This content is not included in
your SAE MOBILUS subscription, or you are not logged in.
Regeneration Capability of Diesel Particulate Filter System Using Electric Heater
Annotation ability available
Sector:
Language:
English
Abstract
Regeneration capability of a wall-flow monolith type diesel paticulates filter with an electric heater was studied. To prevent filter crack generation and unburned particulates accumulation, a precision controller was added to the test equipment to reduce thermal load. In order to control the supply of oxygen to potentially prevent cracking, a second air feeder was also added. Furthermore, to ignite the accumulated particulates uniformly and propagate extensively to burn accumulated particulates completely a newly improved heater unit was employed.
Repeated regeneration tests were conducted with cars on a chassis dynamometer. Though crack generation and unburned particulates accumulation were reduced considerably, satisfactory prevention could not be achieved. Therefore a parameter study using regenerative burning and thermal stress analysis model was carried out.
Experimental results showed that by a further improved control and more efficient insulating material filter casing, crack generation and unburned particulate accumulation could be subdued.
Recommended Content
Technical Paper | NOx Adsorber Aging on a Heavy-Duty On-Highway Diesel Engine - Part One |
Technical Paper | NOx Adsorber Aging on a Heavy-Duty On-Highway Diesel Engine - Part Two |
Authors
Topic
Citation
Kobashi, K., Hayashi, K., Aoki, H., Kurazono, K. et al., "Regeneration Capability of Diesel Particulate Filter System Using Electric Heater," SAE Technical Paper 930365, 1993, https://doi.org/10.4271/930365.Also In
References
- MacDonald J. Scott et al “Development of a Particulate Trap System for a Heavy-Duty Diesel Engine” SAE 880006
- Simon Gerald M. et al “Diesel Particulate Trap Regeneration Using Ceramic Wall-Flow Traps, FuelAdditives, and Supplemental Electrical Igniters” SAE 850016
- Rao V. D. et al “Advanced Techniques for Thermal and Catalytic Diesel Particulate Trap Regeneration” SAE 850014
- Wiedemann B. et al “Vehicular Experience with Additives for Regeneration of Ceramic Diesel Filters” SAE 850014
- Pischinger F. et al “Modular Trap and Regeneration System for Buses, Trucks and Other Applicaions” SAE 900325
- Walton F. B. et al “Controlled Energy Deposition in Diesel Particulate Filters During Regeneration by Means of Microwave Irradiation” SAE 900327
- Thimsen D. P. et al “The Performance of an Electrostatic Agglomerator as a Diesel Soot EmissionControl Device” SAE 900330
- Balzotti A. et al “Italian City Buses with Particulates Traps” SAE 900114
- Pattas K. N. et al “Exhaust Temperature Response of Trap Oxidizer Systems” SAE 900323
- Gabathuler J. P. et al “New Developments of Ceramic Foam as a Diesel Particulate Filter” SAE 910325
- Takesa K. et al “Development of Particulate Trap System with Cross Flow Ceramic Filter and Reverse Cleaning Regeneration” SAE 910326
- Barris M. A. et al “A Filter Tube Trap System for Light Truck Applications” SAE 920139
- Tuteja A. D. et al “Selection and Development of a Particulate Trap System for a Light Duty Diesel Engine” SAE 920142
- Takama et al “Regeneration Process of Ceramic Form Diesel-Particulate Traps” SAE 841394
- Kobashi et al “Regeneration Capability of Diesel Particulate System with Wall-Flow Monolith Filter” JSAE 10 3 1989
- Hayashi K. et al “Regeneration Capability of Wall-Flow Monolith Diesel Particulate Filter with Electric Heater” SAE 900603