E.N. (Ned) Brandt, company historian of The Dow Chemical Company and a major figure in Dow’s public relations activities for over three decades, begins the interview by touching on his family background and early education, before recalling his activities in news writing positions during high school and journalism school at Michigan State. Brandt joined a quartermaster ROTC unit in 1941, went through Officer Candidate School, and in 1944 volunteered for overseas duty. He describes several interesting experiences during the war in France when he was an intelligence officer and a public relations officer. After a brief stint with UPI in Detroit, Brandt returned to France and worked for the French broadcasting system and the State Department at the Paris embassy. He discusses his work in France, art studies in Paris, and travels to Algeria. In 1953 Brandt resigned from the foreign service and joined Dow. This section of the interview includes recollections of Dow’s early public relations department and Bud Smith, and work with Bill Schuette as public relations manager of the newly created Midland Division. Brandt next discusses his concerns as assistant director and then director of public relations in the 1960s, including such topics as Dow’s global reorganization in 1965, speech writing for Dow’s top executives, environmental issues, The Dow Story, and outside involvement with public affairs organizations. In describing his activities during the 1970s and 1980s, Brandt talks about a visit to Chile, public relations in South Africa, difficulties with Mark Batterson during Zoltan Merszei’s tenure as president of Dow, the TV Hot Box, the origins of Dow’s history function and the Dow archives, his own decision to retire, and the Futures Initiative. The closing segments of the transcript focus on Brandt’s outside activities, especially for historical societies and foundations.
George M. Church was born on MacDill Air Force Base in Florida and lived near Tampa, Florida, until high school. He read a lot, especially science; when he was about ten he built an analog computer. For high school he was sent to Phillips Academy in Andover, Massachusetts, which he loved and where he throve. Dartmouth College, which was nearby, was beginning timeshare computing, and Church used their computer to teach himself more about computers. Church entered Duke University and finished in two years. He took a summer course in quantum physics at Massachusetts Institute of Technology and then began a job in Sung-Hou Kim’s crystallography lab. There he “finally found the intersection of computers and biology.” Also during these years he published five papers. Church entered Harvard University’s PhD program, doing sequencing in Walter Gilbert’s lab, working on polony sequences, and developing some of the earliest sequencers; he introduced multiplexed sequencing. Next he worked a short while at Biogen Research Corporation before taking a postdoc in Gail Martin’s lab at the University of California, San Francisco. Needing a job in Boston, Church talked to a friend, Gary Ruvkun, who offered him an assistant professorship in genetics at Harvard Medical School. He has advanced through the ranks and is now Director of the Harvard-MIT Genome Technology Center and Director of the Lipper Center for Computational Genetics, as well as a full professor in genetics.
Linda C. Meade-Tollin was born and raised in London, West Virginia, one of two children. Her father was a dentist and a community activist, her mother a teacher of languages and a guidance counselor. Always enthusiastically encouraged by parents and teachers, Meade-Tollin did well in school, skipping two grades. When she was in ninth grade her high school was integrated, and the three top graduates in her year were black women. Although there were no science classes in her schools until high school, Meade-Tollin was always interested in science, and when she entered West Virginia State College she decided to major in chemistry. She worked at Harlem and Bellevue Hospitals before entering a chemistry PhD program at the City University of New York (CUNY) at the age of twenty one; a year later she transferred to a program in biochemistry. During her graduate career, Meade-Tollin spent time teaching and she traveled among the various CUNY campuses to do research with Burton Tropp—her doctoral thesis dealt with gene expression in E. coli. Meade-Tollin’s first faculty appointment was at the College at Old Westbury, and, for part of her time there, she was also a visiting assistant professor at Rockefeller University, working on sickle cell anemia in Anthony Cerami’s lab. She applied for and received a National Institutes of Health postdoctoral award at the University of Arizona; at the end of her award at Arizona, Meade-Tollin married and she also decided to stay at the University. She was the only African-American woman to head a biomedical research laboratory at the University for many years; her areas of research focused on DNA damage, angiogenesis, and cancer invasion and metastasis. During this time she developed a reproducible and physiologically relevant bioassay for angiogenic inhibitors and enhancers suitable for drug discovery screening, and she spent a year as Faculty Development Fellow at Morehouse School of Medicine.
Burnaby Munson entered Tarleton State College in central Texas and transferred to the University of Texas in Austin, Texas; physical chemistry was his favorite subject. He studied the reactions of acetylene while in Robbin Anderson’s lab and completed his PhD there as well. Munson’s first job was with Humble Oil in Baytown, Texas, where he worked on solution thermodynamics, extracting paraffins from aromatics. Humble was collegial, and training continued with a lecture series organized by Joe Franklin, who was a good friend and mentor to Munson. Franklin’s small group of high-profile scientists developed the field of ion chemistry in mass spectrometry (MS). When Franklin left Humble for Rice University, the ion chemistry group began to break up. Frank Field took his high-pressure instrument to New Jersey; Frederick Lampe went to Pennsylvania State University; and Munson took a position at the University of Delaware. Munson was recruited to use Delaware’s two instruments, an old time of flight (TOF) and a new CEC 21-110. As a replacement for Joe Franklin and Frank Field, Munson attended his first American Society of Testing and Materials (ASTM) meeting, which he says was “a plum.” He has since attended most of the American Society of Mass Spectrometry (ASMS) meetings, which subsumed ASTM, and he was president of the Society.
Marion C. Thurnauer attended the University of Chicago for her undergraduate and graduate degrees in chemistry, working with Gerhard Closs, her doctoral thesis advisor. She completed the final experiments for her thesis at Argonne National Laboratory (ANL) because the required electron paramagnetic resonance (EPR) spectrometer at the University of Chicago was severely damaged by a chemical explosion that occurred in the University’s chemistry building. Working at ANL, she believes, was probably a factor for her to secure a postdoctoral position in the ANL Chemistry Division (CHM) with James R. Norris and Joseph J. Katz, studying, primarily by EPR spectroscopy, photochemical energy conversion in natural photosynthesis. She was promoted to Assistant Chemist, a staff position, and was, for a few years, the only female staff scientist in CHM and rose to become the first woman CHM Director. Along the way she established “Science Careers in Search of Women,” which ultimately led to the formulation and launching of the ANL Women in Science and Technology (WIST) program. As division director, Thurnauer once again was the only woman among her peers, i.e., division directors and ANL leadership. She had to choose frequently among competing goals and priorities and she had to maintain CHM’s shrinking core funding while working with scientists to secure additional funding. In addition to all her administrative work, Thurnauer was able to continue to be involved with science mainly because her co-workers kept her informed and up to date on their results. As she reminisces, Thurnauer discusses the general state of women in science, but particularly at ANL. She stresses the importance of mentoring, reinforcing, and building networks for women; she talks about having her husband in her division; she explains e-mentoring and recommends it; and she names and describes the work of some of the women who have served as her role models.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Don R. Clay worked in the Bureau of Drugs at the U.S. Food and Drug Administration (FDA); there he spent several years as Deputy Assistant Commissioner of Planning and Evaluation. Next he took his talents and experience to the U.S. Consumer Product Safety Commission’s Office of Program Planning and Evaluation. His risk assessment work included being liaison among the U.S. Environmental Protection Agency (EPA), the Occupational Safety and Health Administration (OSHA), the U.S. Consumer Product Safety Commission (CPSC), and the FDA, which gave him a chance to learn more about the EPA. Frustrated with the bureaucracy at the FDA, Clay moved to the Office of Toxic Substances, where he became Acting Assistant Administrator of what is now the Office of Pesticides and Toxic Substances (OPTS). Asbestos occupied much of his attention there, but only emberizing ash was banned. Industry testing was legislated. PCBs became regulated. Nevertheless, Clay’s disenchantment with having to “look for causes” led him to the Office of Air and Radiation (OAR) and, for his final position with the EPA, to Assistant Administrator of the Office of Solid Waste and Emergency Response (OSWER). Clay discusses the cultural differences among agencies; their different goals and processes; the differences between career staff and political appointees; and the difficulties of the regulatory process itself. He talks about what he perceives as successes and failures, focusing on asbestos regulation and about his relationship with the U.S. Congress and the influence of the European laws known as REACH (Registration, Evaluation, Authorisation and Restriction of Chemicals).
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Victor J. Kimm started in a senior post at the Environmental Protection Agency’s (EPA) Office of Policy, Planning, and Evaluation. He worked on the Safe Drinking Water Act and promoted the states’ efforts to qualify for delegation of implementation responsibilities. He became Deputy Assistant Administrator in the Office of Pesticides and Toxic Substances (OPTS). There he oversaw chemical regulation, resulting in reregistration and the modernizing of outdated protocols. During his ten years as Deputy Assistant Administrator, OPTS was responsible for implementing the Toxic Substances Control Act (TSCA). The Office regarded asbestos as the most likely pollutant to establish standards for implementing TSCA Section 6, but it failed the “least burdensome” requirement, in subsequent judicial review. Kimm laments a lack of an appeal by the Department of Justice for the apparent gutting of EPA’s authority to ban substances in products under section 6 of TSCA. He discusses risk assessment (hazard, risk, cost) and risk management (“how high can you jump”) in TSCA and adds his own third aspect, risk communications; he praises OPPTS (Office of Pollution, Pesticides, and Toxic Substances, which replaced OPTS), its scientists, and its innovations like health advisories and Integrated Risk Information System (IRIS); and he discusses the hobbling of regulation by poorly-designed laws like the Delaney Clause.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Glenn E. Schweitzer began his career as a Foreign Service Officer, moved to the staff of the Vice President’s Marine Science and Technology Council, and finally accepted a position at the U.S. Agency for International Development. He was then asked to manage the new Office of Toxic Substances (OTS) in the U.S. Environmental Protection Agency (EPA) in 1974.
Believing that the purpose of the OTS and TSCA was to prevent or reduce exposure to harmful chemicals, Schweitzer spent four years visiting producers to learn about their chemicals and relevant procedures. Schweitzer’s staff supported the establishment and conduct of the Interagency Testing Committee (ITC), which included the Department of Health and Human Services (HHS), the U.S. Food and Drug Administration (FDA), the Centers for Disease Control (CDC), and the EPA. The EPA’s role was to choose the many chemicals to be tested; ITC would arrange for steps to prioritize, test, and evaluate them. Schweitzer thought that EPA had an important but not decisive role in human health, but had a critical role in environmental matters. He regards as two successes the simultaneous regulation of chlorofluorocarbon (CFC) aerosols by the EPA, the Consumer Product Safety Commission (CPSC), and the FDA beginning in 1977 which he led; and the persuasion of the producers of vinyl chloride to agree to reduce emissions by eighty percent in three months, and their achievements in doing so, a process that he arranged.
Marvin L. Vestal obtained both bachelor’s and master’s degrees in Engineering Sciences from Purdue University, taking a break after two years to volunteer for the draft; he finished his undergraduate degree and master’s degree on the GI Bill, coming out of Purdue with no college debt. During college he worked part time at Johnston Laboratories, meeting there Henry Rosenstock and Merrill Wallenstein, who had studied at the University of Utah under Austin Wahrhaftig and Henry Eyring, and who developed the quasi-equilibrium theory (QET) of mass spectrometry (MS). Vestal worked on the coincidence time-of-flight (TOF) project and also improved the machine with his invention of an electron multiplier. He founded Scientific Research Instrument Corporation (SRIC), with Gordon Fergusson, William Johnston (of Johnston Labs), and Bob Jones. The company licensed the new process chemical ionization (CI) from its inventors, Burnaby Munson and Frank Field. Ever restless, Vestal decided that the academic world held appeal, so he went to the University of Utah for a PhD in chemical physics, studying under Wahrhaftig and Futrell. He built a triple quadrupole MS for photodissociation; with Calvin Blakely he built a crossbeam MS for his dissertation. PhD in hand, Vestal accepted a position at the University of Houston, where he stayed for eleven years. During those years he invented and patented thermospray and started another company, Vestec, which did so well he had to leave the University to work at Vestec (the company commercialized MALDI/TOF instruments). Vestec’s merger with PerSeptive, led by Noubar Afeyan, eventually led to the merger with Applied Biosystems. After retiring for a short while, Vestal founded Virgin Instruments.
Allison A. Aldridge attended the University of Illinois as an undergraduate, majoring in biology and taking many courses in chemistry. She then began a job in quality assurance at Hercules Aerospace, Inc. A friend there encouraged her to seek an advanced degree, and she began to take classes to meet the requirements for graduate school. She was accepted into the PhD program in chemistry at Loyola University in Chicago, Illinois, where she wrote a two-part thesis with two advisors. Degree in hand, Aldridge accepted a senior scientist job at Unilever, where she stayed for about three years. From there she went to Abbott Laboratories, working in late-stage analysis, then in the more interesting early-stage. From Abbott Aldridge moved to Atlanta, Georgia, to Mikart, Inc. Besides Georgia's climate (especially after Chicago's), one of Mikart's attractions was that it had five of the first ten ultra high performance liquid chromatography systems; “small pharma” was also attractive to Aldridge. She moved from Mikart to Revogenex, Inc., in Winder, Georgia, as Manager of Analytical Services, and then became Director of Analytical Services at Speed Laboratory, Inc. Dr. Aldridge was also Chair of the Committee on Minority Affairs at the American Chemical Society.
Gloria L. Anderson was born and raised in Altheimer, Arkansas; her father was a farmer and then a janitor, and her mother a domestic worker and a creative seamstress. Anderson was always good in school, even skipping grades, yet she had to attend segregated schools, literally just down the road from the origin of Brown v. Board of Education. Anderson attended Arkansas Agricultural, Mechanical, and Normal College (AM&N) on scholarship. She accepted a teaching assistantship at Atlanta University, and, while there, with Kimuel Huggins and Henry McBay as mentors, she wrote a master’s thesis in butadiene chemistry. Anderson was accepted into the doctoral program at the University of Chicago. She studied fluorine, using nuclear magnetic resonance (NMR), in Leon Stock’s lab. She had no study group and little help, teaching herself first the fluorine-19 NMR and then other types. She was friends with Thomas Cole, a fellow student who later became president of Clark Atlanta University. Having obtained her PhD, Anderson became associate professor and chair of the department of chemistry at Morris Brown College. She was offered the Fuller E. Callaway Chair, which she held until she became Dean of Academic Affairs, and which she resumed when she went back to teaching. She continued her research into fluorine-19, and began studying amantadines as potential antivirals; she often paid for her own research and patents. Twice she was interim president of Morris Brown; she laments the college’s current unaccredited status, the loss due to a former president’s fraud. In addition to her work for the College, Anderson has been a board member and Vice Chair of the Corporation for Public Broadcasting; she served also on two task forces, one for minorities and one for women in public television. She worked on boards of Georgia and Atlanta Public Broadcasting, as well as many others, and she has been on an advisory committee for the U.S. Food and Drug Administration.
Cynthia J. Burrows was born in St. Paul, Minnesota, one of two children. When she was in ninth grade the family moved to Boulder, Colorado, where later her high school chemistry class made beer that eventually exploded all over the classroom. That was her first clue that she wanted to be a chemist. She attended the University of Colorado and spent her junior year at the University of Edinburgh taking courses from Evelyn A.V. Ebsworth. In her senior year she entered Stanley Cristol’s lab, working on Stern-Volmer plots. Next she spent four months as balloon technician on Ascension Island, returning to Cristol’s lab for the remainder of the year. Burrows entered Cornell University’s PhD program, where she became intrigued by Barry Carpenter’s class and by reaction mechanisms. For a postdoc she went to the lab of Jean-Marie Lehn in Strasbourg, France. She went on to positions at the State University of New York at Stony Brook and then the University of Utah, universities in which she was the only woman in her departments. Burrows discusses at length women in chemistry and the changes she has seen during her career; support and mentoring from her friends and colleagues in COACh and more informal groups; her sabbatical in Okazaki, Japan; being mentored by John Osborn and mentoring her own students; and about how to interest more young women and men in science by teaching more science earlier.
Philip Eaton's oral history covers his childhood, undergraduate career at Princeton, graduate work at Harvard, and his long career at the University of Chicago. In this interview he discusses teaching, consulting, and his work in organic chemistry. Eaton concludes the interview with a discussion on the future or scientific research, maintaining excellence in chemistry education and research, and thoughts on his wife, Phyllis.
Richard E. Honig was born in Göttingen, Germany, the eldest of three boys. He attended Robert College, an American college in Istanbul, from which he graduated with a bachelor of science degree in electrical engineering. In 1938, Honig moved to the United States to pursue a Ph.D. in Physics at the Massachusetts Institute of Technology (MIT). Through a course in nuclear physics, he became interested in the nature of atoms, molecules and particularly isotopes, and eventually built his own mass spectrometer to study the effects of deuterium and cyclotron radiation on methane. His thesis on the nature of gas flow in that mass spectrometer was written under the direction of Clark Goodman. In 1946, Honig accepted a position at Socony-Vacuum Labs in Paulsboro, New Jersey, where he was able to continue the pursuit of his interest in the study of small hydrocarbon molecules with mass spectrometry. Honig joined the research staff at the Radio Corporation of America Laboratories in Princeton, New Jersey, in 1950, where he remained for the rest of his long career. His work began in Don North’s group, studying materials used in hot cathodes. He designed and built a two-stage mass spectrometer, which led a few years later to the development of a secondary ion mass spectrometer (SIMS). He spent a year during the mid-1950’s at the University of Brussels helping to start a mass spectrometry laboratory with Jean Drowart. Honig’s career at RCA focused on materials characterization, particularly impurities in semiconductor materials, first with mass spectrometry and then later with a variety of surface analysis techniques when he became head of the newly formed Materials Characterization Research Group there in the mid-1960’s. His long-time interest in cluster formation led to his measurement of elemental vapor pressures as a function of temperature and the evaluation of previously reported values for these quantities. Honig stepped down from his managerial position in 1982 and spent the next several years back in the laboratory helping to design and build a new mass spectrometer to study the organic materials on surfaces.
Reatha Clark King was born in Pavo, Georgia, the second of three daughters. Her father was a sharecropper who never learned to read or write, and her mother, who went to school only through third grade, worked as a maid. King attended Clark College; chemistry was a required course for a home economics major, and King was immediately smitten with it. She resolved to become a research chemist, an ambition encouraged by Alfred Spriggs, head of the department, in whose lab she worked on gas chromatography. King won a Woodrow Wilson Fellowship was admitted to the University of Chicago, where she obtained her PhD in thermochemistry. Her first job was as research chemist at the National Bureau of Standards in Washington, D.C., where she remained for five years. While there she worked on a project for the Advanced Research Projects Agency and published several papers. When her husband accepted a position at Nassau Community College in Garden City, Long Island, New York, King took an assistant professorship at York College of the City University of New York, progressing to associate dean of the college. From there she was chosen president of Metropolitan State University in Minneapolis and St. Paul, Minnesota, and then she moved on to General Mills, Inc., as a vice president, and as president of the General Mills Foundation, a philanthropic organization.
Madeleine Jacobs grew up in Washington, D.C., the younger of two children. Her father was a musician, her mother a secretary. The television program Watch Mr. Wizard convinced her she wanted to be a scientist, in particular a chemist. She matriculated into George Washington University with a full scholarship. After college, Jacobs began a master’s program at the University of Maryland, but quit after a year. She had always loved writing and wrote extremely well, so she applied for a job with Chemical & Engineering News (C&EN). After a short stint as a writer at National Institutes of Health, she spent five years as a science writer, and then became head of media relations and publications at the National Bureau of Standards. From that position, Jacobs’ career took her to the Smithsonian Institution’s Office of Public Affairs, beginning as science writer and ending as its Director. After fourteen years at the Smithsonian, Jacobs returned to C&EN to become managing editor. After one and a half years, she became editor-in-chief, a title she held for eight and a half additional years. At C&EN, she reawakened her interest in women in chemistry. She initiated “The Scorecard” to document the progress of women on chemistry faculties. Finding this scorecard effective in making faculties sit up and take notice on the disparity between the number of male and female professors, she began a scorecard for industry. After ten years at C&EN, Jacobs became the first woman and first person without a PhD to become Chief Executive Officer of the American Chemical Society, the position she holds today.
Lloyd M. Smith grew up in Berkeley, California, one of four children. His father was a physicist at Lawrence Berkeley National Laboratory and his mother a professor of mathematics. Smith attended the University of California, Berkeley; there he liked biology, chemistry and physics and chose to major in biochemistry. He worked in Wayne Hubbell’s lab, studying membranes and synthetic chemistry. On Hubbell’s advice he enrolled in graduate school at Stanford University, entering Harden McConnell’s lab to work on diffusion in membranes, obtaining his PhD in biophysics. He accepted a postdoc with Leroy Hood at the California Institute of Technology. During months of sequencing he thought up the first fluorescence-based automated DNA sequencing instrument. Working with Michael Hunkapiller on commercialization of his technology, he became a consultant for Applied Biosystems (ABI). Smith accepted an assistant professorship at the University of Wisconsin, eventually becoming Director of the Genome Center and Chair of the Analytical Sciences Division in the Department of Chemistry. There Smith developed another laser system for sequence analysis and began the use of matrix-assisted laser desorption/ionization (MALDI) on nucleic acids. He also founded his own company, Third Wave Technologies.
Morris Tanenbaum grew up in Huntington, West Virginia, one of three children. His Jewish parents had come from Russia and Poland by way of Buenos Aires, Argentina; they owned a delicatessen, in which Morris worked after school. Tanenbaum chose to attend Johns Hopkins University because of its reputation for chemistry. He liked physical chemistry and physics; one of his professors, Clark Bricker, who was leaving for Princeton University, convinced Tanenbaum to accept a research assistantship there and to obtain a PhD. Tanenbaum worked on spectroscopy in Bricker’s lab and the mechanical properties of metal single crystals in Walter Kauzmann’s lab. After being awarded his PhD, Tanenbaum went to work at Bell Laboratories where he did the original studies of single crystal III-V semiconductors. He, with the assistance of Ernest Buehler, made the world’s first silicon transistor. Working with Calvin Fuller, Tanenbaum invented the diffused base silicon transistor using solid-state diffusion. While at Bell Labs, Tanenbaum worked in Metallurgy and Materials Science, the Research Division, and the Electron Device Division. Western Electric recruited Tanenbaum to lead its new Engineering Research Center. There, he recruited PhD’s in the physical sciences and engineering with an interest in applications for the manufacturing floor. He later became Vice President of Engineering for all of Western Electric and then Vice President for Transmission Equipment. Tanenbaum was called back to Bell Labs as Executive Vice President with responsibility for all of development. Then he moved to AT&T Corporate Offices as Senior Vice President of Engineering and Network Services. He later served as President of New Jersey Bell. In 1980, he was called back to AT&T as Executive Vice President for Administration. During that period, he was much involved in the Federal antitrust case against AT&T that was eventually settled by a Consent Degree that separated AT&T into several independent companies (the “Baby Bells”) providing local telephone service and AT&T retaining Western Electric, most of Bell Labs, and the long distance services. His final position was CFO and Vice Chairman of the AT&T Board of Directors.
Herman Fialkov grew up in Brooklyn, New York. Always “a smart kid” who wanted to build a bridge across the Atlantic Ocean, Fialkov attended City College of New York, studying engineering. He left college to take a job with Emerson Radio Corporation, and then enlisted in the United States Army, ultimately serving in the infantry in the Battle of the Bulge. When he was discharged in 1946 he went back to Emerson as a mechanical designer and to night school at New York University. He founded General Transistor Corporation, whose first major customer was UNIVAC. In 1960 General Transistor Corporation merged with General Instrument Corporation and began making integrated circuits. Fialkov invested in Arthur Rock’s venture capital firm, Rock and Davis, and became intrigued by venture capital. He founded his own venture capital firm, Geiger and Fialkov, and with that launched almost fifty years in personal and venture capital investments, financing the startup or early development of many important companies, including Intel; Teledyne; Electroglas, Inc.; Standard Microsystems; General Signal; Globecomm Systems; and several Israeli companies. Fialkov describes the cyclical nature of business and the general economy, and also his belief that a successful venture capital firm can expect 30% failures, 30% average performers, 30% moneymakers, and 10% wild successes. He attributes his choice of venture capital area to his love of technology, a “vibrant, changing technological environment.”
Kazuo Inamori was born in 1932 in Kagoshima, Japan, one of seven children. During elementary school, he was a very spirited child who loved science and also showed an interest in the machines that were in his father’s printing shop. He enrolled at Kagoshima University, where he majored in organic chemistry. After graduating, he worked at at Shofu Industries, where he developed fosterite to serve as an insulator for high frequency radio waves and invented the electric tunnel kiln. In 1959, together with seven other colleagues, Inamori established Kyoto Ceramic, which later became known as Kyocera. Inamori quickly secured a contract from Matsushita Electronics Industries (now Panasonic), and then with Fairchild Semiconductor, which placed orders for silicon transistor headers. Kyocera greatly contributed to the development of the U.S. semiconductor industry. To avoid dependence on the semiconductor market, Inamori diversified Kyocera, turning to the manufacture of photovoltaic cells, cutting tools, and bioceramics; later, he moved Kyocera into other areas—especially the manufacture of electronic information equipment, e.g. laptops, peripheral equipment, and telecommunications equipment. Inamori established DDI Corporation (Daini Denden) to compete against NTT (Nippon Telegraph & Telephone Corporation). In 2000 DDI merged with KDD (Kokusai Denshin Denwa) and IDO (Nippn Idou Tsushin Corporation, which had been started by Toyota), to form KDDI, which today is the second largest comprehensive telecommunications company in Japan. In 1984 Inamori also established the Inamori Foundation, which awards the annual Kyoto Prize, honoring those who have made extraordinary contributions to science, civilization, and the spirituality of humankind.
Donald L. Klein grew up in Brooklyn, New York. With his childhood friend, Neil Wotherspoon, Klein developed an early passion for chemistry, electronics, and amateur radio, interests that would follow him throughout his life and career. After completing a degree under Roland Ward, Klein was recruited to work for Bell Laboratories, and began working on the production of semiconductors. His group was involved in developing etching techniques for semiconductors and methods to prevent different types of contamination in semiconductor production. While at Bell, Klein and his colleagues identified the problems with current FET models and processes; then came the idea of using a heavily doped polycrystalline silicon layer as the gate of an FET. The gate was to be supported on dual layers of a silicon nitride and silicon dioxide serving as the gate insulator. Using the FET as a model for integrated circuits, they fabricated and characterized hundreds of FET devices at high yield that exhibited close electrical tolerances. After a restructuring, Klein left Bell to work for IBM.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. James V. Aidala began working with the Environmental Protection Agency (EPA) as a college intern in the Office of Pesticide Programs; he returned as a policy analyst in the new Office of Pesticides and Toxic Substances (OPTS) after graduate school. From Aidala’s perspective, there was much uncertainty in the early years of Toxic Substances Control Act (TSCA), in part due to challenges with the law’s specificity regarding polychlorinated biphenyls and, later, asbestos and lead, and in part due to logistical, organizational, and legal difficulties in the early years of TSCA. After leaving the EPA Aidala then worked for the U.S. Senate, the Congressional Research Service, and the House of Representatives, where he found that political interest was always more focused on pesticides than toxics. When he returned to the EPA as an associate assistant administrator, pesticides continued to be the priority. Though he found that TSCA prevented crises, it was difficult to get Congress interested and TSCA had a reputation as an overly burdensome law.
Isy Haas was born in Istanbul, Turkey. He matriculated into Princeton University, where he obtained a master’s degree in engineering; his mentor and advisor was George Warfield. Haas accepted a job at Remington Rand Univac in Philadelphia, working on positive-gap diodes under Josh Gray. Subsequently he went to Fairchild Camera and Instrument (later Fairchild Semiconductor); there he worked with Gordon Moore, Robert Noyce, Victor Grinich, and Jay Last. He developed Avalanche switching and wrote “a few” papers on four-layer diodes. When Last founded Amelco Corporation, Haas left Fairchild for Amelco and stayed on when it became part of Teledyne. He worked with Lionel Kattner on diffusion, and they evolved a proof of principle for diffused isolation.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Charles F. Lettow held one job in the chemical industry before serving in the U.S. Army; after his military service he moved into the field of law. He undertook two clerkships, one with the Hon. Benjamin C. Duniway and one with the Hon. Warren E. Burger, and he was then invited to work for the President’s Council on Environmental Quality. There he was involved in the creation of U.S. Environmental Protection Agency (EPA) and several environmental laws, including the Toxic Substances Control Act (TSCA). According to Lettow, the law was intentionally not prescriptive in order to give the EPA the flexibility to adapt to innovations, changing uses of materials, and new knowledge about materials. Because of the multifunctional nature of chemicals, they opted for a use restriction provision rather than an FDA-style approval process.
Amy H. Newman matriculated at Mary Washington College, majoring in chemistry and undertaking pre-medical coursework. Most of her peers were women and she found the college to be a very supportive environment; she decided to go to graduate school for medicinal chemistry. She did her postdoctorate with Kenner C. Rice at NIH, where she focused on opiate synthesis and benzodiazopene receptors. Newman then took a position at Walter Reed Army Institute of Research researching sigma receptor ligands; she collaborated with Jeffrey M. Witkin at NIH. At NIH she found a work environment supportive of her growing family and she began conducting research on analogues of benztropine—a dopamine transporter ligand like cocaine that does not have cocaine-like effects on the body. At the end of the interview Newman discusses balancing her family and career; she comments on science education in the United States; and she shares her frustrations with how the communication of science to the public leads to unrealistic expectations for drug development and with the process of drug development itself.
Details Fox's childhood, education, introduction to polymer chemistry under "Speed" Marvel, and work for the Atomic Energy Commission. In 1953, Fox accepted a position at General Electric, and spent his entire career there. He worked on various projects, including polycarbonates, PPPO, PBT, and the development of Lexan and Ultem.
R. Victor Jones matriculated into the University of California, Berkeley and entered the lab of Walter Knight, where he worked in the new field of nuclear magnetic resonance. He continued into graduate school at Berkeley and worked in Carson Jeffries’s lab, where his thesis work dealt with electron transport in a molecular afterglow. As he was finishing his thesis work, William Shockley began an aggressive recruitment of Jones until he finally accepted Shockley’s offer of a job at the new Shockley Semiconductor Laboratory. Shockley believed semiconductors were the wave of the future, and he espoused diffused-base technology. Jones was put to work on the four-layer diode. From the outset, lab work was compartmentalized and Shockley frequently changed the goals of the lab. Uncomfortable in the high-stress atmosphere of the lab and wanting to work with his primary interest, electromagnetic theory, Jones decided after only two years to look for work in the academy, ultimately acceptaing a position at Harvard University. He spent almost fifty years there, teaching electronics.
Gordon Kline discusses his lengthy career at the National Bureau of Standards and his work on applications of organic resins to aviation. Kline also expands on his other polymer-related activities, including his role in setting national and international standards for testing synthetic polymer products, his tenure as Technical Editor of Modern Plastics, and his time in Germany investigating German plastics laboratories.
Jeffrey M. Lipton was born and raised in Bronx, New York, the son of a Polish immigrant. He attended Rensselaer Polytechnic Institute, after which he began a career at DuPont; while working at DuPont he received his MBA from Harvard Business School. Lipton's success at DuPont was recognized quickly, so the company called upon him to undertake various projects and roles; at age twenty-nine Lipton was named business manager and head of marketing of color pigments. He then became, over time, director of the development division, head of the photo products division, COO of New England Nuclear (a DuPont acquisition), vice president of the polymers division, and vice president of the planning division, where, in the search for methods of cost reduction, he developed and utilized cash flow cycle time to analyze the company. He then moved to Nova Chemicals Corporation, which he joined as a CFO.
Catherine Hurt Middlecamp attended Cornell University, where women made up about one-fifth of the undergraduate student body. She graduated Phi Beta Kappa with a BA and a major in chemistry. She was selected as a Danforth Fellow for graduate study and chose to enroll at the University of Wisconsin-Madison, where she entered Robert West’s research lab on organosilicon chemistry. After finishing her Ph.D., Middlecamp served for a year as a Danforth Teaching Intern at Knox College, then she took a faculty position at Hobart & William Smith Colleges before moving back to the University of Wisconsin, Madison. While there she developed (and still teaches) a general chemistry course for non-science majors, Chemistry in Context. In 2003, Middlecamp was elected chair of the Integrated Liberal Studies (ILS) program, a long-standing interdisciplinary certificate program on campus. The interview concludes with Middlecamp’s views on teaching versus research, which she believes is a false dichotomy; what she believes are the many nefarious ways in which women are seen as unserious scholars; the undervaluation and dismissal of women and teaching; and the inherent difficulties of the tenure system.
James S. Murday was fascinated by solid-state physics and decided to enroll at Cornell University, where he was research assistant for Robert Cotts. Murday‘s interests expanded to include diffusion. At the time, chemistry‘s new pulse techniques provided greater impetus for NMR, and Murday exploited the growing interface between chemistry and physics. When he finished his PhD he was recruited by Henry Resing into the NMR lab at the Naval Research Laboratory (NRL). He joined the American Vacuum Society (AVS), which united chemistry, materials science, and electronics. When scanning and tunneling microscopes came along, clearly nanostructures were next. AVS officially became the first home of nanoscience. Murday influenced the Defense Advanced Research Projects Agency and the National Science Foundation, both of which had funding in abundance, to get involved in nano. Eventually the Nanometer Science and Engineering Technology (NSET), a subcommittee of the National Science and Technology Council (NSTC), was born and Murday was named Executive Secretary. Murday was also appointed Director of the National Nanotechnology Coordination Office (NNCO), set up to support NSET.
Robert N. Naughten grew up in rural California during the Great Depression. He attended Sequoia High School and met Gordon Moore partially through football and swimming. Moore and Naughten commuted from home to San Jose State University for two years before moving to University of California, Berkeley. The two became roommates and were part of the co-op program. Upon graduating from the pre-med program Naughten was called to participate in the Naval Reserve’s effort in the Korean War. After returning from two tours in Korea, Naughten migrated to the East Coast to attend medical school at Hahnemann University in Philadelphia. Returning to California for an internship at Highland General Hospital. Naughten concluded the interview with reflections on the philanthropic contributions of Gordon and Betty Moore and traits that make Gordon Moore an ideal CEO.
Margaret E. M. Tolbert was born in Suffolk, Virginia at a time when rural Virginia was still very segregated. Her high school had limited resources, but she found excellent mentors and graduated class valedictorian. She decided to attend Tuskegee University for her undergraduate degree, ultimately majoring in chemistry. Though she was the only female student in her class, Tolbert found a community of supportive professors and students with an interest in her well-being. She went on to complete her master’s degree in chemistry at Wayne State University and her PhD in Biochemistry at Brown University. After completing her doctorate, Tolbert returned to Tuskegee as a faculty member, but soon took guest research and management positions at the University of Texas, Florida A&M University, and Brown University; she also completed a postdoctorate in Brussels, Belgium. In 1979, she took the opportunity to become the first woman director of the Carver Research Foundation at Tuskegee University. After almost a decade at the Carver Research Foundation, she went to Standard Oil of Ohio on sabbatical. From that point onward, she transitioned permanently to science management positions, working for BP America, the National Science Foundation, Argonne National Laboratory, and the New Brunswick Laboratory.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Charles M. Auer joined the EPA’s Office of Toxic Substances, before the Toxic Substances Control Act (TSCA) was passed, as an entry level chemist doing screening-level risk assessments. He was the first chair of the Structure Activity Team, which was responsible for developing structure activity relationship (SAR) analysis as a method for evaluating new chemicals. In the early 1990s, Auer was Director of the Existing Chemical Assessment Division. He believes that the Office has been very innovating, adjusting to emerging science on toxicity and applying TSCA while staying within its legal limits, and that the key to an effective toxics program is to be as dynamic as the chemical industry.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Throughout the interview, Bracken discusses her responsibilities in program information, which included the creation of the TSCA Inventory. The Inventory used the Chemical Abstracts Service (CAS) to assign unique identities to chemicals. Bracken was also involved in developing Section 8 rules, and supporting industry efforts to develop internal reporting mechanisms. Internationally, she participated in Organisation for Economic Co-operation and Development (OECD) discussions to facilitate data sharing and develop a “base set” of data for new chemicals.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Throughout the interview with J. Clarence Davies, he discussed the difficulties in implementing the Toxic Substances Control Act. He also emphasized the legal constraints within TSCA that hindered creating an effective chemicals control policy and the long overdue need for TSCA reform. He concluded the interview by commenting on the fact that a new European chemicals policy and increased regulatory activity among the States, as well as attention from prominent environmental groups, has driven the current TSCA reform process
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Charles L. Elkins witnessed the centralization of federal environmental regulation in the early 1970s, first as an Office of Management and Budget examiner and then in the newly created Environmental Protection Agency (EPA). Within the new EPA, Elkins worked in the Office of Categorical Programs, where he was involved with the pre-Toxic Substances Control Act (TSCA) Office of Toxic Substances and the Noise Abatement Program. Elkins became the director of the Office of Toxic Substances in 1986. While there were managerial challenges to running the office, the biggest challenge he faced was TSCA's lack of a coherent mandate; the program instead consisted of several distinct tasks, each beset with procedural impediments. While the Toxics Release Inventory was not a part of the TSCA program, he thinks it was influential in creating a constituency both within EPA and the public for increased data on toxics.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Linda J. Fisher was the Assistant Administrator of the Office of Prevention, Pesticides and Toxic Substances; at the time when she became the Assistant Administrator, the Office was primarily focused on pesticides. But, as Fisher recounted, the Office was committed to making the toxics program succeed, often by working around the Toxic Substances Control Act's (TSCA) statutory obligations. The Office was then given increased responsibilities with the Pollution Prevention Act. After the Corrosion Proof Fittings v. EPA case, and the administration's decisions not to appeal, Fisher chose not to pursue a revised asbestos rule because, from her perspective, the industry was changing too quickly and, for the most part, moving out of asbestos.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Mark Greenwood joined the EPA’s Office of General Counsel and eventually became the Assistant General Counsel for Pesticides and Toxic Substances. From there Greenwood joined the newly re-named Office of Pollution Prevention and Toxic Substances as Office Director. From his perspective, the Toxic Substances Control Act (TSCA) is comprised of both a risk assessment and risk management program, but these have developed separately and often in conflict with each other. He met with this difficulty when implementing a cohesive toxics program. In 1992 and 1994 Greenwood participated in Congressional hearings on TSCA, but Congress, in the end, did not provide a clearer agenda.
This oral history is one in a series that looks at the history of the Toxic Substances Control Act from the perspectives of the individuals involved in its creation, implementation, and execution. Steven D. Jellinek became the first Assistant Administrator for Toxic Substances at the U.S. Environmental Protection Agency, and soon the Assistant Administrator for Pesticides and Toxic Substances. The position was expected to be challenging: TSCA was written with many procedural hurdles and the environmental Congressional committees were not eager to oversee its implementation. The law quickly became an “orphan” in Congress. Jellinek encountered many challenges in implementing the new law: there was no inventory rule and no classificatory system for chemicals; there were interagency politics that had to be negotiated; there was little statutorial guidance for prioritizing exiting chemicals, or even defining a chemical of concern; and there were no technologies of risk assessment or toxicity testing. From his perspective, a reformed TSCA should strive to reduce the hurdles on EPA action, and he also thinks it might be worth considering a premarket rather than a premanufacture review.
Jean Aitchison discusses how she first became involved in thesaurus development. Aitchison worked to complete three editions of English Electric Faceted Subject Classification for Engineering, between 1958 and 1961, and in March 1967 she began work on Thesaurofacet. She also worked to develop and improve the Bliss Association Classification system.
Thomas M. Aitchison became a member of the Aslib aircraft information group. He also joined the National Electronics Research Council and helped the Council develop a journal and numerous other projects. He worked to mechanize Science Abstracts and organize the Direct Evaluation of Indexing Languages [DEVIL] project.
Robert W. Allington worked as an intern at the MIT Lincoln Laboratory on the SAGE air defense computer; near the end of the internship he was diagnosed with polio. Eventually he became an entrepreneur and founded Instrumentation Specialties Company (Isco), which focused on separation and environmental instrumentation.
Hubert N. Alyea was an internationally-known popularizer of chemistry. His public demonstrations and academic lectures won him numerous awards and brought the beauty of chemistry to his students and interested laypeople alike.
Neal Amundson worked as a process control engineer for Exxon, then for Standard Oil Company of New Jersey. In 1947, he became a professor in the University of Minnestoa’s chemical engineering department. By 1951, at just age thirty-five, Amundson held the positions of department chair and professor; he worked on heat transfer, chromatography, and adsorption. In 1977, Amundson left the University of Minnesota and became the Cullen Professor of Chemical Engineering at the University of Houston.
Paul S. Anderson, shortly after graduate school accepted a position as a researcher with Merck, Sharp & Dohme Research Laboratories. Over the next thirty years, Anderson advanced through the ranks of Merck leadership, eventually becoming the vice president for chemistry at their West Point facilities. Then, in 1998, Anderson became the senior vice president of his department for the newly formed DuPont Pharmaceuticals.
Dr. Robert Armstrong discusses his early life in Nebraska and Arizona, his undergraduate and graduate studies at the Massachusetts Institute of Technology, and his career in industry. Armstrong recalls his work on rubber vulcanization and his pioneering research on radical polymerization at the U.S. Rubber Company, then later at the North American Rayon Company and the Celanese Corporation. Armstrong describes his duties as he progressed up the corporate ladder and also outlines his involvement with the establishment of the Research Triangle Institute.
In this joint interview, Donald Green and Willard Asbury recount the early years at Standard Oil Development Company and the influence of Frank Howard and Eger Murphree. The arc process is discussed as well as the level of assistance obtained from IG Farben. Green and Asbury recall the IG research organization; the wartime pressures during the development of GR-S; and the problems at the Baton Rouge plant. Asbury tells of his visit to Germany with the U.S. Strategic Bombing Survey and the political recriminations of the prewar cooperation between Standard Oil and IG Farben are recollected, as are visits to Germany in the 1930s and 1950s.
Alfred Bader discusses his early life in Vienna and his broad education, stemming from instruction in a Gymnasium, Queen’s University in Canada, and his graduate studies at Harvard. The interview continues with Bader's move to Milwaukee, his research with PPG, and the origin and growth of the Aldrich Chemical Company, including the merger with Sigma Chemical Company and the decision to go public. The interview concludes with Bader's comments on his art collection and family matters.
John C. Bailar, Jr. discusses his upbringing, during which he often helped his father with his chemical research. This, in turn, influenced Bailar to pursue a B.A. and M.A. in chemistry from the University of Colorado and later a Ph.D. in organic chemistry from the University of Michigan. Bailar reflects on his academic career at the University of Illinois, where he changed his focus to inorganic chemistry while he conducted research on isomerism and molecular rearrangements, and later on coordination compounds. He eventually began to advise graduate students, as well as to become involved with the American Chemical Society, in which he was elected as president in 1959.
William Bailey describes his upbringing in rural Minnesota, his early interests in science, his undergraduate studies in chemistry with Lee Irving Smith at the University of Minnesota, and his graduate work with C.S. “Speed” Marvel on polymer synthesis in Illinois. Bailey continues to reflect on his research and academic career, as a postdoctoral assistant at MIT, an instructor of organic and polymer chemistry at Wayne State University, and a research professor at the University of Maryland, where he spent the rest of his career. The interview concludes with an account of Bailey's long involvement with the American Chemical Society, including his presidency in 1975 and his thoughts on the current image of chemistry.
While a student, Baker began working for the American Chemical Society's (ACS) Chemical Abstracts Service as an office boy. Aside from a brief time as a chemist working with explosives at DuPont, Baker spent his entire career with the ACS and Chemical Abstracts Service. In 1946, Baker became assistant editor of Chemical Abstracts. In 1958, Baker became Director of Chemical Abstracts Service, a position he held until 1986. Baker was instrumental in developing an on-line system for Chemical Abstracts in the early 1980s.
Dexter F. Baker discusses his early life in the suburbs of Philadelphia during World War II. He was drafted into the U.S. Navy after graduating from high school and admitted into the Naval Academy Preparatory program. Later, he studied mechanical engineering at Lehigh University, developing an interest in turbines. Baker was drafted again, serving the U.S. Army during the Korean War in engineering research and development laboratories and working on high-speed, small-size gas turbine engines. Eventually, Baker resumed his career in industry and business, working in a variety of positions including sales, president of air products, and Chairman of the Board.
William O. Baker was raised on Maryland's eastern shore, where he developed an interest in organic and inorganic chemistry from his parents. In college, Baker pursued the field of physical chemistry for his graduate degree at Princeton University focusing on the dielectric properties of medium length chains. After graduating, he accepted a Bell Labs position as member of technical staff and began work with C. S. Fuller and J. H. Heiss on structures and properties of high polymeric substances. A majority of this interview centers on Baker's time at Bell Labs, the development of synthetic rubber, and Baker's many other accomplishments.
John D. Baldeschwieler grew up in Elizabeth, New Jersey and graduated from Cornell University with an undergraduate degree in chemical engineering. While attending the University of California, Berkeley for graduate school, Baldeschwieler was introduced to infrared spectroscopy. After faculty positions at Harvard and Stanford, Baldeschwieler worked in various government positions, including the deputy director position for the Office of Science and Technology, and the coordinator position for the Chemical Catalysis Program in the U.S.-U.S.S.R. Commission on Science and Technology. In 1981, Baldeschwieler undertook his first commercial endeavor with the creation of Vestar, Inc. Thus began his work on a string of entrepreneurial ventures, which has included Combion, Inc., Epic Therapeutics, Inc., GeneSoft, Inc., and many others. In 1999 and 2000, Baldeschwieler was responsible in part for the creation of the Athenaeum Fund and Pasadena Entretec; two organizations established to fund and support young entrepreneurs from Caltech.
David Baltimore recounts his early interest in biology, ultimately devoting his PhD thesis to the study of animal virology. To complete his thesis he moved from the Massachusetts Institute of Technology to Rockefeller University to join Richard M. Franklin who was working with mengovirus. After graduating, Baltimore spent some time at the Salk Institute and then returned to MIT where he continued work on poliovirus and began work on vesicular stomatitis virus. He and his wife, Alice Huang, who at the time was a research associate in his lab, discovered that VSV carried an RNA-dependent RNA polymerase within the virus particle. This work provided the insight that led to his discovery of reverse transcriptase—the enzyme in retroviruses that transcribes DNA from RNA—and won Baltimore the Nobel Prize for Physiology or Medicine in 1975.
After being accepted to Stanford University, Craig R. Barrett chose to major in metallurgical engineering and continued on to receive his master’s and doctoral degrees at the institution. He then spent a year in the National Physical Laboratory in England as a postdoctoral fellow before returning to Stanford as an assistant professor. Frustrated with basic research, Barrett jumped at the chance to take a temporary leave of absence to join the Intel R&D department. In 1984, Barrett’s promotion to vice president signaled Intel’s commitment to the manufacturing division and coincided with the company’s shift from memory to microprocessor manufacturing. Barrett then described his career rise to senior vice president, executive vice president, and eventually to chief executive office and president.
Sherry Bartolucci describes her early introduction to business management at AT&T and explains her decision to join the Peace Corps in Peru. After gaining more experience in business, she became the Chief Administrative Officer at the Gordon E. and Betty I. Moore Foundation. As a member of the Management Committee, she helped design an “outcome-based” grantmaking strategy that retains the ideals of Gordon E. and Betty I. Moore while insisting on quantifiable progress from grantees. Bartolucci concludes the interview with reflections on her professional and life experiences which have culminated in her current position in the Moore Foundation.
Fred Basolo begins this interview by discussing his childhood in Coello, Illinois, and his elementary and high school education. He attended Southern Illinois University where he studied to be a chemistry teacher but his instructors encouraged him to attend graduate school in chemistry. At University of Illinois, he studied inorganic chemistry with John Bailar. After receiving his Ph.D., he worked at Rohm and Haas in Philadelphia for three years. He decided to return to academia and accepted a positions as professor of Chemistry at Northwestern University. His research interests have included kinetics and mechanisms, and metal carbonyls. Basolo describes the connections he made with Italian scientists and his American Chemical Society presidency and concludes by offering his opinion of how general and inorganic chemistry courses should be taught.
O. A. Battista was one of eight siblings born to a poor, uneducated laborer and a housewife; he proudly details his family's hard-working nature. Attending McGill University along with his younger brother, Battista earned a B.S. in chemistry while supporting his household by writing epigrams for the Saturday Evening Post. Upon graduation Battista obtained a research chemist position at American Viscose Corporation. He worked on the rubber program and other war-related projects until the end of the war. Later, his work at American Viscose and its predecessor, FMC, earned him over sixty-five patents, including patents on viscose molding, novel yarn, pure cellulose, and microcrystalline collagen. In the early 1960s, Battista realized the medical applications of microcrystalline collagen and obtained pharmaceutical backing from Alcon to license the substance as the patented hemostat Avitene. In 1974 Battista took early retirement from Avicon to start his own research institute and promote an Olympiad of Science that encourages and facilitates new product innovations. His institute created over fifty-five new products and publishes of Knowledge Magazine.
In this interview Arnold Beckman begins with his teenage experience as an industrial chemist at a local gas works in Bloomington, Illinois and the Keystone Iron and Steel Works. This is followed by reflections on his student days at the University of Illinois, with special emphasis on some of the faculty and students. The central portion of the interview considers Beckman as a student and faculty member at Caltech and includes his early experiences with instrumentation, patents, and serving as an expert witness. The interview continues with Dr. Beckman discussing the origin of the pH meter and DU spectrophotometer, and concludes with the beginning stages of manufacturing and sales, emphasizing the principles used to build National Technical Laboratories, the company that would become Beckman Instruments.
In this interview Dr. Arnold Beckman begins with the National Technical Laboratories in the late 1930s, and includes details on its policies and operations. He continues with the change from NTL to Beckman Instruments, and emphasizes the development of spectrophotometry instrumentation during the 1940s. Other projects, including mass spectrometers, Geiger counters, pocket electroscopes, and the oxygen analyzer, are also discussed. Following World War II Beckman describes his reinvolvement with Caltech. The interview concludes with Beckman talking about air pollution work in Los Angeles, the formation of Shockley Laboratories, and the future of the instrumentation industry.
Manson Benedict had an early enthusiasm for chemistry, which was promoted both by his father's work and his summer jobs with Calumet and Hecla Copper Company. He entered Cornell University as an undergraduate, but quickly became dissatisfied with his Cornell education. After a year at National Aniline benedict decided to enroll at the University of Chicago to obtain a broader liberal education during which he explored economics and socialism. He then went into in a graduate physical chemistry program at MIT and received a National Research Fellowship at Harvard. Benedict ultimately chose to work at Kellogg, where he developed the Benedict-Webb-Rubin equation. He played a significant role in the Manhattan Project, and touches on his subsequent appointment to the Atomic Energy Commission. The concludes with his return to MIT to develop a nuclear engineering curriculum, the accomplishment of
which he is most proud.
O. Theodor Benfey was raised in Germany during the rise of the Third Reich, but traveled to England, where he was a student during the war, and then to the United States for a postdoctoral fellowship at Columbia University. He developed an interest in physical organic chemistry and structure, and the history of chemistry, and recounts pursued a career as a professor of chemistry and history of science at Haverford, Earlham, and Guilford Colleges. Benfey also had a parallel career as a writer, translator, and editor; he provided details of the various translations he has published, and recalled his term as editor of Chemistry magazine during the interview. The interview concludes with his memories of his studies in Japan and China and his current interests.
Helen M. Berman was influenced to go into crystallography through a laboratory internship with Barbara W. Low, while studying at Barnard University. After receiving her doctorate at the University of Pittsburgh, Berman went to work for the Fox Chase Cancer Center, where she researched nucleic acid crystallography and drug nucleic acid interactions. Twenty years later, she moved to Rutgers, The State University of New Jersey and expanded her program to include protein crystallography. Berman was convinced that archiving protein structures and studying their sequences would allow researchers to predict future protein structures, instead of relying on theoretical calculations. She worked with Walter C. Hamilton and Edgar Meyer to establish the Protein Databank (PDB) at Brookhaven National Laboratory. At the same time, Crysnet was developed to enable researchers to work on big calculations remotely, from another computer: Berman was the program’s prototype user. She currently manages the PDB and applies the most modern technology to keep it running smoothly.
Jerome A. Berson graduated from high school at fifteen and then rode a Good Humor tricycle to earn some money before beginning City College of New York, chosen primarily for economic reasons. He finished at City a semester early and began working on penicillin at Hoffmann-LaRoche. From there he was drafted into the U.S. Army, in which he worked as a medic in India until the end of World War II. Knowing he could not progress with only a bachelor's degree, Berson, with the help of the GI Bill, enrolled at Columbia University, where his Ph.D. mentor was William von Eggers Doering. Doering urged Berson to consider academia as a career and was instrumental in arranging for a postdoctoral fellowship for him with R.B. Woodward at Harvard. Berson credits Woodward and Doering with being two of his prime influences. Berson then went to the University of Southern California (USC) . Limited resources and manpower at USC caused him to shift his focus to physical organic chemistry. After thirteen years at USC Berson, by now a fully-fledged physical organic chemist, was recruited to the University of Wisconsin, where he stayed for “six of the happiest years of [his] life.” Thermal and carbocationic rearrangements, and the role of orbital symmetry in chemical reactions, were the focus of his laboratory during this period. While at Wisconsin, Berson had taken note of Erich Hückel's work, which with Hund's Rule provided continuing themes in his thinking and research. Yale University then recruited Berson. He believed that he had much yet to learn, and he found many teachers and colleagues at Yale and elsewhere. The Yale period included many new studies, especially on non-Kekulé molecules.
John H. Beynon was born in Ystalyfera, Wales, and grew up in a coal mining town. He attended a local university, the University of Wales at Swansea (Swansea University), during the early years of the Second World War. Graduating with a degree in physics, Beynon decided that the pursuit of a PhD was a waste of time and money and he committed himself fully to wartime work, including the development of weapons system used to track targets while a weapon was in motion. He spent much of his career in industry, principally working at the Imperial Chemical Industries (ICI), a British chemical company, at which he was put to work on building a mass spectrometer. He founded the Mass Spectrometry Unit at Swansea University, and was also a founding member of both the British Mass Spectrometry Society and the American Society of Mass Spectrometry. All through his long career Beynon trained a number of students (one of whom is Gareth Brenton; Brenton’s reflections on his mentor are recorded in the appendix to this transcript) and did much to advance the field of mass spectroscopy.
Klaus Biemannwas born and raised near Vienna, Austria. As pharmacy was the family profession, Biemann chose to study it at the University of Innsbruck. He soon developed an interest in organic chemistry, however, and shifted his focus, becoming the only graduate student in this field at that time at the University of Innsbruck. Upon finishing his degree, Biemann then received an appointment at the University of Innsbruck, in the context of which he discusses his experiences as well as the post-World War II university environment. After a summer at MIT working with George Buchi, Biemann decided that the American academic system offered more opportunities than the European one and he subsequently accepted a post-doctorate position at MIT. After two years he was appointed to a faculty position in the analytical division by Arthur C. Cope, the Head of the chemistry department. Early in his tenure at MIT, Biemann’s research interest shifted from natural product synthesis to the mass spectrometry of peptides and alkaloid structure. He explains how his early work expanded the perceived applications of early mass spectrometry.
Frank J. Biondi majored in chemical engineering at Lehigh University, and worked at Bell Telephone Laboratories (BTL) in the 1930s. After being in industry for a short period of time, he decided to pursue a graduate education at Columbia University. After completing his master’s degree in chemical engineering, he enrolled in the Ph.D. program and became involved in the Manhattan Project. Biondi worked on a gaseous diffusion program to separate uranium 235 from uranium ore, designing the diffusion barrier used for the atom bomb. After making his contribution to the Manhattan Project, Biondi returned to BTL work and focused on electronics, initially developing long-life cathodes used by the British during the war. He continued cathode work, becoming involved with the ASTM to standardize three nickel alloys for electronics industry electron tube cathodes. Biondi's later work focused on fuel cells, the electronics industry’s first dust-free white room, semiconductors used for satellites, and improvements in battery manufacture and design.
R. Byron Bird was born in Texas, but Bird’s family moved frequently, following Bird’s father, a professor of civil engineering. During high school in Washington, DC, Bird developed his interest in foreign languages, and wanted to pursue either language or music in college. However, his father pushed him towards a degree in chemical engineering. Bird completed two years of study at the University of Maryland before entering the U.S. Army to fight in World War II. When he left the Army, he resumed his studies after a brief hiatus in a biochemistry lab of the U.S. Department of Agriculture. Bird completed his degree at the University of Illinois, at Urbana. It was there that he decided he wanted to enter a Ph.D. program in chemistry, and he chose to study at the University of Wisconsin. While in graduate school, Bird conducted rigorous research under Joseph Hirschfelder, and went on to a post-doctoral, Fulbright grant for research in the Netherlands. Bird returned to the United States to take a teaching position in the chemistry department at Cornell University, and after a year there, accepted a position in the chemical engineering department at the University of Wisconsin. Before returning to Wisconsin, Bird spent a summer working for DuPont, where he was introduced to the subject of rheology.
Julius Blank graduated high school at the age of fifteen and began taking classes at the City College of New York while working various jobs. When Blank turned eighteen, he enlisted and was sent to Europe to serve until the end of World War II. When he came home he finished college with the aid of the GI Bill and received a degree in mechanical engineering. Blank worked as an engineer at Babcock and Wilcox Company in Ohio, and then moved to Goodyear Aircraft. After two years, he and his wife moved back to New York where Blank got a job at Western Electric. In 1956, Blank was asked to join Shockley Semiconductor in California. Blank met Gordon Moore at Shockley, and eventually joined Moore and six other Shockley colleagues to form Fairchild Semiconductor. Blank first worked on crystal growing and research and development at Fairchild, but later helped set up assembly plants overseas.
Konrad E. Bloch was born and raised in Neisse, Germany, and he studied at Technische Hochschule in Munich for his undergraduate degree. During a research assistantship in Davos, Switzerland, Bloch became aware of the cholesterol molecule for the first time. He also produced and published three papers that Columbia University later accepted as partial fulfillment for a Ph.D. in biochemistry, earned in 1938. Bloch describes his teaching and research in biochemistry at Columbia and later the University of Chicago, where he developed an interest in the mechanism of protein synthesis from amino acids. He won the Nobel Prize in Medicine and Physiology with Feodor Lynen in 1964 for his work on cholesterol and fatty acid metabolism.
Elkan R. Blout attended DeWitt Clinton High School, in the Bronx, earning marks that were high enough to skip three grades. He was still too young to attend college when he graduated, so he enrolled in the Philips Exeter Academy. After a year at Exeter, Blout attended Princeton University, becoming one of only twelve Jewish students accepted in 1935. As a Jewish student, Blout struggled against discrimination from both the University and the students. In 1942, Blout received his Ph.D. in chemistry from Columbia University. He then accepted a fellowship at Harvard University, where he worked with Louis Feiser and R. B. Woodward. After a year, Edwin H. Land offered Blout a position at the Polaroid Company. At Polaroid, he helped develop the instant photographic process and the color translating microscope. At the same time, he received a research grant to study synthetic polypeptides, and established a spectroscopy laboratory at Children’s Hospital of Boston. In 1961, Blout left Polaroid for more academic pursuits at Harvard Medical School. In 1991, Blout became the senior science advisor for the Food and Drug Administration.
Roger S. Borovoy worked as counsel at both Fairchild Camera Instrument Corporation and Intel Corporation, placing him at the heart of the semiconductor revolution in America. He received his undergraduate degree from the Massachusetts Institute of Technology (MIT) and, after a short period of time at Chevron Research, Borovoy began to work as Patent Counsel at Fairchild Camera Instrument Corporation, meeting Gordon Moore. Borovoy quickly became entrenched in the burgeoning electronics industry and legal issues surrounding intellectual property and patents. After fighting legal battles with Motorola, and dealing with international licensing issues, he moved on to working for Intel in 1974.
Ray Boundy studied chemical engineering at Case Institute of Technology where there was a strong interaction with the Dow Chemical Company. Before Boundy had completed his degree at Case he had met Herbert Dow who offered him a position in the Midland laboratories. Starting in the analytical laboratory, Ray Boundy moved to the productive physics group headed by John Grebe. After describing his involvement with early Dow projects, such as the seawater bromine process, sodium electrical conductors, electrolytic chlorine production and applications for ferric chloride, Boundy briefly reviews the work on styrene polymerization, monomer purity, and wartime production. At the end of hostilities in the European sector Boundy joined one of the teams of experts sent over to assess the German chemical industry. Postwar, Boundy had responsibility for plastics at Dow before his promotion to research director.
Raymond Boyer was born and raised in Ohio and he had an early interest in electricity. He received his undergraduate and graduate education at Case Institute of Technology. In discussing his career at the Dow Chemical Company, Boyer provides accounts of discoveries and innovations, especially involving polystyrene; several leading figures there, including Willard and H. H. Dow; and major organizational changes that occurred during his career.
Ronald Breslow grew up in Rahway, New Jersey, the son of a physician. Max Tishler, a family friend, helped to pique Breslow’s interest in chemistry. In high school, Breslow entered the Westinghouse Science Contest, which enabled him to meet like-minded teenagers. He entered Harvard University, graduating with his A.B. in chemistry in 1952, having attended chemistry courses taught by Louis Fieser and Paul Bartlett, and having conducted research with Gilbert Stork on the structure of cedrene. Breslow earned his Ph.D. in chemistry in 1955 for his work on magnamycin under R. B. Woodward. In 1956, Breslow joined the faculty of Columbia University, where he has worked on a variety of subjects, including thiamine, cyclopropenyl cation, cyclodextrins, and electron transfer.
Leo Brewer became interested in chemistry through the influence of a high-school chemistry teacher in Los Angeles. He attended Caltech and,.after receiving his B.S. in 1940, Linus C. Pauling advised him to begin his graduate work at the University of California at Berkeley, where he studied under Axel R. Olsen. Upon receiving his Ph.D., Brewer immediately joined the Manhattan Project as a research associate. Brewer’s job was to use models in the periodic table to determine the worst properties of plutonium. He tested refractory materials, such as nitrites, carbides, lanthanides, actinides, sulfites, sulfides, and phosphides, and determined that cerium sulfide would serve as the best model (later, Brewer predicted the electronic configuration of all the actinides). His research for the Manhattan Project found direct application at the Los Alamos National Laboratory, and was later published as part of the Manhattan Project Technical Series. In 1946, Brewer joined the faculty of the University of California at Berkeley. During his career at Berkeley, Brewer worked in many fields, including organic chemistry, ceramics, astrochemistry, and even geology. Within these areas, he applied his thermodynamic research, including studying high-temperature molecules present in comets and stars, and the distribution of elements in the earth’s gravitational field.
Herbert C. Brown studied at Crane Junior College, where he became fascinated by chemistry and its history; when Crane closed down, Brown was among the students invited to work in Nicholas D. Cheronis' Synthetical Laboratories, where he earned enough to enroll in a University of Chicago correspondence course on qualitative analysis and supplemented his education by working with Fales's Quantitative Analysis. Brown continued his studies and lab work at Wright Junior College and the University of Chicago. During his career he worked at the University of Chicago, Wayne State University, and later Purdue University; during the interview he detailed his studies on steric effects, boranes, and borohydride synthesis. Brown worked for the National Defense Research Committee during Worald War II, which included research on the volatile compounds of uranium, uranium borohydride production and testing, sodium trimethoxyborohydride production, and sodium borohydride development.
David R. Bryant was one of seven children and grew up in North Carolina. He began working at age ten, and held various jobs until he earned a scholarship to Wake Forest University. Influenced by his high school science teacher, Bryant double-majored in chemistry and math. After receiving his B.S. in 1958, Bryant decided to attend graduate school at Duke University. Focusing on organic chemistry, he worked on the conversion of organic compounds into dianions under Charlie Hauser. Bryant earned his Ph.D. in 1961 and immediately took a job with Union Carbide Corporation. He worked on developing a method of producing vinyl acetate without halide, and later worked with benzyl acetate, acrylic acid, and rhodium triphenylphosphite in the Oxo process.
Gordon A. Cain received his undergraduate education at Louisiana State University during the Great Depression. After graduation, his first jobs were in the chemical industry, during which he applied for and received first patents. Cain enlisted during World War II as a captain and served in the Pacific with an Army heavy mortar company. After the war he worked in scientific intelligence in Germany. Returning to the United States, Cain shifted the direction of his career away from chemical engineering and into management, consulting and ownership of various chemical and high technology concerns (Cain was the head of Vista, Cain Chemical, and the Sterling Group).
Vincent Calarco was an ambitious and hard-working student who enjoyed chemistry and had a firm desire to attend college. After graduation from New York High School, Calarco attended Polytechnic University of New York, receiving his B.S. in chemical engineering in 1963. While excelling in the intense environment at Polytechnic University, Calarco worked as a draftsman for Syska and Hennessey during the summers. In the summer of 1962, he accepted an internship at Proctor & Gamble’s Port Ivory facility on Staten Island. From 1966 to 1968, Calarco served in the U.S. Army at the Ballistics Research Laboratory in Aberdeen, Maryland. In 1979, he became President of Uniroyal at the age of thirty-six. He set high-standards for employees at Uniroyal and enjoyed the challenges of his position. In 1985 Calarco left Uniroyal and became the CEO of Crompton & Knowles (Crompton Corporation).
Dennis A. Carson attended Stuyvesant High School, a well-known school with a science-based curriculum. Upon graduating in 1962, he decided to matriculate at Haverford College, hoping to balance his science background with a degree in the liberal arts. He earned a B.A. in history and returned to New York City to attend Columbia University’s medical school, where he worked in immunologist Elliott F. Osserman’s lab experimenting with tissue cultures. After earning his M.D., Carson worked at the National Institutes of Health under Henry Metzger radiolabeling immunoglobulins and assigning affinity labels. In 1974, Carson left to work in Jay Seegmiller’s lab at the University of California, San Diego, researching ADA deficiency’s effect on the immune system. As an assistant member of the Scripps Clinic and Research Foundation, he spent his time developing, synthesizing, manufacturing, and running trials for Leustatin, a drug for hairy cell leukemia that was approved in 1993. While at Scripps, Carson co-founded Vical a biotech company that develops DNA vaccines. Over the next decade, he founded other drug-development companies such as Triangle Pharmaceuticals, Dynamax Inc., and Salmedix. When Jay Seegmiller retired from UCSD’s Sam and Rose Stein Institute for Research on Aging in 1990, Carson took his place as director—splitting his time between research and fund-raising. He left in 2003 to head Moores UCSD Cancer Research Center, where he has two drugs in development.
Sally Chapman’s interest in science was fostered both by her “tinkerer” father and by the nationwide interest in innovative science education that occurred after Sputnik. She attended Smith College and worked for the Quaker Chemical Corporation, where she assisted technicians and experienced basic, day-to-day activities in a lab. Realizing she was not ready for graduate school as she completed undergraduate work at Smith, Chapman became a computer programmer at Metropolitan Life Insurance Company in New York. After her stint in New York, she pursued graduate school, choosing Yale University, where she worked with Raymond Suplinskas on Hot Atom Chemistry. After two postdoctoral positions, Chapman accepted a position at Barnard College. During the interview Chapman talked about her work in the community of women in chemistry, which has included the Committee on the Advancement of Women Chemists (COACh), advising and mentoring students, and various other activities.
Stuart Churchill attended the University of Michigan, where he was quite active in the mathematics department as well as in chemical engineering. After working in industry for five years, at Shell Oil and Frontier Chemical, he returned to Michigan for graduate school. There he began both his extensive research on heat transfer, natural convection, and combustion, as well as his career in teaching. After earning his Ph.D. and a position on Michigan's faculty, he began work on several military projects in the nuclear field. In addition, he served on the National Council of and as president of the American Institute of Chemical Engineers. After acquiring increasing administrative responsibilities as chairman of the department, he chose to move to the University of Pennsylvania to return his focus to research and teaching.
W. H. Clark grew up in Big Stone Gap, Virginia, with an early interest in journalism. He decided to major in industrial engineering at North Carolina State University, where he became interested in technical selling. His first job was at Standard Oil of Ohio as a sales engineer, later moving to Nalco Chemical Company, where he spent the rest of his career.
Vincent J. Coates was too young to join the military at the start of World War II, so he got a job filing machine parts and began attending the Bridgeport Engineering Institute. He later applied the knowledge he had gained at the Institute on the Navy’s Officer Candidate School exam, earning him the highest score in Connecticut. At the behest of his mother, Coates attended Yale University, majoring in mechanical engineering. After a short tour in the Navy, Coates took a job at Chance-Vought Aircraft. In 1948, he was hired at Perkin-Elmer Corporation; when John U. White left suddenly in 1949, the responsibility for their project, the Model 21, fell completely on Coates’s shoulders. After the original Model 21 became a proven success, he began developing accessories for the instrument, such as the Prism Interchange Unit, to expand its potential market. Coates decided to leave Perkin-Elmer after the president decided to shut down Coates’s field-emission scanning electron microscopes (FESEM) project. With Len Welter, he started the Coates & Welter Instrument Company to produce the world’s first commercial FESEMs. Later, his Microspot Film-Thickness-Measurement Systems became essential for the manufacture of advanced microchips, and his company became extremely successful as a result..
Mildred Cohn advanced through her early schooling rapidly, being prepared to enter college by age fourteen. She matriculated at Hunter College, though facing difficulties as a woman in the sciences. She moved on to graduate school at Columbia, where, after working for a short time at the National Advisory Committee for Aeronautics, she began her work with isotopes in Harold Urey's lab. She worked with du Vigneaud at George Washington and Cornell universities and at the Cori's lab at Washington University in St. Louis. Cohn spent much of her career at the University of Pennsylvania.
Charles N. Cole attended the Massachusetts Institute of Technology (MIT) to pursue his degree. His interest in viruses led him to switch from Harvey F. Lodish’s Laboratory to the laboratory of David Baltimore (Cole’s research involved the polio virus and the role of defective interfering particles). This oral history also serves to complement CHF's oral history with David Baltimore.
Paul M. Cook was young when he developed an interest in chemistry, going so far as to build a laboratory in the basement of his parents’ house. After graduating from high school in 1941, he attended the Massachusetts Institute of Technology, where he studied chemical engineering with Warren K. Lewis. In 1943, he put his education on hold and enlisted in the Army. While enlisted, he enrolled in the Army Specialized Training Program, through which he attended Stanford University for two terms, studying mechanical engineering. In 1946, Cook left the Army and worked for Submarine Signal in Boston; he then returned to MIT, where he completed his degree in 1947. After graduation, Cook started the Warren Wire Company with his older brother. A year later, Cook left the fledgling company to join the Stanford Research Institute as a chemical engineer. There he worked on a number of projects, including the growth of the algae Chlorella and the potential uses of waste fission products. In 1951, Cook founded the Sequoia Process Corporation. Five years later, he left Sequoia to found Raychem Corporation, which opened in 1957.
Donald J. Cram grew up in Vermont, Florida, and New York, and attended Rollins College. He undertook his graduate work at the University of Nebraska with Norman Cromwell, which led him to work at Merck during World War II; he did his doctoral work at Harvard. In 1947 he took a position at the University of California, Los Angeles, and remained at the institution in the chemistry department for over thirty years. Cram's major research effort in the late 1970s on guest-host chemistry led to his sharing the Nobel Prize in 1987.
Carlos A. Cuadra, a pioneer in the field of information sciences, continued his education while serving in the Navy during World War II. He did his undergraduate and graduate work in psychology at the University of California, Berkeley and wrote his dissertation on the Minnesota Multiphasic Personality Inventory. He began to work for RAND in the System Development Division, which split off and became System Development Corporation (SDC). He learned about computers and programming while he was working on intelligence project 466L for the Air Force and was made head of the Intelligence Systems Branch of SDC, working on various information systems such as MEDLARS II, MEDLINE, ORBIT, and ELHILL. He started the Annual Review of Information Science and Technology. Cuadra briefly worked as a consultant for the National Academy of Science’s Committee on Scientific and Technical Information (COSATI), and was later appointed to the National Commission on Libraries and Information Science (NCLIS). Within SDC, Cuadra created SDC Search Service, one of the first online retrieval services.
Hugh A. D’Andrade began his career in corporate law as General Attorney for the Ciba-Geigy Corporation in 1968. By 1977, he had risen through the ranks to become Vice President of Administration and Counsel of the Pharmaceuticals Division. In 1981, he joined Schering-Plough Corporation as Senior Vice-President of Administration. During D’Andrade’s first years with Schering, the company worked with Cetus Corporation on antibiotic screening, and also worked with Biogen on interferon and erythropoietin. D’Andrade worked on the development side of the interferon project and was instrumental in patent negotiations with Roche.
William H. Davidow obtained his M.S. in electrical engineering at Dartmouth College, after which Davidow decided to pursue science over business and enrolled in the California Institute of Technology. After receiving his M.S. at Caltech and his Ph.D. at Stanford University, Davidow worked at General Electric on peripheral devices. He realized that his talent was in marketing rather than science, and moved on to marketing positions. After working at Hewlett-Packard and Signetics Memory Systems, Davidow moved to Intel and became responsible for marketing of its microprocessor development systems. Eventually he was charged with running the microprocessor division, and embarked on a massive marketing campaign called “Operation Crush.” After the success of Operation Crush Davidow moved to work in Intel’s marketing and sales division; this is the time period during which increasing Japanese competition forced Intel to withdraw from the memory business and focus of microprocessors.
Melvin S. Day grew up during the Depression and often worked in his father’s oil company after school to help ends meet. Day attended Bates College as a chemistry major, receiving his BA in 1943. After graduation, Day immediately accepted a position with Metal Hydrides, Inc. in Beverly, Massachusetts. Then he enlisted in the U.S. Army in 1944. Recognizing Day’s background in chemistry, the Army sent him to serve at Oak Ridge National Laboratory as part of the Corps of Engineers for the Manhattan Project. In 1946, Day was assigned to work for the Atomic Energy Commission (AEC) under Major Alberto Thompson, reviewing newly declassified documents from the Manhattan Project. In 1958, Day transferred to AEC headquarters in Washington, D.C. to be the Director of the Technical Information Office. He then joined the newly established National Aeronautics and Space Administration (NASA) in 1960, and developed the plans for NASA’s information program. In 1970, Day began working for the National Science Foundation (NSF); there he worked on the funding end of developing information systems. He left NSF in 1972 and became the Deputy Director of the National Library of Medicine (NLM); there he helped build the Lister Hill Center and to develop MEDLARS and MEDLINE as online systems.
Allen G. Debus grew up in Evanston, a suburb to the north of Chicago, where he attended public schools. He earned a BS in chemistry, with almost enough credits for a second major in history.
After working at Abbott Laboratories for about five years, Debus decided to seek a Ph.D. in the history of science, at Harvard University under I. Bernard Cohen. He accepted an assistant professorship University of Chicago and became the first director of the Morris Fishbein Center for the Study of the History of Science and Medicine. Debus wanted to study the place of chemistry in the scientific revolution with materials available to all; to that end he has a large collection of rare books from this time period, a collection he began in the early 1940’s. He says that he has about 650 such books, the earliest from 1501.
Claude K. Deischer received his undergraduate education at Kutztown State and Muhlenberg and went on to graduate and postgraduate research at the University of Pennsylvania. He had an interest in the history of science and he played a part in starting Chymia. He also contributed much to the American Chemical Society and the Moravian Church.
In his oral history Michael J. Dewar describes his education and long career in chemistry, both in academia and industry. He discusses his research and colleagues at Courtalds, Ltd., his learning physical chemistry, his work on resonance theory and molecular orbital theory, and his theoretical publications at that time. He also describes his associations with H. Christopher Longuet-Higgins, Charles A. Coulson, and Jack Roberts.
The central portion of Carl Djerassi's interview covers his life as a student at the University of Wisconsin, followed by research work at Ciba, a faculty position at Wayne State University, and steroid research at Syntex in Mexico City. The interview continues with a move to Stanford University, and expands on Djerassi's dual positions in business and academe, concluding with personal views on writing scientific and non-scientific literature, interest in the arts, and a number of ways in which chemistry has changed during his career.
In his oral history William von Eggers Doering describes his introduction to chemistry and the his long academic career working at several top tier univerisites. He also discusses his environmental work, industrial consultancy, and the conflicting demands of an academic career.
Edward Donley's oral history describes his early life, education, and long career at Air Products and Chemicals, Inc. His experiences highlight the growth of that company from a family business to the major corporation that it is today.
Paul Doty's oral history describes his life and work in organic chemistry, ranging from an early interest in chemistry, to graduate work with polymers, to his eventual work on denaturation of proteins. Additionally, the interview covers Doty's activism with regard to both national and academic policies.
Ronald Duarte and Gordon Moore attended the same grammar school, although Moore was a year older than Duarte and they did not take any classes together. Duarte recalls fond memories of Moore's mother, and memories of Moore's two brothers. Duarte and Moore kept in touch for a time after Moore moved to Redwood City, California, from Pescadero, and now they see each other when Moore visits Pescadero.
Dubois describes how he studied chemistry and medicine during the German invasion of France and elucidates his active roles in the French Resistance and in post-War French politics. Next, Dubois discusses how he came to be an essential figure in the creation of the University of Saarland. He describes his work as head of IUPAC's (International Union of Pure and Applied Chemistry) Committee on Machine Documentation, the creation of CEDOCAR (Centre de Documentation de l'armement), and his creation of the Bureau of Scientific Information (BIS). In conclusion, Dubois discusses the successes and failures of various information systems in France.
Nathalie Dusoulier recounts how she started working in information science from her background in pharmacology. She then speaks about her employment at Centre National de la Recherche Scientifique (CNRS). She describes the number of different forms her career at CNRS took, from indexing articles to directing the biology and human science sections of CNRS's publication, Bulletin Signalétique.
Elizabeth Dyer's oral history covers her childhood and early interest in chemistry, as well as her graduate years at Harvard and long career at the University of Delaware. Additionally, she discusses how important teaching has been in her life and her work in polymers.
Sidney Edelstein's oral history begins with his childhood in Tennessee and follows his life all the way through the formation and success of Dexter Chemical Corporation. In his interview he discusses the major world events he faced, discrimination because of religion, and his philanthropic work.
Hubert Eleuterio's oral history describes his interest in science from an early age, and the events that led him to go to graduate school for Chemistry. He chronicles his long career at DuPont in Delaware, his work with the Atomic Energy Commission, and his activities after his retirement.
Alber Eschenmoser begins his oral history with a discussion of his childhood and path to the field of organic chemistry. He discusses his career and how ETH collaborated with Robert B. Woodward's Harvard research group on the B12 project, and in 1972 they announced the success of the vitamin B12 synthesis. Eschenmoser concludes the interview with a discussion of research funding, his professional recognition, and the ramifications of the vitamin B12 synthesis.
Thomas E. Everhart's oral history begins with a discussion of his work with the scanning electron microscope, his work both at University of California, Berkeley and at Westinghouse Central Research Labs, and his collaboration with Andy Grove. Throughout the oral history, Everhart talks about Gordon E. Moore and Moore's contributions to the electronics world, including Moore's Law and predictions that Moore made regarding integrated circuits. Everhart also describes the process of interviewing for the position of president at the Caltech and expounds on his time as president, which provided opportunities for institutional growth and entrepreneurship
This interview with James R. Fair begins with a discussion of Fair's childhood in the Midwest. It covers his graduate career, his work during World War II and his long career with Monsanto.
Frank H. Field was raised in Cliffside Park, New Jersey, by an aunt, an uncle, and a grandmother. He entered Duke University, placing a year ahead in chemistry, but had very little money. To meet his expenses he worked in the school dining hall and graded math papers. He continued on at Duke for his graduate education and worked on using fluorocarbons as hydraulic fluids to replace hydrocarbons on warships. He then took a position at the University of Texas and began his mass spectrometry career. He worked first on measuring the ionization potential of cyclopropane. Field left the University of Texas to work with Joe Franklin at Humble Oil, and then after time at Esso, he was recruited by Rockefeller University as a full professor. He shifted into biochemical mass spectroscopy to be more in keeping with the biomedical orientation of Rockefeller. He built the second Californium-252 mass spectrometer in the world. A talk in Bordeaux, France, excited his enthusiasm for matrix-assisted laser desorption/ionization (MALDI) and he persuaded his postdoc, Brian Chait, to build one.
Bernard Fields begins the interview with a discussion of his early years, his undergraduate career, and his fascination with virology and microbiology. Fields became Chairman of the Microbiology and Molecular Genetics Department at Harvard in 1982, ending his extensive research in infectious diseases just as AIDS hit the world scene. Fields concludes the interview with a discussion of the future of biological research, developing working relationships with students, and his personal battle with pancreatic cancer.
Robert E. Finnegan details his work in instrumentation and engineering, starting at the US Naval Academy and continuing in goverment and industrial work through the rest of his career.
James A. Fisher begins the interview with a description of his family and early years in Pittsburgh, Pennsylvania. After graduating early from Yale University because of the bombing of Pearl Harbor, Fisher secured a position in a smelter plant making aluminum for warplanes at Alcoa Inc. In 1945, Fisher left Alcoa to work for his father, Chester G. Fisher, at the family business, Fisher Scientific International Inc. After the death of his father, Fisher was instrumental in the creation of the Fisher Museum, which was used to display the Fisher Collection, and the Pasteur Room, which was dedicated to the achievements of Louis Pasteur.
In his oral history Eugene Flath describes his childhood, his education, and his career at Fairchild and Intel. He discusses his decision to leave Fairchild and the culture of both companies and those he worked with there.
In this interview, Karl Folkers first talks about his family and his early exposure to science. He then describes some of his experiences as an undergraduate at the University of Illinois, as a graduate student at the University of Wisconsin, and as a postdoctoral fellow at Yale University. This is followed by a long discussion of his years at Merck, and includes his research on vitamins, particularly vitamin B12, his work on penicillin, the structure of research at Merck, and comments on various co-workers and administrators.
During his twenty-one year career at the University of London, Foskett became director of the University Library and Goldsmiths’ Librarian. In his interview, Foskett next discusses the formation of the Classification Research Group [CRG] to address the need for new ways to classify scientific literature. Foskett has been a member since CRG’s formation, and Foskett developed faceted classification schemes for education and safety and health that are still in use.
He received his B.A. in chemistry in 1946 and his M.A. in chemistry in 1949, both from the University of British Columbia. Francis married shortly after, and he and his wife moved to Iowa, where he continued his studies at the University of Iowa, obtaining a Ph.D. in biochemistry in 1953. Francis accepted a position with Procter & Gamble in 1952. His first work there involved research on detergents and skin penetration. Procter & Gamble then moved Francis into hair research. Finally, Francis moved to the dental section, where he became involved with fluoride research.
Arnold Frankel attended City College, enrolling in the chemical engineering curriculum and receiving his B.S. in 1942. While at City College, he met Seymour Mann, who later became his business partner. After graduation, Frankel accepted a position with the U.S. Rubber Company, working at a TNT plant. Soon thereafter, he moved to Publicker Industries, where he did pilot plant work. He also encouraged Mann to join Publicker. They later formed Aceto Chemical, Inc., and exported a variety of chemicals. Frankel is joined in the second interview by his wife, Miriam Frankel, and they discuss the difficulties of beginning a business and a family at the same time.
John E. Franz contrasts his studies in physical organic chemistry with his training in practical synthetic organic chemistry at Illinois. He also details his discovery of glyphosate, a natural plant growth inhibitor that forms the active ingredient in Roundup, an environmentally friendly herbicide that has become one of the most widely used herbicides in the world. He describes the aftereffects of his discovery—the reactions of Monsanto and other companies, and the steps involved in commercial production of Roundup. Franz then examines his later work to understand amine and phosphine compounds as well as plant growth inhibitors
After completing her B.S. in chemistry, Helen M. Free first researched assays of antibiotics before moving to dry reagent test systems. Working with tablets, Free helped develop tests to detect abnormal levels of bilirubin, glucose, ketone, and protein in urine. When Bayer Corporation acquired Miles Laboratories, Free stayed with the company, moving into the Growth and Development Department, then becoming Director of Specialty Test Systems. Free formally retired in 1982. She served as president of the American Chemical Society in 1993.
Dov Frohman discusses his career, starting with Graduate school in the US, his position at Fairchild, and his job at Intel. He proceeds to discuss the creation of Intel Israel and his role in the company.
Dr. Fuller enlivens the interview with recollections of Harkins and Julius Stieglitz. Appointment as a research chemist under R. R. Williams at Bell Laboratories introduces Calvin Fuller to the infant science of synthetic polymers and to xray crystallography. World War II sees Fuller in Washington, D.C., heading polymer chemistry research as part of the synthetic rubber program. On return to Bell Laboratories after the war, Fuller decides to move to solid state chemistry and describes his work on semiconductors, leading to the development of the photovoltaic cell.
Millard G. Gamble capped his 39-year career in sales and marketing of fibers at E.I. du Pont de Nemours and Company as the vice president of the Textile Fibers Department. He talks about his post-graduation experiences working for the United States Department of Agriculture and as an officer with the United States Navy. Gamble reflects on joining DuPont in 1945 and his sales experience in the Rayon (later named Textile Fibers) Department.
Eugene Garfield describes his interest in the West, his first jobs in Colorado and California, and his brief military career, injury and subsequent medical discharge. Garfield continues by discussing his undergraduate degree in chemistry, the influence of his first ACS meeting and the Division of Chemical Literature on his life's work. He also talks about his participation in the Welch Medical Library project.
Eugene Garfield begins the interview with a discussion of The Johns Hopkins University Welch Library indexing project. Garfield joined this project in 1951, during which he became involved in machine methods for indexing and searching literature. He worked on automating Current List of Medical Literature and experimented with punched cards and zato coding. He discusses his relationship with Sanford V. Larkey, and his decision to attended library school at Columbia University. After graduating, Garfield joined Smith, Kline & French as a consultant. He eventually set up his own company, DocuMation, Inc., and worked on many projects, including a Genetics Citation Index for the NIH and Management's DocuMation Preview.
William H. Gauvin describes his education at McGill University, which culminated in both wartime work on RDX as well as several early electrochemistry papers. He next recounts his employment with Frank W. Horner Ltd. and the initiation and development of his lifelong spray drying work.
Louis A. Girifalco studied applied science at the University of Cincinnati, and did his Ph.D. research on the adhesion of ice to surfaces. The surface science thesis research naturally evolved into solid state physics when Girifalco began work for the National Advisory Committee for Aeronautics, which eventually became the National Aeronautics and Space Administration. During his career Girifalco met Robert Maddin, which ultimately led an offer of a faculty position for Girifalco at the University of Pennsylvania. At Penn, Girifalco worked in the metallurgical engineering department and reflected upon the creation of the Laboratory for Research on the Structure of Matter (LSRM), as well as the funding process within LRSM. Fundamentally an interdisciplinary research institute, Girifalco spent time as director of LRSM and discussed his views on the evolution of the academic science research system and on the Nano/Bio Interface Center and other current interdisciplinary research institutes.
After completing his training, Goggin first worked on setting up testing procedures for new polymer electrical insulators. While an employee with Dow, Goggin received a patent for a cording stretching apparatus. Goggin's work in Dow's Plastics Division coincided with the rise of plastics in the world market, especially during World War II. He rose steadily through the company, remaining an employee with Dow for his entire career. He retired as Chairman of the Board of Dow Corning Corporation in 1976.
Golde's experience in clinical pathology at NIH steered him into hematologic research at UCSF in Martin J. Cline's laboratory. While at UCSF, Golde met several influential scientists who first sparked his interest in hormones. In 1974, Golde left UCSF for the University of California, Los Angeles (UCLA), where he continues his affiliation today as Professor of Medicine, Emeritus. Throughout most of the 1970s, Golde's major field of research was in colony-stimulating factors.
James M. Goldey chronicles his involvement with the electronics industry and his career at Bell Telephone Laboratories, Inc. He describes his interaction with William B. Shockley, Julius Molnar, Jack Moll, and Ian M. Ross. Goldey continues the interview by describing his work assignments at Bell Labs, along with his involvement with the Nike-X missile, silicon transistors, integrated circuit development, and hybrid circuits.
Mary Good received her Ph.D. in 1955, and accepted a position at Louisiana State University in Baton Rouge. Her early work included iodine and sulfur chemistry and managing the radiochemistry laboratory. Good discusses her extensive involvement in the American Chemical Society, including her time as chairman of the board and later as president. In 1980, Good was appointed to the National Science Board by President Carter, and was reappointed by President Reagan.
George Govier received his Sc.D. in chemical engineering in 1949. In 1948, Govier became the head of the University of Alberta's Department of Chemical and Petroleum Engineering, and was instrumental in developing the program there. Eleven years later, he accepted the position of dean of the Faculty of Engineering, a position which he held until his departure from the University of Alberta. Govier then became the chairman of the Petroleum and Natural Gas Conservation Board, an organization in which he had been active since 1948.
Green and Asbury recall the IG research organization. The wartime pressures during the development of GR-S, and the problems at the Baton Rouge plant are discussed by Green, while Asbury tells of his visit to Germany with the U.S. Strategic Bombing Survey. The political recriminations of the prewar cooperation between Standard Oil and IG Farben are recollected as are visits to Germany in the 1930s and 1950s. The interview ends with a survey of the postwar move into chemicals, the Ziegler process and the future of the oil and petrochemical industries.
Greer studied chemistry at the small Grove City College, but with one year at Carnegie Institute of Technology, and then continued further studies in chemical engineering at Case. The years up to the outbreak of World War II were spent with Union Carbide, working on the early development of petrochemicals. Greer then moved to Washington, D.C., to join the War Production Board, but soon after transferred to the Office of the Rubber Director where he played an important role in process development and product quality of the butadiene-styrene rubber, GR-S.
After the war, Gregory simultaneously gained both a Bachelor's degree at Princeton University and a Master's degree at Harvard University. Then in 1949, he began his career at the Rohm and Haas Company by conducting internal auditing in three plants. He then ran Rohm and Haas' agricultural-chemical operations in England before becoming Director of European Operations.
Andrew Grove studied fluid dynamics with Andreas Acrivos at the University of California, Berkeley, publishing four papers from a doctoral thesis. He also studied solid state physics and became employed by Fairchild Semiconductor. Grove cites Gordon E. Moore as a decisive factor in accepting the position. Grove had a close relationship to Moore at both Fairchild and Intel Corporation. The combination of personalities of Fairchild Semiconductor executives contributed to its success, a pattern which emerged in Intel Corporation as well after its founding by Grove, Gordon Moore, and Robert Noyce.
In 1947 Clifford and Kathryn Hach started the Hach Chemical and Oxygen Company, which eventually became Hach Company, one of the most innovative, influential, and well-known companies in the world. Hach-Darrow relays her thoughts on and her memories of the key events surrounding the start of the company, the creation of the Hach Model 5B Hardness Test Kit, the decision to enter the water testing market, the incorporation of the company in 1951, and the importance and need for instrumentation. Moreover, Hach-Darrow discusses the company's initial public offering in 1968, innovation, the company's international pursuits, Bruce J. Hach's involvement with the company, and the importance of quality control and customer service standards.
Norman Hackerman recounts his seven years at Johns Hopkins University, where he received both his bachelor's and Ph.D. degrees and developed interests in philosophy and psychology as well as in physical chemistry. remarks upon the difficulties the university encountered due to the Depression, and its effects upon laboratory equipment and research. He next describes his experiences teaching at Loyola College and consulting for the Colloid Corporation, his job with the Coast Guard at the Federal Lighthouse Service, his years at Virginia Polytechnic Institute, and his work on the Manhattan District Project. The final portion of the interview briefly summarizes his early teaching background at the University of Texas, his consulting work for the Lone Star Gas Company, and his creation of the Corrosion Research Laboratory (now the Balcones Research Center).
Norman Hackerman begins his second interview by describing his work after coming to the University of Texas at Austin Department of Chemistry and starting the Corrosion Research Laboratory [currently the J. J. Pickle Research Center]. He discusses the physical chemistry textbook for premed students he wrote with Frederick Matsen and Jack Myers. He also recalls the events which led to his becoming chairman of the department after only seven years, his reorganization of the department, and characteristics of the department’s faculty at that time.
Norman Hackerman’s third interview begins by reviewing the origins of his association with The Electrochemical Society [ECS], which was related to his interest in the oxygen electrode as a student. He recalls his first paper, presented at an ECS conference and published in the Transactions of the American Electrochemical Society, and the first colleagues he met at this ECS meeting. He next describes the character of The ECS at that time, comparing it with the American Chemical Society [ACS], as well as the origins of the society’s journal and his involvement in publication and editorial activities.
After graduating from Johns Hopkins with a Ph.D. in chemistry, Norman Hackerman became a steady participant of the Gordon Research Conferences [GRC]—particularly the Corrosion Conference, which he chaired in 1950. Hackerman recalls that the early conferences were helpful to his scientific research, and that the atmosphere was informal and interactive. He also explains that as the numbers of attendees, disciplines, and locations of the conferences increased, the conference atmosphere became a more formal, lecture-type setting. Hackerman discusses some of the activities of the GRC board of trustees, on which he served as a member from 1970 to 1973.
Vladimir Haensel studied engineering at Northwestern, receiving his B.S. in 1935. He earned a scholarship for graduate school at MIT, where he studied polymerization under Edwin R. Gilliland. After earning his M.S. in chemical engineering in 1937, Haensel took a permanent position at Universal Oil Products and helped set up a high-pressure laboratory (funded by UOP) at Northwestern. During this time, Haensel also earned his Ph.D. in chemistry from Northwestern, writing a thesis on the decomposition of cyclohexane. In the 1940s and 1950s, Haensel moved into research management. He was also integral in UOP’s development of the Platforming process.
William E. Hanford attended the University of Illinois and studied with Roger Adams. He worked on various problems in the laboratory, and got to know many members of the department, including Carl Marvel, Reynold Fuson, and Ralph Shriner. After earning his Ph.D. in 1935, he took a job with DuPont, working in Experimental Station. He discusses how work on such household items as Teflon, Glim, and Head and Shoulders led to his induction into the National Inventors Hall of Fame.
While still at Princeton, Hugh Taylor involved N. Bruce Hannay in the Manhattan Project, and after receiving his Ph.D. in 1944, Hannay took a job with Bell Laboratories, where he continued that work. Once the war ended, Hannay began research on the mechanisms of thermionic emission from oxide cathodes. The invention of the transistor in 1947 led him to focus on silicon, which was deemed more useful in semiconductor research than single crystals of germanium. This work resulted in Hannay's development of a mass spectrograph to analyze solids.
The interview begins with N. Bruce Hannay discussing the origins of his interest in electrochemistry and his awareness of The Electrochemical Society as an ideal organization for discussions and publications on topics related to solid state chemistry. Hannay helped to further the Society's interest in solid state and corrosion work while he had responsibility for electrochemistry at Bell Labs. Throughout the interview, he comments on positive aspects of the Society's internal operations; its relations with other scientific organizations and companies, including the American Chemical Society, GE, and Bell Labs; and the influence of colleagues such as R.M. Burns and Charles Tobias.
Upon completing his thesis on externally shunted Josephson Junctions, Paul Hansma accepted a faculty position at the University of California at Santa Barbara and worked on squeezable electron tunneling junctions. It was at that time Hansma heard a lecture by Gerd Binnig on a new technique called scanning tunneling microscopy [STM]. Frustrated by the lengthy time requirements to set up each trial, Hansma began to move away from ultra-high vacuum equipment into STMs that would function in air and liquids. Hansma divided the labor between graduate students, technician Barney Drake, and himself and began building STMs, including the first one to achieve atomic resolution in water. Then, a conference at Cancun, Mexico served as a major impetus for information exchange and helped many groups to achieve atomic resolution. Soon after, at the request of colleague, Calvin Quate, Hansma reviewed a paper on atomic force microscopy [AFM]. The concept intrigued Hansma and he began to shift his research from STM to AFM.
After briefly describing his graduate work at the University of Illinois and a summer job at Du Pont, Allan Hay begins the story of his career at General Electric. There, after only a very short time, he was able to oxidize xylenol to synthesize PPO. Hay focuses on the practical applications as well as the chemical aspects of the progress that occurred in plastics research (including the developments of Noryl and Ultem) during his career as both a research chemist and a manager at G.E. He concludes with a bit of insight into what lies ahead in polymer research and development.
Oliver Hayden served in clinical laboratories and other assignments in the U.S. Army Sanitation Corps during World War I. He joined the Fisk Rubber Company, where he gained experience in rubber compounding and quality control. Hayden then moved to the Organic Chemicals Department of Du Pont, where he worked in screening chemicals for use in the rubber industry, the development of neoprene, and became Manager of the Rubber Laboratory.
Robert Hayes graduated from UCLA in 1947 with a B.A. in mathematics, and afterwards was drafted into the Navy. He recounts his acceptance into the Navy’s V-12 program, and the courses he took for that program at the University of Colorado at Boulder. After the War, Hayes returned to UCLA, where he earned his M.A. in mathematics in 1949, and his Ph.D. in mathematics in 1952. In 1969, Joseph Becker and Robert Hayes started Becker and Hayes Incorporated, with the purpose of creating an interlibrary network for the State of Washington. Hayes discusses the obstacles he and Becker overcame to accomplish that task, and goes on to recount his work with NCLIS and the SILC system. Hayes concludes the interview with his interpretation of the relationship between information science and library science, and the importance of libraries and librarians.
The interview traces Richard Heckert's early education and training, from high school and Miami University to Army work as a chemist at Oak Ridge, where management experience influenced his pursuit of a business career. He discusses safety considerations and atomic bomb work and reflects on dropping the bomb and developing atomic energy. Next the interview turns to Heckert's graduate career at the University of Illinois, his interest in organic chemistry, work and relationship with mentor Harold Snyder, and considerations in selecting a research chemist position at DuPont. The majority of the interview details Heckert's experience and rise through management at DuPont: early work with TCNE and tricyanovinyl compounds for dyeing; and various positions at DuPont's Spruance, Clinton, and Circleville plants and in the Film and Plastics Departments.
Upon receiving his Ph.D. under Alan Portis, Alan Heeger took an assistant professorship at the University of Pennsylvania’s physics department. At Penn Heeger’s interests included spin-wave theory, metal physics, the Kondo problem, and nuclear magnetic resonance (NMR) in magnetic materials. Then in 1973, Heeger began investigating polysulfur nitride along with Alan MacDiarmid and Hideki Shirakawa that led to seminal publications on conducting polymers. After twenty years at the University of Pennsylvania, Heeger moved to the University of California at Santa Barbara’s physics department, where he continued to conduct his research and collaboration with other scientists.
Madeline Henderson worked with James Perry and Allen Kent compiling and researching possibilities for a standard chemical notation system for IUPAC selection. Her search for terms for semantic factoring took her throughout the country, where she met many others involved with scientific information, including Eugene Garfield, Claire Schultz, and Saul Herner. She, Perry, and Kent initiated the use of telegraphic abstracts. After working with the National Science Foundation (NSF) as a research analyst, Henderson joined the National Bureau of Standards (NBS) in 1972. She received the Watson-Davis award in 1989 for her service to the American Society for Information Science (ASIS). Henderson concludes the interview with reflections on her fellowship with the American Association for the Advancement of Science and thoughts on pioneers in the field of information science.
David Hercules describes his youth in Somerset, Pennsylvania, and his childhood curiosity with science. Hercules began his professional career at Lehigh University as an assistant professor. He describes how he built a spectroflurometer at Lehigh and did research on photo-induced luminescence. Hercules used ESCA and XPS [x-ray photoelectron spectroscopy] to investigate a variety of phenomena, including heterogeneous catalysis. He also consulted for the Central Intelligence Agency, Instrumentation Laboratories, W.S. Merrill and Company, and Exxon Mobil Corporation. Hercules moved to the University of Georgia after six years at MIT. He then describes the position of analytical chemistry within the chemistry department and the variety of instrumentation that he was able to work with in Georgia. After receiving a Guggenheim Foundation fellowship, he was able to study at Northwestern University with Robert L. Burwell Jr. To continue his work on catalysis, Hercules moved to the University of Pittsburgh [Pitt] after seven years in Georgia. He got to work with an impressive variety of instrumentation at Pitt, and consulted for W.S. Merrill and Exxon.
In 1948, Herner took a job at the engineering and science library at New York University, where he was first introduced to special libraries and the SLA. Two years later, Herner moved to the Applied Physics Laboratory at Johns Hopkins University, and he began developing an interest in user studies. He discusses his involvement in a number of organizations, including the ACS, and his colleagues in information science. In 1953, Herner joined the Atlantic Research Corporation. While there, he began to form his own company, now known as Herner and Company.
Gerhard Herzberg, over the course of his education, studied with Hans Rau, James Franck and Max Born in the fields of physics and spectroscopy. Herzberg held academic positions at Darmstadt Technische Universität, University of Saskatchewan, University of Chicago, and the National Research Council of Canada and won the Nobel Prize in Chemistry in 1971.
Michael W. Hill received a B.S. and M.Sc. in chemistry and became head of Morgan Crucible Group's physics laboratory, but was drawn to the information and documentation side of the field. Hill first became assistant keeper in the National Reference Library of Science and Invention, and later moved on to the British Museum and the British Library.
J. Roger Hirl studied liberal arts and business in college, but entered chemical industry due to a job for Skelly Oil Company. Hirl moved on to Olin Mathieson Chemical Company (later known as Olin Corporation), where he was notably active in litigation regarding DDT sediments and mercury emissions. In 1983, Hirl joined Occidental Chemical Corporation and became interested in environmental concerns, most notably including his involvement in the Love Canal situation.
Carrol A. Hochwalt studied at the University of Dayton, where he received a Ph.D. in chemical engineering. After his university studies, Hochwalt got a position at Dayon Metal Products, where Hochwalt worked with Charles Kettering and Thomas Midgley, Jr., on lead tetraethyl and other antiknock compounds. Hochwalt moved on to Monsanto Company, where he oversaw research development.
J. Paul Hogan received a B.S. in chemistry and physics and first taught high school and undergraduate chemistry and physics, but spent most of his career with Phillips Petroleum Company. At Phillips, Hogan worked primarily with polymers and collaborated with Grant Bailey, Alfred Clark, and Robert L. Banks, with whom he discovered polypropylene.
David P. Holveck begins his oral history by discussing his childhood in Philadelphia and his initial intent on becoming a physical therapist. After three years in the Navy, Holveck took a sales position at Blood Plasma and Components, and moved on to marketing, management, and executive positions at Abbott Laboratories, Corning Glass Works, General Electric Company, Centocor, and Johnson and Johnson. Holveck describes his involvement in the biotech industry, the evolution of X-ray technology, as well as the development of products such as Centoxin, Remicade, and ReoPro.
Masao Horbia begins his oral history by discussing his childhood, schooling, and life during World War II in Japan, where Horiba earned a B.S. in physics and established his own laboratory, Horiba Radio Laboratory (later incorporated as HORIBA, Ltd.). Horiba's company built and improved upon a pH meter, among various other products, and, by the 1960s, began producing Hitachi, Ltd's analytical instrumentation, as well as a new analyzer for testing automobile emissions. HORIBA, Ltd. went public in 1971,and Horiba reflects on his still-thriving business and innovations in corporate management.
Hoyt C. Hottel begins his interview by discussing his early education and interest in rubber chemistry, and how both factored in to his decision to attend Indiana University for chemistry and Massachusetts Institute of Technology for chemical engineering. Hottel discusses his substantial experience in World Warr II work on flamethrowers, incendiary bombs, and smoke obscuration and several jobs in industry, as well as his long tenure as a professor and director of the fuel and gas engineering program at MIT. Additionally, Hottel reflects on his extensive research on solar energy and gas turbine combustion.
Willis Humphreys describes his long tenure as Production Supervisor with Beckman Instruments, Incorporated. Humphreys worked on the electronics for many of the company's instruments, including the Helipot and the Model R pH meter. Humphreys also reflects on the intense World War II production of new instruments and the evolution of electronics technology.
Charles Hurd begins his oral history by discussing his early life and his later educational and professional experiences, including his Ph.D. work in organic chemistry at Princeton University and his summer job in Thomas Edison's laboratory. Hurd was recruited to Northwestern University by Frank Whitmore and remained there for his entire career, while consulting for various companies. Hurd reflects on his research, teaching and creation of Molecular Models as a teaching tool, and the negative public perception of chemical industry.
J. Franklin Hyde discusses his university studies in chemistry, which culminated in a Ph.D. in organic chemistry with Roger Adams and a postdoctoral at Harvard University. Hyde accepted a position at Corning Glass Works as a research chemist and later became the manager of the organic laboratory. Hyde later joined Dow Corning Corporation, where he continued management and research on equilibrium hydrolysis and bond rearrangement in siloxanes.
James D. Idol discusses his early interest in chemistry and decision to pursue chemistry in higher education, which led to a position with Standard Oil of Ohio. Idol pioneered an economically advantageous process for the production of acrylonitrile and played a role in the commercialization of the process. Idol moved on to Ashland Chemical Company, where he developed the propylene-CO process for methyl methacrylate, and in 1988 became a professor at Rutgers University.
Robert T. "Ted" Jenkins begins his oral history by discussing his early life and his years at California Institute of Technology, where he reached bachelor's and master's degrees. Jenkins was recruited by Gordon Moore to work for Fairchild Semiconductor and left a short time later to follow Gordon Moore and Robert Noyce to Noyce-Moore Electronics, later called Intel. Jenkins reflects on his lengthy career at Intel and his work on blue LED, early microprocessor chips, and other products.
Keith R. Jennings begins his oral history by discussing his youth and education in the United Kingdom, including his chemistry studies at University of Oxford, where he worked with Jack Wilfrid Linnett, and his postdoctoral position with Robert Cevetanovic at the National Research Council in Ottawa, Canada. Jennings took a position at the University of Sheffield and moved on to the University of Warwick. Jennings reflects on his lengthy career at the University of Warwick, his research on mass spectrometry and the field of mass spectrometry in general, and his notable collaborators and peers.
E. William Jensen begins his interview by discussing how his early life in Denmark, and his education, which culminated with a master's degree in solid state physics and petrology at Columbia University, influenced his future career in the technology industry. Jensen began his career at General Transistor Corporation and left to form Geoscience Nuclear Division of Geoscience Instruments Company, where he competed with industrial giants such as Rohm & Haas Company, Merck, and Monsanto Company. In later ventures, Jensen was part of the development of polishing glass for televisions and the Love Glove and founded a new company, Qoro LLC.
John W. Johnstone begins his oral history with a discussion of his early life and education, including a bachelor's degree in chemistry and physics from Hartwick College. Johnstone began his career at Hooker Chemical Company as a sales representative, but quickly moved up the ranks and became Group Vice President before leaving the company for Airco Inc.. Johnstone joined Olin Corporation in 1979, where he worked for successful re-engineering and expansion of the company and addressed rising environmental concerns; Johnstone concludes the interview by discussing the future of research and development in the chemical industry.
Jean C. Jones discusses how she began working at Fairchild Semiconductor Corporation and her early interactions with Gordon Moore and Robert Noyce. Jones became full-time secretary for Fairchild and made the move to Intel Corporation. Jones describes her daily work at Fairchild and Intel and her interactions with Moore, Noyce, and Andrew Grove, among others.
Madeleine M. Joullié begins her interview by describing her early life and education in Brazil followed by her higher education in the United States, with a bachelor's degree at Simmons College and master's and doctoral degrees in chemistry at the University of Pennsylvania, where she was advised by Allan R. Day. Joullié discusses her career in the organic chemistry department at the University of Pennsylvania, including her thoughts on teaching, her students, and her work with Mildred Cohn to implement affirmative action guidelines that led to more hiring of women and minorities to tenure-track positions at Penn. Additionally, Joullié discusses her consulting work, her research, and chemistry textbooks, including Organic Chemistry, which Joullié co-authored with Day.
William H. Joyce discusses his interest in chemistry, which led to a bachelor's degree in chemical engineering from Pennsylvania State University, and the influence of his parents, which led to interest in business and an M.B.A. and Ph.D. from New York University. Joyce had a lengthy career at Union Carbide, where he rose from Product Development Engineer to Chairman and Chief Executive Officer and made several contributions to the field, including the UNIPOL process for creating high-density polyethylene. Joyce reflects on the chemical industry, his philosophy to being successful in a large corporation, and his work for the Nalco Company.
Frederick J. Karol discusses his early interest in chemistry, as well as his B.S. in chemistry at Boston University and his two years of military service. Karol joined Union Carbide Corporation in 1956 , rising in the ranks to Senior Corporate Fellow, the position he holds presently; Karol took a brief hiatus to pursue a Ph.D. in organic chemistry at Massachusetts Institute of Technology. Karol discusses his lengthy career at Union Carbide, including the development of the gas phase process for making high pressure polyethylene replacement products, linear low density polyethylene development, among other research developments, as well as Union Carbide's history and professional philosophies.
Donald L. Katz discusses his family background and his educational background, including his studies in chemical engineering at University of Michigan, which culminated in a Ph.D.. While Katz initially joined Phillips Petroleum Company as a research engineer after his education, he was soon invited back to the University of Michigan for an academic appointment. Katz remained at Michigan for over fifty years, and he reflects on his research, including heat transfer investigations, and various aspects of chemical engineering education and the academic chemical engineering profession.
Raphael Katzen discusses his family and educational background, including his bachelor's degree in chemical engineering from Polytechnic Institute of Brooklyn. Katzen met Donald Othmer while an undergraduate, and Othmer was a significant mentor for Katzen, providing him with summer employment, taking him on off-campus consultations, and requesting permission for Katzen to obtain his master's degree in absentia while working at Northwood Chemical Company. Katzen also discusses his work on acid hydrolysis of wood in the production of ethanol, the creation of his own company, KATZEN International, Inc., and his consulting and collaborative work.
Wilbur I. Kaye begins his interview by discussing his early interest in science and instrumentation and his education, which culminated in a Ph.D. in chemistry at the University of Illinois. Kaye took a position at Tennessee Eastman Company after graduation and promptly set up a physics laboratory; Kaye discusses the instrumentation in his laboratory and his publications on gas chromatography. Kaye left Tennessee Eastman for Beckman Instruments, Inc., and reflects on his modifications to the DU spectrophotometer and other instrumentation at Beckman Instruments.
Michael A. Kelly discusses his early interest in radio and television electronics, and his education, including a master's degree at Brooklyn Polytechnic Institute and a Ph.D. in nuclear physics at University of California, Berkeley. Kelly joined the Hewlett-Packard Company after completion of his Ph.D. as a research scientist and developed and refined the first ESCA instrumentation. Kelly also discusses his subsequent positions at Surface Science Laboratories, Kevex Corporation, Stanford University, and he reflects on the impact of ESCA and innovation during his career.
Robert Kennedy discusses his career in mechanical engineering, beginning with his education at Cornell University. After graduation, Kennedy took a position at Union Carbide Corporation, working first in the metallurgical industries and later in management, including a position as head of Linde Air Products Company. Kennedy discusses rebuilding the image of the chemical industry as part of the Chemical Manufacturers Association, education, and family.
Chalmer Kirkbride, influenced by his brother-in-law, a chemist for Sherwin-Williams, studied chemical engineering at the University of Michigan and initially worked for Standard Oil of Indiana before moving on to positions at Pan American Transport Company and Magnolia Petroleum Corporation, among others. Kirkbride was appointed as the first distinguished engineering professor at Texas A&M University, a position he held briefly before returning to industry. Kirkbride discusses his interest in environmental issues as well as recent activities as part of Kirkbride Associates.
William S. Knowles begins his oral history by discussing his early life during the Great Depression and his education, including time at Harvard University and Columbia University. Knowles spent the majority of his career at Monsanto Company, where he moved from studies of vanillin to research on steroid chemistry and L-Dopa, among other topics. Knowles discusses the many projects he worked on while at Monsanto, his 2001 Nobel Prize in Chemistry, and the challenges of being an industrial scientist.
Izaak Kolthoff begins his interview by discussing his early life in Holland, his education, and the factors influencing his decision to become an analytical chemist. Kolthoff details the effects of the McCarthy era on his career and accusations of Communist sympathies. Kolthoff ends the interview by discussing his research, including his work on crystal surfaces, and his participation in synthetic rubber research during World War II.
Stephanie Kwolek begins the interview by discussing her family background and education, including her bachelor's degree in chemistry at Carnegie Institute of Technology, now Carnegie-Mellon University. Kwolek entered industry, accepting a position in Du Pont's Rayon Department. Kwolek reflects on her time at Du Pont, her colleagues, and her research, specifically liquid crystalline polymers.
Stephanie L. Kwolek begins the interview by discussing her early career at DuPont and research there, specifically polymer research including aliphatic and aromatic polyamides. She relates her experiences working on the polymer that would become Kevlar, and the relationship between Kevlar and Paul Flory's theory of liquid polymer crystals. Kwolek concludes the interview by commenting on the future of polymer research.
Joseph Labovsky begins his oral history with a discussion of his family and early life in Ukraine, as well as his recollection of his family's move to the United States. Labovsky was trained as a master electrician, and went on to receive a bachelor's degree in industrial chemical engineering. Labovsky speaks at length about his career at DuPont, including the development of nylon and his mentors and colleagues, including Wallace Carothers and Paul Flory.
Keith J. Laidler discusses his childhood and education, including his time at Oxford University, where Laidler received training and undergraduate and graduate degrees in chemistry and physical chemistry, and as a graduate student in physical chemistry at Princeton University. Laidler recalls the inception and development of the transition-state theory as well as his own research. Laidler concludes his interview with recollections of several eminent chemists, including Cyril Hinshelwood, Henry Eyring, and Hugh Stott Taylor.
Ralph Landau begins his oral history by discussing his childhood and education, including his time as an undergraduate in chemical engineering at the University of Pennsylvania and as a graduate student at Massachusetts Institute of Technology. Landau recalls his time at Kellex Corporation—where he worked on the Manhattan Project—as well as M.W. Kellogg Corporation, Scientific Design Company, and Halcon International.
Jay T. Last begins his oral history by discussing his early life and education, including his undergraduate work at University of Rochester and his graduate work in the von Hippel lab at Massachusetts Institute of Technology. Last first joined the Shockley Semiconductor Laboratory but was part of the "Traitorous Eight" to form Fairchild Semiconductor; Last later worked at Amelco Corporation and Teledyne Technologies, among other endeavors. Last speaks about the business climate of Silicon Valley as well as the American and international semiconductor industries.
Joshua Lederberg begins his three-part interview by discussing his early years in New York and the early influence of science on his education. Lederberg received his bachelor's degree in biology from Columbia University, worked with Francis Ryan on Neurospora and E. coli, enlisted with the United States Navy, and received his Ph.D. in microbiology from Yale University. Lederberg discusses his career in academia, including his time at the University of Wisconsin, as well as his Nobel Prize for Physiology or Medicine in 1958.
Joshua Lederberg begins the interview by discussing his involvement in contamination issues of planetary exploration. Lederberg recalls his work to develop alternatives to the "man-in-space" program, as well as his time on several national committees for both planetary exploration and health-related matters. Additionally, Lederberg discusses writing his column, the environment at Stanford University during the Cold War, and his thoughts on U.S. defense projects.
Norman Li discusses his early life in China and Taiwan, as well as his education, which included a bachelor's degree in chemical engineering from National Taiwan University as well as an M.S. from Wayne State University and a Ph.D. from Stevens Institute of Technology. Li reflects on his career in industry, including his time at Exxon Research and Engineering Company, where he received a combined total of 44 patents on either hydrocarbon separations or facilitated transport. Li also discusses his move to research administration and the future of chemical R&D.
Maurice B. Line discusses his education and early career, including his bachelor's and master's degrees in Classics from Oxford University and his first job as a library trainee at Oxford's Bodleian Library. Line also discusses his various library positions and some of his notable accomplishments: assisting in the creation of the first automated acquisition system in Britain, directing INFROSS (a study of social scientists' information requirements) and DISISS (a study on designs of information systems). Additionally, Line speaks about the constraints of working in the public sector, as well as the importance of technology in making libraries more accessible to users.
Max D. Liston discusses his early career and education, including bachelor's degree in electrical engineering from the University of Minnesota, his first job at Chrysler Corporation, and his master's in mechanical engineering from the Chrysler Institute. Liston transferred to General Motors, then Perkin Elmer, and then formed the Liston-Folb company (later Liston-Becker) with Morris Folb, where his projects included three atmospheric-analyzer models for U.S. Navy submarines and the Model 16 capnograph. Liston discusses the Beckman Instruments acquisition of Liston-Becker, his notable projects while at Beckman, including the development of automobile-emissions analyzers for smog tests in Los Angeles, California, and the formation of Liston Scientific.
William F. Little discusses his early life in a small town and education, including his discovery of chemistry at Lenoir-Rhyne College, where he received a bachelor's degree in mathematics, biology, and chemistry, and his graduate studies at University of North Carolina at Chapel Hill, where Little received an M.S. in physical chemistry and Ph.D. in organic chemistry. Little recalls his lengthy career at a few institutions: North Carolina, where Little began as a professor and later, as chairman of the chemistry department, revised the curriculum and got a new laboratory built; the Research Triangle Foundation, where Little helped establish the Research Triangle Park. Additionally little recalls his various administrative responsibilities and assesses his career in North Carolina.
Robert E. Lorenzini discusses his childhood, early aptitude in engineering and science, and undergraduate and graduate degrees at Stanford University in materials science. After graduation, Lorenzini was recruited by Rheem Semiconductors, where his work led to Rheem's own crystal growing furnace and ability to produce its own silicon wafers; Lorenzini's time at Rheem was followed by stints at Allegheny Electronics Chemical Company, Knapic Electrophysics, and Elmat Corporation. Lorenzini reflects on his time at Siltec Corporation as Chairman and CEO, as well as his time at SunPower Corporation, which he founded with Stanford professor Richard Swanson.
Marinus Los discusses his early life in the Netherlands and England, as well as his education at Edinburgh University, where he first became interested in biochemistry and received a Ph.D. in that field. Los took a research position at the National Research Council in Canada and conducted research in the structural chemistry of alkaloids and plants before moving on to a research chemist position at American Cyanamid Company. Los discusses his research on imidazolinoes, a type of plant growth regulators, and its results: the herbicides Assert, Arsenal, and Pursuit, as well as a National Medal of Technology.
Robert Luciano his early life and education in New York, as well as his time at City College of New York, his Army service in the Pentagon, and his law degree at the University of Michigan. After several years of practicing law, Luciano accepted a position at Ciba Corporation, where he moved through the ranks to eventually become President of the Pharmaceuticals Division, and later took a position at Schering-Plough Corporation as Senior Vice President of Administration. Luciano discusses research and development at Schering-Plough, his attempts to increase understanding in the pharmaceutical industry that failure in cutting-edge research programs should be expected and tolerated, and the future of the smaller pharmaceutical companies.
Henry Earl Lumpkin discusses his trajectory from his Texas childhood to his career in mass spectrometry. Lumpkin received his bachelor's degree in chemistry at Southwestern Texas State University and joined the U.S. Army Air Corps, where he took graduate classes in meteorology before taking a position at Humble Oil and Refining Company, where Lumpkin was able to take courses, publish, and take part in innovative research. Lumpkin also discusses his role in the American Society for Testing and Materials, as well as in the American Society for Mass Spectrometry, and his thoughts on the future of mass spectrometry.
Alan G. MacDiarmid begins his interview by discussing his childhood and the two books that sparked his interest in chemistry. MacDiarmid, with degrees from University of New Zealand, University of Wisconsin, Madison, and University of Cambridge, focused his work on inorganic chemistry and accepted a faculty position at University of Pennsylvania. MacDiarmid discusses his lengthy career at Penn, his Nobel Prize-winning work with Hideki Shirakawa and Alan Heeger, and the benefits of interdisciplinary research.
John D. Macdougall summarizes his graduate and doctoral work before discussing his career at Sprague Electric Company in the research and development department, specifically working on ion implementation. At Sprague, Macdougall built a permanent magnet velocity filter and scanning system, worked on PNP transistors, implanted TTL circuits and linears circuits, and aided in the developmental progress of MOS [metal oxide semiconductors] to MOSFETS [meta oxide semiconductor field effect transistors], among other projects. Macdougall also discusses his move to the Worcester facility, the sale of Sprague to General Cable, and his work in engineering management at General Cable.
Robert Maddin begins the interview by discussing his childhood and education and early work experiences including his time at Brooklyn College, his B.Sc. in metallurgical engineering, his Dr.Eng in metallurgy at Yale University, and his Armed Forces service during World War II. Maddin spent several years teaching at Johns Hopkins University before moving on to the University of Pennsylvania, where he was the head of the metallurgy department. Maddin describes starting up the Laboratory for Research on the Structure of Matter and his shift to the history of science, including his second career at Harvard University's anthropology department.
Boris Magasanik begins the interview by discussing his childhood years, move to the United States from Austria just before World War II. Magasanik's graduate studies in biochemistry at Pennsylvania State University were interrupted by World War II, in which Magasanik served; he resumed his studies at Columbia University postwar and researched inositols and RNA. Magasanik discusses his career at Harvard University, as well as his time at Massachusetts Institute of Technology, where Magasanik is still a faculty member and founded the Center for Cancer Research.
Kenneth E. Manchester discusses his service in World War II and his educational experiences, including his A.B. at San Jose State College,his M.S. and Ph.D. at Stanford University, and postdoctoral fellowship under Eric Hutchinson. Manchester first joined Shell Development Company and later moved to Sprague Electric Company, where he directed a research group that pioneered in the development of ion implantation and later headed semiconductor research and quality assurance. He concludes the interview with his thoughts on the need for chemists in semiconductor development.
Leo Mandelkern begins the interview by discussing his early life and education at Cornell University, including his graduate work and associations with J. G. Kirkwood, Franklin Long, and Paul Flory. Mandelkern also recalls his career at the National Bureau of Standards as well as his recent work at Florida State University. He concludes by commenting on methods of solving scientific controversies.
Robert J. Manning begins the interview by discussing his educational background in chemistry and his United States Navy research on rocket fuel. Manning relates the details of his lengthy career at Beckman Instruments, Inc., where he gravitated toward infrared instrumentation. Manning also reflects on education and information sharing at Beckman.
Rudolph A. Marcus discusses his early life and education, including his time at McGill University, where he received a Ph.D. in chemistry and worked on World War II-related research with Carl Winkler, and at University of North Carolina, where in his postdoctoral research he began to focus on theory, specifically RRKM theory. Marcus also discusses his time as a professor at Brooklyn Polytechnic University, including his colleagues and his interest in electrostatics and polyelectrolytes, and his later position at University of Illinois. Marcus concludes his interview by speaking about his most current academic position at California Institute of Technology and his thoughts on his electron transfer work.
Herman Mark begins his three-part interview by discussing his research at the Universities of Vienna and Berlin, as well as at the Kaiser Wilhelm Institute, where Mark collaborated with various colleagues and used x-ray diffraction to establish the crystal structures of small organic molecules and metals. Mark also discusses his time at I.G. Farben, where he established a polymer laboratory and, due to the worsening political climate, left for Vienna to set up the first comprehensive polymer research and training institute. Mark recalls setting up the Polymer Research Institute at Brooklyn Polytechnic Institute and his role in the formation of the literature of polymer science and technology.
Russell E. Marker discusses his early life, including his childhood in a farming community, as well as his education, including his time at the University of Maryland. Marker recalls his positions at the Naval Powder Factory and the Ethyl Gasoline Corporation, where he devised the octane rating system. Marker also talks about his interest in synthesizing human hormones from plants and his travels to Mexico to examine indigenous plant life.
John C. Martin begins the interview by describing Gilead when he first joined in 1990. Martin recalls his first meeting with Gordon E. Moore, who joined the board around the same period as Martin. Martin then reflectes on serving on the Gilead board with Donald Rumsfeld and Moore, and also explains how Moore’s experiences at Intel helped shaped polices of the compensation committee and audit committee on which he served. Lastly Martin speaks about Gilead’s no-profit tiered pricing policy and the impact it has on developing countries, as well as final thoughts on Moore.
Carl Marvel discusses his early life, including his youth on a farm, and his education, including his undergraduate years at Illinois Wesleyan College and his graduate studies at University of Illinois. Marvel recalls his consulting work for DuPont and his World War II work, including his direction of the federal rubber program and anti-malarial and chemical warfare agents research. Marvel concludes by speaking about his most recent research in polymers, his family, hobbies, and involvement with the American Chemical Society.
Thomas Mastin begins this interview by discussing his childhood in Indiana and the untimely death of his father. He then explains the origins of his interest in chemistry, his early career at Lubrizol, and his transition from research into management. Mastin shares his opinions on management philosophy and the place of research in the chemical industry. Finally, Mastin reflects on the changes in the industry, his receipt of the Society of Chemistry Award, and his continued interest in photography and nature study.
Mayo traces his professional career as a research chemist with Du Pont, as an instructor at the University of Chicago where his primary role was the supervision of Morris Kharasch's research group, as a group leader at U.S. Rubber during and after World War II, as a research associate at General Electric, and finally as a fellow at SRI International. He also comments on the rise of free radical chemistry and the value of applying basic research to practical problems.
McAfee discusses his career in chemical engineering, having studied at the University of Texas and the Massachusetts Institute of Technology, and having worked as a research and operating engineer for Universal Oil Products Company before accepting a position as technical specialist with Gulf Oil Corporation in Port Arthur. He served as Chairman of the Board and CEO of Gulf for six years before retiring in 1981. His career with Gulf took him to Pennsylvania, London, and Toronto.
McBrayer discusses his studies in chemical engineering at Vanderbilt University and his career at Exxon, eventually becoming president of the corporation. During his years at Exxon Chemical, McBrayer was heavily involved in environmental issues; he helped to set up Clean Sites, Inc. and has been active in the Chemical Manufacturers Association Responsible Care program. In 1992, the same year that he was awarded the Chemical Industry Medal, McBrayer retired from Exxon Chemical.
Keith McKennon discusses his youth and interests in research and chemistry, as well as his subsequent years at Oregon State University. McKennon reflects on his multiple career paths at Dow Chemical Company and Shell Chemical Company, from working in a sales position to research management and then as a Director of government relations and public issues. McKennon describes his next major career turn—dealing with public concern about dioxin in Agent Orange, and later, at Dow Corning, with the silicon implant affair.
McLafferty discusses his upbringing as he continued his education in chemistry in an accelerated degree program at the University of Nebraska during World War II. Having enlisted in the war and after months of combat, McLafferty returned to Nebraska to earn his Master’s degree and later his doctoral degree at Cornell University. Shifting his interests to organic chemistry, he entered industry at the Dow Chemical Company where he was introduced to mass spectrometry, a field that figures prominently in much of McLafferty’s collaborations and scientific work. Eventually, he moved into academia, teaching and researching at Purdue University and then Cornell University.
McMillan discusses his upbringing in Montebello, California, having expressed an early interest in science, eventually attaining a B.A. in chemistry at UCLA, a M.S. at Columbia, and later on a Ph.D. in chemical physics. McMillan was employed in the Special Alloys and Materials Project, a forerunner to the Manhattan Project, but later joined the faculty of UCLA while working for the RAND Corporation as a consultant to the U.S. military. Also having worked with the Armed Forces in Vietnam, McMillan contracted hepatitis and developed blood chemistry analysis. Some of his personal research projects have included: global warming and ozone depletion issues; atmospheric studies of Venus; and Neutrinos work.
Robert L. McNeil, Jr. discusses the evolution of his family’s drugstore, the Firm of Robert McNeil and later McNeil Laboratories, after earning his B.S. in physiological chemistry and bacteriology at Yale University. Returning to Philadelphia, McNeil enrolled in the Philadelphia College of Pharmacy and Temple University’s Graduate Pharmacy School, thus beginning his career in the family business and eventually becoming head of a successful pharmaceutical company. As a prominent figure in the pharmaceutical field, McNeil introduced top-selling pharmaceuticals in the nation, like Butisol® and eventually Tylenol®, and became president of the Philadelphia Drug Exchange and the Philadelphia branch of the American Pharmaceutical Association.
Carver A. Mead discusses his early interest in electronics, his studies in electrical engineering at the California Institute of Technology, and his long history of entrepreneurial activity that continues to the present day. Mead conducted transistor research and pioneered automated design methodologies for VLSI devices.
A.J. Meadows discusses his reasons for studying both astronomy and the history of science, and how that led to his appointment in both departments at the University of Leicester. Meadows also comments on his initial interest in information science, later establishing two centers for communication studies, and becoming associated with the Institute for Information Scientists [IIS], the Library Association [LA], and Aslib. He then discusses online communication’s impact on information science with the example of BioMedNet and the e-print system, his relationship with Donald J. Urquhart, and the definition of the words “information,” “documentation,” and “library.”
After earning his B.S. in chemical engineering at Case Western Reserve University, Arther I. Mendolia began to work at DuPont as a research engineer but later rose in managerial positions such as Vice President of Explosives. DuPont recommended Mendolia for a position in the U.S. Department of Defense [DOD], where he learned more about management, organization, finances, and worked personally with President Gerald Ford. Mendolia later became involved in corporate ventures, becoming president of Halcon International and chairman of Oxirane, and later establishing his own chemical company, CasChem which would later be known as Cambrex Corporation.
Delbert Meyer discusses his upbringing in Maynard, Iowa and his initial uncertainty about his future career, leading to his decision to serve for two years in the U.S. Navy. Later, his professors at Wartburg College and the University of Iowa encouraged his interest in chemistry, contributing to his thirty-nine years with Amoco. He started his career as an exploratory researcher then as a research consultant, eventually developing a faster and more economical method for producing purified terephthalic acid (PTA), and later winning the 1995 Perkin Medal.
Seymour Meyerson was born and raised in Chicago, Illinois and attended the University of Chicago from which he received his undergraduate degree. By 1943 Meyerson began active service with the U.S. military, spending the majority of his time with the Signal Corps; he also performed important work as the technical liaison officer between the Manhattan District and Standard Oil Company (Indiana). His time with the military afforded him the opportunity to be trained in electronics and to encounter his first mass spectrometer. In 1946 Meyerson started what would become a nearly forty year career with Standard Oil Company (Indiana) (later the Amoco Corporation). From the outset, Meyerson was involved with the mass spectrometry group, first conducting quantitative gas analysis on gases and low-boiling liquids, consisting of hydrocarbons and fixed gases.
Foil A. Miller begins the first interview, given about ten years before the second, by describing the origins of the Pittsburgh Conference on Analytical Chemistry and Applied Spectroscopy (Pittcon). Miller was involved early on with Pittcon and its two founding groups, the Spectroscopy Society of Pittsburgh and the Society of Analytical Chemists of Pittsburgh. In the 1950s, Pittsburgh had an active community of both academics and people from industry; this collaboration contributed to the success of Pittcon. Miller outlines some of the changes in the field of instrumentation that he has observed during the course of his career and reflects on some of the key individuals in instrument entrepreneurship.
Revisited ten years after the first interview, the newer interview has a slightly different—slightly more personal—focus, beginning with Miller’s family background and continuing with a short précis of his growing up and selection of chemistry, especially spectroscopy, as a career. He was born in Aurora, Illinois, but grew up in Pepin, Wisconsin, the only brother of five sisters. His first exposure to chemistry, from The Book of Knowledge, bored him, but his high-school science teacher gave him a chemistry textbook, which he loved, and which thoroughly convinced him that he was destined for chemistry. He entered Hamline University in St. Paul, Minnesota, as a chemistry major. For graduate school, he applied for and won the Chemical Foundation Fellowship at Johns Hopkins University. There he worked with Richard Lord, helping him build a Raman spectroscope and learning infrared (IR) spectroscopy. He found Joseph Mayer and Frederick Wiselogle excellent teachers after whom to model himself. Next came two years as a National Research Council postdoc under Bryce Crawford at the University of Minnesota and then a position at the University of Illinois. Technological advances in spectroscopy helped Harold Klug recruit Miller to the Mellon Institute. He became Head of the Spectroscopy Division at Mellon and later Senior Fellow in Independent Research. Miller transferred to Pitt and taught there until he retired at the age of sixty-five. He wrote a series of papers with William Fateley; he taught, for fifty-three years, a summer course at the Massachusetts Institute of Technology; and with Dana Mayo and Robert Hanna, he wrote Course Notes on the Interpretation of Infrared and Raman Spectra. About the time of his retirement, Miller began collecting stamps concerning chemistry and physics. He has been editor of Philatelia Chimica et Physica and, with Edgar Heilbronner, wrote A Philatelic Ramble through Chemistry.
Russell A. Mittermeier discusses the involvement and increasing support of Gordon E. Moore in Conservation International, especially his contribution to building the Center for Applied Biodiversity Science. He describes Moore as a good match with Conservation International given Moore’s appreciation of its scientific approach and organizational management, leading the board of directors and transforming the organization at large. Lastly, Mittermeier reflects on how Moore’s experience at Conservation International influenced the founding of the Gordon and Betty Moore Foundation and notes the Moores’ influence in attracting Silicon Valley to the cause of conservation.
This oral history with Gordon T. Moore and Jay T. Last focuses on the years 1956 and 1957, during which time Moore and Last worked at Shockley Semiconductor Laboratory and Fairchild Semiconductor was founded. This transcript is about the life of ideas and the people who brought those ideas to fruition; Moore and Last reflect on their experiences during these years while flipping through an old notebook that documented various aspects of the meetings they had over an eighteen month period. In order to fully understand this oral history, the reader must consult the Supplement to Gordon E. Moore and Jay T. Last Oral History, oral history number 0327S, which is also part of the Chemical Heritage Foundation’s collection.
In this interview, Herbert Morawetz traces his early life prior to leaving Czechoslovakia on the Nazi invasion and resettling in Canada, where he studied chemical engineering at the University of Toronto. He describes his introduction to industrial research work and his consequent Ph.D. study at Brooklyn Polytechnic Institute and late postdoctoral fellowship at Harvard Medical School. Morawetz also reflects on the future of polymer education and on international scientific collaboration.
Paul Morgan discusses his upbringing in Maine, his undergraduate studies at the University of Maine, his graduate research at Ohio State University on naturally-occuring plant pigments, and his post-doctoral work on cellulose derivatives. He describes his Du Pont investigations of the synthesis of polymers, with particular emphasis on interfacial polycondensation. Incorporated into the interview are Morgan's reflections on scientific publication from an industrial setting.
This interview covers the life of Koji Nakanishi from his early education in Egypt to his current work as Professor of Chemistry at Columbia University and Director of the Suntory Institute for Bioorganic Research in Japan. Nakanishi also comments on his education in wartime Japan, his fellowship years at Harvard University, and his research on the structure of natural products and their mode of action, and the development and use of infrared spectroscopy, NMR, and circular dichroism. He concludes by briefly discussing his avocation, magic, and some general comments on the future of organic chemistry.
Samuel Natelson discusses his upbringing in Brooklyn, New York, having earned his B.S. in chemistry at the City College of New York and his Sc.M. and Ph.D. at New York University. While beginning his academic career at Girls Commercial High School, Natelson also worked as a clinical chemist at the Jewish Hospital of Brooklyn, where he first conceived the idea of a society by and for clinical chemists. Eventually, Natelson became a pioneer in the field of clinical chemistry, organizing the nine charter members of the American Association of Clinical Chemists, acting as a consultant to the National Aeronautics and Space Administration, and later still pursuing a career as an educator.
Donna J. Nelson discusses her childhood in Eufaula, Oklahoma, where she was greatly influenced by her parents, especially her step-father, the town’s only physician. Nelson joined the chemistry department at the University of Oklahoma, where she struggled for parity with the male students, and later went on to do graduate work at the University of Texas, Austin with Michael J.S. Dewar and post-doctorate work at Purdue University as Herbert C. Brown’s first female post-doctorate. In addition to her role as faculty member of the University of Oklahoma chemistry department, Nelson also conducted surveys of women and minorities in the top chemistry departments and researched issues surrounding women and minorities in chemistry and the sciences.
Roy G. Neville comments on his family and his childhood in Bournemouth, England during the start of World War II, while admitting that he was not very intrigued by his first chemistry lesson but enjoyed performing experiments. Neville eventually earned his master’s degree and Ph.D. in the U.S. at the University of Oregon, later establishing Engineering and Technical Consultants, Inc. to help chemists in industry. As an entrepreneur, Neville spent more of his time and money on his rare book collection and the creation of The Roy G. Neville Historical Chemical Library at the Chemical Heritage Foundation.
Melvin S. Newman, an eminent organic chemist, comments on his undergraduate and graduate work at Yale and his experiences at Ohio State University, where he spent most of his academic career researching, advising, and teaching both in the classroom and laboratory. Newman also discusses his publications, use of the innovative "Newman Projection," consulting, patents, and awards.
Raised primarily by his widowed mother, James Burton Nichols won scholarships to finance his studies of chemistry at Cornell University where he conducted a senior research project with Wilder D. Bancroft. Nichols went to Wisconsin where he was introduced to sedimentation techniques by a construction of a pioneer optical centrifuge and its use in pigment characterization, and he later was involved in the early development of the ultra-centrifuge. Nichols later had a long career at Du Pont, from applying ultracentrifugal techniques to industrial problems to contributing to the evolution of new instruments and polymer characterization.
Alfred O. C. Nier was born in Minnesota in 1911 to parents who had emigrated from Germany. Having been interested in radios during high school, Nier decided to study electrical engineering when he enrolled at the University of Minnesota in 1927. When he graduated in 1931 he pursued engineering jobs; however, few firms were hiring due to the Depression. Nier earned a master’s degree in electrical engineering, though most of his research experience was in physics; he began his doctoral research at a time when quantum mechanics and X-rays were burgeoning fields of study. After much deliberation Nier chose to work with John Tate, head of the physics department. Subsequently, Tate assigned Nier to work on mass spectrometry and in the mid-1930s Nier built his first mass spectrometer. Nier spent the majority of his doctoral research obtaining a precise understanding of how mass spectrometers worked and how he could improve the instruments to enhance his isotopic abundance studies. After completing his Ph.D. in 1936, Nier was awarded a National Research Council Fellowship. He elected to work with Kenneth T. Bainbridge at Harvard University. By December Nier began establishing more precise isotopic abundances than the ones F. W. Aston produced in 1915. Nier returned to the University of Minnesota after completing his post-doctoral research in 1938 beginning a long career in mass spectrometry at his alma mater. In the fall of 1939 Nier became involved in work related to uranium-235 and UF6/UBr4 (Nier refers to UF6 in the interview but references UBr4 in some publications). Nier, with E.T. Booth, J.R. Dunning, and A.V. Grosse, demonstrated conclusively via mass spectrometry that uranium-235 was the isotope that underwent slow neutron fission. As his research group at Minnesota was the only group capable of analyzing uranium he was ordered to begin separating uranium-235 on his 180° mass spectrometer. After Pearl Harbor and the United States’s official entry into World War II, Nier and his research team worked under the command of Harold C. Urey as part of the Manhattan Project. Nier’s mass spectrometry expertise would prove invaluable to the war effort. After World War II, Nier returned to the University of Minnesota where he remained as a Professor. Nier’s post-war mass spectrometry research touched on many areas including electrical detection, atmospheric studies and mass spectrometers for rockets, geochemistry, and precise masses. Nier participated in the upper atmosphere Aerobee flights throughout the 1960s, the Viking Project in the 1970s, and the Pioneer Venus project. During this atmospheric work Nier became friends and collaborators with Klaus Biemann. Throughout his oral history Nier discusses his many publications, the instrument details of many mass spectrometers, his awards, and his interesting career. Nier explained that his short attention span and unique education in physics and electrical engineering allowed him to capitalize on the new field of mass spectrometry when the country needed his expertise most.
Frank R. Nissel recounts his upbringing and multi-lingual education in Berlin, Germany and Egypt during the rise of Hilter’s regime. He later earned his M.S. in chemical engineering at the Virginia Polytechnic Institute in 1946, and eventually pursued a successful career at Union Carbide Corporation and then as co-founder of Prodex Corporation and Welex. Nissel used his mechanical instincts to revolutionize plastics machinery by making it more efficient and less expensive than its competitors, and in time was honored membership into the Plastics Hall of Fame.
Donald Noyces comments on his childhood in Iowa, his years at Grinnell College, his experience at Columbia University as a graduate student, and his position at the University of California at Berkeley. Noyce also discusses the faculty, the chemistry administration, the changing atmosphere with respect to organic chemistry, his research, and his graduate students. Finally, he discusses the development of physical organic chemistry from the turn of the century to 1980.
George A. Olah reflects on winning the 1994 Nobel Prize in chemistry and discusses his upbringing in Budapest, Hungary, where he earned a Ph.D. in organic chemistry from the Technical University of Budapest. With the collapse of the Iron Wall, Olah and his family eventually immigrated to Ontario, Canada where he became a research scientist at the Dow Chemical Company but later became a professor at Western Reserve University. Olah was instrumental in the merging of Western Reserve University and Case Institute of Technology, forming Case Western Reserve University, but eventually left to become director of the Loker Hydrocarbon Research Institute.
Miguel A. Ondetti starts his interview by describing his upbringing in Argentina, where he was broadly trained in chemistry at the University of Buenos Aires and offered a Ph.D. scholarship and a research opportunity at The Squibb Institute. Ondetti eventually relocated to the U.S. in New Jersey and worked in the peptide synthesis field and pharmaceutical research, while collaborating with scientists in both industry and academia during his career.
Paul Oreffice describes his interests in entering a commercial career and his career at Dow, reflecting on the development of Dow International and Dow in general as a place for world innovation in plant engineering and product development. Oreffice also offers his views on environmental concerns and government regulations. Oreffice also discusses the chemical industry and Dow in light of industry changes, such as internationalization and consolidation.
Donald Othmer discusses his upbringing in Omaha, Nebraska, his studies at the Armour Institute, the University of Nebraska, and the University of Michigan, and his experience at Eastman Kodak and Poly Tech. Othmer also recounts his adventures in Burma, his association with the Government during World War II, the inception of the Encyclopedia of Chemical technology, and the Chemists’ Club.
Rudolph Pariser’s life has been significantly shaped by the historical events of the 20th century, from being born in China since his mother found refuge there during Russian Revolution while his father escaped from his Russian captives, to being taught in Tokyo as a result of the Japanese invasion of China, and eventually permanently relocating to California due to the attack on Pearl Harbor. Pariser continued his education at the University of California at Berkeley, earning his degree in chemical technology there and later his Ph.D. in physical chemistry at the University of Minnesota after his military service. Pariser then started a long and successful career at DuPont, originally as a Research Chemist but eventually rising through the ranks of research management owing to his contribution to the development of PPP theory; DuPont recognized Pariser for his technical achievement by awarding him the Lavoisier Medal in 2003.
After his formative years Ogden, Utah, Robert W. Parry attended Weber College but earned his B.S. from Utah State University, his M.S. from Cornell University, and his Ph.D. from the University of Illinois. Parry’s career includes performing research for the United States Department of Agriculture Forest Service, and positions at E. I. du Pont de Nemours and Company, the Munitions Development Laboratory at the University of Illinois, the University of Michigan, and the University of Utah. Later, Parry became involved with the Gordon Research Conferences [GRC], serving as conference chairman, an executive committee member, and chairman of the board of directors.
Linus Pauling traces his interest in science since his formative years, from gathering laboratory equipment and conducting chemistry experiments in his home, working in his high school’s chemistry laboratory, to supporting himself during his undergraduate years by tending to the chemistry department stockroom at Oregon State Agricultural College. As a graduate student at Caltech, Pauling was awarded a Guggenheim Fellowship to study in Zurich, where he later developed the theory of the three-electron bond.
Roy Plunkett discusses his upbringing, his family ties to the Church of the Brethren, his undergraduate studies in chemistry at Manchester College, his graduate work in carbohydrate chemistry at Ohio State University, and his friendship with Paul Flory. Plunkett eventually started to work for DuPont where he began synthesis of tetrafluoroethylene, which was later central to his pioneer work with Teflon.
Vladimir Prelog reflects on his long and distinguished career as an organic chemist, from his formative years in Yugoslavia, his doctoral studies in Prague, his academic involvement at the Technical Faculty of the University of Zagreb, to his research at the Swiss Federal Institute of Technology (ETH). At ETH, Prelog has worked with the chemistry of natural products and stereochemistry while collaborating with Cahn and Ingold to create the CIP system for defining absolute configuration.
Charles Price discusses his career as a chemist, from his undergraduate studies at Swarthmore College, his graduate work at Harvard University, his faculty appointments, to his research for the National Defense Research Committee during World War II. Price played an influential role as chairman of the department of chemistry at the University of Notre Dame and then later at University of Pennsylvania, while he also conducted research in physical organic chemistry.
Malcolm Pruitt recounts his early life in Texas and his struggles to complete his undergraduate education during the Depression. As a control chemist at Dow, Pruitt began his extensive studies of the ionic polymerization of cyclic oxide monomers and eventually moved into senior research management. Pruitt also reflects on his initiatory role in the formation of the Chemical Industry Institute of Toxicology and the Council for Chemical Research.
In this second interview, Malcolm Pruitt reflects on the history and successes of the Council for Chemical Research, describing its origins as deriving from his concern for the poor cooperation between university and industry, thus causing Pruitt to establish a task force which led to the founding of the Council. Pruitt also discusses the American Chemical Society.
George Rathmann discusses his upbringing in Milwaukee, Wisconsin, his undergraduate work in physical chemistry at Northwestern University, and later his graduate studies in physical chemistry at Princeton University. Rathmann has a successful industrious career, from working as a research chemist at 3M Company to acting as Vice-President of Research and Development at Abbott Laboratories, where he became greatly interested in recombinant DNA. Later in his career, Rathmann became more involved in the world of biotechnology and biotech companies.
Mark A. Ratner discusses his upbringing in Cleveland, Ohio, his undergraduate years at Harvard University, his graduate studies at Northwestern University, and his postdoctoral fellowship in Denmark and Munich. Afterwards, Ratner began working at New York University while exploring molecular electronics, but returned to Northwestern as a faculty member in the Chemistry Department. Ratner also reflects on his collaborations with IBM and DARPA, his experiences as organizing chair and a member of the board of directors for the Gordon Research Conferences (GRC), and on the future of nanotechnology.
Harold J. Read describes his family background and his upbringing in Illinois, where he also earned his B.S. and M.A. from the University of Illinois but Read later relocated to the University of Pennsylvania where his Ph.D. research brought him into the area of metallurgy. Read also worked for the Mellon Institute where his metal-work eventually led to equipment design and manufacturing prototypes for the Manhattan Project. Read was also greatly involved in the Electrochemical Society, eventually becoming its President while overlooking its publications.
Charles Reed discusses his upbringing in Findlay, Ohio, later earning his B.S. in chemistry from the Case School of Applied Science but pursued a D.Sc. in both chemistry and chemical engineering at the Massachusetts Institute of Technology. While teaching as an assistant professor, Reed also began to consult for various companies and later started a long career at the General Electric Company. In time, Reed gradually moved up the management ladder as he worked with various materials, like organosilicon polymers, phenolic laminates, the commercial development of synthetic diamonds, and the development of both polycarbonates and polyphenylene oxide.
Elsa Reichmanis discusses her family’s immigration to the United States and her childhood in Syracuse, New York, where she also obtained her B.S. and Ph.D. in chemistry from Syracuse University. Later, Reichmanis took a technical staff position at AT&T Bell Laboratories, which is currently known as Bell Labs, Lucent Technologies, and eventually she was promoted to director. Reichmanis describes her work, which involves photonic research and deep-UV lithography, while also offering her views on Valerie J. Kuck’s research on women in chemistry, the definition of innovation, and the future of chemistry.
Tadeus Reichstein discusses his long and distinguished career as an organic chemist, recalling his early education in Germany and Switzerland and eventually coming to work at the Swiss Federal Institute of Technology (ETH). Later, Reichstein moved to the Pharmaceutical Institute at Basel, where he began work in Vitamin C synthesis, cortisone, and other adrenal hormones and glycosides, all of which led to his Nobel Prize in 1950.
After studying chemistry at the University of Idaho, Malcolm Renfrew joined George Glockler at Minnesota for research on Raman spectroscopy but later joined Arlington laboratories of du Pont where he became involved in plastics development and Teflon. Renfrew also expresses an interest in health and safety in the chemical environment as he reflects on his career in industry, which includes his ascension through the research management ladder at General Mills and Spencer Kellogg. Renfrew eventually returned to his alma mater to teach and lead the physical science department.
Francis O. Rice discusses his upbringing in England, his studies at Princeton, his teaching career at New York University, and his research and administrative activities at Johns Hopkins University and the Catholic University of America. Rice also recounts his theory on free radicals and assesses the place of science in Catholic universities and an explanation of the Laidler-ADX controversy of the mid 1950's.
John Roberts discusses his upbringing and the impact of Caltech on his interests in chemistry, and goes to describe his studies at UCLA, his brief time at Penn State, and his research at Harvard on the National Research Council Fellowship. Having become acquainted with Cope and other faculty members at MIT, Roberts eventually left MIT for a position at Caltech.
Ivan Maxwell Robinson discusses his upbringing in Nova Scotia, eventually earning a bachelor’s degree in chemistry from Acadia University, a master’s degree from the University of Toronto, and his Ph.D. from Purdue University. Afterwards, Robinson led a successful career at DuPont, as both a research chemist and a supervisor, accredited with chemical innovations like coordination polymerization and copolymers of ethylene-sulfur dioxide. Robinson later joined Indiana University as a visiting scientist, taught genealogy at the Academy of Lifelong Learning, and was awarded the Lavoisier Medal for Technical Achievement.
Robert Robson discusses his upbringing in South Dakota, his involvement with the Army, his interests in electronics, and his involvement with the electronics and semiconductor industries. Robson describes his employment at Farnsworth Electronics Incorporated, Fairchild Semiconductor Corporation, Amelco, Teledyne, Intersil, and Microma. Robson also discusses his interactions with Robert Noyce, Gordon Moore, Andrew Grove and his friendship with Gordon and Betty Moore.
Eugene G. Rochow discusses his family background in Germany, his upbringing in New Jersey, and his early interests in electricity and silicon which led him to pursue degrees in chemistry at Cornell University where he worked as an assistant for Louis M. Dennis and Alfred Stock. Rochow has an extensive career in silicone production, including ethyl phenyl silicone and methyl silicone, and research on nuclear fission as a source of domestic energy but later resigned from this work because of his Quaker beliefs. Rochow also comments on his teaching at Harvard University and his Perkin Medal.
Arthur Rock discusses his life, including his service in the United States Army during World War II, his undergraduate years at Syracuse University, and his graduate studies at Harvard Business School. Rock worked on Wall Street when he discovered his interest in business technology, eventually working to establish technological companies such as General Transistor and later became involved in venture capitalism and semiconductor firms. Rock reflects on the successes of his firms, Davis & Rock and Teledyne Technologies, and comments on the growing connection between semiconductors and computers.
Robert Roland describes his family background and upbringing in Upper Darby, PA, as well as his education at Villanova University and the University of Pennsylvania School of Law. Roland also reflects on his career in the U.S. Navy as General Counsel and Contract Administrator, and his appointment as president of the Chemical Manufacturers Association [CMA]. Roland discusses his role in developing the industry's standards for safety, health, the environment, management training, and finally the industry’s future.
George Rosenkranz was born in Budapest, Hungary and studied chemical engineering at the Swiss Federal Institute of Technology. While en-route to Ecuador to assume an academic position at the University of Quito, Rosenkranz decided to stay in Havana and eventually started a career in industry, most notably at Syntex Corporation where he climbed the managerial ranks to CEO. Rosenkranz concludes the interview with a discussion of Syntex’s growth and future endeavors.
James Roth recounts his formative yeas at the Bronx High School of Science in Bronx, New York, his early interests in research and physical chemistry, and his service in Iwo Jima. Roth reflects on his career in industry, from his work on solid propellants and photochemical smog at the Franklin Institute, his safe production of synthetic rubber, and his research on heterogeneous catalyst and homogeneous catalysis at Monsanto Company. Roth also discusses a successful patent process, the learning curve for developing technology, the need for empowerment of chemists, and the chemical industry, its future, and the industrial parameters chemists need to achieve their full potential.
Louis Rubens discusses his early life in Escanaba, Michigan, the development of his interests in mathematics and chemistry, and his difficulties in finishing his studies when Jordan College closed due to financial difficulties, leaving Rubens to earn only an associate’s degree. Unable to transfer to another institution, Rubens took a position at Dow and in time rose through the ranks of research, working on the stabilization and impact enhancement of polystyrene, the production of co-polymers, and the development of the composite foam system. Rubens also comments on the importance of management support for research and the future of the foam industry.
Irvin I. Rubin discusses his career in the plastics industry, working in a wide range of positions such as a consultant, Chief Shift Scientist, and Plant Manager at various companies. After working at Robinson Plastics Corporations, Montrose Chemical Company, and Columbia Plastic Products Manufacturing Corporations, Rubin eventually became owner of Robinson Plastics and founded RLR Industries, Inc.. Throughout his career, Rubin has been dedicated to the dissemination of plastics education, and now in retirement, he finds himself working toward the preservation of the rich history of the revolutionary plastics industry.
Audrey Rust discusses her love of Nature and her work with the Peninsula Open Space Trust [POST], and how the organization has developed and expanded since she first began. Rust also accredits POST’s success to the integral involvement of Gordon and Betty Moore and the support of the Moore Foundation. Rust also sees a bold future ahead for POST and details an interesting method for preservation through personal relationships, creative funding, and an ambitious but detailed plan.
Whitson Sadler, who was born in Bristol, Tennessee, discusses his early life in various places due to his father’s work relocations, eventually earning a degree in economics at Sewanee, the University of the South, and then enlisting in the U.S. Navy. After his service, Sadler graduated from the Harvard Business School, and began to work at Lazard Frères & Co. but ultimately left to become vice chairman and CEO of Solvay America. Sadler figured prominently in the Soltex Polymer Corporation board and the Chemical Manufacturers Association, and Solvay America prospered under his leadership before he retired.
Lewis Sarett begins his oral history interview by telling of his early life in Wisconsin and Illinois, the influence of his father, and some of his experience in college and graduate school. He then turns to his first assignment at Merck, the synthesis of cortisone. This is followed by a discussion of the efforts to discover a use for cortisone, the development of an economically viable synthesis of cortisone, and finally, the efforts to supply cortisone for public use. The next section of the interview deals with his movement into managerial positions, and this is followed by a discussion of a number of drugs developed under his direction, including Decadron, Amprol, Thibenzol, Indocin, Dolobid, and Clinoril. Interspersed in the interview are comments on the Merck organization and on the various presidents, research directors, and colleagues with whom he worked. A significant section deals with his accomplishments as President of Merck, Sharp and Dohme Research Laboratories and as Vice President for Science and Technology.
In this interview John Schaefgen begins with his family history and early life in Gross Point, Illinois. He then discusses the development of his interest in science, and describes his education, including his professors and fellow students at Northwestern University and Ohio State University. In the central portion of the interview, Schaefgen considers his association with Paul Flory at the Goodyear Tire and Rubber Company and recalls his move to the Pioneering Research Laboratory at Du Pont. He then describes his interests and accomplishments in polymer chemistry. The interview concludes with a discussion of his colleagues, professional society activities, and views on the characteristics of innovative research.
Harold Scheraga starts his oral history interview by recalling his childhood in Monticello, New York and then in Brooklyn, where he attended Brooklyn Boys High School, where he was attracted to Latin and mathematics. Scheraga decided to concentrate on chemistry when he began attending the City College of New York. Scheraga was offered a graduate position at Duke University, where the chemistry department was chaired by Paul Gross, himself a CCNY graduate. Along with his graduate research on the Kerr effect, Scheraga contributed to the wartime projects on the frangible bullet and on gas-phase halogenation. Scheraga consolidated his growing interest in biochemical areas by a postdoctoral year at Harvard. From there, he was appointed as an instructor in the chemistry department at Cornell, where he has spent the rest of his career, including a period (1960-1967) as chairman. During the 1970s, he was also a visiting professor at the Weizmann Institute. Scheraga describes the development of his research activities including the hydrodynamic properties of polymer solutions, which then led to his extensive work on protein structure and function. International collaboration has always been important to Scheraga, and he details his sabbaticals at the Carlsberg laboratory and his later association with the Weizmann Institute.
Warren G. Schlinger begins his oral history interview by tracing his family heritageand discussing his introduction to chemistry: a Gilbert Chemistry Set owned by a friend. While a young man, Schlinger began to attend public lectures at California Institute of Technology [Caltech] where he eventually was accepted and completed his education, earning a doctorate in mechanical and chemical engineering. Schlinger spent the entirety of his career at the research lab in Montebello, California. Schlinger recollects the history of Texaco. He shares aspects of his private life—stories of meeting his wife Katharine, the successes of their three children, and the Warren and Katharine Schlinger Foundation that the Schlinger family established and manages.
Helga Schmid begins her oral history interview by discussing her interest in information sciences. After meeting her husband, she relocated to Belgium and she began training to be a computer programmer. In 1969 she joined the International Atomic Energy Agency [IAEA]. While there Schmid helped publish the first INIS [International Nuclear Information System] Atomindex. In 1975, she moved on to AGRIS [International Information System for the Agricultural Sciences and Technology]. In 2000, she retired, after rising through the organization to become the head of AGRIS Processing. Schmid concludes the interview by discussing briefly her knowledge of AGRIS in its present state and sharing some of the positive experiences she had throughout her career as a computer analyst.
Herman Schroeder starts his oral history interview by discussing his family background and growing up in Brooklyn. After an early graduation he entered Harvard, Schroeder set his mind on chemistry, in part influenced by his tutor, John Edsall. Staying on at Harvard for graduate study in the physical aspects of organic chemistry, Herman Schroeder investigated the rates and mechanism of large ring closure. Arriving at the Du Pont Experimental Station in 1938, Schroeder outlines his initial assignments and his important wartime research on tire cord adhesives. Transferring to the Jackson Laboratories, he worked on both dyestuff synthesis and the mechanisms of dyeing synthetic fibers, as well as obtaining experience in production control. Moving to greater research responsibilities, Schroeder played an important role in the development of several polymers, which is described towards the end of the first interview. The interview concludes with some of Schroeder's retirement activities and a full account of the Louisville plant explosion.
Claire K. Schultz begins her oral history interview by discussing her childhood in south central Pennsylvania. Inspired by her grandmother's belief in her abilities, Schultz graduated from Juniata College in three years, and went on to medical school after a year of work in the Philadelphia State Hospital. Forced to leave medical school by the birth of her first child, Schultz went on to a job as a research assistant at the Wistar Institute of Anatomy and Biology, and then to Merck Sharp & Dohme, where she first became interested in information retrieval . Schultz campaigned to get an IBM 101 system. Schultz wrote her master's thesis at Drexel University in Library Science on the MSD library system. As one of the pioneer documentalists, Schultz worked at Sperry Rand Univac Corporation, and later at the Institute for the Advancement of Medical Communication. Schultz closes her interview with anecdotes about her post-retirement hobbies, and her work as a computer consultant in a local elementary school.
Harry Sello begins his oral history interview with a review of his childhood which included emigration from Russia. Sello became interested in chemistry and completed undergraduate work in organic chemistry before applying this knowledge to his Ph.D. research at the University of Missouri. William Shockley recruited him to Shockley Semiconductor Laboratory. At Shockley and then at Fairchild Semiconductor, Sello worked on a variety of chemical aspects of semiconductor manufacturing. Sello concentrated on the transfer of silicon transistor technology to Societa Generale Semiconduttore in Italy, negotiating cultural and industrial boundaries. In 1980, he began Harry Sello Associates after Fairchild Semiconductor was sold to Schlumberger Exploration. Sello concludes the interview with reflections on his current role as an expert witness.
Irving Shapiro begins his oral history interview by discussing his parents' backgrounds and the influence of his father's interest in law and accounting. He describes the path which took him from a private practice in Minneapolis, to the U.S. Office of Price Administration during WWII, to the U.S. Department of Justice's Criminal Division, where his highly publicized work prosecuting eleven Communists brought him to the attention of the DuPont legal department. Shapiro recalls how his appointment as a DuPont General Counsel heralded a new era for the company in terms of its attitude toward Jews. In considering his advancement to CEO, Shapiro emphasizes his relationships with Walter Carpenter, Crawford Greenewalt, and Charles McCoy, as well as his work with the industrial departments and in disputes involving General Motors, Ford Motors, and Ralph Nader. Shapiro explains how his management and communication practices impacted on public and internal views of DuPont and allowed talented employees to blossom. Finally, Shapiro describes his post-DuPont work.
Phillip A. Sharp’s oral history interview begins with a discussion of his family, then discusses his childhood in Falmouth, Kentucky. He received his B.A. in chemistry and math from Union College in 1966. Then, Sharp went on to earn his Ph.D. in chemistry from the University of Illinois. Sharp went to Caltech initially for his post-doctoral studies, but after three years he joined James Watson’s virology lab at the Cold Spring Harbor Laboratory to learn more about cell biology. In 1974, Sharp accepted an invitation at the newly created Center for Cancer Research at MIT. In 1977, Sharp and Richard J. Roberts discovered split genes, which led to the discovery of RNA splicing for which they shared the Nobel Prize in 1993. Sharp eventually became head of the biology department and director of the Center for Cancer Research. Moreover, Sharp was instrumental in the establishment of one of the first biotech companies, Genentech, Inc and he helped establish Biogen, Inc. Sharp concludes the interview with reflections on the significance of the neuroscience research community that currently surrounds and includes Harvard University.
James N. Shoolery begins his oral history interview by discussing growing up during the Depression and his early interests in chemistry. His education at University of California, Berkeley was interrupted by World War II, during which he served in the U.S. Navy. Shoolery decided to pursue a Ph.D. in chemistry at the California Institute of Technology and worked under Don M. Yost on microwave spectroscopy. Shoolery wrote to Varian Associates, Inc. about the possibility of his coming to work there on applications for nuclear magnetic resonance; he spent nearly forty years working there.
Kenneth F. Siebel begins his oral history interview with a discussion of his undergraduate studies at the University of Wisconsin. Shortly fter earning his MBA Siebel formed his own investment banking firm Robertson, Coleman, and Siebel in 1969. While building it into a highly successful firm, he underwrote many now famous technology companies. The conversation then turns to Siebel’s commitment to conservation and his involvement in Conservation International. It was through Conservation International that Siebel became friends with another board member, Gordon E. Moore. Finally, the interview focuses on the Gordon and Betty Moore Foundation, from its launch through Siebel’s presentday involvement as a board member.
Rudolf Signer starts his oral history interview by talking about his family background in Switzerland and his study of chemistry at ETH followed, Graduate research on polyoxymethylenes with Staudinger introduced Signer to the young field of polymer chemistry. A Rockefeller Fellowship enabled Signer to work with Svedberg at Uppsala and with Bragg at Manchester. Signer concludes with recollections of a post-war tour of the United States and of his memories of Staudinger.
Howard E. Simmons, Jr. begins his oral history interview describing his family history. Drawn to MIT because of its post-WWII reputation, he studied chemistry and conducted research under Jack D. Roberts. Earning a B.S. in 1951, he continued at MIT with Roberts and Arthur C. Cope, completing a Ph.D.. Simmons became a member of research staff in the Central Research Department [CRD] at DuPont in 1954. His early studies on structure and mechanisms led to the Simmons-Smith reaction, the first general synthesis of cyclopropanes, and a related patent. He closes with a description of his sons' DuPont careers and comments on scientific misconduct.
In this interview, Dr. Sinfelt recalls his childhood during the Depression, his early education, and his interest in mathematics. Sinfelt describes the University of Illinois chemistry department under Roger Adams and his own studies under Harry Drickamer. Moving on to the Exxon Research and Engineering Company, Sinfelt describes how his research on catalytic reaction kinetics meshed with Exxon's increased emphasis on basic research and how this led to his discovery of bimetallic clusters and the success of the platinum-iridium catalyst.
Cedomir Sliepcevich begins his oral history interview with a description of his family and early years in Montana. After transferring to the University of Michigan for chemical engineering, he received his B.S., M.S. and Ph.D.. While a graduate student, Sliepcevich studied thermodynamics under George Granger Brown. During World War II, he worked on a National Defense Research Council classified project and worked as a consultant for the U.S. Army V-2 rocket test program. In 1955, he joined the faculty of the University of Oklahoma as Professor and Chairman of Chemical Engineering. Sliepcevich was instrumental in establishing the Flame Dynamics Laboratory. He founded his own firm, University Engineers, Inc., in 1963, which specialized in fire protection systems for liquid natural gas.
Interview is not available on audiocassette.
Emil Smith begins his oral history interview by discussing his undergraduate study of biology at Columbia University. He received a Guggenheim fellowship to Cambridge University until the outbreak of World War II. Smith accepted a position at the University of Utah and later University of California, Los Angeles. Smith describes his research interests: peptidases, immunoglobulins, cytochromes, subtilisin, histones, and glutamate dehydrogenases.
Henry I. Smith begins his oral history interview describing his childhood in New Jersey and his early aptitude in science. After obtaining an undergraduate degree at Holy Cross, Smith earned a master's degree and Ph.D. at Boston College. Smith established a Submicron Structures Laboratory with MIT funding. He concludes the interview by offering some insights on the semiconductor industry, and how to best develop a research culture that stimulates innovation.
Charles P. Smyth begins his oral history interview discussing his undergraduate education at Princeton and his tenure at the National Bureau of Standards and the Chemical Warfare Service during the First World War. Smyth discusses his Ph.D. training at Harvard and his return to Princeton as an instructor. His work on dipole moment lead to an important discovery about benzene ring structure that proved correct the Kekulé model. The interview ends with a discussion of Smyth's work on deuterium and the Manhattan Project. In the appendix, "Scientist in a Jeep," Smyth narrates a detailed account of his work in the U.S., France and Germany with the ALSOS Mission.
Harold Sorgenti begins his oral history interview discussing his family background and childhood in New York City College. He found a job after college at Battelle Memorial Institute, and while working received his masters in chemical engineering from Ohio State University. He joined the Atlantic Richfield Oil Corporation [ARCO], where he was quickly promoted into management. After a long career with ARCO Sorgenti undertook entrepreneurial ventures. Sorgenti ends the interview by reflecting on his philanthropic involvements and family life.
This interview describes Dr. Edgar W. Spanagel's life, focusing on his contributions to nylon research at the DuPont Company. Spanagel grew up in Wisconsin and attended Lawrence College. Spanagel secured a scholarship to McGill University, where he worked under Charles F. H. Allen. Spanagel, completing his Ph.D. in 1933. He accepted a position as a DuPont Research Chemist in Wallace Carothers' polymer group.
Jack B. St. Clair begins his oral history with a description of his childhood in Virginia and Louisiana. After Tulane University, he accepted a position as technical trainee, gas department, at Shell Oil Company's Houston, Texas refinery. Despite the lack of formal training, St. Clair readily accepted increasing responsibilities, recognizing he was being groomed for higher management After briefly serving as Houston refinery superintendent, he reluctantly moved to England as Shell International Petroleum Company, North American Division head and later the New York Head Office general manager and was quickly promoted to Shell Chemical Company president in 1967.
William S. Stavropoulos begins his oral history interview with a discussion of his family, his childhood, and education in Bridgehampton, New York. In 1961, Stavropoulos attended Fordham University, where he received a B.S. in pharmacy. Having received his Ph.D. in medical chemistry from the University of Washington, Stavropoulos was hired at Dow Chemical as a research chemist. In 1980, he became Commercial Vice President of Dow Latin America. In 1995, Mr. Stavropoulos was named CEO of Dow Chemical Company. Mr. Stavropoulos concludes the interview with his thoughts on winning the American Chemical Industry Medal in 2001.
Richard Stein starts his oral history interview by reflecting Brooklyn Technical High School and Brooklyn Polytechnic Institute. Stein then accepted a Textile Foundation fellowship at Princeton University. Stein was appointed to an assistant professorship in the chemistry department of the University of Massachusetts at Amherst and the Polymer Research Institute.
Leo H. Sternbach begins his oral history interview with a discussion of his family and childhood in Austria and Poland during the First World War. He enrolled in a Ph.D. program in organic chemistry at the Swiss Federal Institute. After beginning work with Hoffmann-La Roche in Basel, increasing pressure to leave Switzerland. Sternbach descrribes the benzodiazepine research.
Walter Stockmayer first became interested in the mathematical aspects of physical chemistry as an undergraduate at MIT and then a Rhodes Scholarship brought him to Oxford, where he undertook gas kinetics research. Stockmayer earned a Ph.D.at MIT. Much of the interview disscusses Stockmayer's polymer research at MIT and later Dartmouth.
Gilbert Stork begins his oral history interview with a description of his childhood and family background in Paris, moving to the United States in 1939, and his studies in chemistry at the University of Florida. While earning his Ph.D. at Wisconsin, synthesis related to quinine and stereochemical control in synthesis highlighted Stork's graduate work and early career. He joined the faculty of Columbia University as an associate professor, where he continued his organic synthesis research.
Carlyle B. Storm begins the interview describing his family background and becoming a professor of chemistry at Howard University. In the early 1980s, he accepted a position at Los Alamos National Laboratory, where he researched conventional high explosives as chief scientist. Much of the interview focuses on Storm's involvement with the Gordon Research Conferences and becoming director in 1993.
Andrew Streitwieser begins his oral history interview by describing his family, early education, and education at Columbia University, stressing the influence of William Doering upon his work. Finally, Streitwieser describes the emergence of organic chemistry at the University of California, Berkeley, and his own ambitious and productive research program there.
Michael Szwarc begins with his early interest in science while growing up in Poland, leading to his studies at the Warsaw Polytechnic Institute. Szwarc next describes his experiences from 1935, when he emigrated to Israel, until his move to the University of Manchester in 1945 where he worked with Michael Polanyi on polymerization. He Subsequently, he held a professorship at SUNY, Syracuse.
Herbert Tabor begins his interview discussing growing up during the Depression in Manhattan, New York,. After spending two years at City College, he transferred to Harvard University, where he graduated with an A.B. in biochemical science in 1937. He earned his M.D. then entered the Public Health Service of the National Institutes of Health (NIH), studying electrolyte changes in burn and shock victims. Tabor also discusses his work on the editorial board of the Journal of Biological Chemistry.
Henry Taube begins his oral history discussing his chemistry career at Cornell University, University of California, Berkeley, and the University of Chicago. Taube also discusses his research on mass spectrometry with Frank H. Westheimer and Willard H. Libby.
The oral history begins with Harold E. Thayer recalling growing up in Rochester, New York, during the Depression, and the decision to attend MIT, where he pursued a course combining chemical engineering and business administration. He describes working at American Cyanamid and Mallinckrodt Chemical Works, where he was involved in the War Production Board and the Manhattan District's uranium processing.The interview focuses on Thayer's long-standing outspokenness in management.
In this oral history interview Max Tishler reminisces about his family, early schooling, undergraduate education at Tufts, graduate and postgraduate work at Harvard, and the state of chemistry in the 1930s. The major portion of the interview contains Tishler's impressions of the research and development undertaken by Merck & Co. in the 1940s, 1950s, and 1960s, and of his role in that activity. Tishler ends the interview by discussing his current activities at Wesleyan and presenting his views about the future direction of chemistry.
Charles Tobias begins his oral history interview with a description of his family in Hungary and education at the University of Technical Sciences in Budapest while comparing the U.S. and Hungarian systems. Tobias explains his wartime experiences in Hungary and the struggle to reach the U.S.. He spends a large portion of the interview discussing the Electrochemical Society.
Jacques Tocatlian was born in Egypt, where he attended a French secondary school and then studied industrial chemistry. After work in the plastics division at Monsanto, Tocatlian accepted a position at the Food and Machinery Corporation as a literature chemist, and worked on the first Selective Dissemination of Information [SDI] experiment. Tocatlian pursued a master’s in information and library science. Throughout the interview, Tocatlian discusses the international standardization issues of UNESCO and the organization of UNISIST.
Claudio Todeschini received his first degree in civil engineering from the University of Capetown, South Africa and later went to the United States and became a Ph.D. research assistant at the University of Illinois at Urbana-Champaign. Todeschini accepted a professorship at the University of Maryland in 1966, and a year later, he became a part-time researcher at Massachusetts Institute of Technology and the U.S. Department of Commerce, working on information systems, retrieval, and terminological relationships. He joined the International Atomic Energy Agency.
Haldor Topsøe begins his oral history discussing of his early life in Denmark, and his involvement in his father’s Samfundshjælpen, which taught him the importance of collaboration between social classes. As a chemical engineer, and later, a businessman, Topsøe gained an interest in the relationship between economics and science, particularly catalysis. Topsøe further discusses the transfer of technology to India and the Third World, and the impact of the Green Revolution on chemical industries.
Howard S. Turner begins his oral history discussing his early interests in chemistry before receiving his undergraduate degree in chemistry from Swarthmore College. Turner earned his Ph.D. from Massachusetts Institute of Technology [MIT] in 1936 and before starting his career with E. I. DuPont de Nemours and Company working in the Experimental Station in Wilmington, Delaware., where he researched polymer 66, nylon, and Corfam. In 1947, after eleven years with DuPont, Turner left the company and in 1965, Turner left J&L to become president of Turner Construction Company, in New York. The company, started in 1902 by his uncle, was among the top construction firms in the country.
Leslie L. Vadasz begins the oral history interview describing his childhood in Budapest during World War II. He began an undergraduate mechanical engineering program before continuing in solid state physics at McGill University. Vadasz joined Fairchild Semiconductor, where he helped develop the silicon gate process and later at Intel Corporationhe researched erasable programmable read-only memory. Vadasz recounts his role as general manager of the microcomputer components division and its interactions with the semiconductor industry. Vadasz concludes the interview with remarks on the importance of technical knowledge in both developmental and managerial work.
Edwin J. Vandenberg begins his oral history discussing his early interests in science and the decision to focus on chemistry at Stevens Institute of Technology. He began his career at Hercules working on paper chemistry, where he contributed to the understanding of paper sizing as a colloid phenomenon. After working on World War II production of smokeless powder, Vandenberg returned to the Hercules research, working on a wide range of polymer syntheses. The interview concludes with an account of his retirement activities at Arizona State University, and reflections on his family, colleagues and ACS activities.
Inder Verma begins his oral history interview by discussing how he came to leave the Weizmann Institute of Science and join David Baltimore’s laboratory at MIT . Verma discusses his early research on reverse transcriptase and RNA, establishing himself with his co-workers, and his impressions of Baltimore. Verma provides an alternate view to some of the political turmoil that Charles N. Cole discusses in his interview because as a foreign student, Verma had a different opinion of the Vietnam War and the anti-war demonstrations. Verma concludes his interview with some thoughts about his research and its impact on cancer research.
Joint interview with Charles N. Cole.
Ernest Volwiler begins his oral history interview discussing his early years in Ohio, college at Miami University, and his early interests in chemistry. He attended the University of Illinois for his Ph.D., wheer he worked with Roger Adams. His long career with Abbott Laboratories started in organic synthesis, including some plant production responsibilities. After World War II, Volwiler was a member of the pharmaceutics investigating team sent to Germany. Post-war advancement led Volwiler to the presidency of Abbott Laboratories, and he discusses how he trimmed the production line and initiated development into new areas. His ACS activities culminated in his election as Society President in 1950.
Frederick Wall begins his oral history discussing his family background and childhood in Minnesota, attending the University of Minnesota, and studying chemistry and chemical engineering. After a stint at Caltech with Pauling, Wall moved back to the University of Minnesota and earning his Ph.D. in 1935. At the University of Illinois he worked on infrared spectroscopy, gradually becoming interested in polymers. During World War II he volunteered to work on the rubber problem. In 1963, Wall moved to the University of California, Santa Barbara and later the University of California, San Diego. In 1969, he became executive director of the American Chemical Society (ACS), but soon rejoined academia, becoming professor of chemistry at Rice University.
Cheves Walling begins his oral history interview by describing his family and education at Harvard and the University of Chicago, stressing the major review article on the peroxide effect that he and Frank Mayo wrote in 1940. Walling next examines the research that he undertook at DuPont, U.S. Rubber, and Lever Brothers, emphasizing the work that he did before 1950 at U.S. Rubber. Finally, Walling examines his academic career at Columbia and the University of Utah. Throughout the interview he reflects upon the emergence and maturation of physical organic chemistry.
John C. Warner begins his oral history interview discussing his family, his high school interest in science. He enrolled in Indiana University in 1915, where he received his A.B. in chemistry in 1919, his M.A. in 1920, and his Ph.D. in 1923. In 1926, he joined the faculty of the Carnegie Institute of Technology, where he spent the rest of his career, rising to become president of in 1950. Warner concludes the interview with a discussion of his family and reflections on his role in the advanced educational development in Southeast Asia and the Middle East.
Earl L. Warrick begins his oral history interview with a description of his childhood, which involved frequent moves between cities, remembering a seventh grade teacher who inspired his interest in chemical engineering by having him build a onetube radio. While at the Carnegie Institute of Technology, Warrick was disappointed by the chemical engineering and switched to physical chemistry, in which he received a master's degree. Warrick describes his experiences at the Mellon Institute, where he developed a glass coating. He received his Sc.D. for a kinetic study carried out almost exclusively on nights and weekends. While at Dow Corning, Warrick helped develop rubber, polymer, and silicone research including the famous "Silly Putty." He mentions the influence of several colleagues, especially McGregor, Collings, Hyde, Bass, and Speier. Warrick concludes by commenting on his position at Saginaw Valley State College, his current writing, and the changes that have occurred in chemistry throughout his career.
James L. Waters begins his oral history interview by discussing his family history and the emigration of his ancestors from England to Massachusetts in 1638. Born in Lincoln, Nebraska in 1925, Waters describes himself as an independent child. During high school, Waters' father was offered a position that took the Waters family to Framingham, Massachusetts. As part of the Navy’s V-12 program, Waters studied at Massachusetts Institute of Technology and Columbia University, before being discharged and transferring to the University of Nebraska. Shortly after accepting a position at Baird Associates Inc.,Waters, decided the time was right to start his own instrumentation company. At just twenty-two, Waters founded James L. Waters, Inc., in his parents’ basement. Waters’ sheer determination to succeed enabled him to overcome the many obstacles that occurred while working on his first instrument, an infrared gas analyzer. Waters founded Waters Associates, Inc. in 1958, and shortly afterwards began to delve into the field of gel permeation chromatography [GPC]. Waters Associates merged with Millipore Inc. in 1977.
Paul Weisz begins his oral history interview by discussing his family background in Austria-Hungary after World War I period, when his family moved to Berlin. Weisz was educated in the Gymnasium, where he developed an interest in physics and chemistry. Weisz attended the Technical University in Berlin and spent his free time in the laboratory of Wolfgang Kohlhoerster at the Institute of Cosmic Radiation Research, where he worked on Geiger counter instrumentation and cosmic ray measurements. Because of Hitler’s rise to power, Weisz arranged an exchange program with Auburn University, earning his B.S. in physics in 1940. At the Bartol Research Foundation in Pennsylvania, Weisz worked on radiation counting and projects relating to the National Research Defense Council. After gaining clearance to do classified work, he moved to the MIT Radiation Laboratory where he helped to develop a long range navigation trainer (Loran). He accepted a position with Mobil Corporation, where he worked on catalysis. In 1966, he completed his Sc.D. at the Eidgenossische Technische Hochschule in Zurich, where he had worked with Heinrich Zollinger on dye chemistry. Weisz concludes the interview by discussing innovation in industry, the importance of interdisciplinary thinking, and his later work on Alzheimer’s Disease and angiogenesis.
In his oral history interview, Frank Westheimer begins discussing his family, his undergraduate days at Dartmouth, and his choice of Harvard for graduate work. He talks about his research with James Conant, Elmer Kohler, and his early interest in biochemistry in the mid-1930s. Westheimer continues with the offer of a position at the University of Chicago from Morris Kharasch. The interview concludes with more discussion of physical organic chemistry, a review of his work on the hydrolysis of phosphate esters and pseudorotation; comments on the future of organic chemistry; and a review of the Westheimer Report, the analysis of American chemistry by the National Academy of Sciences.
Paul A. Wilks, Jr. begins his oral history interview by discussing his early years and family life in Springfield, Massachusetts. After graduating from Springfield Technical High School, Wilks went to Harvard University, where he majored in engineering. In 1945, he began working at Perkin-Elmer, Inc, becoming marketing director in 1952. In 1957, Wilks left Perkin-Elmer and, with Charles W. Warren, founded the Connecticut Instrument Company, a company that manufactured accessories for the infrared industry. Later Wilks formed the Wilks Scientific Corporation, which manufactured a variety of spectroscopy products. Wilks founded the General Analysis Corporation. Wilks retired in 1993 and General Analysis was eventually sold to OI Corporation. Although theoretically retired, Wilks started another company in the 1990s, Wilks Enterprise, Inc. This company continues Wilks’ efforts to produce applicable products based on infrared spectroscopy and other technologies. Wilks concludes the interview with reflections on the state of infrared technology and thoughts about his career.
R. Stanley Williams begins his oral history interview by discussing Sputnik’s influence on his decision to study science. After a positive experience in high school, Williams found himself not as prepared in comparison to his peers at Rice University, where he was mentored in microwave spectroscopy by Professor Robert Curl. After obtaining his undergraduate degree, Williams worked at Hewlett-Packard on photoelectron spectrometers. Williams worked on photoemission while pursing his graduate degree at the University of California, Berkeley. After receiving his Ph.D., Williams accepted a position at Bell Laboratories as staff scientist. Disliking the corporate culture at Bell, Williams moved to University of California, Los Angeles and very quickly built up a large research lab, which studied photoemission, ion scattering, STM, and finally AFM. After the earthquake in 1994 destroyed most of his instruments, Williams returned to HP and started a research initiative that eventually evolved into the Quantum Science Research Laboratory [QSR]: nano electronics; nano photonics; nano mechanics; and nano architecture. Williams concludes the interview by offering his thoughts on outside collaboration and funding, the importance of micro-electro-mechanical systems [MEMS] to HP, and how he views QSR in relations to other research institutions.
J. Lawrence Wilson begins his oral history interview with a discussion of his childhood in Rosedale, Mississippi and education at Culver Military Academy in Culver, Indiana. After high school, he received a Naval Reserves Officer Training Corps scholarship to attend Vanderbilt University, where he majored in mechanical engineering. Wilson graduated in 1958, and he then served in the Navy for several years, stationed in Bermuda. When he returned, Wilson attended Harvard Business School, receiving his M.B.A. in 1963. Two years later, he joined Rohm and Haas Company. Wilson discusses his views on scientific innovation, his time in Europe, and the changes in Rohm and Haas and the chemical industry, in general, over the past three decades. Wilson concludes the interview with a discussion of the chemical industry’s environmental concerns, Rohm and Haas’s acquisition of Morton International, his work with the Chemical Manufacturers Association, and his family.
E. Bright Wilson, Jr. begins his oral history interview with a description of his family, early education, and his undergraduate and graduate studies at Princeton University, where he was inspired by the intellectual atmosphere and affable faculty. After reviewing the curriculum, his senior thesis on quantum mechanics, and his experience at Tuxedo Park, he recalls his years at the California Institute of Technology, where he began work with vibration and group theory. Next, he describes his work at Harvard, focusing on advances in spectroscopy, and his government research at Woods Hole and in Washington, D.C. Wilson concludes with a brief profile of his family and a few remarks on his publications.
William Wishnick begins his oral history interview by describing his parents' careers and the founding of the Wishnick-Tumpeer Chemical Company in 1920. His father's company, now called Witco, expanded with the acquisition of several domestic arid international companies and went public in 1958. After serving in the military and completing his education, Wishnick began working for the company in 1949 until his retirement in 1990. Wishnick discusses company growth, the diversification of product lines, and how the nature of doing business has changed over the years.
Harland G. Wood begins his oral history interview with a brief discussion of his role in the restructuring of Western Reserve University's medical curriculum. He then reflects on his childhood and education, and first interest in chemistry. He chronicles his career in chemistry and molecular biology from his college years through his extensive laboratory research at Iowa State College, where he first developed his concept of the fixation of carbon dioxide by bacteria. Throughout the interview, in addition to discussing research and the influence of various colleagues and associates, he often focuses on the numerous advancements that have occurred during his lifetime and their impact (both positive and negative) on the way laboratory research is conducted. He concludes with his thoughts on the future of science, stressing the importance of continued enthusiasm and motivation in scientists of all ages.
Edgar Woolard begins his oral history interview with a description of his family and childhood years in Washington, North Carolina, where his parents encouraged him to excel in both academic and social environments. Woolard enrolled in North Carolina State University as a nuclear engineering major. In his junior year, he switched his major to industrial engineering, received his B.S. in 1956, and accepted a position at Alcoa in Maryville, Tennessee. Woolard left Alcoa after one year to serve a six-month term in the U.S. Army. Upon his return, he was offered a job at DuPont, where he was shortly promoted into management. Woolard entered DuPont’s Planning Division in 1976, where he oversaw many breakthroughs in DuPont polymers, especially Dacron production. Throughout his career, Woolard helped shape DuPont into a more streamlined and environmentally friendly company. In 1983, under DuPont’s new system, Woolard was given responsibility for three departments: Agricultural Chemicals Division, Medical Division, and Photo Products Division. He served in that capacity for three years before becoming Vice Chairman and Chief Operating Officer, becoming CEO in 1987. Although his tenure was difficult, his efforts proved successful for both DuPont and its employees. For his earnest reorganization of DuPont, Woolard received the Chemical Industry Medal in 1998. Woolard concluded the interview with a discussion of DuPont’s major achievements during his career, retirement, and thoughts on his family.
John Wotiz begins his oral history interview with a description of his family and childhood years in Ostrava, Czechoslovakia, attending Technical University of Prague, and studying chemical engineering. Wotiz and his brother left Czechoslovakia for the United States in 1939. Wotiz received scholarship to attend Furman University, where he completed his B.S. degree in chemistry in 1941. While working towards his Ph.D., Wotiz served in the U.S. Army as a lieutenant in the Chemical Warfare Service. After receiving his Ph.D. in organic chemistry from Ohio State University in 1948, Wotiz accepted an instructor position with the University of Pittsburgh. He left in 1957 to become a research supervisor at Diamond Alkali Company, but he returned to Marshall University in 1962. In 1967, Wotiz assumed the chemistry department chairmanship at Southern Illinois University, . In 1969, Wotiz made an extended study of chemistry education in the Soviet Union under an exchange arrangement between the National Academy of Sciences and the U.S.S.R. Academy of Sciences.
Kurt Wüthrich begins his oral history interview by discussing the emergence of his interest in chemistry during his high school years. He remained interested in the sciences while at University of Basel and divided his time between sports, physics, and chemistry, and in March 1964 he received his Ph.D. in chemistry, doing research with an electron paramagnetic resonance spectrometer [EPR] to study the catalytic action of metal compounds. After receiving his Ph.D., he undertook post-doctoral reserach at University of California, Berkeley on nuclear magnetic resonance spectroscopy. In 1969, he returned to Switzerland to work at Eidgenössische Technische Hochschule Zürich. He concludes his interview by discussing his continued research in nuclear magnetic resonance spectroscopy as a Professor of Biophysics at ETH Zürich and a Professor of Structural Biology at the Scripps Research Institute in La Jolla, California.
Bruno Zimm in his oral history recalls growing up in Woodstock, New York. where he had a growing fascination with science. Zimm undertook both undergraduate and graduate studies at Columbia University, where he recalls faculty, curricula, adn the effect of World War II on the research activities. In 1944, Zimm transferred to Brooklyn Polytechnic Institute to work on a wartime project on the degradation of polyvinyl chloride. Here he started his study of the theory and practice of the light scattering of polymer solutions, which he continued at the University of California, Berkeley. Later, Zimm moved to the General Electric laboratories at Schenectady, where he further developed his studies of dynamic methods for the investigation of polymer solutions. A short time as a visiting professor at Yale University rekindled his interests in biological polymers, especially DNA. At the University of California, San Diego, Zimm continued instrumental research as well as his theoretical interests. The interview closes with Zimm reflecting on the changes in polymer science over the duration of his career, and he comments on educational opportunities in this discipline.