Energy Harvesting Using Shoe Embedded with Piezoelectric Material

被引:0
|
作者
Parul Chaudhary
Puneet Azad
机构
[1] Maharaja Surajmal Institute of Technology,Department of Electronics and Communication Engineering
[2] GGSIP University,University School of Information, Communication and Technology
来源
关键词
Piezoelectric; energy harvesting ; shoe sole; heel height; Kistler force plate; zebris force distribution measurement (FDM) system;
D O I
暂无
中图分类号
学科分类号
摘要
We have investigated the effect of the position and dimension of piezoelectric buzzers embedded in shoe soles on energy harvesting. The force and pressure generated by different types of shoes and heels were measured using plantar measurement systems. A Kistler force plate and zebris force distribution measurement provided precise values and locations of the force and pressure exerted by the foot on the sole. The position and area of buzzers inside the sole of the shoes resulted in a significant increase in electrical outputs. A maximum open-circuit voltage of 38 V, short circuit current of 33 μA, and harvested energy of 296.8 μJ cm−3 were found across a 100-μf capacitor for a wedge-heeled shoe. The open-circuit voltage in the wedge-heel type of shoe improved by more than five times when the pressure is changed from the heel to the toe and area of the buzzer is increased. Similarly, the energy stored across a 100-μF capacitor also improved by five times for the same shoe. Furthermore, the short circuit current improved by three times when the shoe was changed from a wedge heel to a block heel. The results indicate that this technique can be used to power wearable electronics and sensors.
引用
收藏
页码:6455 / 6464
页数:9
相关论文
共 50 条
  • [31] Mechanical Energy Harvesting From Road Pavements Under Vehicular Load Using Embedded Piezoelectric Elements
    Chen, Yisheng
    Zhang, He
    Zhang, Yangyang
    Li, Chunhua
    Yang, Qian
    Zheng, Hongyu
    Lu, Chaofeng
    JOURNAL OF APPLIED MECHANICS-TRANSACTIONS OF THE ASME, 2016, 83 (08):
  • [32] Piezoelectric energy harvesting
    Howells, Christopher A.
    ENERGY CONVERSION AND MANAGEMENT, 2009, 50 (07) : 1847 - 1850
  • [33] Piezoelectric vibration energy harvesting using strain energy method
    Mohammadi, Saber
    Cheraghi, Kaveh
    Khodayari, Akram
    ENGINEERING RESEARCH EXPRESS, 2019, 1 (01):
  • [34] Sustainable solar energy harvesting using phase change material (PCM) embedded pyroelectric system
    Yu, Chengbin
    Park, Juhyuk
    Youn, Jae Ryoun
    Song, Young Seok
    ENERGY CONVERSION AND MANAGEMENT, 2022, 253
  • [35] Statistical linearization for random vibration energy harvesting with piezoelectric material nonlinearity
    Qian, Feng
    da Silva, Leandro S. P.
    Liao, Yabin
    Zuo, Lei
    MECHANICAL SYSTEMS AND SIGNAL PROCESSING, 2023, 188
  • [36] A radio frequency and vibration energy harvesting antenna based on piezoelectric material
    Bai, Xue
    Han, Wan-yang
    Xu, Lei-jun
    Zhang, Jia-wei
    Li, Yan-xu
    INTERNATIONAL JOURNAL OF RF AND MICROWAVE COMPUTER-AIDED ENGINEERING, 2020, 30 (08)
  • [37] A piezoelectric beam model with geometric, material and damping nonlinearities for energy harvesting
    Machado, Sebastian P.
    Febbo, Mariano
    Gatti, Claudio D.
    Osinaga, Santiago M.
    SMART MATERIALS AND STRUCTURES, 2020, 29 (09)
  • [38] Evaluation of the performance of a lead-free piezoelectric material for energy harvesting
    Machado, S. P.
    Febbo, M.
    Rubio-Marcos, F.
    Ramajo, L. A.
    Castro, M. S.
    SMART MATERIALS AND STRUCTURES, 2015, 24 (11)
  • [39] Enhanced piezoelectric energy harvesting based on sandwiched phononic crystal with embedded spheres
    Gantasala, Subrahmanyam
    Thomas, Tiju
    Rajagopal, Prabhu
    PHYSICA SCRIPTA, 2023, 98 (03)
  • [40] Energy harvesting from vibration using a piezoelectric membrane
    Ericka, M
    Vasic, D
    Costa, F
    Poulin, G
    Tliba, S
    JOURNAL DE PHYSIQUE IV, 2005, 128 : 187 - 193