Archive for the ‘science policy’ Category

Gary Goodyear rouses passions: more on Canada’s National Research Council and its new commitment to business

Wednesday, May 22nd, 2013

Gary Goodyear’s, Minister of State (Science and Technology), office in attempting to set the record straight has, inadvertently, roused even more passion in Phil Plait’s (Slate.com blogger) bosom and inspired me to examine more commentary about the situation regarding the NRC and its ‘new’ commitment to business.

Phil Plait in a May 22, 2013 followup to one 0f his recent postings (I have the details about Plait’s and other commentaries in my May 13, 2013 posting about the NRC’s recent declarations) responds to an email from Michele-Jamali Paquette, the director of communication for Goodyear (Note: A link has been removed),

I read the transcripts, and assuming they are accurate, let me be very clear: Yes, the literal word-for-word quotation I used was incorrect, and one point I made was technically and superficially in error. But the overall point—that this is a terrible move by the NRC and the conservative Canadian government, short-changing real science—still stands. And, in my opinion, Goodyear’s office is simply trying to spin what has become a PR problem.

I’ll note that in her email to me, Paquette quoted my own statement:

John MacDougal [sic], President of the NRC, literally said, “Scientific discovery is not valuable unless it has commercial value”

Paquette took exception to my use of the word “literally,” emphasizing it in her email. (The link, in both her email and my original post, goes to the Toronto Sun story with the garbled quotation.) Apparently MacDougal did not literally say that. But the objection strikes me as political spin since the meaning of what MacDougal said at the press conference is just as I said it was in my original post.

As I pointed out in my first post: Science can and should be done for its own sake. It pays off in the end, but that’s not why we do it. To wit …

Paquette’s choice of what issues (the 2nd issue was Plait’s original description of the NRC as a funding agency) to dispute seem odd and picayune as they don’t have an impact on Plait’s main argument,

Unfortunately, despite these errors, the overall meaning remains the same: The NRC is moving away from basic science to support business better, and the statements by both Goodyear and MacDougal [sic] are cause for concern.

Plait goes on to restate his argument and provide a roundup of commentaries. It’s well worth reading for the roundup alone.  (One picayune comment from me, I wish Plait would notice that the head of Canada’s National Research Council’s name is spelled this way, John McDougall.)

Happily, Nassif Ghoussoub has also chimed in with a May 22, 2013 posting (on his Piece of Mind blog) regarding the online discussion (Note: Links have been removed),

The Canadian twitter world has been split in the last couple of days. … But then, you have the story of the Tories’ problem with science, be it defunding, muzzling, disbelieving, doubting, preventing, delegitimizing etc. The latter must have restarted with the incredible announcement about the National Research Council (NRC), presented as “Canada sells out science” in Slate, and as “Failure doesn’t come cheap” in Maclean’s. What went unnoticed was the fact that the restructuring turned out to be totally orthogonal to the recommendations of the Jenkins report about the NRC. Then came the latest Science, Technology and Innovation Council (STIC) report, which showed that Canada’s expenditure on research and development has fallen from 16th out of 41 comparable countries in the year Stephen Harper became prime minister, to 23rd in 2011. Paul Wells seems to be racking up hits on his Maclean’s article,  “Stephen Harper and the knowledge economy: perfect strangers.”  But the story of the last 48 hours has been John Dupuis’s chronology of what he calls, “The Canadian war on science” and much more.

Yes, it’s another roundup but it’s complementary (albeit with one or two repetitions) since Plait does not seem all that familiar with the Canadian scene (I find it’s always valuable to have an outside perspective) and Nassif is a longtime insider.

John Dupuis’ May 20, 2013 posting (on his Confessions of a Science Librarian blog), mentioned by both Nassif and Plait, provides an extraordinary listing of stories ranging from 2006 through to 2013 whose headlines alone paint a very bleak picture of the practice of science in Canada,

As is occasionally my habit, I have pulled together a chronology of sorts. It is a chronology of all the various cuts, insults, muzzlings and cancellations that I’ve been able to dig up. Each of them represents a single shot in the Canadian Conservative war on science. It should be noted that not every item in this chronology, if taken in isolation, is necessarily the end of the world. It’s the accumulated evidence that is so damning.

As I’ve noted before, I am no friend of Stephen Harper and his Conservative government and many of their actions have been reprehensible and, at times, seem childishly spiteful but they do occasionally get something right. There was a serious infrastructure problem in Canada. Buildings dedicated to the pursuit of science were sadly aged and no longer appropriate for the use to which they were being put. Harper and his government have poured money into rebuilding infrastructure and for that they should be acknowledged.

As for what the Conservatives are attempting with this shift in direction for the National Research Council (NRC), which has been ongoing for at least two years as I noted in my May 13, 2013 posting, I believe they are attempting to rebalance the Canadian research enterprise.  It’s generally agreed that Canada historically has very poor levels of industrial research and development (R&D) and high levels of industrial R&D are considered, internationally, as key to a successful economy. (Richard Jones, Pro-Vice Chancellor for Research and Innovation at the University of Sheffield, UK, discusses how a falling percentage of industrial R&D, taking place over decades,  is affecting the UK economy in a May 10, 2013 commentary on the University of  Sheffield SPERI [Sheffield Political Economy Research Institute] website.)

This NRC redirection when taken in conjunction with the recent StartUp visa programme (my May 20, 2013 posting discusses Minister of Immigration Jason Kenney’s recent recruitment tour in San Francisco [Silicon Valley]),  is designed to take Canada and Canadians into uncharted territory—the much desired place where we develop a viable industrial R&D sector and an innovative economy in action.

In having reviewed at least some of the commentary, there are a couple of questions left unasked about this international obsession with industrial R&D,

  • is a country’s economic health truly tied to industrial R&D or is this ‘received’ wisdom?
  • if industrial R&D is the key to economic health, what would be the best balance between it and the practice of basic science?

As for the Canadian situation, what might be some of the unintended consequences? It occurs to me that if scientists are rewarded for turning their research into commercially viable products they might be inclined to constrain access to materials. Understandable if the enterprise is purely private but the NRC redirection is aimed at bringing together academics and private enterprise in a scheme that seems a weird amalgam of both.

For example, cellulose nanocrystals (CNC) are not easily accessed if you’re a run-of-the-mill entrepreneur. I’ve had more than one back-channel request about how to purchase the material and it would seem that access is tightly controlled by the academics and publicly funded enterprise, in this case, a private business, who produce the material. (I’m speaking of the FPInnovations and Domtar comingling in CelluForce, a CNC production facility and much more. It would make a fascinating case study on how public monies are used to help finance private enterprises and their R&D efforts; the relationship between nongovernmental agencies (FPInnovations, which I believe was an NRC spinoff), various federal public funding agencies, and Domtar, a private enterprise; and the power dynamics between all the players including the lowly entrepreneur.

What kind of science do we want? A few thoughts on the National Research Council of Canada and its new dedication to business

Monday, May 13th, 2013

Last week in its May 7, 2013 news release, the National Research Council of Canada flung open the doors of its closet and declared itself ‘open for business’,

The National Research Council of Canada (NRC) has transformed into an industry-focused research and technology organization. The refocused NRC will work with Canadian industries to bridge technology gaps, helping build a more innovative Canadian economy.

“NRC plays a pivotal role at the heart of Canada’s innovation system,” said the Honourable Gary Goodyear, Minister of State (Science and Technology). “The refocused NRC will provide Canadian industries with access to strategic research and development, technical services and specialized scientific infrastructure they need to succeed.”

“The Government’s top priority is jobs, growth and long-term prosperity for all Canadians,” said the Honourable Claude Carignan, Deputy Leader of the Government at the Senate. “By refocusing the NRC into a research and technology organization, our Government is ensuring that Canadian firms have the instruments and tools they need to become even more successful on the global stage.”

The refocused NRC will support Canadian industries by investing in large-scale research projects that are directed by and for Canadian business. It will also develop international networks to ensure timely access to primary research and will open the doors to world class scientific infrastructure, technical expertise and people.

“We are very excited about this change. Our organization is now easier for business to understand and access,” said John R. McDougall, President of the National Research Council. “We are committed to being a strong partner for innovation, and focused on achieving the concrete outcomes that will contribute to a stronger and more prosperous Canada. We will measure our success by the success of our clients.”

Research and technology organizations are mission-oriented providers of innovation services to firms and governments, dedicated to building economic competitiveness and, in doing so, improving quality of life. The refocused NRC will strengthen Canadian industry by encouraging more business investment to develop innovative products and services.

Response has ranged from mild interest to apoplexy and heartbreak.

Phil Plait, a US astronomer and creator of the Bad Astronomy blog/book/website, has opined in a May 13, 2013 posting at Slate.com (Note: A link has been removed),

This is not a joke. I wish it were.

John MacDougal [sic], President of the NRC, literally said, “Scientific discovery is not valuable unless it has commercial value”. Gary Goodyear, the Canadian Minister of State for Science and Technology, also stated “There is [sic] only two reasons why we do science and technology. First is to create knowledge … second is to use that knowledge for social and economic benefit. Unfortunately, all too often the knowledge gained is opportunity lost.”

This is monumentally backwards thinking. That is not the reason we do science. Economic benefits are results of doing research, but should not be the reason we do it. Basic scientific research is a vast endeavor, and some of it will pay off economically, and some won’t. In almost every case, you cannot know in advance which will do which.

… If proposed and immediate economic benefits are the prime factors in choosing what science to fund, then the freedom of this human endeavor will be critically curtailed. It’s draining the passion and heart out of one of the best things we humans do.

This intensity suggests that Plait is unaware that the changeover has been taking place over a number of years. Hannah Hoag in an April 19, 2011 piece for Nature magazine noted this about the changeover which was even then taking place,

Canada’s largest research entity has a new focus — and some disaffected scientists. On 1 April [2011], the National Research Council (NRC), made up of more than 20 institutes and programmes with a total annual budget larger than Can$1 billion (US$1 billion), switched to a funding strategy that downplays basic research in favour of programmes designed to attract industry partners and generate revenue. [emphasis mine] Some researchers suggest that the shift is politically driven, because it brings the agency into philosophical alignment with the governing Conservative Party of Canada, which is in the middle of an election campaign.

The change was announced in a memo from NRC president John McDougall on 2 March [2011], and involves the transfer of authority over 20% of the agency’s research funds and the entire Can$60-million budget for large equipment and building costs to the NRC’s senior executive committee, which will direct it towards research with a focus on economic development, rather than pure science. Until now, individual institutes have had authority over research spending. McDougall wrote that in future, 80% of the research budget will be centralized, with “curiosity and exploratory activities” to be funded by the remaining 20%.

In Canada, most funding for academic researchers flows through agencies other than the NRC. [emphasis mine] However, with 4,700 scientists, guest researchers, technologists and support staff pursuing specialities from astrophysics to plant biotechnology at its institutes, the NRC plays a vital part in the nation’s scientific community, as a generator of original research and a service provider to government and industry.

While I’m no friend of the current Canadian government or John McDougall for that matter, this is an attempt to dealt with a longstanding issue, Canada’s failure with industrial research. From the Feb. 27, 2013 article, which prefigures the current discussion by a little over two months, by Tom Spears  in the Ottawa Citizen,

In October [2012], members of the House of Commons Industry Committee challenged McDougall to justify the changes.

Now McDougall has responded that Canada’s economy can’t wait for slow advances.

As science investment has grown in Canada, “our productivity and competitiveness, as measured by various organizations in the world, has been going in exactly the opposite direction,” he said in an interview.

“The primary reason for that is entirely speculative … But it would appear that Canada’s balance is quite different from other countries.”

That means we’re good at academic research, he says. We’re not so good at putting new knowledge to work.

“We’re not doing the things that take technology and ‘productize’ it.” (He makes exceptions to that: We’re strong in informational technology and in space-related industries such as robotics and building satellites.)

And he argues the answer lies in involving industry with the research from the start “rather than shoving it down their throat and hoping they’ll take it.”

For example, one new “flagship program” at NRC is to develop wheat that will resist cold and drought better than today’s, require less fertilizer, and produce greater yields.

“The timeline for this kind of thing is in the order of seven or eight years, which left to normal — I’ll call it traditional approaches — would typically be 20,” he said.

A similar ‘Canada is poor at commercializing research’ theme is mentioned in a May 7, 2013 article by Barrie McKenna and Ivan Semeniuk for the Globe and Mail,

The National Research Council, which gave the country canola and the atomic clock, will now be taking its scientific cues from Canadian industry as part of a makeover of the country’s flagship research labs.

The overhaul, quietly begun two years ago and formally unveiled Tuesday, means the 97-year-old NRC will focus on a clutch of large-scale, business-driven research projects at the expense of the basic science that was once at its core. The Conservative government says it wants to leverage the NRC’s world-class resources – everything from wind tunnels and ice tanks to high-powered microscopes – to help reverse the country’s chronically lagging innovation performance.

“Our businesses are not doing the research that they need to do,” Gary Goodyear, the minister of state for science and technology, told reporters in Ottawa. “So something had to be done.”

The move is in keeping with the Conservative government’s emphasis on a business model for public policy, such as tying foreign aid to economic development. It is also another significant foray into the science file, with critics saying the new approach is shortsighted and may shut the door on vast areas of promising fundamental research.

Mr. Goodyear insisted the government isn’t abandoning basic science, just shifting its focus to commercializing discoveries. “The day is past when a researcher could hit a home run simply by publishing a paper on some new discovery,” he said. “The home run is when somebody utilizes the knowledge that was discovered for social or economic gain.”

As part of the overhaul, the NRC is consolidating its disparate operations into a dozen business units and will focus on just five core areas of research: health costs, manufacturing, community infrastructure, security, and natural resources and the environment. Companies, or industries, will be able to tap the NRC’s expertise and labs, while sharing the cost of projects – as well as the intellectual property that results.

“Our job is to change innovation performance,” NRC president John McDougall explained in an interview. “So we have to do the things that will make that happen. Discovery science is necessary, but it’s not sufficient.”

Kennedy Stewart, the NDP (New Democratic Party; the official opposition) Member of Parliament expresses his opinion in his May 7, 2013 news release,

“Conservative incompetence meets Conservative narrow-mindedness,” said NDP Science and Technology critic Kennedy Stewart (Burnaby–Douglas). “They don’t want research driven by researchers themselves or public funding for science going towards actual scientific advancement. Their short-sighted approach will in fact hurt economic growth in the long run because it shuts the door on the long-view fundamental research that truly leads to scientific breakthroughs.”

Widespread dissatisfaction among the over 4,000 NRC employees and the change of focus away from basic research, patents and publications will increase the drain of Canada’s best and brightest minds to other OECD countries that are investing in scientific research heavily. Under the Conservatives, Canada just can’t compete.

“The government has been handing pink slips to scores of NRC scientists and researchers, lowering the organization’s research capacity and devastating internal morale,” said Stewart.  “It is hard to see how business will get scientific advice from the NRC if they fire all the scientists. Who they keep will spend their time trying to get off this runaway train.”

As best as I can unravel, there are several issues in the material I have excerpted:

  • what is the right mix of science, basic to applied/industrial?
  • it’s widely acknowledged that Canadians have done more poorly in the area of industrial science than colleagues in other OECD (Organization for Economic Cooperation and Development) countries
  • how do we address the issue?

The solution that the current Canadian government has arrived *at is impossible to assess at this point (although I have a guess as to the outcome) and something needed to be done with the National Research Council of Canada as noted in an April 7, 2010 posting on the Don’t leave Canada behind; Researcher Forum blog (I believe the writer was Rob Annan),

The NRC is a mess.

And the mess of the NRC neatly encapsulates much that’s wrong with Canadian science policy. No direction, no cohesion, multiple conflicting purposes.

Rob goes on to discuss the NRC’s mandate (Note: A link has been removed),

Well, the NRC is mandated, by the original NRC Act of 1916, “to undertaking, assisting or promoting scientific and industrial research in different fields of importance to Canada”. It did this very successfully into the 1960s, at which point, its greatest successes were carved out and handed to new organizations.

So what’s left? Well the NRC Act has a few specific mandates that the NRC fulfills: standards of measurement, manage observatories, investigate and standardize industrial materials, perform agricultural research, and maintain a national science library (which is under major financial stress, but let’s save that for another time). But the general mandate to “undertake, assist, or promote” scientific and industrial research is open to interpretation, and is a source of conflict.

I’m not sure if the NRC Act has been amended since 2010 to allow for these latest changes but Rob goes on to make, what is for me, a more interesting point (Note: A link has been removed),

But since the 1980s, the NRC has been without a strong sense of self. Is it a basic research organization or an applied research organization? Does it exist to perform independent, government-sponsored research, or does it provide research services in support of the private sector? Does it perform early-stage research and then partner with industry, or is it a fee-for-service research organization? The answer is yes.

The NRC is being pulled in too many directions.

What does our Minister of Industry [at the time, Tony Clement] have to say about the NRC?

NRC‘s aim is to bring timely solutions to market in areas of national importance: clean energy, health and wellness, and the environment. NRC will continue to partner with Canadian firms to deliver tangible, market-oriented results in high-impact and emerging industry sectors, such as the automotive sector.

But the NRC isn’t designed to do this – this is a different mandate than what is laid out in the Act. Which would be fine – maybe it’s time for a change – except that the NRC institutes have been, not surprisingly, built according to the mandate outlined in the NRC Act – as research laboratories, not product development laboratories or partnership incubators. And the people recruited to run these labs are scientists, not business-people. They want to do science, not chase down industrial partnerships in the automotive sector or take their clean energy products to market. They’ve been recruited for their scientific abilities; it’s a bit of a stretch to expect them also to be market innovators.

Furthermore, because the government does not fund the full cost of research at the institutes, these labs are dependent on research funding from external sources. If the funding was coming from Canadian business, then the vision of our Industry minister would be fulfilled. Unfortunately, Canadian business is notoriously averse to investing in academic or government research. So these labs are dependent on CIHR, NSERC, or private funding – mostly basic science funding. So, the government builds a system of research laboratories, forces them into dependence on basic science funding, and then complains that there isn’t enough market-driven research going on? [all emphases mine]

I realize that CIHR and NSERC funding programs have changed but the issue with Canadian business paying for research has not. It is, as I have noted in other pieces, a cultural issue with the key question being, How do you inculcate a business culture that innovates? What we have now is a ‘start-up’ culture where people found businesses based on exciting research and plan on growing those businesses to a point where they can be sold to larger companies from the US or Britain or elsewhere. Based on these comments, my guess is that the current changes to the NRC will not result in the ‘innovation’ the government has repeatedly stated is its primary goal since our basic business culture will remain untouched. One last thing, I think people are going to figure out how to game this new NRC.

*at added on May 22, 2013

US multicenter (Nano GO Consortium) study of engineered nanomaterial toxicology

Wednesday, May 8th, 2013

Nano Go Consortium is the name they gave a multicenter toxicology study of engineered nanomaterials which has pioneered a new approach  in the US to toxicology research. From the May 6, 2013 news item on Azonano,

For the first time, researchers from institutions around the country have conducted an identical series of toxicology tests evaluating lung-related health impacts associated with widely used engineered nanomaterials (ENMs).

The study [on rodents] provides comparable health risk data from multiple labs, which should help regulators develop policies to protect workers and consumers who come into contact with ENMs.

The May 6, 2013 North Carolina State University news release, which originated the news item, describes the results from one of two studies that were recently published by the Nano GO Consortium in Environmental Health Perspectives,

The researchers found that carbon nanotubes, which are used in everything from bicycle frames to high performance electronics, produced inflammation and inflammatory lesions in the lower portions of the lung. However, the researchers found that the nanotubes could be made less hazardous if treated to remove excess metal catalysts used in the manufacturing process or modified by adding carboxyl groups to the outer shell of the tubes to make them more easily dispersed in biological fluids.

The researchers also found that titanium dioxide nanoparticles also caused inflammation in the lower regions of the lung. Belt-shaped titanium nanoparticles caused more cellular damage in the lungs, and more pronounced lesions, than spherical nanoparticles.

Here’s a link to and a citation for this study on rodents,

Interlaboratory Evaluation of Rodent Pulmonary Responses to Engineered Nanomaterials: The NIEHS NanoGo Consortium by James C. Bonner, Rona M. Silva, Alexia J. Taylor, Jared M. Brown, Susana C. Hilderbrand, Vincent Castranova, Dale Porter, Alison Elder, Günter Oberdörster, Jack R. Harkema, Lori A. Bramble, Terrance J. Kavanagh, Dianne Botta, Andre Nel, and Kent E. Pinkerton. Environ Health Perspect (): .doi:10.1289/ehp.1205693  Published: May 06, 2013

And the information for the other study which this consortium has published,

Interlaboratory Evaluation of in Vitro Cytotoxicity and Inflammatory Responses to Engineered Nanomaterials: The NIEHS NanoGo Consortium by Tian Xia, Raymond F. Hamilton Jr, James C. Bonner, Edward D. Crandall, Alison Elder, Farnoosh Fazlollahi, Teri A. Girtsman, Kwang Kim, Somenath Mitra, Susana A. Ntim, Galya Orr, Mani Tagmount8, Alexia J. Taylor, Donatello Telesca, Ana Tolic, Christopher D. Vulpe, Andrea J. Walker, Xiang Wang, Frank A. Witzmann, Nianqiang Wu, Yumei Xie, Jeffery I. Zink, Andre Nel, and Andrij Holian. Environ Health Perspect (): .doi:10.1289/ehp.1306561 Published: May 06, 2013

Environmental Health Perspectives is an open access journal and the two studies are being offered as ‘early’ publication efforts and will be updated with the full studies at a later date.

Most interesting for me is the editorial offered by four of the researchers involved in the Nano GO Consortium, from the editorial,

Determining the health effects of ENMs presents some unique challenges. The thousands of ENMs in use today are made from an enormous range of substances, vary considerably in size, and take a diversity of shapes, including spheres, cubes, cones, tubes, and other forms. They are also produced in different laboratories across the world using a variety of methods. In the scientific literature, findings on the properties and toxicity of these materials are mixed and often difficult to compare across studies. To improve the reliability and reproducibility of data in this area, there is a need for uniform research protocols and methods, handling guidelines, procurement systems, and models.

Although there is still much to learn about the toxicity of ENMs, we are fortunate to start with a clean slate: There are as yet no documented incidences of human disease due to ENM exposure (Xia et al. 2009). Because ENMs are manmade rather than natural substances, we have an opportunity to design, manufacture, and use these materials in ways that allow us to reap the maximum benefits—and minimal risk—to humans.

With $13 million from the American Recovery and Reinvestment Act (2009), the National Institute of Environmental Health Sciences (NIEHS) awarded 13 2-year grants to advance research on the health impacts of ENMs (NIEHS 2013). [emphasis mine] Ten grants were awarded through the National Institutes of Health (NIH) Grand Opportunities program and three were funded through the NIH Challenge Grants program. One goal of this investment was to develop reliable, reproducible methods to assess exposure and biological response to nanomaterials.

Within the framework of the consortium, grantees designed and conducted a series of “round-robin” experiments in which similar or identical methods were used to perform in vitro and in vivo tests on the toxicity of selected nanomaterials concurrently at 13 different laboratories.

Conducting experiments in a round-robin format within a consortium structure is an unfamiliar approach for most researchers. Although some researchers acknowledged that working collaboratively with such a large and diverse group at times stretched the limits of their comfort zones, the consortium ultimately proved to be “greater than the sum of its parts,” resulting in reliable, standardized protocols that would have been difficult for researchers to achieve by working independently. Indeed, many participants reflected that participating in the consortium not only benefitted their shared goals but also enhanced their individual research efforts. The round-robin approach and the overall consortium structure may be valuable models for other emerging areas of science.

Here’s a link to and a citation for the Consortium’s editorial, which is available in full,

Nano GO Consortium—A Team Science Approach to Assess Engineered Nanomaterials: Reliable Assays and Methods by Thaddeus T. Schug, Srikanth S. Nadadur, and Anne F. Johnson. Environ Health Perspect 121(2013). http://dx.doi.org/10.1289/ehp.1306866 [online 06 May 2013]

I like the idea of researchers working together across institutional and geographical boundaries as that can be a very powerful approach. I hope that won’t devolve into a form of institutionalized oppression where individual researchers are forced out or ignored. In general, it’s the outlier research that often proves to be truly groundbreaking, which often generates extraordinary and informal (and sometimes formal) resistance. For an example of groundbreaking work that was rejected by other researchers who banded together informally, there’s Dan Shechtman, 2011 Nobel Laureate in Chemistry, famously faced hostility from his colleagues for years over his discovery of quasicrystals.

Spirit of the law, the rule of law, Kiera Wilmot, and a science experiment in Florida

Friday, May 3rd, 2013

It’s tempting to ride my moral high horse regarding the Kiera Wilmot situation but on second thoughts I’ve decided to dismount. For those who are not familiar with the situation, Kiera Wilmot went to her Florida school on Monday, Apr. 29, 2013 and attempted a science experiment—unauthorized and in the school yard which resulted in an explosion that sounded like a firecracker going off. Shortly afterwards she found herself arrested, taken away in handcuffs, and expelled from school. She was charged on two felony charges (I believe) and will be tried as an adult.

As for the experiment, Wilmot brought a plastic bottle to school and, before classes started, decided to pour into it a quantity of household plumbing cleaner (Drano) and added a piece of aluminum foil resulting in smoke and an explosion that bystanders described as sounding like a firecracker. No one was injured and there was no damage. According to all the reports I’ve seen so far, Wilmot gets good grades and has never been in trouble.

Here’s the quote that Kyle Murzenrieder obtained for his Apr. 26, 2013 posting [as far as I can determine the incident occurred on Apr. 29 but, mysteriously, Murzenrieder's posting is dated prior to that) on the Miami (Florida) New Times blog,

"She made a bad choice. Honestly, I don't think she meant to ever hurt anyone," principal Ron Pritchard told the station [local Miami tv station WTSP]. “She wanted to see what would happen [when the chemicals mixed] and was shocked by what it did. Her mother is shocked, too.”

The story has attracted international attention. Richard Luscombe in a May 2, 2013 story for the UK’s Guardian newspaper recounts the events and provides a perspective from a US educator of educators,

The unsupervised experiment on school grounds ended with Wilmot, 16, led away to a juvenile detention facility in handcuffs, expelled and charged as an adult with felony possession of a weapon and making or discharging a destructive device, with a possible penalty of up to 20 years in jail.

The episode has pitted campaigners for a common-sense approach to school discipline against an unrepentant school district that insists it is just following rules, warning parents to advise their children that there will always be “consequences to actions”.

“This is totally insane,” Dr Kathleen Nolan, a lecturer in teacher preparation at Princeton University and author of Police in the Hallways: Discipline in an Urban High School told the Guardian.

Steven D, a retired lawyer (not licenced to practice in Florida), provides a legal perspective on the charges Wilmot is facing in his May 2, 2013 posting on the Daily Kos,

Was Kiera’s science experiment a “destructive device” that she willingly made, possessed and intended to use as such?

In Florida, a person commits a felony when he or she “willfully and unlawfully makes, possesses, throws, projects, places, discharges, or attempts to make, possess, throw, project, place, or discharge any destructive device.”

No report I’ve seen suggests that her the result of her “experiment” caused any bodily harm to anyone or any property damage.  However, for the sake for argument let’s concede that her science experiment was a destructive device.  That doesn’t end the inquiry, however, regarding her guilt.  You see the law clearly states that for Kiera to be guilty of a felony, she must have both constructed her “destructive device,” and used it, willfully and unlawfully.  In short, the issue of her intent again appears, and it should give any prosecutor pause before pursuing felony charges against this young woman.  Why?  Because she herself has stated she just wanted to see what would happen when she mixed the aluminum foil strips with the chemicals in her toilet cleaner. ….

It’s well worth reading the full piece for the way Steven D. breaks down the language used in the laws under which Wilmot is being charged and examines the case. If I understand his points correctly, the prosecutor will have a very hard time proving there was any attempt to harm or cause damage to anyone or anything, which is what those laws are designed to discourage.

Scientific American is covering this evolving situation in a number of ways. Ashutosh Jogalekar (Ashutosh [Ash] Jogalekar is a chemist interested in the history and philosophy of science, according to the  description on his blog, The Curious Wavefunction; a member of the Scientific American blog network) wrote an essay on science, scientific query, youth, and Kiera Wilmot titled, America hates science, for Scientific American which was also published on Salon.com (Note: Links have been removed),

She [Wilmot] definitely deserved to be reprimanded and perhaps even punished in some way, maybe by putting her on probation. But when you arrest and expel students for slaking their scientific curiosity, whatever the other consequences of that action, be advised that you are almost certainly sacrificing a valuable scientist at the altar of arbitrarily wielded state and school power.

The latest incident however is only a reflection of, on one hand, the draconian measures that our educational and political institutions are taking to achieve the ostensible goal of “disciplining” American children, and on the other hand, the public obsession with chemophobia and “chemicals”. The absurdly named “chemical free” chemistry sets are already depriving students of the joy of chemistry. When I was growing up my chemistry set had a lot of potentially harmful chemicals like copper sulfate and potassium ferricyanide. On every bottle there were clear labels advising us of the hazards of that particular chemical, antidotes against poisoning and the phone number of the poison center. None of these labels deterred me or my parents, and the set opened up the wonderful world of chemistry to me.

Society’s ardent wish to enforce this principle of maximum precaution – whether it involves reacting to terrorism or to school pranks – is turning schools into straitjacketed environments with armed guards and law enforcement where misdemeanors, pranks and honest mistakes that would have gotten a student detention twenty years ago are leading instead to arrests and expulsions. The school environment in many states has turned into an overactive immune system.

Jogalekar is expressing a sentiment echoed not only by Dr. Kathleen Nolan in Luscombe’s UK Guardian story but elsewhere too, as per Tim Elfrink’s May 2, 2013 posting for the Miami New Times,

As the tale of Kiera Wilmot — the Bartow, Florida student expelled and charged with two felonies over a science project gone wrong — went viral yesterday, a wide movement to support the 16-year-old blossomed from blogs to radio shows to Change.org petitions. Best of all, though, has been a Twitter campaign by scientists and science fans with a simple premise: writing about the craziest stuff they’ve blown up over the years, all in the name of science. [emphasis mine]

The difference, of course, is that they were congratulated on their curiosity or slapped on the wrist, not hit with life-altering felonies.

Andrew David Thaler of the Southern Fried Science blog has started at least one of  the Twitter campaigns (this is the tag: #KieraWilmot) and you can find his commentary about the situation and tweets here on Storify.

While I am in agreement that the response to Wilmot’s ill-advised experiment is an extraordinary overreaction, I can understand the impact the act of setting off an explosive device in a schoolyard a scant two weeks after the Boston Marathon bombing incident (April 15, 2013) where four people were killed (including one of the bombers) and many others injured likely had on the authorities. The timing is spectacularly bad and points to a degree of self-absorption that one might expect of a 16-year-old.

That said, I think rather than trying Wilmot as an adult on two felony charges for a science experiment, it might be more useful to involve the community (Wilmot and her family, the other school children, the teachers, the administrators, and the parents) and have them review Wilmot’s actions and determine the appropriate response to her transgression.

Laws are meant to help us maintain social order. It seems to me that the spirit of the laws under which Wilmot is being charged is aimed at protecting the community from violence and harm and that spirit is being violated although authorities may be following the rule of law. Wilmot is a member of the community and she is being harmed by an unthinking response from adults who really should know better.

ETA May 3, 2013 4:45 pm PDT: Here’s a petition you can sign, if you are so inclined: https://www.change.org/petitions/polk-county-state-s-attorney-drop-felony-charges-against-16-year-old-kiera-wilmot

Status of women in science and technology Apr. 23, 2013 panel at the University of Toronto (Canada)

Monday, April 15th, 2013

The Canadian Science Policy Centre is hosting a special event for women in science, from The Status of Women in Science and Technology event page,

The Canadian Science Policy Centre (CSPC) is pleased to announce an exciting panel discussion, The Status of Women in Science and Technology, in participation with two generations of women scientists to provide insights into how to strengthen their position in science and technology.

Over the course of an afternoon, both established and early career women scientists drawn from different fields (including academia, government, the private sector and not-for-profit organizations) will be engaged in discussions related to how they got where they are today, how they overcame challenges along the way, what advice they would give to others early in their career to achieve their goals, their assessment of the overall status of women in science and technology and what can — and should — be done to improve their status. In light of the recently released report from the The Status of Women in Science and Technology, here, that highlighted the lack of available mentorship for women scientists in Canada, we think this will be a wonderful event that redresses that landscape.

Btw, I did write a commentary about the Council of Canadian Academies report on women and science, Science, women and gender in Canada (part 1 of 2) in my Feb.22, 2013 posting and Science, women and gender in Canada (part 2 of 2) also on Feb. 22, 2013.

Here’s more about this free Apr. 23, 2013 CSPC workshop being offered at the University of Toronto (Note: Links have been removed),

Speakers:

Main Panel

Wendy Cukier, PhD
Vice-President, Research & Innovation
Ryerson University – Bio

Hon. Lorna Marsden, PhD
President emeriti and former Vice-Chancellor
York University– Bio

Maydianne C.B. Andrade, PhD
Professor & Canada Research Chair
Integrative Behaviour & Neuroscience Group
University of Toronto Scarborough

**More panelists to be confirmed

Responding Panel

Robin E. Duncan, PhD
Assistant Professor
University of Waterloo

Shiva Amiri, PhD
Senior Program Lead
Ontario Brain Institute

Dawn M.E. Bowdish, PhD.
Assistant Professor
McMaster Immunology Research Centre

Details as to where and when,

Date:  April 23, 2013

Time: 4:00pm to 7:00pm

  • Registration: 4:00pm
  • Opening Remark:  4:30pm – 4:35pm
  • Panel Opening: 4:35pm – 5:00pm
  • Interactive Panel Discussion (Main & Responding): 5:00pm – 6:00pm
  • Q&A:  6:00pm – 6:45pm
  • Closing Remarks:  6:45pm – 6:50pm

Venue: University of Toronto, Medical Science Building, MacLeod Auditorium, 1 King’s College Circle.

To register please RSVP to lauren.ashton@sciencepolicy.ca with

1) Name, 2) Company/Organization, 3) Title/Level of Study

I’ve never come across an event with a ‘main’ panel and a ‘responding’ panel before but I’d love to see it. Unfortunately, there’s no mention of a webcast either live or posted afterward and there’s no chance I’ll be in Toronto on the day.

The science of offering science advice—a confusing plethora

Monday, April 15th, 2013

There’s a big fuss being made about the upcoming changeover from one chief science *advisor (John Beddington) to another (Mark Walport) to the UK government with ‘advice’ and commentary being offered in the Guardian newspaper and in the journal Nature and likely elsewhere.

Roger Pielke Jr. , professor of environmental studies in the Centre for Science and Technology Policy Research at the University of Colorado (US) and author of The Honest Broker: Making Sense of Science in Policy and Politics, has written a ‘letter’ to Walport in his Apr. 15, 2013 posting on the Guardian science blogs (Note: Links have been removed),

Congratulations Dr Walport on your appointment as the UK government’s chief scientific *adviser. You join a select group. Since the position of chief science adviser was established in the US in 1957 and in the UK in 1964, fewer than 30 men (yes, all men) have occupied the position. [emphasis mine] Today across Europe, only Ireland, the Czech Republic and the European Commission have formal equivalents, which also exist in Australia, New Zealand, and soon perhaps in Japan and at the United Nations. [Scotland has a chief science *adviser; Korea has a special *Advisor for Science and Technology to the President of South Korea and that advisor, as of Oct. 2011, was professor Hyun-Ku Rhee]

In the United States, the science adviser is an assistant to the president with the formal title of Director of the Office of Science and Technology Policy. All US science advisers (except notably the first, James Killian, who had a background in public administration) have been trained in some area of physics, reflecting the cold war origins of the position. [emphases mine]

Pielke goes on to describe the science adviser mythology in the US. Apparently extraordinary access to the US president and the notion that scientific advice will be given more weight than other types of advice form the cornerstones of the mythology. The reality is somewhat different as Pielke notes,

Despite such expectations, the science adviser is an adviser just like any other in government, with a limited portfolio of responsibilities and expectations for accountability. Science advisers are not superheroes with special access and supra-political authority. Making effective use of the position within government requires the scientific community to realistically calibrate their expectations for the role.

He does outline some specific roles (the fourth was bit of a surprise to me)

Budget champion. The science adviser is a coordinator, and at times, a champion for research funding across the federal government.

Issue expert. The science adviser has a unique ability to assemble expertise to address specialised or cross-cutting policy issues.

Options Czar. The science adviser may also serve as what I have called an “honest broker of policy options”, helping the president or prime minister to understand the scope of available choice on a particular topic.

Institution builder. A fourth role is to oversee the institutionalisation of scientific advice across government. The provision of useful advice requires a commitment from policymakers to the use of evidence, but also to the creation and maintenance of strong institutions. The science adviser has a crucial role to ensure institutional integrity by providing advice on advice. [emphasis mine]

Taking into account that fourth option and this final paragraph, I have a question,

The UK has more than its fair share of this expertise, which I encourage you to take full advantage of during your tenure. These experts can provide you with much useful advice on advice. [emphasis mine] Just as there are calls for policymaking across government to be more evidence-based, so too should science and technology policy.

Has Pielke been reading Frank Herbert’s Dune? This business about “advice on advice” reminds me of a writing device Herbert used “the feint within the feint within the feint.”  Herbert, of course, was suggesting that there was layer upon layer of meaning and strategy within all exchanges. It seems to me Pielke is either suggesting that there are already layer upon layer of meaning and strategy within the business of being a science *advisor or, perhaps, he’d like to add those layers.

I gather the Walport appointment was announced well in advance as Colin Macilwain wrote an Aug. 28, 2012 essay, with a radically different perspective about the appointment and the situation regarding chief science advisers in the UK, for Nature,

The position of scientific adviser wasn’t set up to secure science budgets or communicate government policies to the public. Instead, advisers were meant to address competitiveness by bridging the great divide between what UK physicist C. P. Snow called the “two cultures”: scientists and engineers on the one hand, and the non-technical elites who govern London and Washington DC, on the other.  [emphasis mine]

It was the launch of Sputnik that led US President Dwight Eisenhower to appoint James Killian as his country’s first scientific adviser, in 1957. Seven years later, Harold Wilson was elected UK prime minister after pledging that a new Britain would be “forged in the white heat” of scientific and technological revolution. He appointed his first scientific adviser, Solly Zuckerman, in the same year.

Neither Eisenhower nor Wilson hired a scientific adviser so that their countries’ researchers could win more Nobel prizes or publish more papers. What they meant by ‘science’ was military and industrial competitiveness achieved by harnessing science and technology. …

Unfortunately, in both countries, the scientific adviser’s role has evolved in ways that marginalize its impact on competitiveness. …

I have read C. P. Snow’s essay where two cultures are mentioned and while he notes many versions of  ‘two cultures’ notably the ‘developed and developing’ worlds and ‘science and the arts’, I don’t recall anything about government and scientists. Still, Macilwain’s essay provides a contrast to Pielke’s take on science *advisor positions.

One last thing about science *advisers, the City of Southampton appointed their own in Aug. 2012, as per David Bruggeman’s Aug. 9, 2012 posting on his Pasco Phronesis blog (Note: Links have been removed),

The U.K. local council for Southampton has announced the appointment of a chief scientific adviser.  Professor AbuBakr Bahaj is the first person to hold the post, and is Professor of Sustainable Energy at Southampton University.  Southampton is a major port city on the southern coast, and part of a major urban area of over a million people.

The City Council, in announcing the appointment, describes the position of science adviser as a “role to champion science and engineering as a key driver of the economy and ensure the city uses science effectively in all policy-making.”  [emphasis mine] Perhaps based on Professor Bahaj’s background, his first projects will involve energy efficiency in city buildings and services.  To emphasize the partnership with Southampton University, the City Council leader will sit on two university panels concerned with research.

Note that the City if Southampton hies to the original impulse behind the ‘chief scientific adviser’ position. I did check the city website (Southampton City Council) today (Apr. 15, 2013) and was not able to find any further information about the position. They do not have seem to have created a webpage devoted to their Chief Science Adviser nor is there mention of the position on Professor AbuBakr Bahaj’s University of Southampton webpage.

Professor Bahaj did write about his hopes for the position in an Aug. 9, 2012 posting (on the one of the Guardian blogs) about being appointed as Chief Science Adviser for the city of Southampton (Note: A link has been removed),

The role of a city CSA [Chief Science Adviser] is not only to provide advice in addressing the above challenges, but also to establish city- and region-wide networks that will create new mechanisms to support local authorities and its communities.

Today about 51% of the world’s population live in cities, which occupy about 2% of land mass yet consume approximately 80% of the global resources. The world population is projected to grow to 9 billion by 2050 from its current estimate of 7 billion. Such an increase will undoubtedly affect the urban areas of the world, requiring new thinking in how cities could adapt to such population growth.

As for *advisor/*adviser, I tend to write advisor but both spellings are perfectly fine as per Wicktionary [advisor],

In general, adviser and advisor are interchangeable. However, adviser is used more generally to mean someone who is giving advice (what they are doing), whereas advisor is more commonly used when it means the primary role (what they are), such as job title, etc.

In the UK, Ireland and Asia the spelling is traditionally adviser, though US spelling advisor is becoming increasingly common …

For some reason, I just couldn’t make up my mind as to which spelling to use today.

Science, politics, and logic

Friday, April 12th, 2013

I started the week with a posting where I highlighted a presentation about algae, biofuels, policy making, and politics (my Apr. 8, 2013 posting: Algae factories could produce nanocellulose for biofuels and more) and I’m going to end this week with another politics/policy posting, this time focusing on artemisinin and malaria.

Malaria is a serious, serious problem in many parts of the world as Brendan Borrell notes in his Apr. 4, 2013 article, The WHO vs. the Tea Doctor, about an herbal tea that contains artemisinin, for Slate.com,

Of all the illnesses that have afflicted humanity over millennia, few have left their mark quite like malaria, which infects 200 million people each year and kills at least 655,000, most of whom are children. [emphasis mine] Falciparum malaria—the most common type in sub-Saharan Africa—starts as a debilitating fever, which can progress in severe cases to convulsions, brain damage, and death. In this part of the world, it’s almost impossible to stay completely free of the parasites for long. Adults often display a low level of immunity, which makes each subsequent infection painful and unpleasant but usually not fatal.

As I’m about to contrast the information in Borrell’s article with the information in an Apr. 11, 2013 news release from the University of California Berkeley on EurekAlert, about the development of a synthetic artemisinin, I’m going to highlight their ‘agreement’ as the seriousness of the malaria problem,

… a lifesaver for the hundreds of millions of people in developing countries who each year contract malaria and more than 650,000, most of them children, who die of the disease. [emphasis mine]

Borrell sets the discussion for his take on the artemisinin situation with a little history (Note: Links have been removed),

The story of artemisinin demonstrates that even the best malaria drugs are worthless if they are not getting to the people who need them. In the late 1990s, African malaria parasites had become resistant to standard treatments such as chloroquine, and malaria deaths in Uganda doubled in a decade. By the early 2000s, there was a proven alternative: artemisinin combination therapies [ACTs]. Nevertheless, the Global Fund for AIDS, Tuberculosis, and Malaria repeatedly rejected countries’ requests for money for ACTs, funding failing treatments over ACTs at a rate of 10-to-1. In 2004, a group of fed-up scientists writing in the Lancet called these decisions “medical malpractice.” Today, although ACTs are heavily subsidized by the international aid community, local clinics frequently run out of stock, and Africans often end up with substandard, ineffective, and sometimes counterfeit medications.

Borrell goes on to recount the story of a  Chinese plant, sweet wormwood ((Artemisia annua), which is the source for both a class of anti-malarial drugs and a tea (Note: A link has been removed),

It [sweet wormwood] can also be grown in wetter parts of Africa, and a year’s supply costs no more than a few dollars. Although the tea itself has traditionally been used in treatment, not prevention, in China, a randomized controlled trial on this farm showed that workers who drank it regularly reduced their risk of suffering from multiple episodes of malaria by one-third. For a group of people who were once waylaid by this mosquito-borne disease four or more times per year, the tea is a godsend.

According to the article, WHO (World Health Organization) and most malaria researchers are opposed to the tea’s use. Reasons given include the claim that herbal concoctions are more dangerous and less effective than pharmaceuticals and that use of the tea could lead to the malaria parasite developing resistance to the drugs.

There are two issues I have with the first claim about herbal concoctions. Having perused the Compendium of Pharmaceuticals (CPS), I can tell you the last I looked it was huge and listed thousands and thousands of drugs and their side effects (did you know that death is considered a side effect?). Fabrication in a laboratory does not equal safety any more that chopping something off a plant and brewing it as a tea equals safety. Personally, I don’t understand why they aren’t testing the tea, which is derived from sweet wormwood and successfully passed one randomized clinical trial, to see if the result can be repeated and also to test it against the drugs in human clinical trials.

As for the second claim that use of the tea could lead to the malaria parasite developing resistance to the drugs, isn’t that what happened to anti-malarial drugs in the late 1990s? Using chloroquine led to resistance against chloroquine. Following this claim to its logical end, we should never use any drug or herbal concoction as either might lead to resistance.

As for the tea’s successful clinical trial, the researcher experienced difficulty getting his study published (from the article; Note: A link has been removed),

While the workers are effusive about the tea, malaria experts have taken less kindly to it. When Ogwang [Patrick Ogwang of the Ugandan Ministry of Health] tried to publish the results in Malaria Journal, a reviewer largely praised the quality of the science but nixed publication out of concern that use of the tea could render ACTs ineffective. It’s a remarkably patronizing recommendation: that a scientific journal should keep the latest evidence out of the hands of Africans, lest they begin treating themselves. Marcel Hommel, editor in chief of the journal, defends the decision, saying, “It is the responsibility of an editor to avoid publishing papers that promote interventions which could potentially put patients at risk.” Ogwang eventually published his results in a less prestigious journal.

Borrell expresses reservations about herbal medicines/concoctions and he supports having the drugs for special cases but he also notes a study which suggests that a tea made from the plant might be more effective for adults and for less severe cases. From the article (Note: Links have been removed),

In the case of malaria, Anamed and others also argue that it makes sense to preserve stocks of conventional drugs for children and severe cases. One reason ACTs have been so expensive is the cost of isolating artemisinin, but there have long been indications that using a cruder, cheaper whole-plant extract could potentially be more effective and cheaper. In a study conducted in rats last year, University of Massachusetts researchers compared a single dose of pure artemisinin to dried whole leaves, and found that the whole plant was better at killing malaria parasites. And while millions have been spent bioengineering bacteria to crank out pure artemisinin on a budget, you still have to get it to the people who need it.

The resistance that the experts fear has been proved true, according to Borrell’s article, in areas where artemisinin drugs have been distributed and used with abandon.

Coincidentally or not, the University of California Berekeley announced a the development of semi-synthetic artemisinin in the Apr. 11, 2013 news release mentioned earlier,

Twelve years after a breakthrough discovery in his University of California, Berkeley, laboratory, professor of chemical engineering Jay Keasling is seeing his dream come true.

On April 11 [2013], the pharmaceutical company Sanofi will launch the large-scale production of a partially synthetic version of artemisinin, a chemical critical to making today’s front-line antimalaria drug, based on Keasling’s discovery.

The drug is the first triumph of the nascent field of synthetic biology and will be, Keasling hopes, a lifesaver ….

Keasling and colleagues at Amyris, a company he cofounded in 2003 to bring the lab-bench discovery to the marketplace, will publish in the April 25 issue of Nature the sequence of genes they introduced into yeast that allowed Sanofi to make the chemical precursor of artemisinin. The paper will be available online April 10.

“It is incredible,” said Keasling, who also serves as associate director for biosciences at Lawrence Berkeley National Laboratory and as CEO of the Joint Bioenergy Institute in Emeryville, Calif. “The time scale hasn’t been that long, it just seems like a long time. There were many places along the way where it could have failed.”

The yeast strain developed by Amyris based on Keasling’s initial research and now used by Sanofi produces a chemical precursor of artemisinin, a compound that until now has been extracted from the sweet wormwood plant, Artemsia annua. Artemisinin from either sweet wormwood or the engineered yeast is then turned into the active antimalarial drug , and typically mixed with another antimalarial drug in what is called arteminsinin combination therapy, or ACT.

Global demand for artemisinin has increased since 2005, when the World Health Organization identified ACTs as the most effective malaria treatment available. Sanofi said that it is committed to producing semisynthetic artemisinin using a no-profit, no-loss production model, which will help to maintain a low price for developing countries. Though the price of ACTs will vary from product to product, the new source for its key ingredient, in addition to the plant-derived supply, should lead to a stable cost and steady supply, Keasling said.

Unfortunately, no details about Sanofi’s no-profit, no-loss production model are offered. Perhaps a reader could ease my ignorance? I am interpreting this model to mean that while Sanofi won’t make money from the project, it does expect to recoup its costs (no-loss). (I most recently mentioned Sanofi, a French multinational, in an Apr. 9, 2013 posting about the winners of its 2013 competition for Canadian students.)

The backers of the research do provide some reasoning for this synthetic biology artemisinin project (from the news release),

“The production of semisynthetic artemisinin will help secure part of the world’s supply and maintain the cost of this raw material at acceptable levels for public health authorities around the world and ultimately benefit patients,” said Dr. Robert Sebbag, vice-president of Access to Medicines at Sanofi. “This is a pivotal milestone in the fight against malaria.” [emphasis mine]

I wonder what constitutes an ‘acceptable’ level of costs to public health authorities and, for that matter, to Sanofi. After all, I was under the impression after reading Borrell’s article that all one needed to do was to cultivate the plant and harvest it for materials to make tea.  There was no mention of difficulties cultivating the plant in countries outside of China where it originated nor was there any mention that it was expensive to cultivate.

There are some fairly big names, in addition to Sanofi, involved in this synthetic biology project,

The success is due in large part to two grants totaling $53.3 million from the Bill & Melinda Gates Foundation to OneWorld Health, the drug development program for PATH, an international nonprofit organization aiming to transform global health through innovation. [emphasis mine] OneWorld Health shepherded the drug’s development out of Keasling’s UC Berkeley lab to Amyris for scale-up and then to pharmaceutical firm Sanofi, based in France, for production.

I am pointing out some interesting relationships with the intention of providing a view of a complex situation with many well-intentioned players, where lines of opposition have been drawn and the people most at risk seemingly forgotten. If the tea hasn’t caused resistance in over 1,500 years of use in China while the drugs have already done so on the Thai-Cambodian border as per Borrell’s article, why isn’t it being accepted and used? While some might point at corporate profit requirements (and I’m not discounting that motive regardless of what Sanofi’s company executives say), there are also issues of institutionalized opposition to any developments made outside of the medical establishment, and the fetishization of the laboratory environment where drugs are made pure in a pure environment while herbs come from the ‘dirty’ earth.

‘Nano fest’ at the 245th meeting of the American Chemical Society

Tuesday, April 9th, 2013

The American Chemical Society’s (ACS) 245th meeting (April 7 – 11, 2013) features a few items about nanotechnology: the funding of it and the toxicological testing of it, in two separate news items which bear a ‘political’ link.

An April 9, 2013 news item on Azonano tells of concerns regarding recent funding cuts resulting from the US budget sequestration,

Speaking at the 245th National Meeting & Exposition of the American Chemical Society, the world’s largest scientific society, A. Paul Alivisatos, Ph.D., expressed concern that the cuts come when nanotechnology is poised to deliver on those promises. He told the meeting, which continues through Thursday, that ill-conceived cuts could set back America’s progress in nanotechnology by decades.

“The National Science Foundation announced that they will issue a thousand fewer new grants this year because of sequestration,” said Alivisatos, referring to the across-the-board mandatory federal budget cuts that took effect on March 1. “What it means in practice is that an entire generation of early career scientists, some of our brightest and most promising scientists, will not have the funding to launch their careers and begin research properly, in the pathway that has established the United States as leader in nanotechnology research. It will be a setback, perhaps quite serious, for our international competitiveness in this key field.”

Alivisatos described applications of nanotechnology that can help reduce fossil fuel consumption and the accompanying emissions of carbon dioxide, the main greenhouse gas. He is professor of chemistry and materials science and the Larry and Diane Bock Professor of Nanotechnology at the University of California at Berkeley, director of the Lawrence Berkeley National Laboratory and co-editor of the ACS journal Nano Letters. …

Alivisatos expressed concern, however, that cuts in federal funding will take a heavy toll on the still-emerging field. He explained that the reductions stand to affect scientists at almost every stage of making contributions to society. Young scientists, for instance, will find it more difficult to launch research programs in new and promising fields.[emphases mine]  Established scientists will have to trim research programs, and may not have the money to explore promising new leads.

“We haven’t been able to communicate adequately with the public and policymakers, and explain the impact of what may sound like small and unimportant cuts in funding.” Alivisatos said. “A 5 percent reduction in funding — well, to the public, it seems like nothing. In reality, these cuts will be applied in ways that do maximal damage to our ability to be globally competitive in the future.”

Coincidentally or not,  the ACS had placed an Apr. 8, 2013 news release on EurekAlert highlighting some work in the field of nanotoxicology led by a ‘young’ scientist (I imagine she received her funding prior to sequestration) doing some exciting work,

Earlier efforts to determine the health and environmental effects of the nanoparticles that are finding use in hundreds of consumer products may have produced misleading results by embracing traditional toxicology tests that do not take into account the unique properties of bits of material so small that 100,000 could fit in the period at the end of this sentence.

That was among the observations presented here today at the 245th National Meeting & Exposition of the American Chemical Society (ACS), the world’s largest scientific society, by one of the emerging leaders in nanoscience research. The talk by Christy Haynes, Ph.D., was among almost 12,000 presentations at the gathering, which organizers expect to attract more than 14,000 scientists and others.

Haynes delivered the inaugural Kavli Foundation Emerging Leader in Chemistry Lecture at the meeting, … Sponsored by the Kavli Foundation, the Emerging Leaders Lectures recognize the work of outstanding young chemical scientists. [emphasis mine] …

“Christy Haynes is the perfect scientist to launch this prestigious lecture series,” said Marinda Li Wu, Ph.D., president of the ACS. “Haynes’ research is making an impact in the scientific community in efforts to use nanoparticles and nanotechnology in medicine and other fields. And that research has sparked the popular imagination, as well. Haynes was included in Popular Science‘s ‘Brilliant 10′ list, a group of ‘geniuses shaking up science today.’ [emphasis mine] We are delighted to collaborate with the Kavli Foundation in highlighting the contributions of such individuals.”

Moving on from politics to science, the EurekAlert Apr. 8, 2013 news release offers a standard discussion regarding gold and nanoparticle gold before highlighting the aspect that marks Haynes’ fresh approach to toxicity at the nanoscale,

A 1-ounce nugget of pure gold, for instance, has the same chemical and physical properties as a 2-ounce nugget or a 27-pound gold bar. For nanoparticles, however, size often dictates the physical and chemical properties, and those properties change as the size decreases.

Haynes said that some of the earlier nanotoxicology tests did not fully take those and other factors into account when evaluating the effects of nanoparticles. In some cases, for instance, the bottom line in those tests was whether cells growing in laboratory cultures lived or died after exposure to a nanoparticle.

“While these results can be useful, there are two important limitations,” Haynes explained. “A cell can be alive but unable to function properly, and it would not be apparent in those tests. In addition, the nature of nanoparticles — they’re more highly reactive — can cause ‘false positives’ in these assays.”

Haynes described a new approach used in her team’s work in evaluating the toxicity of nanoparticles. It focuses on monitoring how exposure to nanoparticles affects a cell’s ability to function normally, rather than just its ability to survive the exposure. In addition, they have implemented measures to reduce “false-positive” test results, which overestimate nanoparticle toxicity. One of the team’s safety tests, for instance, determines whether key cells in the immune system can still work normally after exposure to nanoparticles. In another, the scientists determine whether bacteria exposed to nanoparticles can still communicate with each other, engaging in the critical biochemical chatter that enables bacteria to form biofilms, communities essential for them to multiply in ways that lead to infections.

“So far, we have found that nanoparticles made of silver or titanium may be the most problematic, though I would say that neither is as bad as some of the alarmist media speculations, especially when they are stabilized appropriately,” said Haynes. “I think that it will be possible to create safe, stable coatings on nanoparticles that will make them stable and allow them to leave the body appropriately. We need more research, of course, in order to make informed decisions.”

Hopefully, you find this mixture of science and politics as interesting as I do.

ETA Apr. 10, 2013: Dexter Johnson has commented on and provided some contextual information about nanotechnology research funding in the US in response to the Alivisatos talk about sequestration and its possible impact on nanotechnology research in Apr. 9, 2013 posting (Note: A link has been removed),

There is always room for the argument that reassessing and reallocating resources can help make nanotechnology more efficient and productive, something observers have pointed out in NASA taking on less of its own nanotechnology research and outsourcing it to other government organizations. But it’s not always easy to tell which fundamental research projects will turn out to have been the most productive, and worse, the timing of these cuts could be extremely painful as they occur at a critical moment for U.S. nanotechnology.

Dexter’s piece is well worth reading.

Canadian government withdraws from UN treaty, recycles old news, and undergoes a ‘muzzled’ science probe

Monday, April 8th, 2013

Every once in a while, there’s a slew of announcements that seem to reveal a pattern of sorts with regard to political doings. In this case, I’m looking at three announcements about recent moves by the  Canadian Conservative government and which seem, to me, curiously interlinked.

First there was the announcement (CBC Mar. 27, 2013 news item) that Canada is withdrawing from the United Nations Convention to Combat Desertification, in those Countries Experiencing Severe Drought and/or Desertification (to become the only country in the world not party to it) and its annual commitment of $350,000. The CBC Mar. 28, 2013 news item provided more detail,

Prime Minister Stephen Harper said less than one-fifth of the $350,000 Canada contributes to the UN Convention to Combat Desertification goes to programming.

“This particular organization spends less than 20 per cent — 18 per cent — of the funds that we send it are actually spent on programming, the rest goes to various bureaucratic measures.That’s not an effective way to spend taxpayers’ money,” Harper told MPs during question period Thursday.

The Canadian Press reported Wednesday [Mar. 27, 2013?] the UN secretariat that administers the program was unaware of Canada’s decision until contacted by its reporter.

A spokesperson for the Canadian International Development Agency (CIDA) [emphasis mine] told CBC News the head of the secretariat was informed of the decision on Monday [Mar. 25, 2013?], and written confirmation was delivered to the UN Secretary General’s office in New York the same day.

But a UN official in Bonn told CBC News that Canada notified the UN about its withdrawal “informally last week by telephone” and “this is not considered proper notification… or protocol.”

The proper protocol is to formally write to the UN Secretary General Ban Ki-moon in New York and formally provide a notice that Canada is withdrawing from the treaty.

Paul Heinbecker, a former Canadian ambassador to the UN and chief foreign policy advisor to Prime Minister Brian Mulroney, wrote an Apr. 1, 2013 essay for the Globe and Mail about some recent history between Canada and the UN, this latest withdrawal, and its implications (Note: A link has been removed),

Following the Harper government’s failure in 2010 to win a Canadian seat on the UN Security Council, its disregard of the UN gave way to disdain. Ottawa’s rare appearances at the UN have tended to stress what it regards as Canada’s uniquely “principled” foreign policy, bringing to mind U.S. Secretary of State Dean Acheson’s characterization of Canadian foreign policy in the fifties as “the stern voice of the daughter of God,” and cementing Canada’s long-standing reputation as global mother-in-law.

Because of the links between drought, land degradation, desertification and climate change, withdrawal from the Desertification Convention comes with potentially significant costs. …

Heinbecker develops this line of thought by noting that the withdrawal makes it seem that Canada does not care about climate change (let’s not forget the withdrawal from Kyoto protocol, the UN Convention on Climate Change, a UN initiative from which the Canadian Conservative government withdrew in 2011) and noting this,

Given that the government of Alberta as well as ministers and departments in Ottawa have been going to considerable effort and expense to argue in the U.S. that Canada does care, it is self-harming to hand America’s Keystone opponents a stick to beat the pipeline with.

Also, because the locus of most of the devastation arising from desertification is in Africa, walking away from a treaty whose creation was led by the Mulroney and Chrétien governments reinforces the impression that Ottawa no longer cares about Africa. It is an impression that this government also went to some trouble and expense to try to reverse. Further, because the worst destruction from desertification is happening in the Sahara region, abandoning the treaty sends a mixed signal about the security issues at stake in Mali and the Sahel, and about Canadian mining interests there as well.

Thankfully, Prime Minister Stephen Harper and the conservative government are ensuring that our annual $350,000 contribution, after 2014, will no be longer wasted on what they termed a ‘talkfest’. To combat this negative impression being made on the rest of the world, there’s been an announcement (Azonano Apr. 6, 2013 news item) recycling some old government news about monies for the second phase of the Canadian International Food Security Research Fund (CIFSRF),

 ”The Harper Government is committed to increasing food security to those most in need as part of Canada’s effective international assistance through investing in scientific research and innovation,” said Parliamentary Secretary Brown [Lois Brown]. “Canadian universities, businesses, and NGOs [nongovernmental organizations]  have expertise that they can share with the world. Together, we can use innovation to put an end to global hunger.”

The Canadian International Food Security Research Fund is a joint initiative between the Canadian International Development Agency (CIDA) and the International Development Research Centre (IDRC). [emphases mine] It supports innovative research partnerships between Canadian and developing-country researchers to respond to immediate food needs while increasing access to quality, nutritious food over the long term. Phase 2 will focus on connecting promising research results to public and private sector organizations that can get them to end users on a larger scale.

“IDRC and CIDA have a long history of supporting Canada’s leadership in agricultural research and innovation for development,” said Jean Lebel, Acting President of IDRC. “CIFSRF demonstrates our mutual commitment to achieving sustainable results that put Canada’s considerable experience in agricultural and nutrition science to work globally to ensure farmers have access to new technologies and specialized expertise to keep pace with the growing demand for food.  Through CIFSRF, we are also expanding Canada’s scientific base and contributing to the country’s science and technology strategy.”

The Canadian International Food Security Research Fund, first launched in 2009, currently supports 19 projects, bringing together some of the best researchers from 11 Canadian and 26 developing-country organizations, as well as partners from scientific, private sector and civil society organizations, to develop innovative solutions to improve global food security.

The part where it got really interesting for me was the April 4, 2013 article by Rick Westhead for  star.com about the funds some of which are bound for the University of Guelph as per its Apr. 5, 2013 news release about the matter. Not to be too confusing but the following excerpt is from the April 4, 2013 Westhead article,

Manish Raizada, a University of Guelph agriculture professor, is changing lives in India, Nepal and Sri Lanka by showing farmers how to boost crop yields with weeding and planting techniques and by adding new crops.

Other Canadian researchers are bolstering Ethiopia’s agriculture sector, introducing farmers to rhizobia, a bacteria that naturally adds nitrogen to the soil and helped Saskatchewan, nearly a century ago, become a leading soybean exporter.

Then there are Canadian-led efforts in India that use nanotechnology to improve the lifespan of mangoes, efforts that should help improve livelihoods in a country where half of children under five are malnourished. [In fact, this an India, Sri Lanka, and Canada effort which I mentioned in a June 21, 2012 posting and again in a Nov. 1, 2012 posting.]

For instance, McGurk [Dr. Stephen McGurk, IDRC director of agriculture programmes] said one government-funded project is helping lengthen the shelf life of mangoes by as much as two weeks by introducing a nanoparticle-based coating that prevents them from ripening as fast.

“That way they’re attractive when they get to market, not looking like pulp,” McGurk said. “That science, once it has been tried in India can be equally applied to fruits here like plums or raspberries.”

Interestingly, McGurk gives this quote to Westhead,

“In no way would Canadian scientists in the agriculture sector say they are muzzled,” said Stephen McGurk, director of IDRC’s agriculture programs. [emphasis mine] “We’re engaged outside our borders and doing research now that’s valuable to Canadians but has to prove its salt somewhere else first.”

What makes McGurk an interesting spokesperson regarding ‘muzzles and Canadian scientists’ is that he  is an economist and a sinologist who prior to his latest appointment as IDRC director of agriculture programmes seems to have lived in Asia for the last 12 years and given this career description is likely from the US originally (from the Oct. 9, 2012 IDRC announcement of McGurk’s appointment),

Stephen McGurk is a Sinologist and economist who has spent more than two decades studying Asia’s rural development.Since 2006, he has been Director of IDRC’s Regional Office for South Asia and China in New Delhi (now the Asia Regional Office). From 2000 to 2006, he led IDRC’s office in Singapore.

Before joining IDRC, McGurk worked with the Ford Foundation in Beijing, where he was responsible for its economic security program in China. He has also taught at the University of California and worked with the World Bank on investments in China’s rural development. McGurk has a PhD from Stanford University’s [California] Food Research Institute.

I am curious as to how Dr. McGurk comes by his information about Canadian government agricultural scientists and their views on muzzles or lack thereof.

In looking at all of these bits of information, the desertification treaty withdrawal seems odd, almost as if it were designed to divert attention from something else the Conservative government is doing. Or, perhaps it’s an example of meanspirited shortsightedness something this government has been accused of before.

The recycled news item seems like it might not be as helpful as one would hope, although governments of all stripes are known to announce monies for projects that have been previously announced making it seem that a great deal more money is being dispersed than is the case. These announcements are always excellent for distraction but one would think the government would be eager to emphasize funding for projects in African countries rather than Asian countries given the conservatives’ current public relations problems in that region, as noted by Heinbecker.

As for McGurk’s quote about muzzles and agricultural scientists, while it does seem a bit ‘facey’ of him, he, at least, is not afraid to say something (although it’s not clear why he was asked about the muzzle since the news release was strictly about funding). For more about the ‘muzzles’,  there’s this excerpt from the Apr. 2, 2013 Canadian Press news item found at macleans.ca on campus,

Federal policies that restrict what government scientists can say publicly about their work are about to be put under the microscope.

Federal Information Commissioner Suzanne Legault has agreed to investigate how government communications rules on taxpayer-funded science impact public access to information.

Legault is responding to a detailed complaint lodged by the Environmental Law Centre at the University of Victoria and the ethics advocacy group Democracy Watch.

Their lengthy report — “Muzzling Civil Servants: A Threat to Democracy?” — laid out repeated examples of taxpayer-funded science being suppressed or limited to pre-packaged media lines across six different government departments and agencies.

Chris Tollefson, the executive director of UVic’s law centre, said their research into suppressed science revealed both the wide scope of the practice and that it “represents a significant departure” in government practice over the last five to seven years.

…Gary Goodyear, the minister of state for science and technology, was not available Monday to defend Conservative practices. His office provided an email stating government scientists “are readily available to share their research with the media and the public.”

“Last year, Environment Canada participated in more than 1,300 media interviews, Agriculture and Agri-Food Canada issued nearly 1,000 scientific publications, and Natural Resources Canada published nearly 500 studies,” said the statement.

It came the same day that the Globe and Mail reported that the National Research Council declined to make available its lead engineer for a front page story on research into truck safety. [emphases mine]

“Great spin — but missing the point,” Democracy Watch’s Duff Conacher said of the government response.

“It’s not the number of documents, it’s what percentage of documents are being released.”

Truck safety? That seems an odd topic for which to suppress or restrict any discussion with the lead engineer. But then, why withdraw from a treaty to save $350,000? As for the recycled announcement about funding for food and agriculture projects in Asia when you have substantive perception issues regarding  Africa and having someone who hasn’t lived in the country for 12 years defending your policies, the whole thing seems rather inept.

Algae factories could produce nanocellulose for biofuels and more

Monday, April 8th, 2013

The American Chemical Society (ACS) is holding its 245th meeting April 7 – 11, 2013 and its first International Symposium on Bacterial Nanocellulose simultaneously. I have written about nanocellulose previously but it’s always been concerned with the type derived from plant matter; bacterial nanocellulose is new to me but not the scientific community as the Apr. 8, 2013 news item on Azonano notes,

In the 1800s, French scientist Louis Pasteur first discovered that vinegar-making [and Kombucha tea and nata de coco] bacteria make “a sort of moist skin, swollen, gelatinous and slippery” — a “skin” now known as bacterial nanocellulose. Nanocellulose made by bacteria has advantages, including ease of production and high purity that fostered the kind of scientific excitement reflected in the first international symposium on the topic, Brown [R. Malcolm Brown, Jr., Ph.D.] pointed out.

Before going on to this latest research, here’s a description of cellulose and nanocellulose as per its presence in plant material (from the news item),

Cellulose is the most abundant organic polymer on Earth, a material, like plastics, consisting of molecules linked together into long chains. Cellulose makes up tree trunks and branches, corn stalks and cotton fibers, and it is the main component of paper and cardboard. People eat cellulose in “dietary fiber,” the indigestible material in fruits and vegetables. Cows, horses and termites can digest the cellulose in grass, hay and wood.

Most cellulose consists of wood fibers and cell wall remains. Very few living organisms can actually synthesize and secrete cellulose in its native nanostructure form of microfibrils. At this level, nanometer-scale fibrils are very hydrophilic and look like jelly. A nanometer is one-millionth the thickness of a U.S. dime. Nevertheless, cellulose shares the unique properties of other nanometer-sized materials — properties much different from large quantities of the same material. Nanocellulose-based materials can be stronger than steel and stiffer than Kevlar. Great strength, light weight and other advantages has fostered interest in using it in everything from lightweight armor and ballistic glass to wound dressings and scaffolds for growing replacement organs for transplantation.

A new kind of bacteria actively entered the nanocellulose picture in 2001 (from the news item) allowing Brown to exploit research he had been pursuing since the 1970s (from the news item),

Brown recalled that in 2001, a discovery by David Nobles, Ph.D., a member of the research team at the University of Texas at Austin, refocused their research on nanocellulose, but with a different microbe. Nobles established that several kinds of blue-green algae, which are mainly photosynthetic bacteria much like the vinegar-making bacteria in basic structure; however, these blue-green algae, or cyanobacteria, as they are called, can produce nanocellulose. One of the largest problems with cyanobacterial nanocellulose is that it is not made in abundant amounts in nature. If it could be scaled up, Brown describes this as “one of the most important discoveries in plant biology.”

While I find the science interesting, it’s Brown’s comments about the policy and politics of commercializing nanocellulose-based fuels that intrigue me (from the news item),

In his report at the ACS meeting, Brown described how his team already has genetically engineered the cyanobacteria to produce one form of nanocellulose, the long-chain, or polymer, form of the material. And they are moving ahead with the next step, engineering the cyanobacteria to synthesize a more complete form of nanocellulose, one that is a polymer with a crystalline architecture. He also said that operations are being scaled up, with research moving from laboratory-sized tests to larger outdoor facilities.

Brown expressly pointed out that one of the major barriers to commercializing nanocellulose fuels involves national policy and politics, rather than science. Biofuels, he said, will face a difficult time for decades into the future in competing with the less-expensive natural gas now available with hydraulic fracturing, or “fracking.”  [emphasis mine] In the long run, the United States will need sustainable biofuels, he said, citing the importance of national energy policies that foster parallel development and commercialization of biofuels.