Abstract
Heat dissipation in electronic devices is highly essential to maintain the temperature within safe limits and overcome the component failure. Ionic wind has emerged as one of the potential cooling technologies in thermal management of electronic devices over conventional cooling methods. The ionic wind cooling has drawn considerable attention for both external and internal flows owing to the favorable characteristics such as silent operation, quick response, minimum power and compactness. In the recent years, new actuating strategies have been developed by various researchers for enhancement of heat dissipation. The motive of the present review is categorized into three. The first is to provide an insight in recent advancement of ionic wind from the point of physics and electric field; later the application of ionic wind for heat transfer enhancement in both external and internal flows such as cooling of plates, circular tubes, channel, power chips and heat exchangers is reported. In addition, the delay in flow separation accounting for change in flow characteristics is also discussed. Some of the key outcomes and new designs of ionic wind generator are highlighted, which guides for further optimal design. Finally, the ongoing challenges and possible future research areas that can have impact on technology is presented.
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References
Chattock A P X L I V 1899 On the velocity and mass of the ions in the electric wind in air. London Edinburgh Dublin Philos. Mag J. Sci. 48(294): 401–420
Ferreira G F L, Oliveira O N and Giacometti J A 1986 Point-to-plane corona: current–voltage characteristics for positive and negative polarity with evidence of an electronic component. J. Appl. Phys. 59: 3045
Moreau E and Touchard G 2008 Enhancing the mechanical efficiency of electric wind in corona discharges. J. Electrostat. 66: 39–44
Kawamoto H and Umezu 2008 Electrostatic micro-ozone fan that utilizes ionic wind induced in pin-to-plate corona discharge system. J. Electrostat. 66(7): 445–454
Go D B, Garimella S V, Fisher T S and Mongia R K 2007 Ionic winds for locally enhanced cooling. J. Appl. Phys. 102(5): 053302
Kim C, Noh K C, Hyun J, Lee S G, Hwang J and Hong H 2012 Microscopic energy conversion process in the ion drift region of electrohydrodynamic flow. Appl. Phys. Lett. 100: 243906
Shin D H, Yoon J S and Ko H S 2015 Experimental optimization of ion wind generator with needle to parallel plates for cooling device. Int. J. Heat Mass Transf. 84: 35–45
Chen I Y, Guo M Z, Yang K S and Wang C C 2013 Enhanced cooling for LED lighting using ionic wind. Int. J. Heat Mass Transf. 57: 285–291
Toyota H, Zama S, Akamine Y, Matsuoka S and Hidaka K 2002 Gaseous electrical discharge characteristics in air and nitrogen at cryogenic temperature. IEEE Trans. Dielectr. Electr. Insul. 9(6): 891–898
Kim B, Lee S, Lee Y S and Kang K H 2012 Ion wind generation and the application to cooling. J. Electrostat. 70(5): 438–444
Goldman M, Goldman A and Sigmond R S 1985 The corona discharge its properties and specific uses. Pure Appl. Chem. 57(9): 1353–1362
Li L, Lee S J, Kim W and Kim D 2015 An empirical model for ionic wind generation by a needle-to-cylinder DC corona discharge. J. Electrostat. 73: 125–130
Robinson M 1961 Movement of air in the electric wind of the corona discharge. Trans. Am. Instit. Electr. Eng. Part I Commun. Electr. 80(2): 143–150
Bondar H and Bastien F 1986 Effect of neutral fluid velocity on direct conversion from electrical to fluid kinetic energy in an electro-fluid-dynamics (EFD) device. J Phys. D. Appl. Phys. 19: 1657–1665
Yabe A, Mori Y and Hijikata K 1978 EHD study of the corona wind between wire and plate electrodes. AIAA J. 16: 340–345
Wang H C, Jewell-Larsen N E and Mamishev A V 2013 Thermal management of microelectronics with electrostatic fluid accelerators. Appl. Thermal Eng. 51: 190–211
Fylladitakis E D, Theodoridis M P and Moronis A X 2014 Review on the history, research and applications of electrohydrodynamics. IEEE Trans. Plasma Sci. 42: 358–375
Xu C L, Zheng H, Liu J, Chu J, Zeng X, Sun R and Liu S 2020 Enhanced cooling of LED filament bulbs using an embedded tri-needle/ring ionic wind device. Energies 13(11): 3008
Mahmoudi A R, Pourfayaz F and Kasaeian A 2018 A simplified model for estimating heat transfer coefficient in a chamber with electrohydrodynamic effect (corona wind). J. Electrostat. 93: 125–136
Go D B, Maturana R A, Fisher T S and Garimella S V 2008 Enhancement of external forced convection by ionic wind. Int. J. Heat Mass Transf. 51(25): 6047–6053
Corke T C, Mertz B and Patel M P 2006 Plasma flow control optimized airfoil. In: Proceedings of the 44th AIAA Aerospace Sciences Meeting and Exhibit, Reno, NV. AIAA Paper No. 2006-1208-9-15
Xu H, He Y, Strobel K L and Gilmore C K 2018 Flight of an aeroplane with solid-state propulsion. Nature 563: 532–535
Ramadan O E and Soo S L 1969 Electrohydrodynamic secondary flow. Phys. Fluids 12: 1943–1945
Kim H J , Han B, Woo C G , Kim Y J , Park S J and Yoon J P 2015 Ozone emission and electrical characteristics of ionizers with different electrode materials, numbers, and diameters. In: Proceedings of the IEEE Industry Applications Society Annual Meeting, Addison, pp. 1–5
Lukes P, Clupek M, Babicky V, Janda V and Sunka P 2005 Generation of ozone by pulsed corona discharge over water surface in hybrid gas–liquid electrical discharge reactor. J. Phys. D Appl. Phys. 38: 409–416
Kuhl Johannes, Seeger Thomas, Zigan Lars, Will Stefan and Leipertz Alfred 2017 On the effect of ionic wind on structure and temperature of laminar premixed flames influenced by electric fields. Combust. Flame 176: 391–399
Kim H H, Takashima K, Katsura S and Mizuno A 2001 Low-temperature NOx reduction processes using combined systems of pulsed corona discharge and catalysts. J. Phys. D Appl. Phys. 34: 604–613
Ryu J, Wakida T and Takagishi T 1991 Effect of corona discharge on the surface of wool and its application to printing. Textile Res.. J. 61: 595–601
Gilbert L A and George G T 1962 Electrical resistance of oxide films formed on the roll of a corona discharge roll-type separator. Nature 194: 1068–1069
Gao M, Zhu Y, Yao X, Shi J and Shangguan W 2019 Dust removal performance of two-stage electrostatic precipitators and its influencing factors. Powder Technol. 348: 13–23
Zhu Yong, Gao Mengxiang, Chen Mingxia, Shi Jianwei and Shangguan Wenfeng 2019 Numerical simulation of capture process of fine particles in electrostatic precipitators under consideration of electrohydrodynamics flow. Powder Technol. 354: 653–675
Chua B, Wexler A S, Tien N C, Niemeier D A and Holmen B A 2013 Micro corona based particle steering air filter. Sens. Actuat. A Phys. 196: 8–15
Masuyama K, and Barrett S R H 2013 On the performance of electrohydrodynamic propulsion. Proceedings of the Royal Society A 469
Chua B and Son A 2014 Sensing absolute air pressure using micro corona discharge. Sens. Actuat. A Phys. 217: 49
Timmermann E, Prehn F, Schmidt M, Höft H, Brandenburg R and Kettlitz M 2018 Indoor air purification by dielectric barrier discharge combined with ionic wind: physical and microbiological investigations Appl. Phys. 51(16): 164003
Hsu C P, Jewell-Larsen N E, Krichtafovitch I A, Montgomery S W, Dibene J T and Mamishev A V 2007 Miniaturization of electrostatic fluid accelerators. J. Microelectromech. Syst. 16: 809–815
Kawamoto H and Umezu S 2005 Electrohydrodynamic deformation of water surface in a metal pin to water plate corona discharge system. J. Phys. D Appl. Phys. 38: 887–894
Bastien F 1987 Acoustics and gas discharges: application to loudspeakers. J. Phys. D Appl. Phys. 20: 1547–1557
Defraeye T and Martynenko A 2018 Electrohydrodynamic drying of food: new insights from conjugate modelling. J. Clean. Product. 198: 269–284
Defraeye T and Martynenko A 2019 Electrohydrodynamic drying of multiple food products: evaluating the potential of emitter–collector electrode configurations for upscaling. J. Food Eng. 240: 38–42
Dinani S T and Havet M 2015 The influence of voltage and air flow velocity of combined convective–electrohydrodynamic drying system on the kinetics and energy consumption of mushroom slices. J. Clean. Product. 95: 203–211
Martynenko A, Bashkir I and Kudra T 2019 Electrically enhanced drying of white champignons. Drying Technol. 39: 1–11
Martynenko A, Kudra T and Defraeye T 2019 Temperature depression in EHD drying. In: Proceedings of Euro Drying, Torino, Italy, 10–12
Martynenko A, Astatkie T and Defraeye T 2020 The role of convection in electrohydrodynamic drying. J. Food Eng. 271: 1–4
Ni J, Ding C, Zhang Y and Song Z 2020 Impact of different pre-treatment methods on drying characteristics and microstructure of goji berry under electrohydrodynamic (EHD) drying process. Innov. Food Sci. Emerg. Technol. 61: 1–9
Bai Y, Qu M, Luan Z, Li X and Yang Y 2013 Electrohydrodynamic drying of sea cucumber (Stichopus japonicus). LWT - Food Sci. Technol. 54: 570
Dinani S T, Hamdami N, Shahedi M and Keramat J 2014 Optimization of carboxymethyl cellulose and calcium chloride dip-coating on mushroom slices prior to hot air drying using response surface methodology. J. Food Process. Preserv. 38: 1269–1277
Dinani S T, Hamdami N, Shahedi M and Havet M 2014 Mathematical modeling of hot air/electrohydrodynamic (EHD) drying kinetics of mushroom slices. Energy Convers. Manag. 86: 70–79
Yang M and Ding C 2016 Electrohydrodynamic (EHD) drying of the Chinese wolfberry fruits. SpringerPlus 5(909): 1–20
Zhang B, He J and Ji Y 2017 Dependence of the average mobility of ions in air with pressure and humidity. IEEE Trans. Dielectr. Electr.Insul. 24(2): 923–929
Washburn E W 2003 International critical tables of numerical data, physics chemistry and technology, 1st. Electronic Knovel Corporation, New York, pp 1926–1930
Owsenek B L and Seyed-Yagoobi J 1997 Theoretical and experimental study of electrohydrodynamic heat transfer enhancement through wire–plate corona discharge. J. Heat Transf. 119: 604–610
Boulos M, Fauchais P and Pfender E 1994 Thermal plasmas: fundamentals and applications. Plenum Press, New York
Colas D F, Ferret A, Pai D Z, Lacoste D A and Laux C O 2010 Ionic wind generation by a wire–cylinder–plate corona discharge in air at atmospheric pressure. J. Appl. Phys. 108: 103306–103306–103316
Kiousis K N, Moronis A X and Fylladitakis E D 2015 Ionic wind generation during positive corona discharge in a wire–cylinder air gap. Int. J. Eng. Sci. Innov. Technol. 4: 229–239
Liang W J and Lin T H 1994 The characteristics of ionic wind and its effect on electrostatic precipitators. Aerosol Sci. Technol. 20: 330–344
Chen S and Van den berg R G W and Nijdam S, 2018 The effect of DC voltage polarity on ionic wind in ambient air for cooling purposes. Plasma Sources Sci. Technol. 27: 055021
Moreau E, Louste C and Touchard G 2008 Electric wind induced by sliding discharge in air at atmospheric pressure. J. Electrostat. 66: 107–114
Moreau E, Audier P and Benard N 2018 Ionic wind produced by positive and negative corona discharges in air. J. Electrostat. 93: 85–96
Li H, Jiang L, Guo C, Zhu J, Jiang Y, Xiao W, Fang C and Chen Z 2017 Effect of cylinder electrode arrangement on the ionic wind properties of needle–cylinder electrodes. J. Electrostat. 86: 59–68
Kim C, Park D, Noh K C and Hwang J 2010 Velocity and energy conversion efficiency characteristics of ionic wind generator in a multistage configuration. J. Electrostat. 68: 36–41
Rickard M, Dunn-Rankin D, Weinberg F and Carleton F 2005 Characterization of ionic wind velocity. J. Electrostat. 63: 711–716
Rickard M, Dunn-Rankin D, Weinberg F and Carleton F 2006 Maximizing ion-driven gas flows. J. Electrostat. 64: 368–376
Zhao L and Adamiak K 2005 EHD flow in air produced by electric corona discharge in pin–plate configuration. J. Electrostat. 63: 337–350
Rafika M, Ramzi H and Sassi B N 2009 A study of DC surface plasma discharge in absence of free airflow: ionic wind velocity profile. J. Appl. Fluid Mech. 2(2): 43–48
Dau V T, Dinh T X, Bui T T, Tran C D, Phan H T and Terebessy T 2016 Corona based air-flow using parallel discharge electrodes. Exp. Thermal Fluid Sci. 79: 52–76
Zhang Y, Liu L and Ouyang J 2014 On the negative corona and ionic wind over water electrode surface. J. Electrostat. 72: 76–81
Moreau E, Audier P, Orriere T and Benard N 2019 Electrohydrodynamic gas flow in a positive corona discharge. J. Appl. Phys. 125(13): 1333303
Defoort E, Bellanger R, Dupeyrat C B and Moreau E 2020 Ionic wind produced by a DC needle-to-plate corona discharge with a gap of 15 mm. J. Phys. D Appl. Phys 53(17): 175202
Jose J, Ramanujam S and Philip L 2019 Applicability of pulsed corona discharge treatment for the degradation of chloroform. Chem. Eng. J. 360: 1341–1354
Defoort E, Benard N and Moreau E 2017 Ionic wind produced by an electro-aerodynamic pump based on corona and dielectric barrier discharges. J. Electrostat. 88: 35–40
Park S, Cvelbar U, Choe W and Moon S Y 2018 Creation of electric wind due to electrohydradynamic force. Nat. Commun. 9(1): 371
Chen S, Nobelen J C P Y and Nijdam S 2017 A self-consistent model of ionic wind generation by negative corona discharges in air with experimental validation. Plasma Sources Sci. Technol. 26(9): 095005
Zhou D, Tang J, Kang P, Wei L and Zhang C 2018 Effects of magnetic field intensity on ionic wind characteristics. J. Electrostat. 96: 99–103
Drews A M, Cademartiri L, Whitesides G M and Bishop K J M 2013 Electric winds driven by time oscillating corona discharges. J. Appl. Phys. 114: 143302
Cagnoni D, Agostini F, Christen T, Falco C D, Parolini N and Stevanovic I 2013 Multiphysics simulation of corona discharge induced ionic wind. J. Appl. Phys. 114: 233301
Martins A A 2013 Modelling of an improved positive corona thruster and actuator. J. Electrostat. 71: 61–67
Adamiaka K and Atten P 2008 Simulation of corona discharge in point–plane configuration. J. Electrostat. 61(2): 85–98
Johnson T, Jakobsson S, Wettervik B, Andersson B, Mark A and Edelvik F 2015 A finite volume method for electrostatic three species negative corona discharge simulations with application to externally charged powder bells. J. Electrostat. 74: 27–36
Ramadhan A M, Kapur N, Summers J L and Thompson H M 2017 Numerical analysis and optimization of miniature electrohydrodynamic air blowers. IEEE Transactions on Plasma Science 45: 3007–3018
Masuyama K and Barrett S R H 2013 On the performance of electrohydrodynamic propulsion. Proc. R. Soc. A 469
Monrolin N, Praud O and Plouraboue F 2018 Electrohydrodynamic ionic wind, force field and ionic mobility in a positive DC wire-to-cylinders corona discharge in air. Phys. Rev. Fluids 3: 063701/1–063701/20
Gilmore C K and Barrett S R H 2015 Electro hydrodynamic thrust density using positive corona-induced ionic winds for in-atmosphere propulsion. Proc. R. Soc. A 2175
Ashpis D E and Laun M C 2017 Dielectric barrier discharge plasma actuator thrust measurement methodology incorporating antithrust hypothesis. AIAA J. 55: 4181–4192
Dau V, Dinh T X, Tran C D and Tung B T 2018 A study of angular rate sensing by corona discharge ion wind. Sens. Actuat. A Phys. 277: 169–180. https://doi.org/10.1016/j.sna.2018.05.021
Rashkovan A, Sher E and Kalman H 2002 Experimental optimization of an electric blower by corona wind. App. Thermal Eng. 22: 1587–1599
Ahmedou S O and Havet M 2009 Effect of process parameters on the EHD airflow. J. Electrostat. 67: 222–227
Elagin I A, Yakovlev V V, Ashikhmin I A and Stishkov Y K 2016 Experimental investigation of cooling of a plate by ionic wind from a corona-forming wire electrode. Tech. Phys. 61(8): 1214–1219
Johnson M J and Go D B 2016 Impingement cooling using the ionic wind generated by a low-voltage piezoelectric transformer. Front. Mech. Eng. 7(2)
Tsui Y Y, Huang Y X, Lan C C and Wang C C 2017 A study of heat transfer enhancement via corona discharge by using a plate corona electrode. J. Electrostat. 87: 1–10
Wang S, Qu J G, Kong L J, Zhang J F and Qu J G 2019 Numerical and experimental study of heat-transfer characteristics of needle-to-ring-type ionic wind generator for heated-plate cooling. Int. J. Thermal Sci. 139: 176–185
Atalık K and Sonmezler U 2011 Heat transfer enhancement for boundary layer flow over a wedge by the use of electric fields. Appl. Math. Modell. 35: 4516–4525
Elagin I A, Markovskii Y P and Stishkov Y K 2020 Experimental investigation of plate cooling by ionic wind from a needle electrode. Tech. Phys. 65(4): 542–547
Ohadi M M, Nelson D A and Zia S 1991 Heat transfer enhancement of laminar and turbulent pipe flow via corona discharge. Int. J. Heat Mass Transf. 34: 1175–1187
Molki M and Bhamidipati K L 2004 Enhancement of convective heat transfer in the developing region of circular tubes using corona wind. Int. J. Heat Mass Transf. 47: 4301–4314
Lakeh R B and Molki M 2012 Targeted heat transfer augmentation in circular tubes using a corona jet. J. Electrostat. 70: 31–42
Deylami H M, Amanifard N, Dolati F, Kouhikamali R and Mostajiri K 2013 Numerical investigation of using various electrode arrangements for amplifying the EHD enhanced heat transfer in a smooth channel. J. Electrostat. 71: 656–665
Wang W, Yang L, Wu K, Lin C, Huo P, Liu S, Huang D and Lin M 2017 Regulation-controlling of boundary layer by multi-wire-to-cylinder negative corona discharge. Appl. Thermal Eng. 119: 438–448
Shin D H, Jang D K, Sohn D K and Ko H S 2019 Control of boundary layer by ionic wind for heat transfer. Int. J. Heat Mass Transf. 131: 189–195
Zehtabiyan-Rezaie N, Saffar-Avval M and Adamiak K 2020 Forced convection heat transfer enhancement using a coaxial wire–tube corona system. J. Electrostat. 103: 103415
Gallandat N, Bonetto F and Mayor J R 2017 Ionic wind heat transfer enhancement in vertical rectangular channels: experimental study and model validation. J. Thermal Sci. Eng. Appl. 9: 1–9
Kasayapanand N 2008 Electrohydrodynamic enhancement of heat transfer in vertical fin array using computational fluid dynamics technique. Int. Commun. Heat Mass Transf. 35: 762–770
Peng M, Wang T H and Wang X D 2016 Effect of longitudinal electrode arrangement on EHD-induced heat transfer enhancement in a rectangular channel. Int. J. Heat Mass Transf. 93: 1072–1081
Moghanlou F S, Khorrami A S, Esmaeilzadeh E and Aminfar H 2014 Experimental study on electrohydrodynamically induced heat transfer enhancement in a minichannel. Exp. Thermal Fluid Sci. 59: 24–31
Zhang J and Lai F C 2018 Heat transfer enhancement using corona wind generator. J. Electrostat. 92: 6–13
Kalman H and Sher E 2001 Enhancement of heat transfer by means of a corona wind created by a wire electrode and confined wings assembly. Appl. Thermal Eng. 21: 265–282
Schlitz D J, Garimella S V and Fisher T S 2004 Microscale ion-driven air flow over a flat plate. In: Proceedings of the ASME Heat Transfer/Fluids Engineering Summer Conference, Charlotte, NC
Lee Jae II, Yu Jin H, Young J H, Chull A Y, Soo S H and Keun L J 2005 Characteristic of the ion wind using corona discharge and enhancement of heat transfer. Korean Journal of Air-Conditioning and Refrigeration Engineering 17
Esmaeilzadeh E, Alamgholilou A, Mirzaie H and Ashna M 2008 Heat transfer enhancement in the presence of an electric field at low and intermediate Reynolds numbers. Asian J. Sci. Res. 1: 562–578
June M S, Kribs J and Lyons K M 2011 Measuring efficiency of positive and negative ionic wind devices for comparison to fans and blowers. J. Electrostat. 69: 345–350
Chen I Y, Chen C J and Wang C C 2014 Influence of electrode configuration on the heat transfer performance of a LED heat source. Int. J. Heat Mass Transf. 77: 795–801
Qu J, Kong L and Zhang J 2018 Experimental investigation on flow and heat transfer characteristics of a needle-cylinder type ionic wind generator for LED cooling. Energies 11(5): 1149
Shin D H, Sohn D K and Ko H S 2018 Analysis of thermal flow around heat sink with ionic wind for high-power LED. Appl. Thermal Eng. 143: 376–384
Ramadhan A A, Kapur N, Summers J L and Thompson H M 2018 Numerical development of EHD cooling systems for laptop applications. Appl. Thermal Eng. 139: 144–156
Wang J, Zhua T, Cai Y X, Bao Y C and Wang J B 2020 Comparison of the generation characteristics and application performance of nano materials-enhanced ionic wind. Int. Commun. Heat Mass Transf. 117: 104734
Feng J, Wang C H, Liu Q and Wu C 2019 Enhancement of heat transfer via corona discharge by using needle–mesh and needle–fin electrodes. Int. J. Heat Mass Transf. 130: 640–649
Larsen N E J, Karpov S V, Krichtafovitch I A, Jayanty V, Hsu C P and Mamishev A V 2008 Modeling of corona-induced electrohydrodynamic flow with COMSOL Multiphysics. In: Proceedings of the ESA Annual Meeting on Electrostatics
Ong A O, Abramson A R and Tien N C 2014 Electrohydrodynamic microfabricated ionic wind pumps for thermal management applications. J. Heat Transf. 136(6): 061703
Jingguo Q, Zhang J, Li M and Tao W 2020 Heat dissipation of electronic components by ionic wind from multi-needle electrodes discharge: experimental and multi-physical analysis. Int. J. Heat Mass Transf. 163: 120406
Zeng M J, Zhang J F, Wang S and Qu Z G 2021 Analysis of a two-stage ionic wind pump with multiple needle- to-mesh electrodes for cooling electronics. Appl. Thermal Eng. 185: 116340
Wang J, Cai Y X and Li X H 2018 Ionic wind development in corona discharge for LED cooling. IEEE Trans. Plasma Sci. 46(5): 1821–1830
Wang J, Cai Y X and Li X H 2018 Experimental study on optical–thermal associated characteristics of LED car lamps under the action of ionic wind. Micro-electr. Reliab. 82: 113–123
Wang J, Zhu T and Cai Y X 2020 Development and application of a solid-state fan for enhanced heat dissipation. Appl. Thermal Eng. 169: 114922
Bao Y C, Cai Y X and Wang J 2019 Experimental study on LED heat dissipation based on enhanced corona wind by graphene decoration. IEEE Trans. Plasma Sci. 47(8): 4121–4126
Wang J, Zhu T, Wang J-b, Cai Y-x and Li X-h 2020 Optimization of a green solid-state fan for electronics cooling applications. Sustain. Energy Technol. Assess. 39: 100703
Lee J R and Von Lau E 2021 Convective heat transfer enhancement of ionic wind under variable air pressures. Int. J. Thermal Sci. 160: 106657
Wang J-B, Li X-H, Wang J, Zhu T and Bao Y-C 2020 Thermal performance evaluation of a thermoelectric cooler coupled with corona wind. Appl. Thermal Eng. 179: 115753
Wang J, Zhu T, Cai Y-x, Zhang J-f and Wang J-b 2020 Review on the recent development of corona wind and its application in heat transfer enhancement. Int. J. Heat Mass Transf. 152: 119545
Wang J, Rong F and Xuegong H 2019 Experimental study on EHD heat transfer enhancement with a wire electrode between two divergent fins. Appl. Thermal Eng. 148: 457–465
Wang J, Cai Y X and Li X H 2017 Experimental investigation of high-power light-emitting diodes thermal management by ionic wind. Appl. Thermal Eng. 122: 49–58
Zheng C H, Zhang X F and Yang Z D 2018 Numerical simulation of corona discharge and particle transport behavior with the particle space charge effect. J. Aerosol Sci. 118: 22–33
Shin D H, Baek S H and Ko H S 2016 Development of heat sink with ionic wind for LED cooling. Int. J. Heat Mass Transf. 93: 516–528
Chau S W, Lin C H, Yeh C H and Yang C 2007 Study on the cooling enhancement of LED heat sources via an electrohydrodynamic approach. In: Proceedings of the 33rd Annual Conference of the IEEE Industrial Electronics Society, Taipei, Taiwan, pp. 2934–2937
Dau Van Thanh, Dinh Thien Xuan, Bui Tung Thanh and Terebessy Tibor 2016 Bipolar corona assisted jet flow for fluidic application. Flow Meas. Instrum. 50: 252–260
Shin D H, Baek S H and Ko H S 2018 Analysis of counter flow of corona wind for heat transfer enhancement. Heat Mass Transfer 54: 841–854
Go D B, Maturana R A, Mongia R K, Garimella S V and Fisher T S 2008 Ionic winds for enhanced cooling in portable platforms. In: Proceedings of the Electronics Packaging Technology Conference, EPTC 2008, 10th Source, IEEE Xplore [4763520]
Jewell-Larsen N E, Ran H, Zhang Y, Schwiebert M K and Honer K A 2009 Electrohydrodynamic (EHD) cooled laptop. In: Proceedings of the Semiconductor Thermal Measurement and Management Symposium, SEMI-THERM 2009, 25th Annual IEEE [4810773]
Andojo Ongkodjojo Ong, Abramson A R and Tien N C 2012 Optimized and microfabricated ionic wind pump array as a next generation solution for electronics cooling systems. In: Proceedings of the 13th Intersociety Conference on Thermal and Thermomechanical Phenomena in Electronic Systems, IEEE ITherm Conference 2012, May 30–June 1, 2012, San Diego, California, USA, pp. 1306 – 1311
Lee S J, Ki L and Won K K 2015 Parallel integration of ionic wind generators on PCBs for enhancing flow rate. Microsyst. Technol. 21(7): 1465–1471
Belan M and Messanelli F 2015 Compared ionic wind measurements on multi-tip corona and DBD plasma actuators. J. Electrostat. 76: 278–287
Fylladitakis E D, Moronis A X and Konstantinos K 2014 Design of a prototype EHD air pump for electronic chip cooling applications. Plasma Sci. Technol. 16(5)
Ong A O, Abramson A R and Tien N C 2014 Electrohydrodynamic microfabricated ionic wind pumps for thermal management applications. J. Heat Transf. 136(11): 061703
Shin D H, Kim S, SeoKo H and Shin Y W 2018 Performance enhancement of heat recovery from engine exhaust gas using corona wind. Energy Conv. Manag. 173: 210–218
Sheu W J, Hsiao J J and Wang C C 2013 Effect of oscillatory EHD on the heat transfer performance of a flat plate. Int. J. Heat Mass Transf. 61: 419–424
Lee J R and Lau E V 2017 Effects of relative humidity in the convective heat transfer over flat surface using ionic wind. Appl. Thermal Eng. 114: 554–560
Nguyen N C, Garcia C G, Peraire J and Sanchez M 2017 Computational study of glow corona discharge in wind: biased conductor. J. Electrostat. 89: 1–12
Tsubone H, Ueno J, Komeili B, Minami S, Harvel G D, Urashima K, Ching C Y and Chang J S 2008 Flow characteristics of DC wire–non-parallel plate electrohydrodynamic gas pumps. J. Electrostat. 66: 115–121
Spyrou N, Held B, Peyrous R, Manassis C and Pignolet P 1992 Gas temperature in a secondary streamer discharge: an approach to the electric wind. J. Phys. D Appl. Phys. 25: 211–216
Khabiry S E and Colver G M 1997 Drag reduction by DC corona discharge along an electrically conductive flat plate for small Reynolds number flow. Phys. Fluids 9: 587–599
Hger L L, Moreau E, Artana G and Touchard G H 2001 Influence of a DC corona discharge on the air flow along an inclined flat plate. J. Electrostat. 51: 300–306
Labergue A, Leger L, Moreau E and Touchard G 2005 Effect of a plasma actuator on an airflow along an inclined wall: P.I.V. and wall pressure measurements. J. Electrostat. 63: 961–967
Chun Y N, Chang J S, Berezin A A and Mizeraczyk J 2007 Numerical modeling of near corona wire electrohydrodynamic flow in a wire–plate electrostatic precipitator. IEEE Trans. Dielectr. Electr. Insul. 14(1): 119–124
Magnier P, Hong D, Chesneau A L, Pouvesle J M and Hureau J 2007 Control of separated flows with the ionic wind generated by a DC corona discharge. Exp. Fluids 42: 815–825
Renev M E, Safronova Y F and Stishkov Y K 2019 Controlling the flow around a circular cylinder by means of a corona discharge. Tech. Phys. 64(9): 1275–1282
Chang J S, Brocilo D, Urashima K, Dekowski J, Podlinski J, Mizeraczyk J and Touchard G 2006 On-set of EHD turbulence for cylinder in cross flow under corona discharges. J. Electrostat. 64: 569–573
Boucinha V, Weber R and Kourta A 2011 Drag reduction of a 3D bluff body using plasma actuators. Int. J. Aerodyn. 1: 262–281
Guangyin Z, Yinghong L, Hua L, Menghu H and Yun W 2015 Flow separation control on swept wing with nanosecond pulse driven DBD plasma actuators. Chin. J. Aeronaut. 28: 368–376
Chaudhry I A, Sultan T, Siddiqui F A, Farhan M and Asim M 2017 The flow separation delay in the boundary layer by induced vortices. J. Visual. 20(2): 251–261
Johnson M J and Go D B 2015 Piezoelectric transformers for low-voltage generation of gas discharges and ionic winds in atmospheric air. J. Appl. Phys. 118: 243304
Zhao P, Portugal S and Roy S 2015 Efficient needle plasma actuators for flow control and surface cooling. Appl. Phys. Lett. 107: 033501
Guo X, Zhang Q and Zhang J 2017 Improvement of corona discharge model and its application on simulating corona discharge in the presence of wind. Hindawi
Le N R and Labbe J P 1983 Corrosion by corona discharges: determination of corrosion products by vibrational spectroscopy. In: Proceedings of the 13th Meeting of the Franco-British Group on Electrical Discharges, Glasgow
Flitti A and Pancheshnyi S 2009 Gas heating in fast pulsed discharges in N2–O2 mixtures. Eur. Phys. J. Appl. Phys. 45: 21001
Koutsoubis J M and MacGregor S J 2000 Electrode erosion and lifetime performance of a high repetition rate triggered corona-stabilized switch in air. J. Phys. D Appl. Phys. 33(9): 1093
Noll C G and Lawless P A 1998 Comparison of germanium and silicon needles as emitter electrodes for air ionizers. J. Electrostat. 44: 221–238
El-Bahy M M and El-Ata M A A 2005 Onset voltage of negative corona on dielectric-coated electrodes in air. J. Phys. D Appl. Phys. 38: 3403–3411
Gottschalk C, Libra J and Saupe A 2009 Ozonation of water and waste water. Wiley, Weinheim
Kim H H 2010 Nonthermal plasma processing for air pollution control: a historical review, current issues and future prospects. Plasma Process. Polym. 1: 91–110
The National Institute for Occupational Safety and Health 1978 Occupational health guideline for ozone
Wiesinger R, Martina I, Kleber C and Schreiner M 2013 Influence of relative humidity and ozone on atmospheric silver corrosion. Corros. Sci. 77: 69–76
Lin H and Frankel G S 2013 Atmospheric corrosion of Cu by UV, ozone and NaCl. Corros. Eng. Sci. Technol. 48(6): 461–468
Prehn F, Timmermann E, Kettlitz M, Schaufler K, Gunther S and Hahn V 2020 Inactivation of airborne bacteria by plasma treatment and ionic wind for indoor air cleaning. Plasma Process. Polymers 17(9)
Nayak G, Andrews A J, Marabella I, Aboubakr H A, Goyal S M, Olson B A, Torremorell M and Bruggeman P J 2020 Rapid inactivation of airborne porcine reproductive and respiratory syndrome virus using an atmospheric pressure air plasma. Plasma Process. Polymers 17(10)
Orriere T, Moreau E and Pai D Z 2019 Electric wind generation by nanosecond repetitively pulsed micro plasmas. J. Phys. Appl. Phys. 52(46): 464002
Shi Y, Cai Y X, Fan R L, Cui Y X, Chen Y and Ji L 2019 Characterization of soot inside a diesel particulate filter during a nonthermal plasma promoted regeneration step. Appl. Thermal Eng. 150: 612–619
Wang P, Gu W Y and Lei L L 2015 Micro-structural and components evolution mechanism of particular matter from diesel engines with non-thermal plasma technology. Appl. Thermal Eng. 91: 1–10
Greene K 2009 A laptop cooled with ionic wind. MIT Technology Review
Wu Y S, Li J, Ye J C, Chen X, Li H, Huang S, Zhao R and Yang W O 2017 Greener corona discharge for enhanced wind generation with a simple dip-coated carbon nanotube decoration. J. Phys. D Appl. Phys. 50(39): 395304
Wang J, Cai Y X and Bao Y C 2019 Enhanced ionic wind generation by graphene for LED heat dissipation. Int. J. Energy Res. 43
Zhang J F, Kong L J and Qu J G 2019 Numerical and experimental investigation on configuration optimization of the large-size ionic wind pump. Energy 171: 624–630
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Venkatesh, S., Kumar, A., Bhattacharya, A. et al. Ionic wind review-2020: advancement and application in thermal management. Sādhanā 46, 165 (2021). https://doi.org/10.1007/s12046-021-01687-0
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DOI: https://doi.org/10.1007/s12046-021-01687-0