The Sudbury Neutrino Observatory (SNO) and the new SNOLAB

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The Sudbury Neutrino Observatory (SNO) and the new SNOLAB Art McDonald Queen s University, SNO Institute Director Sudbury City Council, June 13, 2007

With the Sudbury Neutrino Observatory (SNO) and the new SNOLAB we have great new scientific opportunities in Neutrino Physics, Cosmology and Astrophysics at the lowest radioactivity underground site in the world The New SNOLAB CVRD-INCO Creighton Mine SNO

Why Go Underground? Other astronomers go to the tops of mountain peaks or up in satellites to observe the heavens We go deep underground to exclude high energy particles (Cosmic Rays) from outer space that would otherwise make our detector glow like the Northern Lights. Neutrinos and Dark Matter particles pass through the rock unimpeded. By going deep underground and creating ultra-clean conditions, we can measure very rare processes (few events per year): - NEUTRINOS from the SUN - DARK MATTER particles left over from the BIG BANG - VERY RARE RADIOACTIVE DECAY, unobserved to date that will help us to understand how the Universe evolved and why we are all made of matter, rather than anti-matter. SNOLAB: the lowest radioactivity laboratory on Earth, the world s scientists want to site 4 or 5 projects, each worth more than $10 0 million.

SNO: One million pieces transported down in the 3 m square mine cage and re-assembled under ultra-clean conditions. Over 60,000 Showers to date and counting

In the midst of all this technology we should not forget the human element There was one exception on showers, where we carefully vacuumed and INCO built a special stainless steel rail car for clean transportation.

How to tell a neutrino from a hole in the ground Neutrinos, along with electrons and quarks are the basic building blocks of nature. They are produced in large numbers by the nuclear reactions that power the Sun and can pass through virtually anything, so we can use them to study the Sun in great detail. Using Canadian heavy water reserves and the best underground location in the world, SNO has determined that neutrinos have mass. That changes the laws of physics at the most basic level. SNO has also confirmed that the models of energy generation in the Sun are very accurate. We now know that Neutrinos do not have enough mass to be the Dark Matter Particles making up 25% of the Universe. So what are these Dark Matter Particles left over from the Big Bang? SNOLAB will be the best pl acei nt hewor l dt ost udyt hem..

The SNO results have been very well received by the scientific community and have generated a large amount of further theoretical and experimental work For much of 2003, the three SNO papers occupied the top three places for citations of papers in all of physics. Over 3000 so far. SNO i s Text booksci ence changi ngt hebasi cl awsofphysi cs: See the latest Ontario and Alberta Grade 12 physics textbooks. SNO has portrayed Sudbury & Canadian science very well internationally: Science magazine, Discover magazine, American Inst. of Physics: SNO results rated in top 2 scientific discoveries of 2002. News articles on SNO have appeared in major newspapers all over the world: Globe and Mail, National Post, NY Times, Washington Post, The Guardian, CBC, CTV, Discovery and there was a full edition of ABC Nightline on SNO results.

Discover magazine January 2003

For more details: SCIENTIFIC AMERICAN Jan. 2006 Or our web site: www.sno.phy.queensu.ca

Recognition for participants in the SNO project - Benjamin Franklin Medal in Physics - Order of Canada - NSERC - John C. Polanyi Prize to entire SNO team - NSERC Gerhard Herzberg Gold Medal - Canadian Association of Physics Gold Medal - 7 Honorary Degrees to SNO scientists - 3 Fellows of the Royal Society of Canada - Tom Bonner Prize of the American Physical Society - Russia Bruno Pontecorvo Prize - UK Rutherford Medal - 1 Fellow of the UK Royal Society - 5 Fellows of the American Physical Society - Membership in the US Academy of Science - 7 Canada Research Chairs including one soon at Laurentian - Over 130 Graduate degrees (Ph. D and M. Sc.) - Training for over 400 undergraduates - Development of a highly skilled workforce: over 30 workers in Sudbury

Economic Impact - Over $150 million expended to date, including over $ 120 million capital construction and over $ 30 million operating costs. - Over 30 full-time jobs in a high-tech enterprise with the prospect for future increases as SNOLAB develops. - Future operating budget of over $ 6 million per year for 15 to 20 years at least. - Future SNOLAB experiments involving 4 or 5 major projects with over 60 international participants each and capital construction in excess of $10 million each: Significant local economic impact. - Name recognition of Sudbury across the world in association with the highest level of achievement in science and technology. - A strong education program in partnership with Laurentian University and other Sudbury institutions. - A strong outreach program in partnership with Science North.

What will we study with SNOLAB experiments? With SNOLAB experiments we intend to measure topics as fundamental as we did with the original SNO experiment: SNO+ (existing SNO detector with heavy water replaced with liquid scintillator for more light output): - Neutrinos from the Earth: Why is it 40 degrees at the 6800 ft level? - Lower energy neutrinos from the Sun to understand it in more detail. PICASSO, DEAP/CLEAN, LUX, SUPER-CDMS: - What are the DARK MATTER PARTICLES making up 25% of the Universe and fundamental to its evolution? EXO, MAJORANA, SNO+: - Neutrino-less Double Beta Decay ( a very slow, rare radioactivity): Why is our Universe mainly made of MATTER? Where is the anti-matter? HALO, SNO+: - Neutrinos from collapsing stars: Supernovae.

Initial Suite of Experiments Cryopit: 1 or 2 of DEAP/CLEAN LUX Large EXO, CLEAN 1-ton GERDA/MAJORANA Cube Hall:1 or 2 of 2008: DEAP/CLEAN 2009: PICASSO-III 2009: LUX (1 ton Xe) Future:HALO SNO Utility Rm: Now: PICASSO-IB (2kg) Ladder Labs: 2 of 2008: Super-CDMS 2008: PICASSO IIB 2009: EXO-200-Gas 2009: Majorana Shows Existing SNO area SNO Cavern: 2008/9: SNO+ SNO Control Rm: 2007: DEAP-1 Phase 1: Excavated, in use in 2008 Phase 2: Funding complete soon, Occupied in early 2009

THANK YOU SUDBURY! We greatly appreciate the strong support we have received from all of the Sudbury community over many years. You have helped greatly to make all of this possible. We look forward to working with you for many years in the future to make SNOLAB another local and international success for all of us.