By Doug Ward

Martha Oakley couldn’t ignore the data.

The statistics about student success in her discipline were damning, and the success rates elsewhere were just as troubling:

A white woman in a green blouse speaks in front of a white board.
Martha Oakley, a professor of chemistry and associate vice provost at Indiana University, speaks at Beren Auditorium on the KU campus.
  • Women do worse than men in STEM courses but do better than men in other university courses.
  • Students of color, first-generation students, and low-income students have lower success rates than women.
  • The richer students’ parents are, the higher the students’ GPAs are.

“We have no problem failing students but telling ourselves we are doing a good job,” said Oakley, a professor of chemistry and an associate vice provost at Indiana University, Bloomington. “If we are claiming to be excellent but just recreating historical disadvantages, we aren’t really doing anything.”

Oakley spoke to about 40 faculty and staff members last week at a CTE-sponsored session on using mastery-based grading to make STEM courses more equitable. The session was part of a CTE-led initiative financed by a $529,000 grant from the Howard Hughes Medical Institute, with participants from KU working with faculty members from 13 other universities on reducing equity gaps in undergraduate science education.

The work at KU, IU, and other universities is part of a broader cultural shift toward helping students succeed rather than pushing them out if they don’t do well immediately. Most disciplines have been changing their views on student success, but there has been increasing pressure on STEM fields, which have far lower numbers of women and non-white students and professionals than many other fields.

Oakley said she started digging deeper into university data about five years ago after attending a conference sponsored by the Association of American Universities and getting involved in IU’s Center for Learning Analytics and Student Success. She also began working with a multi-university initiative known as Seismic, which focuses on improving inclusiveness in STEM education.

She and some colleagues started by asking questions about the success rates of women in STEM but then recognized that the problem was far wider.

“And so we looked at each other and said, ‘Yeah, forget the women. Let’s worry about this bigger problem,’ ” Oakley said. “And we didn’t forget the women. We just had confidence that the things that we would do to address the other groups would also help women.”

Using analytics to guide change

In last week’s talk, she used many findings from Seismic and the IU analytics center as she made a case for changing the approach to teaching in STEM fields. For instance, she said, 20% to 50% of students at large universities fail or withdraw from early chemistry courses, with underrepresented minority students at the high end of that range. Students who receive a B or lower in pre-general chemistry courses have less than a 50-50 chance of succeeding in general chemistry.

She also talked about a personal revelation the data brought about. In 2011, she said, she received a university teaching award, and “by every metric, I knew I was doing my job really well.”

The data she saw a few years later suggested otherwise, showing that 37% of underrepresented students and 24% of the other students in her classes dropped or failed in the year she received the award.

“The major part of the story is we’ve all been trained in our disciplines to teach in a certain way that really was never particularly effective,” Oakley said.

We have learned much about how people learn but have continued with ineffective teaching strategies. That needs to change, she said.

“One really simple thing we can do is to say we only give teaching awards to people who actually demonstrate that their students have learned something,” she said.

A mastery-based approach

To address the problem at IU, Oakley has been experimenting with a mastery-based approach to grading.

The way most of us grade exacerbates inequities, Oakley said. It emphasizes superficial elements (basically memorization) and does nothing to reward learning from mistakes, persistence, or teamwork – “all the things that matter in life.” Grades are also poor predictors of how well students will do in jobs or in graduate school, she said.

Mastery-based grading gives students multiple attempts to demonstrate understanding of course material. It is related to another approach, competency-based learning, which also gives students multiple opportunities but focuses on application rather than simple understanding.

Oakley started shifting her class to mastery-based grading by taking broad learning goals and breaking them into smaller components: things like identifying catalysts and intermediates, using reaction order, and explaining why rates change with temperature. She also eliminated a grading curve. That was especially hard, she said, because she had internalized the notion of grade distributions, an approach that punishes failure and provides little opportunity for students to learn from mistakes.

She still uses quizzes and exams, with students taking quizzes the evening before class and then working in groups the next day to create a quiz key. That helps them learn from mistakes, knowing they will see similar questions on a quiz the following week.

At KU, Chris Fischer and Sarah LeGresley Rush have used a similar approach in physics courses, with results suggesting that a mastery approach helps students learn concepts in ways that stay with them in later engineering courses.

Oakley’s initial work has also showed potential, with DFW rates in her class falling to 8% and the average grade rising to a B. That was better than other sections of the class, although students didn’t do as well in later courses. Oakley isn’t discouraged, though. Rather, she said, she continues to learn from the process, just as her students do.

“We’ve really only scraped the tip of the iceberg,” she said.

Building on experience

Oakley’s advocacy for equity in STEM education is informed by experience. When she started at IU in 1996, she said, she was the only woman in a department of 42. That was isolating and frustrating, she said. Through her work in STEM education, she hopes to improve the opportunities for women and students of color.

“We’ve got to be both equitable and striving for excellence,” she said.

Only through experimentation, failure, and persistence can we start breaking down systemic barriers that have persisted for too long, she said.

“The system is broken,” Oakley said. “We are not ready for the students of the future – or even the present.”


Doug Ward is associate director of the Center for Teaching Excellence and an associate professor of journalism and mass communications.

By Doug Ward

Grade point averages for University of Kansas undergraduates rose an average of 8.4% in the spring as instructors offered more flexibility after a shift to remote teaching and more students took advantage of pass/fail grade options.

Men saw a slightly larger increase in GPAs than women did (9.1% vs. 7.9%), although women’s GPAs (3.3) were already higher than men’s (3.09) before the coronavirus pandemic. Freshmen had a larger increase in GPAs in the spring (10.7% for men; 10.5% for women). As with undergraduates as a whole, freshman women (3.05) already had higher GPAs than their male counterparts (2.8).

GPAs for graduate students rose 1.3%, to 3.86 from 3.81, and have remained within a small range over the past decade.

Compassion, accommodations and concern

Those GPA increases are hardly a surprise, and many aspects of the semester will carry an asterisk to explain the dramatic changes that took place during the pandemic.

“Flexibility” became the guiding principle as the world figured out how to live amid a deadly virus. For KU and other colleges and universities, that flexibility included adaptations to class format as campuses were closed, an extended window for withdrawal from classes, requests to avoid use of attendance as a factor in grades. broader use of pass/fail course options, additional time for online exams, and widespread pleas for compassion in grading. There were also concerns, many of which were validated, that some students were cheating during remote exams.

All of those factors no doubt played a role in pushing up grade point averages in the spring. Among the schools at KU, spring grades rose the most in architecture and design (11.3%), followed by engineering (10.6%), law (9.9%), liberal arts and sciences (9.8%), pharmacy (8.1%) and journalism and mass communications (6.9%). Schools with smaller increases already had GPAs higher than the university average: business, education, music, and social welfare. (See the chart below.)

The meaning of GPAs

I have no national data to compare with KU’s data, and I offer the statistics mostly as a point of interest.

I was surprised by how high the average GPA was in some fields even before spring of this year, but that could be the result of many things (including better student work and more openness to rewarding good work). Between 2010 and 2019, the average GPA at KU increased about 2%, although it rose the most in engineering (5.9%), liberal arts and sciences (5.9%), and music (3.8%).

When I look at GPAs in this context, though, I can’t help but wonder about bigger questions:

  • What does a grade mean?
  • What should it represent?
  • Have grades outlived their usefulness? (GPAs are tied to credit hours, which have little or no meaning in a world of online and hybrid courses.)
  • How are grades connected to actual learning?

In a book chapter titled “The Dangerous Myth of Grade Inflation,” Alfie Kohn says grades are too often seen in terms of a “marketplace analogy.” He asks: “Is the professor’s job to rate students like blenders for the convenience of corporations, or to offer feedback that will help students learn more skillfully and enthusiastically?”

In other words, how can we think less about grades and more about learning?


Doug Ward is the associate director of the Center for Teaching Excellence and an associate professor of journalism and mass communications. You can follow him on Twitter @kuediting.

Recent news, research, trends and thoughts about education. Compiled by Doug Ward.

How can we grade participation more effectively?

Maryellen Weimer argues that the way we usually grade participation in our classes doesn’t work. That is, many students still don’t join the conversations for fear of looking dumb. The typical grading approach also rewards quantity over quality. In an article in Faculty Focus, she writes about a colleague’s solution to this: using “extra-credit engagement tickets” students earn by completing assignments on time, joining online discussions, and submitting questions electronically. I agree with the logic, but the solution seems more complicated than I’m willing to attempt. This is definitely something that deserves more attention from most faculty members, though.

Chart for definitions of rigor
This pyramid shows one of several ways that the authors of “Developing a Student Conception of Academic Rigor” describe students’ perception of rigor.

What does ‘rigor’ in a course mean?

Students tend to equate a course’s rigor with workload rather than higher-order thinking, according to a study in the latest issue of Innovative Higher Education. That is, if a course required students to read or write more than they were used to, they generally considered it rigorous. The same held true if a student thought the professor’s grading standards were higher or if the student had little or no previous experience with the course content. This differs from faculty members’ idea of rigor, which the authors described as “learning meaningful content with higher-order thinking at the appropriate level of expectation within a given context.” The authors say that students and faculty need to understand these divergent views so that colleges and universities can better address the importance of academic standards. The study is called “Developing a Student Conception of Academic Rigor.”

 

Study questions value of degrees from for-profit online institutions

Research by the National Bureau of Economic Research strongly suggests that employers value degrees from public institutions over those from for-profit online institutions. The authors of a white paper posted on the bureau’s website found that candidates with bachelor’s degrees from for-profit online institutions were 20 percent less likely to receive a request for an interview or for additional information from employers than those with degrees from public institutions. (A 2012 employer survey conducted by The Chronicle of Higher Education found similar perceptions.) They say that given the high costs, degrees from those for-profit institutions “do not appear to be a sound investment.”

Briefly …

Meris Stansbury of eCampus News writes about the steps involved in a competency-based education program, and about the fluid definition of those types of programs. … An anonymous graduate student, writing in The Guardian, argues that colleges and universities need to more transparent about the time commitments of graduate teaching assistants. “Teaching is often regarded as something of an afterthought to doctoral completion, something fobbed off on those considered just competent enough,” the writer says.

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