1. Introduction
In the United States, women make up 50.8% of the general population, 57% of college graduates, and 39% of science, technology, engineering, and mathematics (STEM) bachelor’s degree recipients [
1]. In certain fields, the percentage of women is particularly low: physics grants only 20% of its bachelor’s degrees to women; engineering, 21%; and computer science, 19%.
While there are many issues involving women’s participation in STEM, this study focuses on one piece: the presence and participation of women in leadership in STEM fields in academia in the US. McCullough reported recently on the proportions of women serving in academic leadership positions in the US [
2]. The rate of participation in leadership tends to be lower than the proportion of women in science and mathematics. Female department chairs were recorded at 3–19% lower than the PhD rate for their respective fields for a random sampling of departments, and the range was 5–22% lower for top departments in the world. Why are women not found in these positions at the same rate as they are found in STEM? What are the barriers women encounter on their path to a STEM leadership position?
1.1. Literature Review
There is very little research on women’s leadership in STEM [
3,
4]. What little is known matches with the typical barriers encountered by women in leadership and in STEM. In a survey of its membership, the US-based Association for Women in Science found that cultural issues were the largest part of what female STEM leaders encountered: ideas or work being credited to men, feelings of inadequacy leading to fear of being called a fraud (imposter syndrome) [
5,
6], being assumed to be less competent, and general gender bias [
7]. In a study of US women in STEM leadership positions, Ritzdorf looked at internal and external factors affecting the careers of seven leaders. She found common themes of growth mindset, self-efficacy, barriers from stereotype threat, and issues of bias in communication [
8].
The literature on the barriers to women’s leadership is extensive. A good overview is provided by the American Association of University Women [
9], listing broad categories of barriers as recruitment and retention problems, gender discrimination, caregiving, lack of mentors, stereotyping, and bias. Examining the research on specific issues, one finds that female leaders have faced harassment [
10,
11], implicit gender bias [
12], imposter syndrome [
13], and issues with caregiving [
14] and other home/work problems [
15,
16]. The book “Through the Labyrinth” by Eagly and Carli provides a useful overview of women’s leadership research [
17].
In the STEM fields, research on barriers to women’s participation has been conducted for decades. There is no one easy answer to encouraging women to go into and stay in STEM. Initially the research suggested a chilly climate [
18,
19], then focused on deficiencies in women’s attitudes and behaviors [
20] and has now become focused on issues of society, life choices, and bias [
21]. The latest research suggests that many of the problems women face are cultural, and similar to what women in leadership positions face: implicit gender bias [
22], harassment [
23,
24], dual-career couple issues [
25], imposter syndrome [
5,
6], home/work balance [
26], and lack of sense of belonging [
27]. Many of these issues are discussed in references [
28,
29].
The factors that support women’s advancement in leadership are quite varied. Support comes in many forms: from one’s spouse [
30,
31] and family [
32], from peers and superiors [
33]. Advocacy from mentors and sponsors can help women progress [
33,
34], and formal leadership training programs can provide useful skills [
33,
35]. Many of these supports can be part of the networking [
31,
36] that is useful for women looking to lead.
For women in the STEM fields, similar drivers support career progression. Encouragement from teachers [
37], family [
38], and peers [
39] can help set a young woman on the STEM path. Networking and mentorship help women stay the course [
40]. Sponsorship and advocacy help progression in the field [
41]. A useful meta-analysis of literature is provided by Blackburn [
42].
Given that the most common problems women encounter in STEM and in leadership are similar, do these experiences interact with one another? Having dealt with a particular issue once, is dealing with it again easier? This study focused on determining what barriers women faced as leaders in STEM.
1.2. Research Questions
What barriers do women encounter as they move through STEM, and as they move into leadership? What forms of assistance do they encounter in these two areas?
Do female STEM leaders feel that having encountered bias in one area has helped them deal with bias in the other?
2. Materials and Methods
Based on the literature, a survey [
Appendix A] was developed to gather information about what has helped women attain leadership positions in STEM, and what has hindered their path. Barriers and assistance questions were developed based on the literature as discussed above. Basic demographic questions weeded out those who were not female and those not in leadership positions. The survey was designed for women in active STEM leadership positions. Leadership was not defined for respondents, allowing a broader range of participants. The focus was on academic leadership, so the chosen position titles included department chair, dean, and program director. Other leadership positions aligned with academia were also included, such as directors of centers and labs.
The survey included both multiple-choice and short answer questions, and also gathered demographic and leadership position data from respondents. Questions were designed to separate out barriers and assistance in the STEM area from those experienced in the leadership arena. Demographic information included STEM field and type of leadership position, but small sample size did not allow for further analysis at this level.
The survey was pilot tested with 13 women, contacted through social media (Facebook and Twitter, non-random snowball sampling). After the pilot-testing, the survey was revised. Additional assistance and barriers were added based on written comments, as well as broader definitions of current employment (retired, non-profit). An additional question asked about intersectionality issues that were not addressed in the rest of the survey. Then the formal survey was activated, and survey participants were invited through word of mouth, social media (Facebook and Twitter, listservs, snowball sampling), and via flyers at appropriate conferences. Conferences included the American Association of Physics Teachers meeting, the International Conference on Women in Physics in England and the Women Leaders in Science, Technology, and Engineering in Kuwait.
A total of 134 responses were received at the time of analysis. To control variables, only US participants were analyzed. Similarly, those whose leadership position did not match the criteria above were removed from analysis. Removing those not currently in STEM, and those not currently in academic leadership (dean, department chair, program director) left 62 responses.
An assumption that was made in this research study was that women in leadership positions would be able to distinguish between the barriers they encounter in STEM and the barriers encountered in leadership. For the majority of women, being in STEM comes first, and women encounter issues with STEM first. Then, in mid to later career, they move into leadership and encounter separate issues. They have been in STEM long enough to have acclimated, and so the new environment makes new challenges more obvious. This assumption may not be true for all respondents.
3. Results
3.1. Demographics of Sample
The 62 women in the analysis worked in a variety of fields in STEM. The field in which they served as a leader is listed in
Table 1. Their titles are grouped into rough categories and data are shown in
Table 2.
3.2. Barriers to Women’s Participation in Leadership and in STEM
How do the barriers women encounter compare in their path through STEM and their path to leadership?
Table 3 lists the number and percentage of women who had encountered certain barriers in their path to leadership. Respondents could choose more than one, so totals do not add up to 100%.
The data for barriers in STEM are similar.
Table 4 lists the barriers encountered in STEM, separate from leadership.
Figure 1 is a side-by-side comparison between leadership and STEM.
Respondents could also list other problems they dealt with in either STEM or leadership. For leadership, 16 respondents listed additional barriers, paraphrased here:
Goalpost moving/lack of clarity in metrics for promotion;
Targeted negative pushback to leadership;
Told I’m “too young” or “not ready”;
Salary discrimination;
Discouragement from superiors;
Age;
Academic sabotage, toxic work culture;
Ideas ignored then offered by male peer.
Perhaps the most disheartening response was the woman who said she had encountered “normal gender and minority challenges, nothing unexpected”.
Only four women wrote of other barriers in STEM: not being considered when openings arise, a “sink or swim environment on campus”, the same barriers as leadership, and being a first generation academic.
When asked what the biggest challenge was for women in the leadership track, 20 of 62 said gender bias: examples include “Men dominating conversations, meetings, arguments” and “Male colleagues pushing back against my authority and decisions”. Recognition or being taken seriously was cited by 17 women: “Being taken seriously by senior men who dismiss most things said or done by women as ‘taking advantage of affirmative action’” or “Not being recognised by others as having a leadership and decision making role for the institute I am now the director of”.
In STEM, the biggest challenge for 20 of the women was gender bias of some form or another: “Systematic devaluing of women faculty in department” or “Not being seen as possessing hard skills because of my gender and attractiveness” or “Having to be twice as competent to be viewed as good enough”. One woman wrote that “I’ve been flat out told by people ‘I wouldn’t have consulted you on this project if I knew you were a woman. But you seem okay, so we can work together.’”.
3.3. Intersectionality
Near the end of the survey, respondents were asked if there were other aspects of their identity that contributed to barriers in their career. Responses are in
Table 5. Age was by far the most common (mostly youth, not old age) and race/ethnicity second most common. Two women noted sexual orientation but that it was not an issue.
3.4. Interaction of Gender Bias in STEM and Gender Bias in Leadership
One of the key questions on the survey was about the interaction of gender bias in leadership with gender bias in STEM. The survey asked: “Research suggests that the barriers for women in leadership and the barriers for women in STEM are very similar. Considering your experiences in STEM and in leadership, which best describes your experience?” Answers to this question are in
Table 6.
Responses add up to 50 because 12 respondents chose “other”. These responses were quite varied:
“I don’t think gender bias in my career HELPED me as a leader... it just thickened my skin, made me tougher, and also gave me a zero tolerance attitude as a leader. Targeted negative pushback to leadership”
“I’ve experienced gender bias, but I didn’t really feel like there was a change when being a leader.”
“I experience gender bias and I still don’t know how to deal with it. I probably don’t even always recognize it.”
“I probably have experience [sic] gender bias in both but I don’t let it be a barrier.”
“I made a radical change moving from a career in IT to pursuing a graduate degree and later in employment in astronomy. The barriers were very different; specifically, impostor syndrome became a factor—completely unrealized by me until too late.”
“I overlook all biases due to determination to reach business goals, that is take one challenge at a time deal appropriately with it and move on.”
“I’m not sure how one “deals with gender bias.”
“I don’t know how to separate one from the other.”
“Where is the option for yes, gender bias BOTH as a leader or a woman in STEM?”
“Gender bias has been a minor issue both as a leader and as a woman in STEM.”
“The gender barriers are higher as a leader.”
“I don’t think I am very good at dealing with gender bias. It frustrates me too much.”
3.5. Assistance to Women’s Participation in Leadership and in STEM
Similarly to the questions about barriers, questions on the survey asked about what help respondents had encountered in their path through STEM and their path to leadership.
Table 7 lists the number and percentage of women encountering certain types of assistance in their path to leadership.
A similar question was asked about help received along the path to
STEM; results are shown in
Table 8.
Figure 2 is a side-by-side comparison between leadership and STEM.
Additional assistance in leadership was listed by four women, and includes experience on committees, self-awareness, and training in project management/people management. For assistance in STEM, again only four women added something: proactive learning, taking opportunities, positive interactions in graduate school, and therapy.
When asked what helped the most for leadership, 43 of 62 women mentioned something related to people: support, mentorship, encouragement, or advocacy: “support from my peers in the department - male faculty in my department…have _always_ treated me with respect and shown confidence in my leadership.” Only seven women mentioned training or opportunities. One woman said she had received no help on her path to leadership.
The data are similar for what is the most helpful for women in STEM: 47 of 62 women said people: mentoring and support. There were 5 women who said they had received no help in their path through STEM: “Honestly, I don’t feel I’ve had much “help”; it’s been a struggle in every sense. The best help I have had is from graduate students and postdocs who value my work and my mentoring; and me as a scientist... I can’t change my generation, but I can influence the next generation of scientists.”
4. Limitations
This research focused on women in STEM fields who have reached academic leadership positions. The sample used for analysis was US women only, and surveyed only women who have been successful both in STEM and in leadership. The sample size is small, and used primarily social connections and networking to reach women, so it is heavy in physics, the author’s field.
This is not a representative sample, but serves as a first look into this overlap of two areas where women are under-represented.
The assumption that women can distinguish between barriers in STEM and barriers in leadership may not be true for all women. The comments in
Section 3.4 suggest that some women had difficulty separating the two. A brief check of the data showed that for the barriers encountered, there were no barriers where every woman who had encountered the leadership had also encountered the barrier in STEM. For instance, 50 women selected work/life balance in leadership, but 47 selected this in STEM. While the congruity is large, it is not perfect, so women were able to distinguish in most cases.
5. Discussion
While there is a great deal of research on the drivers and restrainers for women in leadership, and separately for women in STEM, there is nearly nothing known about what women in STEM leadership roles face. Because having women in leadership positions can lead to increased rates of women in an organization [
43], this is one avenue to explore to help promote the participation of women in STEM. Along with the STEM + leadership results, this study also serves to verify that women are still facing barriers when working in STEM fields as well as in leadership positions.
Based on the results, women in STEM leadership positions have faced similar barriers in STEM and as a leader. The top three barriers in both areas were balancing work/family life, devaluing of achievements, and imposter syndrome. Over half of the respondents had also encountered blatant gender bias, discouragement, and microaggressions in both STEM and leadership. These are all cultural factors that will take time to mitigate.
The majority of female leaders agreed that having dealt with gender bias in STEM had helped them deal with gender bias in leadership. This is encouraging, and suggests that women looking toward leadership positions in STEM may not have twice the difficulty of being a woman in solely STEM or solely leadership.
The types of assistance women received in STEM and in leadership were comparable. The most common types of help for both were support from spouse/partner, and encouragement from peers. More than half the women had gotten the same types of assistance in both STEM and in leadership: informal peer networking, mentorship, and encouragement from superiors. These data suggest that supportive people are at the heart of what women need to stay in STEM and to advance to leadership positions. This is consistent with work by Brue [
44] and Nalls [
45].
Another study of this issue is in progress, listening to female STEM leaders’ experiences through personal interviews. A more focused view of barriers and assistance will be acquired, which will help in furthering the goal of encouraging women to participate in STEM leadership.
The results of this study point to cultural factors as the main barriers and personal support as the main help for women in STEM leadership. If we are to reach an equitable rate of participation for women in leadership roles in STEM, we need to be working to change the culture of STEM and the culture in leadership. From devaluing women’s achievements and disrespecting their authority, we need to move towards an environment where every leader is treated with respect.