ELECTROMAGNETIC REGENERATIVE DAMPING IN VEHICLE SUSPENSION SYSTEMS
An analysis is presented of energy regeneration in vehicle suspension systems, using electromagnetic devices. Previous research has shown that the amount of energy dissipated in vehicle suspension systems may be worth regenerating for purposes such as electric vehicles, where energy efficiency is a primary concern. A generalized electromagnetic topology is proposed to assist in the design of an optimal regenerative damper. This leads to an analysis of the electrical and magnetic circuit designs of electromagnetic regeneration devices together with an analysis of rotating and linear dampers. Rotating electromagnetic dampers have the advantage of mechanical amplification, but degrade the vehicle dynamics. A solution to this problem is proposed, using extra dynamic elements in series with the rotating damper. The implementation of this design will allow the use of smaller, and cheaper, rotating electromagnetic regenerative devices for use in vehicle suspension systems. (A)
-
Availability:
- Find a library where document is available. Order URL: http://worldcat.org/issn/14775360
-
Corporate Authors:
Inderscience Enterprises Limited
World Trade Center Building, 110 Avenue Louis Casai
Geneva, Switzerland -
Authors:
- GRAVES, K E
- IOVENITTI, P G
- TONCICH, D
- Publication Date: 2000
Language
- English
Media Info
- Features: References;
- Pagination: p. 182-97
-
Serial:
- International Journal of Vehicle Design
- Volume: 24
- Issue Number: 2/3
- Publisher: Inderscience Enterprises Limited
- ISSN: 1477-5360
- Serial URL: http://www.inderscience.com/jhome.php?jcode=IJVD
Subject/Index Terms
- TRT Terms: Damping (Physics); Dynamics; Energy; Suspension systems; Vehicles
- ITRD Terms: 5559: Damping; 5473: Dynamics; 213: Energy; 1329: Suspension (veh); 1255: Vehicle
- Subject Areas: Energy; Vehicles and Equipment;
Filing Info
- Accession Number: 00795016
- Record Type: Publication
- Source Agency: Transport Research Laboratory
- Files: ITRD
- Created Date: Jul 7 2000 12:00AM