IPMC as a Mechanoelectric Energy Harvester: Tailored Properties
Document Type
Article
Publication Date
2013
Publication Title
Smart Materials and Structures
Volume
22
Issue
1
First page number:
015017
Last page number:
015017
Abstract
Due to their inherited mechanoelectric transduction capability, long-life, and effective operation in both air and water, ionic polymer–metal composites (IPMCs) are considered for energy harvesting applications. The reported research aims to study different parameters in the mechanical domain (stiffness and scalability) and the electrical domain (impedance and interfacial area) that seem to have profound effects on battery charging, with the aid of an electromechanical transducer model (Tiwariet al 2008 Smart Struct. Syst. 4 549–3). Experiments performed to confirm the model predictions are also reported. The research demonstrates the applicability of IPMC as an energy harvester in lower frequency regions (<50 >Hz) with an average efficiency of around 2% or less. The instantaneous power output from 10 mm (width)×50 mm (length)×0.2 mm (thickness) was measured to be approximately 4 μW (20 W m−3).
Keywords
Battery chargers; Electronic apparatus and appliances; Electronics and devices; Condensed matter: structural; mechanical & thermal; Energy harvesting; Metal-filled plastics; Nanoscale science and low-D systems; Nanoscience
Disciplines
Electro-Mechanical Systems | Energy Systems | Materials Science and Engineering | Mechanical Engineering | Nanoscience and Nanotechnology | Structural Materials
Language
English
Permissions
Use Find in Your Library, contact the author, or interlibrary loan to garner a copy of the item. Publisher policy does not allow archiving the final published version. If a post-print (author's peer-reviewed manuscript) is allowed and available, or publisher policy changes, the item will be deposited.
Repository Citation
Tiwari, R. C.,
Kim, K. J.
(2013).
IPMC as a Mechanoelectric Energy Harvester: Tailored Properties.
Smart Materials and Structures, 22(1),
015017-015017.