Rodney Bagley: Difference between revisions

From Wikipedia, the free encyclopedia
Content deleted Content added
m →‎References: Adding Persondata using AWB (7822)
No edit summary
(16 intermediate revisions by 13 users not shown)
Line 1: Line 1:
'''Rodney D. Bagley''', PhD, is an [[engineer]] and co-[[inventor]] of the [[catalytic converter]].
'''Rodney D. Bagley''' (October 2, 1934-April 13, 2023) was an [[engineer]] and co-[[inventor]] of the [[catalytic converter]].


Rodney Bagley was born in [[Ogden, Utah]], on 2 October 1934. He earned a [[Bachelor of Science|B.S.]] in [[Geological and geophysical engineering|geological engineering]] in 1960, and a [[Doctor of Philosophy|PhD]] in [[ceramic engineering]] in 1964, both from the [[University of Utah]]. He worked for [[Corning Incorporated]] from 1963 until his [[retirement]] in 1994, researching unique [[ceramic]] materials. Bagley is a Corning [[Research fellow]], an [[American Ceramic Society]] fellow, and recipient of the Geijsbeck Award (1985) and the International Ceramics Prize (1996). He was inducted into the [[National Inventors Hall of Fame]] in 2002.<ref>[http://www.invent.org/hall_of_fame/169.html National Inventors Hall of Fame Profile for Rodney Bagley]</ref>
Rodney Bagley was born in [[Ogden, Utah]], on 2 October 1934. He earned a [[Bachelor of Science|B.S.]] in [[geological engineering]] in 1960, and a [[Doctor of Philosophy|PhD]] in [[ceramic engineering]] in 1964, both from the [[University of Utah]]. He worked for [[Corning Incorporated]] from 1963 until his [[retirement]] in 1994, researching unique [[ceramic]] materials. Bagley is a Corning [[Research fellow]], an [[American Ceramic Society]] fellow, and recipient of the Geijsbeck Award (1985) and the International Ceramics Prize (1996). He was inducted into the [[National Inventors Hall of Fame]] in 2002.<ref>[http://www.invent.org/hall_of_fame/169.html National Inventors Hall of Fame Profile for Rodney Bagley]</ref>


The [[Clean Air Act (1970)]] set new standards for [[Exhaust gas|automotive emissions]]. Bagley, as part of a Corning team that also included [[Irwin Lachman]] and [[geologist]] Ronald Lewis, invented the core, or [[Enzyme substrate|substrate]], used in modern catalytic converters. They developed the [[Extrusion|extrusion die]] along with a process that made a thin-walled, [[Honeycomb (geometry)|honeycomb]] cellular [[ceramic]] substrate. Thousands of cellular channels through the structure allowed for a large surface area. The inside surface area was then coated with a [[catalyst]] that reacted with pollutants, converting 95% of exhaust [[pollution|pollutants]] into [[harmless]] emissions, including [[carbon dioxide]], [[nitrogen]], and [[water vapor]]. A restriction of the ceramic substrate was that due to its sensitivity, only lead-free [[gasoline]] could be used.<ref>[http://www.google.com/patents?id=L5o7AAAAEBAJ&dq=3,790,654 Patent:EXTRUSION METHOD FOR FORMING THIN-WALLED HONEYCOMB STRUCTURES]</ref> Ceramic substrate technology is now used by every automotive [[manufacturer]] in the world and is credited with reducing automotive pollutants by more than three billion tons worldwide.
The [[Clean Air Act (1970)]] set new standards for [[Exhaust gas|automotive emissions]]. Bagley, as part of a Corning team that also included [[Irwin Lachman]] and [[geologist]] Ronald Lewis, invented the core, or [[Enzyme substrate|substrate]], used in modern catalytic converters. They developed the [[Extrusion|extrusion die]] along with a process that made a thin-walled, [[Honeycomb (geometry)|honeycomb]] cellular [[ceramic]] substrate. Thousands of cellular channels through the structure allowed for a large surface area. The inside surface area was then coated with a [[catalyst]] that reacted with pollutants, converting 95% of exhaust [[pollution|pollutants]] into harmless emissions, including [[carbon dioxide]], [[nitrogen]], and [[water vapor]]. A restriction of the ceramic substrate was that due to its sensitivity, only lead-free [[gasoline]] could be used.<ref>[http://www.google.com/patents?id=L5o7AAAAEBAJ&dq=3,790,654 Patent:EXTRUSION METHOD FOR FORMING THIN-WALLED HONEYCOMB STRUCTURES]</ref> Ceramic substrate technology is now used by every automotive [[manufacturer]] in the world and is credited with reducing automotive pollutants by more than three billion tons worldwide.


==References==
==References==
{{reflist|2}}
{{reflist|2}}


{{Persondata <!-- Metadata: see [[Wikipedia:Persondata]]. -->
| NAME = Bagley, Rodney D.
| ALTERNATIVE NAMES =
| SHORT DESCRIPTION =
| DATE OF BIRTH = 1934
| PLACE OF BIRTH =
| DATE OF DEATH =
| PLACE OF DEATH =
}}
{{DEFAULTSORT:Bagley, Rodney D.}}
{{DEFAULTSORT:Bagley, Rodney D.}}
[[Category:American inventors]]
[[Category:1934 births]]
[[Category:Living people]]
[[Category:People from Ogden, Utah]]
[[Category:People from Ogden, Utah]]
[[Category:20th-century American inventors]]
[[Category:University of Utah alumni]]
[[Category:University of Utah alumni]]
[[Category:National Inventors Hall of Fame inductees]]
[[Category:National Medal of Technology recipients]]
[[Category:National Medal of Technology recipients]]
[[Category:1934 births]]
[[Category:Living people]]

[[pt:Rodney Bagley]]

Revision as of 18:25, 14 April 2023

Rodney D. Bagley (October 2, 1934-April 13, 2023) was an engineer and co-inventor of the catalytic converter.

Rodney Bagley was born in Ogden, Utah, on 2 October 1934. He earned a B.S. in geological engineering in 1960, and a PhD in ceramic engineering in 1964, both from the University of Utah. He worked for Corning Incorporated from 1963 until his retirement in 1994, researching unique ceramic materials. Bagley is a Corning Research fellow, an American Ceramic Society fellow, and recipient of the Geijsbeck Award (1985) and the International Ceramics Prize (1996). He was inducted into the National Inventors Hall of Fame in 2002.[1]

The Clean Air Act (1970) set new standards for automotive emissions. Bagley, as part of a Corning team that also included Irwin Lachman and geologist Ronald Lewis, invented the core, or substrate, used in modern catalytic converters. They developed the extrusion die along with a process that made a thin-walled, honeycomb cellular ceramic substrate. Thousands of cellular channels through the structure allowed for a large surface area. The inside surface area was then coated with a catalyst that reacted with pollutants, converting 95% of exhaust pollutants into harmless emissions, including carbon dioxide, nitrogen, and water vapor. A restriction of the ceramic substrate was that due to its sensitivity, only lead-free gasoline could be used.[2] Ceramic substrate technology is now used by every automotive manufacturer in the world and is credited with reducing automotive pollutants by more than three billion tons worldwide.

References