Materials for high temperature electrochemical applications: Automotive sensors, catalysts and traps

Extensive emissions and fuel economy directives are stimulating the development of every more sophisticated sensors, catalyst systems and emissions traps with improved performance and self-evaluation capabilities. For the development of such systems, deeper insights are required to understand the of...

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Veröffentlicht in:Sensors and actuators. B, Chemical Chemical, 2013-10, Vol.187, p.106-110
1. Verfasser: Tuller, Harry L.
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container_title Sensors and actuators. B, Chemical
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creator Tuller, Harry L.
description Extensive emissions and fuel economy directives are stimulating the development of every more sophisticated sensors, catalyst systems and emissions traps with improved performance and self-evaluation capabilities. For the development of such systems, deeper insights are required to understand the often complex interplay between the chemical state of the material and its electrical, optical, thermal and mechanical properties. Three examples, illustrating how information gained about the defect, electronic and transport structure of oxide materials can be used to optimize sensor and catalyst properties, are presented. Also discussed are means for in situ monitoring of the status of exhaust catalysts and traps.
doi_str_mv 10.1016/j.snb.2012.09.069
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subjects Actuators
Automotive components
Catalysis
Catalysts
Chemomechanics
electrochemistry
Electronics
emissions
fuels
mechanical properties
Monitoring
NOx sensor
Oxides
Oxygen sensor
Oxygen storage materials
Self-calibration catalysts
Sensors
temperature
title Materials for high temperature electrochemical applications: Automotive sensors, catalysts and traps
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