압전형 에너지 수확장치를 위한 통합 해석환경의 적용 및 검증
Aplication and Verification of Fully-Integrated Design Environment for Piezoelectric Energy Harvester
1
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
Vibrational energy harvester based on piezoelectricity has been expected to be the dominant energy harvesting technology due to the advantages of high conversion efficiency, light weight and small size, night operation, etc. Its commercialization is just around the corner but the integration with power management electronics should be solved in advance. In this paper, therefore, fully-integrated design environment for piezoelectric energy harvesting systems is presented to assist co-design with the power management electronics. The proposed design environment is capable of analyzing the energy harvester including the package-induced damping effects and simulating the device and its power management electronics simultaneously. When the developed design environment was applied to the fabricated device, the simulated resonant frequency matched well with the experimental result with a difference of 2.97% only. Also, the complex transient response was completed in short simulation time of 3,001 seconds including the displacement distribution over the device geometry. Furthermore, a full-bridge power management circuit was modeled and simulated with the energy harvester simultaneously. Therefore the proposed, fully-integrated design environment is accurate and fast enough for the contribution on successful commercialization of piezoelectric energy harvester.
Abstract
Vibrational energy harvester based on piezoelectricity has been expected to be the dominant energy harvesting technology due to the advantages of high conversion efficiency, light weight and small size, night operation, etc. Its commercialization is just around the corner but the integration with power management electronics should be solved in advance. In this paper, therefore, fully-integrated design environment for piezoelectric energy harvesting systems is presented to assist co-design with the power management electronics. The proposed design environment is capable of analyzing the energy harvester including the package-induced damping effects and simulating the device and its power management electronics simultaneously. When the developed design environment was applied to the fabricated device, the simulated resonant frequency matched well with the experimental result with a difference of 2.97% only. Also, the complex transient response was completed in short simulation time of 3,001 seconds including the displacement distribution over the device geometry. Furthermore, a full-bridge power management circuit was modeled and simulated with the energy harvester simultaneously. Therefore the proposed, fully-integrated design environment is accurate and fast enough for the contribution on successful commercialization of piezoelectric energy harvester.
참고문헌 (9)
- T. J. Kempa, "Semiconductor nanowires: a platform for exploring limits and concepts for nano-enabled solar cells", Energy Environ. Sci, 6, pp.719~733 (2013)
- V. Leonov, "Thermoelectric energy harvesting of human body heat for wearable sensors", IEEE Sens. J, 13(6), pp.2284~2291 (2013)
- Ahmed Munaz, "Design and Analysis of a Vibration-Driven Electromagnetic Energy Harvester Using Multi-Pole Magnet", 센서학회지, 21(3), pp.172~179 (2012), 한국센서학회
- 정귀상, "CMOS 공정에 적합한 AlN 압전 마이크로 발전기의 제작 및 특성", 센서학회지, 19(3), pp.209~213 (2010), 한국센서학회
- S. Beeby, "Energy Harvesting for Autonomous Systems" (2010), Artech House
- G. H. Feng, "Development of wide frequency range-operated micromachined piezoelectric generators based on figure-of-merit analysis", Microsyst. Technol, 14, pp.419~425 (2008)
- J. Ajitsaria, "Modeling and analysis of a bimorph piezoelectric cantilever beam for voltage generation", Smart Mater. Struct, 16, pp.447~454 (2007)
- R. Elfrink, "Vibration energy harvesting with aluminum nitridebased piezoelectric devices", J. Micromech. Microeng, 19, pp.094005~094014 (2009)
