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676                                  SOHAR ET AL.



      utility patent category, we find a marked difference  For example, 61% of men and just 46% of women
      in women’s participation across technologies, with  holding STEM doctoral degrees work in research
      more women inventors named on chemical patents  and development positions (22).
      than electrical or mechanical patents” (9). In their    Frietsch et al. (19) find that, internationally, the
      international analysis, Frietsch et al. note low shares  relative contribution of women between 2003 and
      of female patenting in the U.S. in the top two fields  2005—averaged across all technological fields—is
      of pharmaceuticals and basic chemicals and found  highest in Spain (12.3%), followed by France (10.2%)
      that, overall, the U.S. comes in below the interna-  and a group of countries with similar levels (of more
      tional average in female patentees (19).    than 8%) consisting of Denmark, Australia, the U.S.,
        In IT fields, the overall level of female participation  Belgium, and Sweden. At the lower end of the scale
      in IT patents remains low; however, recent trends are  are Germany (4.7%) and Austria (3.2%). The gen-
      promising. While women held only 2% of all IT pat-  eral trend over time has been a strong increase in
      ents in 1980, the share increased to approximately 6%  women’s contributions to technology output in
      in 2005 and 8% in 2010. Women’s patenting patterns  most countries, but it is still at a relatively low level.
      differ widely from one organization to another. For  Female contributions are highest in pharmaceutical
      example, several companies were shown to have 20%  and basic chemicals, with the lowest contributions
      to 30% of their patents naming at least one female  in engineering.
      inventor, while some companies have less than 5%    While all of these studies and prior work analyzed
      of their patents naming a woman inventor. This sug-  barriers to female patenting and entrepreneurship
      gests that individual organizational environments do  rates, many have also indicated a need for additional
      matter and can influence women’s patenting patterns  tools and resources to better understand and mea-
      (20).                                       sure female participation in the innovation economy.
        There is a strong gender gap in STEM entre-  Recommendations from prior work for increasing
      preneurship and patenting; across all STEM fields,  women’s patenting activities include developing sys-
      women with doctorate degrees have lower rates of  tems and data tools to better track gender (8). Our
      patenting and entrepreneurship than do men, with  study is an initial analysis on such systems and tools.
      women STEM doctorates engaging in both activ-
      ities at lower rates (5.4% versus 7%, respectively)  METHODOLOGY
      (21). Influencing all of this is the ongoing issue     The following sections outline the specific aspects
      with women entering and staying in STEM fields.   of the research methodology, including research
      Illustrating this point, “[i]n 2010, only 19.1% of   questions, research design, sampling strategy, and
      engineering degrees, 20.9% of computer science,   data collection process as well as the data analysis
      and 38.7% of degrees in the physical sciences were   strategy and validity and implications techniques
      awarded to women, whereas 58.3% of degrees in   that were undertaken.
      the biological sciences were held by women” (8).
      Women in STEM are concentrated in the life sci-  Purpose of the Study
      ences, which do not produce as many patentable     The purpose of this study was three-fold: to
      inventions as do fields such as engineering and com-  uncover how TTOs are incorporating gender con-
      puter science. Hunt et al. (18) estimate that gender   siderations into their reporting activities, to increase
      segregation across STEM fields accounts for 31% of   awareness about the importance of gender tracking
      the commercial patenting gap and that gender seg-  for those who have not considered gender impact,
      regation in specific job tasks explains at least 13% of   and finally to increase the number of university TTOs
      the commercialized patenting gap. This gender gap   tracking gender. This investigative study was guided
      becomes more pronounced in positions where a great   by the following questions:
      amount of experience is required (6). Women are
      also less likely than men to work in patent-intensive   1.  What is the availability of data on participa-
      jobs, including research, development, and design.     tion rates at academic institution TTOs regarding
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