Enough doom and gloom part 2: Curiosity is the currency of science

Science funding sources have varied over the decades, and will continue to do so as the sociological and political influences change, says Scott Chimileski.

Contributor Scott Chimileski

Twenty-first century science is global, rapidly communicated and irreversibly intertwined with virtually every aspect of society. This immensity creates the impression that our current scientific culture has been established for a very long time. However, the National Science Foundation (NSF), NASA and the Department of Energy (DOE), pillars of basic science that we recognize them to be, were all established after many of today’s senior investigators were born. In addition to appreciating the cyclical nature of funding (see part one), it is critical to consider how and why funding sources have changed throughout the history of science.

From the scientific revolution at the end of Renaissance through the 19th century, science was largely self-funded or driven by the patronage of other independently wealthy individuals. Many famous forefathers of science had side jobs. Antonie van Leeuwenhoek, whose observations of bacteria in the 17th century inspire microbiologists to this day, was a house manager. Little is known of how he made his microscopes, let alone exactly how he paid for supplies. His contemporary Robert Hooke, another pioneer of microbiology, was an architect and city surveyor. Johannes Kepler wrote horoscopes. And, Galileo Galilei – celebrated for early observations of Saturn’s shape and the Milky Way Galaxy – pitched his telescopes to the military of the Republic of Venice as naval instruments, and to the House of Medici in Florence as a means for naming distant moons after members of this powerful dynasty.

science-funding-inventors Continue reading

Enough doom and gloom part 1: Science funding is cyclical

Contributor Scott Chimileski

A few months away from finishing a PhD, my social media feeds are filled with negativity about postdocs, jobs and funding. Article after article, elaborate infographics – there are even special calculators now that predict your chances of becoming a principal investigator.

labpredictor-scott-chimileski

{credit}Image credit: Scott Chimileski{/credit}

It is certainly true: the competition for a position as a science professor and to earn funding as a researcher is increasing. Raising consciousness around these issues is important, and these articles, driven by genuine concern, do help. However, I think it has gone too far. I see it affecting my peers on Facebook: “Wee!! Sadly this motivated me to get out of bed, someday I could make $40k!” accompanied by a link to the article “Too Few Jobs for America’s Young Scientists.” This same sort of sentiment is echoed on Twitter.

It’s human nature to focus on bad news; but it is long overdue to have a critical look at all the doom and gloom. Before we panic – before we decide there are too many PhD students and dream-up ways to intervene – let’s consider the history surrounding these issues, allow a little optimism in, and explore the positive. In this three part series, I want to help uplift my fellow young scientists. Continue reading

Naturejobs picks of the week

With Cordova’s election as the NSF director, we’ve been doing some science funding-focussed reading

books

{credit}PhotoDisc/Getty Images{/credit}

So is the amount of science funding available dwindling? Or are we just imagining it? Our reads this week have been looking into how boom-bust cycles are taking shape, how funding proposals are being made and how all of this might just be a myth.

“Without fail, the science community complains about a lack of funding, the business community complains about a lack of translation of research to commercial outcomes, and the government promotes our many achievements, offering up new programs paid for from the termination of previous ones.” Is what Brian Schmidt writes in his article for the Financial Review about the endless boom-bust loop. He’s talking specifically about his experiences in Australia, but they seem to be mirrored in other places.

Even Barack Obama put out a call for more science funding – hoping to increase it by 0.7% according to a SciAm article“In the 2015 proposal, “there’s not enough money to do anything interesting,” says Kevin Wilson, director of public policy at the American Society for Cell Biology in Bethesda, Maryland, which tracks spending at the NIH.” Write the authors  Lauren Morello, Jessica Morrison, Sara Reardon, Jeff Tollefson, Alexandra Witze and Nature magazine.

It isn’t looking good. Jack Hassard blogged about this rather depressing topic too. He summarised some of the key findings from the Chronicle of Higher Education’s survey report “Strapped Scientists Abandon Research and Students” (unfortunately behind a pay wall) by Paul Basken and Paul Voosen. He quotes from the report that “Nearly half have already abandoned an area of investigation they considered central to their lab’s mission. And more than three-quarters have reduced their recruitment of graduate students and research fellows because of economic pressures.” (Read more of his summary on his blog post “Why are scientists abandoning their research?“).

But is it all a myth? Could this funding crisis just be part of something fictional? Are scientists imagining this bust part of the boom-bust cycle? Robert N. Charette thinks so. He did a pretty long form discussion about this (and the lack of science jobs) on Spectrum IEEE with his piece The STEM Crisis is a Myth.

““If there was really a STEM labor market crisis, you’d be seeing very different behaviors from companies,” notes Ron Hira, an associate professor of public policy at the Rochester Institute of Technology, in New York state. “You wouldn’t see companies cutting their retirement contributions, or hiring new workers and giving them worse benefits packages. Instead you would see signing bonuses, you’d see wage increases. You would see these companies really training their incumbent workers.””

So maybe there is light at the end of this potentially mythical tunnel.

 

Brain initiatives galore, smiles aplenty

Vivien Marx reports on the Society for Neuroscience meeting in San Diego and the big brain projects in the EU and US.

SfN attendance sign

The Society for Neuroscience annual meeting in San Diego clocked record attendance.{credit}Vivien Marx{/credit}

The brain is hot.

Despite dismay about the recent 16-day US government shutdown, the impact of automatic budget cuts–the sequester–taking effect in light of federal budget disagreements in Washington, and the general economic malaise, there is palpable excitement. New large-scale initiatives are getting underway around the world to develop technologies to empower neuroscientists.

This year’s Society for Neuroscience (SfN) meeting in San Diego that has just ended, clocked a record attendance of over 30,000 attendees, noted society president Larry Swanson to attendees with a broad smile in one of his conference announcements. “It is an inspirational time to be a neuroscientist,” he said, with the field drawing attention, for example, across the European Union and in the White House. In a town hall meeting for the Brain Research through Advancing Innovative Neurotechnologies (BRAIN) Initiative, there was no lack of critical comments and suggestions of aspects to include in BRAIN. But smiles stayed plentiful as funders explained their plans.

The fact that the US president chose neuroscience as his multi-year, signature project is something “we should all be pretty excited about,” says Tom Insel, director of the National Institutes of Mental Health. In addition to projects in the US, such as  (BRAIN) Initiative and the EU’s Human Brain Project, large neuroscience projects are just emerging in Australia, China, Japan and Israel. “This is beginning to feel like a global movement,” he says. And projects are unfurling in the private sector, too.

The new tools, says Story Landis, director of the National Institute of Neurological Disorders and Stroke, will help neuroscientists do their work “bigger, better, faster” and expand the research strides made in recent years.

Much remains to be done. Compared to what is known about the kidney or heart, very little is known about the brain, says Insel. Adding to the neurological diseases, he noted, are the “invisible wounds of war” such as traumatic brain injury and post-traumatic stress disorder. Tools to help diagnose these illnesses are urgently needed.

Nora Volkow, director of the National Institute of Drug Abuse says that the BRAIN initiative stands to “act like a catalyst” in ways not unlike the decoding of the human genome and its successive “avalanche of discovery.”

Besides attending SfN’s hundreds of sessions and 17,000 posters, scientists had the chance to get up close and personal with representatives from the funding agencies and to hear about and discuss the new opportunities. Here is a snapshot of some of the announcements.

European Union
As Daniel Pasini from the European Commission’s programme on future and emerging technologies explained, the 10-year European Human Brain Project has invited the scientific community to present “grand ideas” for a massive effort to computationally reconstruct the human brain using supercomputers.

The model will help to study brain-related diseases, which are a major health challenge, an economic and social burden, and to pool data and expertise more effectively and translate results for treatments.

The project, which took three years of planning, involves over 250 scientists across Europe in 135 research groups in 22 countries, including groups in the US and Asia. The program began officially in October and has a budget of $1.6 billion. Half of the money will come from the EU the other will come from national funding sources, Pasini says. The first phase is slated to last 30 months and is funded with $100 million.

Six platforms are to be developed including, for example, the neuroinformatic platform as a single point of access to all neuroscience and clinical data along with software tools. The other platforms involve brain simulation, high performance computing, medical informatics, neuromorphic projects and neurorobotics. The idea is to keep improving the model as new data become available. All tools and data are set to be made available to the global scientific community. The plan is to create the ‘CERN for brain research.’ Not unlike a telescope facility or a super-collider, scientists will be able to perform experiments and use this platform to help continue to expand the model.

Deconstructing Henry

The Brain Observatory at UC San Diego is running ‘Deconstructing Henry’ an examination of the Brain of patient H.M.{credit}Vivien Marx{/credit}

US Defense Advanced Research Projects Agency (DARPA)
“Yes, we build guns and bombs, that is true,” says Colonel Geoffrey Ling of DARPA more generally. He is a neurologist who also served in Afghanistan and Iraq and currently deputy director of DARPA’s division responsible for defense sciences, which does not build bombs and guns. He and many other neuroscientists want to cure diseases ranging from Alzheimer’s to schizophrenia to post traumatic stress disorder to traumatic brain injury. DARPA is indeed “zeroed in” on the problems facing soldiers returning from the battlefield.

Speaking directly to fellow panelists from NIH, he says: “I wish they would double the budget yet again for you guys,” which was greeted by SfN attendees with vigorous applause.

Two DARPA solicitations for proposals are now open, offering “real money,” as Ling says, collecting projects that relate to memory dysfunction and psychiatric disorders. More solicitations are “in the works,” he says. “It’s not for us to decide what you’re going to build,” he says, highlighting the importance of imagination and taking a diversity of approaches.

The funding model at DARPA is shaped by use cases to assure that what is developed serves his constituency, the servicemen and women.

Multidisciplinary research, for example, is not achieved with the collaboration of a cellular neuroscientist, a neurophysiologist, and a neurologist. Rather, for DARPA interdisciplinary efforts can be a team comprised of a mathematician, a physicist and “a crazy guy in his backyard putting together some Rube Goldberg thing,” says Ling.

Unlike NIH, DARPA issues no grants but rather contracts, which are “deliverables-driven,” and may seem more rigid that NIH. But he sees strength in the synergy of the different funding approaches by NSF, NIH and DARPA. DARPA is committed to this project over the next decade, says Ling.

Data-sharing provisions are built into each contract, which DARPA takes “extremely seriously,” and breach of contracts are pursued. The DARPA solicitations issued are just the beginning, he says.

Systems based Neurotechnology for Emerging Therapies (SUBNETS)
Deadline: Dec. 17, 2013
This project seeks proposals to develop devices, perform model organism based research, or enable modeling of human neural systems, which are geared to help treat patients with neuropsychiatric and neurologic disease.

Restoring Active Memory (RAM)
Deadline: Jan. 6, 2014
This project seeks proposals in the area of analyzing and decoding neuronal signals which can be used to help patients recover memory function after injury.

SfN attendee bag

Companies in the neuroscience field may benefit from funding in the emerging large-scale projects. Here a scientst at SfN wears one company’s advertisement.{credit}Vivien Marx{/credit}

National Institutes of Health (NIH)
No grants have yet been awarded through the Brain Research through Advancing Innovative Neurotechnologies (BRAIN) Initiative. But grants are in the pipeline. True, says Insel, some see the project as a perhaps $40 billion dollar challenge, but he views the funding in 2014 as an “initial investment.”

The first report of the BRAIN initiative’s working group, says Landis, offers a guide for how the project could begin to move forward in its first year. The working group, is the advisory committee to the NIH director is chaired by Rockefeller University’s Cornelia Bargmann and Stanford University’s Bill Newsome. Landis says excitement is high in the Obama administration and across NIH. The hope is that this enthusiasm would be reflected in the budget allocations.

The NIH first year funding is “a down payment,” she says.

Insel says that the NIH’s $40 million to be allocated in 2014 is drawn from the following sources:

  • $10 million are coming from the NIH Director’s discretionary fund
  • $10 million are from the NIH Blueprint Neuroscience a program to enhance collaboration across NIH institutes
  • $20 million are split among four NIH agencies: National Institute of Neurological Disorders and Stroke (NINDS), National Institutes of Mental Health (NIMH), National Institute of Biomedical Imaging and Bioengineering (NIBIB), National Institute of Drug Abuse (NIDA)

These monies were previously slated for initiatives of the individual institutes’ choice. As Landis explains, these four agencies agreed that the BRAIN Initiative was the one they selected for fund allocation. She says she and her colleagues are “optimistic” that the excitement, opportunities and promise of the BRAIN initiative will power the budgets of the future. Throughout sessions at SfN, she, Insel and others were quick to squelch fears that BRAIN would draw funding away from investigator-driven grants.

The first NIH Requests for Applications (RFAs) are currently begin hashed out with cross-communication happening across NIH, NSF and DARPA, says Insel.

All BRAIN Initiative projects will be peer-reviewed and perhaps unlike the more classic grants, they will have milestones and there will be expectations of data-sharing. “That’s going to be baked into everything we do in this project,” says Insel. Evaluations will accompany the projects after they are funded.

A number of awards are likely to be cooperative agreements, which are part way between a contract with deliverables and R01s, says Landis. These agreements are accompanied by milestones. If researchers do not share data and that provision is in their notice of grant award “there can be consequences,” she says.

Update: In mid-December NIH announced six funding opportunities. Approximately $44 million will finance six new funding opportunities.

Sunset at SfN

Two of the 30,000 attending scientists take a break outside the SfN conference halls.{credit}Vivien Marx{/credit}

National Science Foundation (NSF)
Cora Marrett, the acting director of the NSF says her agency will “very energetically” support the BRAIN Initiative. She says that funders need to take “the long view” to let the forces of scientific discovery play out with a long-term commitment. “I’m feeling very optimistic, too, about what the long-run prospects for additional resources will look like.”

Evidence of NSF’s engagement with neuroscience in general can be seen in the recent $25 million grant to fund the Center for Brains, Mind and Machines at the Massachusetts Institute of Technology. The intent is to blend computer science, math, robotics, neuroscience and cognitive science.

The BRAIN Initiative will require intense collaboration across disciplines and scales, she says. Neuroscience has been more devoted to small science, she says, the work of individual principal investigators and small lab groups. Marrett agrees with Alan Leshner, the executive publisher of Science, that neuroscience’s strides will benefit from a change in the culture toward larger-scale, interdisciplinary efforts.

At the same time, this shift will occur without prescriptions that all work needs to be on “the huge scale” of a particle accelerator, for example. Indeed neuroscientists will need to integrate findings across the scales of their research and link physiology, biophysical and genetic data with cognitive and behavioral findings (see Leshner Editorial in Science).

The projects will require data management plans of the grantees, she says, to explain how they will handle data-sharing, which is to the benefit of the entire enterprise.

One-stop research ethics shop is open for business

Responsible Conduct of Research (RCR) has emerged as the latest catchphrase to burden US researchers who are already up to their ears in funding-agency bureaucracy. Now a US$1.5-million initiative funded by the National Science Foundation (NSF) is promising to help them out.

The Ethics CORE website has had a soft launch over the past year, quietly building up to 1,638 registered users on a beta version of its website, but it sent out an official launch announcement late on 20 September.

The site features curricula, courses, case studies, simulations and games for teaching scientific ethics and the responsible conduct of research. “We are a kind of one-stop-shopping for ethics resources,” says CK Gunsalus, the initiative’s director and an expert in the conduct of research at the University of Illinois in Urbana-Champaign. “Say someone says hey, could you teach the RCR course next semester? You can go into our resources section and find case studies on the issues you want.”

RCR training was mandated by the US Congress in the America COMPETES Act of 2007 and implemented by the NSF for its grantees in 2010.  To date, many researchers looking for information on the RCR find their way to the US Office of Research Integrity, which has an annual budget of about $9 million and reported 115,000 visits to its website in 2011 (Ethics CORE had 3,827 visits in the past month). Although the ORI does engage in research-integrity education and community outreach (see ‘Lab fakery explored in interactive training tool‘), it is better known for its emphasis on regulation and oversight — in particular, investigating misconduct allegations. In contrast, Ethics CORE has no oversight role and is oriented to providing resources and community discussion. For example, it has collected 45 professional ethics codes together in one place and hosts a number of discussion groups  (at present, the more active ones are restricted to registrants, says Gunsalus).

One goal of Ethics CORE is to highlight the overlap between RCR training and business ethics, an area that is well developed in many business schools, says Gunsalus. For example, the site is now hosting a video by the Illinois College of Business (see inset), in which business students discuss their thoughts on cheating in class, which would also be relevant to science students.

Not all research ethics experts support RCR mandates. Kenneth Pimple, an adviser to Ethics CORE at Indiana University in Bloomington, argued in a 2008 article that it is counterproductive to mandate RCR training, because it then tends to be offered by universities as a generic external course or lecture added on to science courses that is not specific to each discipline, resulting in trainees failing to apply it in their own later research experiences. He stands by that today.

“I think the mandates are bureaucratic interventions being responded to in a bureaucratic way,” he says. “Universities are making the least demanding response they can.” He wants to emphasize that online resources such as Ethics CORE need to be complemented by face-to-face teaching, ideally by a scientist in the same field as the students, and enthusiastic group conversations about ethics problems.

Panel urges NSF to boost instrument investment

A clean room at the Cornell NanoScale Science and Technology Facility in Ithaca, New York, part of the National Nanotechnology Infrastructure Network{credit}Cornell Nanoscale Science and Technology Facility{/credit}

The US National Science Foundation (NSF) should expand its investment in novel instrumentation that could serve a large number of researchers, according to an advisory report on materials science released yesterday.

The Materials 2022 subcommittee was convened after a separate report on the NSF’s Division of Materials Research (DMR) raised concerns about whether the division was neglecting investment in mid-size facilities, defined in the most recent report as requiring an initial outlay between US$500,000 and $5 million. Roger Falcone, a physicist at the University of California, Berkeley, who co-chaired the Materials 2022 subcommittee, gives as examples nuclear magnetic resonance machines and cutting-edge electron microscopes, both of which could be used by researchers in multiple disciplines, from condensed-matter physics to biology. “It is very clear when an individual investigator needs small instrumentation. Major institutions receive funds from the foundation as a whole. What seems to suffer are things in the middle,” says Falcone.

The good news, he adds, is that there may be a way to change that: “We found out the community was enthusiastic about paying user fees for instruments if experts were available to help use it.” This would be different from the model at some major national user facilities funded by the DMR, where researchers compete for time on the machines but get it for free if their research proposals are selected. One model also praised by the report is the National Nanotechnology Infrastructure Network, a network of 14 centres providing specialized nanoscience tools to all disciplines.

Ian Robertson, the director of the NSF DMR, says that he’s still digesting the report, but that it should be useful in planning for the 2014 presidential budget request to Congress. Users of the DMR’s largest facilities have been raising concerns about budget cuts  since 2011, although Robertson says he feels that the division as a whole has done quite well with a flat budget in 2012.

**Updated 4.57 p.m. to reflect that Ian Robertson intended his remark about a flat budget to apply to 2012, not 2013. The NSF’s 2013 budget request for the DMR asks for a slight increase.

Giant telescope walks away from US competition

The board of directors for the 24.5-metre Giant Magellan Telescope (GMT) to be built in Chile has decided to avoid going toe-to-toe with the rival Thirty Meter Telescope (TMT) in a competition sponsored by the National Science Foundation (NSF).

The board of the GMT, meeting in Chicago last week, has decided to opt out of the competition, according to a press release from the organization. “After careful consideration, the GMT Board has chosen not to pursue this solicitation, but to develop our own program for cultivating partnerships within the US community and with our international partners,” said Wendy Freedman, the GMT board chair, in a letter to NSF astronomy director James Ulvestad, according to the release.

With just US$1.25 million available to the winner, the NSF competition was less about money and more about prestige. The NSF has been adamant that it has no significant money to support either project until the early part of next decade. But the TMT, which will still respond to the NSF’s solicitation, believed that a competition would at least demonstrate the NSF’s intention to eventually support one project — and that the winner would have an easier time attracting international partners.

But the GMT says it can go it alone, at least for now. On 23 March, the group began blasting at its mountaintop site in Chile. And they say they are nearly halfway towards raising the $700 million they need to complete construction.

The acrimony between the two projects goes back years. And it’s not the first time the GMT has thrown a wrench into processes it doesn’t support. Back in 2005, the GMT board wrote a letter to AURA, an organization that operates NSF telescopes, complaining that federal funds were supporting work on designs for the TMT, but not the GMT. They accused AURA of having “picked the winner” already.

Now the question will be: how can the NSF pick a winner if it can’t get more than one team to compete?

Image credit: GMTO

MIT students collect 10,000 names on petition calling for more government funding for science

 Stand with Science, a campaign launched by MIT students, has gathered more than 10,000 signature on a web petition calling on Congress not to cut science funding in the name of deficit reduction.   Below find a sampling of  comments from the petition.

They are also planning a Science Policy Bootcamp” …a  4-day short course, offered during MIT’ idependent Activities Period in January, designed to introduce graduate students and post-doctoral fellows to the ‘nuts and bolts’ of science policy making. The course provides an opportunity for young scientists and engineers interested in science policy issues to increase their understanding about and practical involvement with science policy. The bootcamp serves to both expose participants to the fundamental structure and dynamics of science policy and inform them of routes into a policy experience or career.

At the same time, the Columbia Journalism Review has a piece that suggests reporters look a little more closely at claims that there is a shortage of scientists.

Simply put, a desire for cheap, skilled labor, within the business world and academia, has fueled assertions—based on flimsy and distorted evidence—that American students lack the interest and ability to pursue careers in science and engineering, and has spurred policies that have flooded the market with foreign STEM workers. This has created a grim reality for the scientific and technical labor force: glutted job markets; few career jobs; low pay, long hours, and dismal job prospects for postdoctoral researchers in university labs; near indentured servitude for holders of temporary work visas.

Not enough money or too many scientists? Either way,  government funding harder to get. Some say even the stars are losing their long-time NIH grant. So here’s a sampling  of comments from the petition, with our subheads.

NO FUTURE

I have taught Biology at the graduate and undergraduate level and run a University Research laboratory level for 35 years. I have never seen the stature of, and funds for science as low as it is now. If I were just entering the field I would choose an alternate career. The US has is in danger its potential for economic development for the next several generation ..if the country survives that long.

Cutting funding to science and technology is a reactionary response to current fears about deficits. Such cuts would sacrifice our children’s future without making significant progress to bolstering the nation’s financial security.

I am currently a Junior Biochemistry major and at the rate we’re going now, I’ll probably end up serving people dinner to make money after school, when I could be working on new antibiotics to combat the rapidly increasing numbers of resistant infectious pathogens. Without research in that field, it won’t matter what our economy is because we’ll all have been wiped out by superbugs that can’t be killed

There are so many things that are vital to our future, but research, education, and technology development seem like no-brainers. Well I guess they ARE brainers, which is the point? Either way they are clearly important so please don’t cut funding for them

As a former Alzheimer’s Disease researcher and current high school biology teacher, I support continued funding for science research. Many people don’t go into research as a career simply because there is not enough money. This is an injustice to society.

I am an Experimental Psychologist and I stand by this letter. I teach my students to question evidence, to test their predictions, to analyze data, to refine and replicate. I am a scientist, and I teach my students to be scientists in their every day lives. Science makes my students think, decided for themselves, and act. Is science important? Yes- in every discipline and in life!

As an NSF-funded grad student, I could never have gotten my PhD without public funding; the student loan debt would have been too high. My state university also takes around 40% of our grant in overhead fees, so the grant that funds me also brings money to my state. My PhD research has also supported fourteen undergraduate lab employees, who have gotten vital career skills (and gone on to jobs or graduate work in science, too). None of this would have been possible without public funding.

FROM THE LEFT

Less foreign occupations, more graduate education!

This is my livelihood. Not everything is market driven, such as science

FROM THE RIGHT

I am a tax payer. This is a wise investment in the future.

U.S. pharmaceutical companies are curtailing drug-development efforts due to their difficulty and expense. They are difficult and expensive because of our limited understanding of fundamental biological processes. This understanding is advanced mostly by academic and medical researchers, who rely on Federal grants. Each fundamental advance lowers the time and cost for private industry to develop pharmaceutical and biotechnological applications

SHORT

I am for science.

SCIENCE!!

 yay science!

 MOM

As a Mom to a very intelligent Grad student I support this

TWEET INFLUENCE

Science is vital to our country. Why U no see that?!

ICLICHE

Those who bit the hand that feeds them are bound to starve.

.. penny-wise and pound-foolish….

To paraphrase Obama: “If the plane’s too heavy, don’t throw out the engines.”

Number of new US science PhDs falls for first time in seven years

The number of science doctorates awarded in the United States fell by 1% in 2010, ending a seven-year run of annual increases.

The new figures from the National Science Foundation (NSF) also show that in the decade from 2000 to 2010, the number of PhDs in agricultural sciences and psychology both fell by more than 5% – whereas all other major science fields saw an increase in the number of PhDs.

Other key figures include the following:

  • Between 2005 and 2010, there was a 29% increase in the number of women receiving a science or engineering (S&E) PhD – more than double the increase seen for men (13%)
  • The share of S&E PhDs awarded to women increased from 38% in 2005 to 41% in 2010
  • The share of S&E PhDs awarded to US citizens and permanent residents who identify themselves as members of a minority group rose from 22% in 2005 to 24% in 2010

Improving work-life balance: US National Science Foundation wants your ideas

Do you have a creative suggestion for how to address issues with career-life balance in mathematics and physical sciences in the United States? If so the National Science Foundation (NSF) wants to hear from you. In an open letter published yesterday, NSF’s Edward Seidel called for the mathematics and physical sciences community to contribute to NSF’s recently launched Career-Life Balance Initiative.

Ideas specific to mathematics and physical sciences can be sent to MPSplans@nsf.gov.

General ideas for any scientific discipline can be sent to career-life-balance@nsf.gov.

Practices to improve work-life balance that NSF encourages include:

  • No-cost extensions or temporary suspensions of NSF awards due to family leave
  • Flexible start dates for NSF awards
  • Supplements for additional personnel to sustain research when principal investigators are on family leave
  • Options for remote panel participation
  • Local childcare recommendations for panellists
  • Flexible postdoctoral fellowships to accommodate dual-career placements