1 Astroparticle physics The European Roadmap Draft 21 November 2011
2 Illustration credits Cover: p2 & 3: p4 & 5: ASPERA/ESA/Novapix/L.Bret Map & lens: ASPERA MAGIC: R. Wagner / MPI Munich RX J : H.E.S.S /ASCA satellite GW simulation: MPI/W.Benger-ZIB Dark matter: NASA, ESA, Massey/Caltech SuperK: Kamioka obs, ICRR, Univ of Tokyo Supernova 1572: NASA Cosmic ray shower: ASPERA/Noavapix/L.Bret p6 & 7: Galaxy: Hubble Heritage/NASA Ge detectors: Edelweiss collaboration/cnrs Double-Chooz: CEA/Irfu Virgo: INFN AMS: NASA p8 & 9: Black hole: NASA/Dana Berry, SkyWorks Digital CTA: ASPERA/D. Rouable H.E.S.S: H.E.S.S collaboration Detection principle: ASPERA p10 & 11: p12 & 13: p14 & 15: p16 & 17: KM3NeT & Auger: ASPERA/A.Saftoiu LIDO: Lido Gamma ray burst: ESO/L.Calcada LAGUNA: ASPERA/A.Saftoiu ET: Einstein Telescope collaboration LISA: ESA WMAP CMB: NASA CMS detector: CERN LSST: LSST corporation Theorist: CERN Photomultipliers: Kael Hanson/NSF Gran Sasso Laboratory: INFN/Volker Steger CERN Science Advisory Committee (SAC): Ad M. van den Berg Roberto Battiston Laura Baudis Jose Bernabeu Daniel Bertrand Pierre Binetruy John Carr Enrique Fernandez Francesco Fidecaro Gilles Gerbier Andrea Giuliani Andreas Haungs Werner Hofmann Steven Kahn Uli Katz Paul Kooijman Hans Kraus Antoine Letessier-Selvon Manel Martinez Benoit Mours Lothar Oberauer Rene Ong Michał Ostrowski Sheila Rowan Subir Sarkar Stefan Schönert Günter Sigl Ion Siotis Christian Spiering (Chair) Robert Svoboda Francesco Vissani Lucia Votano Roland Walter Table of contents Did you say «astroparticle physics»? A century of exploration & discoveries > p2 > p4 Current experiments & near future upgrades > p6 CTA: the next large scale infrastructure Near future large scale infrastructures Long term & global large infrastructures > p8 > p10 > p12 Cosmology, theory & links to LHC physics > p14 Environmental activities & societal impact > p16
3 Astroparticle physics The European Roadmap 1 During the past decade, three Nobel prizes have been awarded to physicists working in areas close to astroparticle physics - solar and supernova neutrinos (2002), cosmic microwave background fluctuations (2006), and acceleration of the Universe (2011) - demonstrating the relevance and vitality of this field. After the opening of the observational window of low-energy cosmic neutrinos, high energy gamma-rays also opened a new panaroma of the Universet on the Universe. Other domains of astroparticle physics have progressed to levels of sensitivity, which make likely analogous ground breaking discoveries in the near future. In view of this remarkable progress and of the need for an increased coordination and networking on a global scale, the ASPERA Governing Board and the ApPEC steering committee have charged the common Scientific Advisory Committee (SAC) to update its 2008 European Strategy for Astroparticle Physics. The updated roadmap document of SAC has been endorsed by the above bodies. The way to the 2011 Roadmap The SAC recommendations are classified along essentially three categories: a) medium scale projects or medium scale upgrades being currently at different stages of realization and which are recommended unconditionally for realization, b) large scale projects whose construction needs to start towards the middle or the end of the current decade and c) very large infrastructures at the interface of astroparticle physics and its neighbouring disciplines: particle physics and astrophysics or cosmology. The first category includes gravitational wave advanced detectors, where a discovery in the next five years becomes highly probable and would open an entirely new window to the Universe. It also includes dark matter searches, where the WIMP hypothesis will be proven or disproven within the next 10 years, and neutrino property measurements, searching for neutrino-less double beta decay or measuring the neutrino mass via single beta decay. The second category includes the TeV gamma-ray astrophysics observatory under the name Cherenkov Telescope Array (CTA), a worldwide high priority project, aiming at a start of construction before the middle of the decade. It also includes the next generation high-energy neutrino telescope in the Mediterranean Sea (KM3NeT) and a global next-generation cosmic ray ground-based observatory following the footsteps of the Pierre Auger Observatory in Argentina. In the third category, a megatonscale detector (design study LAGUNA), with goals ranging from low-energy neutrino astrophysics to fundamental searches without accelerators (e.g. search for proton decay) and accelerator driven neutrino physics, can be developed only in a global context and clearly lies at the interface between the Astroparticle Physics Roadmap and the CERN European Strategy Update. This category also includes longer range programmes, such as the Dark Energy surveys like the recently chosen Cosmic Vision ESA satellite EUCLID or the US groundbased LSST observatory, and more advanced gravitational wave detection antennas, like the next generation Earth-bound Einstein Telescope (ET) or space-bound LISA. ET construction would start after the first detection of gravitational waves with the advanced detectors, whereas LISA relies on the success of the LISA-Pathfinder technological mission. The above projects are presented in more detail in the following pages.
4 2 Did you say «astroparticle A new field Astroparticle physics is a rapidly growing field of research emerging from the convergence of physics at the smallest and the largest scales of the universe, at the intersection of particle physics, astronomy, and cosmology. As the field develops, it is expected to open up new observing windows to explore the dark, extreme, and violent cosmos. The past two decades have seen the development of the technologies to address these questions with a dramatically increased sensitivity. For several of the questions we are at the threshold of exciting discoveries which will open new horizons. However, the high cost of frontline astroparticle projects requires international collaboration, as does the realisation of the infrastructure. Cubic-kilometre neutrino telescopes, large gamma ray observatories, Megaton detectors for proton decay, or ultimate low-temperature devices to search for dark matter particles or neutrino-less double beta decay are at the hundred million Euro scale. Cooperation is the only way to achieve the critical mass for projects which require budgets and manpower not available to a single nation, to avoid duplication of resources and infrastructure, and to keep Europe in a leading position. Bringing together the European community ASPERA members Associates Currently, about 3000 European astroparticle physicists are working in the field, in over 50 laboratories. In 2001, ApPEC (Astroparticle Physics European Coordination) was founded as an interest grouping of several European scientific agencies, in order to promote cooperation and coordination. Since 2006 it has been flanked by ASPERA, a European Union ERANET project. ASPERA is a European network of national government agencies responsible for coordinating and funding national research efforts in astroparticle physics. In 2008, a first European strategy for astroparticle physics was presented by the ASPERA roadmap committee, describing the status and desirable large infrastructures for the next decade. The process included several meetings, encompassing the whole community. Furthermore, ASPERA tries to enable interdisciplinary activities with environmental sciences, cooperation with small and medium enterprises and develops European common calls for R&D and design studies in the field of astroparticle physics.
5 physics»? W h a t w W d ar k m a tt e r? is Ha t 3 i d a r k e n E r g y? s h e r e d o c Os m i c r ay s c o me f r o m? h a T do e s T he s k y l o o k l i k e a t h i g h e s t e n er g i es? W a t i s t h e r o l e of n e u t r i n o s i n c o s mi c e v ol u t i o n? W h wha t d o neu t a b o ut t h e i r i nos t e l l n t e r i or w h a t o f i s t he Gr a v i t y? st n u s ars? a t u re o f o p r o t on s h a ve a f i n i t e l i f e - t i me? D
6 4 A century of exploration New messengers The opening of two new windows to the universe is among the spectacular successes of astroparticle physics of the last 25 years: the neutrino window (the Sun and a supernova) and the window of high-energy gamma rays. The study of cosmic neutrinos also revealed that neutrinos have a mass, with fundamental consequences for the role of these particles in cosmic evolution. Astronomers and physicists have discovered that the expansion of the Universe accelerates. Other branches of astroparticle physics have progressed to levels of sensitivity that make analogous groundbreaking discoveries likely in the near future. This applies to the detection of gravitational waves and dark matter particles, the origin of high energy cosmic rays and neutrinos, the determination of the neutrino mass or, later, the observation of proton decay and the understanding of dark energy. Violent universe: one of the two large atmospheric imaging Cherenkov telescopes of the research infrastructure MAGIC located in the Canary Islands. It is equipped with a mirror surface of 236 m 2. Below is a picture of RX J as seen through the eyes of H.E.S.S. in Namibia, showing clearly high-energy particle acceleration in the shell of this supernova remnant. Both MAGIC and H.E.S.S. probe the universe at very high energies. The discovery of gravitational waves would open a new way to study the most violent phenmonena in the cosmos. 1912: discovery of cosmic rays 1930: discovery of first source of high-energy gamma rays 1987: Neutrino detection 1956: discovery of neutrinos n 1965:
7 & discoveries 5 Caption on dark matter... This composite shows normal matter in red, dark matter as seen by indirect detection in blue and stars and galaxies in grey. Supernova 1572, known as Tycho s Supernova, is seen here as a composite picture of different images from x-rays to infrared wavelength, reflecting the potential of multimessenger astronomy. Cosmic rays Cosmic rays are protons and atomic nuclei that travel across the Universe at close to the speed of light. When these particles smash into the upper atmosphere, they create a cascade of secondary particles, called an air shower. We still don t know where cosmic rays exactly come from. Super Kamiokande: mounting of photomultpliers on top of the Super Kamiokande detector in Japan. This is the successor of the Kamiokande experiment that in 1987 detected for the first time neutrinos from a supernova. cosmic ray showers 1989: discovery of the from Supernova SN 1987A 1932: discovery of positron e + discovery of the cosmic microwave background...
8 6 Current experiments & The current astroparticle physics programme includes medium scale projects or upgrades at different stages of realization, whose funding has to be kept at at substantial levels, for different reasons: some of these projects just entered a phase with high discovery potential; some go hand in hand with LHC physics; others are technologically ready and have a worldwide community behind them. For a last category, a delay of crucial decisions and funding could even jeopardize jeopardize them as projects. Dark matter With the advent of the LHC and thanks to a new generation of astroparticle experiments that use direct and indirect detection methods, the well-motivated SUSY-WIMP dark matter hypothesis will be proven or disproven within the next 5-10 years. The annual modulation signal observed by DAMA/LIBRA, and its interpretation in terms of dark matter interactions, will also be scrutinized in the next years. The dramatic progress of the liquid-xenon technology over the past 2-3 years demonstrates a high momentum, which must be maintained. The recently approved XENON1T at Gran Sasso laboratory is expected to start operation in 2014/15. The bolometric experiments CDMS and Edelweiss have recently provided upper limits close to those of XENON100 and move towards a closer US-Europe coordination. A next global step would be a ton-scale detector, EURECA. Looking beyond the scale of one ton, a programme extending the target mass of noble liquids to several tons is envisaged with DARWIN. About EURECA EURECA is a European project using cryogenic detectors at a temperature of a few millikelvin for dark matter search. It is based on the expertise of two cutting edge running experiments: CRESST and EDELWEISS. EURECA is presently in its Design Study phase ( ), supported financially by several of the ASPERA funding institutions. The Design Study will define the key options of the project. In 2013, construction work within its first phase involving 150 kg of detectors wil start. A second phase of the EURECA experiment, beginning in 2016, will involve up to one ton of cryogenic detectors, with extended measurement duration of at least five years. First arguments for dark matter have been derived by the Swiss scientist Fritz Zwicky in 1933, after evaluation of the movements of galaxies in larger clusters. In the 70s, the rotational curves of galaxies suggested that 90% of most galaxies is made from invisible matter. Germanium detectors from the Edelweiss-II dark matter experiment. Photo of the Double Chooz inner detector located nearby a nuclear power plant in the French Ardennes. Aerial view of the Virgo detector for gravitational waves near Pisa in Italy. It consists mainly of a Michelson laser interferometer made of two orthogonal arms, each 3 kilometers long.
9 near future upgrades 7 Neutrino properties Several experiments in Europe are either in the commissioning phase or in the final years of construction: GERDA, CUORE and the demonstrator for SuperNEMO will search for neutrino-less double beta decay and KATRIN for neutrino mass via single beta decay. Double CHOOZ, a nuclear reactor experiment, is studying neutrino oscillations. The mentioned experiments build on a long experience and validation with precursors. They have been recently joined by NEXT, a new approach developed for the search for double beta decay. The road towards double beta experiments covering full mass range characteristics for the inverted mass hierarchy, depends on the results of the current generation experiments. AMS-02 onboard the Iinternational Space Station, just after it was deployed by astronauts from the Shuttle. AMS is looking for antimatter in the universe and will provide the spectrum of cosmic rays withy an unprecedented precision. Gravitational waves With advanced VIRGO, advanced LIGO and GEO-HF, a centennial discovery in the next five years becomes highly probable with the ongoing and planned upgrades to advanced detectors. This would open an entirely new window to the Universe. Cosmic rays at medium energies After its successful launch, the AMS detector will provide a wealth of new data on cosmic ray composition and antimatter in space. At the same time, novel detectors at ground level will extend cosmic ray measurements close to the energies covered by space experiments.
10 8 CTA: the next large scale CTA: towards a new era of gamma-ray astronomy The Cherenkov Telescope Array (CTA) is the worldwide priority project for TeV gamma-ray astro- physics. It combines proven technological feasibility with a guaranteed scientific perspective times the LHC? Black holes are thought to be places of intense particle acceleration in the vicinity of jets, such as those shown in this artistic view. CTA will allow the study of such regions with unprecedented precision. The CTA project is an initiative to build the next generation groundbased very high energy gamma-ray instrument. It will serve as an open observatory to a wide astrophysics community and will provide a deep insight into the non-thermal high-energy universe. Its mode of operation and the wealth of data are similar to mainstream astronomy. The design and prototypes of CTA, as Probing the high-energy universe... The Universe is full of high energy particles. They come from violent phenomena such as remnants of supernova explosions, binary stars, jets around black holes in distant galaxies and star formation regions in our own Galaxy. Hunting for such particles can help us to understand not only what is going on inside these cosmic bodies, but also answer fundamental physics questions, such as the nature of dark matter and gravity. Current involved countries: Some 800 scientists from 25 countries around the world have already come together to build the Cherenkov Telescope Array: Argentina, Armenia, Austria, Brazil, Bulgaria, Croatia, Czech Republic, Finland, France, Germany, Greece, India, Ireland, Italy, Japan, Namibia, Netherlands, Poland, Slovenia, South Africa, Spain, Sweden, Switzerland, United Kingdom and United States of America
11 infrastructure 9 well as the selection of the site(s), are aiming at a start of construction before the middle of the decade. The CTA Project is currently in its preparatory phase, which started in 2010 and will last for 3 years. During this time, prototype telescopes and telescope parts are being built and evaluated, the administrative structures necessary for the smooth operation of the array are being created, and the sites are being studied using long-term satellite weather archives and specific monitoring. Artistic view of CTA. The cherenkov telescope array will be composed of telescopes of different size that will allow to detect gamma rays at different energies. Extending an improved technology Current ground-based gamma-ray telescopes such as H.E.S.S., MAGIC and VERITAS have brought a breakthrough using the imaging atmospheric Cherenkov technique. However, we have now reached the limit of what can be done with current instruments. The CTA project is an initiative to build a ground-based gamma-ray telescope of the next generation, that will include an array of dozens of telescopes. CTA will offer an increase in sensitivity of between a factor of 5 and 10 over current instruments, and extend the energy range of gamma rays observed. It is expected that the catalogue of known very high energy emitting objects will extend from the 130 that are currently known, to over Thus, we we can expect many new discoveries in key areas of astronomy, astrophysics and fundamental physics research. With its user-oriented mode of operation and its wealth of data, CTA will become similar to mainstream astronomy and provide data for a wide community and - together with gravitational wave, cosmic ray and neutrino observations - in a multi-messenger context. High-energy particles are hard to trace, but we can reveal their presence by detecting gamma-rays that are associated with them. Like their lower-energy cousins - X-rays - gamma-rays do not penetrate the Earth s atmosphere. But luckily, it is possible to detect them from the ground via the flashes of blue light they create in the atmosphere, known as Cherenkov radiation. The H.E.S.S. telescopes in Namibia, work on this principle.
12 10 Near future large scale Towards high-energy neutrino astronomy KM3NeT is the next generation high-energy neutrino telescope to be built in the Mediterranean Sea. It must have sensitivity substantially larger than that of IceCube, the neutrino telescope operating in Antarctica. Artistic view of KM3NeT. It will be composed of thousands of photomultipliers, looking for highenergy neutrinos from distant astrophysical sources in the deep sea. What is KMNeT? KM3NeT, an European deep-sea research infrastructure, will host a neutrino telescope with a volume of several cubic kilometres at the bottom of the Mediterranean Sea, aiming to open a new window to the Universe. The telescope will search for neutrinos from distant astrophysical sources like supernova remnants, microquasars or gamma-ray bursters. It will also search for exotic phenomena like dark matter or super-heavy particles. An array of thousands of optical sensors will detect the faint light in the deep sea from charged particles originating from collisions between neutrinos and the Earth. The KM3NeT collaboration produced a corresponding technical design report, funded by the European Commission Preparatory Phase programme. The technology definition is in its final stages with prototype deployment within the next two years, and eventual access to deep-sea research. KM3NeT is included in the ESFRI roadmap of European research infrastructures. LIDO is a platform for listening to the deep sea environment, making use of undersea astroparticle physics infrastructures. The facility will also house instrumentation for geo- and marine sciences, aiming for long-term online monitoring of the deep sea environment and the sea bottom at a depth of several kilometers. Current involved countries: Cyprus, France, Germany, Greece, Ireland, Italy, The Netherlands, Romania, Spain, United Kingdom
13 infrastructures 11 About neutrinos With the exception of solar neutrinos and a handful of events detected as a coincidence with explosion of the supernova SN1987A, no other extra-terrestrial neutrinos has been detected so far. High-energy neutrinos are expected to be produced in cataclysmic events where particles are accelerated up to energies of the order of a million times higher than in the LHC at CERN in Geneva, the most powerful accelerator ever built. Colliding galaxies, gamma-ray bursts shining about a million trillion times brighter than the Sun, active galaxies which spew out vast amounts of energy and host vampire black holes are all candidate sources of highenergy neutrinos. Neutrinos, once generated, traverse our Universe essentially without interaction and without being deflected so they will allow us to gather pieces of information on the most violent cosmic processes not accessible to other methods. Artistic view of the Pierre Auger Observatory. The Pierre Auger Observatory takes its name from the French physicist who discovered the existence of cosmic rays showers. The Pierre Auger Observatory: the cosmic rays window Following the footsteps of the Pierre Auger Observatory in Argentina, a global enlarged ground-based observatory is a priority project for high-energy cosmic ray physics, with a substantial contribution from Europe. The preparations include the development of new detection technologies, the search for appropriate sites, and the attraction of new partners. When cosmic rays smash into the upper atmosphere of our planet, they create a cascade of secondary particles, called an air shower, that can spread across 40 or more square kilometers as they reach the Earth s surface. The Pierre Auger Observatory records cosmic ray showers through an array of 1,600 particle detectors placed 1.5 kilometers apart in a grid spread across 3,000 square kilometers. Twenty-four specially designed telescopes record the emission of fluorescence light from the air shower. The combination of particle detectors and fluorescence telescopes provides an exceptionally powerful instrument for this type of research. Current involved countries: About 400 scientists from around the world have come together within the Pierre Auger collaboration: Argentina, Australia, Bolivia, Brazil, Croatia, Czech Republic, France, Germany, Italy, Mexico, Netherlands, Poland, Portugal, Romania, Slovenia, Spain, United Kingdom, United States of America and Vietnam
14 12 Long term & global Deeper in neutrino physics The goals of a megaton-scale detector as addressed by the design studies LAGUNA range from low-energy neutrino astrophysics (e.g. supernova, solar, geo- and atmospheric neutrinos) to fundamental searches without accelerators (e.g. search for proton decay) and accelerator driven physics (e.g. neutrino oscillations and study of charge-parity (CP) violation). Due to its high cost, the program can be developed only in a global context; furthermore the timing of its realization depends strongly on whether the indications for the mixing parameter defined as θ 13 will be confirmed within the next one or two years, permitting a series of very exciting measurements for neutrino mass hierarchy and CP violation using CERN beams. LAGUNA is clearly at the interface with the CERN European Strategy Update to be delivered early 2013, where it represents a high-priority astroparticle project. CMJN 50/100/10/0 CMJN 90/50/0/10 CMJN 5/10/90/0 Web palette: # #0064a8 #ad4797 #73accd #d296c5 #f9db21 #fafafa Artistic inner view of a LAGUNA-like detector, a huge underground tank whose walls are covered with thousands of photmultipliers. What is LAGUNA? The principal goal of LAGUNA (Large Apparatus for Grand Unification and Neutrino Astrophysics) is to assess the feasibility of a new pan- European research infrastructure able to host the next generation, very large volume, deep underground neutrino observatory. The scientific goals of such an observatory combine exciting neutrino astrophysics with research addressing several fundamental questions such as proton decay and the existence of a new source of matterantimatter asymmetry in nature, in order to explain why our Universe contains only matter and not equal amounts of matter and antimatter. The LAGUNA-LBNO design study includes the study of long baseline neutrino beams from CERN accelerators. When coupled to such a neutrino beam, the neutrino observatory will measure with unprecedented sensitivity neutrino flavor oscillation phenomena and possibly unveil the existence of CP violation in the leptonic sector. Current involved countries: LAGUNA-LBNO brings together 300 scientists, CERN and 38 other institutions from: Finland, France, Germany, Greece, Japan, Italy, Poland, Romania, Russia, Spain, United Kingdom and Switzerland.
15 large infrastructures 13 Einstein Telescope Artistic view of ET, composed by three superposed interferometric detectors arranged underground in a triangle. Each interferometer has two 10 km arms. The path for research in gravitational waves beyond advanced detectors foresees two projects of a very large scale: the Earth-bound Einstein Telescope (ET) and the space-bound LISA project. ET construction will start at the end of this decade, after the first detection of gravitational waves with the advanced detectors and following successful R&D. The LISA project, for which preparatory work in on-going, would eventually rely on the success of the technological mission LISA-Pathfinder. Towards a global approach Infrastructures such as LAGUNA and the EINSTEIN Telscope will require a global approach, which will be the only way to fund very large projects. It is in this spirit that the OECD Astroparticle Physics International Forum (APIF) was created. In the same way as ASPERA and ApPEC are playing this role at the European level, APIF brings together officials and representatives of funding agencies of countries that make significant investments in astroparticle physics research. APIF is a venue for information exchange, analysis, and coordination, with special emphasis on strengthening international cooperation, especially for large programmes and infrastructures. APIF members can address issues that are the special responsibility of funding agencies, for example, legal, administrative and managerial arrangements for international projects. They may also consider matters such as access to experimental facilities and data, procurement of essential materials, and optimal use of resources on a global scale. Current involved countries: France, Germany, Italy, Netherlands, United Kingdom.
16 14 Cosmology, theory & Links to LHC particles are favorite candidates for dark matter and could be generated at the LHC. The discovery of a SUSY particle at the LHC alone does not prove that it constitutes dark matter. For that purpose, the detection of cosmological dark matter particles in direct or indirect searches is necessary. Conversely, the detection of cosmological dark matter particles alone would not prove that they are SUSY particles. For that purpose, identification and investigation at accelerators is necessary. The synergy between LHC and next generation dark matter searches is obvious and opens an exciting perspective. The precise measurement of cross sections at the LHC provides a long awaited input to the understanding of air showers from cosmic rays. Several LHC detectors have been tailored to study particles emitted under very small angles. This is a region of particular interest for the simulation of cosmic air showers. LHC extends the available data to energies typical for the most powerful galactic sources. The most spectacular arc between astroparticle physics and physics at the LHC is the search for dark matter candidates. Supersymmetric Map of the Cosmic Microwave Background (CMB) as measured by the WMAP satellite. Different colours mark fluctuation of the brightness of the CMB. This picture is considered as a view of the very early universe. The CMS experiment at CERN. Looking at particle collisions produced by the LHC, CMS is one of the accelerator-based experiments that could detect dark matter supersymmetric particles.
17 links to LHC physics 15 Cosmology & dark energy The 2011 Nobel Prize for physics has been awarded for the discovery of the accelerated expansion of the Universe the first hint to something like dark energy. This riddle is presently being tackled with traditional astrophysical methods, but astroparticle physicists have been engaged in the field since the beginning. They contributed their experience of handling large data sets and with cutting-edge technologies. The next flagship projects in this field are the ground-based LSST project (2019), with US-leadership and strong European participation, and the recently chosen Cosmic Vision ESA satellite EUCLID (2019). In addition, expected results from the Eureopean Planck satellite will offer important inputs in the fortcoming years. Theory Theoretical research often motivates experimental projects, links distinct sub-fields of astroparticle physics, and is indispensable when experimental data have to be interpreted in the context of models, be it in terms of possible signals or as constraints. In parallel with the ambitious plans for the next-generation astroparticle experiments in Europe, the associated theoretical activities apart from projectspecific analysis and computing activities need stronger support and coordination. Artisic view of the Large Synoptic Survey Telescope project (LSST).
18 16 Environmental activities Technology The next generation detectors included in this roadmap will need a total investment estimated around 1.5 Billion Euros over the next decade and the scientific goals require unprecedented R&D efforts. Technological challenges on optical components such as mirrors, lenses, lasers, photomultipliers are of decisive importance in the different areas of astroparticle physics. To address these challenges, ASPERA brings together the community and industry through the organisation of technology forums. Such activities must be continued in the future to develop further close relationships between physicists and industrials. R&D and smaller projects Smaller projects and innovative R&D activities are essential for the progress of the field and should also be supported in the framework of international co-operation, including common calls. Synergies Astroparticle Physics research infrastructures, whether located underground (underground laboratories), underwater/ice (neutrino telescopes), or on the ground (air-shower detectors), use their environment as a detecting medium. Accurate knowledge and monitoring of its properties is therefore essential to precisely determine the characteristics of the cosmic messenger particles they are looking for. As a result a large number of strong synergies have been developed between astroparticle physics and other sciences (geological, environmental, biological, and many more). The competence developed by astroparticle physisists in complex sensing systems, the technologies they have developed for the processing of large quantities of extremely pure and/or exotic materials, as well as the advanced systems for data acquisition, processing, and dissemination that they have designed, have all lead to great advances, not only for astroparticle physics but in other disciplines as well. Especially advantageous is the fact that through the use of astroparticle physics infrastructures, scientists from the associated fields are capable of deploying sensors in remote or hostile environments (ice, deep sea and deep underground), something which would be by definition a difficult and costly task if they were working on their own. The use of astroparticle physics infrastructures by multiple disciplines is not just a wise and efficient use of resources, but fosters the creation of new ideas that only happen at discipline intersections, leading in this way to scientific advancements in a great range fields: from earthquake prediction to wine dating, from space weather to microbiology, from volcano geology to sperm whale sound monitoring, from temperature variation detection to biofouling, and many more. In addition, the emerging complex global challenges, such as climate change, energy, biodiversity and geohazards, demand a more integrated approach that has not been achieved so far, but could be achieved if members of the associated communities would promote collaborations around astroparticle physics research infrastructures. Icecube Photomultiplier tubes waiting to be integrated. View into one the large halls of the Gran Sasso Laboratory in Italy.
19 & societal impact 17 Underground laboratories Underground laboratories are of much interest for many activities beyond astroparticle physics, particularly for geoscience and biodiversity researches. They also provide the appropriate environment for developments in the domains of wine datation or electronics. Beyond the continuation of support to the Gran Sasso laboratory and the start of operations of the Canfranc laboratory, there is a unique window of opportunity to extend the present Under-ground Laboratory of Modane. No cosmic rays Outreach & education Astroparticle physics address very fundamental questions like the origin and nature of matter and of the Universe, which challenge the imagination and curiosity of a broad audience. The cutting-edge technology and the sometimes exotic locations add another factor of fascination. This makes astroparticle physics an ideal tool to get the general public interested in basic science. The support of activities in education and outreach are therefore of growing importance for society and for the future of basic research. The work started through ASPERA shows how much it is important to coordinate more communications at the European level to promote the field. There is a specific need to organise activities that will make astroparticle physics important milestones of current and future experiments greatly visible in the media. In this respect, it might be useful that the future sustainable body for astroparticle physics coordination in Europe join the very successful InterAction collaboration with a full membership. In addition, the development of synergies for producing tools, contents and events should be pursued to stimulate and strengthen outreach activities across all the different European countries. Supporting and coordinating communications for the future astroparticle physics large infrastructures is a challenge that should also be seen as a priority to promote them widely. On the education side, there is a strong interest of the community for developping high-school activities with cosmic ray detectors. Support to such activities should be encouraged and coordinated, in close collaboration with other networks such as IPPOG - the International particle physics outreach group. students present LUCID (Cosmic ray Intensity Detector) to be launched into space in 2012!
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