Posts tagged ‘higher education’
A recent article in The Chronicle talked about just how white higher education faculty are — see article here. Most of the student protests about equity and diversity on college campuses this last year demanded more minority faculty.
In this graph, I found a different and fascinating story in just the first two bars in each set:
Professors are overwhelmingly male. Associate professors are only slightly more male. Assistant professors are slightly more female. Instructors are much more female.
It’s not surprising, but it’s interesting to see it. The women in academia have the lion’s share of the lower status jobs, and the men have the lion’s share of the higher status jobs. When you take into account the landed-gentry/tenant-farmer relationship between the tenure track faculty and the teaching track faculty (see previous blog post), the relationship between gender and academic power becomes much more stark.
My CS Ed research class did lots of reading in the first half, and then are developing research plans in the second half. In between, I asked the students to develop research questions (faces deliberately obscured in picture of the class above), and several colleagues asked me, “Please share what they came up with!”
- Do we need to teach CS to everyone?
- How do we make CS education ubiquitous, and what are the costs and benefits of doing so?
- How effective is Media Computation (and like courses) in “tech” schools vs. liberal arts schools?
- How do we make individualistic (contextualized, scaffolded, etc.) CS experiences for everyone?
- What are equal vs just interventions?
- What is the economic cost of not teaching computing to all?
- How do we create a community of practice among non-practitioners?
- How to make CS teachers adopt better teaching practices?
- How we incorporate CS learning into existing engineering courses vs. create new courses for engineers?
- How does teaching to all high school students differ from teaching undergraduates?
- How do people learn CS? Define a CS learning progression.
- Are those AP CS Principles skills transferable to college CS courses? Or anywhere else?
- How does programming apply to everyone?
- What are the enduring computer science/splinter areas?
- How does the content and order of teaching computing concepts affect retention and transfer to other disciplines?
- How do we scaffold from problem-based learning to culturally relevant computing projects?
- What characteristics do successful CS teachers who transition from other disciplines exhibit?
- Is metaphor useful in learning CS? Which metaphors are useful?
I wonder if this is the start of a trend that will change higher education. The job of being faculty is becoming harder, especially in CS as enrollments rise without a rise in faculty numbers. Adjunct faculty are particularly put upon in universities, and unionizing is one way for them to push back.
Part-time faculty members at downtown Pittsburgh’s Point Park University have voted to join the Adjunct Faculty Association of the United Steelworkers AFA-USW.The group filed a petition with the National Labor Relations Board NLRB in April to hold a mail ballot election. A total of 314 part-time Point Park instructors were eligible to vote, and the ballots were counted this morning at the NLRB’s downtown offices.
An interesting development in the MOOC degree space. Udacity and AT&T, the partners with Georgia Tech on our OMS degree, are now teaming up around a new “NanoDegree” program — without any higher education institution involved.
AT&T is the only company that has committed to hire graduates of its NanoDegree program, and only 100 at that. No higher education accrediting body has recognized the new coursework. But Udacity founder Sebastian Thrum, who appeared last week at the New York Times Next New World Conference, says the company has more planned.“The intent is that this becomes an industry-wide platform,” said Thrun in an email, pointing out that while AT&T is the only company that Udacity has asked to commit jobs, others that include Cloudera, Autodesk and Salesforce.com have endorsed the degree.
Research Outcome: Professors work long hours, spend much of day in meetings, and tuition increases aren’t because faculty are getting raises
To all academics this is totally obvious. But I’m guessing that the general public may not know this. The general public may think that tuition rises are paying for rising faculty salaries, when the dramatic rise in salaries is with coaches and administrators. (Here at Georgia Tech, the faculty have not had raises across the board since January 2008.) As mentioned earlier this month, research funding has decreased dramatically, and the time costs for seeking funding have grown. There’s a blog (meta?) post that is collecting links to all the “Goodbye, Academia” blog posts — faculty who are giving up on academia, and explaining why. All of this context may help explain declining number of American students going into graduate school.
Professors work long days, on weekends, on and off campus, and largely alone. Responsible for a growing number of administrative tasks, they also do research more on their own time than during the traditional work week. The biggest chunk of their time is spent teaching.
Those are the preliminary findings of an ongoing study at Boise State University — a public doctoral institution — of faculty workload allocation, which stamps out old notions of professors engaged primarily in their own research and esoteric discussions with fellow scholars.
Check out the headline “Can early computer science education boost number of women in tech?” Then read the part (quoted below) where they show what works at Harvey Mudd. I don’t read anything there about early CS education. I do believe that we need CS in high schools to improve diversity in computing, but I’m not sure that much earlier than high school helps much. I worry about higher education giving up on issues of diversity, by changing the discussion to K12.
I wish that Mercury News would have really said what they found: University Computing Programs, you have the power to improve your diversity! You can change your classes and your culture! Don’t just pass the buck to K12 schools!
“The difference is, females in general are much more interested in what you can do with the technology, than with just the technology itself,” says Harvey Mudd President Maria Klawe, a computer scientist herself.
So administrators created an introductory course specifically for students without programming experience. They emphasized coding’s connection to other disciplines. They paid for freshman women to attend the annual Grace Hopper Celebration of Women in Computing, a chance to meet programming role models in diverse fields. And they provided early research opportunities for women students to inspire them to stick with the field.
The result? The percentage of female computer science majors at Harvey Mudd increased from about 10 percent before the initiatives to 43 percent today.
California community colleges’ experiment with accelerated remediation: Maybe there’s more learning going on
Remedial courses in higher-education are important to get right, for lots of reasons. Certainly, that’s one of the big stumbling blocks in MOOCs — many people who start a MOOC aren’t prepared for that level material (or maybe, the MOOCs presume too much knowledge to start). The CAITE alliance was able to improve diversity in Massachusetts’ universities, by improving the transfer from community college, but that path sometimes requires remedial courses. If we could get remediation right, we might improve diversity, make distance learning more successful, and (as suggested below) improve graduation rates.
The story below is unusual: Make remediation better, by making it shorter. A simple time-on-task model would suggest that there’s less being learned. I hypothesize that it might be working (i.e., resulting in more learning), by looking at it from a different model.
At the Future Computer Science Research Summit in Orlando in early January, Nobel laureate Carl Wieman gave a talk where he referenced the famous Richard Hake 6000 subject study. One of the results of that study is that traditional lecture only results in students learning about 30-40 percent of what was being taught, but with student engagement pedagogies, 60-80 percent is learned.
Note the word: engagement. We can engage by using techniques like peer instruction. I wonder if we can also engage by saying, “This required course will be made shorter. You still need it to move on to something you want, but now, it’s less painful.” Could that result in more learning? Maybe that 30-40% becomes 50-60%? So a reduction of a few weeks in time may actually result in equal or more learning?
Remedial courses are widely seen as one of the biggest stumbling blocks to improving college graduation rates, as few students who place into remediation ever earn a degree.
The problem is particularly severe for black and Hispanic students, who account for almost half of the California community college system’s total enrollment of 2.4 million.
More than 50 percent of black and Hispanic community college students place three or more levels below college mathematics, said Myra Snell, a math professor at Los Medanos College. And only 6 percent of those remedial students will complete a credit-bearing math course within three years of starting the first remedial course.
A key reason for abysmal pass rates is the length of remedial sequences, argue Snell and Katie Hern, an English instructor at Chabot College, which, like Los Medanos, is a two-year institution located in California.
“The lower down you start, the fewer students complete,” Hern said.
The two instructors decided to do something about the problem. In 2010 they founded the California Acceleration Project. Armed with research from the Carnegie Foundation for the Advanced of Teaching and the Community College Research Center at Columbia University’s Teachers College, they encouraged their peers to offer shorter remedial sequences in math and English.