scientists from around the world will join texas a&m universitys top experts in high-energy physics and astrophysics for a three-day workshop beginning friday (march 8) that will delve into dark matter the unknown substance that makes up nearly a quarter of the universe roughly three dozen dark-matter researchers from the us and around the world including england germany and japan will fly into college station for the march 8-10 dark matter workshop hosted and funded by the george p and cynthia woods mitchell institute for fundamental physics and astronomy unlocking the mystery of dark matter means unlocking the mystery of the universe an 80-year-old odyssey currently surrounded by buzz as nobel laureate samuel ting has said he will make an important announcement soon about his research into dark matter its an epic space race that texas a&m is uniquely positioned to be a key player in says high-energy theorist bhaskar dutta thanks to department of physics and astronomy researchers who are involved in every known method and international experiment (see list below) currently encompassing the high-stakes global hunt we only understand 4 percent of the universe right now said dutta interim director of mitchell institute once we know this 23 percent that is dark matter were hoping it may give us a lead into understanding the remaining 73 percent which is dark energy once we understand it all then well know the past present and future of the universe such a discovery could be impactful beyond a basic understanding of the universe dutta notes when quantum mechanics was discovered no one knew that one day youd use the microwave at home to heat up your food dutta said no one can predict during those moments of discovery where this will eventually lead once we start knowing this stuff there will be spinoffs dark matter named such because it is an unknown that does not interact with light cant be seen directly by telescopes and doesnt emit or absorb light at any significant level its not like any normal matter such as stars planets or any living or nonliving material on earth its not even a black hole the search for understanding dark matter dutta said focuses on two questions: what is it and how was it created scientists around the world are trying to answer these questions using three methods: direct detection indirect detection and a collider method in direct detection researchers wait for dark matter particles to hit a detector through indirect detection experiments search for the products of the annihilation of dark matter particles in the collider method dark matter particles are produced when protons are collided and observed as missing energy most other places are strong in a particular method dutta said texas a&m is strong in all of them theres a beautiful collaboration going on here among the theorists and the experimentalists dutta said he hopes the gathering becomes an annual event to study dark matter and trade theories within a small focused group to learn more about the mitchell institute go to http://mitchellphysicstamuedu/ for more information about the texas a&m department of physics and astronomy visit http://physicstamuedu/ # # # # # # # # # # following are brief descriptions for some of the major international dark matter collaborations featuring texas a&m physicists that will be represented at the mitchell institutes march 8-10 dark matter workshop: alpha magnetic spectrometer (ams-02) experiment this galactic $15 billion endeavor involving 500 physicists from 16 countries and nearly 60 institutions worldwide centers on a state-of-the-art particle physics detector mounted on the international space station (iss) in 2009 when it began a decade-long mission in the unique environment of space to record and measure data from high-energy cosmic rays described as the hubble telescope for charged particles in the universe ams is equipped with a spectrometer similar in capability to the ones operating at cerns large hadron collider but different because it is in orbit well beyond the shielding effects of earths atmosphere collider detector at fermilab (cdf) experiment the texas a&m collider group was a founding member institution of the cdf experiment at fermilab in the early 1980s cdf is one of the two fermilab tevatron experiments that sat at the high-energy frontier for the last 20 years colliding high-energy protons and anti-protons it discovered the heaviest quark the top quark in the mid-1990s and in july 2012 played an important role in the one of the worlds most tangible particle physics discoveries to date: evidence of a higgs boson-like particle it continues to play an active role in the search for dark matter and other new particles compact muon solenoid (cms) experiment in 2005 texas a&ms experimental collider high energy group brought its decades of combined collider expertise to the collider muon solenoid (cms) collaboration one of the two flagship large hadron collider (lhc) experiments seeking to validate long-held theories of particle physics and to identify the tiniest particles in the universe along with their critical properties beyond groundbreaking work that went into last summers higgs-like particle discovery as well as the initial design and construction of cms the texas a&m team continues to provide research and development vital to the lhcs and overall disciplines future today the cms collaboration is roughly 25 members strong based in college station as well as at cern and at fermilab the us headquarters for cms cryogenic dark matter search (cdms) experiment the cdms experiment located a half-mile underground at the soudan mine in northern minnesota and managed by the united states department of energys fermi national accelerator laboratory features more than 50 scientists from 18 international institutions and has been searching for dark matter since 2003 the experiment uses very sophisticated detector technology and advanced analysis techniques to enable cryogenically cooled (almost absolute zero temperature at -460 degrees f) germanium and silicon targets to search for the rare recoil of dark matter particles texas a&m is developing the larger more advanced detectors needed for the projects current phase dubbed the supercdms experiment large underground xenon (lux) experiment this experiment seeks to find the elusive dark matter particle using the element xenon in liquid form to highlight the particles if they pass through state-of-the-art detector equipment assembled during the past three years within the sanford laboratory located 4 850 feet below the earths surface within the repurposed homestake gold mine in south dakotas black hills the large-scale experiment which features 7 000 kilograms (7 tons) of xenon versus the typical 350 found in most labs is set to begin collecting data for roughly a year once the xenon is purified and is expected to conclude after subsequent analysis and verification by late 2015 -atm- watch this you tube video by minutephysics which does a nice job explaining the basics of dark matter: contact: vimal patel (979) 845-7246 or vpatel@sciencetamuedu or dr bhaskar dutta (979) 845-5359 or dutta@physicstamuedu