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Nov. 23, 2005 – Altair Nanotechnologies Inc. (NASDAQ: ALTI) announced that it has been awarded a $250,000 grant from the Indiana Advanced Energy Technologies Program (AETP) initiative. The Indiana Energy Group, a division of the Office of Lieutenant Governor Becky Skillman, administers the program.

The Indiana Energy Group has awarded six grants on a competitive basis from this program during 2005. The grant funding must be used to manufacture products containing products or materials not currently in the U.S. market, and that are above industry standard in terms of energy efficiency (e.g. hybrid automobiles, fuel cells) and/or incorporate an innovative technology, such as nanotechnology, that allows the product to save energy.

“The grant funding will assist Altair to purchase and install production and test equipment for product application development in its development and manufacturing center in Anderson, Indiana,” said Altair President and CEO Alan Gotcher in a prepared statement. “The center is open and pilot manufacturing is anticipated to begin by the end of the first quarter of 2006.”

Nov. 22, 2005 – Lumera Corp. announced that it has signed a contract with the Pennsylvania State University Electro-Optics Center for development of polymer based electro-optic modulators for the detection of passive radiation ranging from 30Ghz to 10THz.

Lumera will deliver materials and modulators to the center under the contract, which was valued at approximately $400,000. Lumera says its polymeric electro-optic materials show advantages for broadband RF signal transmission, up to the terahertz region, due to their ability to achieve large bandwidth with low driving voltages.

Nov. 18, 2005 – Jenoptik Mikrotechnik GmbH, a maker of hot embossing/imprinting tools, announced the introduction of its HEX 04 system.

The system is designed to provide the user with flexibility in the high precision molding of polymer parts which contain micro and nanoscale features, including those with high aspect ratios.

In particular, the company says, the system was created to provide an effective solution to large volume applications like optical gratings, microfluidic chips and wafer-scale packaging which require highly automated/high throughput manufacturing systems.

Nov. 17, 2005 – Bruker AXS Inc. announced the closing of two acquisitions in the X-ray microanalysis market.

On October 14 and October 26, Bruker had announced agreements for the acquisition of Roentec AG and the microanalysis business of Princeton Gamma-Tech Instruments Inc., respectively. Bruker announced it has closed on the two transactions and has now combined the two units into a newly created Bruker AXS Microanalysis business unit.

The company also said it has integrated the management teams of both microanalysis units, and announced the appointments of Thomas Schuelein, previously with Roentec, as vice president for microanalysis and Douglas Skinner, previously with PGT, as assistant vice president for microanalysis.

Applications of microanalysis include nanotechnology and advanced materials research, as well as materials analysis and quality control.

Nov. 17, 2005 – US Modular, a designer and manufacturer of personal memory and storage products, announced a deal with QuantumSphere Inc. to develop high-performance batteries for consumer electronic equipment.

QuantumSphere is a manufacturer of metallic nanopowders for applications in aerospace, defense, energy, electronics and other markets demanding advanced material applications.

The two Irvine, Calif.-based companies will work together to develop high-performance, small form-factor, low-cost universal portable batteries for laptops, MP3 players, cell phones, and the next generation of media players.

Nov. 17, 2005 – Applied Biosystems Group, an Applera Corp. business, and joint venture partner MDS Sciex, a division of MDS Inc., announced the launch of the Tempo Liquid Chromatography systems.

The systems are designed to provide integrated front-end solutions for researchers conducting proteomics, biomarker and drug discovery studies. High pressure liquid chromatography, a separation step that purifies and resolves compounds in complex matrices, is often performed prior to mass spectrometry analysis.

Nov. 17, 2005 – MFIC Corp. announced that Eric Walters and George Uveges have been appointed to its board of directors. Walters will serve as the chairman of the audit committee, while Uveges also joins that committee.

Walters is vice president and chief financial officer of CardioTech International Inc. Uveges is the founder and principal in the Tallwood Group, an angel investing firm that provides financial and management advisory services in addition to investment capital.

The company says both Walters and Uveges qualify as financial experts as defined under Section 407 of the Sarbanes-Oxley Act. Edward Paslawski is stepping down from the audit committee chair position and will exit MFIC’s board after the end of the year.

MFIC, through its microfluidics division, provides its Microfluidizer materials processing equipment to the biotechnology, pharmaceutical, chemical, cosmetics/personal care, and food industries.

By Dietram Scheufele
Small Times Guest Columnist

Nov. 16, 2005 – History, Nietzsche said, has a tendency to repeat itself. And he was right. The debate about public understanding and public acceptance of nanotechnology is just another example. Academics in the natural and social sciences struggle to figure out how to get the public more involved in scientific decision-making and how to make them more informed about nanotechnology. And often they tend to forget the lessons we learned from similar issues in the past, such as the debates surrounding genetically modified organisms and stem cell research.

One of the main lessons from these issues, of course, is that the public does not think like scientists. Michael J. Fox, Ron Reagan and the Christian Coalition have probably had a more profound influence on public opinion about stem cell research than any scientific fact. And based on all we know about how people gather and process information, things won’t change anytime soon.

Nonetheless, the predominant discourse about how to interpret and inform public opinion about nanotechnology seems to be focused on traditional scientific literacy models. Literacy models are based on the assumption that there are relatively low levels of information about scientific issues among the general public and that this widespread lack of information is — at least in part — responsible for low levels of public support for these emerging technologies. The concern for scientists, based on literacy models, is therefore to increase levels of knowledge among the public.

Of course, there’s an inherent fallacy underlying this reasoning. Let me illustrate my point with an example. Scientists frequently travel by plane. Do they have an in-depth understanding of the air traffic control system, of aeronautical engineering, or of servicing commercial airliners? Probably no. So how do they make decisions about the risks of flying or about regulations for commercial airlines? Some people choose large airlines rather than smaller, low-cost carriers. Many trust regulators to make air travel safer. And, in the end, we all rely to some degree on heuristics or mental shortcuts to make a decision under some condition of uncertainty.

Similarly, citizens use heuristics when dealing with emerging technologies. They do not try to understand all the complexities of an issue such as nanotechnology, and they do not try to be amateur scientists. In fact, it would make little sense for them to do so. Political scientist Sam Popkin calls this behavior “low-information rationality.” It makes sense for people to not use all available information, he argues, but to use only the information that is most easily available to them.

In short, we can’t make the public think like scientists, as much as proponents of literacy models like to think that we can. People rely on heuristics (in addition to information) to help them make decisions about issues such as nanotech. And they have to, at least to some degree, since they lack the scientific expertise or the time to develop a comprehensive understanding of every scientific issue that hits the policy arena.

In work forthcoming in the Journal of Nanoparticle Research and Science Communication my colleagues and I explored many of these shortcuts in greater detail. I want to highlight one here that illustrates the competing influences of information and heuristics. We conducted a national phone survey in 2004 to assess respondents’ levels of information about nanotechnology and their support for the new technology. This produced four distinct segments: informed supporters of nanotech, informed opponents, uninformed supporters and uninformed opponents.

We also gauged how much guidance religion played in respondents’ lives, averaged for each segment. Both informed and uninformed supporters reported lower levels of religiosity than the two segments of opponents. Second, and more importantly, the segment reporting the highest levels of religiosity were the informed opponents, i.e., the people who were generally opposed to nanotechnology, even though they were significantly more informed about the issue than more than half of the population.

This shows how information and heuristics clash for informed opponents of nanotech. And it is reasonable to assume that the unusually high levels of religiosity in this segment serve as a heuristic for opposing nanotech in spite of understanding much of the science behind it.

As we’re beginning to engage the public in decision making about nanotechnology, it becomes more and more important for scientists and science journalists to develop a better understanding of how public opinion is formed and of how individuals make sense of emerging technologies. This includes not only the kinds of information the public is looking for, but also how this information should be presented to be most useful to the public. The goal of these efforts should not be to make citizens think like scientists, but rather to make them understand how scientists gather knowledge and reach scientific conclusions.

This brings us back to the example of a scientist getting on an airplane. His or her decision about boarding a plane is similar to the judgments that a citizen makes about nanotechnology, and it involves similar assumptions: an understanding of the uncertainties involved, some knowledge about the technical aspects, confidence in the relevant regulatory bodies, and ultimately the notion that the benefits outweigh the risks.

Dietram Scheufele is a professor in the School of Journalism & Mass Communication and the Department of Life Sciences Communication at the University of Wisconsin-Madison. He can be reached at [email protected].

Nov. 16, 2005 – Accelrys Inc. (NASDAQ:ACCL), a San Diego maker of scientific modeling software, announced the launch of the Accelrys NanoBiology Initiative.

The goal of the initiative is to accelerate the development of computational modeling and informatics software that will enable scientists and engineers to apply nanotechnology to key areas of biological research, including diagnostics, biosensing, drug delivery and biomaterial design. By fostering collaboration between scientists and engineers and bridging the gap between materials science and life science, the company says the new initiative will aim to enhance nanobiology R&D, extending the use of nanotechnology into new areas of research.

A scientific advisory committee will be chaired by Leroy Hood, president and co-founder of the Institute for Systems Biology and a leading proponent of biological applications of nanotechnology.

In separate news, Accelrys also announced a strategic relationship with Microsoft designed to meet demand for scientific software that runs on the Windows Compute Cluster Server 2003, Microsoft’s entry into the world of high-performance computing.

Nov. 15, 2005 — Polychromix Inc., a Wilmington, Mass., developer of innovative material analysis, chemical sensing and spectroscopy solutions, announced the launch of its MobiLight products, a family of long life, portable lightsource and probe devices that support a broad range of spectroscopy applications.

The release of the MobiLight family of lightsources comes a few months after Polychromix released its Near Infrared Digital Transform Spectrometer product family, which is powered by Polychromix’s MEMS technology.

The MobiLight Lightsources can be combined with any DTS Spectrometer or with other NIR/VIS spectrometers to provide a complete, portable measurement solution for lab or field applications.