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Frontiers in Energy

ISSN 2095-1701

ISSN 2095-1698(Online)

CN 11-6017/TK

Postal Subscription Code 80-972

2018 Impact Factor: 1.701

Front. Energy    0, Vol. Issue () : 1-13    https://doi.org/10.1007/s11708-008-0016-3
Power sources and electrical recharging strategies for implantable medical devices
WEI Xiaojuan1, LIU Jing2
1.Technical Institute of Physics and Chemistry, Chinese Academy of Sciences; 2.Technical Institute of Physics and Chemistry, Chinese Academy of Sciences; School of Medicine, Biomedical Engineering Department, TsinghuaUniversity
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Abstract Implantable medical devices (IMDs) are critically requested for the survival of patients subject to certain serious diseases such as bradycardia, fibrillation, diabetes, and disability, etc. Appropriate working of an active implantable medical device (IMD) heavily relies on the continuous supply of electricity. In this sense, long-term powering and recharging of an IMD via a highly safe, efficient and convenient way is, therefore, extremely important in clinics. Several conventional batteries, such as lithium cell, nuclear cell and bio-fuel cell, etc., have been developed to power IMDs. Meanwhile, the recharge of IMD from outside of the human body is also under investigation. In this paper, some of the most typical IMD batteries are reviewed. Their advantages and disadvantages are compared. In addition, several emerging innovations to recharge or directly drive the implanted batteries, including electromagnetic energy transmission, piezoelectric power generation, thermoelectric devices, ultrasonic power motors, radio frequency recharging and optical recharging methods, etc., are also discussed. Some fundamental and practical issues thus involved are summarized, and future prospects in this area are made.
Issue Date: 05 March 2008
 Cite this article:   
WEI Xiaojuan,LIU Jing. Power sources and electrical recharging strategies for implantable medical devices[J]. Front. Energy, 0, (): 1-13.
 URL:  
https://academic.hep.com.cn/fie/EN/10.1007/s11708-008-0016-3
https://academic.hep.com.cn/fie/EN/Y0/V/I/1
1 Molina-Negro P Roleof neurostimulators in the treatment of chronic refractory painUnion Med Can 1980 109(1)4154
2 Wang F Hua W Zhang S et al.Clinical survey of pacemakers 2000–2001China J Carcdiac Arrhyth 2003 7189191
3 Zeng F G Bai J Y Trends in cochlear implantTrends Amplif 2004 8134
4 Gopal. Stephen I R Byron M Y et al.A high-performance brain-computer interfaceNature 2006 442195198 2006
5 Soykan O Powersources for implantable medical devices 2003 http://www.bbriefings.com/businessbriefing/testimonial/
6 Szczesny S Jetzki S Leonhardt S Review of current actuator suitability for use in medicalimplantsProceedings of the 28th IEEE, EMBS Annual International Conference, New York 2006 59565959
7 Antonioli G Baggioni F Consiglio F et al.Stinulatore cardiaco impiantabile con nuova battariaa stato solido al litioMinerva Med 1973 6422982305
8 Mallela V S Ilankumaran V Rao N S Trends in cardiac pacemaker batteriesIndian Pacing and Electrophysiology Journal 2004 4201212
9 Holmes C F Therole of lithium batteries in modern health care. Journal of PowerSources. 2001 97739741
10 Drews J Fehrmann G Staub R et al.Primary batteries for implantable pacemakers anddefibrillatorsJournal of Power Sources 2001 97747749
11 Spillman D M Takeuchi E S Lithium ion batteries for medicaldevicesThe 14th Annual Battery Conferenceon Applications and Advances, California State University, Long Beach 1999 203208
12 Li M Tao Z Zhao Y et al.Lithium Iodine Batteries used in pacemakerChinese Journal of Power Sources 1990 158
13 Zhang B Ni S Introduction to electrochemicalpower sourcesShanghaiShanghai Jiaotong University Press 1992
14 Bullen R A Arnot T C Lakeman J B et al.Biofuel cells and their developmentBiosensors and Bioelectronics 2006 2120152045
15 Potter M C Electricaleffects accompanying the decomposition of organic compoundsProceedings of Royal Society 1911 84260276
16 Cohen B Thebacterial culture as an electrical half-cellJournal of Bacteriol 1931 211821
17 Yahiro A T Lee S M Kimble D O Bioelectrochemistry.I.Enzyme utilizing bio-fuel cell study.Biochim.Biophys Acta 1964 88375383
18 Heller A Miniaturebiofuel cells. Phy Chem Chem Phy. 2004 6209216
19 Bullen R A Arnot T C Lakeman J B et al.Biofuel cells and their developmentBiosensors & bioelectronics 2006 2120152045
20 Kang F Wu Y Li D Reserch progress in biofuel cellChinese Journal of Power Fources 2004 28723727
21 Hellwell C M Simon E Toh C S et al.Immobilisation of lactate dehydrogenase on poly(aniline)-poly (acrylate) and poly (aniline) poly (vinyl sulphonate)films for use in a lactate biosensor. An alytica Chimica Acta. 2002 453191200
22 Hellwell C M Simon E Toh C S et al.The design of dehydrogenase enzymes for use in abiofuel cell: the role of genetically introduced peptide tags in enzymeimmobilization on electrodesBioelectrochem 2002 552123
23 Simon E Hellwell C M Toh C S et al.Immobilisation of enzymes on poly(aniline)-poly(anion)composite films prepartion of bioanodes for biofuel cell applicationsBioelectrochem 2002 551315
24 Mano N Kim H H Heller A On the relationship between the characteristics of bilirudeoxidases an d O2 cathodes based on their “wiring” Journal of Physical and Chemistry B 2002 3488428848
25 Mano N Kim H H Zhang Y et al.An oxygen cathode operating in a physiological solutionJournal of American Chemical Society 2002 12464806486
26 Katz E Willner I Kotlyer A B A non-compartmentalized glucose O2 biofuel cell by bioengineered electrode surfaceJ Electroan Chem 1999 4796468
27 Willner I Vered H S Katz E et al.Integration of a reconstituted de novo synthesizedhemoprotein and native metalloproteins with electrode supports forbioelectronic and bioelctrocatalytic applicationJournal of American Chemical Society 1999 12164556468
28 Mano N Mao F Heller A Micro-fuel cell operating in a grapeJournal of American Chemical Society 2003 12565886594
29 Zhu Z Monmeu C Zakhartsev M et al.Making glucose oxidase fit for biofuel cell applicationsby directed protein evolutionBionsensorsand Bioelectronics 2006 2120462051
30 Frank D Higson P J S Biofuel cells-Recent advancesand applicationsBiosensors and Bioelectronics 2007 2212241235
31 Wen H K Hynecek J Implant evaluation of a nuclearpower source-batacel batteryIEEE transactionson Biomedical Engineering 1974 21238241
32 Parsonnet V Villanueva A Driller J et al.Corrosion of Pacemaker Electrodes, Pace 1981 4289296
33 Prutchi D NuclearpacemakersURL:http://home.comcast.net/˜dprutchi/nuclear_pacemakers.pdf
34 Suzuki S Katane T Saotome H et al.A proposal of electric power generating system forimplanted medical devicesIEEE Transactionson Magnetics 1999 3535863589
35 Suzuki S Katane T Saotome H et al.Electric power-generating system using magneticcoupling for deeply implanted medicalIEEETransactions on Magnetics 2002 3830063008
36 Spencer W J Corbett W T Dominguez L R et al.An electronically controlled piezoelectric insulinpump and valvesIEEE Transactions on Sonicsand Ultrasonic 1978 25153156
37 Geipel A Doll A Goldschmidtboing F et al.Pressure-independent micropump withpiezoelectric valves for low flow drug delivery systems19th IEEE International Conference on Micro ElectroMechanical Systems, Lütfi Kirdar Convention and Exhibition Centre,Istanbul 2006 786789
38 Yang R Zhang M Tarn T J Dynamic modeling and control of a micro-needle integratedpiezoelectric micro-pump for diabetes careProceedings of the 2006 IEEE Conference on Nanotechnology 2006 1146149
39 Williams C B Yates R B Analysis of a micro-electricgenerator for MicrosystemsThe 8th InternationalConference on Solid-State Sensors and Actuators 1995 1369372
40 Glynne P J Beeby S P White N M Towards a piezoelectric vibration-powered microgeneratorIEE Proceedings on Science Measurement and Technology 2001 1486872
41 Kymissis J Kendall C Paradiso J et al.Parasitic power harvesting in shoesProceeding of the Second IEEE International Conference on WearableComputing, Pittsburgh 1998 132139
42 Wang Z L Song J Piezoelectric nanogeneratorsbased on zinc oxide nanowire arraysScience 2006 312242246
43 Glosch H Ashauer M Pfeiffer U et al.A thermoelectric converter for energy supplySensors and Actuators A: Physics 1999 74246250
44 Boettner H Nurnus J Gavrikov A et al.New thermoelectric components using microsystemtechnologiesJournal of MicroelecromechanicalSystems 2004 13414420
45 Lin J R Snyder G J Huang C K et al.Thermoelectric microdevice fabrication process andevaluationProceedings of the 21st IEEEinternational Conference on Thermoelectrics, Long Beach, CA 2002 535539
46 Wang W Jia F Huang Q et al.A new type of low power thermoelectric micro-generatorfabricated by nanowire array thermoelectric materialMicroelectronic Engineering 2005 77223229
47 Weber J Potje-Kamloth K Haase F et al.Coin-size coiled-up polymer foil thermoelectricpower generator for wearable electronicsSensors and Actuators A: Physics 2006 132325330
48 Yang Y Wei X J Liu J Evaluation on the power generation capacity of a thermoelectricgenerator implanted in the bio-tissueJournalof Physics D, Applied Physics 2007 4057905800
49 Meindl J D Integratedelectron devices in medicineInternationalElectron Devices Meeting 1977 231A1D
50 Phillips W B Towe B C Larson P J An ultrasonically- driven piezoelectric neural stimulatorProceedings of the 25th Annual International Conferenceof the IEEE 2003 219831986
51 Wang X Song J Liu J et al.Direct-Current Nanogenerator Driven by UltrasonicWavesScience 2007 316102105
52 Zhang H Designand experiment of transdermal RF powersupply of in vivo implantablesystemJournal of Hefei University of Technology 1999 229498
53 Murakawa K Kobayashi M Nakamura O et al.A wireless near-infrared energy system for medicalimplants IEEE Engineering in Medicine andBiology Magazine 1999 67072
54 Naresh K P Vishrut C K A high efficiency optical powertransmitting system to a rechargeable lithium battery for all implantablebiomedical devices3rd Kuala Lumpur Internationalconference on biomedical engineering 2007 14533537
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