Posts Tagged ‘OECD’

OECD job for senior economist/analyst specializing in nanotech and biotech

Friday, April 13th, 2012

The Organization for Econ0mic Cooperation and Development (OECD) is offering a two year contract for a senior economist/analyst. I assume you will be located at the OECD’s  headquarters in Paris, France. From the Econ-Jobs.com website,

We are looking for an experienced professional to lead the work on biotechnology and nanotechnology carried out in the Directorate for Science, Technology and Industry (STI), and to provide oversight for the activities of the Working Party on Biotechnology (WPB) and its task force, and of the Working Party on Nanotechnology (WPN) in the context of the Work Programme for the Committee for Scientific and Technological Policy (CSTP). The selected person will work under the general direction of the Head of the Science and Technology Policy Division of the STI.

Main Responsibilities
Management and Analysis
• Lead OECD work on biotechnology, nanotechnology and innovation through biotechnology, nanotechnology and their convergence, as well as their interaction and convergence with other technologies (e.g. information and communication technologies). Carry out strategic planning, orientation and oversight of the OECD programme of work related to biotechnology and nanotechnology.
• Identify priorities for the WPB and WPN work programmes and develop projects in liaison with member and non-member economies, other international organisations and other stakeholders as appropriate, focusing on the range of key scientific, technological, economic and regulatory issues relevant to biotechnology and nanotechnology.
• Oversee and contribute to the implementation of the work programmes of the WPB and WPN by, inter alia, organising and managing meetings, conferences and workshops; drafting economic and scientific and technological policy reports.
• Contribute to horizontal and multidisciplinary initiatives of the Directorate and the Organisation as they relate to biotechnology and nanotechnology, such as the ongoing and forthcoming work on new sources of growth, on green growth, on economic and social impacts of public funding in science, and on new industrial policy.
• Lead projects, manage budgets and raise funds.

Liaison and Communication
• Develop and ensure effective co-ordination with other parts of the OECD involved in relevant work, with other international organisations and other relevant outside bodies. Represent STI and OECD as required in internal and external fora.
• Liaise with the accession candidate country (the Russian Federation), enhanced engagement countries (Brazil, China, India, Indonesia and South Africa), and other non-member economies to encourage their participation in efforts relating to emerging issues in biotechnology and nanotechnology.
• Work with the media to promote a better understanding of the OECD’s work in biotechnology and nanotechnology, and maintain relationships with journalists and others who can give a wider audience to that work.
• Create deep and effective links with officials and other actors in countries that are major players in the policy debates around innovation through biotechnology and nanotechnology.

Leadership and Staff Management
• Provide leadership to the team working on biotechnology and nanotechnology, and manage a multidisciplinary team, including policy analysts, statisticians and consultants. Participate in the recruitment process for these positions as well as oversee the day-to-day management of staff in the team (including consultants).

The job was posted today, April 13, 2012 and the deadline for applications is April 27, 2012. You can find more details such as qualifications and application procedures at the Econ-Jobs.com website or go directly to the job notice on the OECD website.

Nanotechnology’s economic impacts and full lifecycle assessments

Thursday, March 29th, 2012

A paper presented at the International Symposium on Assessing the Economic Impact of Nanotechnology, held March 27 – 28, 2012 in Washington, D.C advises that assessments of the economic impacts of nanotechnology need to be more inclusive. From the March 28, 2012 news item on Nanowerk,

“Nanotechnology promises to foster green and sustainable growth in many product and process areas,” said Shapira [Philip Shapira], a professor with Georgia Tech’s [US]  School of Public Policy and the Manchester Institute of Innovation Research at the Manchester Business School in the United Kingdom. “Although nanotechnology commercialization is still in its early phases, we need now to get a better sense of what markets will grow and how new nanotechnology products will impact sustainability. This includes balancing gains in efficiency and performance against the net energy, environmental, carbon and other costs associated with the production, use and end-of-life disposal or recycling of nanotechnology products.”

But because nanotechnology underlies many different industries, assessing and forecasting its impact won’t be easy. “Compared to information technology and biotechnology, for example, nanotechnology has more of the characteristics of a general technology such as the development of electric power,” said Youtie [Jan Youtie], director of policy research services at Georgia Tech’s Enterprise Innovation Institute. “That makes it difficult to analyze the value of products and processes that are enabled by the technology. We hope that our paper will provide background information and help frame the discussion about making those assessments.”

From the March 27, 2012 Georgia Institute of Technology news release,

For their paper, co-authors Shapira and Youtie examined a subset of green nanotechnologies that aim to enable sustainable energy, improve environmental quality, and provide healthy drinking water for areas of the world that now lack it. They argue that the lifecycle of nanotechnology products must be included in the assessment.

I was hoping for a bit more detail about how one would go about including nanotechnology-enabled products in this type of economic impact assessment but this is all I could find (from the news release),

In their paper, Youtie and Shapira cite several examples of green nanotechnology, discuss the potential impacts of the technology, and review forecasts that have been made. Examples of green nanotechnology they cite include:

  • Nano-enabled solar cells that use lower-cost organic materials, as opposed to current photovoltaic technologies that require rare materials such as platinum;
  • Nanogenerators that use piezoelectric materials such as zinc oxide nanowires to convert human movement into energy;
  • Energy storage applications in which nanotechnology materials improve existing batteries and nano-enabled fuel cells;
  • Thermal energy applications, such as nano-enabled insulation;
  • Fuel catalysis in which nanoparticles improve the production and refining of fuels and reduce emissions from automobiles;
  • Technologies used to provide safe drinking water through improved water treatment, desalination and reuse.

I checked both Philip Shapira‘s webpage and Jan Youtie‘s at Georgia Tech to find that neither lists this latest work, which hopefully includes additional detail. I’m hopeful there’ll be a document published in the proceedings for this symposium and access will be possible.

On another note, I did mention this symposium in my Jan. 27, 2012 posting where I speculated about the Canadian participation. I did get a response (March 5, 2012)  from Vanessa Clive, Nanotechnology File, Industry Sector, Industry Canada who kindly cleared up my confusion,

A colleague forwarded the extract from your blog below. Thank you for your interest in the OECD Working Party on Nanotechnology (WPN) work, and giving some additional public profile to its work is welcome. However, some correction is needed, please, to keep the record straight.

“It’s a lot to infer from a list of speakers but I’m going to do it anyway. Given that the only Canadian listed as an invited speaker for a prestigious (OECD/AAAS/NNI as hosts) symposium about nanotechnology’s economic impacts, is someone strongly associated with NCC, it would seem to confirm that Canadians do have an important R&D (research and development) lead in an area of international interest.

One thing about this symposium does surprise and that’s the absence of Vanessa Clive from Industry Canada. She co-authored the OECD’s 2010 report, The Impacts of Nanotechnology on Companies: Policy Insights from Case Studies and would seem a natural choice as one of the speakers on the economic impacts that nanotechnology might have in the future.”

I am a member of the organizing committee, on the OECD WPN side, for the Washington Symposium in March which will focus on the need and, in turn, options for development of metrics for evaluation of the economic impacts of nano. As committee member, I was actively involved in identifying potential Canadian speakers for agenda slots. Apart from the co-sponsors whose generosity made the event possible, countries were limited to one or two speakers in order to bring in experts from as many interested countries as possible. The second Canadian expert which we had invited to participate had to pull out, unfortunately.

Also, the OECD project on nano impacts on business was co-designed and co-led by me, another colleague here at the time, and our Swiss colleague, but the report itself was written by OECD staff.

I did send (March 5, 2012)  a followup email with more questions but I gather time was tight as I’ve not heard back.

In any event, I’m looking forward to hearing more about this symposium, however that occurs, in the coming weeks and months.

WHO’s nanotechnology regulations

Friday, February 24th, 2012

The World Health Organization (WHO) is soliciting comments and support for a set of occupational safety guidelines for the manufacture of nanomaterials. From the Feb. 21, 2012 news item on Nanowerk,

To address occupational risks of nanomaterials, WHO is developing Guidelines on “Protecting Workers from Potential Risks of Manufactured Nanomaterials” (WHO/NANOH). These Guidelines aim to facilitate improvements in occupational health and safety of workers potentially exposed to nanomaterials in a broad range of manufacturing and social environments. The guidelines will incorporate elements of risk assessment and risk management and contextual issues. They will provide recommendations to improve occupational safety and protect the health of workers using nanomaterials in all countries and especially in low and middle-income countries.

As an initial step towards the development of the WHO/NANOH Guidelines, WHO prepared a draft background document proposing content and focus of the Guidelines. This background document will be used by the Guideline Development Group to identify key questions to be addressed by the Guidelines.

The public is being invited to send in comments about the guidelines by March 31, 2012. The guidelines along with more instructions can be found on this WHO webpage. The page also includes information about the process for developing the guidelines and a plea for support,

1. Establish a Guideline Development Group and an External Review Group, which reflect the diversity of manufactured nanomaterials and manufacturing processes on the global scale and the cultural differences in workplace safety. The Guideline Development Group oversees important elements in the guideline development process such as drafting guideline text, while the External Review Group is tasked with critical review of the scientific evidence and of the text of the guidelines.

2. Prepare a background document proposing content and focus of the Guidelines. This background document is used by the Guideline Development Group to identify key questions to be addressed by the Guidelines.

3. Prepare systematic review papers for each key question.

4. Prepare guideline recommendations.

5. Conduct an implementation phase of the project encompassing preparation of a user-friendly implementation guide and pilot implementation projects in selected countries.

WHO is in the process of identifying scientific knowledge and expertise on nanomaterials and health to contribute to this initiative. We invite the submission of relevant scientific publications and references in addition to those already mentioned in the background document, as well as expressions of interest to support this project, which can be sent to nanohealth@who.int.

WHO is also seeking additional support for this important project. We welcome expressions of interest to support this project, which also can be sent to nanohealth@who.int.

I’m perplexed by these requests for support.  Do they want researchers to lend their expertise to this project; do they want money; do they want various governments to express their enthusiasm for this project, or all of the above?

I’m happy to see that they do reference the OECD (Organization for Economic Cooperation and Development) Publications in the Series on the Safety of Manufactured Nanomaterials; UNITAR (United Nations Institute for Training and Research)  Nanotechnology and Manufactured Nanomaterials (this is new to me); and FAO (Food and Agriculture Organization) Nanotechnologies (also new to me).

 

ArboraNano in Washington, DC for a two-day shindig on nanotechnology and economic impacts

Friday, January 27th, 2012

The Organization for Economic Cooperation and Development (OECD), the American Association for the Advancement of Science (AAAS), and the US National Nanotechnology Initiative (NNI) are hosting an  International Symposium on Assessing the Economic Impact of Nanotechnology, March 27 – 28, 2012 in Washington, D.C. Registration for the event opens Feb. 10, 2012 (first come, first served) and it appears to be a free event.

From the NNI’s event page, here’s some information about their objectives and who they’re inviting to attend,

The objective of the symposium is to systematically explore the need for and development of a methodology to assess the economic impact of nanotechnology across whole economies, factoring in many sectors and types of impact, including new and replacement products and materials, markets for raw materials, intermediate and final goods, and employment and other economic impacts.

Attendees are being invited from a broad spectrum of backgrounds and expertise, including technology leaders, key decision makers, economists, investors, policy analysts, scientists and engineers from industry, business, government, academia, and the general public.

They have close to 40 confirmed speakers for this event and, interestingly (for a Canadian and/or someone interested in nanocrystalline cellulose), one of them is Reinhold (Ron) Crotogino of ArboraNano.

Crotogino, network director, president and chief executive officer (CEO) of ArboraNano, the Canadian Forest NanoProducts Network, has extensive experience and education in the forest products industry. From a Feb. 10, 2011 news item in Pulp & Paper Canada,

Crotogino is a graduate of the University of British Columbia (B.A.Sc. 1966) and McGill University (Ph.D. 1971), both in chemical engineering. He worked with Voith for a few years after graduating, but spent much of his career as a researcher and research manager with Paprican (now FPInnovations). [emphasis mine]

For anyone not familiar with the nanocrystalline cellulose (NCC) story in Canada, FPInnovations initiated and has been heavily involved in the development of NCC. (My Dec. 15, 2011 posting features one of my more recent stories about NCC in Canada.)

It’s a lot to infer from a list of speakers but I’m going to do it anyway. Given that the only Canadian listed as an invited speaker for a prestigious (OECD/AAAS/NNI as hosts) symposium about nanotechnology’s economic impacts, is someone strongly associated with NCC, it would seem to confirm that Canadians do have an important R&D (research and development) lead in an area of international interest.

One thing about this symposium does surprise and that’s the absence of Vanessa Clive from Industry Canada. She co-authored the OECD’s 2010 report, The Impacts of Nanotechnology on Companies: Policy Insights from Case Studies and would seem a natural choice as one of the speakers on the economic impacts that nanotechnology might have in the future.

ETA March 29, 2012: Vanessa Clive did contact me to clarify the situation and her response has been included in my March 29, 2012 follow up posting. (scroll down approximately 1/2 way)

For anyone who wants to see the agenda before committing, here’s the link. I did take a look,

Session One: Setting the Scene

This plenary session will introduce the conference themes, objectives and expected outputs. The session will provide an overview of the technologies and challenges that impact the assessment of the economic impact of nanotechnology and some indications of metrics being used

[break]

Session One con’t: Government Panel Discussion

This panel session will consider the issues raised in Session One, with a focus on the particularities of each country in addressing the challenges in assessing the economic impact of nanotechnology [emphasis mine]

I would have appreciated a little more detail such as which speakers will be leading which session and when they say “each country” exactly which countries do they mean? Oddly, no one involved with this event thought about phoning me to ask my opinion.

OECD reports on nanomaterials but no Canadian participation

Tuesday, December 27th, 2011

Given that most of my information about Canada’s efforts with regard to nanomaterials and their safety and regulation comes from OECD (Organization for Economic Cooperation and Development) documents, I was a little dismayed to see that Canada had not participated in a couple of recent initiatives.

The lack of participation is understandable with this initiative, Information gathering schemes on nanomaterials: Lessons learned and reported information, as it involves voluntary report schemes (Canada’s reporting scheme wasn’t voluntary). From the Dec. 21, 2011 news item on Nanowerk,

This document (pdf) presents lessons learned from information gathering surveys carried out by OECD countries and summarises non-confidential business information and statistics on nanomaterials. It includes useful information on how to design/implement information gathering surveys and the most commonly used nanomaterials along with use patterns and volumes used among OECD countries.

One of the objectives of the OECD Project on Co-operation on Voluntary Schemes and Regulatory Programmes on Nanomaterials is to gather information on the lessons learned from countries that have completed information gathering initiatives, and summarise non-confidential business information and statistics on nanomaterials reported, to provide insight on global market activity.

Eight countries participated in this initiative:

  • Australia
  • Czech
  • Denmark
  • Germany
  • Ireland
  • Japan (2 programmes)
  • UK
  • USA

Here’s what they were reporting about (from the report),

5. Eight (8) countries (including 2 programmes from Japan) reported information under Part B of the Questionnaire on the types, volumes and uses of nanomaterials in their country. Fifteen (15) different categories of nanomaterials were reported by three (3) or more countries, twelve (12) of which have been identified in the Sponsorship Programme, including: aluminum oxide, cerium oxide, fullerenes, iron, iron oxide, multi-walled carbon nanotubes, nanoclay, silica/silicon dioxide, silver nanoparticles, single-walled carbon nanotubes, titanium dioxide, and zinc oxide. Carbon black, silicates and pharmaceutical actives were also reported by three (3) or more countries, while a number of other nanomaterials including dendrimers, which are included in the Sponsorship Programme and polystyrene were reported by less than three (3) countries.

6. Of the fifteen (15) most commonly reported nanomaterials, titanium dioxide was reported by the most number of countries (7 countries) and by the most number of companies/institutions (43 companies/institutions). Zinc oxide, silver and silicon dioxide were also reported by a number of different countries and companies/institutions. Most companies worked with nanomaterials in volumes of less than 10 kg/yr (106 companies), and the next most common volume reported was over 1000 kg/yr (28 companies). The nanomaterials used at these volumes included; titanium dioxide (9 companies), carbon black (5 companies), silicon dioxide (5 companies), aluminum oxide (3 companies), zinc oxide (3 companies), iron oxide (2 companies) and cerium oxide (1 company).

7. It would appear that most companies/institutions from countries that collected and reported additional information, such as the availability of information on fate and exposure, physical chemical properties, human toxicity/ecotoxicity data, and risk management, had some data available and did have risk management measures in place. The information most likely to be available for the fifteen (15) most commonly reported nanomaterials was on physical chemical properties (reported by 51 companies/institutions) with the least amount of information available for ecotoxicity (reported by 33 companies/institutions). Titanium dioxide and zinc oxide were the two nanomaterials reported to have the most amount of information available overall. (p. 13)

The next bits I found interesting were information about quantities of nanomaterials used by various companies and about how well informed they about risks and toxicity,

54. Most companies worked with nanomaterials in volumes of less than 10 kg/yr (106 companies), the next most common volume reported was over 1000 kg/yr (28 companies). The nanomaterials used at these volumes included titanium dioxide (9 companies); carbon black (5 companies) silicon dioxide (5 companies), aluminum oxide (3 companies), zinc oxide (3 companies), iron oxide (2 companies) and cerium oxide (1 company).

55. As a general observation, for the countries that collected and reported additional information, such as the availability of information on fate and exposure, physical chemical properties, human toxicity/ecotoxicity data, and risk management, it would appear that most companies did have some data available and did have risk management measures in place. The most available data for the fifteen (15) most commonly reported nanomaterials was on physical chemical properties (reported by 51 companies/institutions in total for all fifteen nanomaterials combined) followed by human toxicity data (reported by 45 companies/institutions). Data was least likely to be available on fate and exposure (reported by 39 companies/institutions) and ecotoxicity data (reported by 33 companies/institutions).

Titanium dioxide and zinc oxide were the two nanomaterials reported to have the most amount of information available overall. Also for the fifteen (15) most commonly reported nanomaterials, 137 companies/institutions reported risk management measures in place.

This report all of 53 pages of it consists mostly of tables and while the data is interesting the response rate was relatively low overall so it’s not entirely clear how generalizable the information is. As well, I do know census data that is gathered under a voluntary scheme is considered less reliable than other data. I don’t know if that applies in this situation but I strongly suspect it does.

The other OECD report that was released roughly round Dec. 21, 2011 was the National activities on life cycle assessment of nanomaterials. From the Dec. 21, 2011 news item on Nanowerk,

This document (pdf) provides a snapshot of information on national activities on the life cycle assessment of nanotechnologies provided by OECD countries. As a “living document”, it is expected to be updated as new information becomes available.

The compilation includes information from: Austria, Finland, Germany, Korea, Poland, the United Kingdom, United States [US], the European Commission, as well as from the Business and Industry Advisory Committee to the OECD (BIAC).

Listed are a series of national programmes by each government. They do not provide an exhaustive list, for example, the US provided information mostly about EPA (Environmental Protection Agency)  projects but nothing about any FDA (Food and Drug Administration) projects.

On another note, I can’t tell from the description if the OECD is going to make the changes dynamically or if they will reissue the document, which means I don’t understand what they mean by ‘living document’. That terminology seems a little odd since the notion of updating information in a timely fashion is not new. For instance, Hansard has to be corrected immediately as it is a record of what took place in Parliament. When I worked in the library, we got corrections and updates regularly and were expected to immediately add those changes. We did not call Hansard a ‘living document’ (where did this term come from?) even though it was under constant revision.

I could better understand this term if the changes were being made dynamically, i.e., changes are instantly registered in all the copies of the document so that each time I click on the link I have the latest version.

As for Canada’s lack of participation in this second initiative, that too seems a bit odd in light of past efforts.

Patents as weapons and obstacles

Monday, October 31st, 2011

I’m going to start with the phones and finish with the genes. The news article titled Patents emerge as significant tech strategy by Janet I. Tu featured Oct. 27, 2011 on physorg.com provides some insight into problems with  phones and patents,

It seems not a week goes by these days without news of another patent battle or announcement: Microsoft reaching licensing agreements with various device manufacturers. Apple and various handset manufacturers filing suits and countersuits. Oracle suing Google over the use of Java in Android.

After Microsoft and Samsung announced a patent-licensing agreement last month involving Google’s Android operating system, Google issued a statement saying, in part: “This is the same tactic we’ve seen time and again from Microsoft. Failing to succeed in the smartphone market, they are resorting to legal measures to extort profit from others’ achievements and hinder the pace of innovation.”

Microsoft’s PR chief Frank Shaw shot back via Twitter: “Let me boil down the Google statement … from 48 words to 1: Waaaah.”

This was Microsoft’s PR chief??? I do find this to be impressive,but not in a good way. Note: Tu’s article was originally published in The Seattle Times. [Dec.17.11: I've edited my original sentence to make the meaning clearer, i. e., I changed it from 'I don't find this to be impressive ...]

My Sept. 27, 2011 posting focused on the OECD (Organization for Economic Cooperation and Development) and their Science Technology and Industry 2011 Scorecard where they specifically name patenting practices as a worldwide problem for innovation. As both the scorecard and Tu note (from the Tu article),

… technology companies’ patent practices have evolved from using them to defend their own inventions to deploying them as a significant part of competitive strategies …

Tu notes,

Microsoft says it’s trying to protect its investment in research and development – an investment resulting in some 32,000 current and 36,500 pending patents. [emphasis mine] It consistently ranks among the top three computer-software patent holders in the U.S.

One reason these patent issues are being negotiated now is because smartphones are computing devices with features that “are generally in the sweet spot of the innovations investments Microsoft has made in the past 20 years,” said Microsoft Deputy General Counsel Horacio Gutierrez.

There’s no arguing Microsoft is gaining a lot strategically from its patents: financially, legally and competitively.

Royalties from Android phones have become a fairly significant revenue stream.

Investment firm Goldman Sachs has estimated that, based on royalties of $3 to $6 per device, Microsoft will get about $444 million in fiscal year 2012 from Android-based device makers with whom it has negotiated agreements.

Some think that estimate may be low.

Microsoft is not disclosing how much it gets in royalties, but Smith, the company’s attorney, has said $5 per device “seems like a fair price.”

Various tech companies wield patents also to slow down competitors or to frustrate, and sometimes stop, a rival from entering a market. [emphases mine]

It’s not just one industry sector either. Another major player in this ‘patenting innovation to death game’ is the health care industry. Mike Masnick in his Oct. 28, 2011 Techdirt posting (Deadly Monopolies: New Book Explores How Patenting Genes Has Made Us Less Healthy) notes,

A few years ago, David Koepsell, came out with the excellent book, Who Owns You?, with the subtitle, “The corporate gold rush to patent your genes.” It looks like there’s now a new book [Deadly Monopolies] out exploring the same subject, by medical ethicist Harriet Washington.

NPR (National Public Radio) highlights this story in their feature on  Washington’s book,

Restrictive patents on genes prevent competition that can keep the medical cost of treatment down, says Washington. In addition to genes, she also points to tissue samples, which are also being patented — sometimes without patients’ detailed knowledge and consent. Washington details one landmark case in California in which medically valuable tissue samples from a patient’s spleen were patented by a physician overseeing his treatment for hairy-cell leukemia. The physician then established a laboratory to determine whether tissue samples could be used to create various drugs without informing the patient.

“[The patient] was told that he had to come to [the physician's] lab for tests … in the name of vigilance to treat his cancer and keep him healthy,” says Washington.

The patient, a man named John Moore, was never told that his discarded body parts could be used in other ways. He sued his doctor and the University of California, where the procedure took place, for lying to him about his tissue — and because he did not want to be the subject of a patent. The case went all the way to the California Supreme Court, where Moore lost. In the decision, the court noted that Moore had no right to any share of the profits obtained from anything developed from his discarded body parts.

According to the webpage featuring Deadly Monopolies on the NPR website, this state of affairs is due to a US Supreme Court ruling made in 1980 where the court ruled,

… living, human-made microorganisms could be patented by their developers. The ruling opened the gateway for cells, tissues, genetically modified plants and animals, and genes to be patented.

I gather the US Supreme Court is currently reconsidering their stance on patents and genes. (As for Canada, we didn’t take that route with the consequence that it is not possible to patent a gene or tissue culture here. Of course, things could change.)

European nanosafety and cosmetics

Thursday, October 13th, 2011

The European Commission has asked the Scientific Commission on Consumer Safety (SCCS) to prepare guidelines (guidance) for assessing the safety of cosmetic products with nanomaterials as ingredients. From the Oct. 11, 2011 news item on Nanowerk,

On the basis of the evolving knowledge based on the health risk assessment of specific manufactured nanomaterials, the Commission considers appropriate to request the SCCS to develop guidance on the essential elements that would be required in a manufactured nanomaterial safety dossier i.e. physicochemical characterisation; toxicological evaluation, exposure assessment etc.

This request is being made in anticipation of some new regulations for cosmetic products containing nanomaterials, which will be implement in January 2013, according to the European Commission’s Request for Guidance document, available here.

This will not only facilitate the submission of safety dossiers at present, but will also assist in the implementation of the provisions of article 16 of the Cosmetics Regulation (EC) No 1223/2009/ which will impose strict conditions and timelines for the notification and the assessment of cosmetic products containing nanomaterials on the responsible persons and the SCCS respectively, starting on January 2013.

On the basis of the evolving knowledge based on the health risk assessment of specific manufactured nanomaterials, the Commission considers appropriate to request the SCCS to develop guidance on the essential elements that would be required in a manufactured nanomaterial safety dossier i.e. physicochemical characterisation; toxicological evaluation, exposure assessment etc. (p. 1)

The deadline for developing the guidance (guidelines) is February 2012.  There was this tidbit too,

In elaborating this guidance, and taking into account the growing experience on the matter the SCCS is asked to consider all available documentation on the subject such as the SCCP scientific opinion on safety of nanomaterials in cosmetic products; the documents issued by the OECD Working Party on Manufactured Nanomaterials; the EFSA scientific opinion on guidance on risk assessment of the application of nanoscience and nanotechnologies in the food and feed chain. [emphasis mine] (p. 2)

Canada has been very involved with the OECD (Organization for Economic Cooperation and Development) Working Party on Manufactured Nanomaterials. In light of this and of Health Canada’s recent policy statement on a working definition for nanomaterials (my Oct. 11, 2011 posting), I wonder if Canadians are going to see any similar attempts at creating guidelines for safety assessments of cosmetics and other products containing engineered nanomaterials as ingredients.

Organization for Economic Cooperation and Developement’s (OECD) Science, Technology and Industry 2011 Scoreboard

Tuesday, September 27th, 2011

The OECD Science, Technology and Industry Scoreboard 2011: Innovation and Growth in Knowledge Economies is making a bit of a splash with regard to its analysis of patent quality. From the Sept.23, 2011 news item on physorg.com,

The Organization for Economic Cooperation and Development (OECD) has published its Science, Technology and Industry Scoreboard for 2011 and one section shows that patent quality over the past 20 years has declined dramatically, mainly the authors say, due to excessive litigation by so-called non-practicing entities that seek to exploit patent laws. The result they say, is a glut of minor or incremental patent applications that add little to scientific progress.

Mike Masnick at Techdirt weighed in on the matter in his Even The OECD Is Noting How Dreadful Patent Quality Is Negatively Impacting Innovation posting with an oft-repeated suggestion,

Of course, the real way to fix this problem is to make the bar to get a patent much, much higher. If you do that, you get less [sic] bogus patent apps being submitted, and it makes it easier to reject such bogus patents.

What Masnick means by bogus is clarified in this quote from the Sept. 23, 2011 news item,

The problem it appears has come about due to the rise of non-practicing entities [patent trolls]; groups that form for the sole purpose of applying for patents in the hopes of suing someone else who happens to use the same ideas, rather than as a means for building an actual product; though not all of the rise can be attributed to such entities as large corporations have apparently become much more litigious as well.

Canada’s Research in Motiion (RIM), maker of Blackberry mobile devices,  was sued by a non-practicing entity, NTP, Inc. Here’s a little more about the situation (from a Wikipedia essay on NTP),

NTP has been characterized as a patent troll because it is a non-practicing entity that aggressively enforces its patent porfolio against larger, well established companies. The most notable case was against Research in Motion, makers of the BlackBerry mobile email system.

In 2000, NTP sent notice of their wireless email patents to a number of companies and offered to license the patents to them. None of the companies took a license. NTP brought a patent infringement lawsuit against one of the companies, Research in Motion, in the United States District Court for the Eastern District of Virginia. …

During the trial, RIM tried to show that a functional wireless email system was already in the public domain at the time the NTP inventions had been made. This would have invalidated the NTP patents. The prior system was called System for Automated Messages (SAM). RIM demonstrated SAM in court and it appeared to work. But the NTP attorneys discovered that RIM was not using vintage SAM software, but a more modern version that came after NTP’s inventions were made. Therefore the judge instructed the jury to disregard the demonstration as invalid.

The jury eventually found that the NTP patents were valid, that RIM had infringed them, that the infringement had been “willful”, and that the infringement had cost NTP $33 million in damages (the greater of a reasonable royalty or lost profits). The judge, James R. Spencer increased the damages to $53 million as a punitive measure because the infringement had been willful. He also instructed RIM to pay NTP’s legal fees of $4.5 million and issued an injunction ordering RIM to cease and desist infringing the patents. This would have shut down the BlackBerry systems in the US.

There was a settlement made by RIM with NTP in 2006. Simultaneously however, RIM continued to request patent reexaminations and so the patents are still being fought over.

All this makes one wonder just how much innovation and invention could have been stimulated with the funds used to fight and settle this court case.

Intriguingly, RIM was part of a consortium of six companies that during July 2011 successfully purchased former communications giant Nortel Networks’ patent portfolio. From the July 1, 2011 article by Charles Arther for the Guardian,

Apple, Microsoft, Sony and BlackBerry maker Research in Motion are part of a winning consortium of six companies which have bought a valuable tranche of patents from the bankrupt Nortel Networks patent portfolio for $4.5bn (£2.8bn), in a hotly contested auction that saw Google and Intel lose out.

Early signs had suggested that Google might be the winning bidder for the patents, which will provide valuable armoury for expected disputes in the communications – and especially smartphone – field.

The result could give Apple and Microsoft the upper hand in any forthcoming patents rows. [emphasis mine] Microsoft is already extracting payments from a number of companies that use Google’s Android mobile operating system on the basis that it owns patents that they were infringing. Oracle has big court case against Google alleging that Android infringes a number of Java patents, and claiming $6.1bn in damages.

The other two companies partnering in the consortium are EMC, a storage company, and Ericsson, a communications company.

As Arthur’s article makes clear, this deal is designed facilitate cash grabs based on Nortel’s patent portfolio and/or to constrain innovation. It’s fascinating to note that RIM is both a target vis à vis its NTP experience and a possible aggressor as part of this consortium. Again, imagine how those billions of dollars could have been used for greater innovation and invention.

Other topics were covered as well, the page hosting the OECD scorecard information boasts a couple of animations, one of particular interest to me (sadly I cannot embed it here). The item of interest is the animation featuring 30 years of R&D investments in OECD and non-OECD countries. It’s a very lively 16 seconds and you may need to view it a few times. You’ll see some countries rocket out of nowhere to make their appearance on the chart (Finland and Korea come to mind) and you’ll see some countries progress steadily while others fall back. The Canadian trajectory shows slow and steady growth until approximately 2000 when we fall back for a year or two after which we remain stagnant.

Science research spending and innovation in Europe and reflections on the Canadian situation

Friday, July 29th, 2011

I thought I’d pull together some information about science funding and innovation for closer examination. First, in early July 2011 the European Union announced plans for a huge spending increase, approximately 45%, for science. Their current programme, the Seventh Framework Programme (US$79B budget) is coming to an end in 2013 and the next iteration will be called, Horizon 2020 (proposed US$114B budget).  Here’s more from Kit Eaton’s July 6, 2011 article on Fast Company,

The proposal still awaits approval by the E.U.’s parliament and member states, but just getting this far is a milestone. The next phase is to forge spending into the next generation of the E.U.’s Framework Programme, which is its main research spending entity, to produce a plan called Horizon 2020. The spending shift has been championed by E.U. research commissioner Márie Geoghan-Quinn, and means that the share of the E.U. budget portioned out for scientific research will eventually double from its 4.5% figure in 2007 to 9% in 2020.

How will Europe pay for it? This is actually the biggest trick being pulled off: More than €4.5 billion would be transferred from the E.U.’s farm subsidies program, the Common Agricultural Policy. This is the enormous pile of cash paid by E.U. authorities to farmers each year to keep them in business, to keep food products rolling off the production line, and to keep fields fallow–as well as to diversify their businesses.

Nature journal also covered the news in a July 5, 2011 article by Colin Macilwane,

Other research advocates say that the proposal — although falling short of the major realignment of funding priorities they had been hoping for — was as good as could be expected in the circumstances. “Given the times we’re in, we couldn’t realistically have hoped for much more,” says Dieter Imboden, president of Eurohorcs, the body representing Europe’s national research agencies.

Geoghegan-Quinn told Nature that the proposal was “a big vote of confidence in science” but also called on researchers to push to get the proposal implemented — especially in their home countries. “The farmers will be out there lobbying, and scientists and researchers need to do the same,” she says.

While the European Union wrangles over a budget that could double their investment in science research, Canadians evince, at best, a mild interest in science research.

The latest Science, Technology and Innovation Council report, State of the Nation 2010: Canada’s Science, Technology and Innovation System, was released in June 2011 and has, so far, occasioned little interest despite an article in the Globe & Mail and a Maclean’s blog posting by Paul Wells. Hopefully,  The Black Hole Blog, where Beth Swan and David Kent are writing a series about the report, will be able to stimulate some discussion.

From Beth’s July 12, 2011 posting,

The report – at least the section I’m talking about today – is based on data from the Organisation for Economic Co-operation and Development’s (OECD) Programme for International Student Assessment and Statistics Canada. Some of the interesting points include:

  • 15-year-old Canadians rank in the top 10 of OECD countries for math and science in 20091.
  • 80% of 15-19 year-old Canadians are pursuing a formal education, which is lower than the OECD average
  • But Canada ranks 1st in OECD countries for adults (ages 25–64 years) in terms of the percentage of the population with a post-secondary education (49%)
  • The numbers of Canadian students in science and engineering at the undergraduate level increased (18% increase in the number of science undergraduate degrees, 9% increase in the number of engineering undergraduate degrees) in 2008 compared to 2005

This all begs the question, though, of what those science-based graduates do once they graduate. It’s something that we’ve talked about a fair bit here on the Black Hole and the STIC report gives us some unhappy data on it. Canada had higher unemployment rates for science-based PhDs (~3-4%) compared to other OECD countries (e.g., in the US, it’s about ~1-1.5%).  Specifically, in 2006 Canada had the highest rate of unemployment for the medical sciences -3%- and engineering -4%- and the third highest rate of unemployment for the natural sciences -3%- among the OECD countries: the data are from 2006.

David, in his July 16, 2011 posting, focuses on direct and indirect Canadian federal government Research & Development (R&D) spending,

It appears from a whole host of statistics, reports, etc – that Canada lags in innovation, but what is the government’s role in helping to nurture its advancement.  Is it simply to create fertile ground for “the market” to do its work?  or is it a more interventionist style of determining what sorts of projects the country needs and investing as such?  Perhaps it involves altering the way we train and inspire our young people?

Beth then comments on Canadian business R&D investment, which has always been a low priority according to the material I’ve read, in her July 25, 2011 posting on ,

Taken together, this shows a rather unfavourable trend in Canadian businesses not investing in research & development – i.e, not contributing to innovation. We know from Dave’s last posting that Canada is not very good at contributing direct funds to research and my first posting in this series illustrated that while Canada is pretty good at getting PhDs trained, we are not so good at having jobs for those PhDs once they are done their schooling.

The latest July 27, 2011 posting from David asks the age old question, Why does Canada lag in R&D spending?

Many reports have been written over the past 30 years about Canada and its R&D spending, and they clamour one after the other about Canada’s relative lack of investment into R&D.  We’ve been through periods of deep cutbacks and periods of very strong growth, yet one thing remains remarkably consistent – Canada underspends on R&D relative to other countries.

The waters around such questions are extremely murky and tangible outcomes are tough to identify and quantify when so many factors are at play.  What does seem reasonable though is to ask where this investment gap is filled from in other countries that currently outstrip Canada’s spending – is it public money, private money, foreign money, or domestic money?  Hopefully these questions are being asked and answered before we set forth on another 30 year path of poor relative investment.

As I stated in my submission to the federal government’s R&D review panel and noted in my March 15, 2011 posting about the ‘Innovation’ consultation, I think we need to approach the issues in more imaginative ways.

Misunderstanding the data or a failure to research? Georgia Straight article about nanoparticles

Tuesday, July 26th, 2011

It’s good to see articles about nanotechnology. The recent, Tiny nanoparticles could be a big problem, article written by Alex Roslin for the Georgia Straight (July 21, 2011 online or July 21-28, 2011 paper edition) is the first I’ve seen on that topic in that particular newspaper. Unfortunately, there are  some curious bits of information included in the article, which render it, in my opinion, difficult to trust.

I do agree with Roslin that nanoparticles/nanomaterials could constitute a danger and there are a number of studies which indicate that, at the least, extreme caution in a number of cases should be taken if we choose to proceed with developing nanotechnology-enabled products.

One of my difficulties with the article is the information that has been left out. (Perhaps Roslin didn’t have time to properly research?) At the time (2009) I did read with much concern the reports Roslin mentions about the Chinese workers who were injured and/or died after working with nanomaterials. As Roslin points out,

Nanotech already appears to be affecting people’s health. In 2009, two Chinese factory workers died and another five were seriously injured in a plant that made paint containing nanoparticles.

The seven young female workers developed lung disease and rashes on their face and arms. Nanoparticles were found deep in the workers’ lungs.

“These cases arouse concern that long-term exposure to some nanoparticles without protective measures may be related to serious damage to human lungs,” wrote Chinese medical researchers in a 2009 study on the incident in the European Respiratory Journal.

Left undescribed by Roslin are the working conditions; the affected people were working in an unventilated room. From the European Respiratory Journal article (ERJ September 1, 2009 vol. 34 no. 3 559-567, free access), Exposure to nanoparticles is related to pleural effusion, pulmonary fibrosis and granuloma,

A survey of the patients’ workplace was conducted. It measures ∼70 m2, has one door, no windows and one machine which is used to air spray materials, heat and dry boards. This machine has three atomising spray nozzles and one gas exhauster (a ventilation unit), which broke 5 months before the occurrence of the disease. The paste material used is an ivory white soft coating mixture of polyacrylic ester.

Eight workers (seven female and one male) were divided into two equal groups each working 8–12 h shifts. Using a spoon, the workers took the above coating material (room temperature) to the open-bottom pan of the machine, which automatically air-sprayed the coating material at the pressure of 100–120 Kpa onto polystyrene (PS) boards (organic glass), which can then be used in the printing and decorating industry. The PS board was heated and dried at 75–100°C, and the smoke produced in the process was cleared by the gas exhauster. In total, 6 kg of coating material was typically used each day. The PS board sizes varied from 0.5–1 m2 and ∼5,000 m2 were handled each workday. The workers had several tasks in the process including loading the soft coating material in the machine, as well as clipping, heating and handling the PS board. Each worker participated in all parts of this process.

Accumulated dust particles were found at the intake of the gas exhauster. During the 5 months preceding illness the door of the workspace was kept closed due to cold outdoor temperatures. The workers were all peasants near the factory, and had no knowledge of industrial hygiene and possible toxicity from the materials they worked with. The only personal protective equipment used on an occasional basis was cotton gauze masks. According to the patients, there were often some flocculi produced during air spraying, which caused itching on their faces and arms. It is estimated that the airflow or turnover rates of indoor air would be very slow, or quiescent due to the lack of windows and the closed door. [emphases mine]

Here’s the full text from the researchers’ conclusion,

In conclusion, these cases arouse concern that long-term exposure to some nanoparticles without protective measures may be related to serious damage to human lungs. It is impossible to remove nanoparticles that have penetrated the cell and lodged in the cytoplasm and caryoplasm of pulmonary epithelial cells, or that have aggregated around the red blood cell membrane. Effective protective methods appear to be extremely important in terms of protecting exposed workers from illness caused by nanoparticles.

There is no question that serious issues about occupational health and safety with regards to nanomaterials were raised. But, we work with dangerous and hazardous materials all the time; precautions are necessary whether you’re working with hydrochloric acid or engineered nanoparticles. (There are naturally occurring nanoparticles too.)

Dr. Andrew Maynard (at the time he was the Chief Science Advisor for the Project on Emerging Nanotechnologies, today he is the Director of the University of Michigan’s Risk Science Center) on his 2020 Science blog wrote a number of posts dated Aug. 18, 2009 about this tragic industrial incident, including this one where he culled comments from six other researchers noting some of the difficulties the Chinese researchers experienced running a clinical study after the fact.

The material on silver nanoparticles and concerns about their use in consumer products and possible toxic consequences with their eventual appearance in the water supply seem unexceptionable to me. (Note:  I haven’t drilled down into the material and the writer cites studies unknown to me but they parallel information I’ve seen elsewhere).

The material on titanium dioxide as being asbestos-like was new to me, the only nanomaterial I’d previously heard described as being similar to asbestos is the long carbon nanotube. I am surprised Roslin didn’t mention that occupational health and safety research which is also quite disturbing, it’s especially surprising since Roslin does mention carbon nanotubes later in the article.

There is a Canadian expert, Dr. Claude Ostiguy, who consults internationally on the topic of nanotechnology and occupational health and safety. I wonder why he wasn’t consulted. (Note: He testified before Canada’s House of Commons Standing Committee on Health meeting in June 2010 on this topic. You can find more about this in my June 23, 2011 posting, Nanomaterials, toxicity, and Canada’s House of Commons Standing Committee on Health.)

Quoted quite liberally throughout the article is researcher, Dr.Robert Schiestl (professor of pathology and radiation oncology at the University of California at Los Angeles [UCLA]). This particular passage referencing Schiestl is a little disconcerting,

Schiestl said nanoparticles could also be helping to fuel a rise in the rates of some cancers. He wouldn’t make a link with any specific kind of cancer, but data from the U.S. National Cancer Institute show that kidney and renal-pelvis cancer rates rose 24 percent between 2000 and 2007 in the U.S., while the rates for melanoma of the skin went up 29 percent and thyroid cancer rose 54 percent.

Since Schiestl isn’t linking the nanoparticles to any specific cancers, why mention those statistics? Using that kind of logic I could theorize that the increase in the number and use of cell phones (mobiles) may have something to do with these cancers. Perhaps organic food has caused this increase? You see the problem?

As for the number of nanotechnology-enabled products in use, I’m not sure why Roslin chose to cite the Project on Emerging Nanotechnologies’ inventory which is not scrutinized, i. e., anyone can register any product as nanotechnology-enabled. The writer also mentioned a Canadian inventory listing over 1600 products  cited in an ETC Group report, The Big Downturn? Nanogeopolitics,

Has anyone ever seen this inventory? I’ve been chasing it for years and the only time the Canadian government reports on this inventory is in the Organization for Economic Cooperation and Development (OECD) report (cited by the ETC Group [no. 79 in their list of references] and noted in both my Feb. 1, 2011 posting and my April 12, 2010 posting). Here’s the OECD report, if you’d like to see it for yourself. The top three questions I keep asking myself is where is the report/inventory, how did they determine their terms of reference, and why don’t Canadian taxpayers have easy access to it? I’d best return to my main topic.

As for the material Roslin offers about nanosunscreens I was surprised given the tenor of the article to see that the Environmental Working Group (EWG) was listed as an information source since they recommend mineral sunscreens containing nanoscale ingredients such as titanium dioxide and/or zinc oxide as preferable to sunscreens containing hormone disruptors.  From the EWG page on sunscreens and nanomaterials,

Sunscreen makers offer mineral and non-mineral formulations, as well as products that combine both mineral and non-mineral active ingredients. Mineral formulations incorporate zinc oxide or titanium dioxide in nano- and micro-sized particles that can be toxic if they penetrate the skin. Most studies show that these ingredients do not penetrate through skin to the bloodstream, but research continues. These constitute one in five sunscreens on the market in 2010 and offer strong UVA protection that is rare in non-mineral sunscreens.

The most common ingredients in non-mineral sunscreens are oxybenzone, octisalate, octinoxate, and avobenzone found in 65, 58, 57, and 56 percent of all non-mineral sunscreens on the market, respectively. The most common, oxybenzone, can trigger allergic reactions, is a potential hormone disruptor and penetrates the skin in relatively large amounts. Some experts caution that it should not be used on children. Three of every five sunscreens rated by EWG are non-mineral, and one in five sunscreens combines both mineral and non-mineral active ingredients.

EWG reviewed the scientific literature on hazards and efficacy (UVB and UVA protection) for all active ingredients approved in the U.S. Though no ingredient is without hazard or perfectly effective, on balance our ratings tend to favor mineral sunscreens because of their low capacity to penetrate the skin and the superior UVA protection they offer. [emphasis mine]

(I did find some information (very little) about Health Canada and sunscreens which I discuss in June 3, 2011 posting [if you're impatient, scroll down about 1/2 way].)

There was some mention of Health Canada in Roslin’s article but no mention of last year’s public consultation, although to be fair, it seemed a clandestine operation. (My latest update on the Health Canada public consultation about a definition for nanomaterials is May 27, 2011.)

I find some aspects of the article puzzling as Roslin is an award-winning investigative reporter. From the kitco bio page,

Alex Roslin is a leading Canadian investigative journalist and active trader based in Montreal. He has won a Canadian Association of Journalists award for investigative reporting and is a five-time nominee for investigative and writing prizes from the CAJ and the National Magazine Awards. He has worked on major investigations for Canada’s premier investigative television program, the fifth estate, and the CBC’s Disclosure program. His writing has appeared in Technical Analysis of Stocks & Commodities, The Financial Post, Toronto Star and Montreal Gazette. He regularly writes about investing for The Montreal Gazette.

I notice there’s no mention of writing in either science or health matters so I imagine this is an early stage piece in this aspect of Roslin’s career, which may explain some of the leaps in logic and misleading information. Happily, I did learn a few things from reading the article and while I don’t trust much of the information in it, I will investigate further as time permits.

In general, I found the tenor of the article more alarmist than informational and I’m sorry about that as I would like to see more information being shared and, ultimately, public discussion in Canada about nanotechnology and other emerging technologies.