Abstract
Globally, the participation and advancement of women chemical scientists as they progress through higher education and their careers continue to lag behind those of their male colleagues (National Science Foundation (NSF), National Center for Science and Engineering Statistics (NCSES) 2013a, 2013b, 2013c; National Research Council 2007; Marzabadi et al. 2006; NRC 2006a; Royal Society of Chemistry 2008). Gender disparities also persist in pay, promotion rates, access to certain areas of specialization in research funding and engagement, and key leadership positions. The issue has become one of increasing concern among many nations that frame the underrepresentation of women in chemistry and other science, technology, engineering, and mathematics (STEM) fields as a threat to their country’s global economic competitiveness (Osborn et al. 2000; Organisation for Economic Co-operation and Development 2007; Goulden et al. 2009; Pearson and Fechter 1994). In the United States, despite maintaining global leadership in chemistry for some time, increased competition from Germany, the United Kingdom, Spain, Italy, and some Asian countries—all of which are all making more-strategic investments in chemistry research and in training—pose a growing concern for policy-makers and employers (NRC 2006b).
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Notes
- 1.
Note that racial/ethnic minorities underrepresented in the chemical sciences do not include Asians, whose numbers dominate the data for Asian/Pacific Islanders. For a historical and biographical study of African American women chemists who have been historically underrepresented in the field, see Jeanette Brown’s (2011) African American Women Chemists.
- 2.
For example, those who had accepted but not yet begun full-time positions by the end of 2011 would be counted as still seeking positions.
- 3.
Engineering, Physics, and Computer Science continue to be the lowest S&E participation fields for women.
- 4.
Data and analysis are for US Citizens and Permanent Residents only, unless otherwise stated. ASEE database was used to create figures and tables regarding undergraduate enrollment and degree awards. IPEDS completions survey by race was used to create figures and tables for graduate degree awards.
- 5.
Temporary residents are not reflected in graphs but are included in the calculation of total enrollment and degree awards, as well as total women enrollment and degree awards at all levels. The percentage of temporary residents at the undergraduate level ranges from 5.9 to 12.8% during this period.
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Appendices
Vignette 5.1 Enrollment and Degree Awards in Chemical Engineering
1.1 5.11 Introduction
Chemistry reflects a broad field with several branches that span into other areas of science, including engineering (see Chap. 5 in this volume). This article explores women’s experiences at the intersection of gender and race/ethnicity within chemical engineering which falls between chemistry, where women have shown major progress (NSF, 2012), and engineering, where women and minorities continue to have extremely low participation (NSF, 2013; Hill et al. 2010).Footnote 3 Using American Society for Engineering Education (ASEE) and Integrated Postsecondary Education Data System (IPEDS) databases, we examine statistical trends in women’s undergraduate enrollment and degree awards as well as graduate degree awards.Footnote 4
1.2 5.12 Findings
Between 2005 and 2011, the number of women enrolled in chemical engineering at the baccalaureate level increased from 8,035 to 12,308. Yet the percentage of women enrolled declined from 34.5 to 31.7%. The percent of Asian and Hispanic women among chemical engineering baccalaureate enrollment fluctuated by less than 1% during this time period, while the percentage of Black women declined from 3.0 to 1.8% and White women declined from 18.5 to 17.4% (Fig. 5.2).
The percentage of women awarded bachelor’s degrees in chemical engineering followed a similar trend as enrollment. While Asian and Hispanic women remained around 5 and 3% of chemical engineering bachelor’s degree recipients, respectively, Black women declined from 3.3 to 1.5% and White women declined from 21.3 to 19.3% (Fig. 5.3).
Among women in chemical engineering, African American’s representation decreased most significantly.Footnote 5 In 2005, African American women comprised 8.6% of all women enrolled in chemical engineering and 8.8% of all degrees awarded to women in chemical engineering at the baccalaureate level (see Figs. 5.4 and 5.5). By 2011, their enrollment among all women declined to 5.8%. Also, African American women decreased to 4.5% of all women awarded bachelor’s degrees in chemical engineering.
Interestingly, while African American and Hispanic women have lower racial/ethnic representation than their gender counterparts, they have the highest gender representation among their racial/ethnic counterparts. African American women peaked in 2005 with 51.5% (690) of total African American undergraduate chemical engineering enrollment and 57.1% (149) of African American undergraduate chemical engineering degree recipients (Figs. 5.6 and 5.7). In 2005, Hispanic women were 47.6% (981) of all Hispanic undergraduates enrolled in chemical engineering and in 2006 they were 51.0% (172) of all Hispanic undergraduate chemical engineering degree recipients.
At the graduate level, the numbers of degrees in chemical engineering awarded to women were much smaller, and the changes over time were not as straightforward as at the baccalaureate level. White women were the largest group in receiving master’s degrees. Nevertheless, their share among all women master’s degree recipients (including temporary residents) decreased from 29.2% (124) in 2005 to 26.3% (93) in 2008, peaked at 31.4% (125) in 2009, and then decreased 25.7% (130) in 2011. Asian women were the second largest group, receiving 7.3% (31) master’s degrees in 2005 and 9.3% (47) in 2011. Black and Hispanic women had similar low shares and both declined over time. However, the drop was greater for Black women (from 5.6 to 3%) than for Hispanic women (from 4.5 to 3.8%) (Fig. 5.8).
The patterns at the doctoral level were somewhat similar. However, unlike at the master’s level, White women’s representation among all women doctorate recipients increased from 26.8% (55) in 2005 to 32% (90) in 2011. Asian women’s representation increased from 6.3% (13) to 10% (28). Both Black and Hispanic women’s representation remained low—at 2.4% (5) and 3.4% (7), respectively, in 2005 and at 2.5% (7) each in 2011 (Fig. 5.9).
In terms of the representation among their own racial/ethnic groups, the patterns for the four groups somewhat converged at the master’s level. In 2011, White women earned 25.7% of all master’s degrees awarded to all Whites, and Hispanic women accounted for 35.8% of those awarded to all Hispanics (Fig. 5.10). At the doctoral level, the percentages of Black and Hispanic women among their own race/ethnicity declined between 2005 and 2011, from 55.6 to 46.7% and from 35 to 30.4%, respectively. However, the percentages of Asian and White women within their own race/ethnicity increased from 30.2 to 47.5% and 20 to 29.3%, respectively (Fig. 5.11).
1.3 5.13 Discussion and Conclusion
Similarities in enrollment and degree trends at the baccalaureate level for all women in chemical engineering suggest that women persist in chemical engineering at consistent rates. However, the low representation of women, especially White, Black, and Hispanic women, supports the need for a renewed emphasis on recruitment of women in chemical engineering. Moreover, the steady decline in enrollment and degree awards trends for African American women across all three cohorts (total, women, and African Americans) suggests the need for more research regarding experiences at the intersection of being African American and female.
The large gap in the numbers of women receiving graduate degrees and those receiving bachelor’s degree could be explained by the fact that the bachelor’s chemical engineering degree is a professional degree (Hanson, 2011a). However, the master’s degree can provide more opportunities, including an increase in salary (Hanson, 2011b). Women’s representation within all races/ethnicities declined from the bachelor’s to the master’s level, which indicates that women were not taking advantage of the master’s degree as much as their male counterparts. However, Black, Hispanic, and White women’s representation relative to their male counterparts were higher at the doctoral level than at the master’s level in over half of the time period. In other words, while the numbers were low, Black, Hispanic, and White women were able to maintain or even increase their representation relative to their male counterparts.
1.4 References
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Vignette 5.2 Science Activities in Taiwan
Activities sponsored or partly sponsored by Projects on Mainstreaming of Gender in Science and Technology (2011–2013)
The Projects on Mainstreaming of Gender in Science and Technology, together with the Chemical Society of Taiwan and the National Science Council of Taiwan, have offered a number of activities directed to attracting youngsters—and especially young girls—into the chemical sciences. For example:
2.1 5.14 Chemistry Papago (“Chemistry Down the Road”)
A van loaded with simple chemicals and posters drives around the island, particularly to rural areas, including isolated small islands. Usually, remaining for 4 h at each stop, youngsters see a chemistry magic show, carry out hands-on experiments, and take part in games that require scientific thinking.
2.2 5.15 Science Camps for Junior High School Students
During summer vacations, an average of 50 students, half of whom are girls, spend 3 days and 2 nights in the dormitories of Tamkang University, in which they listen to lectures and carry out experiments that illustrate the role of science in everyday life. Two such camps are held each summer. At least half of the lecturers are female scientists in order to provide more role models for the youngsters. The campers are also shown a short film on gender respect, followed by discussions hosted by gender experts.
2.3 5.16 Science Camps for High School Students
For 1–2 days on weekends during the semester, or 2–3 days during winter/summer vacations, students largely from girls’ high schools listen to lectures and carry out chemistry and physics experiments. As with the science camps for junior high school students, at least half of the lecturers are female scientists who serve as role models for the participants. Similarly, students are shown a short film on gender respect and participate in discussions hosted by a gender expert. The camps may be in their own schools or at one of the universities.
2.4 5.17 Gender and Science Summer/Winter Camps
Directed mainly to female college and graduate students from STEM fields (although a few other fields are also included), participants spend 3 days in a scenic area to take part in discussions that focus on gender aspects in science.
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Borello, L.J., Lichter, R., Pearson, W., Bryant, J.L. (2015). International Status of Women in the Chemical Sciences. In: Pearson, Jr., W., Frehill, L., McNeely, C. (eds) Advancing Women in Science. Springer, Cham. https://doi.org/10.1007/978-3-319-08629-3_5
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