Improving Power Output for Vibration-Based Energy Scavengers
Australian National University · University of California, Berkeley · +1 more institution
Abstract
Pervasive networks of wireless sensor and communication nodes have the potential to significantly impact society and create large market opportunities. For such networks to achieve their full potential, however, we must develop practical solutions for self-powering these autonomous electronic devices. We've modeled, designed, and built small cantilever-based devices using piezoelectric materials that can scavenge power from low-level ambient vibration sources. Given appropriate power conditioning and capacitive storage, the resulting power source is sufficient to support networks of ultra-low-power, peer-to-peer wireless nodes. These devices have a fixed geometry and - to maximize power output - we've…
Citation impact
- FWCI
- 76.26
- Percentile
- 100%
- References
- 9
Authors
10Topics & keywords
- Computer science
- Energy harvesting
- Power (physics)
- Capacitive sensing
- Flexibility (engineering)
- Wireless sensor network
- Wireless
- Vibration
- Affordable and clean energy