Tag Archives: Large Hadron Collider

Inside story on doping; build it and they will collide; and physicist, feminist, and philosopher superstar Evelyn Fox Keller visits

Here are a few events being held in Vancouver (Canada) over the next weeks and months. This is not an exhaustive list (three events) but it certainly offers a wide range of topics.

Inside story on doping

First, Café Scientifique will be holding a meeting on the subject of doping and athletic pursuits at The Railway Club on the 2nd floor of 579 Dunsmuir St. (at Seymour St.) next Tuesday,

Our next café will happen on Tuesday January 29th, 7:30pm at The Railway Club. Our speaker for the evening will be Dr. Jim Rupert.[School of Kinesiology, University of British Columbia]

The title and abstract for his café is:

The use of genetics in doping and in doping control

Sports performance is an outcome of the complex interactions between an athlete’s genes and the environment(s) in which he or she develops and competes.  As more is learned about the contribution of genetics to athletic ability, concerns have been raised that unscrupulous athletes will attempt manipulate their DNA in an attempt to get an ‘edge‘ over the competition. The World Anti-doping Agency (WADA) has invested research funds to evaluate this possibility and to support studies into methods to detect so-called “gene doping”.  Superimposed on these concerns is the realisation that, in addition to contributing to performance, an athlete’s genes may influence the results of current doping-control tests. Natural genetic variation is an issue that anti-doping authorities must address as more is learned about the interaction between genotype and the responses to prohibited practices. To help differentiate between naturally occurring deviations in blood and urine ‘markers’ and those potentially caused by doping, the ‘biological-passport’ program uses intra-individual variability rather than population values to establish an athlete’s parameters.  The next step in ‘personalised’ doping-control may be the inclusion of genetic data; however, while this may benefit ‘clean’ athletes, it will do so at the expense of risks to privacy.  In my talk, I will describe some examples of the intersection of genetics and doping-control, and discuss how genetic technology might be used to both enhance physical performance as well as to detect athletes attempting to do so.

This is a timely topic  given hugely lauded Lance Armstrong’s recent confession that he was doping when he won his multiple cycling awards. From the Lance Armstrong essay on Wikipedia (Note: Footnotes and links have been removed),

Lance Edward Armstrong (born Lance Edward Gunderson, September 18, 1971) is an American former professional road racing cyclist. Armstrong was awarded victory in the Tour de France a record seven consecutive times between 1999 and 2005, but in 2012 he was disqualified from all his results since August 1998 for using and distributing performance-enhancing drugs, and he was banned from professional cycling for life. Armstrong did not appeal the decision to the Court of Arbitration for Sport. Armstrong confessed to doping in a television interview in January 2013, two-and-a-half months after the Union Cycliste Internationale (UCI), the sport’s governing body, announced its decision to accept USADA’s findings regarding him, and after he had consistently denied it throughout his career.

Build it and they will collide

Next, both TRIUMF (Canada’s national laboratory for particle and nuclear physics) and ARPICO (Society of Italian Researchers and Professionals in Western Canada) have sent Jan. 23, 2013 news releases concerning Dr. Lyn Evans and his talk about building the Large Hadron Collider (LHC) at CERN (European Particle Physics Laboratory) which led to the discovery of the Higgs Boson. The talk will be held at 6:30 pm on Feb. 20, 2013 at Telus World of Science, 1455 Quebec Street, Vancouver,

Fundamental Physics Prize winner to deliver public lecture Wed. Feb. 20 at Science World

Back to the Big Bang – From the LHC to the Higgs, and Beyond
Unveiling the Universe Lecture Series
Wednesday, 20 February 2013 at 6:30 PM (PST)
Vancouver, British Columbia

(Vancouver, B.C.)  The Large Hadron Collider (LHC) is history’s most powerful atom smasher, capable of recreating the conditions that existed less than a billionth of a second after the Big Bang. The construction of the LHC was a massive engineering challenge that spanned almost 15 years, yielding the most technologically sophisticated instrument mankind ever has created.

Join Science World and TRIUMF in welcoming Dr. Lyn Evans, project leader for the LHC construction, in his Milner Foundation Special Fundamental Physics Prize lecture. In this free event, Dr Evans will detail some of the design features and technical challenges that make the LHC such an awe-inspiring scientific instrument. He will also discuss recent results from the LHC and touch on what’s next in the world of high-energy physics. The lecture will be followed by an audience question and answer session.

Dr Evans, born in Wales in 1945, has spent his whole career in the field of high energy physics and particle accelerators. In 2012, he was awarded the Special Fundamental Physics Prize for his contribution to the discovery of the Higgs-like boson. See http://www.fundamentalphysicsprize.org

Tickets are free, but registration is required.

See  http://fpplecture.eventbrite.ca

Physicist, feminist, philosopher superstar Evelyn Fox Keller

Here’s the information available from the Situating Science Cluster Winter 2013 newsletter,

The UBC [University of British Columbia] Node and partners are pleased to welcome Dr. Evelyn Fox Keller as Cluster Visiting Scholar Th. April 4th. The Node and partners continue to support the UBC STS [University of British Columbia Science and Technology Studies] colloquium.

There is more information Fox Keller and the first talk she gave to kick off this Canadawide tour in an Oct. 29, 2012 posting. She will be visiting the University of Alberta and the University of Calgary (Alberta) just prior to the April 4, 2013 visit to Vancouver. There are no further details about Fox Keller’s upcoming visit either on the Situating Science website or on the UBC website.

Simon Fraser University completes a successful mating dance while TRIUMF (Canada’s national laboratory for particle and nuclear physics) gets its groove on

The Federal Government of Canada in the guise of the Canada Foundation for Innovation has just awarded $7.7M to Simon Fraser University (SFU) and its partners for a global innovation hub. From the Jan. 15, 2013 Canada Foundation for Innovation news release,

British Columbia’s research-intensive universities are coming together to create a global hub for materials science and engineering. Simon Fraser University, the University of Victoria, the University of British Columbia and the British Columbia Institute of Technology have received $7.7 million in funding from the Canada Foundation of Innovation to create the Prometheus Project — a research hub for materials science and engineering innovation and commercialization.

“Our goal with the Prometheus Project is to turn our world-class research capacity into jobs and growth for the people of British Columbia,” said Neil Branda, Canada Research Chair in Materials Science at Simon Fraser University and leader of the Prometheus Project. “We know that materials science is changing the way we create energy and fight disease. We think it can also help B.C.’s economy evolve.”

This project builds on a strong collective legacy of collaborating with industry. Researchers involved in the Prometheus Project have created 13 spin-off companies, filed 67 patents and have generated 243 new processes and products. [emphasis mine] Branda himself has founded a company called Switch Materials that seizes the power of advanced chemistry to create smarter and more efficient window coatings.

This funding will allow members of the research team to build their capacity in fabrication, device testing and advanced manufacturing, ensuring that they have the resources and expertise they need to compete globally.

There’s a bit more information about the Prometheus project in a Jan.15, 2013 backgrounder supplied by SFU,

Led by Neil Branda, a Canada Research Chair in Materials Science and SFU chemistry professor, The Prometheus Project is destined to become a research hub for materials science and engineering innovation, and commercialization globally.

It brings together 10 principal researchers, including Branda, co-founder of SFU’s 4D LABS (a materials research facility with capabilities at the nanoscale], and 20 other scientists at SFU, University of British Columbia, the University of Victoria and the British Columbia Institute of Technology. They will create new materials science and engineering (MS&E) technology innovations, which will trigger and support sustained economic growth by creating, transforming and making obsolete entire industries.

Working with internationally recognized industrial, government, hospital and academic collaborators, scientists at the Prometheus partners’ labs, including 4D LABS, a $40 million materials science research institute, will deliver innovations in three areas. The labs will:

  • Develop new solar-industry related materials and devices, including novel organic polymers, nanoparticles, and quantum dots, which will be integrated in low cost, high efficiency solar cell devices. The goal is to create a new generation of efficient solar cells that can compete in terms of cost with non-renewable technologies, surpassing older ones in terms of miniaturization and flexibility.
  • Develop miniaturized biosensors that can be used by individuals in clinical settings or at home to allow early detection of disease and treatment monitoring. They will be integrated into flexible electronic skins, allowing health conditions to be monitored in real-time.
  • Develop spintronics (magnetic devices) and quantum computing and information devices that will enable new approaches to significantly improve encrypted communication and security in financial transactions.

“This project will allow B.C.’s four most research intensive institutes to collaborate on fundamental materials research projects with a wide range of potential commercial applications,” notes Branda. “By engaging with a large community of industry, government and NGO partners, we will move this research out of the lab and into society to solve current and future challenges in important areas such as energy, health and communications.”

The Prometheus team already has a strong network of potential end users of resulting technologies. It is based on its members’ relationships with many of more than 25 companies in BC commercializing solar, biomedical and quantum computing devices.

Researchers and industries worldwide will be able to access Prometheus’s new capabilities on an open-access basis. [emphasis mine]

There are a few things I’d like to point out (a) 13 spin-off companies? There’s no mention as to whether they were successful, i.e., created jobs or managed a life beyond government funding. (b) Patents as an indicator for innovation? As I’ve noted many, many times that’s a very problematic argument to make. (c) New processes and products? Sounds good but there are no substantiating details.  (d) Given the emphasis on commercializing discoveries and business, can I assume that open-access to Prometheus’ capabilities means that anyone willing and able to pay can have access?

In other exciting SFU news which also affects TRIUMF, an additional $1M is being awarded by the Canada Foundation for Innovation to upgrade the ATLAS Tier-1 Data Analysis Centre. From the SFU backgrounder,

Led by Mike Vetterli, a physics professor at SFU and TRIUMF, this project involves collaborating with scientists internationally to upgrade a component of a global network of always-on computing centres. Collectively, they form the Worldwide Large Hadron Collider Computing Grid (WLCG).

The Canadian scientists collaborating with Vetterli on this project are at several research-intensive universities. They include Carleton University, McGill University, University of British Columbia, University of Alberta, University of Toronto, University of Victoria, Université de Montréal, and York University, as well as TRIUMF. It’s Canada’s national lab for particle and nuclear physics research.

The grid, which has 10 Tier-1 centres internationally, is essentially a gigantic storage and processing facility for data collected from the ATLAS  experiment. The new CFI funding will enable Vetterli and his research partners to purchase equipment to upgrade the Tier-1 centre at TRIUMF in Vancouver, where the equipment will remain.

ATLAS is a multi-purpose particle detector inside a massive atom-smashing collider housed at CERN, the world’s leading laboratory for particle physics in Geneva, Switzerland.

More than 3,000 scientists internationally, including Vetterli and many others at SFU, use ATLAS to conduct experiments aimed at furthering global understanding of how the universe was physically formed and operates.

The detector’s fame for being a window into nature’s true inner workings was redoubled last year. It helped scientists, including Vetterli and others at SFU, discover a particle that has properties consistent with the Higgs boson.

Peter Higgs, a Scottish physicist, and other scientists theorized in 1964 about the existence of the long-sought-after particle that is central to the mechanism that gives subatomic particles their mass.

Scientists now need to upgrade the WLCG to accommodate the massive volume of data they’re reviewing to confirm that the newly discovered particle is the Higgs boson. If it is, it will revolutionize the way we see mass in physics.

“This project will enable Canadian scientists to continue to play a leading role in ATLAS physics analysis projects such as the Higgs boson discovery,” says Vetterli. “Much more work and data are required to learn more about the Higgs-like particle and show that it is indeed the missing link to our understanding of the fundamental structure of matter.

There is one more Canada Foundation for Innovation grant to be announced here, it’s a $1.6M grant for research that will be performed at TRIUMF, according to the Jan. 13, 2013 news release from St. Mary’s University (Halifax, Nova Scotia),

Dr. Rituparna Kanungo’s newest research collaboration has some lofty goals: improve cancer research, stimulate the manufacturing of high-tech Canadian-made instrumentation and help explain the origin of the cosmos.

The Saint Mary’s nuclear physicist’s goal moved one step closer to reality today when the federal government announced $1.6 million in support for an advanced research facility that will allow her to recreate, purify, and condition rare isotopes that haven’t existed on the planet for millions of years.

The federal fiscal support from the Canada Foundation for Innovation together with additional provincial and private sector investment will allow the $4.5 million project to be operational in 2015.

“The facility will dramatically advance Canada’s capabilities for isolating, purifying, and studying short-lived isotopes that hold the key not only for understanding the rules that govern the basic ingredients of our everyday lives but also for crafting new therapies that could target and annihilate cancers cell-by-cell within the human body, “ said Dr Kanungo.

The CANadian Rare-isotope facility with Electron-Beam ion source (CANREB) project is led by Saint Mary’s University partnering with the University of Manitoba and Advanced Applied Physics Solutions, Inc. in collaboration with the University of British Columbia, the University of Guelph, Simon Fraser University, and TRIUMF. TRIUMF is Canada’s national laboratory for particle and nuclear physics. It is owned and operated as a joint venture by a consortium of Canadian universities that includes Saint Mary’s University.

As one of the nation’s top nuclear researchers (she was one of only two Canadians invited to speak at a Nobel Symposium last June about exotic isotopes), Dr. Kanungo has been conducting research at the TRIUMF facility for many years, carrying out analyses from her office at Saint Mary’s University together with teams of students. Her students also often spend semesters at the Vancouver facility.

As the project leader for the new initiative, she said TRIUMF is the ideal location because of its world leading isotope-production capabilities and its ability to produce clean, precise, controlled beams of selected exotic isotopes not readily available anywhere else in the world.

In recent studies in the U.S., some of these isotopes have been shown to have dramatic impact in treating types of cancer, by delivering radioactive payloads directly to the cancerous cells. Canada’s mastery of the technology to isolate, study, and control these isotopes will change the course of healthcare.

An integral part of the project is the creation of a new generation of high resolution spectrometer using precision magnets. Advanced Cyclotron Systems, Inc. a company in British Columbia, has been selected for the work with the hope that the expertise it develops during the venture will empower it to design and build precision-magnet technology products for cutting-edge projects all around the world.

Exciting stuff although it does seem odd that the federal government is spreading largesse when there’s no election in sight. In any case, bravo!

There’s one last piece of news, TRIUMF is welcoming a new member to its board, from its Jan. 14, 2013 news release,

Dr. Sylvain Lévesque, Vice-President of Corporate Strategy at Bombardier Inc., a world-leading manufacturer of innovative transportation solutions, has joined the Board of Management for TRIUMF, Canada’s national laboratory for particle and nuclear physics, for a three-year term.  Owned and operated by a consortium of 17 Canadian universities with core operating funds administered via a contribution agreement through National Research Council Canada, TRIUMF is guided by a Board that includes university vice-presidents of research, prestigious scientists, and leading members of Canada’s private sector.

Paul Young, Chair of TRIUMF’s Board and Vice President, Research at the University of Toronto, said, “We welcome the participation of Sylvain and his extensive experience at Bombardier.  TRIUMF is a national resource for basic research and yet we also fulfill a technological innovation mission for Canada.  Dr. Lévesque will be a valuable addition to the Board.”

Dr. Sylvain Lévesque earned his Ph.D. from MIT in Engineering and worked at McKinsey & Company before joining Bombardier in 1999.  He brings deep experience with large, technical organizations and a passion for science and engineering. [emphasis mine]  He said, “I am excited to work more closely with TRIUMF.  It has a track record of excellence and I am eager to provide guidance on where Canada’s industrial sector might draw greater strength from the laboratory.”

TRIUMF’s Board of Management reflects the unique status of TRIUMF, a laboratory operating for more than forty years as a joint venture from Canada’s leading research universities.  The consortium includes universities from Halifax to Victoria.

Is deep experience like wide experience or is it a whole new kind of experience helpful for ‘getting one’s groove on’? For anyone who’s curious, ‘getting one’s groove on’ involves dancing.

Physicists at CERN film Decay—their first zombie movie?

Decay, the movie, seems to have been released in late November 2012.  It is, according to the Nov. 1, 2012 preview article written by Rebecca Pahle for The Mary Sue website, a project developed by physics students working at CERN’s (European Particle Physics Laboratory) Large Hadron Collider facility.

There are a lot of zombie movies out there. But Decay is the only one filmed in CERN, a.k.a. the home of the Large Hadron Collider. The film is the brainchild (mmmm… brains) of Luke Thompson and Clara Nellist, both Ph.D. students in physics, who despite having no filmmaking experience decided that, dammit, they were going to make a film about exposure to the Higgs Boson particle turning people into zombies. (If that sounds critical, it’s unintentional—jumping in and just doing it is a time-honored method for indie film.)

Though Thompson and Nellist got permission to shoot their film in CERN, the just-released trailer makes it very clear that officials there in no way endorse it. (Which—of course they wouldn’t. But they let them shoot there! How cool is that?)

Here’s the movie trailer,


J. Bryan Lowder’s Dec. 12, 2012 article for Slate describes some of Lowder’s experiences as a science writing intern dealing with myths about science and the filmmaking team’s motivations (laughing at science horror myths),

Back when I was a science writing intern at a major U.S. lab, there was a short list of words we were cautioned never to use in our public articles. Radiation was at the top of that list, not because the lab produced it in dangerous amounts (actually, it produced less than exists normally in nature), but because when people read the word, they freak out. The public’s fear—and by extension, this lab’s fear of talking about—radiation is understandable, but it’s also unreasonable and reveals a disappointing ignorance of science. …

Burton DeWilde, a physics Ph.D. and Decay’s director of photography/editor (and a friend of mine), explained the genesis of the project in an email:

The idea of filming a zombie movie at CERN was originally conceived by Luke Thompson (writer-director) and Hugo Day (props master) while exploring the lab’s creepy labyrinth of underground maintenance tunnels. It was agreed that they would make an excellent setting for a horror film. From there, the story evolved into a cheeky riff on the black hole hysteria: “The LHC didn’t produce earth-devouring black holes after all—but have you considered brain-devouring zombies?” Concerns about the Higgs in particular and clichés of mad scientists were also mixed in. We took all these worries to a totally ridiculous place.

And Decay is totally ridiculous, in the best sense of the word. The 75-min, $3,500 movie is remarkably well-made, given the creative team’s lack of experience. It’s studded with all the gratuitous gore, cheap shocks, and absurd plot twists that zombie fans crave. Science nerds and those who love them will bask in its shameless use of sci-fi clichés like “the results are inconclusive at best,” and “my research is too important!”

You can view the whole movie by clicking the link to Lowder’s article where it is embedded, visiting this Dec. 11, 2012 posting on The Mary Sue website, or going to the Decay website.

Zombies are a very hot topic in popular culture these days as per this Nov. 12, 2012 posting on this website which mentions my presentation ‘Zombies, brains, collapsing boundaries, and entanglements’ at the S.NET 2012 (Society for the Study of Nanoscience and Emerging Technologies) conference in Enschede, Holland.

BTW, Mary Sue is a term used to describe a female character who is perfect. From the Urban Dictionary definition,

  1. A female character who is so perfect that she is annoying. The name originated in a very short Star Trek story that mocked the sort of female characters who showed up in fanfiction. It usually refers to original female characters put into fanfiction, but can refer to any character. …
  2. An original character (fem.) in fanfic or an original story, usually on the internet, who is far superior to all other characters. She is typically beautiful, intelligent, kind, and in all other ways “perfect”. She usually serves as an important part in a pivotal plot element (ie: a prophecy) and becomes romantically involved with the author’s favourite character in the story. The internet fiction world runs rampant with these characters. …

Do go to the Urban Dictionary to reed the examples of ‘Mary Sue’ characters as they are very funny. The male equivalent may be called Marty Stu, Gary Stu, or Marty Sam.

In depth and one year later—the nanotechnology bombings in Mexico

Last year in an Aug. 11, 2011 post I covered some stories about terrorism and nanotechnology in the aftermath of a major bombing in Mexico where two scientists were injured. Leigh Phillips has written a substantive news feature focusing largely on the situation in Mexico.

From the Aug. 29, 2012 news feature (open access) in the journal Nature,

Nature assesses the aftermath of a series of nanotechnology-lab bombings in Mexico — and asks how the country became a target of eco-anarchists.

The shoe-box-sized package was addressed to Armando Herrera Corral. It stated that he was the recipient of an award and it was covered in official-looking stamps. Herrera, a computer scientist at the Monterrey Institute of Technology and Higher Education in Mexico City, shook the box a number of times, and something solid jiggled inside. What could it be? He was excited and a little nervous — so much so, that he walked down the hall to the office of a colleague, robotics researcher Alejandro Aceves López, and asked Aceves to open it for him.

Aceves sat down at his desk to tear the box open. So when the 20-centimetre-long pipe bomb inside exploded, on 8 August 2011, Aceves took the full force in his chest. Metal pierced one of his lungs. “He was in intensive care. He was really bad,” says Herrera’s brother Gerardo, a theoretical physicist at the nearby Centre for Research and Advanced Studies of the National Polytechnic Institute (Cinvestav). Armando Herrera Corral, who was standing nearby when the bomb went off, escaped with a burst eardrum and burns to his legs.

As was reported at the time, an eco-anarchist group calling itself ‘Individuals Tending Towards (or To) Savagery’ laid claim to this ‘achievement’.

While there have been attacks elsewhere*, Mexico has experienced more attacks and more violence and the impact is being felt personally and institutionally,

One year on from the bombing at Monterrey Tec, the repercussions are still being felt. Armando Herrera Corral and Aceves will not speak to Nature about what happened. “It’s too sensitive, you understand?” is all Aceves would say. Herrera has left his job as director of the university’s technology park and is now head of postgraduate studies. Other Mexican universities with nanotechnology research programmes have evacuated campuses in response to bomb threats, and universities across the country have introduced stringent security measures. Some researchers are anxious for their own safety; some are furious about being targets. But all the researchers that Nature spoke to in Mexico are adamant that the attacks will not discourage them from their research or dissuade students from entering the field.

As for reasons why Mexico, to date, has experienced more attacks than other countries,

Reporting by Nature suggests that several broad trends have come together to precipitate the violence. Over the past decade, Mexico has invested heavily in nanotechnology relative to other developing countries, because it sees the field as a route to economic development; mainstream green groups worldwide have grown increasingly concerned about nanotechnology’s health and environmental risks; and there has been a shift towards extreme ideas and tactics among radical environmentalists critical of technology. In Mexico, this has been set against a general background of growing violence and political upheaval.

According to Phillips’ article there were three incidents in 2011 (April, May, and August, respectively)  in Mexico as compared to one attempted attack in Switzerland in 2010. This year, there has been one attack in Europe as I noted in my May 29, 2012 post which featured Andy Coghlan’s article for New Scientist on rising violence against scientists. From Coghlan’s article,

It’s like something out of Kafka. Anti-science anarchists in Italy appear to be ramping up their violent and frankly surreal campaign. Having claimed responsibility for shooting the boss of a nuclear engineering company in Genoa, the group has vowed to target Finmeccanica, the Italian aerospace and defence giant.

In  a diatribe sent on 11 May to Corriere della Sera newspaper on 11 May, the Olga Cell of the Informal Anarchist Federation International Revolutionary Front said it shot Roberto Adinolfi, head of Ansaldo Nucleare, in the leg four days earlier. “With this action of ours, we return to you a tiny part of the suffering that you, man of science, are pouring into this world,” the statement said. It also pledged a “campaign of struggle against Finmeccanica, the murderous octopus”.

Coghlan suggests that the focus is being shifted from nanotechnology to nuclear science in the wake of Japan’s Fukushima nuclear accident in 2011.

Philips takes a different tack in the Nature article,

As nanotechnology has been growing in Latin America, a violent eco-anarchist philosophy has taken root among certain radical groups in Mexico. Mexican intelligence services believe that the perpetrators of the bombings last year were mainly young and well educated: their communiqués are littered with references to English-language texts unlikely to have been translated into Spanish.[emphasis mine] Intelligence services say that the eco-anarchist groups have been around for about a decade. They started off protesting against Mexico’s economic and political system by setting off small explosives that destroyed bank machines.But around 2008, certain groups began to adopt an ‘anarcho-primitivist’ perspective. (Locally, they are called primativistas, says Gerardo Herrera Corral.) This philosophy had won little notice until the past few years, but with increasing media reports of looming global climate disaster, some radical green activists have latched on to it. California-based environmental writer Derrick Jensen — whose popular books call for an underground network of ‘Deep Green Resistance’ cells — is a highly influential figure in this otherwise leaderless movement, which argues that industrial civilization is responsible for environmental destruction and must be dismantled.

In their writings, anarcho-primitivist groups often express deep anxiety about a range of advanced research subjects, including genetic engineering, cloning, synthetic biology, geoengineering and neurosciences. But it is nanotechnology, a common subject for science-fiction doomsday scenarios, that most clearly symbolizes to them the power of modern science run amok. “Nanotechnology is the furthest advancement that may yet exist in the history of anthropocentric progress,” the ITS wrote in its first communiqué, in April 2011.

If the perpetrators are young and well-educated then the comment in this excerpt from the article does not follow logically and Phillips does not explain this seeming disparity,

In Mexico, the existing social and political climate may have helped light the fuse, says Miguel Méndez Rojas, coordinator of the department of nanotechnology and molecular engineering at the University of the Americas Puebla in Mexico. He says that the bombings cannot be understood outside the context of what he describes as a dangerous cocktail of poverty and poor education, widespread ignorance of science, ongoing social upheaval and a climate of violence. [emphasis mine]

Phillips’ article goes on to discuss some of the more moderate groups including the Canada-based ETC Group, which has an office in Mexico,

Some researchers in Mexico say that more-moderate groups are stoking fears about nanotechnology. One such body is the Action Group on Erosion, Technology and Concentration (ETC, pronounced et cetera), a small but vocal non-profit organization based in Ottawa, Canada, which was one of the first to raise concerns about nanotechnology and has to a large extent framed the international discussion. Silvia Ribeiro, the group’s Latin America director, based in Mexico City, says that the organization has no links to the ITS. The bombings were a “sick development”, she says. “These kinds of attacks — they are benefiting the development of nanotechnology,” she says. “It polarized the discussion. Do you want nanotech or the bomb?”

ETC wants to see a moratorium on all nanotechnology research, says Ribeiro, who is the lead author on many of the group’s reports criticizing nanotechnology research and commercialization. She says that there have not been enough toxicological studies on engineered nanoparticles, and that no government has developed a regulatory regime that explicitly addresses risk at the nanoscale.

However, ETC also infuriates researchers by issuing warnings of a more speculative nature. For example, it has latched on to the concept of ‘grey goo’ — self-replicating nanorobots run wild — that was raised in the book Engines of Creation (Doubleday, 1986) by nanotechnology engineer Eric Drexler. In ETC’s primer on nanoscale technologies, it says that the “likely future threat is that the merger of living and non-living matter will result in hybrid organisms and products that are not easy to control and behave in unpredictable ways”.

Ribeiro has also criticized genetic modification and vaccination against human papillomavirus in a weekly column in La Jornada. Méndez Rojas says that ETC “promotes beliefs, but they are not based on facts, and we need a public discussion of the facts”.

The impression I’ve had from reading ETC materials is that they are trying to repeat the success they enjoyed with the GMO (genetically modified organisms) and frankenfood campaign and they’d dearly love to whip up some strong feelings about nanotechnology in aid of more regulation.

I’m not a big ETC fan but I do have to note that their research is solid, once you get past the annoying ‘smart ass’ or juvenile attitude in the literature. Yes, they have an agenda but that’s standard. Everyone has an agenda so you always have to check more than one source.  When you analyze it, Phillips’ article is just as emotionally manipulative as the ETC Group’s communications. Including the ETC Group with the eco-anarchists in an article about terrorism and nanotechnology is equivalent to including the journal Nature with North Korea in an article about right-wing, repressive institutions framed from beginning to end to prove a somewhat elusive point.

Scientists in general seem to recognize that there are some legitimate concerns being expressed by the ETC Group and others,

Most nanotechnology researchers acknowledge that some areas of their work raise legitimate environmental, health and safety concerns. The most important response, says Gerardo Herrera Corral, is for scientists to engage with the public to address and dispel concerns. Herrera is head of Mexico’s only experiment at CERN, Europe’s particle-physics laboratory near Geneva, Switzerland, and he points to how CERN dealt with public fears that its Large Hadron Collider could create a black hole that would swallow Earth. “We set up a committee to deal with this. We looked into the real dangers. There were journal articles and we answered all the e-mails we got from people. I mean top-level physicists answering thousands of e-mails.”

“But this is work we should all be doing,” says Herrera. “Even if it’s extra work on top of all the other things we have to do. It’s just part of our job now.”

I like the idea of high level scientists taking the time to answer my questions and I imagine others feel the same way, which may go a long way in explaining why CERN (European Particle Physics Laboratory) has acquired such good will internationally.

Overall, I suspect Phillips is a little over-invested in Mexico’s nanotechnology terrorism. Three incidents in one year suggests something deeply disturbing (and devastating if you are the target) but in an international context, there were only three incidents. If you add up all of the nanotechnology incidents cited in Phillips’ article, there are three bombings (Mexico), one attempted bombing (Switzerland), a successful arson attempt (Mexico), and a few cancelled public debates (France) from 2009 – Fall 2012.

I am inclined to Coghlan’s argument that there is a disturbing trend toward anti-science violence and, it seems to me, it is largely unfocused, nanotechnology here, nuclear science there, biotechnology everywhere, and who knows what else or where else next?

ETA Feb. 21, 2013: Leigh Phillips contacted me to mention that there was a May 28, 2012 article for Nature, Anarchists attack science, which preceded Coghlan’s article for New Scientist and to which Coghlan provides a link. Phillips’ preceding article was subtitled, Armed extremists are targeting nuclear and nanotechnology workers. Phillips opens with the then recent attack on a nuclear engineering executive and subsequently focuses on attacks in the nanotechnology sector.

* ‘While there have been other attacks ‘ changed to ‘While there have been attacks elsewhere’, on Aug. 9, 2015.

Playing and singing the Higgs Boson

The Higgs Boson has lead to an explosion of creativity. First, the Guerilla Science team has produced a Secret Garden Party (July 19 – 22, 2012) featuring the Higgs Boson. Here’s a video clip from the 2012 event,

Zoe Cormier (writer and Guerilla Science co-founder) notes in her July 27, 2012 posting on the Guardian science blogs,

The Particle Zoo Safari, hosted by Guerilla Science at the Secret Garden Party arts and music festival last weekend, observed the formation of another proton and hydrogen atom, the sparring of two combative electrons, polyamorous covalent bond formation, sunlight manufacture through fusion (and a ping pong ball), and the creation of deuterium – complete with dubstep to mirror the atomic weight of the heavy form of hydrogen.

With polystyrene magnets our audience-cum-collider recreated the Large Hadron Collider (LHC) to produce the star of the show: the Higgs boson, sumo-suited and angry, the weightiest particle of all. “I’m hungry,” it grumpily announced, before we threw a net over it and dragged it into the tent. Too much had been spent on the particle’s discovery to let it escape now.

“The idea of the safari came from a colloquialism in physics, which refers to the set of standard particles that make up the entire universe as the ‘particle zoo’,” explains Patrick Stevenson-Keating, the designer we enlisted to help us devise a new way to explore particle physics. “This scale of subatomic particles is so different to our everyday world that there are few comparisons you can really make, so it was challenging to visualise some of the concepts.”

Here’s what the science consultant had to say about it (from Cormier’s posting),

“When I was first approached to take part, I did think it sounded a bit nuts actually, but in the end it worked out reasonably well in terms of the science – I think most people would at least remember that quarks come in threes, and they are difficult to pull apart,” says Dr James Monk of the University College London, a particle physicist who works on the Atlas experiment on the LHC, whom we enlisted as a scientific consultant. “These particles and forces are important to understand how the world works, and it wouldn’t be fitting if physicists said that we do all this fantastic research – but the rest of you can’t possibly understand it.”

It’s well worth reading Cormier’s whole post and you might even feel like taking another look at the video (I found it embedded in Cormier’s posting)  after reading.

(Last year, I featured Guerilla Science and Cormier in my July 12, 2011 posting.)

Meanwhile, the Higgs is producing music. According to David Bruggeman’s July 28, 2012 posting on his Pasco Phronesis blog,

While it seems unlikely that papers will soon come as .mp3 files with audio infographics, some are still working on hearing things we usually expect to see.

The idea is to match energy levels found in the data with particular notes.  That way shifts in energy can be more immediately expressed as shifts in tone.  The Higgs boson peaks out of the background noise – noise that isn’t really noise from a musical perspective.

David is hoping turning data into music could be used in the future for educational purposes,

… for those who have an easier time detecting patterns in audio rather than printed data, this could be a very productive development.

I thought it would be interesting to hear some Higgs Boson music. While this piece is based on Higgs data, the composer has taken liberties after letting you hear what the untreated melody sounds like,

The composer, Ben McCormack, had this to say about the piece titled, Higgs Boson (ATLAS preliminary data),

The data was already converted to notes by Domenico Vicinanza. I then consolidated the melody to remove a lot of the large leaps, giving it a slightly better flow.

Before you say anything, I know that this (at least somewhat) defeats the purpose of the data. I’m a composer; my goal was primarily to make a fun piece of music. I inverted the melody and wrote countermelodies that aren’t mathematically-related to the original melody, so consider this more a creative work than an exercise in data analysis.

You can find out more about the Higgs Boson in my July 4, 2012 posting where I wrote about the then latest announcement from CERN (European Particle Physics Laboratory).

Trickster researchers at the University of Maryland and graphene photodetectors

Trickster figures are a feature in mythologies around the world. They’re always mischievous, tricking humans and other beings into doing things they shouldn’t.

Tricksters can be good and/or villainous. For example, Raven in the Pacific Northwest gave us the sun, moon, and stars but stole them in the first place from someone else.

I don’t think the researchers at the University of Maryland have done anything comparable (i.e., stealing) with their graphene discovery but the analogy does amuse me. From the June 3, 2012 news release by Lee Tune,

Researchers at the Center for Nanophysics and Advanced Materials of the University of Maryland have developed a new type of hot electron bolometer a sensitive detector of infrared light, that can be used in a huge range of applications from detection of chemical and biochemical weapons from a distance and use in security imaging technologies such as airport body scanners, to chemical analysis in the laboratory and studying the structure of the universe through new telescopes. [emphasis mine]

Before launching into why I highlighted the part about the universe and the telescopes, here’s the problem the researchers were solving (from the news release),

Most photon detectors are based on semiconductors. Semiconductors are materials which have a range of energies that their electrons are forbidden to occupy, called a “band gap”. The electrons in a semiconductor can absorb photons of light having energies greater than the band gap energy, and this property forms the basis of devices such as photovoltaic cells.

Graphene, a single atom-thick plane of graphite, is unique in that is has a bandgap of exactly zero energy; graphene can therefore absorb photons of any energy. This property makes graphene particularly attractive for absorbing very low energy photons (terahertz and infrared) which pass through most semiconductors. Graphene has another attractive property as a photon absorber: the electrons which absorb the energy are able to retain it efficiently, rather than losing energy to vibrations of the atoms of the material. This same property also leads to extremely low electrical resistance in graphene.

University of Maryland researchers exploited these two properties to devise the hot electron bolometer. It works by measuring the change in the resistance that results from the heating of the electrons as they absorb light.

Normally, graphene’s resistance is almost independent of temperature, unsuitable for a bolometer.

Here’s how the researchers solved the problem (from the news release),

So the Maryland researchers used a special trick: when bilayer graphene is exposed to an electric field it has a small band gap, large enough that its resistance becomes strongly temperature dependent, but small enough to maintain its ability to absorb low energy infrared photons.

The researchers found that their bilayer graphene hot electron bolometer operating at a temperature of 5 Kelvin had comparable sensitivity to existing bolometers operating at similar temperatures, but was more than a thousand times faster.  They extrapolated the performance of the graphene bolometer to lower temperature and found that it may beat all existing technologies.

As usual, there is more work to be done (from the news release),

Some challenges remain. The bilayer graphene bolometer has a higher electrical resistance than similar devices using other materials which may make it difficult to use at high frequencies. Additionally, bilayer graphene absorbs only a few percent of incident light.  But the Maryland researchers are working on ways to get around these difficulties with new device designs, and are confident that a graphene has a bright future as a photo-detecting material.

As for why I highlighted the passage about telescopes and the structure of the universe, our local particle physics laboratory (TRIUMF located in Vancouver, Canada) is hosting the Physics at the Large Hadron Collider (PLHC) conference this week. This is a big deal, from the 7th annual PLHC conference home page (Note: I have removed some links),

PLHC2012 is the seventh conference in the series. The previous conferences in this series were held in Prague (2003), Vienna (2004), Cracow (2006), Split (2008), Hamburg (2010) and Perugia (2011). The conference consists of invited and contributed talks, as well as posters, covering experiment and theory.

Topics at the conference

  • Beauty Physics
  • Heavy Ion Physics
  • Standard Model & Beyond
  • Supersymmetry
  • Higgs Boson

There was a June 3, 2012 public event (mentioned in my May 15, 2012 posting) featuring Rolf Heuer, Director General of CERN (European Particle Physics Laboratory) which houses the Large Hadron Collider and experiments where they are attempting to discern the structure of the universe. (I did attend Heuer’s talk and I think one needs to be more of a physics aficionado than I am.  Thankfully I had watched the Perimeter Institute’s webcast  (What the Higgs is going on?) when the big Higgs Boson announcement was made in December 2012 (mentioned in my Dec. 14, 2012 posting) and that helped.

There is of course an alternate view of the universe and its structure as presented by the story of Raven (from the Wikipedia essay [Note: I have removed a link]),

Raven steals the sun

This is an ancient story told on the Queen Charlotte Islands and includes how Raven helped to bring the Sun, Moon, Stars, Fresh Water, and Fire to the world.

Long ago, near the beginning of the world, Gray Eagle was the guardian of the Sun, Moon and Stars, of fresh water, and of fire. Gray Eagle hated people so much that he kept these things hidden. People lived in darkness, without fire and without fresh water.

Gray Eagle had a beautiful daughter, and Raven fell in love with her. In the beginning, Raven was a snow-white bird, and as a such, he pleased Gray Eagle’s daughter. She invited him to her father’s longhouse.

When Raven saw the Sun, Moon and stars, and fresh water hanging on the sides of Eagle’s lodge, he knew what he should do. He watched for his chance to seize them when no one was looking. He stole all of them, and a brand of fire also, and flew out of the longhouse through the smoke hole. As soon as Raven got outside he hung the Sun up in the sky. It made so much light that he was able to fly far out to an island in the middle of the ocean. When the Sun set, he fastened the Moon up in the sky and hung the stars around in different places. By this new light he kept on flying, carrying with him the fresh water and the brand of fire he had stolen.

He flew back over the land. When he had reached the right place, he dropped all the water he had stolen. It fell to the ground and there became the source of all the fresh-water streams and lakes in the world. Then Raven flew on, holding the brand of fire in his bill. The smoke from the fire blew back over his white feathers and made them black. When his bill began to burn, he had to drop the firebrand. It struck rocks and hid itself within them. That is why, if you strike two stones together, sparks of fire will drop out.

Raven’s feathers never became white again after they were blackened by the smoke from the firebrand. That is why Raven is now a black bird.

While it’s less poetic in tone, there is an image from the University of Maryland illustrating their graphene photodetector,

Electrons in bilayer graphene are heated by a beam of light. Illustration by Loretta Kuo and Michelle Groce, University of Maryland .

Shifting winds in the world of particle accelerators: the Fermilab

I’ve been spending more time with physicists (in my own mind, anyway) than is usual for me.  I’m sure this will pass but while I’m hot (so to speak) on the topic, here’s an item about the Fermilab in the US. From the Feb. 1, 2012 news release on EurekAlert,

In this month’s Physics World, reviews and careers editor, Margaret Harris, visits the Fermi National Accelerator Laboratory (Fermilab) to explore what future projects are in the pipeline now that the Tevatron particle accelerator has closed for good.

After 28 years of ground-breaking discoveries, the Tevatron accelerator has finally surrendered to the mighty Large Hadron Collider (LHC) at CERN [European Laboratory for Particle Physics], placing Fermilab, in some people’s mind, on the brink of disappearing into obscurity.

(I did cover some of the excitement over the Higgs Boson search at the the LHC at CERN in my Dec. 14, 2011 posting.) As for the folks at the Fermilab, they  do have plans (from the news release),

Fermilab can no longer compete with the LHC when it comes to smashing particles together at high energies, but it can look for rare interactions between particles at lower energies. In this type of experiment, the key is not a beam’s energy but its intensity: the number of particles produced per second.

Their plans include two experiments – one already being built and another in the pipeline – that will send beams of neutrinos underground to distant detectors to see how these particles change between one form and another.

More ambitious still is Project X – expected to cost between $1-2bn – which will provide intense beams of protons for experiments on neutrinos, rare decays and heavy nuclei. Outside of high-energy physics, the lab currently participates in experiments into cosmic rays, dark matter and dark energy.

One aspect,  I find particularly interesting about this news release and article is that it makes some of the positioning and jockeying for funds visible to a larger audience than is common in Canadian circles. From the news release,

One obstacle that stands in the way of Fermilab’s progression is money. With the US Congress’s budgetary process – which allocates funds one year at a time – threatening to delay projects, combined with the current economic downturn, there is cause for concern, especially for a lab currently in transition.

The other aspect I find interesting is that while the Fermilab is based in Illinois (US), the article is being published by the UK-based Institute of Physics in their Physics World journal. Is this article part of a larger public relations initiative on behalf of physicists in the UK concerned about their funding? Nassif Ghoussoub at his Piece of Mind blog notes some of the discussion currently taking place in the UK about one of its funding agencies in his Jan. 31, 2012 posting and what is sometimes called ‘basic research’.

The smallness of the Higgs mass (finding the Higgs boson)

As I noted last week (in my Dec. 6, 2011 posting), there was a big Dec. 13, 2011 announcement from CERN (European Laboratory for Particle Physics) about the Higgs boson. No, they haven’t found it but researchers believe they’ve discovered a hint of where it might be—this ‘hint’ has made international news.

For anyone who may have some questions about what exactly a Higgs boson is, here’s a video of “Fermilab scientist Don Lincoln [describing] the nature of the Higgs boson. Several large experimental groups are hot on the trail of this elusive subatomic particle which is thought to explain the origins of particle mass” (from the YouTube description),

Here’s a little more about why there’s so much excitement, from the Dec. 13, 2011 news item on Science Daily,

The Standard Model is the theory that physicists use to describe the behaviour of fundamental particles [the smallest discrete entities that make up matter and are not made up of smaller constituent bits of matter themselves] and the forces that act between them. It describes the ordinary matter from which we, and everything visible in the Universe, are made extremely well. Nevertheless, the Standard Model does not describe the 96% of the Universe that is invisible. One of the main goals of the LHC [Large Hadron Collider] research programme is to go beyond the Standard Model, and the Higgs boson could be the key.

A Standard Model Higgs boson would confirm a theory first put forward in the 1960s, but there are other possible forms the Higgs boson could take, linked to theories that go beyond the Standard Model. A Standard Model Higgs could still point the way to new physics, through subtleties in its behaviour that would only emerge after studying a large number of Higgs particle decays. A non-Standard Model Higgs, currently beyond the reach of the LHC experiments with data so far recorded, would immediately open the door to new physics, whereas the absence of a Standard Model Higgs would point strongly to new physics at the LHC’s full design energy, set to be achieved after 2014. Whether ATLAS [research group at CERN] and CMS [research group at CERN] show over the coming months that the Standard Model Higgs boson exists or not, the LHC programme is opening the way to new physics.

The search for the Higgs boson has been ongoing for some 40 or 50 years and this announcement points to a definitive answer as to its existence by late 2012.

Two groups at CERN have reported on the results of their search for the Higgs boson. From the Dec. 13, 2011 news item on physorg.com,

Two experiments at the Large Hadron Collider have nearly eliminated the space in which the Higgs boson could dwell, scientists announced in a seminar held at CERN today. However, the ATLAS and CMS experiments see modest excesses in their data that could soon uncover the famous missing piece of the physics puzzle.

The experiments revealed the latest results as part of their regular report to the CERN Council, which provides oversight for the laboratory near Geneva, Switzerland.

Theorists have predicted that some subatomic particles gain mass by interacting with other particles called Higgs bosons. The Higgs boson is the only undiscovered part of the Standard Model of physics, which describes the basic building blocks of matter and their interactions.

The experiments’ main conclusion is that the Standard Model Higgs boson, if it exists, is most likely to have a mass constrained to the range 116-130 GeV by the ATLAS experiment, and 115-127 GeV by CMS. Tantalising hints have been seen by both experiments in this mass region, but these are not yet strong enough to claim a discovery.

Scientists (Philip Schuster, Natalia Toro, and Andy Haas) at the Dec. 13, 2011 (9:30 am PST) Perimeter Institute webcast (What the Higgs is going on?), which took place a few hours after the CERN announcement, exhibited a lot of excitement liberally spiced with caution in regard to the announcement.  The webcast is available for viewing and if you’re wondering whether it’s suitable for you, here’s a description from the event webpage,

What is everything in the universe made of? What was the universe like billions of years ago?

These are eternal questions that humans have pondered throughout the ages. Today, we are on the verge of potentially making revolutionary breakthroughs in answering them.

The Large Hadron Collider (LHC) at CERN is a 27-kilometre long underground experiment located on the Swiss-French border near Geneva. It smashes subatomic particles together at vast speeds in an effort to learn more about the fundamental building blocks that make up everything around you. It is the biggest, most ambitious scientific experiment in human history.

On December 13, the LHC will announce its latest findings in its search for the last undiscovered particle in our current model of subatomic particles. This particle is the near-mythical ‘Higgs Boson’ — the particle thought to be involved in giving other particles their mass.

This educational event, geared towards high school students, teachers and the general public, will follow CERN’s announcement and discuss its findings and their background and implications in clear, accessible language.

You can view the webcast from here. The description of how scientists choose which events to measure and the process they use to define whether or not an event is significant adds to one’s appreciation of the work being done in these projects.

Jon Butterworth, a physicist who works at CERN and whose blog is one of the Guardian science blogs, wrote a limerick about it all in his Dec. 13, 2011 posting,

A physicist saw an enigma
And called to his mum “Flying pig, ma!”
She said “Flying pigs?
Next thing you’ll see the Higgs!”
He said “Nah, not until it’s five sigma!”

Five sigma is a measure of certainty. The current results have a 2.3 sigma, which is promising but the gold standard is five.

Here’s the live blog that Alok Jha, science correspondent for the Guardain, kept during the Dec. 13, 2011 announcement (excerpted from the live blog),

1.01pm: Cern’s live webcast has begun, but the seminar has yet to start. The expressions on some of the faces in the audience suggests Christmas is about to come early for the physics community.

1.02pm: Ok the seminar has started, but traffic to the webcast is obviously heavy, breaking up the transmission.

TRIUMF, Canada’s national laboratory for particle and nuclear physics, held a public seminar at 2:30 pm PST (Dec. 13, 2011) on their site at the University of British Columbia. They also have some information on their website about Canadian scientists who are involved in the CERN experiments ( from the Research Highlights page,  Physicists Smell but Don’t Yet Taste Higgs),

In a seminar held at CERN this morning and then repeated across Canada at multiple partnering institutions, the ATLAS and CMS experiments presented the status of their searches for the Standard Model Higgs boson. Finding this particle would snap in the last missing puzzle piece of the Standard Model that describes the universe at its most basic level. Tantalizing hints have been seen by both experiments in the same mass region, but these are not yet strong enough to claim a discovery. The main conclusion is that the Standard Model Higgs boson, if it exists, is most likely to have a mass in the range 115-130 GeV, excluding essentially all other hiding places.

“We are at a crossroads in our understanding of how energy gained mass and became matter in the early universe,” said Rob McPherson, spokesperson of the Canadian team working on the ATLAS project and a professor at the University of Victoria and a research scientist with the Institute of Particle Physics. “If these hints lead to a firm discovery over the coming year, we will be at the start of our investigation of the interactions that lie behind our current theories. If they are not confirmed, we will have to reject our present understanding, throw out our current theories, and start over. It is an extremely interesting time in particle physics.”

So there you have it. They think they observed something but they’re not sure, which makes for a very exciting time (they hope). While I’m not a scientist and cannot fully appreciate this moment, I can remember similar moments in my own work when something seems to be coming into focus. It isn’t my final result but it does hint at what is to come and gives me the resolve (giddy excitement for a few hours or days) I need to continue because a lot of what I do is slogging (I recognize the word play).

On a final note, it seems there was a minor crisis during the presentations in CERN. Lily Asquith, at the Argonne National Laboratory [Chicago, US] writes about it on Jon Butterworth’s blog (Guardian science blogs) in her Dec. 14, 2011 posting,

We have a large windowless meeting room at Argonne with an old-fashioned pull-down projector screen. When I walked in there yesterday morning for the CERN videolink I was greeted by 30-odd ashen-faced physicists. Oh lord, I thought, there has been a terrible accident. …

There stands Fabiola Gianotti [particle physicist in charge of the ATLAS experiment in CERN], our queen, looking fabulous and doing a typically faultless job of presenting a complicated and not-yet-conclusive measurement; taking the work of hundreds of nutty, stressed-out physicists and breathing sense into it.

But I hear only one thing as I walk the corridors of my lab and of the internet:

comic sans [the font Gianotti used for the text in her presentation]

– why‽

Do we need to add an additional systematic uncertainty to all our measurements based on this unwise choice of font? Are any of our results still valid? What does this mean for the speed of light?

Please do read the rest of Asquith’s very amusing piece. Who knew physicists are so concerned with fonts?

For the curious, here’s a sample of Comic Sans along with a history excerpt from its Wikipedia essay,

Microsoft designer Vincent Connare says that he began work on Comic Sans in October of 1994. Connare had already created a number of child-oriented fonts for various applications, so when he saw a beta version of Microsoft Bob that used Times New Roman in the word balloons of cartoon characters, he decided to create a new face based on the lettering style of comic books he had in his office, specifically The Dark Knight Returns (lettered by John Costanza) and Watchmen (lettered by Dave Gibbons).

So the font was originally designed for children and comic books, eh?

London (UK) Science Festival opens Oct. 19, 2011

Being held from Oct. 19 – 26, 2011, the first London Science Festival will be featuring the Festival of the Spoken Nerd; Bridget, Astrium’s Mars rover prototype for the European ExoMars Project; Field of Jeans, London College of Fashion and Royal Society of Chemistry science-fashion installation; The Big Bang Machine: Engineering the LHC [Large Hadron Collider]; a special screening of the movie, Inception; and more.

You can get details about these events and others here in this roundup. The London Science Festival website lists each event with its date and booking information.

Arts residency collides with CERN and Ars Electronica

Prix Ars Electronica Collide@CERN Artists Residency Prize is inviting submissions.  CERN, for anyone unfamiliar with the institution,  is the European Laboratory for Particle Physics which is home to the Large Hadron Collider (LHC). From the Arts@CERN page describing the residency in Geneva (Switzerland),

CERN’s latest experiment colliding the minds of scientists with the imagination of artists opens with the Prix Ars Electronica Collide@CERN prize in digital arts. This is the first prize to be announced as part of the new Collide@CERN Artists Residency 3 year programme initiated by the laboratory.

This new prize marks a 3 year science/arts cultural partnership and creative collaboration between CERN and Ars Electronica – which originated with CERN’s cooperation with Origin – the Ars Electronica Festival in 2011.

We are looking for digital artists who will be truly inspired by CERN, showing their wish to engage with the ideas and/or technology of particle physics or with CERN as a place of scientific collaboration, using them as springboards of the imagination which dare to go beyond the paradigm. You might be a choreographer, performer, visual artist, film maker or a composer – what you all have in common is that you use the digital as the means of making your work and/or the way of presenting it.

You need to register (here) to make a submission. Multiple submissions can be made by either the artist(s) or other interested party.

Full details can be found at the Ars Electronica ‘CERN artists residency’ page,

The aim of the Prix Ars Electronica Collide@CERN prize is to take digital creativity to new dimensions by colliding the minds of scientists with the imaginations of artists. In this way, we seek to accelerate innovation across culture in the 21st century – creating new dimensions in digital arts, inspired by the ideas, engineering and science generated at CERN, and produced by the winning artist in collaboration with the transdisciplinary expertise of the FutureLab team at Ars Electronica.

The residency is in two parts – with an initial two months at CERN, where the winning artist will have a specially dedicated science mentor from the world famous science lab to inspire him/her and his/her work. The second part will be a month with the Futurelab team and mentor at Ars Electronica Linz with whom the winner will develop and make new work inspired by the CERN residency. From the first meeting between the artists, their CERN and Futurelab mentors, they will all participate in a dialogue which will be a public blog of their creative process until the final work is produced and maybe beyond. In this way, the public will be able to join in the conversation.

This final work will be showcased both at the Globe of Science and Innovation at CERN, in Geneva and at the Ars Electronica Festival in Linz. It will also be presented in the Prix Ars Electronica’s “CyberArts” catalogue.

It’s a pretty exciting opportunity that includes a prize of 10,000 Euros plus accommodation and travel.

We are looking for digital artists who will be truly inspired by CERN, showing their wish to engage with the ideas and/or technology of particle physics and with CERN as a place of scientific collaboration, using them as springboards of the imagination which dare to go beyond the paradigm. You might be a choreographer, performer, visual artist, film maker or a composer – what you all have in common is that you use the digital as the means of making your work and/or the way of presenting it.

Here’s a checklist for the submission(s),

  • A personal testimony video which introduces the artist who describes why and how this residency will inspire new work (Up to 5 min.)
  • An outline of a possible concept/idea which the artist wishes to pursue at CERN and Futurelab
  • A draft production plan with costings and timeline
  • A selected portfolio of work which showcases work the artist is proud of

The submission platform was opened Sept. 15, 2011 and will close on October 31, 2011. For anyone working up till the last second to make a submission, you may want to keep in mind the timezones. I assume the submission platform is being operated out of Switzerland. Good luck!