4
PEOPLE Dr. W. 0. Baker Receives Perkin Medal The man who directs the research of one of the world's largest and most productive industrial laboratories is the winner of the Perkin Medal for 1963. He is Dr. William O. Baker, vice president for research of Bell Telephone Laboratories. The Perkin Medal, sponsored by the American Section of the Society of Chemical Industry, commemorates the work of Sir William Henry Perkin, the chemist who synthesized mauve dye and laid the groundwork for the coal chemicals industry. Dr. Baker is the 57th recipient of the medal, one of the top awards in American chemistry. He received the medal last week at a dinner at the Waldorf-Astoria Hotel in New York City. As Bell Laboratories' vice president for research (since 1955), Dr. Baker leads a technical staff of about 1200, located primarily at Murray Hill, N.J. Other laboratories are at Whippany, N.J., Holmdel, N.J., and New York City. The laboratories' patent division also reports to Dr. Baker. The Perkin Medalist was born in Chestertown, Md., in 1915. His for- mal schooling began in a one-room, one-teacher, Quaker country school in Maryland. It ended with a Ph.D. in physical chemistry from Princeton Uni- versity, where he held the Harvard and Proctor Fellowships. He received the B.S. from Washington College in Chestertown in 1935. He did his doctoral thesis research with Prof. Charles P. Smyth. It was at Princeton that the medalist began his studies on the relation of dielectric behavior to molecular structure. Seven papers stemmed from his doc- toral thesis research. Prof. Smyth has said, "The considerable number of our joint papers was due largely to Bill's energy and originality." His work at Princeton was an early stage of what came to be solid state research. In this work he determined the dielectric constant and absorption for several polyatomic dipolar organic compounds. These findings clearly indicated that the degree of molecular rotation (extending into the solid state well below the melting point) affected the entropy of fusion. Later, at Bell Telephone Laboratories, Dr. Baker studied the relation of dielectric prop- Dr. W. O. Baker From a one-room school erties to the structure of certain crys- talline polymers. He found that these properties, and even the melting points of technically important polyesters and polyamides, are determined by the ori- entation and concentration of the molecules' polar groups. The proper- ties are modified to some extent by the polar groups' neighbors. After receiving the Ph.D., in 1938, Dr. Baker began research in physical chemistry at Bell Telephone Labora- tories in 1939. Much of his research has been on the study of macromole- cules, the giant molecules that are the basic elements of plastics, fibers, natu- ral and synthetic rubbers, and of the tissue of growing plants and animals. These studies, many in collaboration with Dr. C. S. Fuller, Dr. W. P. xMa- son, and others, were made principally on a number of new polymers. A variety of experimental methods and techniques were used. Helical struc- tures were discovered for certain syn- thetic polyamides, yielding simple analogies to protein and nucleic acid structures. Dr. Baker's studies on macromole- cules provided a basis for solving the polyethylene cracking problem. This problem was encountered in poly- ethylene's early use in sheathing large telephone cables. His studies showed that polyethylene and some other poly- mers that elongate readily under uni- axial stress may crack when subjected to biaxial stress. Sorbed liquids greatly increase the cracking. He found that polyethylene's tendency to crack under complex stressing depends mainly on the low molecular weight component. Thus the problem was solved by requiring better manufac- turing control and eliminating very low molecular weight material. A most notable contribution to poly- mer science was Dr. Baker's concept of "microgel." This concept was ex- tremely valuable in controlling the quality of synthetic rubber in the Gov- ernment's wartime rubber program. The microgel concept, generally use- ful for all polymers, is expressed as follows: Synthetic rubber's gel frac- tion arises from a characteristic struc- ture in the raw rubber that affects the final vulcanizate's physical properties and quality. Accessibility and con- centration of catalyst, modifiers, and the supplied monomers govern this supermolecular cross-linked molecu- lar unit, microgel. The emulsion medium permits truly three-dimensional or globular synthetic molecules to be made. Their average molecular weights (hundreds of mil- lions to billions) posed a measurement problem solved by Prof. Peter Debye's modern light scattering methods. This microgel concept led to Dr. Baker's interest in highly netted poly- mers. With Dr. F. H. Winslow he found that, instead of vaporizing by cracking, many netted polymers would dehydrogenate to yield denser net- works. This resulted in the proposal to use cross-linked polymers as abla- tive heat shields for protecting missiles and satellites from burning up upon re-entry into the atmosphere. Such polymer shields are now in use. For many years Dr. Baker has served in consulting and advisory ca- pacities in Washington. Currently, he is a member of the National Science Board and a consultant in the Execu- tive Office of the President (Office of Science and Technology) and the De- partment of Defense. He has served as councilor, and on national committees of the ACS. He is a fellow of the American Physical Society and a member of the National Academy of Sciences. Dr. Baker was married in 1941 and has one son. According to a colleague and personal acquaintance, "He is as remarkable as his work. He is widely read in literature and history as well as in science. He can recall and de- scribe the significant findings in the sciences, and he remembers and can call by name almost everyone he has ever met." 90 C&EN FEB. 4, 1963

Dr. W.O. Baker Receives Perkin Medal

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P E O P L E

Dr. W. 0. Baker Receives Perkin Medal The man who directs the research of one of the world's largest and most productive industrial laboratories is the winner of the Perkin Medal for 1963. He is Dr. William O. Baker, vice president for research of Bell Telephone Laboratories.

The Perkin Medal, sponsored by the American Section of the Society of Chemical Industry, commemorates the work of Sir William Henry Perkin, the chemist who synthesized mauve dye and laid the groundwork for the coal chemicals industry. Dr. Baker is the 57th recipient of the medal, one of the top awards in American chemistry. He received the medal last week at a dinner at the Waldorf-Astoria Hotel in New York City.

As Bell Laboratories' vice president for research (since 1955), Dr. Baker leads a technical staff of about 1200, located primarily at Murray Hill, N.J. Other laboratories are at Whippany, N.J., Holmdel, N.J., and New York City. The laboratories' patent division also reports to Dr. Baker.

The Perkin Medalist was born in Chestertown, Md., in 1915. His for­mal schooling began in a one-room, one-teacher, Quaker country school in Maryland. It ended with a Ph.D. in physical chemistry from Princeton Uni­versity, where he held the Harvard and Proctor Fellowships. He received the B.S. from Washington College in Chestertown in 1935.

He did his doctoral thesis research with Prof. Charles P. Smyth. It was at Princeton that the medalist began his studies on the relation of dielectric behavior to molecular structure. Seven papers stemmed from his doc­toral thesis research. Prof. Smyth has said, "The considerable number of our joint papers was due largely to Bill's energy and originality."

His work at Princeton was an early stage of what came to be solid state research. In this work he determined the dielectric constant and absorption for several polyatomic dipolar organic compounds. These findings clearly indicated that the degree of molecular rotation (extending into the solid state well below the melting point) affected the entropy of fusion. Later, at Bell Telephone Laboratories, Dr. Baker studied the relation of dielectric prop-

Dr. W. O. Baker From a one-room school

erties to the structure of certain crys­talline polymers. He found that these properties, and even the melting points of technically important polyesters and polyamides, are determined by the ori­entation and concentration of the molecules' polar groups. The proper­ties are modified to some extent by the polar groups' neighbors.

After receiving the Ph.D., in 1938, Dr. Baker began research in physical chemistry at Bell Telephone Labora­tories in 1939. Much of his research has been on the study of macromole-cules, the giant molecules that are the basic elements of plastics, fibers, natu­ral and synthetic rubbers, and of the tissue of growing plants and animals.

These studies, many in collaboration with Dr. C. S. Fuller, Dr. W. P. xMa-son, and others, were made principally on a number of new polymers. A variety of experimental methods and techniques were used. Helical struc­tures were discovered for certain syn­thetic polyamides, yielding simple analogies to protein and nucleic acid structures.

Dr. Baker's studies on macromole-cules provided a basis for solving the polyethylene cracking problem. This problem was encountered in poly-ethylene's early use in sheathing large telephone cables. His studies showed that polyethylene and some other poly­mers that elongate readily under uni­axial stress may crack when subjected to biaxial stress. Sorbed liquids greatly increase the cracking. He found that polyethylene's tendency to

crack under complex stressing depends mainly on the low molecular weight component. Thus the problem was solved by requiring better manufac­turing control and eliminating very low molecular weight material.

A most notable contribution to poly­mer science was Dr. Baker's concept of "microgel." This concept was ex­tremely valuable in controlling the quality of synthetic rubber in the Gov­ernment's wartime rubber program. The microgel concept, generally use­ful for all polymers, is expressed as follows: Synthetic rubber's gel frac­tion arises from a characteristic struc­ture in the raw rubber that affects the final vulcanizate's physical properties and quality. Accessibility and con­centration of catalyst, modifiers, and the supplied monomers govern this supermolecular cross-linked molecu­lar unit, microgel.

The emulsion medium permits truly three-dimensional or globular synthetic molecules to be made. Their average molecular weights (hundreds of mil­lions to billions) posed a measurement problem solved by Prof. Peter Debye's modern light scattering methods.

This microgel concept led to Dr. Baker's interest in highly netted poly­mers. With Dr. F. H. Winslow he found that, instead of vaporizing by cracking, many netted polymers would dehydrogenate to yield denser net­works. This resulted in the proposal to use cross-linked polymers as abla­tive heat shields for protecting missiles and satellites from burning up upon re-entry into the atmosphere. Such polymer shields are now in use.

For many years Dr. Baker has served in consulting and advisory ca­pacities in Washington. Currently, he is a member of the National Science Board and a consultant in the Execu­tive Office of the President (Office of Science and Technology) and the De­partment of Defense.

He has served as councilor, and on national committees of the ACS. He is a fellow of the American Physical Society and a member of the National Academy of Sciences.

Dr. Baker was married in 1941 and has one son. According to a colleague and personal acquaintance, "He is as remarkable as his work. He is widely read in literature and history as well as in science. He can recall and de­scribe the significant findings in the sciences, and he remembers and can call by name almost everyone he has ever met."

90 C&EN FEB. 4, 1963

INDUSTRY

Bryce P. Anderson appointed v.p.

of research at U.S. Resin Corp., Price,

Utah.

JeflF W. Baird joins Mobil Chem­

ical's research and technical laboratory

at Beaumont, Tex., as chemical engi­

neer.

Dr. C. James Barr named director

of production at Lockheed Propulsion

Co., Redlands, Calif.

Recent additions to the research lab

of Falstaif Brewing Corp., St. Louis,

include S. K. Bawa, physicochemist;

Dr. Vilhelm Jahnsen, biochemist;

Rosalind Dean, literature chemist; and

William DonLevy, quality control

director.

Dr. C. J. Bennîng named supervisor

of plastics development group in poly­

mer research for W. R. Grace & Co.

research division, Clarksville, Md.

Dr. Walker H. Bowman appointed

research associate in the research de­

partment of Amoco Chemicals, Whit­

ing, Ind.

Robert T. Braun, technical services

superintendent of Monsanto's Queeny

plant, named a general superintendent

of manufacturing. Succeeds Dominic Danna, now with the company's over­

seas division on a special assignment

as project start-up manager of a plant

being built in Spain.

Dr. Robert P. Bringer named super­

visor in commercial plastics develop­

ment at the chemical division labora­

tory of Minnesota Mining & Mfg., St.

Paul. Dr. Raymond J. Seffl named

supervisor of fluorination processes and

Samuel Smith, supervisor of polymer

research in fluorochemical develop­

ment.

Lawrence C. Byck, Jr., joins market­

ing department of U.S. Borax & Chem­ical Corp. as assistant director of mar­keting development and technical serv­

ice in the New York office.

New senior research associates at Tennessee Eastman Co. research labs,

Kingsport, Term.': Dr. John R. Cald­well, Dr. R. H. Hasek, Dr. E. V. Martin, D. C. Sievers, Dr. James M. Straley, and Dr. John W. Tamblyn.

J. Michael Clumpner appointed to research department of Car gill, Inc., Minneapolis.

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FEB. 4, 196 3 G & Ε Ν 91

los alamos

Arnold H. Craft named chief chem­ist at Precious Metals Recovery Corp., Nutley, N.J.

Dr. Β. Μ. Culbertson joins Archer Daniels Midland Co.'s research depart­ment, Minneapolis. Dr. Graham Hughes joins specialty chemicals re­search staff.

Arthur C. Curran has been installed as the 1963 president of the Salesmen's Association of the American Chemical Industry. He is v.p. and general sales manager of Meer Corp.

Guy F. Davies named North Florida district manager of American Mineral Spirits Co., Tampa.

Dr. Romano Deghenghi and Dr. Stanley O. Winthrop, research chem­ists at Ayerst Research Laboratories, Montreal, named group leaders in charge of steroid chemistry and medic­inal chemistry, respectively.

Robert J. Dobuski promoted to v.p. and general manager at Vulcanized Rubber & Plastics Co., Morrisville, Pa.

New scientists and engineers at Allied Chemical's nylon center oper­ated by National Aniline Division at Chesterfield, Va.: Victor A. Dorman-Smith, George S. Hathorn, Robin B. Mumford, John Turnbull, Robert F. Whitley.

John W. Fitzpatrick appointed pro­duction manager of Transelco, Inc., Dresden, N.Y.

Dr. Mark P. Freeman, senior re­search chemist at American Cyana-mid's Stamford research labs, receives one of the company's senior educa­tional awards for 1963-64 which will enable him to study abroad for a year. He will study at the Elektrophysikal-isches Institut in Munich.

Robert T. Gaudlitz promoted to senior development engineer at A. E. Staley Mfg., Decatur, 111.

Thomas E. Gensler named a sales representative of the silicon products department of General Electric, Chi­cago.

Dr. Richard J. Goldberg appointed v.p. in charge of research and develop­ment division, Technicolor Corp., Hol­lywood, Lo.ndon, and Rome.

Robert D. Goodall appointed execu­tive v.p. at Davison Chemical. Page Edmunds II named v.p. and general manager for chemicals.

The interdisciplinary approach to solv­ing problems has been growing in popularity in the scientific community during the past 10 years. But long before that, in the late 1930's, Dr. Mildred Cohn, the Garvan Medalist for 1963, began to practice the inter­disciplinary art.

Dr. Cohn is with the Johnson Foun­dation of the University of Pennsyl­vania, Philadelphia. She received the award during the ACS national meet­ing in Cincinnati.

The medalist is a pioneer in the use of the oxygen isotope, 0 1 S , to study en-zymic mechanisms, especially with re­spect to bond cleavage. In particular, Dr. Cohn used the oxygen isotope to study the cleavage reactions in such substances as glucose-1-phosphate, adenosine diphosphate (ADP), and adenosine triphosphate (ATP). She also used the technique to learn about the phosphorus-water exchange that is catalyzed by mitochondria concomi­tant with oxidative phosphorylation. In addition, she has studied the nu­clear magnetic resonance spectra of ADP and ATP and their complexes with divalent metal ions.

This widely based and varied scien­tific experience did not originate de novo. It started when Dr. Cohn, who had a B.A. (1931) from New York's Hunter College, took her advanced training with Dr. Harold Urey at Co­lumbia University. There, in 1938, she received a Ph.D. in physical chem­istry. Her dissertation was on the use of 0 1 S to study exchange reactions of organic compounds.

From Dr. Urey's laboratory, Dr. Cohn went to work with Dr. Vincent du Vigneaud at Cornell University medical college, New York City. At

Garvan Medal

Dr. Mildred Cohn

Cornell for eight years, she played a significant role in the introduction of the heavy isotopes of nitrogen and hy­drogen into the study of biological problems.

In 1946 Dr. Cohn moved to Wash­ington University medical school, St. Louis, Mo. There she worked until 1950 with the biochemical husband-and-wife team, Carl and Gerti Cori. In St. Louis Dr. Cohn began the studies that helped eventually to open the door to the mechanism of oxida­tive phosphorylation, other phosphate transfer reactions, and the mode of ac­tion of uncouplers such as dinitro-phenol.

From St. Louis, Dr. Cohn went to Harvard medical school, Boston, Mass. (1950-51), where she worked with Dr. B. A. Hastings. In 1951 she went back to Washington University where she remained until 1960. For eight months, in 1955, she worked in England with Prof. H. A. Krebs.

While at St. Louis, Dr. Cohn was appointed Established Investigator of the American Heart Association. When she joined the Johnson Foun­dation in 1960, she became associate professor of biophysics and physical biochemistry, becoming a full profes­sor a year later.

Dr. Cohn is married to Dr. Henry Primakoff, Donner Professor of Phys­ics at the University of Pennsylvania, Philadelphia. They met during a physics course that they were taking together when they were students at Columbia. They married in 1938 and have three children: a 20-year-old daughter who is a psychology major at Stanford, an 18-year-old son who is studying biochemical science at Har­vard, and a 13-year-old daughter.

92 C & E N FEB. 4, 196 3

James B. Green named v.p. of Jef­frey Mfg. Co., Columbus, Ohio. Has been general manager of engineering and construction division.

Juan Hajdu and Michael Rock join Enthone, Inc., New Haven, Conn., as research chemists in the Enthonics laboratory.

Walter L. Hardy, director of tech­nical research and development at Simoniz Co., Chicago, elected a v.p. of the company.

Dr. Mark Hite becomes toxicologist for the Texas division of Dow Chem­ical, Freeport, Tex. Formerly with U.S. Public Health Service.

Eugene Holcomb joins sales engi­neering staff of Fischer & Porter Co., Richmond.

Dr. Gilbert W. King resigns as re­search director of IBM and has be­come v.p. and director of research at Itek Corp., Lexington, Mass.

Dr. Lewis I. Krimen joins Abbott Laboratories as development chemist, North Chicago. From Nalco Chem­ical.

Frederick A. Krone appointed group manager in charge of sales and tech­nical service for Polyco product line of Borden Chemical.

Ernest T. Lindsey becomes assistant general manager for manufacturing and production at Consumers Cooper­ative Association, Kansas City. From Celanese Chemical, where he was v.p. for petrochemicals manufacturing.

Russell C. Ludwig appointed v.p. of Pitman-Moore division of Dow Chemical, Indianapolis.

Dr. A. Norbert MacDonald pro­moted to scientist in research depart­ment of Shawinigan Resins, Spring­field, Mass.

Harry R. Marty named research director of the organic chemicals di­vision of Dewey & Almy Chemical in Cambridge, Mass. James E. Duffy succeeds him as plant manager at Owensboro. Roland Gray, Jr., named assistant plant manager at Owensboro.

John Y. Mason, Jr., named staff assistant to v.p. and director of re­search and development at Philip Morris, Inc., Richmond, Va.

Dr. A. F . McKay elected a director of Monsanto Canada, Ltd., Montreal. He is v.p. for research, development, engineering, and patents.

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