Tag Archives: Texas

Naimor: innovative nanostructured material for water remediation and oil recovery (crowdfunding project)

The NAIMOR crowdfunding project on indiegogo might be of particular interest to those of us on the West Coast of Canada where there is much talk about a project to create twin pipelines (Enbridge Northern Gateway Pipelines) between the provinces of  Alberta and British Columbia to export oil and import natural gas. The oil will be shipped to Asia by tanker and presumably so will the natural gas. In all the discussion about possible environmental disasters, I haven’t seen any substantive mention of remediation efforts or research to improve the technologies associated with environmental cleanups (remediation of water, soil, and/or air). At any rate, all this talk about the pipelines and oil tankers along Canada’s West Coast brought to mind the BP oil spill, aka the Deepwater Horizon oil spill, from the Wikipedia essay (Note: Links have been removed),

The Deepwater Horizon oil spill (also referred to as the BP oil spill, the BP oil disaster, the Gulf of Mexico oil spill, and the Macondo blowout) began on 20 April 2010 in the Gulf of Mexico on the BP-operated Macondo Prospect. It claimed eleven lives[5][6][7][8] and is considered the largest accidental marine oil spill in the history of the petroleum industry, an estimated 8% to 31% larger in volume than the previously largest, the Ixtoc I oil spill. Following the explosion and sinking of the Deepwater Horizon oil rig, a sea-floor oil gusher flowed for 87 days, until it was capped on 15 July 2010.[7][9] The total discharge has been estimated at 4.9 million barrels (210 million US gal; 780,000 m3).[3]

A massive response ensued to protect beaches, wetlands and estuaries from the spreading oil utilizing skimmer ships, floating booms, controlled burns and 1.84 million US gallons (7,000 m3) of Corexit oil dispersant.[10] After several failed efforts to contain the flow, the well was declared sealed on 19 September 2010.[11] Some reports indicate the well site continues to leak.[12][13] Due to the months-long spill, along with adverse effects from the response and cleanup activities, extensive damage to marine and wildlife habitats, fishing and tourism industries, and human health problems have continued through 2013.[14][15] Three years after the spill, tar balls could still be found on the Mississippi coast.[16] In July 2013, the discovery of a 40,000 pound tar mat near East Grand Terre, Louisiana prompted the closure of waters to commercial fishing.[17][18]

While Canada’s Northern Gateway project does not include any plans for ocean oil rigs, there is still the potential for massive spills either from the tankers or the pipelines. For those old enough to remember or those interested in history, this latest project raises the spectre of the Exxon Valdes oil spill, from the Wikipedia essay (Note: Links have been removed),

The Exxon Valdez oil spill occurred in Prince William Sound, Alaska, on March 24, 1989, when Exxon Valdez, an oil tanker bound for Long Beach, California, struck Prince William Sound’s Bligh Reef at 12:04 a.m.[1] local time and spilled 260,000 to 750,000 barrels (41,000 to 119,000 m3) of crude oil[2][3] over the next few days. It is considered to be one of the most devastating human-caused environmental disasters.[4] The Valdez spill was the largest ever in US waters until the 2010 Deepwater Horizon oil spill, in terms of volume released.[5]  [emphasis mine] However, Prince William Sound’s remote location, accessible only by helicopter, plane, or boat, made government and industry response efforts difficult and severely taxed existing plans for response. The region is a habitat for salmon, sea otters, seals and seabirds. The oil, originally extracted at the Prudhoe Bay oil field, eventually covered 1,300 miles (2,100 km) of coastline,[6] and 11,000 square miles (28,000 km2) of ocean.[7] Exxon’s CEO, Lawrence Rawl, shaped the company’s response.[8]

Some of that ‘difficult to reach’ coastline and habitat was Canadian (province of British Columbia). Astonishingly, given the 20 year gap between the Exxon Valdes spill and the Deepwater Horizon spill, the technology for remediation and cleanup had not changed much, although it seems that the measures* used to stop the oil spill were even older, from my June 4, 2010 posting,

I found a couple more comments relating to the BP oil spill  in the Gulf. Pasco Phronesis offers this May 30, 2010 blog post, Cleaning With Old Technology, where the blogger, Dave Bruggeman, asks why there haven’t been any substantive improvements to the technology used for clean up,

The relatively ineffective measures have changed little since the last major Gulf of Mexico spill, the Ixtoc spill in 1979. While BP has solicited for other solutions to the problem (Ixtoc was eventually sealed with cement and relief wells after nine months), they appear to have been slow to use them.

It is a bit puzzling to me why extraction technology has improved but cleanup technology has not.

An excellent question.

I commented a while back (here) about another piece of nano reporting from* Andrew Schneider. Since then, Dexter Johnson at Nanoclast has offered some additional thoughts (independent of reading Andrew Maynard’s 2020 Science post) about the Schneider report regarding ‘nanodispersants’ in the Gulf. From Dexter’s post,

Now as to the efficacy or dangers of the dispersant, I have to concur that it [nanodispersant] has not been tested. But it seems that the studies on the 118 oil-controlling products that have been approved for use by the EPA are lacking in some details as well. These chemicals were approved so long ago in some cases that the EPA has not been able to verify the accuracy of their toxicity data, and so far BP has dropped over a million gallons of this stuff into the Gulf.

Point well taken.

In looking at this website: gatewayfacts.ca, it seems the proponents for the Enbridge Northern Gateway project have supplied some additional information. Here’s what they’ve supplied regarding the project’s spill response (from the Gateway Facts environmental-responsibility/marine-protection page),

A spill response capacity 3x better than required

Emergency response equipment, crews and training staff will be stationed at key points and communities along the marine routes.

I did find a bit more on the website’s What if? page,

Marine response in action

Our spill response capacity will be more than 3x the current Canadian regulation. In addition, tanker escort tugs will carry emergency response and firefighting equipment to be able to respond immediately.

I don’t feel that any real concerns have been addressed by this minimalist approach to communication. Here are some of my questions,

  • What does 3x the current Canadian regulation mean in practical terms and how does this compare with the best safety regulations from an international perspective? Will there be efforts at continuous improvement?
  • Are there going to be any audits by outside parties of the company’s emergency response during the life of the project?
  • How will those audits be conducted? i.e., Will there be notice or are inspectors likely to spring the occasional surprise inspection?
  • What technologies are the proponents planning to use for the cleanup?
  • Is there any research being conducted on new remediation and cleanup technologies?
  • How much money is being devoted to this research and where is it being conducted (university labs, company labs, which countries)?

In light of concerns about environmental remediation technologies, it’s heartening to see this project on indiegogo which according to a Dec. 27, 2013 news item on Nanowerk focuses on an improved approach to remediation for water contaminated by oil,,

Environmental oil spill disasters such as BP’s Deepwater Horizon oil rig in the Gulf of Mexico have enormous environmental consequences, leading to the killing of marine creatures and contamination of natural water streams, storm water systems or even drinking water supplies. Emergency management organizations must be ready to confront such turbulences with effective and eco-friendly solutions to minimize the short term or long term issues.

There are many ineffective and costly conventional technologies for the remedy of oil spills like using of dispersants, oil skimmers, sand barrier berms, oil containment booms, by controlled burning of surface oil, bioremediation and natural degradation.

NAIMOR® – NAnostructure Innovative Material for Oil Recovery – is a three dimensional, nanostructure carbon material that can be produced in different shapes, dimensions. It is highly hydrophobic and can absorb a quantity of oil around 150 times its weight. Light, strong, and flexible, the material can be reused many times without losing its absorption capacity.

I’m not familiar with the researcher who’s making this proposal so I can’t comment on the legitimacy of the project but this does look promising (I have heard of other similar research using carbon-based materials), from the Naimor campaign on indiegogo,

Ivano Aglietto, an Italian engineer with a PhD in Environmental Engineering has devoted his profession for the production of most advanced and innovative nanostructure carbon materials and the industrial development of their proper use in applications for the environmental remediation.

His first invention was RECAM® (REactive Carbon Material), a revolutionary solution for oil spill recovery which had shown extraordinary results but with limitations of usage.

RECAM® is inert, non toxic, regenerable, reusable, eco friendly material and can absorb oil 90 times its weight. It is ferromagnetic in nature and can be recovered from water using magnetic field. The hydrocarbons absorbed can be burnt inorder to reuse the material and no toxic gases are released because of its inert and non-flammable nature. Their is also possibility of extracting the absorbed oil by squeezing the material or by vacuum filtration. Oil recovered does not contain any water because of the hydrophobic behaviour of RECAM®. Recovered oil can be reused as resource and the RECAM® for recovering oil. RECAM® is used for oil spill remediation and successfully passed the Artemia test.

RECAM® is being replaced with his new innovative nanostructure material, NAIMOR®.

NAIMOR® (NAnostructure Innovative Material for Oil Recovery) is a nanostructure material that can be produced in different shapes and dimensions with an incredible efficiency for oil recovery.

Main Characteristics and Properties

Can absorb quantity of oil 150 times its weight.
Inert, made of pure carbon, environmental friendly and no chemicals involved.
Highly hydrophobic and the absorbed oil does not contain any water.
Regenerable and can be used several times without producing any wastes.
It is a three dimensional nanostructure and can be produced in different shapes, dimensions [carpets, booms, sheets’.
Capable of recovering gallons of oil depending on the shape and dimensions of the carpet.

This indiegogo campaign is almost the antithesis of the gatewayfacts.ca website offering a wealth of information and detail including a discussion about the weaknesses associated with the various cleanup technologies that represent the ‘state of the art’. Here’s an image from the Naimor campaign page,

[downloaded from http://www.indiegogo.com/projects/naimor-nanostructure-innovative-material-for-oil-recovery]

[downloaded from http://www.indiegogo.com/projects/naimor-nanostructure-innovative-material-for-oil-recovery]

I believe this is a pelican somewhere on the Gulf of Mexico coastline where it was affected by the 2010 Deepwater Horizon oil spill. As for Aglietto’s project, you can find the NAIMOR website here.

* Changed ‘measure’ to ‘measures’ and ‘form’ to ‘from’ May 6, 2014.

Cell biology journal conceptualizes science papers’ content with multimedia for a combined print and online experience

Strictly speaking this isn’t visualizing data and scientific information (which I’ve mentioned before)  so much as it is augmenting it. The biology journal Cell  is now including online multimedia components that can be accessed only by a QR code in the journal’s  hardcopy version. From the May 26, 2011 news item on physorg.com,

On May 27th the top cell biology journal, Cell, will publish its latest issue with multimedia components directly attached to the print version. The issue uses QR code technology to connect readers to the journal’s multimedia formats online thereby improving the conceptualization of a paper’s scientific content and enhancing the reader’s overall experience.

Readers of the hardcopy issue who take advantage of the code will experience an author-narrated walk through a paper’s figures. In all, the issue will use QR codes to include seventeen “hidden treasures” for readers to discover. Readers can simply scan the QR codes with a smart phone or tablet to uncover animated figures, interviews, videos, and more. The multimedia formats offered by Cell include: Podcasts, Paperclips, PaperFlicks, and Enhanced Snapshots. Even the journal’s cover shows a simple QR code which allows readers of the hardcopy issue to see an animated cover.

Here’s the animated cover, which is titled, Malaria Channels Host Nutrients,

I find this development interesting in light of moves to provide information via graphical abstracts and/or video abstracts. For example, the publisher Elsevier offers authors of papers for their various science journals instructions on preparing graphical abstracts (from Elsevier’s authors’ graphical abstracts webpage),

A Graphical Abstract should allow readers to quickly gain an understanding of the main take-home message of the paper and is intended to encourage browsing, promote interdisciplinary scholarship, and help readers identify more quickly which papers are most relevant to their research interests.

Authors must provide an image that clearly represents the work described in the paper. A key figure from the original paper, summarising the content can also be submitted as a graphical abstract.

Elsevier provides examples of good graphical abstracts such as this one,

Journal of Controlled Release, Volume 140, Issue 3, 16 December 2009, Pages 210-217. Hydrotropic oligomer-conjugated glycol chitosan as a carrier of paclitaxel: Synthesis, characterization, and in vivo biodistribution. G. Saravanakumar, Kyung Hyun Min, et.al., doi:10.1016/j.jconrel.2009.06.015

For an example of a video abstract, I’m going back to Cell which offers this one from Hebrew University of Jerusalem researchers discussing their work on octopus arm movements and visual control,

http://www.youtube.com/user/cellvideoabstracts?blend=21&ob=5

I have a suspicion that the trend to presenting science to the general public and other experts using graphical and video abstracts and other primarily ‘visual’ media could  have quite an impact on the sciences and how they are practiced. I haven’t quite figured out what any of those impacts might be but if someone would like to  comment on that, I’d be more than happy to hear from you.

Meanwhile, it seems to be a Cell kind of day so I’ve decided to embed the Lady Gaga Bad Project parody by the Hui Zheng Laboratory at Baylor Medical College in Texas for a second time,

Happy Weekend!

Peter Julian interview on tabling the first nanotechnology bill in Canada’s parliament (part 1 of 3); musings on oil-rich regions and nanotechnology

In mid-March 2010, Member of Parliament, Peter Julian, NDP (New Democrat Party) tabled the first Canadian bill (ETA June 22, 2010: Bill C-494) to regulate nanotechnology. Kudos to him for bringing nanotechnology into a national public forum and hopefully inspiring some discussion and debate.

Mr. Julian kindly agreed (thank you!) to answer some e-mail interview questions which I will be posting in a 3-part interview starting today where he answers questions about why he tabled the bill, the involvement of the NDP’s science shadow minister, and the state of the NDP’s science policy.

For anyone who’s not familiar with Mr. Julian, I got some biographical information from his constituency website,

Peter Julian

Member of Parliament, Burnaby–New Westminster
International Trade
Asia-Pacific Gateway
Deputy Critic Fisheries (West Coast Fisheries)
2010 Olympics

  • Has been the most active MP from Western Canada so far in the 40th Parliament.
  • First elected Member of Parliament for Burnaby-New Westminster in 2004 (by a narrow margin of 300 votes), and re-elected in 2006 (by 4,000 votes) and again in 2008 (by 7,000 votes).
  • Served as Critic on International Trade, Transportation, Persons with Disabilities, Gateways and the Vancouver 2010 Olympics in 39th Parliament; Critic on International Trade, the Treasury Board, Transportation and Persons with Disabilities in 38th Parliament.
  • Ranked fifth of 308 MPs in crafting of Private Member’s legislation in 39th Parliament including tougher drunk driving laws and eliminating toxic substances found in fire retardants.
  • Most active rookie in the House of Commons in the 38th Parliament.
  • Prominent critic of Harper Conservatives’ softwood lumber sellout. Called “the Iron Man” by CTV’s David Akin for determination to stop the sellout.
  • Previously a financial administrator, community activist and manual labourer. Served as National Executive Director of Council of Canadians – (founding member), former Executive Director of the Western Institute for the Deaf and Hard of Hearing (WIDHH).
  • Instrumental in building the British Columbia Disability Employment Network
  • Former National Policy Coordinator and Assistant and Acting Federal Secretary of the New Democratic Party of Canada.

Now on to the interview:

What was the impetus for including nanotechnology as part of this bill? i.e. was there some specific incident or has this been an ongoing concern?

The major forces for including my bill on nanotechnology were; the concerns raised by constituents, the progressive work done by the European Union (including the EU Council Directive on cosmetic products and the January 2010 report of the UK’s House of Lords Science and Technology Committee Report). In contrast Canada has made minimal progress towards ensuring that nanotechnology discoveries are safely introduced into the marketplace, environment, and to Canadians.

The exponential increase in applications and products using this type of technology makes updating the regulatory framework necessary. A regulatory vacuum cannot persist if the commercial and societal promises of nanotechnologies are to be fulfilled. There are trade and safety implications involved.

A modernized regulatory framework, based on precaution given the rapid evolution of nanotechnologies, would help ensure that Canadians will be protected from unintended effects. At the same time, it would enable Canadian businesses to enjoy a predictable regulatory environment for investment and innovation, for nanotechnology is a key driver in Canada’s continued growth via sustainable development.

The following are the key components of Bill C-494:

A) A definition of Nanotechnology definition based on “nanometre scale” (1-1000nm),

B) Prescribed Government of Canada research and studies, with the precautionary principle providing direction for a ‘life-cycle’ approach to nanotechnology, and,

C) A Nanotechnology Inventory established and published.

I believe that the definition contained in Bill C-494 constitutes the first legislative body effort since UK House of Lords Committee recommended a similar nanometre scale definition.

Was the NDP’s science shadow minister involved in this bill? What was Jim Malloway’s contribution?

As you may know, private members bills are at the initiative of individual MPs. I have consulted with the NDP Environment and Health critics, in addition to our own research, library of Parliament support, and input from civil society. Jim Malloway and the NDP caucus support the principle of Bill C-494 and share the view that Nanotechnologies present a tremendous opportunity for Canada and that is why safety must be ensured.

Is there going to be more interest in science policy from the NDP?

The NDP is focused on securing sound foundations for science policy by making sure the government has enough resources to support the development of science while monitoring the consequences. We are also focused on ensuring that funding for post secondary education is appropriate and the resources and knowhow of the public sector are not trivialized and outsourced. The civil service needs a critical mass of expertise to support a healthy science development policy. We must encourage and preserve independent research at the university level and make sure that it is not subservient to corporate funding. Science must be allowed to evolve regardless of the commercial aspect. Our small caucus is focused on helping create these conditions where Canadian science and its applications can flourish in both private and not-for-profit spheres, with appropriate regulatory safeguards.

Tomorrow: Mr. Julian answers questions about the ‘precautionary principle’ and the research that supports his bill.

Peter Julian interview Part 2, Part 3, Comments: Nano Ontario, Comments: nanoAlberta

Oil-rich regions and nano

I had a few idle thoughts on seeing a notice on Nanowerk in mid-March that Iran has published a national nanotechnology standard. From the notice on Nanowerk,

The committee of Iranian nanotechnology standardization chose 49 main words in nanotechnology by means of ISO, BSI, and ASTM published standards and translated their definitions into Persian in cooperation with a team from Persian Language and Literature Academy.

The words like nanotechnology, nanomaterials, nanoparticle, nanoscale, nanotube, nanosystem etc have been defined in this standard.

(I did click on the link for the publication but unfortunately there doesn’t seem to be an English language version available.)

I find it interesting that there is so much activity on the nanotechnology front in Iran and other other oil-producing regions including Alberta (Canada) which hosts the National Institute for Nanotechnology and gets a great deal of funding from the Alberta provincial government. Texas, also known for its oil, hosts a leader in nanotechnology research, Rice University which is celebrating its 25th anniversary as the site where ‘bucky balls’ or buckminster fullerenes were first discovered. In Saudi Arabia, they opened KAUST (King Abdullah University for Science and Technology) in September 2009. While the ambitions range far beyond (the Saudis hope to establish a modern ‘House of Wisdom’) nanotechnology, its research is an important element in the overall scheme of things. I guess the reason that all these areas which are known for their oil production are so invested in nanotechnology is that they know time is running out and they need new ways to keep their economies afloat.

Miah and the Olympics; birth of the buckyball

Given that the Winter Olympics are due to open later this week in Vancouver (Canada), there is a  flurry of interest in gene doping and other means of enhancing athletic performance. (I’m mentioning this because developments in elite athletics find their way into consumer markets and because of my interest in human enhancement.) For example, the University of British Columbia (UBC) is hosting,

Sport, Ethics and Technology: Is High Performance Sport Inconsistent with Ideals and Ethics?

Date/time: Monday, February 8, 8 p.m.

Location: Chan Centre for the Performing Arts
University of British Columbia
6265 Crescent Road, Vancouver
For a map and closest parking, visit: www.maps.ubc.ca?130

As the Vancouver 2010 Olympic Winter Games approach, Olympic athletes will come under close public scrutiny.  New technology will offer unexpected advantages that will challenge the boundaries of what is considered a level playing field.

And given those challenges, how do we determine what is ethical and fair? These questions are explored with Richard Pound followed by a panel discussion with Jim Rupert, Beckie Scott and other participants.

*Richard Pound is a former Olympic swimmer, McGill Chancellor and World Anti-Doping Agency Chairman.

*Jim Rupert is an associate professor in the School of Human Kinetics at UBC. His research looks at future trends in doping and doping control as it pertains to genetics and “gene-doping.”

*Beckie Scott is a former Olympic cross-country ski racer who currently serves as a member of the IOC.

This event is one of five provocative dialogues presented by UBC’s Sport and Society series during February and March. Find details at: http://bit.ly/9LuMXO

Friday, Feb. 5, 2010, the lead article in Section B of The Vancouver Sun by Margaret Munro was (print version), Gene Doping; The latest way to boost performance. The article noted that Andy Miah, at the University of the West of Scotland, in contrast to Olivier Rabin and Theodore Friedmann, the experts (whose study was just published in the journal Science) quoted in the article, suggests that gene doping may be safer than current methods of enhancing performance.

I have mentioned Andy before (here in my series on human enhancement and here regarding a book he edited on art and the future). His response to the Rabin/Friedmann concerns is here. An abstract of Rabin and Friedmann’s article is available here but the full article is behind a paywall.

Andy was also featured in an article in The WestEnder (a Vancouver community newspaper) by Jackie Wong titled (in the print version), New-media [sic] centre seeks to democratize Olympic coverage. From the article,

“We can say that Vancouver 2010 is the first truly digital Olympic Games,” says Andy Miah, chair in Ethics and Emerging Technologies in the School of Media, Language, and Music at the University of the West of Scotland. Miah has been researching new media and the Olympics for 10 years, at six Olympic Games.

Andy has written an essay about new media and its role at the Vancouver 2010 Olympics at Huffington Post. From the essay,

…. perhaps the most interesting dimension of Vancouver’s media culture is the rise of three other media entities, the first of which is the W2 Centre on Hastings, led by Irwin Oostindie. W2 is a cultural and arts infrastructure, serving the independent sector. It will run an extensive programme of art, debate and cultural experiences, some of which will have buy in from the Vancouver Organizing Committee (VANOC), while other elements will be more independent. To this end, W2 will serve as a bridge between the privileged participants and the critical commentators around Games time. For example, they will host the Legal Observers programme, headed up by the Pivot Legal Society and BC Civil Liberties Association, which will monitor the operations of Olympic security during Games time. It will also host a cultural collaboration between the London 2012 and Vancouver 2010 Cultural Olympiads, as part of the UK’s Abandon Normal Devices festival, led by England’s Northwest.

You can read more here.

I’ve now mentioned the two areas that Andy sees as the two major controversies from the Vancouver Olympics, doping and new media activism.

One final note on this, Andy will be bringing a team of about 10 students from his university in Scotland who will be blogging from this site, Culture@tO Vancouver 2010. I’m not sure what the start date will be, presumably Feb. 12, 2010 when the games open.

Bucky balls are the popular name for the buckminsterfullerene (aka fullerene). Named for Buckminster Fuller, the molecule resembles one of Fuller’s geodesic domes. (There’s a geodesic dome in Vancouver which houses our local science centre and during the Olympics it will be home to the Sochi [host for 2014 Olympics], Russia pavilion.) The fullerene was first discovered at Rice University in Texas and this year marks its 25th anniversary and what many describe as the birth of nanotechnology. In celebration, the university is hosting a technical symposium.  From the news item on Nanowerk,

On Oct. 11-13, the best minds in carbon nanotechnology will gather at Rice University for a technical symposium during the Year of Nano, a series of events at the university celebrating the 25th anniversary of nano’s big bang.

Hmmm … I may have gone a little ‘link happy’ today. Tomorrow I should be looking at nano sponges and patents. Later this week I expect to be posting my interview with Dr. Cheryl Geisler, the new dean for Simon Fraser University’s new Faculty of Communication, Art and Technology (FCAT).

Alberta and Texas collaborate on nanotechnology and greenish energy; a meta analysis of public perceptions of nanotechnology risks; how scientists think

The Premier of Alberta (Canada), Ed Stelmach, has signed a memorandum of understanding with Rice University (Texas, US) President, David Leebron, to collaborate through nanoAlberta (Alberta Advanced Education and Technology) and the Richard E. Smalley Institute for Nanoscale Science and Technology (Rice University). The two institutions will collaborate in the energy, environmental, medical,  agriculture, and forestry sectors. From the news item on Azonano,

Wade Adams, director of the Smalley Institute, said the interests of nanoAlberta and those of his team at Rice are perfectly aligned. “We want to help them figure out how to extract oil from their resources in a more environmentally friendly way, a more efficient way and one that will cause less damage to their own territory as well as provide oil for the needs of the human race, as they become a more important source of it.”

When I read the title for the item I thought they were referring to green or bio fuels but, as you can see from the quote, the intention is altogether different. From a pragmatic perspective, since we have to depend on fossil fuels for a while longer, it’s best if we can find more environmentally friendly ways to extract it while developing other renewable sources.

This reminds me of the recent invite I received from the Project on Emerging Nanotechnologies (PEN) for the Perverse Incentives: The Untold Story of Federal Subsidies for Fossil Fuels event held on Sept. 18, 2009. Unfortunately, the webcast isn’t available quite yet but I think that in light of this memorandum it could be interesting viewing and might provide a critical perspective on the initiative.

PEN is holding another somewhat related event on Tuesday, Sept. 29, 2009 at 12:30 pm EST, Nanotechnology, Synthetic Biology, and Biofuels: What does the public think? If you’re in Washington, DC, you can attend the event live but you should RSVP here, otherwise there’s a live webcast which is posted a few days later on their website.  (There’s a PEN event tomorrow, Sept. 23, 2009 at 12 pm to 2:30 pm EST, titled Transatlantic Regulatory Cooperation: Securing the Promise of Nanotechnologies. If you wish to attend the live event, you can RSVP using the link I’ve posted previously. If you’re interested in this event, in June I posted a more complete description of it here.)

One more Canadian development on the nanotechnology front, a meta analysis of 22 surveys on public perceptions of the risks and benefits of nanotechnology has been published at Nature Online as of Sept. 20, 2009. The article (lead author from the University of British Columbia, Canada)  is behind a paywall but you can read more about it in the news item on Nanowerk (from the news item),

Previous studies have found that new and unknown technologies such as biotechnology tend to be regarded as risky, but that’s not the case for nanotechnology, according to this research. People who thought nanotechnology had more benefits than risks outnumbered those who perceived greater risks by 3 to 1 in this study. The 44 percent of people who didn’t have an opinion either way surprised the researchers. “You don’t normally get that reluctance,” says Terre Satterfield of the University of British Columbia in Canada, lead author of the study and a collaborator with CNS-UCSB [Center for Nanotechnology in Society at the University of California, Santa Barbara].

In almost three years of scanning, I don’t think I’ve ever seen two announcements that both feature a Canadian nanotechnology development of sorts. This is a banner day!

Topping today off, I’m going to segue into How Scientists Think.  It’s a paper about how scientists creatively problem solve.  From the news item on Physorg.com,

Her [Dr. Nancy J. Nersessian] study of the working methods of scientists helps in understanding how class and instructional laboratory settings can be improved to foster creativity, and how new teaching methods can be developed based on this understanding. These methods will allow science students to master model-based reasoning approaches to problem solving and open the field to many more who do not think of themselves as traditional “scientists.”

I’ve been interested in how scientists think because I’ve been trying to understand why the communication with ‘non scientists’ can be so poor. To some extent I think it is cultural. After years of training in special skills and a special language, scientists are members of a unique occupational culture, which has given birth to many, many subcultures. People who are immersed in their own cultures don’t always realize that the rest of us may not understand what they’re saying very well. (Try reading art criticism if you don’t have an understanding of art history and critical theory.) That’s my short answer and, one of these days, I’m going to write a paper with my long answer.

I had every intention of writing another part of my science communication series today but I have a couple of projects to start or finish and these series postings take more time than I have to spare.