Outlook Enhancing World Collaboration

Similar documents
Proposal for a US strategy towards physics & detectors at future lepton colliders

Whither colliders after the Large Hadron Collider?

Introduction Science World Collaboration

Where is Europe going?

The European Strategy for Particle Physics. Discussion with staff and fellows of IR Sector, FHR Sector, HSE, DG units

News from CERN LHC Status and Strategy for Linear Colliders

Department Heads Meeting. David B. MacFarlane

UK input to European Particle Physics Strategy Update FINAL DRAFT

Highlights from. Part I HEPP-EPS EPS Lisbon, Portugal, July 21 st 27 th, International Europhysics Conference on High Energy Physics

STFC Meet the buyer: CERN experiments and future projects

Modern Accelerators for High Energy Physics

Muon Accelerators for Particle Physics Achievements and Working Group Plans

Thanks to all Contributors

Dean Karlen University of Victoria & TRIUMF. APS NW Section Meeting 2005 Victoria, Canada

Experiments at the Large Hadron Collider Challenges and Opportunities

Particle accelerators

Roadmap to the Future. Fred Gilman SLAC Summer Institute August 13, 2004

Why a muon collider?

Scientific Community Perspectives Physics

Short Introduction to CLIC and CTF3, Technologies for Future Linear Colliders

In Pursuit of Discovery at The Large Hadron Collider

arxiv: v1 [physics.acc-ph] 1 Sep 2015

The ATLAS Detector at the LHC

Perspective from Fermilab NRC-DUSEL, December 15, 2010

Future Directions in Experimental Nuclear and Particle Physics

TLEP White Paper : Executive Summary

(a) (b) Fig. 1 - The LEP/LHC tunnel map and (b) the CERN accelerator system.

Particles, Energy, and Our Mysterious Universe

Frontier Particle Accelerators

The Discovery of the Higgs Boson: one step closer to understanding the beginning of the Universe

The International Linear Collider. Barry Barish Caltech 2006 SLUO Annual Meeting 11-Sept-06

Introduction to Particle Accelerators & CESR-C

Current and Future Developments in Accelerator Facilities. Jordan Nash, Imperial College London

PPAP report + SoI status

New Frontiers in Particle Physics and The Splendors of a Linear Collider

Accelerators. Acceleration mechanism always electromagnetic Start with what s available: e - or p Significant differences between accelerators of

e + e - (1) Silicon Vertex Detector

Particle Physics WS 09/10

The European Strategy for Particle Physics

Proton-driven plasma wakefield acceleration

UNVEILING THE ULTIMATE LAWS OF NATURE: DARK MATTER, SUPERSYMMETRY, AND THE LHC. Gordon Kane, Michigan Center for Theoretical Physics Warsaw, June 2009

Observation of a New Particle with a Mass of 125 GeV

Deliberation Paper on the update of the European Strategy for Particle Physics

Fermilab Program. Pier Oddone, Fermilab NAS Board of Physics and Astronomy, 2009

Accelerator Physics and Technologies for Linear Colliders University of Chicago, Physics 575

Physics 736. Experimental Methods in Nuclear-, Particle-, and Astrophysics. - Accelerator Techniques: Introduction and History -

Electroweak Theory: The Experimental Evidence and Precision Tests PPP-II Lecture 8 (FS 2012)

CERN & the High Energy Frontier

The ILC and its complementarity to the LHC

Opportunities for Subdominant Dark Matter Candidates

Search for a heavy gauge boson W e

Higgs Searches at CMS

ICAN Kick-Off. R.-D. Heuer. February 2012

Particle + Physics at ATLAS and the Large Hadron Coillder

SLAC National Accelerator Laboratory. Persis S. Drell Director August 30, 2010

Weak Interactions. The Theory of GLASHOW, SALAM and WEINBERG

Start-up of the Large Hadron Collider at CERN

The ATLAS Experiment and the CERN Large Hadron Collider

Fundamental Concepts of Particle Accelerators V : Future of the High Energy Accelerators. Koji TAKATA KEK. Accelerator Course, Sokendai

Last Friday: pp(bar) Physics Intro, the TeVatron

Z boson studies at the ATLAS experiment at CERN. Giacomo Artoni Ph.D Thesis Project June 6, 2011

Results from the Tevatron: Standard Model Measurements and Searches for the Higgs. Ashutosh Kotwal Duke University

The LHC. Part 1. Corsi di Dottorato Corso di Fisica delle Alte Energie Maggio 2014 Per Grafstrom CERN and University of Bologna

Reminder : scenarios of light new physics

THE NEUTRINOS. Boris Kayser & Stephen Parke Fermi National Accelerator Laboratory

Particle Accelerators for High Energy Physics Accelerators and HEP

The Gamma Factory proposal for CERN

Matter, Energy, Space, Time

60 YEARS of SCIENCE FOR PEACE. R.-D. Heuer Prague, 8 Sept

the Future Circular Collider

Elementary Particle Physics Glossary. Course organiser: Dr Marcella Bona February 9, 2016

FASTER, SMALLER, CHEAPER

Probing Supersymmetric Connection with Dark Matter

Laboratory for Nuclear Science

LHCb Overview. Barbara Storaci on behalf of the LHCb Collaboration

Top Quark Precision Physics at Linear Colliders

The Structure of the Proton in the Higgs Boson Era

Physics at Hadron Colliders

New European Accelerator Project EuCARD: Work Package on High Field Magnets

2 ATLAS operations and data taking

Matter, Energy, Space, Time

Discussion of the Draft Strategy Document Initiatives

Parameters for the Linear Collider Update November 20, 2006

Prof. Emmanuel Tsesmelis Deputy Head of International Relations CERN

The achievements of the CERN proton antiproton collider

Tools of Particle Physics I Accelerators

OVERVIEW OF THE LHEC DESIGN STUDY AT CERN

A brief history of accelerators, detectors and experiments: (See Chapter 14 and Appendix H in Rolnick.)

Large Hadron Collider at CERN

Particle Physics Columbia Science Honors Program

Recent results from the LHCb experiment

Paul Newman Birmingham University Lepton-hadron collider based on the high lumi LHC Can we add ep and ea collisions to the existing LHC pp, AA and pa

CARE-ELAN Final Report

Exam Results. Force between charges. Electric field lines. Other particles and fields

CLIC THE COMPACT LINEAR COLLIDER

Search for SUperSYmmetry SUSY

Measurements of the Vector boson production with the ATLAS Detector

Standard Model of Particle Physics SS 2012

Measurement of Higgs couplings and mass in e + e collisions at CLIC in the s range of 350 GeV - 3 TeV

8 lectures on accelerator physics

Transcription:

Outlook Enhancing World Collaboration R-D Heuer, Univ.Hamburg/DESY/CERN ICFA Seminar, SLAC, 31 Oct 2008

A look back to the Seventies: 1975 New Orleans: Topical seminar to discuss facilities which could only be realised on world scale i.e. a world machine but International study group set up LEP initiated by CERN before results from the study group available....... Need was seen but no strategy developed

Facts today Examples of well established world cooperations/collaborations: Experiments WLCG Communication Detector R&D Accelerator R&D Accelerator construction (or the path to global projects): HERA / LHC GDE Questions: Do we need more? Do we have the tools? Is the time ripe? (i.e. different to 1975.)

Outlook Enhancing World Collaboration Why How When R-D Heuer, Univ.Hamburg/DESY/CERN ICFA Seminar, SLAC, 31 Oct 2008

Outlook Enhancing World Collaboration Why How When R-D Heuer, Univ.Hamburg/DESY/CERN ICFA Seminar, SLAC, 31 Oct 2008

Past decades until today Discovery of Standard Model through synergy of hadron - hadron colliders (e.g. Tevatron) lepton - hadron colliders (HERA) electron - positron colliders (e.g. LEP,SLC)

Time evolution of experimental limits on the Higgs boson mass LEP,SLC, Tevatron Synergy of colliders knowledge obtained only through combination of results from different accelerator types indirect ΔΜ top in particular: Elektron-Positron Collider and Hadron Collider direct together with highly developed theoretical calculations M H between 114 and ~200 GeV

Facts today Energy Frontier moving to CERN: Particle Physics is about to enter the Terascale LHC will be the world machine for many years CERN in a unique position for many years

Vision Revolutionary advances in understanding the microcosm Connect microcosm with early Universe Big Bang Superstrings? Unified Forces terascale Inflationary Expansion Separation of Forces Nucleon Formation Formation of Atoms Formation of Stars Today Time 10-43 s 10-35 s 10-10 s 10-5 s 300 000 years 10 9 years 15 10 9 years Energy 10 17 TeV 10 13 TeV 1 TeV 150 MeV 1 ev 4 mev 0.7 mev Particle Physics at the Energy Frontier with highest collision energies ever will change our view of the universe

Past decades saw precision studies of 5 % of our Universe Discovery of the Standard Model The LHC will soon deliver data first discoveries to be expected in a few years We are just at the beginning of exploring 95 % of the Universe Phantastic opportunity for Particle Physics

Facts today Energy Frontier moving to CERN: Particle Physics is about to enter the Terascale LHC will be the world machine for many years CERN in a unique position for many years But: many other projects ongoing in the three regions rich program

Neutrinos J-PARC and T2K ex: Θ 13 2012 first indications of Θ 13 should be available from either T2K or Double-Chooz

Muon Ionisation Cooling Experiment (MICE at RAL) Expect to demonstrate ionisation cooling by 2011 in time for RDR for Neutrino Factory Major development programme of high gradient RF cavities in solenoid magnetic fields

Great opportunities ahead Window of opportunity for decision on the way forward 2010-2012 (?)

So.why to change? facilities for HEP (and other sciences) becoming larger and expensive funding not increasing fewer facilities realisable time scales becoming longer laboratories are changing missions more coordination and more collaboration required

ex: ICFA Statement on Future Neutrino Facilities

Key message from CERN Council Strategy Document

Outlook Enhancing World Collaboration Why How When R-D Heuer, Univ.Hamburg/DESY/CERN ICFA Seminar, SLAC, 31 Oct 2008

We need - to maintain expertise in all regions - long term stability and support in all three regions - to engage all countries with particle physics communities - to integrate particle physics developing countries (regions) - global view from funding agencies - a closer linkage of (at least) particle physics and astroparticle physics

We need - to maintain expertise in all regions national regional global projects - long term stability and support in all three regions example: CERN Council - to engage all countries with particle physics communities - to integrate particle physics developing countries (regions) - global view from funding agencies - a closer linkage of (at least) particle physics and astroparticle physics

from CERN Council Strategy Document

We need - to maintain expertise in all regions national regional global projects - long term stability and support in all three regions example: CERN Council - to engage all countries with particle physics communities CERN Council Working Group being set up and CERN Coordinator for External Relations established - to integrate particle physics developing countries (regions) CERN Council Working Group / ICFA CERN Coordinator for External Relations - global view from funding agencies FALC (modified) as a first step? - a closer linkage of (at least) particle physics and astroparticle physics Europe: CERN, CERN Council, ASPERA ICFA?.

How to engage the world in a commonly coordinated and supported particle physics program Important aspect: participation in the program in general not only in specific projects Nonetheless as a first approach: Global Accelerator Network Introduced for specific projects but could be modified Ultimate step: World laboratory or sustained partnership

Global Accelerator Network - make best use of world-wide competence, ideas, resources - make projects part of the national programs of the participating countries - create a visible presence of activities in all participating countries - keep culture of accelerator development (scientific and technical) alive in laboratories and universities and be attractive for young scientists

Global Accelerator Network - project should have a minimal administrative structure, with mainly management oversight functions -well defined roles and obligations of all partners - coherent and transparent process for reaching decisions (consensus) inside collaboration - financial stability combined with necessary flexibility - not an international permanent institution but an international project of limited duration

Global Accelerator Network - Follows major detector collaboration in particle physics - Partners contribute in full responsibility through components or subsystems - Facility is common property - Responsibility, cost are shared - Remote operation

GAN 2002 goes far beyond particle physics Remote operation will very likely be of key importance for the future operation of large facilities. Key issues: social aspects technical aspects Tests in these areas are ongoing or planned ICFA will sponsor future GAN workshops and has set up a group to deal with this matter

How to engage the world in a commonly coordinated and supported particle physics program Important aspect: participation in the program in general not only in specific projects First step (idea) : Global Accelerator Network for a specific project Ultimate step: World laboratory or sustained partnership World Laboratory == International CERN? Global Laboratory == Long -Term Partnership?

Outlook Enhancing World Collaboration Why How When R-D Heuer, Univ.Hamburg/DESY/CERN ICFA Seminar, SLAC, 31 Oct 2008

We are NOW entering a new exciting era of particle physics Turn on of LHC allows particle physics experiments at the highest collision energies ever Expect - revolutionary advances in understanding the microcosm - changes to our view of the early Universe CERN unique position as host for the LHC

Results from LHC will guide the way Expect - period for decision taking on next steps in 2010 to 2012 (at least) concerning energy frontier -(similar situation concerning neutrino sector Θ 13 ) We are NOW in a new exciting era of accelerator planning-design-construction-running and need - intensified efforts on R&D and technical design work to enable these decisions - global collaboration and stability on long time scales (reminder: first workshop on LHC was 1984)

We need to define the most appropriate organisational form NOW and need to be open and inventive (scientists, funding agencies, politicians...) Mandatory to have accelerator laboratories in all regions as partners in accelerator development / construction / commissiong / exploitation Planning and execution of HEP projects today need global partnership for global, regional and national projects in other words: for the whole program Use the exciting times ahead to establish such a partnership

Particle Physics can and should play its role as spearhead in innovations as in the past now and in future