Fluid flow nozzle energy harvesters

被引:8
|
作者
Sherrit, Stewart [1 ]
Lee, Hyeong Jae [1 ]
Walkemeyer, Phillip [1 ]
Winn, Tyler [1 ]
Tosi, Luis Phillipe [2 ]
Colonius, Tim [2 ]
机构
[1] CALTECH, Jet Prop Lab, Pasadena, CA 91125 USA
[2] CALTECH, Dept Mech Engn, Pasadena, CA 91125 USA
关键词
Actuators; Piezoelectric Devices; Flow Energy Harvesting; bimorphs; transducers vibrators; piezoelectric power generation; fluid structure interaction;
D O I
10.1117/12.2084574
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Power generation schemes that could be used downhole in an oil well to produce about 1 Watt average power with long-life (decades) are actively being developed. A variety of proposed energy harvesting schemes could be used to extract energy from this environment but each of these has their own limitations that limit their practical use. Since vibrating piezoelectric structures are solid state and can be driven below their fatigue limit, harvesters based on these structures are capable of operating for very long lifetimes (decades); thereby, possibly overcoming a principle limitation of existing technology based on rotating turbo-machinery. An initial survey [1] identified that spline nozzle configurations can be used to excite a vibrating piezoelectric structure in such a way as to convert the abundant flow energy into useful amounts of electrical power. This paper presents current flow energy harvesting designs and experimental results of specific spline nozzle/ bimorph design configurations which have generated suitable power per nozzle at or above well production analogous flow rates. Theoretical models for non-dimensional analysis and constitutive electromechanical model are also presented in this paper to optimize the flow harvesting system.
引用
收藏
页数:12
相关论文
共 50 条
  • [41] Oscillations of the fluid flow and the free surface in a cavity with a submerged bifurcated nozzle
    Kalter, R.
    Tummers, M. J.
    Kenjeres, S.
    Righolt, B. W.
    Kleijn, C. R.
    INTERNATIONAL JOURNAL OF HEAT AND FLUID FLOW, 2013, 44 : 365 - 374
  • [42] Modelling of Cantilever-Based Flow Energy Harvesters Featuring C-Shaped Vibration Inducers: The Role of the Fluid/Beam Interaction
    Sciortino, Giampiero
    Lombardi, Valentina
    Prestininzi, Pietro
    APPLIED SCIENCES-BASEL, 2023, 13 (01):
  • [43] The effects of nozzle diameter on impinging jet heat transfer and fluid flow
    Lee, DH
    Song, J
    Jo, MC
    JOURNAL OF HEAT TRANSFER-TRANSACTIONS OF THE ASME, 2004, 126 (04): : 554 - 557
  • [44] A Design Study of an Air-twist Nozzle by Analysis of Fluid Flow
    Juraeva, Makhsuda
    Song, Dong Joo
    Chun, Du Hwan
    TEXTILE RESEARCH JOURNAL, 2010, 80 (15) : 1616 - 1623
  • [45] Fourier Transform evaluation and numerical modeling of fluid flow in a Laval nozzle
    Rodriguez, F.
    Dorrío, B. V.
    Doval, A. F.
    OPTICAL FABRICATION, TESTING, AND METROLOGY III, 2008, 7102
  • [46] NOZZLE FLOW OF A FULLY IONIZED PLASMA BASED ON 2 FLUID THEORY
    PAI, SI
    TSAO, CK
    ZEITSCHRIFT FUR ANGEWANDTE MATHEMATIK UND PHYSIK, 1965, 16 (03): : 360 - &
  • [47] COMPUTER SIMULATION OF FLUID FLOW THROUGH A VENTURI NOZZLE OF DIFFERENT CONFIGURATIONS
    Yu, Avdieieva l.
    Makarenko, A. A.
    Dekusha, H. V.
    SCIENCE AND INNOVATION, 2022, 18 (05): : 61 - 68
  • [48] Numerical simulation of fluid flow and heat transfer in the micro-nozzle
    Li, Longjian
    Zhang, Yihua
    Cui, Wenzhi
    Jen, Tien-Chien
    Chen, Qinghua
    Liao, Quan
    PROCEEDINGS OF THE ASME HEAT TRANSFER DIVISION 2005, VOL 2, 2005, 376-2 : 685 - 690
  • [49] Liquid film model for the flow in a twin-fluid atomization nozzle
    Zhu Y.
    Wu Y.
    Feng L.
    Lü J.
    Qinghua Daxue Xuebao/Journal of Tsinghua University, 2017, 57 (11): : 1228 - 1232
  • [50] Modeling and analysis of fluid-solid coupling heat transfer and fluid flow in transonic nozzle
    Zhu, Wei
    Lin, Wanyu
    Zhang, Shuai
    Yang, Siyuan
    Wu, Tianyu
    Ma, Ruochen
    Cao, Tao-Feng
    Dai, Yan-Jun
    Tao, Wen-Quan
    APPLIED THERMAL ENGINEERING, 2025, 260