The last few years have brought a call from some quarters to update the STEM acronym -- for science, technology, engineering and mathematics -- to STEAM, with the A standing for arts. On the surface, such a move seems harmless. What’s another letter, right? But in my view, STEM should stay just as it is, because education policy has yet to fully embrace the concept it represents -- and that concept is more important than ever.
No one -- least of all me -- is suggesting that STEM majors should not study the arts. The arts are a source of enlightenment and inspiration, and exposure to the arts broadens one’s perspective. Such a broad perspective is crucial to the creativity and critical thinking that is required for effective engineering design and innovation. The humanities fuel inquisitiveness and expansive thinking, providing the scientific mind with larger context and the potential to communicate better.
The clear value of the arts would seem to make adding A to STEM a no-brainer. But when taken too far, this leads to the generic idea of a well-rounded education, which dilutes the essential need and focus for STEM.
STEM is the connecting of four separate, but similar, dots. The acronym was born in the early 2000s, when the National Science Foundation sought to promote a national conversation about the merits of pulling related areas out of their silos and teaching them in a more multidisciplinary way. Math and science were already well established in education. The thinking was that technology and engineering instruction was far less prevalent in public schools, despite society being dependent on both.
Over time, the four letters have served as the spark to rekindle America’s commitment to an innovation economy. The basis of that commitment is a larger, more skilled workforce in STEM areas. Policy from the Clinton, Bush and Obama administrations has emphasized the importance of preparing and encouraging more youth to pursue these fields at a time when they were less inclined to do so, and to provide more support and training for teachers in the subjects.
We cannot afford to be distracted from that strategy. A survey of executives by Business Roundtable last year revealed that 4 out of 10 companies still find that at least half of their entry-level job applicants don’t even have the basic skills in STEM. Yet these companies will have to replace nearly 1 million U.S. employees with basic STEM literacy (and 635,000 with advanced skills in STEM) in the next five years. This means that STEM education needs ongoing commitment and resources.
I like to think of STEM the same way I think of stem cells -- STEM is foundational. Just as stem cells are a platform for the growth of other tissues, STEM is a platform for many careers. It is too valuable to our nation’s future to be put at risk.
Gary S. May is dean of the Georgia Tech College of Engineering.
For decades, debates about gender and science have often assumed that women are more likely than men to “leak” from the science and engineering pipeline after entering college.
However, new research of which I am the coauthor shows this pervasive leaky pipeline metaphor is wrong for nearly all postsecondary pathways in science and engineering. It also devalues students who want to use their technical training to make important societal contributions elsewhere.
How could the metaphor be so wrong? Wouldn’t factors such as cultural beliefs and gender bias cause women to leave science at higher rates?
My research, published last month in Frontiers in Psychology, shows this metaphor was at least partially accurate in the past. The bachelor’s-to-Ph.D. pipeline in science and engineering leaked more women than men among college graduates in the 1970's and 80's, but not recently.
Men still outnumber women among Ph.D. earners in fields like physical science and engineering. However, this representation gap stems from college major choices, not persistence after college.
Other research finds remaining persistence gaps after the Ph.D. in life science, but surprisingly not in physical science or engineering -- fields in which women are more underrepresented. Persistence gaps in college are also exaggerated.
Consequently, this commonly used metaphor is now fatally flawed. As blogger Biochembelle discussed, it can also unfairly burden women with guilt about following paths they want. “It’s almost as if we want women to feel guilty about leaving the academic track,” she said.
Some depictions of the metaphor even show individuals funneling into a drain, never to make important contributions elsewhere.
In reality, many students who leave the traditional boundaries of science and engineering use their technical training creatively in other fields such as health, journalism and politics.
As one recent commentary noted, Margaret Thatcher and Angela Merkel were leaks in the science pipeline. I dare someone to claim that they funneled into a drain because they didn’t become tenured science professors. No takers? Didn’t think so.
Men also frequently leak from the traditional boundaries of science and engineering, as my research and other studies show. So why do we unfairly stigmatize women who make such transitions?
By some accounts, I’m a leak myself. I earned my bachelor’s degree in the “hard” science of physics before moving into psychology. Even though I’m male, I still encountered stigma when peers told me psychology was a “soft” science or not even science at all. I can only imagine the stigma that women might face when making similar transitions.
For this fellowship, I worked with two computer science graduate students and one bioengineering postdoc on a “big data” project for improving student success in high school. We partnered with Montgomery Public County Schools in Maryland to improve their early warning system. This system used warning signs such as declining grades to identify students who could benefit from additional supports.
This example shows why the leaky pipeline narrative is so absurd. Many leaks in the pipeline continue using their technical skills in important ways. For instance, my team’s data science skills helped improve our partner’s warning system, doubling performance in some cases.
Let’s abandon this inaccurate and pejorative metaphor. It unfairly stigmatizes women and perpetuates outdated assumptions.
Some have argued that my research indicates bad news because the gender gaps in persistence were closed by declines for men, not increases for women. However, others have noted how the findings could also be good news, given concerns about Ph.D. overproduction.
More importantly, this discussion of good news and bad news misses the point: the new data inform a new way forward.
By abandoning exclusive focus on the leaky pipeline metaphor, we can focus more effort on encouraging diverse students to join these fields in the first place. Helping lead the way forward, my alma mater -- Harvey Mudd College -- has had impressive success in encouraging women to pursue computer science.
Maria Klawe, Mudd’s first female president, led extensive efforts to make the introductory computer science courses more inviting to diverse students. For instance, course revisions emphasized how computational approaches can help solve pressing societal problems.
The results were impressive. Although women used to earn only 10 percent of Mudd’s computer science degrees, this number quadrupled over the years after Klawe became president. To help replicate these results more widely, we should abandon outdated assumptions and instead help students take diverse paths into science.
David Miller is an advanced doctoral student in psychology at Northwestern University. His current research aims to understand why some students move into and out of science and engineering fields.
His reputation will never recover from that unfortunate business in Salem, but Cotton Mather deserves some recognition for his place in American medical history. He was the anti-vaccination movement’s first target.
The scene was Boston in 1721. Beginning in April, a smallpox epidemic spread from a ship anchored in the harbor; over the course of a year, it killed more than 840 people. (Here I’m drawing on Kenneth Silverman’s excellent The Life and Times of Cotton Mather, winner of the Pulitzer Prize for biography in 1985.) In the course of his pastoral duties, Mather preached the necessary funeral sermons, but he was also a corresponding member of the Royal Society of London for Improving Natural Knowledge. The Puritan cleric had been keenly interested in medical issues for many years before the epidemic hit. He knew of a treatment, discussed in the Society’s journal, in which a little of the juice from an infected person’s pustule was scratched into the skin of someone healthy. It warded off the disease itself, somehow. The patient might fall ill for a short while, but would be spared the more virulent sort of infection.
Two months into the epidemic, Mather prepared a memorandum on the technique to circulate among area doctors, one of whom decided to go ahead with a trial run on three human guinea pigs. All survived the experiment, and in a remarkable show of confidence Mather had his son Samuel inoculated. (Mather himself had contracted smallpox in 1678, so was already immune.)
News of the procedure and its success became public just as the epidemic was going from worrying to critical, but not many Bostonians found the developments encouraging. The whole idea seemed absurd and dangerous. One newspaper mocked the few supporters of inoculation for giving in to something “like the Infatuation Thirty Years ago, after several had fallen Victims to the mistaken notions of Dr. M____r and other clerics concerning Witchcraft.”
Still more unkind was the person or persons responsible for trying to bomb Mather’s house. It failed to go off, but the accompanying note made the motive clear: “You dog, damn you, I’ll inoculate you with this….”
The colonial era falls outside the purview of Vaccine Nation: America’s Changing Relationship with Vaccination (University of Chicago Press) by Elena Conis, an assistant professor of history at Emory University, who focuses mainly on the 20th century, especially its last four decades. The scene changed drastically since Mather's day. Knowledge lagged behind technique: pioneering though early vaccination advocates were, they had no sound basis for understanding how inoculation worked. And the “natural philosophy” of Mather’s era was nowhere near as institutionalized or authoritative as its successor, the sciences, grew in the 19th century.
By the point at which Vaccine Nation picks up the story -- with John F. Kennedy announcing what would become the Vaccination Assistance Act of 1962 – both the nation-state and the field of biomedical research were enormous and powerful, and linked up in ways that Conis charts in detail. “If the stories herein reveal just one thing,” she writes, “it is that we have never vaccinated for strictly medical reasons. Vaccination was, and is, thoroughly infused with our politics, our social values, and our cultural norms.”
Be that as it may, the strictly medical reasons were compelling enough. The Act of 1962 was a push to make the Salk vaccine -- which between 1955 and 1961 had reduced the number of new polio cases from 30,000 to under 900 – available to all children. This seems like progress of a straightforward and verifiable sort, with the legislation being simply the next step toward eradicating the disease entirely. (As, indeed, it effectively did.)
But in Conis’s account, the fact that JFK announced his support for a vaccination program on the anniversary of Franklin Delano Roosevelt’s death was more than a savvy bit of framing. The reference to FDR, “the nation’s most famous polio victim and survivor,” also “invoked the kind of bold, progressive Democrat [JFK] intended to be.” It positioned his administration as sharing something with “the nation’s impressive biomedical enterprise and its recent victory against a disease that had gripped Americans with fear in the 1940s and 1950s.”
It was technocratic liberalism at its most confident -- a peak moment for the belief that scientific expertise might be combined with far-sighted government to generate change for the common good. And it’s all pretty much downhill from there: Vaccine Nation is, in large part, the story of an unraveling idea of progress. True, scientists developed new vaccines against measles, diphtheria, rubella, and other diseases. But at the same time, the role of federal power in generating “public awareness and acknowledgement of a set of health threats worth avoiding” came into question. So did public trust in the authority of medical science and practice.
The erosion was, in either case, a drawn-out process. A couple of instances from Conis’s narrative will have to suffice as examples. One was the campaign against mumps. The military lost billions of man-hours to the highly contagious disease in the course of the two world wars. But a vaccine against mumps developed in the 1940s was left on the shelf when peace came. Mumps went back to being treated as a childhood ailment, rather than a disease with an associated cost.
But the postwar baby boom created a new market of parents susceptible to warnings about the possible (if very rare) long-term side-effects of getting mumps in childhood. Messages about the responsibility to immunize the kids were targeted at mothers in particular, stressing that the possible danger from contracting mumps made prevention more urgent than statistics could ever measure.
The logic of that appeal – “Why risk a danger that you can actively avoid?" – applied in principle to any disease for which a vaccine could be manufactured, and by the 1970s, early childhood meant having a cocktail of them shot into the arm on a regular basis. Then came the great swine flu scare of ’76. The government warned of an impending crisis, stockpiled a vaccine for it, and began immunizing people – especially the elderly, who faced the greatest risk.
The epidemic never hit, but the vaccine itself proved fatal to a number of people and may have been the cause of serious medical problems for many more. All of this occurred during the last months of Gerald Ford’s administration, though it has somehow become associated with the Carter years. There is no historical basis for the link, but it has the ring of truthiness. The whole debacle seemed to refute JFK’s vision of science and the state leading the march to a safer and healthier future.
The largely unquestioned confidence in vaccination was perhaps a victim of its own success. Insofar as nearly everyone was immunized against several diseases, any number of people suffering from a medical problem could well believe that the shots had somehow caused it or made them susceptible. And in some cases there were grounds for the suspicion. There were also cases of inoculation inducing the disease it was supposed to prevent, as well as allergic reactions to substances in the vaccine.
But Colis sees the rise of an anti-vaccination mood less as direct response to specific problems than as a byproduct of countercultural movements. Feminists challenged the medical profession’s unilateral claim of authority, and some women took the injunction to protect children by immunizing them and turned it on its head. If they were responsible for avoiding the risk, however slight, of preventable childhood illnesses, then they were equally responsible for avoiding the dangers, however unlikely, posed by vaccines.
Another strain of anti-vaccinationist thinking was an offshoot of environmental awareness. While industrial society polluted the air and water, heedless of the effects, medicine was pumping chemicals and biological agents into the smaller ecosystem of the human body.
Similar concerns had been expressed by opponents of vaccination in the late 19th and early 20th centuries -- though without much long-term effect, particularly given the effectiveness of immunization in preventing (even obliterating) once-terrifying diseases. Conis depicts anti-vaccinationists of more recent times as more effective and better-established.
Besides the feminist and ecological critiques, there is the confluence of anti-government politics and new media. Supporters of vaccination once downplayed the issue of side effects, but it’s an area that demands – and is receiving – serious medical investigation.
In places, Vaccine Nation suggests that the critics and opponents have made points worthy of debate, or at least raised serious concerns. And that may be true. It would almost have to be, the real question being one of degree.
But even with that conceded, many of the arguments the author cites are … well, to be nice about it, unpersuasive. “DISEASE IS NOT SOMETHING TO BE CURED,” says one vintage anti-vaccinationist tract revived in the 1980s. “IT IS A CURE.” The cause for illness? “Excess poisons, waste matters, and incompatible food” – but not, most emphatically, germs.
“Did you know,” asks another figure Conis quotes, “that when immunity to disease is acquired naturally, the possibility of reinfection is only 3.2 percent? If the immunity comes from a vaccination, the chance of reinfection is 80 percent.” In a footnote, Conis indicates that the source of these fascinating statistics “is unclear.” That much, I bet, is true.
Poor old Cotton Mather’s thinking combined superstition and enlightened reason. They can and do mix. But not in a statement such as “DISEASE IS NOT SOMETHING TO BE CURED. IT IS A CURE." The good reverend would dismiss that as little more than ignorance and magical thinking -- and rightly so.
“The Top 10 Retractions of 2014” appeared on the website of the life-sciences magazine The Scientist a couple of weeks back, garnering a little attention (mostly of the social-media, “Hey, look at this!” variety) but without making much of an impact. Comments were few and far between.
That seems unfortunate, given the stakes. Physicians, it has been said, bury their mistakes -- a grim joke that very nearly applies to some of the researchers whose work made the Hall of Shame. But most of the inductees are charged with committing malfeasance rather than error. (A number of them were covered here at Inside Higher Ed over the past year.)
The most egregious case? That would have to be the paper that the journal Retrovirology retracted, by a researcher who "spiked rabbit blood samples with human blood to make it look as though his HIV vaccine was working.” The runner-up is probably the situation that forced the Journal of Vibration and Control to retract 60 articles, which had been accepted for publication after receiving fraudulent “peer review” by scientists who manipulated the online submission system using up to 130 fake email accounts.
The good news is that the paper reporting on HIV vaccine work that had been tampered with seems not to have made much of an impression: it hadn’t been cited by other researchers. As for the phony peer-review gang, its leader was the identical twin brother of Taiwan’s minister of education, whose name appeared as a coauthor of some of the papers. Not long after the scandal broke, the minister resigned, while insisting that he had no idea of what his evil twin had been up to. (And you thought your family gatherings were awkward,)
The annual list (first compiled in 2013) is the work of the good people at Retraction Watch, who monitor and investigate the embarrassed announcements that publishers would rather not have to issue. Most of the stories they cover are from the sciences (chiefly natural, some social) although there is the occasional case from the humanities, where the main ground for retraction seems to be plagiarism. Or rather, problems of involving "mistaken punctuation" and "misreferencing," since euphemism prevails. (One author charged with plagiarism admitted to "misconduct in text," which is my new favorite expression.)
Besides fraudulent labwork and efforts to game the peer-review system, RW covers breaches of ethical norms in research -- the notorious "Facebook mood experiment" made the list for 2014 -- while also keeping an eye on predators lurking in the shadows around scholarly publishing. While unscrupulous academic publishers deserve all the bad press they get, they are often so brazen that it's hard to think of them as a menace. Consider the most widely noticed example in recent months: the story of a couple of computer scientists who wrote a "paper" consisting of an obscene seven-word sentence, repeated a few hundred times and incorporated into graphs and flowcharts. They submitted it to one of the sketchier journals in their field, where it appeared once the authors paid a fee. After all, the anonymous reviewer considered the paper "excellent.”
Which, in its own way, it was, though the paper is not on the top 10 list. Using the carelessness and greed of worthless journals to embarrass them may be an entertaining way to blow a few hundred bucks, but much less amusing is the thought that there must be academic libraries paying for subscriptions to said journals.
One of the year's top 10 items involved a French computer scientist who, the Retraction Watch says, “catalogued computer-generated papers that made it into more than 30 published conference proceedings between 2008 and 2013. Sixteen appeared in publications by Springer, and more than 100 were published by the Institute of Electrical and Electronic Engineers (IEEE).” The fact that the papers were computer-generated does not mean they were gibberish, since there are programs that can perform a database search and "write" a credible literature review. Still, that seems like streamlining the production of knowledge just a little too far.
The Retraction Watch site is littered with the wreckage of numerous careers, but it serves an important purpose apart from the dubious pleasures of Schadenfreude. In a recent column I wrote about Ben Goldacre's book I Think You'll Find It's a Bit More Complicated Than That (Fourth Estate), which includes a shrewd assessment of the strengths and weaknesses of the peer-review system that seems germane:
"[Peer-review] is often represented as some kind of policing system for truth, but in reality some dreadful nonsense gets published, and mercifully so: shaky material of some small value can be published into the buyer-beware professional literature of academic science; then the academic readers, who are trained to appraise critically a scientific case, can make their own judgments. And it is this second stage of review by your peers -- after publication -- that is so important in science. If there are flaws in your case, responses can be written, as letters to the academic journal, or even whole new papers. If there is merit in your work, then new ideas and research will be triggered. That is the real process of science."