Resources

How can I prepare for a computing major?

How can I prepare for a computing major?

Produced with the Association for Computing Machinery (ACM) and the Computer Science Teachers Association (CSTA), this card gives computing-specific advice for the steps to take on the path from high school to college.

Preview Image

A Lucrative, Secure Computing Career: Community College Can Take You There

This poster highlights the importance of community colleges to educating the computing workforce. It connects various pathways into community colleges, outlines some of key components of the community college experience, and details some of the high paying technical careers these students will be working toward. The poster was developed in collaboration with the Academic Alliance's Community College Subcommittee.

Top 10 Ways to Retain Students in Computing

Top 10 Ways You Can Retain Students in Computing

This brief, easy-to-share resource highlights the top ten evidence-based ways to retain undergraduate students in computing.

View online.

Strategic Planning for Retaining Women in Undergraduate Computing

Strategic Planning for Retaining Women in Undergraduate Computing

This workbook presents some guidelines for strategically planning a multi-pronged approach to retain females — and all students — in undergraduate computing programs of study.

What are the Important Components of Targeted Recruiting? Change the Gender Composition of High School Computing Courses (Case Study 2)

What Are the Important Components of Targeted Recruiting? Change the Gender Composition of High School Computing Courses (Case Study 2)

Targeted recruiting means planning strategically: set quantifiable goals; identify large, capable audiences; personalize the content of your message; deliver that message in media that are relevant to your audience; and pay attention to people who influence your audience’s decision-making. High school computer science teachers who actively recruit girls and minority students report more students overall and more female students in their courses.

Mentoring-in-a-Box: Women Faculty in Computing

Mentoring-in-a-Box: Women Faculty in Computing

Women in scientific disciplines face challenges that range from institutionalized bias to differences in communication styles and a lack of female role models. Mentoring-in-a-Box: Women Faculty in Computing can help you start and sustain a successful mentoring relationship.

Why Should Young Women Consider a Career in Information Technology?

Why Should Young Women Consider a Career in Information Technology?

This card gives adults talking points and additional resources for a conversation with their daughters and/or other young people. The main message is that IT offers meaningful work, security and high salaries with a bachelor’s degree, and flexibility and variety. Information is provided to address these specific questions: What should you tell a young woman about a career in IT? How can a young woman prepare now for a career in IT?

Strategic Planning for Recruiting Women into Undergraduate Computing: High Yield in the Short Term

Strategic Planning for Recruiting Women into Undergraduate Computing: High Yield in the Short Term

This workbook includes examples, guidance, and templates for developing a strategic recruitment plan to increase participation of females in undergraduate computing.

Preview Image

Top 10 Ways to Engage Underrepresented Students in Computing

These tips will help you to engage students from historically underrepresented populations (females, men and women from racial/ethnic minority groups) in your computing courses. These ideas and examples are drawn from theory and research conducted by social scientists who study issues related to diversity in computing. Methods range from encouraging words to inclusive classroom environments.

View Online

Which computing pathway is right for me?

Which computing pathway is right for me?

This card, co-branded by the six founding PACE (Partnership for Advancing Computing Education) organizations, explains how computing interests and talents line up with different undergraduate courses of study and the careers that follow.

Key Practices for Retaining Undergraduates in Computing

Key Practices for Retaining Undergraduates in Computing

Based in research on women’s participation in computing, this document outlines a model of the system of undergraduate experiences that affect retention in undergraduate programs. To create and sustain excellence through diversity, effective practices must be mainstreamed into the experiences of all students, not just those of women or minorities.

How Does the Physical Environment Affect Women's Entry and Persistence in Computing? Design Physical Space that Has Broad Appeal (Case Study 1)

How Does the Physical Environment Affect Women's Entry and Persistence in Computing? Design Physical Space that Has Broad Appeal (Case Study 1)

The décor of physical spaces conveys messages about the kinds of people who belong there and the kinds of activities that should be done there. Understanding this influence allows us to actively craft an environment that makes a broad range of people feel welcome in computing. 

How Does Engaging Curriculum Attract Students to Computing? Harvey Mudd College's Successful Systemic Approach (Case Study 2)

How Does Engaging Curriculum Attract Students to Computing? Harvey Mudd College's Successful Systemic Approach (Case Study 2)

Making curricula more relevant to students, introducing collaborative learning into the classroom, and tailoring courses to different student experience levels benefit female as well as male students. This case study focuses on the successful pre- and early-computing major redesign carried out at Harvey Mudd College. Student performance has held steady while skyrocketing women’s representation from consistently less than 20% all the way to 50% of the incoming computer science majors.

How Can REUs Help Retain Female Undergraduates? Faculty Perspectives (Case Study 1)

How Can REUs Help Retain Female Undergraduates? Faculty Perspectives (Case Study 1)

Undergraduates with positive research experiences feel more confident and motivated to enter graduate programs. To facilitate successful REUs, supportive faculty advisors or graduate mentors should clearly communicate goals to students and allow them to spend a large amount of time on research, increasing independence as the project progresses. Professors Scott McCrickard of Virginia Tech University and Margaret Burnett of Oregon State University treat their undergraduate researchers as members of their respective research teams.

How Can Encouragement Increase Persistence in Computing? Encouragement Works in Academic Settings (Case Study 1)

How Can Encouragement Increase Persistence in Computing? Encouragement Works in Academic Settings (Case Study 1)

Encouragement increases self-efficacy, which is the belief in one’s ability to successfully perform a task. Because we are more likely to engage in tasks that we believe we can perform successfully, encouragement may be especially useful for attracting women to male-stereotyped fields such as computing. Simple though encouragement is, fewer than half of the faculty members in the average computer science department in the United States say they do it.

Pages