Applied Mathematics and Mechanics >
Unlocking multidirectional and broadband wind energy harvesting with triboelectric nanogenerator and vortex-induced vibration of sphere
Received date: 2024-05-01
Online published: 2024-10-30
Supported by
the National Natural Science Foundation of China(12202151);the National Natural Science Foundation of China(12272140);Project supported by the National Natural Science Foundation of China (Nos. 12202151 and 12272140)
Copyright
A unique oscillating wind-driven triboelectric nanogenerator (OWTENG) based on the sphere's vortex-induced vibration (VIV) behavior is proposed in this study, which can harvest wind energy across a multitude of horizontal directions. With the Euler-Lagrange method, the coupled governing equations of the OWTENG are established and subsequently validated by experimental tests. The vibrational properties and output performance of the OWTENG for varying wind speeds are analyzed, demonstrating its effectiveness in capturing wind energy across a broad range of wind speeds (from 2.20 m/s to 8.84 m/s), and the OWTENG achieves its peak output power of 106.3 μW at a wind speed of 5.72 m/s. Furthermore, the OWTENG maintains a steady output power across various wind directions within the speed range of 2.20 m/s to 7.63 m/s. Nevertheless, when the wind speed exceeds 7.63 m/s, the vibrational characteristics of the sphere shift based on the wind direction, leading to fluctuations in the OWTENG's output power. This research presents an innovative approach for designing vibrational triboelectric nanogenerators, offering valuable insights into harvesting wind energy from diverse directions and speeds.
Lanbin ZHANG, Yixiang HE, Bo MENG, Huliang DAI, Lin WANG . Unlocking multidirectional and broadband wind energy harvesting with triboelectric nanogenerator and vortex-induced vibration of sphere[J]. Applied Mathematics and Mechanics, 2024 , 45(11) : 1895 -1912 . DOI: 10.1007/s10483-024-3185-8
| 1 | ZEADALLY,S.,SHAIKH,F. K.,TALPUR,A., andSHENG,Q. Z.Design architectures for energy harvesting in the Internet of Things.Renewable and Sustainable Energy Reviews,128,109901(2020) |
| 2 | SARKER,M. R.,RIAZ,A.,LIPU,M. S. H.,SAAD,M. H. M.,AHMAD,M. N.,KADIR,R. A., andOLAZAGOITIA,J. L.Micro energy harvesting for IoT platform: review analysis toward future research opportunities.Heliyon,10(6),e27778(2024) |
| 3 | WANG,J.,YURCHENKO,D.,HU,G.,ZHAO,L.,TANG,L., andYANG,Y.Perspectives in flow-induced vibration energy harvesting.Applied Physics Letters,119,100502(2021) |
| 4 | QI,L.,PAN,H.,PAN,Y.,LUO,D.,YAN,J., andZHANG,Z.A review of vibration energy harvesting in rail transportation field.IScience,25,103849(2022) |
| 5 | QIAN,X.,ZHAO,Y.,ALSAID,Y.,WANG,X.,HUA,M.,GALY,T.,GOPALAKRISHNA,H.,YANG,Y.,CUI,J.,LIU,N.,MARSZEWSKI,M.,PILON,L.,JIANG,H., andHE,X.Artificial phototropism for omnidirectional tracking and harvesting of light.Nature Nanotechnology,14,1048-1055(2019) |
| 6 | MA,Z.,WANG,Y.,WANG,S., andYANG,Y.Ocean thermal energy harvesting with phase change material for underwater glider.Applied Energy,178,557-566(2016) |
| 7 | TAN,Y.,DONG,Y., andWANG,X.Review of MEMS electromagnetic vibration energy harvester.Journal of Microelectromechanical Systems,26,1-16(2017) |
| 8 | WANG,W.,ZHANG,Y.,WEI,Z. H., andCAO,J.Design and numerical investigation of an ultra-wide bandwidth rolling magnet bistable electromagnetic harvester.Energy,261,125311(2022) |
| 9 | FAN,K.,XIA,P.,ZHANG,Y.,QU,H.,LIANG,G.,WANG,F., andZUO,L.Achieving high electric outputs from low-frequency motions through a double-string-spun rotor.Mechanical Systems and Signal Processing,155,107648(2021) |
| 10 | XU,M.,WANG,B.,LI,X.,ZHOU,S., andYURCHENKO,D.Dynamic response mechanism of the galloping energy harvester under fluctuating wind conditions.Mechanical Systems and Signal Processing,166,108410(2022) |
| 11 | ZHANG,Y.,CHENG,G.,SEOK,J.,DING,J., andSUN,W.Enhancing output performance of galloping-based energy harvesting using asymmetric bluff body.Ocean Engineering,294,116793(2024) |
| 12 | NASEER,R., andABDELKEFI,A.Nonlinear modeling and efficacy of VIV-based energy harvesters: monostable and bistable designs.Mechanical Systems and Signal Processing,169,108775(2022) |
| 13 | ERTURK,A.,VIEIRA,W. G. R.,DE MARQUI,C., andINMAN,D. J.On the energy harvesting potential of piezoaeroelastic systems.Applied Physics Letters,96,184103(2010) |
| 14 | ZHAO,D.,HU,X.,TAN,T.,YAN,Z., andZHANG,W.Piezoelectric galloping energy harvesting enhanced by topological equivalent aerodynamic design.Energy Conversion and Management,222,113260(2020) |
| 15 | ZHAO,C.,HU,G., andYANG,Y.A cantilever-type vibro-impact triboelectric energy harvester for wind energy harvesting.Mechanical Systems and Signal Processing,177,109185(2022) |
| 16 | YAN,Z.,WANG,L.,HAJJ,M. R.,YAN,Z.,SUN,Y., andTAN,T.Energy harvesting from iced-conductor inspired wake galloping.Extreme Mechanics Letters,35,100633(2020) |
| 17 | MA,X.,ZHANG,H.,MARGIELEWICZ,J.,GşKA,D.,WOLSZCZAK,P.,LITAK,G., andZHOU,S.A dual-beam piezo-magneto-elastic wake-induced vibration energy harvesting system for high-performance wind energy harvesting.Science China-Technological Sciences,67,221-239(2024) |
| 18 | LIU,S.,LI,P., andYANG,Y.On the design of an electromagnetic aeroelastic energy harvester from nonlinear flutter.Meccanica,53,2807-2831(2018) |
| 19 | WANG,Q.,CHEN,Z.,ZHAO,L.,LI,M.,ZOU,H.,WEI,K.,ZHANG,X., andZHANG,W.Enhanced galloping energy harvester with cooperative mode of vibration and collision.Applied Mathematics and Mechanics (English Edition),43,945-958(2022) |
| 20 | GAO,W.,SHAO,J.,SAGOE-CRENTSIL,K., andDUAN,W.Investigation on energy efficiency of rolling triboelectric nanogenerator using cylinder-cylindrical shell dynamic model.Nano Energy,80,105583(2021) |
| 21 | XIE,Z.,ZENG,Z.,WANG,Y.,YANG,W.,XU,Y.,LU,X.,CHENG,T.,ZHAO,H., andWANG,Z. L.Novel sweep-type triboelectric nanogenerator utilizing single freewheel for random triggering motion energy harvesting and driver habits monitoring.Nano Energy,68,104360(2020) |
| 22 | WANG,Q.,ZOU,H. X.,ZHAO,L. C.,LI,M.,WEI,K. X.,HUANG,L. P., andZHANG,W. M.A synergetic hybrid mechanism of piezoelectric and triboelectric for galloping wind energy harvesting.Applied Physics Letters,117,043902(2020) |
| 23 | LI,H.,ZHENG,T.,QIN,W.,TIAN,R.,DING,H.,JI,J. C., andCHEN,L.Theoretical and experimental study of a bi-stable piezoelectric energy harvester under hybrid galloping and band-limited random excitations.Applied Mathematics and Mechanics (English Edition),45,461-478(2024) |
| 24 | FAN,K.,WEI,D.,ZHANG,Y.,WANG,P.,TAO,K., andYANG,R.A whirligig-inspired intermittent-contact triboelectric nanogenerator for efficient low-frequency vibration energy harvesting.Nano Energy,90,106576(2021) |
| 25 | KIM,W.,BHATIA,D.,JEONG,S., andCHOI,D.Mechanical energy conversion systems for triboelectric nanogenerators: kinematic and vibrational designs.Nano Energy,56,307-321(2019) |
| 26 | CAO,D.,XIA,W., andHU,W.Low-frequency and broadband vibration energy harvester driven by mechanical impact based on layer-separated piezoelectric beam.Applied Mathematics and Mechanics (English Edition),40,1777-1790(2019) |
| 27 | CHEN,B.,YANG,Y., andWANG,Z. L.Scavenging wind energy by triboelectric nanogenerators.Advanced Energy Materials,8,1702649(2018) |
| 28 | REN,Z.,WU,L.,PANG,Y.,ZHANG,W., andYANG,R.Strategies for effectively harvesting wind energy based on triboelectric nanogenerators.Nano Energy,100,107522(2022) |
| 29 | BAE,J.,LEE,J.,KIM,S.,HA,J.,LEE,B. S.,PARK,Y.,CHOONG,C.,KIM,J. B.,WANG,Z. L.,KIM,H. Y.,PARK,J. J., andCHUNG,U. I.Flutter-driven triboelectrification for harvesting wind energy.Nature Communications,5,4929(2014) |
| 30 | RAVICHANDRAN,A. N.,CALMES,C.,SERRES,J. R.,RAMUZ,M., andBLAYAC,S.Compact and high performance wind actuated venturi triboelectric energy harvester.Nano Energy,62,449-457(2019) |
| 31 | PHAN,H.,SHIN,D. M.,JEON,S. H.,KANG,T. Y.,HAN,P.,KIM,G. H.,KIM,H. K.,KIM,K.,HWANG,Y. H., andHONG,S. W.Aerodynamic and aeroelastic flutters driven triboelectric nanogenerators for harvesting broadband airflow energy.Nano Energy,33,476-484(2017) |
| 32 | ZHAO,Z.,PU,X.,DU,C.,LI,L.,JIANG,C.,HU,W., andWANG,Z. L.Freestanding flag-type triboelectric nanogenerator for harvesting high-altitude wind energy from arbitrary directions.ACS Nano,10,1780-1787(2016) |
| 33 | KO,H. J.,KWON,D. S.,BAE,K., andKIM,J.Self-suspended shell-based triboelectric nanogenerator for omnidirectional wind-energy harvesting.Nano Energy,96,107062(2022) |
| 34 | DAI,S.,LI,X.,JIANG,C.,ZHANG,Q.,PENG,B.,PING,J., andYING,Y.Omnidirectional wind energy harvester for self-powered agro-environmental information sensing.Nano Energy,91,106686(2022) |
| 35 | ZHANG,L.,MENG,B.,TIAN,Y.,MENG,X.,LIN,X.,HE,Y.,XING,C.,DAI,H., andWANG,L.Vortex-induced vibration triboelectric nanogenerator for low speed wind energy harvesting.Nano Energy,95,107029(2022) |
| 36 | LI,W.,LU,L.,FU,X.,ZHANG,C.,LOOS,K., andPEI,Y.Kármán vortex street driven membrane triboelectric nanogenerator for enhanced ultra-low speed wind energy harvesting and active gas flow sensing.ACS Applied Materials & Interfaces,14,51018-51028(2022) |
| 37 | WANG,Y.,CHEN,T.,SUN,S.,LIU,X.,HU,Z.,LIAN,Z.,LIU,L.,SHI,Q.,WANG,H.,MI,J.,ZHOU,T.,LEE,C., andXU,M.A humidity resistant and high performance triboelectric nanogenerator enabled by vortex-induced vibration for scavenging wind energy.Nano Research,15,3246-3253(2022) |
| 38 | GOVARDHAN,R. N., andWILLIAMSON,C. H. K.Vortex-induced vibrations of a sphere.Journal of Fluid Mechanics,531,11-47(2005) |
| 39 | JAUVTIS,N.,GOVARDHAN,R., andWILLIAMSON,C. H. K.Multiple modes of vortex-induced vibration of a sphere.Journal of Fluids and Structures,15,555-563(2001) |
| 40 | BEHARA,S., andSOTIROPOULOS,F.Vortex-induced vibrations of an elastically mounted sphere: the effects of Reynolds number and reduced velocity.Journal of Fluids and Structures,66,54-68(2016) |
| 41 | RAJAMUNI,M. M.,THOMPSON,M. C., andHOURIGAN,K.Vortex-induced vibration of elastically-mounted spheres: a comparison of the response of three degrees of freedom and one degree of freedom systems.Journal of Fluids and Structures,89,142-155(2019) |
| 42 | RAJAMUNI,M. M.,THOMPSON,M. C., andHOURIGAN,K.Transverse flow-induced vibrations of a sphere.Journal of Fluid Mechanics,837,931-966(2018) |
| 43 | ZHANG,L.,HE,Y.,MENG,B.,DAI,H.,ABDELKEFI,A., andWANG,L.Omnidirectional wind piezoelectric energy harvesting.Journal of Physics D: Applied Physics,56,234003(2023) |
| 44 | NIU,S.,WANG,S.,LIN,L.,LIU,Y.,ZHOU,Y. S.,HU,Y., andWANG,Z. L.Theoretical study of contact-mode triboelectric nanogenerators as an effective power source.Energy & Environmental Science,6,3576(2013) |
| 45 | SUN,W.,JIANG,Z.,XU,X.,HAN,Q., andCHU,F.Electromechanical coupling modeling and analysis of contact-separation mode triboelectric nanogenerators.International Journal of Non-Linear Mechanics,136,103773(2021) |
| 46 | FACCHINETTI,M. L.,DE LANGRE,E., andBIOLLEY,F.Coupling of structure and wake oscillators in vortex-induced vibrations.Journal of Fluids and Structures,19,123-140(2004) |
| 47 | MI,L., andGOTTLIEB,O.Asymptotic model-based estimation of a wake oscillator for a tethered sphere in uniform flow.Journal of Fluids and Structures,54,361-389(2015) |
| 48 | BRAKE,M. R.The effect of the contact model on the impact-vibration response of continuous and discrete systems.Journal of Sound and Vibration,332,3849-3878(2013) |
| 49 | SAREEN,A.,ZHAO,J.,LO JACONO,D.,SHERIDAN,J.,HOURIGAN,K., andTHOMPSON,M. C.Vortex-induced vibration of a rotating sphere.Journal of Fluid Mechanics,837,258-292(2018) |
| 50 | MA,X.,LI,Z.,ZHANG,H., andZHOU,S.Dynamic modeling and analysis of a tristable vortex-induced vibration energy harvester.Mechanical Systems and Signal Processing,187,109924(2023) |
/
| 〈 |
|
〉 |
Email Alert
RSS