<%@LANGUAGE="JAVASCRIPT" CODEPAGE="1252"%> Student Page

 

EXPANDING WOMEN'S OPPORTUNITIES THROUGH MATHEMATICAL SCIENCE

 

Home

Teaching
Interventions

Personnel

Information for
Students

 

The Student Home Page

The main goal of the EWOMS project was to expand the opportunities for women by helping female college students realize their potential in mathematics. picture of the FIG class in 2002This process was done in two parts. First, an advertising campaign was created to target the student population's stereotypes about women and math. Second, a specific course was designed to build the success of female students in Calculus I. Calculus I was targeted because it is considered a barrier course for female students. In other words, even though fewer women than men enroll in Calculus I, even fewer women than men continue on to Calculus II.

As a student, you may wonder what are stereotypes about women and math, or maybe, how did this project help women realize that they could be successful in Calculus I? An important overall question is: why is success in math so important for female students? This page is intended to help answer these types of questions in a format that is designed specifically for students.

Click on one of the following questions to learn more about its topic.


Why is math success so important for female students?

Evidence shows that women drop out of mathematics at a higher rate than men, even when they are equally well prepared, particularly in the early years of their undergraduate careers. Women cite a variety of reasons for dropping out of mathematics and related fields. Some women report being turned away by the very qualities that attract them in the first place (Stage & Maple, 1996).

According to the 2001 National Occupational Employment and Wage Estimates in the Bureau of Labor Statistics, the mean annual salary for computer and mathematical occupations is $60,350 as compared to a mean annual salary of $34, 020 for all occupations (http://stats.bls.gov/oes/2001/oes_15Co.htm as cited on June 4, 2003). Although increasing one's salary is not the only reason for women to succeed in math, based on this statistic alone, it is obvious that women are disadvantaged by their limited participation in mathematics and related fields.

(top)


What are the stereotypes about women and math, and do they even really matter?

Overall, the gender stereotype is that girls' mathematics capabilities are inferior to boys' (Spencer et al., 2002). As a result, parents, teachers, and even girls themselves expect lower performance for girls than for boys in math. Often, people believe that girls do not even have mathematical ability. (Stipek & Granlinski, 1991).

Consequences of this negative stereotype begin when girls internalize their teachers' and parents' negative expectations. Often these expectations become self-fulfilling prophecies. Because girls believe that they cannot achieve in math, they do not achieve in math. Also, when girls do poorly in math, they attribute their poor performance to their inability to do math rather than to the stereotypes they have been taught to believe. Even highly talented females report less self confidence than males when completing mathematical tasks (Seegers & Boekaerts, 1996). In other words, stereotypes have an enormous impact on girls performance in math. (Gutbezahl, 1995).

(top)


How did the project help women succeed in Calculus I?

As previously stated, the EWOMS project involved a teaching intervention, which consisted of a special section of Calculus I designed around the way women learn, together with an additional weekly meeting that combined university orientation information and problem-solving.

The teaching intervention in detail...

The special section of Calculus I was called a FIG (Focused Interest Group). Although this class was open to all students, as anticipated, the focus on women's issues drew only female students. The FIG had several goals. The central focus of the course was to establish a community based on our knowledge of how women learn best. Mathematical concepts were connected to students' interests, experiences, and relationships (e.g., world population growth, populations of endangered species, spread of infectious disease, and rate of absorption of drugs into the bloodstream).

The teacher also listened more than in a traditional classroom, and the students talked more. The teacher guided students through a process of discovering mathematical concepts for themselves so that mathematics made sense to them. The learning environment was less competitive and more collaborative than in traditional Calculus classes. The teacher used small groups in order for students to communicate with each other about mathematics and to clarify or justify their thinking. Thus, students talked about how they solved problems and received feedback from other students as well as the teacher. The students even wrote narratives describing how and why they used certain problem-solving strategies. These narratives included explanations and mathematical computations. To try some calculus problems, click here.

As part of the FIG, the women were also enrolled in an orientation course, UNIV 101. Here, a female doctoral student acted as both an instructor and as a mentor by focusing on issues particularly pertinent to women and by helping to develop a support group. Students learned how to read a mathematics book and how to organize their study. In a weekly one-hour workshop, students collaborated in solving enrichment problems (using more in-depth investigation) in addition to those assigned in the calculus class. Notable women spoke on campus, such as astronaut Mae Jamison, acting as role models.

Students also viewed videos on famous women in the field. Additional enrichment occurred when the women in the FIG went on a field trip to the Museum of Science and Industry in Chicago and attended a performance of the Tony award-winning play, "Proof," about a woman mathematician.

Results of the Teaching Intervention...

Prior to our intervention, the percentage of freshmen women at NIU continuing from Calculus I into Calculus II was about 30%. In Fall 2001, after we began our experimental grant, we were able to retain 82% of the freshmen women from our Calculus I intervention into Calculus II, and all the women made a C or better in Calculus I. Richard Blecksmith, the professor who taught the FIG course, said he was surprised by the program's across-the-board success. "With every test I gave, the scores on average were 20 points higher than other semesters," he said. "I actually made the class much more rigorous than I usually do, almost to the level of an honors class. By the end, the students had a better grasp of some of the concepts than any class I've seen in a long time. . . . I've never had a calculus class outside of honors where everyone has passed the course with a C or better."

According to the literature, many women change their majors in such a way to avoid taking additional math classes, but only one of the women in the FIG did so. Instead, two students who were undecided signed up to major in mathematics education. Two students decided to minor in mathematics. Two students also enrolled in Women’s Studies classes, and one declared a Women’s Studies minor, suggesting that the focus on women was also important in their success. The success of the support/study group indicated the importance of the women’s commitment to helping the entire group succeed in mathematics.

(top)


How did the project help change stereotypes about women in math?

The EWOMS second project was the advertising campaign. Advertisements ran in the campus newspaper to educate the entire community about women's potential, contributions, and successes in mathematics.

The advertising campaign in detail...

Two graduate student interns from the Department of Communication at NIU developed a series of advertisements on women's achievements in mathematics, and their ads were published once a week in the campus newspaper, usually on Mondays, the highest circulation day. Poster sized versions of the ads were also hung in places most frequently used by mathematics students. Advertisement 4The portal to the College of Liberal Arts and Sciences web page ran different ads daily for several months in 2002. Ads like the one shown here aimed to negate stereotypes about women's poor performance in math. Click here to see the rest of the advertisements.

Results of the Advertising Campaign...

Evidence suggests that those who did see the ads took notice. In the Department of Mathematical Sciences, many professors discussed their varying reactions to the ads. The women in the FIG looked for the ads and especially valued one ad, which included a picture of them working and laughing together in their calculus class.

Yet, the results were a bit complicated because the ads were not the only medium influencing students' perceptions about women's abilities in math. For example, meetings with advisors and discussions with other students also affected them. In fact, it appeared that perhaps only timing influenced perceptions of the 'math myths'. Over time, college freshmen appeared to become more accepting of the idea that women are less capable in math. At the same time, we wonder whether a more visible and widespread ad campaign might have affected attitudes more.

(top)


What are female participants' reactions to the project?

The students saw the benefit of being a FIG member...

Allison, a student in the FIG:
[T]here was no humiliation if you didn’t understand something. You know, if you didn’t get the concept, usually there was like four other people that didn’t get it. And we all spoke out loud, you know. Nothing was like, we’re too shy to ask . . . or we’re too embarrassed to say, “We don’t get it.” You knew if was okay to ask questions. That helped us learn calculus because we all were so comfortable around each other. Because we had all gotten to know each other one on one, we were able to just be ourselves and ask questions. I think that was what really helped us learn.

Barbara Ann, a student in the FIG:
This is a great way to make friends. . . . You get to come together as a group and . . . learn about NIU. . . . [You] can talk to people about [your] major. . . . [You] don’t have to worry about being dumb around guys. . . . [You] can ask as many questions as [you] want. . . . I think it is easier for most girls to communicate with girls, you know. If they like a guy, they don’t want to ask a question because he will think I am stupid or something. Well, this is a bunch of girls, and they all have the same feelings I do. And like Richard, he makes you feel so comfortable. Like he always bragged about us, and that makes you feel proud.

Josie, a student in the FIG:
I think the relationships that I developed were pretty cool, and knowing that I could overcome like an obstacle that I didn’t necessarily think I could . . . [W]working together was big for me. . . . I think it was obviously more than just the numbers and the grade that I got out of it. It was, you know, just the values and the experience of it all. And it was perfect for me to do it Freshman year the first semester, because it got me off on the right foot, you know. It really got my head in the game. So many of my friends that are Freshmen this year did terribly last semester . . . and I think this had a big impact on me because when one class really effects you . . . you don’t like stop there.

[E]ven though, you know, women want to try to be able to be in the real world and be independent, you know, you need to have like a starting place, and I think like a small women’s group like this is a good starting place. . . . you can develop more self-esteem and then you can go out there and face the head guy honcho at whatever and not care so much.

According to a student, Liz Holden:
Not only did the women in math FIG give me a new appreciation of learning math skills, but through it I met a lot of great people and adjusted better to living at NIU.

(top)


How can the results of the EWOMS project affect me?

We hope that by reading this page you have become more aware of misperceptions about women's abilities in mathematics. Furthermore, as a student, you may now be armed against some of these stereotypes. As previously stated, it appears that over time college freshmen become more accepting of the stereotype that women are inferior to men in math. This simple finding should help you stay tuned to outside forces that may be influencing both your perceptions of women in math and your peers' perceptions.

Now, you should also know more about women's learning styles and about how women can and do succeed in mathematics. If you, or someone you know, is a female with interest in mathematics or a related field, stay encouraged! Read more about the project by visiting the other links on the left toolbar, and give your friends and instructors this web address. You may also send an email to one of the project's principal investigators (see the personnel page to find out more information about the project's team).

Page Bibliography

Gutbezahl, J. (1995). "How Negative Expectancies and Attitudes Undermine Females' Math Confidence and Performance: A Review of the Literature," Information Analysis General.

Stipek, D., & Granlinski, H. (1991). "Gender Differences in Children's Achievement-Related Beliefs and Emotional Responses to Success and Failure in Mathematics," Journal of Educational Psychology, 83(3), 361-71.

Spencer, S. J., Steele, C. M., &; Quinn, D. M. (2002).Stereotype threat and women's math performance. [Chapter] A. E. Hunter & C. Forden, (Eds.). Readings in the psychology of gender: Exploring our differences and commonalities. (pp. 54-68). Needham Heights, MA, US: Allyn & Bacon. xvii, 318pp.

Stage, F. & Maple, S. (1996). Incompatible Goals: Narratives of Graduate Women in the Mathematics Pipeline. American Educational Research Journal, 33, 23-51.

(top)

NIU Math Department * NIU Women's Studies Program * NIU Home Page
NSF Home Page * Alvirne's Calculus Problems * Math Forum
Women and Mathematics Information Server
Association of Women in Mathematics * Caucus for Women in Statistics