

An American chemist whose pioneering work on hydrogenation unlocked new methods for transforming organic molecules.
Homer Burton Adkins was a central figure in the world of organic chemistry during the first half of the 20th century. Operating out of the University of Wisconsin–Madison, his laboratory became synonymous with the study of hydrogenation—the process of adding hydrogen to molecules. His meticulous research led to the development of 'Adkins' catalyst,' a specific copper-chromium oxide mixture that became a standard tool for chemists seeking to reduce carbonyl groups. His work had profound practical implications, influencing the production of everything from pharmaceuticals to industrial chemicals. During World War II, he lent his expertise to the nation's defense efforts, conducting research on chemical warfare agents. His influential textbook, 'Reactions of Hydrogen,' solidified his reputation as a defining authority in his field.
1883–1900
Came of age during World War I. Disillusioned by the carnage, they rejected the certainties of the Victorian era and built modernism from the wreckage — in art, literature, and politics.
Homer was born in 1892, placing them squarely in The Lost Generation. The events that shaped this generation — world wars, depression, and rapid industrialization — shaped the world they entered and the choices available to them.
The biggest hits of 1892
The world at every milestone
Einstein publishes the theory of special relativity
Ford Model T goes into production
Halley's Comet makes its closest approach
The Federal Reserve is established
King Tut's tomb discovered in Egypt
Amelia Earhart flies solo across the Atlantic
Battle of Midway turns the tide in the Pacific
NATO founded; Mao proclaims the People's Republic of China
He was elected to the United States National Academy of Sciences in 1945.
He suffered from poor health in his later years, attributed in part to exposure to toxic substances during his wartime research.
The American Chemical Society presents an annual award named in his honor for outstanding work in organic chemistry.
“The catalyst must be specific for the reaction, and the reaction must be clean.”