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Yet another science metric – the Kardashian Index Siouxsie Wiles Aug 08

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Twitter exploded last week after Neil Hall, a professor at the University of Liverpool who studies the genomes of the parasites that cause malaria and sleeping sickness, published a (supposedly satirical) paper in the journal Genome Biology. Rather than read his paper, I recommend you read the annotated version. But first, here’s the abstract:

In the era of social media there are now many different ways that a scientist can build their public profile; the publication of high-quality scientific papers being just one. While social media is a valuable tool for outreach and the sharing of ideas, there is a danger that this form of communication is gaining too high a value and that we are losing sight of key metrics of scientific value, such as citation indices. To help quantify this, I propose the ‘Kardashian Index’, a measure of discrepancy between a scientist’s social media profile and publication record based on the direct comparison of numbers of citations and Twitter followers.

Ummm, communicating through social media is “gaining too high a value”?? That’s hilarious. In my experience, being active on social media is given no value by the majority of the establishment (ie silverbacks like Prof Hall). And as to citation indices being a “key metric of scientific value”? Of value to other academics maybe. But science is valuable outside of academia too, and citation indices will rarely capture that.

To calculate a scientist’s Kardashian Index (K-index), Prof Hall says we first need to calculate the number of twitter followers a particular scientist should have, using the following equation:

F= 43.3C^0.32 (Eq 1)

Where F is the number of twitter followers and C is the number of citations.

The K-index is then calculated using a second equation

K−index = F(a)/F(c) (Eq 2)

Where F(a) is the actual number of twitter followers the researcher has and F(c) is the number they “should” have given their citations.

As Prof Hall explains:

“…a high K-index is a warning to the community that researcher X may have built their public profile on shaky foundations, while a very low K-index suggests that a scientist is being undervalued. Here, I propose that those people whose K-index is greater than 5 can be considered ‘Science Kardashians’…”

Prof Hall did a “preliminary proof-of-concept study” using a “randomish selection of 40 scientists”. You can see how they scored in Figure 1 of his paper:

s13059-014-0424-0-1

Prof Hall goes on to conclude:

I propose that all scientists calculate their own K-index on an annual basis and include it in their Twitter profile. Not only does this help others decide how much weight they should give to someone’s 140 character wisdom, it can also be an incentive – if your K-index gets above 5, then it’s time to get off Twitter and write those papers.

Dr Michelle Dickinson, our very own Nanogirl worked out her K-Index and scored 35, the same as Prof Brian Cox. Both clearly need to get back to writing their papers.

There are so many things wrong with Prof Hall’s piece it’s hard to know where to begin. As I say, check out the great annotated version of his paper by Red Ink which points out some of them. Dr Kate Clancy has also written a nice post explaining why this bit of fun isn’t actually funny and Dr Keith Bradnam has turned it on its head suggesting the Tesla index as a measure of scientific isolation.

What really makes my blood boil about Prof Hall’s new index is that he named it after Kim Kardashian, who according to Wikipedia, is a reality TV star famous for being the daughter of OJ Simpson’s defense lawyer, a friend of wealthy socialite Paris Hilton and star of a sex tape. She is now a successful business women with several clotheslines and fragrances to her name and an estimated fortune of $45 million.

Ms Kardashian’s most recent venture is a smartphone game in which players have to build a career in Hollywood, accumulating wealth and fans. You have to give it to her. That lady has a sense of humour. Ms Kardashian is famous for being famous and not ashamed in the slightest. But she is hardly alone. In fact, she appears to be just one of a new breed of such celebrities.

That Prof Hall chose to name his index after a vacuous woman is a wonderful example of everyday sexism. Make no mistake, while Prof Hall’s piece is supposedly satirical, it is a snide swipe at those with a passion for communicating science using a derogatory association with a woman to do so. And he got his paper published in a peer reviewed journal where it will no doubt provide ammunition to those who already belittle the work science communicators do, all with a citation to back their bigotry.

The light at the end of the tunnel though was the #AlternativeScienceMetrics hashtag that was spawned on twitter, storified here by @mcdawg. Gems like these:

From @Protohedgehog: The Sean Bean index, measuring the number of times you write a great paper, only to have it killed by peer review

From @IanMulvany: the george Lucas index, how often a later paper totally invalidates earlier work that you did

From @OSIRISREx: The Viral Factor: how many times your research is misinterpreted into a factoid on a pop social media page

From @quicklyround: The Ulysses Factor – papers cited by everybody but that nobody has actually read to the end

From @LouWoodley: The Lindt Factor – the number of bars of chocolate needed to make the “minor revisions” requested

From @Koalha: Sacrificial efficiency: number of accepted papers / burnt out grad student

Jason McDermott discusses the pros and cons of some of them on his blog. Which would get your vote?!

Ebola outbreak – updates and links Siouxsie Wiles Aug 03

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As the Ebola outbreak worsens, the WHO has announced a US$100 million response plan to help bring the outbreak under control by scaling up control measures and helping neighbouring at-risk countries prepare for any cases.

According to the latest WHO update, between 24 and 27 July, a total of 122 new cases of Ebola and 57 deaths were reported from Guinea, Liberia, Nigeria, and Sierra Leone. This brings the number of cases up to 1323 with 729 deaths. Sadly, it would seem that healthcare workers are still becoming infected, with reports that Sierra Leone’s top Ebola doctor has died.

Ian Mackay is charting all the data from the WHO’s Ebola updates while the UK’s Channel 4 have made a clicable map of the outbreak here.

A scary development has been the death of a man in Nigeria – he arrived in Lagos by air via Lomé, Togo, and Accra, Ghana. The man was symptomatic when he arrived in Nigeria which means he would have been infectious at least on his last flight. Officials are now trying to trace all he may have come into contact with on his travels. According to the report, 59 contacts (15 from among the airport staff and 44 from the hospital) have been identified so far.

The fact the man was American, of Liberian decent, and due to return to his family in Minnesota has now put the Ebola outbreak firmly on the radar of the US press. There are also now reports that two infected US aid workers are going to be evacuated from Liberia for treatment in Atlanta.

There is a good article here looking at how easily infectious diseases spread on planes. The answer from simulations seems to be ‘not very’, suggesting only those in the few rows around the infected person are at risk. As Ebola is spread through bodily secretions, this would also mean the potential for transmission by touching surfaces also touched by someone infectious.

And finally, Daniel Bausch and Lara Schwarz speculate on why Guinea and why now in a paper just published in the open access journal PLOS Neglected Tropical Diseases. In an nutshell, it’s likely to be due to the movement of bats and poverty driving people further into remote areas looking for resources to survive. Add to that porous borders and impoverished and neglected healthcare systems and you get an outbreak of this magnitude.

The academic publishing scam – how much research funding are we losing to journal subscriptions? Siouxsie Wiles Aug 01

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Currently doing the rounds on twitter is this on the massive profits made by academic publishers:

profits

If you are in Australia or New Zealand and want to know how much is spent just on purchasing subscriptions to academic journals then there is a very handy tool on the Council of Australian University Librarians website.

In 2013 New Zealand’s universities spent $51,135,180 on journal subscriptions.

That’s just our universities, so doesn’t include our CRI’s or independent research institutes. $51,135,180 to access work funded by the tax payer published in pay-walled journals that rely on unpaid labour by university academics for peer review and editorial duties.

subs

To put that figure in perspective, the only funder of investigator-led blue-skies research in New Zealand, the Marsden Fund, awarded $59,000,000 in funding in 2013 – enough to fund 109 projects for 3 years.

In other words, we spend almost as much on buying access to research as we spend on blue-skies research.

I vote we scrap the subscriptions and use the money to double the Marsden Fund, giving each project an allocation to publish their results open access. Makes sense to me!

Hat/tip to Alex Holcombe (@ceptional) and Fabiana Kubke (@Kubke).

Monday Micro – west African Ebola outbreak now the deadliest in history Siouxsie Wiles Jul 21

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The Ebola outbreak that likely started in December 2013 with the death of a 2 year old child in Guéckédou, Guinea, has become the deadliest in history. The most recent report, almost a week old now, from the World Health Organisation puts the number of cases at 964 with 603 deaths. The outbreak has spread from Guinea to neighbouring Liberia and Sierra Leone; between the 8th and 12th of July alone there were 30 new cases and 13 deaths in Liberia and 49 new cases and 52 deaths in Sierra Leone.

EVD-outbreak (1)

Key to controlling the outbreak is stopping transmission. This means getting infected people into treatment centres, isolating those who have been in contact with anyone infected, and ensuring that everyone has the knowledge and equipment to protect themselves while looking after the infected and burying the dead.

Reporter Alex Crawford recently went to Liberia and showed the precautions people have to go take to ensure they don’t become infected – the donning of a vast amount of PPE – Personal Protective Equipment – which must be almost unbearable to wear in the heat of west Africa. You can watch her report below – although the part where they shove the camera in an infected nurse’s face and ask her how she is feeling is pretty distasteful. She is extremely ill with Ebola and has about a 30-40% chance of surviving, and if she does survive, will be stigmatised for life. How would you feel, Alex?!

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As an aside, it was disgusting to see Republican congressman Phil Gingrey suggest that migrant children arriving at the US’s southwestern border could introduce Ebola into America. Here’s an extract from the letter he wrote to the CDC:

“As you know, the United States is currently experiencing a crisis at our southern border. The
influx of families and unaccompanied children at the border poses many risks, including grave public health threats. …. reports of illegal migrants carrying deadly diseases such as swine flu, dengue fever, Ebola virus, and tuberculosis are particularly concerning. …..Reports have indicated that several border agents have contracted diseases through contact with the unaccompanied minors. As the unaccompanied children continue to be transported to shelters around the country on commercial airlines and other forms of transportation, I have serious concerns that the diseases carried by these children may begin to spread too rapidly to control. In fact, as you undoubtedly know, some of these diseases have no known cure.”

*sigh*

My previous Ebola FAQ can be found here.

And now for some science… the marvels of skin Siouxsie Wiles Jun 06

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Apologies for the lack of actual science posts recently. Let’s see if we can remedy that!

Last month I had the great privilege of interviewing skin cancer surgeon Dr Sharad Paul* for a session at the Auckland Writers Festival. We talked about his recent book Skin – A Biography, published in 2013 by Fourth Estate. Here’s what I found out:

Having skin is more important than having a brain!

Sharad is as enthusiastic about skin as I am about nasty microbes and makes this assertion based on the fact that there exist creatures that have done away with their brains but not their skin! Sea squirts are a group of bag-like marine filter feeders that are actually closely related to humans – they belong to the same phylum, Chordata, and start life out as a little tadpole like larvae with a primitive backbone called a notochord, which allows them to navigate in response to light. It’s what happens next though that’s quite amazing. The tadpole wiggles and twitches around until it settles headfirst onto a suitable surface. Next it cements itself to that surface and then starts to transform, losing it’s notochord, gills and twitching tail to become the ‘brainless’ bag of ‘skin’ that is an adult sea squirt. As Sharad put it, the sea squirt eats its own brain but has to keep its skin!

Picture of Halocynthia sp. taken by Yuri A. Zuyev, Hydrometeo. Univ., St. Petersburg - NOAA Photo Library.

Picture of Halocynthia sp. taken by Yuri A. Zuyev, Hydrometeo. Univ., St. Petersburg – NOAA Photo Library.

Skin colour is down to one single pigment – melanin

Melanin is the pigment that is responsible for producing all shades of all human skin colours and is found in our melanocytes. What I found fascinating is that regardless of skin colour, we all have the same number of melanocytes! That’s 10,000 for every square centimeter of skin (at least on our arms). The reason we humans come in different shades it that our melanocytes contain different amounts of melanin. In dark skinned people the melanin deposit in each melanocyte is huge, whereas those with white skin have lots of tiny little deposits. Sharad used the analogy of umbrellas to describe the melanin deposit in each melanocyte: people with black skin have the equivalent of a large solid umbrella whereas those with very pale white skin have an umbrella that is full of holes! This explains why those with very pale white skin freckle rather than tan.

Light-skinned early humans turned into dark skinned Africans to protect their folic acid

The last common ancestor humans and chimps shared 6 million years ago was light-skinned with dark hair. Apes in Africa are still like this whereas Africans are dark-skinned and relatively hair free. When our early ancestors started walking upright and lost their layer of hair, they needed to protect the folic acid in their skin from being broken down by the sun. Folic acid is important for normal neural tube function and a lack of folic acid can result in birth defects like spina bifida. This is why it is recommended that women take folic acid supplements during pregnancy. Melanin acts like a filter, preventing the penetrating UV light from damaging folic acid. Interestingly, spina bifida is much less common in Africa and the Tropics.

Humans who migrated out of Africa lightened to prevent rickets

When humans migrated out of Africa and into Europe 100,000 years ago, the shorter days meant that dark-skinned people would have likely have suffered from rickets due to a lack of vitamin D. Vitamin D is required for proper calcium absorption from the gut. Rickets causes skeletal and bone deformities and infertility so its likely that people’s skin lightened to allow better penetration of sunlight so they could produce sufficient vitamin D. This is supported by the fact that people who had a cereal-based diet low in vitamin D were lighter than those living at similar latitudes but who had a fish-based diet high in vitamin D. This also explains why Inuits are quite dark skinned, despite living somewhere with so little sunlight for such large parts of the year. Meanwhile back in Africa, black-skinned people were developing mechanisms which gave them higher levels of vitamin D to compensate. People in Tanzania have around 115 nmol/L of serum 25-hydroxyvitamin D, compared to 30-60 nmol/L for Westerners. Interestingly, Indian people tend to have very low levels of vitamin D, about half that of Westerners. Their darker skin colour emerged again to preserve folic acid as the lighter-skinned people moved out of Europe and into sunnier climates. Sharad says many Indians who move to New Zealand and Australia end up with vitamin D deficiency despite being exposed to plenty of sun.

Know your skin type and how quickly you will burn in the sun

How long you can safely spend out in the sun depends on three things: your skin type, the UV index and your sunscreen. In 1972 Thomas Fitzpatrick developed his scale for grading skin types: from the Celtic red-head who always burns and never tans (type I) to the black African skin that does not burn (type VI). The UV index was developed in the early 90′s by Canadian scientists and takes into account the thickness of the ozone layer, cloud cover and altitude. The scale originally went from 1 to 11 but it soon became apparent that scale wasn’t sufficient – New Zealand routinely sees a UV Index of 12 in summer while Western Australia has recorded a peak of 17! People with type I skin can spend 67 minutes/UV Index unprotected in the sun which would be less than 6 minutes in the NZ summer. For type II (usually blonde and blue-eyed) it is 100 minutes/UV Index, for type III (usually brown/black haired and brown-eyed) it is 200 minutes/UV Index and for type IV (Mediterranean, Spanish or lighter Indian skin) it is 300 minutes/UV Index.

Using factor 50 sunscreen is a bad idea!

Wearing sunscreen allows you to stay out in the sun longer but probably not for as long as you think! A sunscreen with a sun protection factor (spf) of 15 will block 93% of the UV falling on your skin allowing you to stay out in the sun 15 times longer, so about 75 minutes for the person with type I skin in an NZ summer. A sunscreen with an spf of 30 will block 97% of the UV giving you 2 and a half hours in the sun, while an spf of 50 will block 98% of the UV allowing you to stay in the sun for just over 4 hours. Sharad said the US Food and Drug Administration now inhibits sunscreens and cosmetics from claiming an spf of 50 as it gives users a false sense of security and means they end up spending much longer in the sun than they should.

I’ll finish with two of my favourite passages from Sharad’s book. This quote by Aristotle: “Touch is the one sense that the animal cannot do without. The other senses which it possesses are the means, not to its being, but to its well-being”, which I think is a lovely sentiment. And lastly: “skin wears its health for all to see – everything is unashamedly laid bare”. Nothing could be further from the truth as I approach the big four o!

About Dr Sharad Paul
*As a little background, Sharad (@DrSharadPaul) is skin cancer surgeon who runs a busy practice in Auckland where he offers free skin cancer checks. As well as having worked as a surgical consultant and GP, he also has a degree in medical law and ethics. In 2007 he pioneered a new skin graft technique which reduces costs, pain and healing time for patients and has also developed a range of skincare products designed for brown skin. He single-handedly brought Waitemata Health’s waiting times for skin cancer treatment down from a year to a month and won a Health Innovation Award for this in 2003.He also teaches at the University of Auckland and for one week a month at the University of Queensland in Brisbane. In 2012 Sharad was awarded the New Zealand Medical Association’s highest honour, the Chair’s Award which goes to an individual or organisation which has made a substantial contribution to the health of New Zealanders. He has also featured in Time magazine and was a finalist for New Zealander of the Year in 2012 – he lost out to Weta’s Sir Richard Taylor. He has also appeared at Goa’s THiNK festival alongside Robert De Niro and Bianca Jagger. To keep him sane he says, Sharad writes, and has had 3 novels published as well as his non-fiction book on skin. His love of literacy has seen him start his own book shops, first in Newmarket and then in Brisbane, and once a week he teaches creative writing in low decile schools around Auckland.

So you want to be a PI?! Siouxsie Wiles Jun 05

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David van Dijk, Ohad Manor and Lucas Carey have just published a paper in Current Biology (sadly it’s behind a paywall) in which they used papers listed in PubMed by over 25,000 scientists to determine whether becoming a principal investigator (PI) is predictable. They have showed that it is (at least for the cohort who first published between 1996 and 2000). Would you be surprised to find out that success depends on the number of publications and the impact factor of the journals those papers are published in? It does. The researchers have created a website so that anyone can calculate their likelihood of becoming a PI.

Read the Nature editorial here. Science also made their own prediction tool which you can play around with here.

And in keeping with the ‘science is sexist‘ theme, the researchers found that being male is also a positive predictor for becoming a PI. Their results suggest that, on average, having an identical publication record but being a woman lowers the chance of success by 7%.

*sigh*

Reference:
Van Dijk, D., Manor, O. & Carey, L. B (2014). Publication metrics and success on the academic job market. Curr. Biol. http://dx.doi.org/10.1016/j.cub.2014.04.039.

Why Science is Sexist Siouxsie Wiles Jun 05

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Dr Nicola Gaston is a Senior Lecturer in the School of Chemical and Physical Sciences at Victoria University of Wellington and a Principal Investigator of the MacDiarmid Institute. Recently she gave a talk at the University of Auckland entitled ‘Why Science is Sexist’. The storify of the tweets from her talk are available here. The talk was also recorded so I’ll post a link to that when possible.

Much is made of the difference between the numbers of men and women in STEM careers, with calls for more role models to attract girls into STEM subjects at school and university. It’s certainly clear that more could be done for subjects like maths and physics, but what is happening in biology shows there is more to the problem than a lack of role models for girls. We have plenty of girls studying biology at undergraduate and PhD level. Hell, there are also plenty at postdoc level. But then it all starts to fall apart, with a dramatic drop in the number of women becoming group leaders and eventually professors. This ‘leaky pipeline’ as it is called is often blamed on women wanting to have babies and sabotaging their career for their husband.

I’m one of these women. I gave up a lectureship at an excellent university to move to New Zealand with my husband after our daughter was born. I got a Hercus Fellowship from the NZ Health Research Council and started again, trying to finish all the projects I had going in London while building a new lab in Auckland. It has been hard. Really hard. So hard, I wonder would I still do it with the benefit of hindsight. It doesn’t help that the research I do is expensive but grant success rates here are in the single digits. While I would probably now be an Associate Professor had I stayed in London, I still don’t even have a permanent job. But is it all my fault? I sometimes wonder.

Nicola talked about how she started to think more seriously about sexism in science when she was sent a flyer for a ‘Women in Leadership’ session aimed at scientists which included a 2 hour session on how to dress appropriately. It was held by a woman who hosted a show called ‘Does my bum look big in this’. Seriously. Between shit like that, the European Union’s disgraceful Science: its a girl thing video involving make up and high heels, and comments like that made by Employers & Manufacturers’ Association chief executive Alasdair Thompson who actually went on record as saying the gender pay gap can be explained by women taking more sick leave because of having periods, Nicola started to look at the literature more closely.

So what’s going on? Nicola thinks its a combination of four things:
1. Actual sexism
2. Imposter syndrome
3. Unconscious bias
4. Stereotype threat

While it is hard to do much about imposter system – that feeling many people get that they aren’t good enough and will be found out an ejected from the ‘club’ (I get this on a regular basis), dealing with unconscious bias is the one we need to be working on. The studies Nicola talked about paint a depressing picture in which women essentially have to have better CVs to be considered equivalent to men. And that’s when women are being assessed by men and women. We are all biased. Nature ran a feature on the issue of sexism in science if you want to read more about it.

Nicola’s message was clear. We need to be transparent about how decisions are made, and collect data so we can see how we are doing. We also need to distinguish between role models and mentors. They are not the same thing. While it is clear we need good female role models to get women into STEM*, they then need proper mentors to keep them there – and these mentors can be men and women. Finally, Nicola says we need to educate and train people on encountering unconscious bias. Studies show that bias can be removed if, for example, specific criteria are defined before CVs are evaluated.

Nicola ended on a thorny issue – should we be adopting a quota system in science, like is being done in business? On the one hand this will force the issue, but it is likely to stigmatise those women who fill the quota, leaving them open to whispers that they wouldn’t have got there on their own merit. But maybe it’s time to stop ‘leaning in’ and teaching our girls to be ‘resilient’, instead demanding quotas and ignoring the whispers. As Nicola said, our priority shouldn’t just be to make it equally possible for women to succeed in science, but equally easy. We’ve been waiting long enough for the old guard to die out and look where that has got us.

*Speaking of role models, how awesome is it that Lego are going to be releasing a female scientists minifigure set? Of the six designs submitted by by Alatariel Elensar in 2012, Lego have just announced that 3 are going into production, with a release date of this August. They will be the astronomer, paleontologist, and chemist. Woohoo! (Although I still think our idea for dual-faced minifigs would be better…)

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How much should NZ spend on science and what kind of science? YOUR input needed! Siouxsie Wiles Jun 03

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Last week saw Science and Innovation Minister Steven Joyce release the National Statement on Scientific Investment, a lengthy document outlining how funding should be spent on science in NZ over the next decade. You can download the draft statement from here. The government have asked for feedback and we have until the 22nd August to give it.

If you are a scientist working in NZ, a student who wants to be a scientist in NZ or a Kiwi working overseas who wants to return to NZ in the next decade, I urge you to read the document and send feedback. This is the science funding system that we will inherit (if we survive..) and we have to engage NOW!

The government has seven objectives for it’s investment in science, which it lists as:
1. Producing excellent science of the highest quality; (this really should go without saying)
2. Ensuring value by focusing on relevant science with the highest potential for impact for the benefit of New Zealand; (Ah, politicians. Relevant science? Impact? By whose definition?!)
3. Committing to continue increasing investment over time; (Good to hear!)
4. Increasing focus on sectors of future need or growth; (Again, who defines this?)
5. Increasing the scale of industry-led research;
6. Continue to implement Vision Mᾱtauranga; (Wouldn’t have expected any less)
7. Strengthening and building international relationships to strengthen the capacity of our science system to benefit New Zealanders. (Most of us are pretty well connected)

In the Statement, science in NZ is divided into 3 categories (with current rough yearly investment) [SEE CHART 1, Page 14]:
1. Investigator-led science defined as science of which the value “can be significant but may not always be clear at the outset”; ($102M + some share of $300M PBRF)
2. Mission-led science defined as science which may require scale, or which business may not be incentivised to invest in; ($548M + remaining share of $300M PBRF)
3. Industry-led science in which the government sees it’s role as to “encourage” ($284M).

Those categories then allocate money using three different funding systems (with current rough yearly investment) [SEE CHART 1, Page 14]:
1. Contestable (Marsden Fund [$52M], Health Research Council [HRC, $77M], MBIE [$189M], Business R&D [$141M] and Primary Growth Partnership [$65M])
2. Collaborative (Centre’s of Research Excellence [CoREs, $50M], National Science Challenges [NSC, $127M])
3. Institutional (eg the Performance Based Research Fund [PBRF, $300M], the Crown Research Institutes [CRIs, $137M] and Callaghan Innovation [$78M])

The Statement goes through each funding scheme in turn, explaining what the government’s rationale is for the future of each scheme. The Table on Page 18 shows how the government proposes to allocate its investment for each scheme over the next decade. The NSC’s are the only scheme that the government proposes to increase spending on, from $46.6M in 2014/2015 to $79.6M in 2023/2024. Everything else either stays static or decreases.

Priority number 2 to “ensure value by focusing on relevant science with the highest potential for impact for the benefits of New Zealand” makes me nervous. It suggests that we are capable of predetermining which research will have the highest impact, whatever ‘impact’ may mean. Many huge changes come about through serendipitous findings, the precise opposite of focusing on ‘relevant’ science! Funding for such ‘blue skies research’ (mainly through the Marsden Fund) makes up less than 4% of our investment in science. With 1167 proposals to the Marsden Fund in 2013, there are clearly no lack of good ideas. But with only 109 of those proposals funded, what ‘next big thing’ could we have already missed out on?

The government also says that it wants to “attract, retain and developed talented researchers” and has allocated $11.6M a year for this, with $533,000 to be spent on sending graduates to the USA to do their Masters or PhD (Fullbrights), $8M for the Rutherford Discovery Fellows, $1M for the Rutherford Foundation and $700,000 for the James Cook Fellowships. This statement from page 69 is interesting:

“There is no consistent data on postdoctoral numbers in New Zealand although it is possible to point to an increase in the number of doctoral graduates in New Zealand.”

Does it sound to you like the government might be assuming that the increase in successful PhDs means we have more postdocs?! Unemployed, maybe!

From a personal point of view, the Statement provides much food for thought for my future career in New Zealand. It appears from Page 41 that much of the Health Research Council’s funding will be moved to focus on the topics of the three health-related National Science Challenges. As someone whose research area is specifically excluded from the NSCs, I’m left wondering how I am going to fund my research here and whether I’m going to be forced to move back overseas. The UK have just added averting the coming antibiotic resistance apocalypse as a priority area for the Biotechnology and Biological Sciences Research Council (BBSRC) and as one of the 6 challenges currently being voted on by the British public to become the focus of the $20M Longitude Prize 2014.

I guess the government’s response would be that I should change what I work on to align with their idea of “relevant” science. Apart from being a massive waste of the investment already poured into my career to date, I work in an area that without drastic action could see a massive change in our way of life in the next decade – the very time frame of the government’s Statement.

Science funding down under – a tale of opposites Siouxsie Wiles May 16

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This week has seen budget announcements from both Australia and New Zealand and it is a story of opposites when it comes to science funding. The fabulous Keith Ng (@keith_ng) has produced a great dynamic infographic if you want to see where New Zealand is going to be spending it’s money and how this has changed from the previous budget.

Science in NZ is doing pretty well under the current government, even if the focus is skewed towards innovation and advances now, rather than the slow burn ‘outside the box’ stuff from which real game changers come. There has been a boost of NZ$58.6 million for contestable science funding, although the increase to the Marsden fund was not an increase in real terms.

The big surprise was the announcement of a further NZ$53 million over the next four years to support the Centre’s of Research Excellence (CoREs). Just last week the 6 new CoREs that will be funded for the next six years were announced. This new money isn’t to further support these 6 centres but to help establish another four. One of these will be a dedicated Māori Centre of Research Excellence, which is good news and important for New Zealand.

The three new CoREs will be funded from 2016 and this is where it gets interesting. In the recent contestable round to select the new CoREs, 27 applications were whittled down to a shortlist of 8 which included only three of the current CoREs and led to press releases from a couple of those left out in the cold, expressing their surprise and disappointment, including this one from Gravida, the National Centre for Growth and Development. There were even whispers of the decision being challenged.

Yesterday Steven Joyce announced that the three new CoREs will be selected through a closed tender of the remainder of the unsuccessful 21 applicants. This is curious. Why has the government not chosen to fund the 2 unfunded shortlisted applications, which went through a transparent, contestable process, and were selected for their excellence? Now suddenly everyone is back in the game, and that raises eyebrows. The science community is going to want the government and Tertiary Education Commission to be able to fully justify their choice of the next three CoREs. If the new CoREs plug huge gaps in the NZ science landscape, like the ‘One Health’ infectious diseases proposal or the Allan Wilson Centre, then we can see why this might be justified. However, if Gravida, which fits well with one of the National Science Challenges and has the government’s Chief Science Advisor Distinguished Professor Sir Peter Gluckman listed as one of it’s Principal Investigators, is one of the three funded then questions will be asked.

On the other side of the Tasman science funding has taken a hammering, although this was sweetened with the creation of a new AUS$20 billion Medical Research Future Fund. The Australian Renewable Energy Agency will be abolished saving AUS$1.3 billion, the Commonwealth Scientific and Industrial Research Organisation (CSIRO) will lose more than AUS$111.4 million, the Australian Research Council (ARC) will lose AUS$74.9 million, the Defense Science and Technology Organization will lose AUS$120 million, the Australian Nuclear Science and Technology Organization will lose AUS$27.6 million and the Australian Institute of Marine Sciences is down AUS$7.8 million.

The Medical Research Future Fund is a curious new beast. It will be made up of a $7 payment each time people go to the GP and will operate like a kind of investment trust. Once the fund reaches $20bn, the profits will go to fund medical research. John Pickering muses about what this fund might mean to NZ over on his blog. I find this proposal a very curious way to fund medical research. In essence what the Australians will be doing is ‘taxing’ the sick. While this might seem equitable to some, I think its very backwards thinking. If we think about those who got to the GP most, its the elderly and young kids. I would worry that this would stop those on limited incomes from going to the doctor when they need to, which in the long run could mean a bigger burden on health services as presumably potential health problems wouldn’t be caught as early.

The Australian governments attitude to science is perfectly summed up by this little gem in the budget: there is AUS$5 million for science in primary schools but a staggering AUS$245 million to put chaplains in schools! I’m lost for words.

Government announces new Centres of Research Excellence (CoREs) Siouxsie Wiles May 08

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The NZ government today announced the country’s next Centres of Research Excellence (CoREs), who between them will receive just under $35 million per year for 6 years starting in January 2015. They are:

The Maurice Wilkins Centre for Molecular Biodiscovery, hosted by University of Auckland
MacDiarmid Institute for Advanced Materials and Nanotechnology, hosted by Victoria University of Wellington
The Medical Technologies CoRE, hosted by University of Auckland
The Dodd-Walls Centre for Photonic and Quantum Technologies, hosted by University of Otago
Te Pūnaha Matatini – The Centre for Complex Systems and Networks, hosted by University of Auckland
Brain Research New Zealand – Rangahau Roro Aotearoa, co-hosted by University of Otago and University of Auckland

The CoREs are funded through the Tertiary Education Commission and have at their heart the development of future capability by training the new generation of Kiwi scientists. They must also do excellent collaborative research of strategic importance to New Zealand.

The scheme was first established in 2001, with 5 CoREs funded in 2002 and a further 2 funded in 2003. These were refunded in 2006/7. In 2013, the government announced that there would be a further contestable funding round, in which existing CoREs would have to compete with applications to establish new CoREs. The details of the criteria for funding and the process are available here. According to this report, 27 applications were received and there were many raised eyebrows when four of the existing CoREs (Gravida: National Research Centre for Growth and Development, Ngā Pae o te Māramatanga – New Zealand’s Indigenous CoRE, the Bio-Protection Research Centre and the Riddet Institute) failed to make the shortlist of 8. There was even talk of some staging a revolt against the decision.

Of the 6 CoREs that have been successful in this funding round, two are existing CoREs (Maurice Wilkins Centre and MacDiarmid Institute) with the remaining four being new initiatives. In many ways this is great news for NZ science and clearly shows that new ideas and collaborative networks are forming all the time. Looking at the research areas covered by the new CoREs, they represent a very varied portfolio which has got to be a good thing for NZ. I am especially pleased to see the Maurice Wilkins Centre refunded given that infectious diseases have been locked out of the National Science Challenges.

There is also a clear message here that just because a CoRE has been funded and operated successfully in the past, this doesn’t mean that it should be funded ad infinitum. A difficult lesson for those existing CoREs who were unsuccessful. So is this decision the end of those networks? Gravida, which according to it’s website “seeks to reveal how conditions encountered in early life affect the way an individual grows and develops throughout life” seem to be very closely aligned with the ‘A better start/E tipu e rea’ National Science Challenge which will be receiving up to $34.7 million funding over the next 10 years. Likewise, Lincoln University’s Bio-Protection CoRE, whose website says it “focuses on finding innovative, natural and sustainable solutions to protect New Zealand’s plant-based, productive ecosystems from pests, diseases and weeds” seems well aligned to the ‘New Zealand’s Biological Heritage/ Ngā koiora tuku iho’ National Science Challenge, which will receive up to $63.7 million over the next 10 years to protect and manage our biodiversity, improve our biosecurity, and enhance our resilience to harmful organisms.

As for Ngā Pae o te Māramatanga, there must surely be support for ring-fenced funding to support research of relevance to Māori communities and to address disparities in Māori participation and success in tertiary education and research training which this CoRE has done so well.

The surprise in today’s announcement has to current CoRE, the Allan Wilson Centre for Molecular Ecology and Evolution hosted by Massey University, missing out on refunding. Many AWC researchers are international leaders in evolutionary biology, and have developed many excellent tools for data analysis. They have also been very active in communicating their science to the public and hosting many great public speakers on visits to New Zealand. AWC researchers are currently sequencing the genome of the tuatara*. They are hoping this project will aid efforts to conserve the species, so perhaps some of their activities fall under the ‘New Zealand’s Biological Heritage/ Ngā koiora tuku iho’ National Science Challenge too.

*Read David Winter’s excellent post on why we should care about sequencing the tuatara genome.

Conflict of interest statement: I am an Associate Investigator of the Maurice Wilkins Centre and have had a great deal of support from them over the past few years, for both my research, and some of my science communication activities, including my Art in the Dark project with Rebecca Klee and my firefly animation.

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