computer science

Closing the computer science gender gap: How one woman is making a difference in many lives

**The Edvocate is pleased to publish guest posts as way to fuel important conversations surrounding P-20 education in America. The opinions contained within guest posts are those of the authors and do not necessarily reflect the official opinion of The Edvocate or Dr. Matthew Lynch.**

Maria Klawe, Harvey Mudd College  

I’ve been passionate about increasing women’s participation in computer science for more than 25 years. While the number of undergraduate women pursuing some STEM (science, technology, engineering, math) fields like biology and chemistry has steadily increased over the past couple of decades, women’s participation in computer science (CS) has actually been declining.

Indeed, within the last 20 years the percentage of undergraduate women who received CS degrees plummeted by almost 40%. According to the National Science Foundation, in 1995, 29% of bachelor’s degrees in CS were awarded to women; by 2012, the most recent year for which NSF data is available, only 18% of CS undergraduates were women.

The Computing Research Association (CRA) reports even lower numbers. CRA’s annual Taulbee Survey of over 100 major computer science departments in North America found that by the mid-2000s, the percentage of women graduating with CS bachelor’s degrees averaged 14%.

For me this issue is both personal and global.

Working to remove barriers

I’m a mathematician and a computer scientist. Back when I was getting my PhD in math, there were very few women in my field. Despite receiving discouragement because of my gender, I worked hard.

And I excelled. I went on to take up leadership roles in many places – at IBM, University of British Columbia, Princeton and now at Harvey Mudd. I’ve been the first woman in nearly all these positions.

I know the struggles that can hinder women when they are working in a predominantly male field. I also know firsthand how computer science and technology make for a great career, offering a good income, work-life balance and opportunities to travel. They also offer a chance to make significant contributions to the world, by working on important societal problems.

I want young women to have these opportunities.

I’ve been working on this issue for decades. When I came to Harvey Mudd College in 2006, the CS department was averaging only about 10% women majors. The faculty had decided to make significant changes to attract more women.

They redesigned their introductory computer science courses to focus less on straight programming and more on creative problem-solving. They included topics to show the breadth of the field and the ways in which it could benefit society.

In order to reduce the intimidation factor for women and other students with no prior coding experience, they split the course into two sections, black and gold (Harvey Mudd’s colors), with black for those who had prior programming experience and gold for those with no prior experience.

This worked wonders to create a supportive atmosphere.

Making the field exciting for women

Instead of traditional homework, which can be isolating, the faculty assigned team-based projects so that students coded together. And most importantly, they made the courses fun. The intro CS courses went from being the least-liked course in our core curriculum to being the most popular.

After the courses were introduced in 2007, we saw an immediate and steady increase in the percentage of female students majoring in CS. Within four years, we went from averaging around 10% women majors to averaging 40%. We have continued to average 40% since 2011.

In addition, faculty created early summer research opportunities designed for students who had completed only one or two CS courses, and encouraged their first-year female students to participate. A number of studies have shown that research experiences for undergraduate students increase retention and confidence in STEM fields, factors that are particularly important for women and minorities.

Harvey Mudd’s female students who participated in early CS research projects indeed reported greatly increased interest in the discipline and a boost in confidence. They realized they could do the work of a computer scientist and that they enjoyed it as well.

Even today, there aren’t enough women entering the field of computer science. Harvey Mudd CollegeCC BY

We also send large contingents of women students each year to the Grace Hopper Celebration of Women in Computing,the largest conference for women working in technology fields. At this event, students get to see role models and are excited about the many amazing technology career paths they can pursue.

Other institutions are starting to take up our approaches.

For instance, the Building Recruiting And Inclusion for Diversity (BRAID) initiative that we launched with the Anita Borg Institute is working to build computer science diversity at 15 academic institutions. We are about to offer our intro computer science course as a free MOOC on edX, so that professors and students can access the course materials.

There’s still work to be done

However, many barriers and challenges remain.

The National Science Foundation’s most recent (2012) report shows that computer science has the lowest proportion of women receiving bachelor degrees of all the STEM fields. The percentage dipped to a mere 11% from 2007-2009 and gradually returned to 14% by 2013-2014.

Computer science should be a required part of secondary education, but a lot of schools don’t have computer science teachers. Most young people who go to college today have not had much exposure to computer science.

We also have to combat the cultural belief that some people are simply born with math, science or computer talent and others are simply “not good at it.” There’s lots of research that shows that persistence and hard work play a much larger role in success in any area of science and engineering than “native ability.” Another serious challenge is posed by the media portrayal of careers in technology, which builds certain stereotypes.

I want people to think about how we can change our images of who we consider to be competent in technology. At the moment, the image of the computer scientist is limited to a white or Asian male.

One thing we know for sure is that you get better solutions if you have more diverse teams working on them. We need the female perspective to get the best solutions to very pressing problems.

Need for diversity

We also need more African Americans, Latinos/Latinas, poets, football players and artists involved in creating technology. Right now there is unfilled demand for computer science grads and not just in the tech industry.

I want computer science and technology to be a world that embraces everyone who has passion, ability and interest, whether they look like the dominant group or not.

Today, computer science touches all industries. Its products are embedded in our daily lives. Addressing the significant problems of the world – from climate change to health care to poverty – will involve technology.

I think the world will be an incredibly exciting place and we will see amazing technological developments when we create a much more diverse tech community.

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_________________________

Maria Klawe is President at Harvey Mudd College.

This article was originally published on The Conversation.

Read the original article.

Computer Science in K-12 Classrooms Needs to Catch Up

It’s estimated that in the next decade the number of computer science jobs in the U.S. will outnumber qualified people by 1 million. That’s 1 million jobs for the taking that Americans will miss out on because of inadequate skill sets. Despite this, only 10 percent of K-12 classrooms have computer science programs. So what gives?

The Problem

Traditional subjects like English and math receive a lot of play time in K-12 classrooms and they are considered “building blocks” for other subjects, like computer science. So when a high school senior decides to seek out a college degree in English, or mathematics, he or she has a general idea of what to expect in the classes that follow. The same can be said for arts-based topics, like the visual arts or music. Feasibly a young person accepted to college for those topics has had several years of training in it and plans to build on that base knowledge.

The same is not necessarily true for computer science majors. If only 10 percent of schools are teaching computer science courses (and we don’t know how extensive those programs may be), then it’s a safe bet that many of the kids entering those college classes have no idea what to expect. Or even worse – young people who may show promise in computer science never realize their potential because there is never a primer class to alert them to it. Despite its prevalence in the “real world,” computer science classes on K-12 campuses are not much changed from a decade or two ago.

There is also the slow nature in which K-12 schools, especially public ones, adopt new technologies. Classroom computers are nothing new but the science behind today’s careers is constantly evolving. It is difficult for classrooms to find the resources to keep up with the changing face of computer science. In some cases, by the time a particular technology is obtained or curriculum purchased, it is already on its way out the door as being considered cutting-edge. It can feel overwhelming, and frustrating, and this red tape keeps technology from reaching students’ hands in a reasonable time frame.

The Solutions

To meet the computer science job demand, K-12 schools will need help from outside partners. This could come in the form of area businesses willing to donate needed technology to make more classes happen or curriculum partnerships with groups like Code in the Schools. If every computer science classroom tries to re-invent the wheel, a lot of time and resources are wasted. So asking for help is the first step.

There also needs to be a larger focus on computer science at a younger age. This does not just mean computers and mobile devices available in K-12 classrooms but should include lessons on the “how” of the technology. The site Code.org has basic coding activities for children as young as Kindergarten – so teachers should be taking advantage of these resources. Waiting until middle or high school is simply too long to wait to spark an interest in K-12 students in computer science.

Finally, special attention should be paid to getting young women interested in computer science learning. Research tells us that girls are just as adept as boys at learning STEM topics, computer science included, but their interest tends to drop off in late elementary or middle school. Knowing this, educators should make sure girls are exposed to the same computer science learning as boys and encouraged through organizations like Girls Who Code. It may still take a generation to get to the point where young women feel completely comfortable seeking out computer science opportunities, so in the meantime support systems need to be there.

What solutions would you suggest for the lack of computer science in K-12 classrooms?

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