Professionals In Science

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"Women in U.S. Academic Medicine: 1994 Status Report"


October 8, 1993

Rita R. Colwell, Ph.D., is a marine microbiologist and biotechnologist who works worldwide lecturing in Europe, performing cholera research in Mali, and serving on the National Science Board. She received a B.S. in bacteriology and M.S. in genetics from Purdue University and her Ph.D. in marine microbiology from the University of Washington. She is founder and president of the University of Maryland's extensive Biotechnology Institute, a scientist, a wife, and the mother of two daughters.

The Road Less Traveled

Q: Was your path into science smooth?

A: My chemistry class in college had about 1,000 people in it, and I didn't do very well. I earned only a B, but I stayed in science. I kept my options open, taking chemistry, algebra, calculus, and physics, but, by my third year in college, I was fed up with missing out on a broad education in other areas such as art and literature. I dropped out of science and took courses in literature. One of my roommates, however, was enthusiastic about a bacteriology course she was taking from a woman professor, so I took the course, and that's what did it. I switched my major to bacteriology, graduated in bacteriology and premed, and was accepted into medical school. "I dropped out of science and took courses in literature. One of my roommates, however, was enthusiastic about a bacteriology course she was taking from a woman professor, so I took the course, and that's what did it. I switched my major to bacteriology..."

Q: Have you ever experienced gender discrimination as a woman in science?

A:  The prejudice is still there: It's just underground. There is kind of a "snicker-snicker" pretense that administrators practice-- they have to act as if they were open and giving women opportunities. This is a generalization, and perhaps it's unfair, but some male researchers use women graduate students as technicians, no matter what the detriment to the women's careers.

That's changing, but what I often see is women getting stuck in low academic levels. There is a glass ceiling, and it needs to be smashed. It's going to take a lot of persistence, because women are recognized as good assistant professors and laboratory technicians, but they don't get promoted as readily as their male counterparts. There aren't very many women senior professors. There aren't many women in most science departments in most universities, and that is the result of sheer prejudice.

Q: How do you cope with discrimination?

A:   I just get angry internally and become more determined than ever externally.

Balancing Act

Q: How have you balanced your personal and professional commitments?

I worked my way through school, with help from scholarships. That was hard. My husband and I wanted to be able to pay for our daughters' education, and we have done so. A:   I had no intention of having children until I was in a position to be able to afford health care. I wanted my children to have the opportunities that I didn't have. For example, I worked my way through school, with help from scholarships. That was hard. My husband and I wanted to be able to pay for our daughters' education, and we have done so.

Q: Is there a single pattern that a woman interested in a research career in the life sciences should best follow?

A:   Get a bachelor's degree in microbiology or zoology or botany and go on from there. I don't advise a baccalaureate in an interdisciplinary science. I think it's important to get the rigor of a disciplinary science. Get as much math as possible, up to calculus at the minimum. Don't be put off. If you're good at science, you'll find a way to break through the barriers.

Q:   What (or who) was the worst hurdle in entering science? How did you overcome this barrier?

A:   That would be the department chair at Purdue. I had been accepted into medical school. Then, as a married student, I asked the chair for a fellowship, so that I could stay on another year while my husband and I finished our masters' degrees. He said, "No," explaining that the department didn't waste fellowships on women. My advisor, however, gave me a research assistantship in his laboratory, and I did a masters' in genetics.

Stay the course

Q: What would be your advice to a young woman thinking of embarking on a scientific career?

A:   Stay the course. Put up with whatever is necessary to get through first your degree and then into your first job. Find a way to do science and stick with science because it's a wonderful, wonderful career. I travel a lot; I am involved in varied and exciting research; I do administration; I give talks; I publish papers. I love what I'm doing. Find a way to do science and stick with science because it's a wonderful, wonderful career.

Q: May women starting out in your field contact you for guidance?

A:   Yes. They should write me at:

Office of the President
Maryland Biotechnology Institute
4321 Hardwick Road, Fifth Floor
University of Maryland
College Park, MD 20740.

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AWIS Interview with Esther Hopkins, Ph.D., J.D.


AWIS Newsletter September/October 1978 10/22/93

Below are excerpts from an interview with Dr. Hopkins, which appeared in the September/October 1978 AWIS Newsletter. Dr. Hopkins is a chemist, patent attorney, Deputy General Counsel, a wife and mother. She is committed to the women's movement and cares deeply about the difficulties women and minorities have encountered in both science and industry. She also believes in the value of networking, and I believe would serve as a great role model for aspiring chemists. Students may contact her for guidance at (617) 292-5928, or write her at 1550 Worcester, Number 524, Framingham, MA 01701.

An Introduction to Dr. Hopkins

Esther Arvilla Harrison Hopkins, Ph.D., J.D., is one of the few women in America to have a doctorate in science as well as a license to practice before the U.S. Patents and Trademark office. She majored in chemistry in college and hoped to go to medical school after graduation, but when she wasn't admitted to the university of her choice, she continued in chemistry.

"The school I wanted had a quota," Hopkins explained. "It was right after the war and it had filled its two minority slots with one veteran and one black woman with a master's degree. I didn't fit. Admission to graduate and medical school was not what it is today," she continued. "Very few places after World War II would take women."

After earning her master's in chemistry from Howard University and in biophysical chemistry from Yale University, Hopkins worked first as a control chemist and then in a research lab. She found, however, that her work was "not leading anywhere, so my husband and I decided that I should get the 'union card,' that is, the Ph.D," and she went back to school at Yale, which was then admitting only a very few women into its graduate programs.

"My son and I were Yale's oddest couple. He would sit on my lap while I was studying thermodynamics," she remembered. "Yale was an odd situation," she summarized,
When you make it in an environment unfriendly to women, you do so with a sword and shield. "strengthening me, in a way. I became tough through it, and the experience helped when I left. When you make it in an environment unfriendly to women, you do so with a sword and shield."

After graduation, Hopkins took a job as a research chemist at Polaroid, where she became familiar with and interested in the work of the patent department. Her concern about the potential health hazards of the chemicals with which she was working broadened her interest into questions beyond the purely scientific. Like a colleague who was studying law, she entered law school at night and became an attorney as well as a scientist. Since 1989, Hopkins has been deputy general counsel in the Massachusetts Department of Environmental Protection.

Here are her responses to some of AWIS's questions:

Q: How do you relate your view of science to your concept of the law?

A:   The inventive concept springs from the mind of a person, not a machine. A chemist uncovers a new compound, a useful one that no one has made previously. Like parents and their offspring, chemists want to display their findings to the world, yet protect them. The inventor Like parents and their offspring, chemists want to display their findings to the world, yet protect them.
explores in words her ideas, describes them, and defends them to me--a person who understands them, who is neither a competitor nor a detractor, who recognizes the joy of discovery, the beauty of an elegant solution. The patent attorney takes this description down in a logical, scientific, legal, and candid form by interacting personally with a unique mind operating at the forefront of science and has an opportunity... to write the words that flesh out the child. When the patent has been awarded, the patent attorney shares with the inventor the pride in having a piece of intellectual property that is valued.

Q: You began your career as a research scientist. Now your work's emphasis has changed. Has its essence also altered?

A:   No, my work to protect the environment is not a change in concept or motivation from my work as a chemist or as a patent attorney. Environmental protection--preserving air and water--is as vital and as fascinating as patent work. Women care a lot about these issues, and more than half of the lawyers in my office are women. So are many environmental scientists.

Q: How have your race and gender affected your career?

A:   Each individual must make her place in the world. It helps to know that paths have been made. People have survived, and you can also. Many years ago, I listened to women
Women should be able to choose whether or not to buy into the male game. who were supposedly successful and felt that many had paid a dreadful personal price for their professional achievements, a price that men need not pay. Women should be able to choose whether or not to buy into the male game.

Q: What would be your advice to a young woman thinking of embarking on a scientific career?

A:   There's no use saying that you should have done something sooner, or that it's too late now.

Q: How have you balanced your personal and professional commitments?

A:   It is unrealistic and unwise to split one's life into personal and professional priorities. They need to be complementary.

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"Space for Women"


January 27, 1996

The following profile of Tania Ruiz, an astronomer, is excerpted from a publication put out by the Harvard-Smithsonian Center for Astrophysics, Space for Women. Though her advice may be familiar, it deserves to be repeated, and her success is a testimony to it.

During her freshman orientation week at Harvard, Tania Ruiz walked over to the CfA (Center for Astrophysics) and wandered around until she found the secretary of the Astronomy Department. "I asked if there were any jobs I could do, and told her I'd work for free, just for the experience," say Ruiz, who graduated from Harvard in 1994.

She was following advice from her mother, who'd always encouraged her to "go out and get your face known." That counsel, combined with Ruiz' enthusiasm and dedication, served her well. As a freshman, Ruiz not only became a regular volunteer at the CfA's monthly Observatory Nights for the public, she was also hired to work in the Radio and Geoastronomy Division, and as a teaching assistant for the introductory astronomy course offered by Harvard's Extension School. After graduation, she landed a research position in the CfA's High Energy Astrophysics Division.

At the public nights, Ruiz often runs a 9-inch telescope on the CfA's roof, showing people Saturn's rings, lunar craters, or distant galaxies. She especially likes introducing the wonders of the night sky to the uninitiated. "When I see someone look through a telescope the first time, it reminds me of why I got into this field," she says.

Her first peek through a telescope was on a playground, in third grade. That experience, along with seeing "Star Wars" when she was 6, kindled her early interest in astronomy.

Growing up in New Jersey, Ruiz was in a talented and gifted program at her public school, where she was lucky to have "very good teachers." After moving to Maryland when she was 16, Ruiz joined a local astronomy club. "Most of the people were much older, mainly retired men," she says.

During her senior year in high school, Ruiz did an internship at a local planetarium, where she built a decametric radio telescope, a special type of telescope designed to listen to emissions from Jupiter. Decametric refers to the very long (tens of meters) radio wavelength "heard" by the telescope.

The telescope--which she calls her "interstellar basketball hoop"--consisted of a 66-inch-long, circular, copper-wire antenna, suspended over a chicken-wire-and-lumber frame. Jupiter's "voice," which could be heard on a shortwave radio connected to the telescope, sounded like waves crashing on the beach, according to Ruiz. The sounds are thought to be echoes of charged particles streaming into the Jovian atmosphere, caused by disturbances in the planet's magnetosphere.

The project won Ruiz top honors at her county science fair and earned her a trip to the 1989 International Science Fair in Tulsa, Oklahoma, where she picked up a computer as a first place prize from the US Army, as well as a visit to Johnson Space Flight Center in Houston, Texas, from NASA.

Ruiz has the following advice for aspiring astronomers: "In high school, take good notes and save them--you'll use them in college for review. In college, join study groups, so you can do your problem sets with other people. Don't be afraid to ask questions and to talk to your teachers after class." In addition to getting involved in clubs, finding volunteer opportunities, and seeking out mentors, Ruiz has the following advice for aspiring astronomers: "In high school, take good notes and save them--you'll use them in college for review. In college, join study groups, so you can do your problem sets with other people. Don't be afraid to ask questions and to talk to your teachers after class."

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Having It All?
Children, Husband AND Excellence in Original Science Are Possible


Joyce A DeLeo, Ph.D.                         May 25, 1996

Joyce A. DeLeo, holds a dual appointment as Assistant Professor of Anesthesiology and Pharmacology. She is a WISP sponsor and an inspiration to all that have the privilege to work with her or take one of her classes.

Being Satisfied with Life

After reading the essay "The Red Shoe Dilemma." by Lynn Margulis in the last WISP newsletter, I felt the overwhelming need to present a counter argument. I am a researcher and teacher as well as the mother of 2 wonderful boys and a wife to my best friend. Unlike the author, I am fortunate to feel satisfied with my life and the aspects
within it, that is, my professional life, my marriage and rearing of my children. Lynn Margulis presented a bleak picture of life as a women scientist, one of divorce, substance abuse, and false hope of having it all. My question to you as future women scientists is "what does having it all mean to you?" If it is a relentless drive to spend every moment of your life in a laboratory plus be I am fortunate to feel satisfied with my life and the aspects within it, that is, my professional life, my marriage and rearing of my children.
fulfilled as a wife and mother, then I agree with Dr. Margulis. Your home life will suffer and your expectations will be thwarted. If having it all means you desire a noble prize, 30 publications a year or other academic accolades and a satisfying home life than maybe you cannot do it all.

But I ask you, what makes you happy? Perform a simple exercise right now as suggested by Stephen R. Covey, author of The 7 Habits of Highly Effective People. Imagine your own funeral. There are to be four speakers. The first is from your family, children, brothers, sisters, and extended relatives. The second speaker is one of your friends, someone who can give a sense of what you were as a person. The third is from your work and the fourth is from your church or some community organization where you have been involved in some service. Now think deeply. What would you like each of these speakers to say about you and your life?

I do not consider myself to be a superwoman in any way. I see many of us doing exactly what I do, balancing. If you answered that the only character you wanted people to say about you is that you were an excellent scientist, than follow Dr. Margulis' advice. You cannot do it all. But, if that was not your answer, then consider life as a complex picture, weaving work with family life in a dynamic
process. I do not consider myself a superwoman in any way. I see many of us doing exactly what I do, balancing. Balancing your work with spending time with your husband, children, yourself, as well as pursuing hobbies, your health, etc. Women have a tremendous gift of the ability to balance home life with work. During work hours, we phone the library to see if it is open in the evenings so we can bring our children, we schedule doctor's appointments, and attend day care lunches. However, in order to be successful in any career one needs to focus. For example, at times of grant and manuscript submissions, your days and nights are absorbed with scientific thoughts. You must be driven and motivated in order to succeed in any profession. During those times, a supportive spouse is crucial to help lighten the load of caring for children and your home. My advice to you if you are not already married is to seek a spouse that shares your goals and truly supports you as a professional. I believe this is how women can obtain both a meaningful family life and a successful career. If your spouse embodies traditional roles for a woman, then you will not be satisfied in any aspect of your life. You will become disillusioned and bitter. I am very fortunate to have a husband, a physician and researcher, that loves his career as I do. We grow together as we share each other's successes and failures.

You can do it all as long as your expectations in life are reasonable. In your climb to achieve your goals, seek mentors that embrace your aspirations and quality of life. There are many happy women scientists on this campus alone that are successful scientists, mothers and wives. And there are men that also support and encourage women to achieve these goals. Good luck to all of you and do not ever let go of your dreams! You can do it all as long as your expectations in life are reasonable. In your climb to achieve your goals, seek mentors that embrace your aspirations and quality of life.

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Scientist Profile: Melissa Smart of Smart Associates


By Liz Maier '97                         October 19, 1996

Liz talks with Professor Lee Lynd to get the scoop on environmental engineering here at Dartmouth and in the field.

On Wednesday, October 23 Melissa Smart of Smart Associates will be visiting Dartmouth to speak about her work as an environmental engineer. As a title, environmental engineering is young, but the profession has existed for over a century, beginning as
PhytotechŠis developing a remediation process using sunflowers to remove radioactive uranium, cesium and strontium from a pond contaminated by the 1986 Chernobyl accident. sanitary engineering (the design and maintenance of systems to bring clean water to and wastes from urban homes) and evolving into the broad, dynamic field addressing today's complex pollution problems. A recent trend in the field is the advancement of biological technologies for use in wastewater treatment and the remediation (clean-up) of contaminated soil. For example, Phytotech of Monmouth Junction, NJ is developing a remediation process using sunflowers to remove radioactive uranium, cesium and strontium from a pond
contaminated by the 1986 Chernobyl accident. In South Florida, 43,000 acres of constructed wetlands are removing excess phosphorous from the Everglades, where phosphorous-rich agricultural runoff disrupts the nutrient balance that sustains the unique plant and animal composition of the region. Ms. Smart will discuss her own implementation of constructed wetlands technology on Wednesday.

There is environmental engineering study and research at Dartmouth too. Like many schools of engineering, Thayer School does not offer a bachelor's degree in environmental engineering; instead, students may modify an engineering major with environmental science classes offered through the Biology, Chemistry, Earth Sciences and Environmental Studies Departments. At other schools, the major often falls under the rubric of civil engineering, or it may appear under chemical or mechanical engineering. I had a chance to ask Thayer Professor Lee Lynd a few questions about his field of environmental biotechnology and engineering. Professor Lynd teaches two undergraduate courses, Introduction to Biotechnology (fall) and Introduction to Environmental Engineering (spring), and he is involved in several funded research projects, including the biological conversion of paper sludge‹a waste product of paper manufacturing‹to ethanol, a clean-burning fuel.

Q: What made you decide to enter the environmental engineering field?

A:   I have a strong desire to find a career path that lets me be of service to society. Environmental and resource-related issues have always seemed particularly interesting to me in this regard. I have a strong desire to find a career path that lets me be of service to society. Environmental and resource-related issues have always seemed particularly interesting to me in this regard.

Q: What do you consider optimal preparation for entering this field? Is it best to pursue an undergraduate engineering curriculum?

A: I think that there is no universal answer to these questions, but each person needs to respond to their own goals and interests and devise a plan of attack. Both policy analysts/proponents and technology originators are needed, and different people will find themselves attracted to different paths. It is almost certainly easier to move from a more technical direction to a less technical one (for example, to go from engineering or science-intensive activity to policy-intensive activity). So beginning one's training, and perhaps career, in a technical area leaves one more flexibility.

Q: Where do environmental engineers work?

A:   All sorts of places. For example, firms that offer environmental services (e.g. analysis, design and construction, regulatory advice), firms that develop environmental, or environmentally-relevant technologies (fuel cells, alternative fuels, clean-up technologies, "green manufacturing"), environmental advocacy organizations (e.g. National Resource Defense Council, Sierra Club), companies that are not in the environmental field per se but want to improve their environmental record (this can either be a pro-active or defensively-oriented desire), and government at several levels.

Q: How do you envision the future of the environmental engineering field? For example, in an Environmental Science and Technology article, Daniel Noble of Environmental Business International claims "environmental biotechnology will, eventually, dwarf medical biotechnology." Do you agree?

...such improvements will come from new ways to produce goods and services, in some cases from different resources than these goods and services are produced from now. A:   The most significant technologically-driven environmental improvements in the next century will not come from the clean-up oriented technologies that have been the traditional focus of environmental engineering. Rather, such improvements will come from new ways to produce goods and services, in some cases from different resources than these goods and services are produced from now. I think that this reality has profound implications for society, the environmental field, and the career paths that an individual may follow.

With respect to the Noble quote, I think that commodity applications of biotechnology (including environmental clean-up but also biomanufacturing of fuels, chemicals, foods, and materials) could well become as big as medical technology or perhaps even bigger. Although I think that clean-up oriented environmental biotechnology is an exciting field, I would be surprised if this particular application of biotechnology dwarfed medical biotechnology.

For information regarding the Phytotech or Florida research, please refer to Environmental Science and Technology, Vol. 30, issue No.'s 5 and 7, 1996.

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Professor Gibson's Believe It or Not!


November 2, 1997

Reprinted with permission from the Thayer School of Engineering Directions magazine, Fall 1997. ENGS 1, Everyday Technology, will next be offered spring term 1998. The course is intended to take the mystery out of the technology that we have come to depend upon in our everyday lives.

If the electrons that flow through an electric hair dryer in one second were grains of sand, there would be enough sand to build a 20-ft.-wide beach to the sun!-(submitted by Ursula Gibson, Hanover, NH)

Professor Ursula Gibson wanted to illustrate to her ENGS 1 (Everyday Technology) class the number of electrons that flow through a DC electric hair dryer in one second (1020) and just how big a number that really is. She knew it was a long way to the sun and that grains of sand are very small, so a few calculations and, voila! A whole new way to visualize 1020. If the electrons that flow through an electric hair dryer in one second were grains of sand, there would be enough sand to build a 20-ft.-wide beach to the sun!

Soon after that, Dean Garmire prompted anyone with knowledge of a weird and interesting fact to send it into "Ripley's Believe It or Not!" Professor Gibson sent in her newly calculated fact which was accepted and published in the San Antonio Express & News, among other newspapers. "What I sent in was a little more detailed than the cartoon version [they printed], which doesn't admit that the beach is only half an inch thick...but that's still enough to get your toes into."

When she isn't getting cartoons published (or digging her toe in the sand?), Gibson also
enjoys taking her ENGS 1 class to the Montshire Museum of Science for "Take-Apart Days," a week-long spring program for local elementary school children featuring supervised mechanical dissections. "This year the kids took apart mechanical pencils, toilet-flushing mechanisms, doorknobs, and disposable cameras." "This year the kids took apart mechanical pencils, toilet-flushing mechanisms, doorknobs, and disposable cameras."

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Making Room for a Second Generation


By Liz Maier '97                         January 11, 1997

The following is a collection of excerpts from separate interviews with three academic professionals, Professor Laura Conkey of the Geography Department, Dr. Celia Chen, a research assistant in the Biology Department, and Professor Ursula Gibson of Thayer School of Engineering. All three women have children: Dr. Chen had her daughter during graduate school, Professor Gibson had her first child while she was being considered for tenure, and Professor Conkey waited to start her family until she was a tenured faculty member. They were asked to comment on how they manage the challenges of their jobs and families.

Q: How do you juggle raising children and meeting the demands of an academic career?

Conkey: There are a lot of different strategies for juggling children. It's an experience that I almost didn't have, because I felt it was contrary to the needs I had in my career.
I'm so relieved I went ahead and had a kid! She's been the most important thing in my life. But I chose a scenario that I didn't have her until after I had tenure. But I didn't think I had the energy to do that and to prepare myself for tenure. There are plenty of people who do that. It's just for me I felt at the time that it wasn't going to work. And certainly in retrospect (my daughter is almost seven), the last six years have been primarily focused on her. While my I'm so relieved I went ahead and had a kid! She's been the most important thing in my life. But I chose a scenario that I didn't have her until after I had tenure.
research is going on and I'm continuing with my classes and everything else, she's had to come first, and that's meant that I've had a decrease in productivity in other areas of my life. That's just something I accept because of the importance of it.

Chen: I have one child, and I am also a single parent, and it's just...a lot. I am fortunate that my mother actually moved up here this year. She doesn't live with me, but she helps a lot with the driving that needs to be done. My daughter is only in kindergarten, but there's this driving back and forth every day at 11:00. Many of us who have had our children in daycare [thought] that was a lot simpler, because it was nine to five. I have realized that the whole education system is not configured for a working family--it's just not! Everybody has to piece together what to do for their children after school.

Gibson: If I look at what has allowed me to have three kids and be successful, it is unquestionably the fact that my husband has done half of the work!

Q: Is graduate school a good time to start a family?

Chen: I was pretty scrambled during [my daughter's] first year of life. I just know that I wasn't as focused [on graduate work] as I could have been! I didn't know that was how it was going to be. It turned out fine--I finished [the Ph.D.]--but I just remember thinking
The good thing about academia is that you have some flexibility that you might not have in a corporate setting...but on the other hand you have very little security. how [my] concerns [were] day to day: Has she been changed? Has she been fed? [There were] all these things that as a non-parent you have no idea you are going to deal with! So that was a new challenge! The good thing about academia is that you have some flexibility that you might not have in a corporate setting...but on the other hand you have very little security. You have your stipend, but you don't have much of an income.

Gibson: During graduate school is an o.k. time, because your schedule is so flexible. If you have an honest relationship with your advisor, have reasonable expectations and have a
project where there isn't a critical deadline coming up that fights against it, I don't think that it's necessarily a bad choice. It can be a good one, particularly the business of timing a child towards the end [of graduate school]. The only thing that I would warn there is that that's a very volatile time in your life anyway...finishing up school after doing it your whole life and suddenly your whole life changed by the presence of a child...Sometimes it is better to parcel these things out over time! ...finishing up school after doing it your whole life and suddenly your whole life changed by the presence of a child...Sometimes it is better to parcel these things out over time!

Q: Do you think that the furious pace of the tenure track, which compels many women to postpone having children, discourages qualified female candidates from accepting academic positions or disadvantages those who already have children?

Chen: It is [so] competitive...in academic science, and women have to make this choice to really go for it. There just aren't that many examples [of women] who have families and
The ratios apparently are very even in graduate programs, but at the other end, you aren't seeing the women in academic positions. I think that women are making choices that pull them out of [academia], because it is so intensely competitive.... are doing the full academic thing. There are just so few of those people! They say that women are lost in the pipeline somewhere along the line in this graduate education. The ratios apparently are very even in graduate programs, but at the other end, you aren't seeing the women in academic positions. I think that women are making choices that pull them out of [academia], because it is so intensely competitive....It makes me wonder in academic research what kind of model the competition is selecting for. I haven't seen a whole lot of female hires. In fact, when we've had searches, there haven't been that many female candidates who were interviewed. I don't know for
a fact, but I think that women who take time off to have children don't have the same publishing record. And for the most part, among the women I know who are working professionals, they do most of the domestic work.

Conkey: It is a bad coincidence of timing. You are supposed to be the most productive in your career at the time that ideally you should be having children...Part of it is the system, too. Why should [having children] be a detriment, when that's such a clearly important piece of society's needs?

Q: Do you have any advice for aspiring female professors?

Gibson: What you probably need is a strong desire, or love of what it is that you're doing. Love is an overstatement, but you've got to like it pretty much, because the bottom line is
that there are going to be difficult choices and times where you are dividing your attention and resources between a job and a family, or the job and church, or whatever kinds of things you have going on in your life. Being a professor is not a nine to five job, that's for sure, but that's another thing that has changed, too. There aren't very many nine to five jobs anymore. In almost anything that In almost anything that you would be doing with a Dartmouth degree, you will be encouraged--expected maybe--to be putting in more that nine to five.
you would be doing with a Dartmouth degree, you will be encouraged--expected maybe--to be putting in more that nine to five. So you are going to have to face those kinds of things anyway.

Conkey: I would encourage you to think long and hard about what it is that you want to do...not so that you can lock yourself into a pattern at this point, but so that you know that when you make choices, it is because [there] is something that you really want. [If]
...be aware that maybe women have different ways of looking at things than men, and that [these perspectives] are just as valid. you can be self-aware, [then you can] be ready to make choices based on your own needs and not out of expediency. Think about what it is that you really like. What are the attributes of any given job, and does that suit you? And...be aware that maybe women have different ways of looking at things than men, and that [these perspectives] are just as valid. Maybe [these] are not part
of the accepted hierarchical structure, but I think there are ways of succeeding within your own structure. You choose a different way of marking success. Try to have your own criteria instead of somebody else's.

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Taking a Gamble with Science


By Simone Swink '98                         May 17, 1998

Simone interviews Professor of Physics Mary Hudson and Dean of the Thayer School of Engineering Elsa Garmire to find out more about their careers and the paths that led them there.

Finding Something You Love, and Sticking With It

Earlier this term, historian Jill Ker Conway visited the campus for several days as the college's Montgomery Fellow. During her visit, I snuck into the lunch held at the Montgomery House for graduate students. Actually, no one ever asked me what year I was and I kept my mouth shut while I helped myself to lunch. My cover was blown once all of us sat down and Dr. Conway asked us to each tell her about our graduate work. After asking each of us about our studies, she spoke for a while about her life and elaborated on many of the themes touched on in her memoir, True North. Aside from her candor about her life and her encouragement to all of us about embracing tough decisions, what stuck with me when I left Montgomery House was her enthusiasm for her career as a historian and professor.

Weeks later, as I sit writing this article, the memory of that luncheon comes back to me as I reflect on my interviews with Professor Mary Hudson and Professor Elsa Garmire. Both of them conveyed the same intensity about their work that I glimpsed in Conway. Also, like Conway, both women have been a part of the initial tiny wave of women into their fields.

But the thread that most strongly linked these three conversations was each woman's assertion that having a fulfilling professional life was what sometimes kept them going when everything else fell apart. As Professor Garmire said near the end of the interview, "Most of my life I would have paid for the jobs I had." From the enthusiasm expressed by Professor Hudson about her jobs, I think she would echo those sentiments. Garmire commented that she felt the key to a fulfilling career is finding something you love and "sticking with it." She drew an analogy to gambling saying that "you roll the dice and then you go with it." But the thread that most strongly linked these three conversations was each woman's assertion that having a fulfilling professional life was what sometimes kept them going when everything else fell apart.

The Trajectory of a Career

When I began thinking about interviewing Hudson and Garmire, I steered away from asking them the staid questions about balancing careers and personal lives. Rather, I asked them to tell me about the trajectory of their careers and the important choices they had made along the way. In particular, I was curious to hear about the biggest risks they had taken and how their professional gambles had paid off.

Professor Mary Hudson, currently the chair of the Dartmouth Physics Department, spent her undergraduate and graduate career at UCLA where she was usually the only woman in her physics classes. Growing up in the era of Sputnik and Apollo, she was always intrigued by space physics and astronomy. But what solidified her decision to enter the field of space physics was her first post-college job. After graduating from college several months early, she was hired immediately by The Aerospace Corporation. She commented that the wonderful aspect of working there was that she was immediately treated as a colleague and was allotted her own entry-level projects [such as calibrating research equipment that would eventually go up on the space shuttle]. Hudson enjoyed her job so much that she continued working there for her first two years of graduate school.

Firmly committed to a career in space physics research, Hudson began her dissertation under the guidance of an encouraging advisor. During her final year of graduate school, she needed data for her thesis on rocks in the ionosphere. Some scholars at Berkeley
This job, in addition to her earlier job at The Aerospace Corporation, had a long-lasting effect on her career. Both of the decisions had been made somewhat by chance. offered the data, and during a visit to the university, she found that she really "connected" with the people at the Berkeley labs. Though she had several post-doc offers, she elected Berkeley based on the inspiring people she had already met. This job, in addition to her earlier job at The Aerospace Corporation, had a long-lasting effect on her career. Both of the decisions had been made somewhat by chance.

Hudson remarked that the research environment at Berkeley was terrific. She stayed there for ten years and never cost them anything because she brought in so many grants on her own. While laboring as a post-doc, Hudson taught several classes at UC and also at Mills. But without a faculty position, she had no influence over the direction of research. Slowly becoming frustrated with her lack of influence, she began to question her professional trajectory.

At 35 years old, she made the wrenching decision to depart from California after growing up and succeeding professionally in her home state. It was 1984 when she and her husband had just been offered faculty positions at Dartmouth. The lure of tenure track positions for both of them in different departments was too attractive to ignore after some of her frustrations at Berkeley. In addition, Hudson was eager to work with some of the leaders in her field who were busy researching on the Hanover Plain. Though it was a tough decision, Hudson still sounds enthusiastic about her choice. She mentioned that her annual trips back to Berkeley every summer to interact with colleagues at the Space Sciences lab have helped ease her pangs for California.

Not A Bumpy Ride, But Lonely

Despite her description of a fairly smooth and fulfilling career, Hudson reminded me that her path has often been lonely. During her first two years of college, she was the only woman in all her physics classes. Junior and senior year, another woman joined her. But again, in graduate school, Hudson was the lone female. At Dartmouth, she has been the sole physics professor in the department since her arrival in 1984. But finally, this fall, another woman will be joining the department.

Hudson did point out that the gender balance in the hard sciences is finally beginning to
shift. For example, three of the six people in the upper level seminar she is currently teaching are women. "Once you get a seed population, it gets easier," she commented. With more women in the undergraduate and graduate programs, eventually more women will hold faculty positions. With that, Hudson excused herself. She had to With more women in the undergraduate and graduate programs, eventually more women will hold faculty positions.
run to a department meeting. Actually, she had to chair the meeting - a meeting at which she would be the only woman.

Being on the Cutting Edge of Science

Garmire's path has not been quite as smooth. Like Hudson, she knew from an early age that physics and research science fascinated her. As a young student, biology seemed quite rote while physics seemed to be the cutting edge of science. But if she was a student today, Garmire commented, she would probably follow a biological career path.

As the end of high school approached, Garmire faced several problems‹two of the main ones were her height (6'2") and her intelligence. She wanted a school where the men to women ratio was fairly high so she elected Radcliffe where the ratio was three women to ten men and everyone was smart. There she met a man, also a budding physicist. As college drew to a close, Garmire worried that she would not be accepted at a good grad school. Though her insecurities about her academic abilities stymied her, Garmire's professors saw her potential and wrote her recommendations for graduate programs at Harvard and MIT. Faced with deciding between the two schools, she enrolled at MIT after coming to the conclusion that she was sick of the Harvard library.

When she arrived at MIT, she found herself assigned to the only woman on the faculty as an advisee even though the woman was not in Garmire's field of interest. When she arrived at MIT, she found herself assigned to the only woman on the faculty as an advisee even though the woman was not in Garmire's field of interest. Discouraged at this turn of events, Garmire came close to quitting, but her husband urged her to look for another professor. Coincidentally, a professor named Charles Townes was looking for a student assistant. Working for him determined the course of her career in laser research.
Townes' research was already so advanced that two years after Garmire began working for him, he was awarded the Nobel Prize for his work.

The Varied Path

Unlike Hudson, Garmire did not set out to establish a career in science. But she had no desire to be a housewife either. She met a woman whose husband had died, so this woman had become a secretary... and she loathed her job. Realizing that the pay for secretaries and grad students was comparable, Garmire decided that staying a grad student was preferable.

For her, achievements doubled up at times. Her baby's birth and the awarding of her Ph.D. both transpired at the same time. After four weeks of staying home with her baby, she returned to her post-doc position, dissatisfied with staying at home. For nine years, she labored as a post-doc doing research first at MIT and then at Cal-Tech. At Cal-Tech, she taught her first class. It was a junior math class and the all-male class of twenty-five students were some of the brightest in the world. Math had never been her strong subject, and after that experience, she did not teach for the next decade. Also, since she was always working part time while raising two children, she never advanced professionally. She just concentrated on her research, undistracted by teaching or administrative commitments. Meanwhile, after nine years, her marriage had unraveled and she and her husband divorced.

With a seven year old and ten year old in tow, she found a new position at USC‹a full professorship with tenure. There she stayed, ensconced for twenty years until applying for the deanship of the Thayer School. Dartmouth was attractive to her because of the close attention to students in contrast to the research-focused nature of USC. Also, she appreciated the interdisciplinary nature of the engineering school and the balance of liberal arts and an engineering education for Thayer students.

Like Hudson, her career trajectory also sounded smooth during the interview. But Garmire also encountered the loneliness of being a woman in physics. Additionally, she commented that during the hardest times, particularly when her marriage ended, there was "something very centering and grounding in having my own science." ...she commented that during the hardest times, particularly when her marriage ended, there was "something very centering and grounding in having my own science."

Make Your Own Path

As members of a generation which often told them, as Conway wrote in True North, that "Every verbal and visual message of the world I'd grown up in telegraphed that a young female belonged with somebody else, preferably a male partner, but failing that, family, friends, anything that would signal to the world that she was going about the business of being a helpful and charming female bent on caring for the needs of others." This message has not changed all that much for my generation. As the careers and professional fulfillment of Hudson and Garmire show, pursuing an academic love is a viable and perhaps preferred alternative to the traditional female paths. More and more women are treading the paths pioneered by Garmire, Hudson, and their peers as the rising female enrollments in the engineering and physics departments show.

...they both reminded me that I should spend my next few years finding something I love and then pursuing it. As Garmire told me, "roll the dice and go with it." It's worth the gamble. The inspirational feeling that I garnered from both interviews had nothing to do with science. Rather, they both reminded me that I should spend my next few years finding something I love and then pursuing it. As Garmire told me, "roll the dice and go with it." It's worth the gamble.

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Mary-Ann Mycek: Physics Professor and WISP Mentor


By Anne H. Loomis '99                         May 16, 1999

Anne writes about the newest face in the Physics Department, Professor Mary-Ann Mycek, who has already taken on two WISP interns and is eager to share her wisdom with undergrads.

When Professor Mary-Ann Mycek came to Dartmouth last summer, she became one of two women on the physics faculty. She has enthusiastically taken on two WISP interns, Linda Ohsie '02 and Allison Hargreaves '02, to work with her on a project in Biomedical Optics, and I finally got a chance to catch up with her this term to talk to her about her research and her role as a WISP mentor.

A strong interest in math and science during high school led Professor Mycek to pursue a
career in physics. As an undergraduate she worked for the IBM Corporation through a cooperative education program and discovered an affinity for laboratory science. Her positive undergraduate experience led her to comment: "I think it's important to have undergraduates in the lab, or doing some sort of research" in order to give them an opportunity to explore scientific work. "I think it's important to have undergraduates in the lab, or doing some sort of research" in order to give them an opportunity to explore scientific work.

Professor Mycek's research explores ways of using laser light to detect cancer at its earliest stages. Her two WISP interns, Linda Ohsie and Allison Hargreaves, are "working together on a project to help develop an optical device that will measure the basic optical properties of cells," such as optical absorption and scattering. The students will use their device to "study various types of cells involved in disease" for comparison with normal cells.

Professor Mycek came to Dartmouth after completing a Ph.D. in physics from UC Berkeley and post-doctoral training in laser medicine at Harvard Medical School. She came to Dartmouth because of its many resources for interdisciplinary research. "I think there are wonderful opportunities [at Dartmouth] in science and in physics."

"I think the best thing [you] can do while [you're] at Dartmouth is to explore all the opportunities here that are available to you and if that means knocking on doors, just keep knocking, and you'll find doors that open." Her advice for undergraduate seeking research experience: "I think the best thing [you] can do while [you're] at Dartmouth is to explore all the opportunities here that are available to you and if that means knocking on doors, just keep knocking, and you'll find doors that open."

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Shooting For the Moon


By Serena Chang '05                         April 15, 2002

In the following article, Serena describes the accomplishments of Dr. Shannon Lucid, who has recently been named Chief Scientist at NASA. Dr. Lucid's accomplishments are truly remarkable. As a wife, mother, and distinguished scientist, Dr. Lucid is an inspiration to women in science.

As the often quoted saying goes, "Shoot for the moon. Even if you miss, you'll land among the stars." For no one is this more true than National Aeronautics and Space Administration (NASA) astronaut and mission specialist Dr. Shannon Lucid, whom the organization named as its next Chief Scientist on February 12. Lucid had most recently been working as a spacecraft communicator for Space Shuttle and International Space Station mission.

According to NASA's report (http://www.space.com/news/lucid_promo_020212.html), Lucid "will be responsible for ensuring the scientific merit of the agency's programs. She will report for duty as soon as she fills her responsibilities as Capcom for STS-109."

She has been bestowed with numerous awards, including the Order of Friendship Medal by Russian President Boris Yeltsin, one of the most prestigious Russian civilian awards and the highest award that can be presented to a non-citizen. Most recently, the President of the United States awarded Lucid with the Congressional Space Medal of Honor, making her the first and only woman to have received the award. Although she was born on January 14, 1943, in Shanghai, China, Lucid has always called Bethany, Oklahoma her hometown. She is currently married to Michael F. Lucid and has two daughters and a son. She graduated from Bethany High School in 1960, received a B.S. degree in chemistry from the University of Oklahoma in 1963, and M.S. and Ph.D. degrees in biochemistry from the University of Oklahoma in 1970 and 1973, respectively.

NASA selected Lucid in January 1978, one of the first six women ever chosen, and she became an astronaut a year and seven months later. Her Space Shuttle flights as a mission specialist include STS- 51G in 1985, STS-34 in 1989, STS-43 in 1991 and STS-58 in 1993. In 1996, she was flown to Mir during STS-76, where she served as an engineer and conducted life science and physical science experiments.

After completing STS-58, Lucid had logged a total of 838 hours, 54 minutes in space, giving her the distinction of being the American female astronaut with the most hours in space. She also currently holds the nation's single mission space flight endurance record for her 1996 stay on the Russian Space Station Mir on STS-76. During this mission, Lucid traveled 75.2 million miles in 188 days, 4 hours and 14 seconds.

Records aside, she has been bestowed with numerous awards, including the Order of Friendship Medal by Russian President Boris Yeltsin, one of the most prestigious Russian civilian awards and the highest award that can be presented to a non-citizen. Most recently, the President of the United States awarded Lucid with the Congressional Space Medal of Honor, making her the first and only woman to have received the award.

Said Administrator Sean O'Keefe, who made the announcement: "Dr. Lucid brings impressive credentials in the fields chemistry and biochemistry research to NASA Headquarters. The Chief Scientist has a tremendous responsibility to develop and communicate the agency's science and research objectives to the outside world. What better selection than a NASA scientist and astronaut with extensive experience living and working in the harsh environment of space?"

"Dr. Lucid brings impressive credentials in the fields chemistry and biochemistry research to NASA Headquarters. The Chief Scientist has a tremendous responsibility to develop and communicate the agency's science and research objectives to the outside world. What better selection than a NASA scientist and astronaut with extensive experience living and working in the harsh environment of space?"

She is following the tracks of predecessor Dr. Kathie Olsen, whom President George W. Bush has marked as the next Associate Administrator for Science in the Office of Science and Technology Policy (OSTP) in the Executive Office of the President. Olsen had held the position since May 1999.

For more information on Shannon Lucid, including a 13-minute video clip of her answering questions from Women of NASA project participants, visit http://quest.arc.nasa.gov/people/bios/women/sl.html.

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Did You Know...? Lights, Camera, Action!


By Chris Wilson                         April 1, 2002

The following is another installment of "Did You Know...?" by WISP's Chris Wilson. Below, Chris discusses the amazing advances in cancer diagnosis being made in Professor Mary-Ann Mycek's physics lab. Chris notes the cooperation that has gone into this interdisciplinary project. Read on to find out more about this fascinating field.

What if a physician could scan the human body with a light wand similar to a laser pointer and the computer it was connected to could distinguish a healthy cell from a cancerous cell? Or maybe it could determine that the cell is exhibiting characteristics that suggest that it will turn cancerous, and therefore should receive a different treatment. Imagine a diagnostic tool that would be safer than x-rays; patients would be able to sit comfortably in their doctor's office during this procedure, and not be subject to long delays, trapped inside the small confined space of the magnetic resonance imaging (MRI) machine. There would be no invasive tissue removal for biopsy. The results would be almost instantaneous.

Dr. Mary-Ann Mycek has been envisioning just such an instrument in her Physics Department laboratory in Wilder, and is well on her way to bringing her vision into reality. Fluorescence spectroscopy is the technique involved. The

Fluorescence spectroscopy is the technique involved. The general premise is that when ultraviolet (UV) light is shone onto tissue, the tissue will "fluoresce" or basically glow (think Halloween light stick). The color, intensity and duration of the glow are signatures of different cells and their metabolisms. Normal cells reflect UV light in very different ways than cancerous cells.
general premise is that when ultraviolet (UV) light is shone onto tissue, the tissue will "fluoresce" or basically glow (think Halloween light stick). The color, intensity and duration of the glow are signatures of different cells and their metabolisms. Normal cells reflect UV light in very different ways than cancerous cells.

The UV light is directed at the patient from a laser source through fiber optic cables. LASER is really an acronym for Light Amplification by Stimulated Emission of Radiation.
This cutting-edge biomedical instrument is the epitome of collaborative effort, from the physics of laser beams and fluorescence, to the biology and chemistry of cells and their metabolisms, to the engineering of the hardware, and the computer programming that links all the pieces together. A laser beam is an extremely narrow beam of intense light of the same wavelength and phase, and therefore very uniform, controllable and predictable. Ordinary light is a mixture of different frequencies of light moving in various directions; it is therefore not uniform. A prototype of the clinical biomedical diagnostic tool is currently up and running in Dr. Mycek's lab. A laptop computer sits on the top of a rack on wheels, with lasers, lenses and fiber optic cables on the shelf below. The fiber optic cable carries the UV laser beam out to the patient and retrieves the incoming light fluoresced from the tissue, as the fluorescence happens very quickly. The lenses diffract or split the fluoresced light into its various parts, or wavelengths. By looking at the quantities of the different
parts of the fluoresced light, a spectrum (or graph of the amounts of each of the various wavelengths) can be created that can be analyzed to determine things like how much of a particular chemical is in the sample.

The data and subsequent spectrum is analyzed using computer programs written by Dr. Mycek and her staff. The spectrum and its implications are then displayed on the screen of the laptop for the physician to analyze. The computer program that acts as the interface between the physician and the hardware was written by people in the Computer Science department to make the equipment more "user-friendly" for physicians in the field. This cutting-edge biomedical instrument is the epitome of collaborative effort, from the physics of laser beams and fluorescence, to the biology and chemistry of cells and their metabolisms, to the engineering of the hardware, and the computer programming that links all the pieces together. Together, it seems all things truly are possible.

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