Welcome to ROSA P | Harvesting vibrational energy due to intermodal systems via nano coated piezo electric devices. - 30732 | US Transportation Collection
Stacks Logo
Advanced Search
Select up to three search categories and corresponding keywords using the fields to the right. Refer to the Help section for more detailed instructions.
 
 
Help
Clear All Simple Search
Advanced Search
Harvesting vibrational energy due to intermodal systems via nano coated piezo electric devices.
  • Published Date:
    2015-12-01
  • Language:
    English
Filetype[PDF-1.69 MB]


Details:
  • Corporate Creators:
    Mississippi State University
  • Resource Type:
  • Geographical Coverage:
    United States
  • Corporate Publisher:
    Mississippi State University. National Center for Intermodal Transportation for Economic Competitiveness
  • Format:
    PDF
  • Description:
    Vibrational energy resulting from intermodal transport systems can be recovered through the use of energy harvesting system consisting of PZT piezo electric material as the primary energy harvesting component. The ability of traditional PZT piezo electric materials can be enhanced to generate substantially more power by using special coatings made of nano-coating mixtures. It can be demonstrated that the enhanced system can be utilized to power intermodal transport safety lighting systems from roadway vibrations. The objectives of the project was achieved by performing three tasks; design and construction of the special nano coated piezo electric energy harvester, testing and enhancement of the newly designed and constructed system in the lab and implementation of the energy harvesting system to power a lighting system. Nano-coated PZT energy harvesting system showed substantial and explicit improvement as compared to non-coated PZT energy harvesting system. Also, in the experimental analysis of this project work, rectangular cantilever system performed substantially better than trapezoidal and triangular cantilever systems in terms of power harvesting capability. To incorporate this power harvesting system for the application to power LED bulbs, more number of PZTs was integrated into the system. The new multi nano-coated PZT composite cantilever system with six PZT composites was designed and constructed. This power output charged totally discharged 3.6 Volts NiMH Battery to 3.054 Volts in two hours. The charged battery easily lighted the LED bulb in the laboratory.

  • Funding:
    NCITEC Project No. 2013-31
  • Supporting Files:
    No Additional Files
No Related Documents.
You May Also Like:
Submit Feedback >