|
My name is Deborah Amato. I am an aerospace engineer at Goddard Space Flight Center. I work on small space instruments doing mechanical, thermal, and systems engineering. My tasks include mechanical design, hardware fabrication, test planning, and instrument integration. I spend a considerable amount of time interfacing with other engineers and scientists making sure the items for which I'm responsible match what they are doing and meet their expectations. My activities vary a great deal from day to day. A typical day might include using three-dimensional design software on my computer to develop and analyze telescope hardware. I might also meet with people who build my designs to discuss any concerns or design changes. Lately I have spent a lot of time doing environmental testing. I write test plans and make arrangements for tests such as thermal vacuum, vibration, and acoustics. I also spend many days working in a clean room assembling instrument hardware and doing optical alignment. I have been able to apply math and science, especially physics, to my daily work. The most exciting thing about my job at NASA is being able to have something I built or worked on fly in space. I also enjoy collaborating with other engineers and scientists to reach a common goal. In some cases building, testing, and launching an instrument may require the efforts a few hundred people. Another advantage of my job is I have been able to learn about astronomy and solar physics by working closely with scientists who study these things. I went to college at the Massachusetts Institute of Technology and graduated in 1994 with a bachelor's degree in astronautical engineering. I am currently going to graduate school part time for a master's degree in aerospace engineering. In school I did well in math and science. Math was my favorite subject. I became interested in the space program in junior high school. I had a personal goal of working for NASA and here I am! I never felt pressured not to go into a math and science based career. In fact, my parents and teachers all encouraged me to pursue my interests and achieve all that I could. I did at times feel intimidated by being only one of a few women in certain classes. More men than women were in my engineering program and I work with many more men than women. I think if you can demonstrate your abilities, you will gain people's respect whether you are a man or a woman. http://quest.arc.nasa.gov/people/bios/women/da.html Hi Everyone! My name is Tahani R. Amer and I am an Aerospace engineer at the NASA Langley Research Center. I work in the Aerodynamic Measurement Branch, in the area of developing instruments and sensors that measure the parameters needed to design new airplanes. I started my college education by going to medical school in Cairo, Egypt; but I changed my major to engineering before even starting school due to getting married at age 17 and moving to the United States. I obtained a two-year associate degree in Science and at the same time I had two lovely children. I went back to school to finish my mechanical engineering degree. In 1992, I received my B.S. I then decided to obtain a masters degree in engineering by going to school part time while working and raising my family. It was very difficult. Therefore, I quit working and went to school full time. I obtained my M.S. and I had my third child. I am still taking courses, as a part-time student, to purse a doctorate degree in engineering. I started working at NASA-Langley in 1992 during my senior year at college. I worked on my senior project in the Computational Fluid Dynamics (CFD) area. By working on this project, I gained valuable experience and I fulfilled my dream to work with scientists and researchers in solving real life problems. It was a real privilege to work with state-of-the-art technology and with researchers who love their work. In 1994, while I was a graduate student, I started working again at NASA Langley in a wind tunnel on an experiment for my master's thesis. It was a valuable experience from both a theoretical and practical point of view. I experienced the excitement of working with large CFD computer codes. I also did such things as climbing up the ceiling of wind tunnel to install a velocity probe. It was great!!! http://quest.arc.nasa.gov/people/bios/women/tra.html My NASA title is "Aerospace Technologist," and my degrees are in Aeronautical Engineering, but I would characterize what I do as "Aeronautical Research Engineer", so take your pick! My specialty is understanding the effects of integrating the propulsion system with the aircraft. I do this by testing airplane models in wind tunnels and simulating the jet engine exhaust with high pressure air. Until recently, most of my work was on military fighter and attack airplanes in the "transonic" speed range, which means near the speed of sound (the speed of sound is about 761 miles per hour at sea level). Now, I'm also testing future supersonic passenger airliners at take-off and landing speeds (around 180 miles per hour). Part of what makes the job of a research engineer so interesting is that it has many phases which require different skills - planning a project, conceptual design of the test and wind tunnel model, testing the model, reporting of the results, and planning follow-up work. At any given time, I'm probably doing some of each of those things on several different projects. I really enjoy the variety that this type of work offers. I've always been interested in airplanes, probably because my father was a flight instructor in World War II and a private pilot afterward. I actually started college intending to get a degree in astronomy, but I discovered that meant working all night, so I switched to aeronautical engineering. The cosmic joke is that the electricity requirements for a large transonic wind tunnel mean working all night as well! I always loved all sorts of science, but I thought of math as "just a tool". My best subject was always English, and I think that it helped me a lot, because good communication, written and verbal, is so important no matter what your job is. Also, being good at English left me the time I needed to work harder on the math. None of the career guidance tests I took in high school said that I should be either an astronomer or an engineer, but I ignored them and did what I wanted to do. However, it wasn't until late high school when I attended an "Engineer's Night" program that the local engineering societies hosted that I discovered there were so many different types of engineering careers. http://quest.arc.nasa.gov/people/bios/women/lsb.htmlBONNIE J. DUNBAR (PH.D.) ASSISTANT DIRECTOR FOR UNIVERSITY RESEARCH & AFFAIRS JOHNSON SPACE CENTER PERSONAL DATA: Born March 3, 1949, in Sunnyside, Washington. EDUCATION: Graduated from Sunnyside High School, Sunnyside, Washington, in 1967; received bachelor of science and master of science degrees in ceramic engineering from the University of Washington in 1971 and 1975, respectively; and a doctorate in Mechanical/Biomedical Engineering from the University of Houston, 1983. ORGANIZATIONS: Member of the American Ceramic Society (ACS), the National Institute of Ceramic Engineers (NICE), Keramos Honorary, the Society of Biomedical Engineering, American Association for the Advancement of Science, Tau Beta Pi, Materials Research Society (MRS); Board of Directors, Arnold Air Society and Angel Flight, International Academy of Astronautics (IAF), Experimental Aircraft Association (EAA), Society of Women Engineers (SWE), Association of Space Explorers (ASE). SPECIAL HONORS: American Ceramics Society James I. Mueller Award, Cocoa Beach, Florida. (2000). Inducted into the Women in Technology International (WITI) Hall of Fame in 2000, one of five women in the world so honored. Selected as one of the top 20 women in technology in Houston, Texas (2000). NASA Space Flight Medals (1985, 1990, 1992, 1995 and 1998). Superior Accomplishment Award (1997). Member, National Science Foundation (NSF) Engineering Advisory Board, 1993 - present. NASA Exceptional Achievement Medal(1996). NASA Outstanding Leadership Award (1993). Fellow of American Ceramic Society (1993). Design News Engineering Achievement Award (1993). IEEE Judith Resnik Award (1993). Society of Women Engineers Resnik Challenger Medal (1993). Boeing Corporation Pathfinder Award (1992). AAES National Engineering Award (1992). NASA Exceptional Service Award (1991). University of Houston Distinguished Engineering Alumna (1991). M.R.S. President’s Award (1990). ACS Schwaltzwalder P.A.C.E. Award (1990). University of Washington Engineering Alumni Achievement (1989). NASA Exceptional Service Medal (1988). ACS Life Membership (1986). General Jimmy Doolittle Fellow of the Aerospace Education Foundation (1986). Evergreen Safety Council Public Service in Space Award (1986). American Ceramic Society (ACS) Greaves-Walker Award (1985). Rockwell International Engineer of the Year in 1978. Graduated Cum Laude from the University of Washington in 1975. EXPERIENCE: Following graduation in 1971, Dr. Dunbar worked for Boeing Computer Services for two years as a systems analyst. From 1973 to 1975, she conducted research for her master’s thesis in the field of mechanisms and kinetics of ionic diffusion in sodium beta-alumina. In 1975, she was invited to participate in research at Harwell Laboratories in Oxford, England, as a visiting scientist. Her work there involved the wetting behavior of liquids on solid substrates. Following her work in England, she accepted a senior research engineer position with Rockwell International Space Division in Downey, California. Her responsibilities there included developing equipment and processes for the manufacture of the Space Shuttle thermal protection system in Palmdale, California. She also represented Rockwell International as a member of the Dr. Kraft Ehricke evaluation committee on prospective space industrialization concepts. Dr. Dunbar completed her doctorate at the University of Houston in Houston, Texas. Her multi-disciplinary dissertation (materials science and physiology) involved evaluating the effects of simulated space flight on bone strength and fracture toughness. These results were correlated to alterations in hormonal and metabolic activity. Dr. Dunbar has served as an adjunct assistant professor in Mechanical Engineering at the University of Houston. Dr. Dunbar is a private pilot with over 200 hours in single engine land aircraft, has logged more than 700 hours flying time in T-38 jets as co-pilot, and has over 100 hours as co-pilot in a Cessna Citation Jet. http://www.jsc.nasa.gov/Bios/htmlbios/dunbar.htmlELLEN OCHOA (PH.D) DEPUTY DIRECTOR, FLIGHT CREW OPERATIONS JOHNSON SPACE CENTER PERSONAL DATA: Born May 10, 1958 in Los Angeles, California, but considers La Mesa, California, to be her hometown. Married to Coe Fulmer Miles of Molalla, Oregon. They have two children. She is a classical flutist and private pilot, and also enjoys volleyball and bicycling. Her mother, Rosanne Ochoa, resides in La Mesa. His mother, Georgia Zak, is deceased. His stepfather, Louis Zak, resides in Waldport, Oregon. EDUCATION: Graduated from Grossmont High School, La Mesa, California, in 1975; received a bachelor of science degree in physics from San Diego State University in 1980, a master of science degree and doctorate in electrical engineering from Stanford University in 1981 and 1985, respectively. ORGANIZATIONS: Member of the Optical Society of America (OSA), the American Institute of Aeronautics and Astronautics (AIAA), Phi Beta Kappa and Sigma Xi honor societies. SPECIAL HONORS: NASA awards include the Exceptional Service Medal (1997), Outstanding Leadership Medal (1995), Space Flight Medals (2002, 1999, 1994, 1993), and two Space Act Tech Brief Awards (1992). Recipient of numerous other awards, including the Women in Aerospace Outstanding Achievement Award, The Hispanic Engineer Albert Baez Award for Outstanding Technical Contribution to Humanity, the Hispanic Heritage Leadership Award, and San Diego State University Alumna of the Year. EXPERIENCE: As a doctoral student at Stanford, and later as a researcher at Sandia National Laboratories and NASA Ames Research Center, Dr. Ochoa investigated optical systems for performing information processing. She is a co-inventor on three patents for an optical inspection system, an optical object recognition method, and a method for noise removal in images. As Chief of the Intelligent Systems Technology Branch at Ames, she supervised 35 engineers and scientists in the research and development of computational systems for aerospace missions. Dr. Ochoa has presented numerous papers at technical conferences and in scientific journals. http://www.jsc.nasa.gov/Bios/htmlbios/ochoa.htmlMarjorie Lee Browne was born to Mary Taylor Lee and Lawrence Johnson Lee, in Memphis, Tennessee, on September 9, 1914. Marjorie was encouraged to study math by her father and step-mother (her mother died when she was two). Marjorie went to LeMoyne High School (a private school) after attending public school in Memphis. Then she went on to graduate cum laude from Howard University in 1935. She briefly taught at Gilbert Academy in New Orleans. She earned her M.S. in mathematics from the University of Michigan in 1939, then joined the Wiley College faculty in Marshall, Texas, and started working on her doctorate in Michigan during summers. She became a teaching fellow in 1947 at the University of Michigan. In 1949, Marjorie earned her doctorate in mathematics. She was one of the first two Black women to earn a doctorate in mathematics.
Doctor Browne went to North Carolina College (now North Carolina Central University) where she taught mathematics after graduating from Michigan University. She soon became the chair of the Mathematics department in 1951; she resigned as department chair in 1970. She stayed at NCCU until she retired in 1979.
In the years of 1952-1953, Marjorie won a Ford Foundation fellowship to study combinatorial topology at Cambridge University and travled throughout western Europe. Dr. Browne was a National Science Foundation Faculty Fellow studying computing and numerical anlysis at the University of California at Los Angeles. When she studied differential topology at Columbia University in 1965-66, she won a similar fellowship.
Four years before Marjorie's retirement, in 1975, Dr. Browne was the first recipient of the W.W. Rankin Memorial Award for Excellence in Mathematics Education, given by the North Carolina Council of Teachers of Mathematics. "She pioneered in the Mathematics Section of the North Carolina Teachers Association, helping to pave the way for integrated organizations," as the award states.
In the last years of her life, Marjorie Lee Browne used her own money to help gifted math students pursue their education. Some students came to her with less than adequate preparations and she helped them pursue study of mathematics and complete their Ph.D. degrees. Unfortunately, on October 19, 1979, Dr. Marjorie Lee Browne died of a heart attack at the age of 65.
http://www.agnesscott.edu/lriddle/women/brown.htm
12. Bonita Saunders, The Application of Numerical Grid Generation to Problems in Computational Fluid Dynamics, Council for African American Researchers in the Mathematical Sciences, Contemporary Mathematics Series 275, American Mathematical Society, 2001.
11. Bonita Saunders and Qiming Wang, From 2D to 3D: Numerical Grid Generation and the Visualization of Complex Surfaces, in Numerical Grid Generation in Computational Field Simulations (B.K. Soni et al., eds.), ISGG, Whistler, British Columbia, Canada, September 2000.
10. Bonita Saunders and Qiming Wang, Using Numerical Grid Generation to Facilitate 3D Visualization of Complicated Mathematical Functions, NISTIR 6413, National Institute of Standards and Technology, November 1999.
9. Daniel W. Lozier, Bruce R. Miller and Bonita V. Saunders, Design of a Digital Mathematical Library for Science, Technology and Education, Proceedings of the IEEE Advances in Digital Libraries Conference, Baltimore, Maryland, May 1999.
8. Qiming Wang and Bonita Saunders, Interactive 3D Visualization of Mathematical Functions Using VRML, NISTIR 6289, National Institute of Standards and Technology, February 1999.
7. Bonita V. Saunders, A Boundary Fitted Grid Generation System for Interface Tracking, in Numerical Grid Generation in Computational Field Simulations, Mississippi State University (1996).
6. Bonita V. Saunders, A Boundary Conforming Grid Generation System for Interface Tracking, Computers and Mathmematics with Applications, 29 (1995).
5. Bonita V. Saunders, An Algebraic Grid Generation System for Interface Tracking, Numerical Grid Generation in Computational Fluid Dynamics and Related Fields, (1994).
4. B.T. Murray, G.B. McFadden, S.R. Coriell, and A.A. Wheeler, Bonita V. Saunders, Gravitational Modulation of Thermosolutal Convection During Directional Solidification, Journal of Crystal Growth 129 (1993).
3. Bonita V. Saunders, Boundary Fitted Grid Generation Using Tensor Product B-splines, Numerical Methods for Fluid Dynamics, Oxford University Press (1993).
2. B.T. Murray, G.B. McFadden, S.R. Coriell, and A.A. Wheeler, Bonita V. Saunders, The Effect of Gravity Modulation on Thermosolutal Convection in an Infinite Layer of Fluid, Physical Fluids A 4 (1992), 117.
1. with R.F. Boisvert and Bonita V. Saunders, Portable Vectorized Software for Bessel Function Evaluation, ACM Transactions on Mathematical Software 18 (1992).
http://www.math.buffalo.edu/mad/PEEPS/saunders_bonitav.html
My Life as a Mathematician, by Evelyn Boyd Granville This article originally appeared in SAGE: A Scholarly Journal on Black Women, Vol 6, No. 2 (Fall 1989), p44-46. It is copyrighted by Sage Women's Educational Press, Inc., and is reproduced with their permission and the permission of Professor Evelyn Granville.
Fortunately for me as I was growing up, I never heard the theory that females aren't equipped mentally to succeed in mathematics, and my generation did not hear terms such as "permanent underclass," "disadvantaged" and "underprivileged." Our parents and teachers preached over and over again that education is the vehicle to a productive life, and through diligent study and application we could succeed at whatever we attempted to do. As a child growing up in the thirties in Washington, D.C., I was aware that segregation placed many limitations on Negroes, (We were not referred to as Blacks in those days.) However, daily one came in contact with Negroes who had made a place for themselves in society; we heard about and read about individuals whose achievements were contributing to the good of all people. These individuals, men and women, served as our role models; we looked up to them and we set out goals to be like them. We accepted education as the means to rise above the limitations that a prejudiced society endeavored to place upon us.
I was born in Washington, D.C. on May 1, 1924, the second child and second daughter born to William and Julia Boyd. Over the years my father held a variety of jobs--janitor at large apartment complexes, chauffeur, and messenger with the Federal Bureau of Investigation. Even in the midst of the Depression that devastated this country in the late twenties and early thirties, I was not aware of our family ever being without the necessities of life. When we were young my mother stayed at home to care for her two daughters. Later, after my mother and father separated, my mother found employment at the United States Bureau of Engraving and Printing as a currency and stamp examiner and worked there until she retired. Even though the District of Columbia was a segregated city, life for me in Washington was not unpleasant. There were many recreational facilities in the areas that we were free to use. The libraries and museums in the city were open to all and provided me many hours of enjoyment and learning.
I loved school. The "colored" school system of Washington was in no way an inferior school system. The system attracted outstanding administrators and teachers; teachers at all levels were well-trained and highly dedicated to their profession. I cannot think of one teacher I had in elementary school, junior high school, or high school who did not demand excellence. My favorite subject was mathematics, and as far back as I can recall, I set my sights on becoming a mathematics teacher. I was the salutatorian of my junior high school graduating class and one of five valedictorians when I graduated from Dunbar High School. This high school had graduated many outstanding Black leaders and had gained a national reputation for the quality of its educational program. Dunbar had the tradition of encouraging students to attend ivy league colleges in the north. My home room teacher, also one of my math teachers, encouraged me to apply to two schools in Massachusetts, Smith College in Northampton and Mt. Holyoke in South Hadley. Even thought the fees at each school ere very high, I submitted applications to both in the hope of getting a scholarship, I was accepted by both colleges, but neither offered any financial assistance for the freshman year. My mother's sister, who was determined that I attend a northern college, offered to pay half my fees for the first year. A scholarship from Phi Delta Kappa, a national sorority of Black teachers, provided additional financial aid. I looked forward to college with great expectation and in the fall of 1941 I entered Smith College.
Smith, with an enrollment of approximately two thousand students, is the largest private college for women in this country. Although the students who enroll in this institution come from the finest public and private secondary schools, at no time did I feel that I could not compete with them. My schooling in the public schools of Washington, D.C. ranked with the best. After completing the required courses in languages and the humanities, I concentrated my studies in mathematics, theoretical physics and astronomy. I was fascinated by the study of astronomy and at one point I toyed with the idea of switching my major to this subject. If I had known then that in the not too distant future the United States would launch its space program, and astronomers would be in great demand in the planning of space missions, I might have become an astronomer instead of a mathematician. Smith was very generous in providing financial aid to me after my freshman year. Summer work as a mathematician at the National Bureau of Standards in Washington provided additional funds for school. I was elected to Phi Beta Kappa and to associate membership in Sigma Xi in my senior year and graduated summa cum laude from Smith in 1945 with honors in mathematics. A scholarship from the Smith Student Aid Society enabled me to start graduate study in the fall.
I was accepted at two graduate schools, the University of Michigan and Yale University. I chose Yale because the university granted me a scholarship to supplement the financial aid I received from Smith College. During subsequent years at Yale I was twice awarded a Julius Rosenwald Fellowship and for my final year of study I was granted an Atomic Energy Commission Predoctoral Fellowship. The fellowships enabled me to continue my study for the Ph.D. degree without interruption. Graduate study was demanding, but I enjoyed studying under the mathematics scholars on the Yale faculty. Dr. Einar Hille, a distinguished mathematician in the field of functional analysis, served as my research advisor. In my doctoral dissertation I discussed properties of Laguerre series in the complex domain. I was awarded the Ph.D. degree in mathematics in 1949. Many years later I learned that Dr. Marjorie Lee Browne, who received the Ph.D. degree in mathematics in 1949 from the University of Michigan, and I were the first two Black women in the United States to receive doctorates in mathematics.
Following the receipt of the doctorate I spent a year as a research assistant at the New York University Institute for Mathematics and part-time instructor in the mathematics department of the university. Because I found teaching so fulfilling I decided to look for a full-time teaching position for the following year. I accepted an appointment as Associate Professor of Mathematics at Fisk University in Nashville, Tennessee. The contrast between New York City, a large cosmopolitan city in the north, and Nashville, a much smaller and segregated city in the South , was quite marked. Nonetheless, I adjusted well and enjoyed my two-year stay on the campus. The department attracted several very capable majors, including two women who later went on to receive doctorate degrees in mathematics. I taught Dr. Vivienne Malone Mayes, who received her doctorate from the University of Texas at Austin, and Dr. Etta Zuber Falconer, who received the Ph.D. degree in mathematics from Emory University.
In July 1952 I returned to Washington, D.C. to accept a position as mathematician at the National Bureau of Standards (NBS). The work entailed consulting with ordinance engineers and scientists on the mathematical analysis of problems related to the development of missile fuzes. The division I joined at NBS later became an agency in the Department of the Army and was renamed the Diamond Ordnance Fuze Laboratories (DOFL). While working at DOFL I met several mathematicians who were employed at NBS as computer programmers. At that time the development of electronic computers was in its infancy. The application of computers to scientific studies interested me very much, which led to my giving serious consideration to an offer of employment from International Business Machines Corporation (IBM). I left DOFL in December 1955 to work for IBM.
I joined IBM in January 1956. At a two-week training session at the Watson Computing Center in New York City I was introduced to the IBM 650 electronic computer and the programming language SOAP. I found programming to be a challenge because the creation of a computer program is an exercise in logical thinking and problem solving. After a year in the Washington, D.C. office of IBM, where I developed programs for the IBM 650, I moved to New York City to work as a consultant in numerical analysis at the New York City Data Processing Center of the Service Bureau Corporation., an IBM subsidiary. I enjoyed the work at the Center, but I did not enjoy living in New York City. Housing was in very short supply and what little was available was quite expensive. When the National Aeronautics and Space Administration (NASA) awarded IBM a contract to plan, write, and maintain computer programs for the U.S. space program the company opened the Vanguard Computing Center in Washington, D.C. When the offer was made to transfer to the Center, I readily agreed to return to Washington to be a part of the team of IBM mathematicians and scientists who were responsible for the formulation of orbit computations and computer procedures, first for NASA's Project Vanguard and later for Project Mercury. I can say without a doubt that this was the most interesting job my lifetime--to be a member of a group responsible for writing computer programs to track the paths of vehicles in space. I left IBM in November, 1960 when I married and moved to Los Angeles, California. In California, I joined the staff of the Computation and Data Reduction Center of Space Technology Laboratories to do research studies on methods of orbit computations.
In the early sixties there was a great demand for mathematicians and scientists to work in private industry as companies increased their staffs to perform contract work for NASA and defense agencies. It was not unusual in that era for a person to switch jobs often as more interesting (and more lucrative) positions opened up. In the spring of 1962, a friend, who had risen to a very responsible position at North American Aviation Company (NAA), urged me to join the staff there. NASA had awarded a contract to NAA to do design work for Project Apollo. In August 1962, I accepted the position of Research Specialist with the Space and Information Systems Division of NAA in a group providing technical support to engineering departments in the areas of celestial mechanics, trajectory and orbit computations, numerical analysis and digital computer techniques. I stayed with NAA until October 1963 when I went back to IBM to work in the Federal Systems Division (FSD). There I did work similar to that done at NAA--trajectory analysis and orbit computation using techniques of numerical analysis.
http://www.agnesscott.edu/lriddle/women/granvill.htm
|