Tag Archives: GMO

The imperfections of science advice noted amidst rumblings in Europe

The current science advice rumblings in Europe seem to have been launched on Tuesday, July 22, 2014 with an open letter to Jean-Claude Juncker, President-elect of the European Commission, from representatives of nine nongovernmental agencies (NGOs).

From the July 22, 2014 letter on the Corporate Europe Observatory website,

We are writing to you to express our concerns regarding the position of Chief Scientific Advisor to the President of the European Commission. This post was created by Commission President Barroso at the suggestion of the United Kingdom, and was held by Ms Anne Glover since January 2012. The mandate of the Chief Scientific Adviser (CSA) is “to provide independent expert advice on any aspect of science, technology and innovation as requested by the President”.1

We are aware that business lobbies urge you to continue with the practice established by Mr Barroso and even to strengthen the chief adviser’s formal role in policy making.2 We, by contrast, appeal to you to scrap this position. The post of Chief Scientific Adviser is fundamentally problematic as it concentrates too much influence in one person, and undermines in-depth scientific research and assessments carried out by or for the Commission directorates in the course of policy elaboration.

Interestingly, they offer only one specific instance of Glover’s  advice with which they disagree: genetically modified organisms (GMOs). Note: Links have been removed,

To the media, the current CSA presented one-sided, partial opinions in the debate on the use of genetically modified organisms in agriculture, repeatedly claiming that there was a scientific consensus about their safety3 whereas this claim is contradicted by an international statement of scientists (currently 297 signatories) saying that it “misrepresents the currently available scientific evidence and the broad diversity of opinion among scientists on this issue.”4

Unfortunately, that argument renders the letter into an expression of political pique especially since  the signatories are described as anti-GMO both in Roger Pielke’s July 24, 2014 opinion piece for the Guardian newspaper and in Sile Lane’s July 25, 2014 opinion piece for the New Scientist journal. As Pielke notes, the reference to GMOs overshadows some reasonable concerns expressed in their letter (from Pielke’s opinion piece; Note: Links have been removed),

While it is easy to ridicule the recommendation to abolish the science adviser, there is some merit in the complaints levied by the disaffected NGOs. They express concern that the CSA has been “unaccountable, intransparent and controversial”, singling out public statements by Anne Glover on genetically modified organisms. [emphasis mine]

Perhaps surprisingly, these groups find an ally in these complaints in none other than Glover herself who recently complained about the politicization of science advice within the European Union: “What happens at the moment – whether it’s in commission, parliament or council – is that time and time again, if people don’t like what’s being proposed, what they say is that there is something wrong with the evidence.” [emphasis mine]

Pielke’s piece draws parallels between the US situation (in particular but not confined to Richard Nixon’s policies in the 1970s) and Europe’s current situation. It is well worth reading as is Lane’s piece (Sile Lane is Director of Campaigns for Sense about Science; scroll down about 25% of the way), which amongst other arguments, provides a counter-argument to the criticism of Glover’s advice on GMOs,

… No matter that Glover has faithfully and accurately represented the strong scientific consensus on the safety of GMOs – that, in the words of a commission report, are “no more risky than conventional plant breeding technologies”.

This is a position supported by every major scientific institution in the world, and all the scientific academies of countries and regions, but denied by the anti-GMO lobby, which promotes its own alternative “consensus” of a small ragtag group of academics out on the fringes of the mainstream.

There are a number of letters from various organizations countering the July 22, 2014 salvo/letter including this from Sense about Science,

Many other organisations are sending their own letters including nine European medical research organisations and the European Plant Science Organisation representing 227 public research institutions across Europe.

Dear Mr Juncker

We write to you with some urgency in response to a letter you will have just received from nine NGOs urging you to abolish the position of Chief Scientific Advisor to the President of the European Commission. The letter, which includes Greenpeace as a signatory as well as other prominent NGO voices, alleges that the “post of Chief Scientific Adviser is fundamentally problematic” and asks you to “scrap this position”1.

As organisations and individuals who share a commitment to improving the evidence available to policy makers, we cannot stress strongly enough our objection to any attempt to undermine the integrity and independence of scientific advice received at the highest level of the European Commission. …

You can add your name to the letter by going here.

There is a July 28, 2014 posting on the Science Advice to Governments; a global conference website which provides a listing of the various opinion pieces, letters, and other responses. (Note: This global science advice conference being held in Auckland, New Zealand, Aug. 28 – 29, 2014 was first mentioned here in an April 8, 2014 posting which lists the then confirmed speakers and notes a few other tidbits.)

In the end, it seems that everyone can agree as per the comments in the July 22, 2014 letter from the nine NGOs that science advice needs to be transparent and accountable. As for controversy, that will remain a problem as long as human beings live on the earth.

Brains, prostheses, nanotechnology, and human enhancement: summary (part five of five)

The Brain research, ethics, and nanotechnology (part one of five) May 19, 2014 post kicked off a series titled ‘Brains, prostheses, nanotechnology, and human enhancement’ which brings together a number of developments in the worlds of neuroscience, prosthetics, and, incidentally, nanotechnology in the field of interest called human enhancement. Parts one through four are an attempt to draw together a number of new developments, mostly in the US and in Europe. Due to my language skills which extend to English and, more tenuously, French, I can’t provide a more ‘global perspective’.

Now for the summary. Ranging from research meant to divulge more about how the brain operates in hopes of healing conditions such as Parkinson’s and Alzeheimer’s diseases to utilizing public engagement exercises (first developed for nanotechnology) for public education and acceptance of brain research to the development of prostheses for the nervous system such as the Walk Again robotic suit for individuals with paraplegia (and, I expect quadriplegia [aka tetraplegia] in the future), brain research is huge in terms of its impact socially and economically across the globe.

Until now, I have not included information about neuromorphic engineering (creating computers with the processing capabilities of human brains). My May 16, 2014 posting (Wacky oxide. biological synchronicity, and human brainlike computing) features one of the latest developments along with this paragraph providing links to overview materials of the field,

As noted earlier, there are other approaches to creating an artificial brain, i.e., neuromorphic engineering. My April 7, 2014 posting is the most recent synopsis posted here; it includes excerpts from a Nanowerk Spotlight article overview along with a mention of the ‘brain jelly’ approach and a discussion of my somewhat extensive coverage of memristors and a mention of work on nanoionic devices. There is also a published roadmap to neuromorphic engineering featuring both analog and digital devices, mentioned in my April 18, 2014 posting.

There is an international brain (artificial and organic) enterprise underway. Meanwhile, work understanding the brain will lead to new therapies and, inevitably, attempts to enhance intelligence. There are already drugs and magic potions (e.g. oxygenated water in Mental clarity, stamina, endurance — is it in the bottle? Celebrity athletes tout the benefits of oxygenated water, but scientists have their doubts, a May 16,2014 article by Pamela Fayerman for the Vancouver Sun). In a June 19, 2009 posting featured Jamais Cascio’s  speculations about augmenting intelligence in an Atlantic magazine article.

While researchers such Miguel Nicolelis work on exoskeletons (externally worn robotic suits) controlled by the wearer’s thoughts and giving individuals with paraplegia the ability to walk, researchers from one of Germany’s Fraunhofer Institutes reveal a different technology for achieving the same ends. From a May 16, 2014 news item on Nanowerk,

People with severe injuries to their spinal cord currently have no prospect of recovery and remain confined to their wheelchairs. Now, all that could change with a new treatment that stimulates the spinal cord using electric impulses. The hope is that the technique will help paraplegic patients learn to walk again. From June 3 – 5 [2-14], Fraunhofer researchers will be at the Sensor + Test measurement fair in Nürnberg to showcase the implantable microelectrode sensors they have developed in the course of pre-clinical development work (Hall 12, Booth 12-537).

A May 14, 2014 Fraunhofer Institute news release, which originated the news item, provides more details about this technology along with an image of the implantable microelectrode sensors,

The implantable microelectrode sensors are flexible and wafer-thin. © Fraunhofer IMM

The implantable microelectrode sensors are flexible and wafer-thin.
© Fraunhofer IMM

Now a consortium of European research institutions and companies want to get affected patients quite literally back on their feet. In the EU’s [European Union’s] NEUWalk project, which has been awarded funding of some nine million euros, researchers are working on a new method of treatment designed to restore motor function in patients who have suffered severe injuries to their spinal cord. The technique relies on electrically stimulating the nerve pathways in the spinal cord. “In the injured area, the nerve cells have been damaged to such an extent that they no longer receive usable information from the brain, so the stimulation needs to be delivered beneath that,” explains Dr. Peter Detemple, head of department at the Fraunhofer Institute for Chemical Technology’s Mainz branch (IMM) and NEUWalk project coordinator. To do this, Detemple and his team are developing flexible, wafer-thin microelectrodes that are implanted within the spinal canal on the spinal cord. These multichannel electrode arrays stimulate the nerve pathways with electric impulses that are generated by the accompanying by microprocessor-controlled neurostimulator. “The various electrodes of the array are located around the nerve roots responsible for locomotion. By delivering a series of pulses, we can trigger those nerve roots in the correct order to provoke motion sequences of movements and support the motor function,” says Detemple.

Researchers from the consortium have already successfully conducted tests on rats in which the spinal cord had not been completely severed. As well as stimulating the spinal cord, the rats were given a combination of medicine and rehabilitation training. Afterwards the animals were able not only to walk but also to run, climb stairs and surmount obstacles. “We were able to trigger specific movements by delivering certain sequences of pulses to the various electrodes implanted on the spinal cord,” says Detemple. The research scientist and his team believe that the same approach could help people to walk again, too. “We hope that we will be able to transfer the results of our animal testing to people. Of course, people who have suffered injuries to their spinal cord will still be limited when it comes to sport or walking long distances. The first priority is to give them a certain level of independence so that they can move around their apartment and look after themselves, for instance, or walk for short distances without requiring assistance,” says Detemple.

Researchers from the NEUWalk project intend to try out their system on two patients this summer. In this case, the patients are not completely paraplegic, which means there is still some limited communication between the brain and the legs. The scientists are currently working on tailored implants for the intervention. “However, even if both trials are a success, it will still be a few years before the system is ready for the general market. First, the method has to undergo clinical studies and demonstrate its effectiveness among a wider group of patients,” says Detemple.

Patients with Parkinson’s disease could also benefit from the neural prostheses. The most well-known symptoms of the disease are trembling, extreme muscle tremors and a short, [emphasis mine] stooped gait that has a profound effect on patients’ mobility. Until now this neurodegenerative disorder has mostly been treated with dopamine agonists – drugs that chemically imitate the effects of dopamine but that often lead to severe side effects when taken over a longer period of time. Once the disease has reached an advanced stage, doctors often turn to deep brain stimulation. This involves a complex operation to implant electrodes in specific parts of the brain so that the nerve cells in the region can be stimulated or suppressed as required. In the NEUWalk project, researchers are working on electric spinal cord simulation – an altogether less dangerous intervention that should however ease the symptoms of Parkinson’s disease just as effectively. “Initial animal testing has yielded some very promising results,” says Detemple.

(For anyone interested in the NEUWalk project, you can find more here,) Note the reference to Parkinson’s in the context of work designed for people with paraplegia. Brain research and prosthetics (specifically neuroprosthetics or neural prosthetics), are interconnected. As for the nanotechnology connection, in its role as an enabling technology it has provided some of the tools that make these efforts possible. It has also made some of the work in neuromorphic engineering (attempts to create an artificial brain that mimics the human brain) possible. It is a given that research on the human brain will inform efforts in neuromorphic engineering and that attempts will be made to create prostheses for the brain (cyborg brain) and other enhancements.

One final comment, I’m not so sure that transferring approaches and techniques developed to gain public acceptance of nanotechnology are necessarily going to be effective. (Harthorn seemed to be suggesting in her presentation to the Presidential Presidential Commission for the Study of Bioethical Issues that these ‘nano’ approaches could be adopted. Other researchers [Caulfield with the genome and Racine with previous neuroscience efforts] also suggested their experience could be transferred. While some of that is likely true,, it should be noted that some self-interest may be involved as brain research is likely to be a fresh source of funding for social science researchers with experience in nanotechnology and genomics who may be finding their usual funding sources less generous than previously.)

The likelihood there will be a substantive public panic over brain research is higher than it ever was for a nanotechnology panic (I am speaking with the benefit of hindsight re: nano panics). Everyone understands the word, ‘brain’, far fewer understand the word ‘nanotechnology’ which means that the level of interest is lower and people are less likely to get disturbed by an obscure technology. (The GMO panic gained serious traction with the ‘Frankenfood’ branding and when it fused rather unexpectedly with another research story,  stem cell research. In the UK, one can also add the panic over ‘mad cow’ disease or Creutzfeldt-Jakob disease (CJD), as it’s also known, to the mix. It was the GMO and other assorted panics which provided the impetus for much of the public engagement funding for nanotechnology.)

All one has to do in this instance is start discussions about changing someone’s brain and cyborgs and these researchers may find they have a much more volatile situation on their hands. As well, everyone (the general public and civil society groups/activists, not just the social science and science researchers) involved in the nanotechnology public engagement exercises has learned from the experience. In the meantime, pop culture concerns itself with zombies and we all know what they like to eat.

Links to other posts in the Brains, prostheses, nanotechnology, and human enhancement five-part series

Part one: Brain research, ethics, and nanotechnology (May 19, 2014 post)

Part two: BRAIN and ethics in the US with some Canucks (not the hockey team) participating (May 19, 2014)

Part three: Gray Matters: Integrative Approaches for Neuroscience, Ethics, and Society issued May 2014 by US Presidential Bioethics Commission (May 20, 2014)

Part four: Brazil, the 2014 World Cup kickoff, and a mind-controlled exoskeleton (May 20, 2014)

Nano and Europe’s Chief Science Adviser

In late November 2011 there was murmuring about the possibility that Anne Glover, then Chief Science Adviser for Scotland, was due to be announced as Europe’s first Chief Science Adviser (mentioned in my Nov. 24, 2011 posting). Now that the announcement has been made, Glover has been profiled in a Feb. 14, 2012 article by Jop de Vrieze for ScienceInsider.

Amongst other things she discusses Europeans and their attitudes towards risk and new technologies in the context of genetically modified organisms (GMO) and nanotechnology,

Q: You mean Europe is too risk-adverse when it comes to new technologies?

A.G.: If you take people’s opinions, for instance by looking at the Eurobarometer, people seem to be reluctant to accept innovative technologies. They are suspicious almost just because it’s new, rather than thinking: “Oh this is new, I need to find out more about it so that I can judge.” At the moment, we are way too much on the side of: “It is new I don’t want it, not even discuss it.” This leaves the door open for pressure groups which are against certain things and have a very loud voice. There should be more communication about the rewards of the technologies. I would like to balance that.

Q: Are you talking about genetically modified organisms (GMOs)?

A.G.: Yes, that is the most important example. In the beginning, decades ago, people were careful to get good regulations in place. Over time, it has been shown that GMO is not a risky technology. But people seem not to have all the information they need to make their own decision. It is not up to Europe to say: “You have to do this,” but give the information and let them choose.

Q: Has communication been the problem?

A.G.: Yes. And if we have the same misinformation that was used around GMOs in the relatively new field of nanotechnology, we could severely disinhibit our ability to contribute to that market. That would be an enormous loss for Europe.

She goes on to discuss her plans for the future, the budget necessary to get there and dealing with the European Commission’s bureaucracy.

Nano and food: don’t ask, don’t tell

Michael Berger’s Nanowerk Spotlight Feb. 2,2012 articleWhat’s happening with nanofoods?‘ answers a question I’ve been asking myself lately. As he points out (I have removed the links, please visit Berger’s article to pursue them),

Back in the early 2000’s, food nanotechnology seemed to be a very hot topic and large industrial food companies were eager to explore new opportunities offered by nanotechnology applications. Then, as critical voices from NGOs (see for instance FoE’s report: “Out of the laboratory and on to our plates: Nanotechnology in food and agriculture”) and regulators (UK House of Lords report: “Nanotechnologies and Food”) appeared, the food industry went into silent mode (see our Nanowerk Spotlight: “Food nanotechnology – how the industry is blowing it”). But that doesn’t mean that food nanotechnologies aren’t being researched and developed in labs around the world.

He goes on to describe the state of nanofood research on an application by application basis (culled from an article inTrends in Food Science & TechnologyFood applications of nanotechnologies: An overview of opportunities and challenges for developing countries” [behind a paywall]). Here’s my excerpt from Berger’s article,

Application Status
Processed nanostructured or -textured food (e.g. less use of fat and emulsifiers, better taste) A number of nanostructured food ingredients and additives understood to be in the R&D pipeline; eg. mayonnaise
Nanocarrier systems for delivery of nutrients and supplements in the form of liposomes or biopolymer-based nanoencapsulated substances A number are commercially available in some countries and over the internet
Organic nanosized additives for food, supplements and animal feed Materials range from colors, preservatives, flavorings to supplements and antimicrobials
Inorganic nanosized additives for food, health food, and animal feed A range of inorganic additives (silver, iron, silica, titanium dioxide, selenium, platinum, calcium, magnesium) is available for supplements, nutraceuticals, and food and feed applications

Berger goes on to enumerate more applications and extends the discussion into the area of public perceptions, industry fears of another ‘Frankenfoods/GM” panic, and corporate social responsibility.

On reading Berger’s article, I was reminded of my Oct. 11, 2011 posting abut a Coca Cola executive’s response to criticisms of corporate secrecy regarding nanofood research and applications from the UK’s House of Lords,

Lord Krebs, chairman of the Science and Technology Committee, scolded the sector over its “reluctance to put its head above the parapet and declare openly what kind of research was going on to develop nanotechnology in food”. The report [Nanotechnologies and Food: Science and Technology Committee Report] backed the introduction of a public register on the nano-research to assuage consumer anxiety.

But Dr Knowles [Dr. Mike Knowles, global scientific and regulatory affairs vice president for Coca-Cola] rejected the criticisms and said it was a failure of the committee to grasp basic commercial realities.

I’m pretty sure that Lord Krebs wasn’t suggesting that food and beverage companies reveal industrial secrets giving away competitive advantages but that they should let the public know what’s cooking in their labs. For anyone who’s interested in the current state of nanofood research, Berger’s recent Spotlight is an excellent place to start.