Ultra-flexible Piezoelectric Devices Integrated with Heart to Harvest the Biomechanical Energy

Scientific Reports

Volumn 5, Issue , 2015, Pages

  Lu, Bingwei ^a   Chen, Ying ^a   Ou, Dapeng ^a   Chen, Hang ^a   Diao, Liwei ^b   Zhang, Wei ^b   Zheng, Jun ^b   Ma, Weiguo ^b   Sun, Lizhong ^b   Feng, Xue ^a  

^a TSINGHUA UNIVERSITY   (China)

^b CAPITAL MEDICAL UNIVERSITY   (China)

Author keywords

[No Author keywords available]

Indexed keywords

ANESTHESIA; ANIMAL EXPERIMENT; ART; CERAMICS; DISEASE SIMULATION; EXPERIMENTAL PIG; FEASIBILITY STUDY; HEART; HEART LEFT VENTRICLE; HEART MOVEMENT; HEART RIGHT VENTRICLE; NONHUMAN; PIEZOELECTRICITY; THORAX; WAKEFULNESS; ANIMAL; ARTIFICIAL HEART PACEMAKER; DEVICES; EQUIPMENT DESIGN; METABOLISM; PHYSIOLOGY; PIG; PROSTHESES AND ORTHOSES;

LEAD; LEAD TITANATE ZIRCONATE; TITANIUM; ZIRCONIUM;

ANIMALS; CERAMICS; EQUIPMENT DESIGN; HEART; LEAD; PACEMAKER, ARTIFICIAL; PROSTHESES AND IMPLANTS; SWINE; TITANIUM; ZIRCONIUM;

EID: 84946780307     PISSN: None     EISSN: 20452322     Source Type: Journal    
DOI: 10.1038/srep16065     Document Type: Article

References (30)

1. Hodgins, D. et al. Healthy aims: developing new medical implants and diagnostic equipment. IEEE Pervasive Comput. 7, 14-21 (2008).
2. Harrison, R. R. Designing efficient inductive power links for implantable devices. IEEE Int. Symp. Circuits Syst (ISCAS). 2028-2083 (2007), doi: 10.1109/ISCAS.2007.378508.
3. Jegadeesan, R. & Guo, Y. X. A study on the inductive power links for implantable biomedical devices. IEEE Antennas Propag. Soc. Int. Symp (APSURSI). 1-4 (2010), doi: 10.1109/APS.2010.5562122.
4. Jegadeesan, R. & Guo, Y. X. Topology selection and efficiency improvement of inductive power links. IEEE Trans. Antennas Propag. 60, 4846-4854 (2012).
5. Yang, R., Qin, Y., Li, C., Zhu, G. & Wang, Z. L. Converting biomechanical energy into electricity by a muscle-movement-driven nanogenerator. Nano Lett. 9, 1201-1205 (2009).
6. Saravanakumar, B., Mohan, R., Thiyagarajan, K. & Kim, S. J. Fabrication of a ZnOnanogenerator for eco-friendly biomechanical energy harvesting. RSC Adv. 3, 16646-16656 (2013).
7. Saravanakumar, B. & Kim, S. J. Growth of 2D ZnO nanowall for energy harvesting application. J. Phys. Chem. C 118, 8831-8836 (2014).
8. Cung, K. et al. Biotemplated synthesis of PZT nanowires. Nano Lett. 13, 6197-6202 (2013).
9. Han, M. et al. r-Shaped hybrid nanogenerator with enhanced piezoelectricity. ACS Nano 7, 8554-8560 (2013).
10. Lin, H. I., Wuu, D. S., Shen, K. C. & Horng, R. H. Fabrication of an ultra-flexible ZnO nanogenerator for harvesting energy from respiration. ECS J. Solid State Sc. 2, 400-404 (2013).
11. Sun, C., Shi, J., Bayerl, D. J. & Wang, X. PVDF microbelts for harvesting energy from respiration. Energy Environ. Sci. 4, 4508-4512 (2011).
12. Riemer, R. & Shapiro, A. Biomechanical energy harvesting from human motion: theory, state of the art, design guidelines, and future directions. J. Neuroeng. Rehabil. 8, 22 (2011).
13. Donelan, J. M., Naing, V. & Li, Q. Biomechanical energy harvesting. IEEE RWS'09. 1-4 (2009).
14. Donelan, J. M. et al. Biomechanical energy harvesting: generating electricity during walking with minimal user effort. Science 319, 807-810 (2008).
15. Niu, P., Chapman, P., Riemer, R. & Zhang, X. Evaluation of motions and actuation methods for biomechanical energy harvesting. IEEE 35th Annual. Power Electron. Specialists Conf. 3, 2100-2106 (2004).
16. Yang, Y. et al. Human skin based triboelectric nanogenerators for harvesting biomechanical energy and as self-powered active tactile sensor system. ACS Nano 7, 9213-9222 (2013).
17. Wang, Z. L. & Wu, W. Z. Nanotechnology-enabled energy harvesting for self-powered micro-/nanosystems. Angew. Chem. Int. Ed. 51, 11700-11721 (2012).
18. Canan, D. et al. Conformal piezoelectric energy harvesting and storage from motions of the heart, lung, and diaphragm. Proc. Natl. Acad. Sci. 111, 1927-1932 (2014).
19. Chopra, I. Review of state of art of smart structures and integrated systems. AIAA J. 40, 2145-2187 (2002).
20. Feng, X. et al. Competing fracture in kinetically controlled transfer printing. Langmuir 23, 12555-12560 (2007).
21. Matthew, A. M. et al. Transfer printing by kinetic control of adhesion to an elastomeric stamp. Nat. Mater. 5, 33-38 (2006).
22. Chen, H., Feng, X., Huang, Y., Huang, Y. & Rogers, J. A. Experiments and viscoelastic analysis of peel test with patterned strips for applications to transfer printing. J. Mech. Phys. Solids 61, 1737-1752 (2013).
23. Loo, Y. L., Willett, R. L., Baldwin, K. W. & Rogers, J. A. Interfacial chemistries for nanoscale transfer printing. J. Am. Chem. Soc. 124, 7654-7655 (2002).
24. Spencer, E. E., Chissell, H. R., Spang, J. T. & Feagin Jr, J. A. Behavior of sutures used in anterior cruciate ligament reconstructive surgery. Knee Surg., Sports Traumatol., Arthrosc. 4, 84-88 (1996).
25. Greenbaum, R. A., Ho, S. Y., Gibson, D. G., Becker, A. E. & Anderson, R. H. Left ventricular fibre architecture in man. Br. Heart J. 45, 248-26 (1981).
26. Cerqueira, M. D. et al. Standardized myocardial segmentation and nomenclature for tomographic imaging of the heart. A statement for healthcare professionals from the Cardiac Imaging Committee of the Council on Clinical Cardiology of the American Heart Association. Circulation 105, 539-542 (2002).
27. Urheim, S., Edvardsen, T., Torp, H., Angelsen, B. & Smiseth, O. A. Myocardial strain by Doppler echocardiography: validation of a new method to quantify regional myocardial function. Circulation 102, 1158-1164 (2000).
28. Sengupta, P. P. et al. Left Ventricular Structure and Function: Basic Science for Cardiac Imaging. J. Am. Coll. Cardiol. 48, 1988-2001 (2006).
29. Hu, Z., Metaxas, D. & Axel, L. In vivo strain and stress estimation of the heart left and right ventricles from MRI images. Med. Image Anal. 7, 435-444 (2003).
30. Marsh, J. D., Green, L. H., Wynne, J., Cohn, P. F. & Grossman, W. Left ventricular end-systolic pressure-dimension and stresslength relations in normal human subjects. Am. J. Cardiol. 44, 1311-1317 (1979).