[Editors] MIT Research Digest, August 2008

Elizabeth Thomson thomson at MIT.EDU
Tue Aug 5 11:32:46 EDT 2008


For Immediate Release
TUESDAY, AUG. 5, 2008

Contact: Elizabeth A. Thomson, MIT News Office
T. 617-258-5402   E.: thomson at mit.edu

======================================
MIT Research Digest, August 2008
======================================


A monthly summary of recent research advances
at the Massachusetts Institute of Technology.

Latest research news: http://web.mit.edu/newsoffice/research.html
RSS -- research feed: http://web.mit.edu/newsoffice/mitresearch-rss.xml

IN THIS ISSUE: Simple Insulation * Solar Windows * Fine Lines
Alzheimer’s Treatment * iShoe Insole * Touch-Based Illusion
Spinal Cord Stem Cells * Visualizing Mutations * Protective Armor
Protecting Patient Privacy * Solar at Night * Underwater Breathing
Satellite Communications * Adapting to Climate Change
Superconductivity Riddle * Nature-Nurture Link * Climate-Change Policy
Cellular ‘Parts List’ * Beyond the Solar System * Digitally Fabricated  
House
Reprogrammed Cells * Detecting Novel Particles

SIMPLE INSULATION
Around the world, an estimated one billion people live in houses whose  
roofs are nothing more than thin sheets of corrugated metal. These  
houses become unbearably hot in the summer, freezing in the winter  
(especially in high-altitude regions), and deafeningly noisy when  
heavy rains pound on the bare metal. A group of students from MIT and  
elsewhere think they have found a way to fix these problems all while  
generating jobs and income for local people. This summer, they're  
putting their ideas to the test. The basic concept is straightforward:  
Use locally available agricultural waste, such as straw, held together  
with a binder made of local resins, to make insulating panels that can  
be installed right under the existing corrugated metal panels. The  
panels, based on designs by MIT faculty and students from the Building  
Technology lab, can be manufactured locally, providing a ready-made  
way for local people to create businesses that will use readily  
available materials, provide an inexpensive product to meet a major  
local need, and keep the profits in the community. The concept grew  
out of a class project last fall by MIT graduate student Zehra Ali,  
along with Emmanuel Arnaud of the Kennedy School of Government and  
Monica Le of the Harvard School of Public Health (who had both cross- 
registered into the MIT class). The three were taking Developmental  
Entrepreneurship, taught by MIT professor Alex (Sandy) Pentland and  
research fellow Joost Bonsen.
PHOTO AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/itw-insulation-0701.html


SOLAR WINDOWS
Imagine windows that not only provide a clear view and illuminate  
rooms, but also use sunlight to efficiently help power the building  
they are part of. MIT engineers report a new approach to harnessing  
the sun's energy that could allow just that. The work, reported in a  
July issue of Science, involves the creation of a novel "solar  
concentrator." "Light is collected over a large area [like a window]  
and gathered, or concentrated, at the edges," explains Marc A. Baldo,  
leader of the work and the Esther and Harold E. Edgerton Career  
Development Associate Professor of Electrical Engineering. As a  
result, rather than covering a roof with expensive solar cells (the  
semiconductor devices that transform sunlight into electricity), the  
cells only need to be around the edges of a flat glass panel. In  
addition, the focused light increases the electrical power obtained  
from each solar cell "by a factor of over 40," Baldo says. Because the  
system is simple to manufacture, the team believes that it could be  
implemented within three years--even added onto existing solar-panel  
systems to increase their efficiency by 50 percent for minimal  
additional cost. That, in turn, would substantially reduce the cost of  
solar electricity. This work was supported by the DOE and the NSF.
PHOTOS, VIDEO, GRAPHIC AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/solarcells-0710.html


FINE LINES
MIT researchers have achieved a significant advance in nanoscale  
lithographic technology, used in the manufacture of computer chips and  
other electronic devices, to make finer patterns of lines over larger  
areas than have been possible with other methods. Their new technique  
could pave the way for next-generation computer memory and integrated- 
circuit chips, as well as advanced solar cells and other devices. The  
team has created lines about 25 nanometers (billionths of a meter)  
wide separated by 25 nm spaces. For comparison, the most advanced  
commercially available computer chips today have a minimum feature  
size of 65 nm. Intel recently announced that it will start  
manufacturing at the 32 nm minimum line-width scale in 2009, and the  
industry roadmap calls for 25 nm features in the 2013-2015 time frame.  
The MIT team includes Mark Schattenburg and Ralf Heilmann of the MIT  
Kavli Institute of Astrophysics and Space Research. Their results have  
been accepted for publication in the journal Optics Letters and were  
recently presented at the 52nd International Conference on Electron,  
Ion and Photon Beam Technology and Nanofabrication.
PHOTOS AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/nanochips-0708.html


ALZHEIMER’S TREATMENT
An Alzheimer's treatment based on MIT research has shown promise in  
its first clinical trials, according to results announced July 29 at  
the 2008 Alzheimer's Association International Conference on  
Alzheimer's Disease. The results indicate that Souvenaid, a nutrient- 
rich drink made by French food-products company Danone (known in the  
U.S. as Dannon), may offer a new option in the management of patients  
with mild Alzheimer's disease. The new clinical study, performed by  
Philip Scheltens of the Alzheimer Center of the VU University Medical  
Centre, Amsterdam, and sponsored by Danone Research, assessed the  
affects of the nutritional supplements in a randomized, double-blind,  
controlled study of 212 patients with mild Alzheimer's. The  
investigators found a statistically significant benefit in mild  
Alzheimer's patients on the delayed verbal memory task in a group  
receiving the treatment, and also a significant effect in the subgroup  
of very mild patients. The concept behind the treatment, a cocktail of  
three dietary supplements normally found in the bloodstream, was  
developed by MIT's Richard Wurtman, the Cecil H. Green Distinguished  
Professor of Neuropharmacology.
MORE: http://web.mit.edu/newsoffice/2008/alzheimers-humans-0729.html


ISHOE INSOLE
Your grandmother might have little in common with an astronaut, but  
both could benefit from a new device an MIT graduate student is  
designing to test balancing ability. The iShoe insole could help  
doctors detect balance problems before a catastrophic fall occurs,  
says Erez Lieberman, a graduate student in the Harvard-MIT Division of  
Health Sciences and Technology who developed the technology as an  
intern at NASA. Falls among the elderly are common and can be deadly:  
In 2005, nearly 300,000 Americans suffered hip fractures after a fall,  
and an average of 24 percent of hip-fracture patients aged 50 and over  
die in the year following their fracture, according to the National  
Osteoporosis Foundation. Lieberman is now testing the iShoe technology  
in a small group of patients. The current model is equipped to  
diagnose balance problems, but future versions could help correct such  
problems, by providing sensory stimulation to the feet when the wearer  
is off-kilter. "By doing that we can replace the sense and thus  
improve people's balance," Lieberman says. Lieberman and other iShoe  
team members have applied for a patent on the technology, to be  
jointly held by MIT, Harvard and NASA.
PHOTOS AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/i-shoe-0716.html


TOUCH-BASED ILLUSION
Anyone who has seen an optical illusion can recall the quirky moment  
when you realize that the image being perceived is different from  
objective reality. Now, a team of scientists from MIT, Harvard and  
McGill has designed a new illusion involving the sense of touch, which  
is helping to glean new insights into perception and how different  
senses--such as touch and sight--work together. Ambiguous visual  
images are fascinating because it is often difficult to imagine seeing  
them any other way--until something flips within the brain and the  
alternative perception is revealed. This phenomenon, known as  
perceptual rivalry, is of great interest to neuroscience. Because  
rivalrous illusions produce changes in perception that are independent  
of changes in the stimulus itself, they may help to understand how the  
brain gives rise to conscious experience. "The most familiar illusions  
involve vision," explains Christopher Moore, a principal investigator  
at the McGovern Institute for Brain Research at MIT and an assistant  
professor in MIT's Department of Brain and Cognitive Sciences. "But  
we're interested in discovering general principles of perception, and  
we wanted to see whether similar illusions can occur in the tactile  
domain." Moore is senior author of a paper on the new illusion  
published on the Current Biology web site in July. This work was  
funded by the National Health and Medical Research Council of  
Australia, the U.S. Department of Defense, McGill University, the  
National Sciences and Engineering Research Council of Canada, the  
McGovern Institute for Brain Research at MIT and the Mitsui Foundation.
MORE: http://web.mit.edu/newsoffice/2008/touch-0717.html


SPINAL CORD STEM CELLS
A researcher at MIT's Picower Institute for Learning and Memory has  
pinpointed stem cells within the spinal cord that, if persuaded to  
differentiate into more healing cells and fewer scarring cells  
following an injury, may lead to a new, non-surgical treatment for  
debilitating spinal-cord injuries. The work, reported in the July  
issue of the journal PLoS (Public Library of Science) Biology, is by  
Konstantinos Meletis, a postdoctoral fellow at the Picower Institute,  
and colleagues at the Karolinska Institute in Sweden. Their results  
could lead to drugs that might restore some degree of mobility to the  
30,000 people worldwide afflicted each year with spinal-cord injuries.  
This study was supported by the Swedish Research Council, the Swedish  
Cancer Society, the Foundation for Strategic Research, the Karolinska  
Institute, EuroStemCell and the Christopher and Dana Reeve Foundation.
IMAGES AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/spine-0721.html


VISUALIZING MUTATIONS
MIT biological engineers have developed a new imaging system that  
allows them to see cells that have undergone a specific mutation. The  
work, which could help scientists understand how precancerous  
mutations arise, marks the first time researchers have been able to  
pinpoint the number and location of mutant cells--cells with a  
particular mutation--in intact tissue. In this case, the researchers  
worked with mouse pancreatic cells. "Understanding where mutations  
come from is fundamental to understanding the origins of cancer," said  
Bevin Engelward, associate professor of biological engineering, member  
of MIT's Center for Environmental Health Sciences, and an author of a  
paper on the work appearing in a July online edition of the  
Proceedings of the National Academy of Sciences. The research was  
funded by the NIH, the DOE and the Singapore-MIT Alliance.
IMAGE AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/mutation-0721.html


PROTECTIVE ARMOR
Scientists seeking to protect the soldier of the future can learn a  
lot from a relic of the past, according to an MIT study of a primitive  
fish that could point to more effective ways of designing human body  
armor. The creature in question is Polypterus senegalus, a fish whose  
family tree can be traced back 96 million years and who still inhabits  
freshwater pools in Africa. Unlike the vast majority of fish today, P.  
senegalus sports a full-body armored “suit” that most fish would have  
had millions of years ago. It was known that the fish’s individual  
armored scales were comprised of multiple material layers—each of them  
about 100 millionths of a meter thick. But in a U.S. Army-funded study  
carried out through the MIT Institute for Soldier Nanotechnologies and  
published in the July 27 online issue of Nature Materials, a team of  
MIT engineers unraveled exactly how the layers complement one another  
to protect the soft tissues inside the fish body—particularly from a  
penetrating biting attack. This research will help to better  
understand the relationship between a specific threat and the  
corresponding design of a protective armor, the team said. The work  
was led by Christine Ortiz, an associate professor in MIT's Department  
of Materials Science and Engineering.
PHOTOS AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/fish-armor-0727.html


PROTECTING PATIENT PRIVACY
Newly developed MIT software will help to allay patients’ fears about  
who has access to their confidential records, facilitating the use of  
that data for medical research. In the July 24 issue of the journal  
BMC Medical Informatics and Decision Making, a team of MIT researchers  
describes a computer program capable of automatically deleting details  
from medical records that may identify patients, while leaving  
important medical information intact. Patient records that are to be  
shared within the research community must have any identifying  
information removed, according to the U.S. Health Insurance  
Portability and Accountability Act (HIPAA). However, manual removal of  
identifying information is prohibitively expensive, time consuming and  
prone to error—constraints that have prompted considerable research  
toward developing automated techniques for “de-identifying” medical  
records. “We’ve developed a free and open-source software package to  
allow researchers to accurately de-identify text in medical records in  
a HIPAA-compliant manner,” said Gari D. Clifford, a principal research  
scientist in the Harvard-MIT Division of Health Sciences and  
Technology (HST) who led the work with Principal Investigator Roger G.  
Mark, a professor in HST and MIT’s Department of Electrical  
Engineering and Computer Science. The work was funded by the National  
Institute of Biomedical Imaging and Bioengineering.
MORE: http://web.mit.edu/newsoffice/2008/robo-censor-0723.html


SOLAR AT NIGHT
In a revolutionary leap that could transform solar power from a  
marginal, boutique alternative into a mainstream energy source, MIT  
researchers have overcome a major barrier to large-scale solar power:  
storing energy for use when the sun doesn’t shine. Until now, solar  
power has been a daytime-only energy source, because storing extra  
solar energy for later use is prohibitively expensive and grossly  
inefficient. The MIT researchers have hit upon a simple, inexpensive,  
highly efficient process for storing solar energy. Requiring nothing  
but abundant, non-toxic natural materials, this discovery could unlock  
the most potent, carbon-free energy source of all: the sun. “This is  
the nirvana of what we’ve been talking about for years,” said Nocera,  
the Henry Dreyfus Professor of Energy at MIT and senior author of a  
paper describing the work in the July 31 issue of Science. The new  
process allows the sun’s energy to be used to split water into  
hydrogen and oxygen gases. Later, the oxygen and hydrogen may be  
recombined inside a fuel cell, creating electricity to power your  
house or your electric car, day or night. The key component in the  
process is a new catalyst that produces oxygen gas from water; another  
catalyst produces valuable hydrogen gas. The new catalyst works at  
room temperature, in neutral pH water, and it’s easy to set up, Nocera  
said. This project was funded by the NSF and by the Chesonis Family  
Foundation.
PHOTOS, GRAPHIC, VIDEO AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/oxygen-0731.html


UNDERWATER BREATHING
Hundreds of insect species spend much of their time underwater, where  
food may be more plentiful. MIT mathematicians have now figured out  
exactly how those insects breathe underwater. By virtue of their  
rough, water-repellent coat, when submerged these insects trap a thin  
layer of air on their bodies. These bubbles not only serve as a finite  
oxygen store, but also allow the insects to absorb oxygen from the  
surrounding water. “Some insects have adapted to life underwater by  
using this bubble as an external lung,” said John Bush, associate  
professor of applied mathematics and a co-author of a paper on the  
work in the Aug. 10 issue of the Journal of Fluid Mechanics. Thanks to  
those air bubbles, insects can stay below the surface indefinitely and  
dive as deep as about 30 meters. This phenomenon was first observed  
many years ago, but the MIT researchers are the first to calculate the  
maximum dive depths and describe how the bubbles stay intact as  
insects dive deeper underwater, where pressure threatens to burst  
them. The research was funded by the NSF.
PHOTOS, VIDEO AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/underwater-0729.html


SATELLITE COMMUNICATIONS
The enhanced capabilities of a new global satellite communications  
(SATCOM) system were successfully tested recently by MIT Lincoln  
Laboratory, representing a major step forward in improving  
communications among U.S. Department of Defense commands around the  
world. Earlier this year, Lincoln Laboratory completed its portion of  
the on-orbit testing of the first Widespread Global Satellite  
Communications (WGS) system, a constellation of geosynchronous  
satellites orbiting 22,300 miles above the equator, which provides  
worldwide high-capacity military satellite communication capabilities.
PHOTO AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/lincoln-satellite-0728.html


ADAPTING TO CLIMATE CHANGE
Ten graduate students from MIT recently spent three weeks in Durban,  
South Africa, working on a project to develop an online tool that  
could help municipal governments around the world adapt to a changing  
climate. During their trip, the students concentrated on gathering  
information from representatives working in diverse municipal agencies  
and uncovering adaptation activities that are taking place in the  
course of routine work. Over the next year, that information will be  
used to develop and refine the planned tool that could aid Durban and  
other cities in initiating adaptation efforts. In their interviews and  
field trips, the students were learning "what people understood about  
climate change and current climate activities in Durban as well as  
trying to identify innovative adaptation techniques that could readily  
be adopted elsewhere," says JoAnn Carmin, associate professor of  
environmental policy and planning in MIT's Department of Urban Studies  
and Planning, who taught a class on urban climate adaptation that  
culminated in the May-June field trip to South Africa.
PHOTO AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/itw-southafrica-0722.html


SUPERCONDUCTIVITY RIDDLE
MIT physicists believe they have identified a mysterious state of  
matter that has been linked to the phenomenon of high-temperature  
superconductivity. Led by Eric Hudson, associate professor of physics,  
the researchers are exploring materials that conduct electricity with  
no resistance at temperatures around 30 degrees Kelvin above absolute  
zero. Such materials could have limitless applications if they could  
be made to superconduct at room temperature. Hudson's team is focusing  
on the state of matter that exists at temperatures just above the  
temperature at which materials start to superconduct. This state,  
known as the pseudogap, is poorly understood, but physicists have long  
believed that characterizing the pseudogap is important to  
understanding superconductivity. In their latest work, published  
online in a July issue of Nature Physics, they suggest that the  
pseudogap is not a precursor to superconductivity, as has been  
theorized, but a competing state. If that is true, it could completely  
change the way physicists look at superconductivity, said Hudson. The  
research was funded by the NSF and the Research Corporation.
IMAGE AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/super-conduct-0718.html


NATURE-NURTURE LINK
Neuroscientists at MIT's Picower Institute for Learning and Memory  
have found that a previously unsuspected set of genes links nature and  
nurture during a crucial period of brain development. The results,  
reported in a July issue of the Proceedings of the National Academy of  
Sciences, could lead to treatments for autism and other disorders  
thought to be tied to brain changes that occur when the developing  
brain is very susceptible to inputs from the outside world. Nature--in  
the form of genes--and nurture--in the form of environmental  
influences--are fundamentally intertwined during this period. "Our  
work points to how a disorder can be genetic and yet be dependent on  
the environment," said co-author Mriganka Sur, Sherman Fairchild  
Professor of Neuroscience at the Picower Institute and chair of MIT's  
brain and cognitive sciences department. "Many genes require activity  
to be expressed and make their assigned proteins. They alter their  
expression when activity is altered. Thus, we reveal an important  
mechanism of brain development that should open up a window into the  
mechanisms and treatment of brain disorders such as autism." This work  
is supported by the NIH and the Simons Foundation.
MORE: http://web.mit.edu/newsoffice/2008/missing-link-0715.html


CLIMATE-CHANGE POLICY
Long-term climate change policy in the United States and abroad is  
likely to change very slowly, warns an MIT professor who says the lack  
of future flexibility argues for stronger short-term goals to reduce  
carbon emissions. In a study in Decision Analysis, a journal of the  
Institute for Operations Research and the Management Sciences,  
Assistant Professor Mort Webster of MIT's Engineering Systems Division  
tackles the complex problem of global climate change policy with a new  
approach. Specifically, Webster's analysis incorporates the theory of  
"path dependency." In its most basic form, the theory holds that how  
something evolves in the future depends heavily on the path it was on  
in the past. Webster says that because policy-making for climate  
change involves sequences of decisions over very long time periods, it  
is possible to reduce uncertainty and revise decisions along the way.  
But political systems can exhibit path dependency, a force that makes  
large policy shifts in the future difficult and rare, so most future  
decisions may only offer relatively small, incremental changes.  
"Although staging climate change policy decisions over time would seem  
to make sense, the tendency of U.S. and international policy to change  
extremely slowly requires front-loading the painful decisions,"  
Webster says, arguing that greater near-term emissions reductions are  
needed as a hedge against long-term catastrophe.
MORE: http://web.mit.edu/newsoffice/2008/climate-path-0711.html


CELLULAR ‘PARTS LIST’
Imagine trying to figure out how your car's power train works from  
just a few of its myriad components: It would be nearly impossible.  
Scientists have long faced a similar challenge in understanding cells'  
tiny powerhouses -- called mitochondria -- from scant knowledge of  
their molecular parts. Now, an international team of researchers has  
created the most comprehensive "parts list" to date for mitochondria,  
a compendium that includes nearly 1,100 proteins. By mining this  
critical resource, the researchers have already gained deep insights  
into the biological roles and evolutionary histories of several key  
proteins. In addition, this careful cataloging has identified a  
mutation in a novel protein-coding gene as the cause behind one  
devastating mitochondrial disease. A full description of the work  
appears in a July edition of the journal Cell. This work was supported  
by the NIH.
PHOTO AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/powerhouse-0711.html


BEYOND THE SOLAR SYSTEM
The Voyager 1 and 2 spacecraft have traveled beyond the edges of the  
bubble in space where the sun's constant outward wind of particles and  
radiation slams into the interstellar medium that pervades our galaxy.  
The first scientific reports on what the Voyagers found there appears  
in a July issue of the journal Nature. The deep-space probes have now  
traveled more than 8 billion miles away from the Earth. Because they  
are leaving the solar system on paths that are about 45 degrees apart,  
the data reveals details about the shape of the bubble created by the  
solar wind: it is squashed rather than being a symmetrical sphere.  
Some of the data that revealed this boundary region comes from a set  
of magnetic field sensors developed and built at MIT back in the  
1970s. John Richardson, Principal Research Scientist at MIT's Kavli  
Institute for Astrophysics and Space Science, is a co-author of the  
two Nature papers, and John Belcher, professor of physics at MIT and  
former principal investigator for the Voyager Plasma Science  
instrument, is a co-author of one of them. The work was funded by NASA.
IMAGE AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/voyager-0707.html


DIGITALLY FABRICATED HOUSE
Larry Sass, assistant professor of computation in the MIT Department  
of Architecture, is one of five architects featured in a major show  
this summer at the Museum of Modern Art titled "Home Delivery:  
Fabricating the Modern Dwelling," which focuses on the importance of  
prefabricated and sustainable housing. Sass' project--Digitally  
Fabricated House for New Orleans--will be on view until October 20.  
The New Orleans-style "shotgun" house is alongside four other  
architects' works in a lot next to MoMA. Sass and the other architects  
are detailing their work on blogs at www.momahomedelivery.org. Based  
on research in New Orleans--including meetings with local homeowners  
and documentation of houses throughout the Garden District, the French  
Quarter, Faubourg Marigny and the Lower Ninth Ward--Sass' house is  
fabricated entirely of friction-fit components with tabs or slots for  
easy assembly, and the structure is put together solely with muscle  
and mallets, without any nails or screws or glue.
PHOTO AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/arch-sass-0703.html


REPROGRAMMED CELLS
Cells from mice created using genetically reprogrammed cells can be  
triggered via drug administration to enter an embryonic-stem-cell-like  
state without the need for further direct genetic manipulation. The  
discovery, by researchers from MIT and the Whitehead Institute for  
Biomedical Research, promises to bring new efficiencies to embryonic  
stem-cell research. The work is reported in a July issue of Nature  
Biotechnology. "This technical advancement will allow thousands of  
identical reprogrammed cells to be used in experiments," says Marius  
Wernig, one of the paper's two lead authors and a postdoctoral  
researcher in the lab of MIT biology professor and Whitehead Member  
Rudolf Jaenisch. "Using these cells could help define the milestones  
of how cells are reprogrammed and screen for drug-like molecules that  
replace the potentially cancer-causing viruses used for  
reprogramming," adds Christopher Lengner, the other lead author and  
also a postdoctoral researcher in Jaenisch's lab. The research was  
supported by the Human Frontiers Science Organization Program, the  
Ellison Medical Foundation, the Ruth L. Kirschstein National Research  
Service Award and the NIH.
MORE: http://web.mit.edu/newsoffice/2008/stem-cells-0701.html


DETECTING NOVEL PARTICLES
Nearly 20 years in the making, the largest particle accelerator in the  
world will start running in Switzerland this summer, offering  
scientists a glimpse of particles that have never been seen before.  
MIT has a team of about 40 scientists and students preparing for the  
debut of the Large Hadron Collider (LHC), which is expected to start  
up in August. Thousands of physicists from around the world are  
collaborating on the project, based at CERN, and MIT has the largest  
American university group working on one of the collider's four  
detectors, known as the CMS (compact muon solenoid) detector. Once the  
$10 billion accelerator starts up, particles will zoom around the 27- 
kilometer loop at nearly the speed of light, creating controlled  
collisions that scientists hope will reveal the elusive Higgs boson  
and other novel particles. "You don't know what you'll find behind the  
door because you've never seen it. We're going to open the door and  
step in and see what's there," says associate professor of physics  
Christoph Paus, the leader of the MIT group working on the CMS detector.
PHOTOS AVAILABLE
MORE: http://web.mit.edu/newsoffice/2008/lhc-0701.html

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