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Computer Science & Information Technology Symposium 2003

Session Presentations

How Real Interdisciplinary Curricula Can Work for All of Us
by Don Kirkwood

We've got a problem in computer science education and it's two fold. First, we are the only curriculum area where, as Ed Lazowska said at this year's Computer Science and Information Technology Symposium attached to NECC stated, equity between young men and women is actually going in reverse. Only 17% of the students who take the Computer Science Advanced Placement Exam1 are young women. Beyond this, in1984 37% of computer science bachelor degrees were awarded to women, but by 1999 this number had shrunk to less than 28%.2 Both of these situations are unacceptable. But there is another related issue that directly concerns high school computer science. Because of a complete lack of support for education, classroom size is ballooning. In many districts, if a class does not contain 30 to 40 students, it simply doesn't exist. This means that specialized courses in areas such as art, high-level science, math and computer science go by the wayside. Since computer science is almost throwing away half of its potential enrollees by not attracting young women, many school districts are simply shutting down their computer courses.

Now most teachers have not been just sitting on their hands and letting this situation continue. There are many groups from Carnegie Mellon's 6APT to the Northwest Girls Collaborative Project that have offered well reasoned suggestions for ways of improvement that many teachers have take to heart. These cover a wide variety of areas:

  • providing modeling (more women teachers, ex-students on panels or as mentors, present advanced students as mentors, clubs),
  • recruiting (notice the difference in the way a 6'5" young women versus a very bright, advanced math student is treated when she walks into your school),
  • creating new types of computer problems - women treat a computer as a tool; whereas, men treat it as a toy - we need to reflect this more in the problems we assign,
  • stop creating an environment where techno-speak stops students from exploring technology,
  • offering single gender classes.

Unfortunately, no matter what options we select, it seems that we must first gain enough young women in our courses to create a critical mass of female students so that they feel comfortable in our classrooms and research shows that this simply hasn't occurred. My hypothesis is that all of the above ideas are effective, but, by themselves, they lack the attractiveness to create real, long-term change. A major way to combine the assets of all the above is to teach far more interdisciplinary classes.

Over ten years ago, during an educational conference sponsored by the Association of Oregon Industries that brought together teachers from China, Britain, Germany, Japan and Oregon, a challenge was given to do something in education that would really make a difference. As I sat through the sessions, I heard the cry to do something. I don't find that bureaucracy is very effective for true educational change, so my idea had to be small - something I could personally handle. I started sketching out an idea to combine the keys of success for any student: English, math and the tools they need to study science, history, and art... As I continued to mold the idea I came up with MECA (Math, English, Computers and their Applications). This course, designed for average sophomores or students just below track, combines proof-oriented geometry, Sophomore English, computer programming and literacy.

Over the ten or so years that this course has been running the results have been even more than I had hoped. Many long lasting friendships have had their origins in MECA and MECA's Oregon state test scores in the course have been far above our school and state averages. More apropos to this conversation, a huge percentage of the young women in my AP CS courses come from this one class of 35 students. Although this course consists of less than 10% of the sophomores in our school, around 50% of the females in our AP CS courses come from MECA. Beyond this, there are at least 15 young women who took MECA presently pursuing computer related careers and many times this number who have graduated from universities and are working for a wide variety of computer companies.

I believe the reason for this continuity and growth is several fold. By having computers as just one component of the course, many girls join the class because of the offering of additional help in geometry or English and discover that they are very good at and enjoy computers. They constantly say, "I wouldn't have taken a programming class: because I was not interested, not good enough or didn't know what even it was." Then, throughout MECA, they see how computers can be tools to help them solve problems. By using computers in their English class as a presentation, information gathering and analysis tool and in their geometry as exploration and organizational tool, they lose their fear. As we move into computer programming, they enter excitedly and comfortably. They begin to see that their attributes are an asset to both themselves and equally importantly, to their group. But by the end of the course, they are enjoying themselves, confident in their ability and ready to jump over the next bar.

MECA is just my personal way to get involved with this process. I believe that almost any interdisciplinary combination will bring about the same results. All of us are attracted to something new and if it offers real results it stays attractive. Not only this, but if we are teaching something that we love, students are drawn to our enthusiasm. So any combination of courses that contains computer science, will move more diversity into our field because a wider variety of students will enter the courses. This will allow us to practice all the elements of research that work for all students and encourage a much wider variety of students to continue into the field of computer science.

We have three choices, we can

  1. say, as unfortunately a few of the writers on the AP Computer Science list serve suggest, that it is genetics that make white males far more interested and effective in the computer science arena,
  2. keep hitting our heads against a wall by attempting to apply good techniques to a too small sample and therefore lose before we get started,
  3. or try a new approach that subversively gets a wider variety of students into a course and then sneaks in the fact that they are all competent and can enjoy the abilities that computers bring into their academic and personal lives.

If we don't find a solution, we will continue down the trail of smaller and smaller classes made up of a population with little female representation. Then, not only will we all be teaching other areas, but also we will have lost one of the primary strengths of our country and that is the fact that our diversity brings out a far broader range of solutions to the problems our world faces today. We must take a step forward both for ourselves as teachers as well as, more importantly, our students.

1 Tech-Savvy:Educating Girls in the New Computer Age (2000)
2 Balancing the Equation: Where are Women and Gils in Science, Engineering, and Technology? (2001)

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