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Integrated Performance Monitoring of Three-Way Catalytic Converters by Self-Regenerative and Adaptive High-Temperature Catalyst and Sensors

This study reports the performance of a self‐regenerating perovskite, LaFeCoPdO3 as a three‐way catalyst (TWC) and its use for self‐diagnostic by means of integrated Al‐doped TiO2 and LaFeCoPdO3 sensor arrays, consisted of semiconducting oxides as sensing layers and LaFeCoPdO3 as catalytic filter. A...

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Published in:Advanced engineering materials 2016-05, Vol.18 (5), p.728-738
Main Authors: Saruhan, Bilge, Mondragón Rodríguez, Guillermo Cesar, Haidry, Azhar Ali, Yüce, Ayhan, Heikens, Sascha, Grünert, Wolfgang
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container_title Advanced engineering materials
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Mondragón Rodríguez, Guillermo Cesar
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description This study reports the performance of a self‐regenerating perovskite, LaFeCoPdO3 as a three‐way catalyst (TWC) and its use for self‐diagnostic by means of integrated Al‐doped TiO2 and LaFeCoPdO3 sensor arrays, consisted of semiconducting oxides as sensing layers and LaFeCoPdO3 as catalytic filter. Although perovskite catalyst yields a reasonable NO conversion performance at lower temperatures, it cannot fully compete with a commercial TWC under the TWC relevant temperatures and conditions. On the other hand, as‐coated duplex layer exhibits reasonable sensor property toward NO2 at 600 °C but sensor response deteriorates in NO2 + CO mixed gas environment. Ageing tests in the harsh exhaust peripherals however yield that perovskite improves the duplex layer's response through crack network and by protecting semiconducting oxide. Combination of a sputtered TiO2:Al‐sensor layer with perovskite powder catalytic filter layers allows selective NO2 sensing in the presence of CO at temperatures as high as 900 °C.
doi_str_mv 10.1002/adem.201500410
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subjects Catalysis
Catalysts
Detection
Nitrogen dioxide
Oxides
Perovskites
Sensors
Titanium dioxide
title Integrated Performance Monitoring of Three-Way Catalytic Converters by Self-Regenerative and Adaptive High-Temperature Catalyst and Sensors
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