114190.
[20]. Zhang, Dan, Shu Zheng, Yaping Dou, Zhilong Xing, Rujun Song, and Wentao Sui. "Design and experimental investigation of magnetically coupling piezoelectric energy harvesting system based on galloping and vortex induced vibration." Ferroelectrics 606, no. 1 (2023): 61-72.
[21]. Hasheminejad, Seyyed M., and Yasin Masoumi. "Dual-functional synergetic energy harvesting and flow-induced vibration control of an electromagnetic-based square cylinder integrated with a flexible bimorph piezoelectric wake splitter plate." Renewable Energy 216 (2023): 119133.
[22]. Hasheminejad, Seyed Mahmoud. "Optimum design and numerical modeling of a bladeless wind turbine." Journal of Marine Engineering 19, no. 40 (2023): 16-29.
[23]. Masoumi, Y., F. Taheri-Behrooz, and Seyyed M. Hasheminejad. "Numerical study of a synergistic hybrid energy harvesting system for bladeless wind turbines." Energy Conversion and Management 307 (2024): 118342.
[24]. Wang, Huakun, Qiu Zhai, and Jisheng Zhang. "Numerical study of flow-induced vibration of a flexible plate behind a circular cylinder." Ocean Engineering 163 (2018): 419-430.
[25]. Wang, Huakun, Wenyu Yang, Kim Dan Nguyen, and Guoliang Yu. "Wake-induced vibrations of an elastically mounted cylinder located downstream of a stationary larger cylinder at low Reynolds numbers." Journal of Fluids and Structures 50 (2014): 479-496.
[26]. Ramegowda, Prakasha Chigahalli, Daisuke Ishihara, Rei Takata, Tomoya Niho, and Tomoyoshi Horie. "Hierarchically decomposed finite element method for a triply coupled piezoelectric, structure, and fluid fields of a thin piezoelectric bimorph in fluid." Computer Methods in Applied Mechanics and Engineering 365 (2020): 113006.
[27]. Kohnke, Peter. "Theory reference for the mechanical APDL and mechanical applications." Ansys Inc, release 12 (2009).
[28]. Subbaraj, K., and MA1017986 Dokainish. "A survey of direct time-integration methods in computational structural dynamics—II. Implicit methods." Computers & structures 32, no. 6 (1989): 1387-1401.
[29]. Jacob, Breno Pinheiro, and Nelson Francisco Favilla Ebecken. "An optimized implementation of the Newmark/Newton‐Raphson algorithm for the time integration of non‐linear problems." Communications in Numerical Methods in Engineering 10, no. 12 (1994): 983-992.
[30]. Kaneko, Shigeki, Giwon Hong, Naoto Mitsume, Tomonori Yamada, and Shinobu Yoshimura. "Numerical study of active control by piezoelectric materials for fluid–structure interaction problems." Journal of Sound and Vibration 435 (2018): 23-35.
[31]. Jean-Mark, V., DeVincenzo Pascal, Hirsch Charles, and Leonard Benoit. "Strong coupling algorithm to solve fluid-structure interaction problems with a staggered approach." Report, Open Engineering SA (2009).
[32]. Richter, Thomas. "Numerical methods for fluid-structure interaction problems." Institute for Applied Mathematics, University of Heidelberg, Germany (2010).
[33]. Hou, Gene, Jin Wang, and Anita Layton. "Numerical methods for fluid-structure interaction—a review." Communications in Computational Physics 12, no. 2 (2012): 337-377.