Waiting for Godot? The future of particle physics in the short term

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Transcription:

Waiting for Godot? The future of particle physics in the short term XXI DAE-BRNS High Energy Physics Symposium I.I.T. Guwahati Evening Lecture Amitava Raychaudhuri University of Calcutta

Disclaimer: What the talk is not Guchait A status report and future projection for SUPERSYMMETRY 2 of 32

Where are we headed? Accelerators, Facilities Experiments Theory A combined effort: High Energy Physics What do we know today? What do we hope to learn in the future? What will be India s role? Summary 3 of 32

The known unknowns Higgs boson: m H 125 GeV Spin, Parity looks fine B s µ + µ - BR = (2.9 ± 0.7) x 10-9 Lepton mixing: 13 9 0 UHE neutrinos seen at IceCube Higgs couplings Supersymmetry Other Beyond Standard Model Physics Neutrino mass ordering, Leptonic CP-violation Colour deconfinement: Quark Gluon Plasma Origin of Ultra-High-Energy neutrinos IceCube 37 events 4 of 32

The known unknowns Dark Matter, Dark Energy Baryon/Lepton Number violation Unification of forces Quantum Gravity Sterile neutrinos More generations of quarks/leptons Future is rich! Not to speak of unknown unknowns! 5 of 32

Accelerators, Facilities 6 of 32

Accelerators and facilities today LHC RHIC BEPC KEK-B 7 of 32

Accelerators and Facilities CERN to Gran Sasso Long-baseline BICEP2 Inflation/GUT Planck CMBR 8 of 32

LHC in the future Data at s = 7 & 8 TeV, 75% of L nom LS1 2014-15 s = 13 & 14 TeV, 100% of L nom with L dt = 100fb -1 LS2 2018-19 s =14 TeV, 200% of L nom with L dt = 300fb -1 LS3 2023-25 HL: s =14 TeV, (5-7)00% of L nom with L dt = 3000fb -1 HE-LHC33? XXIDAE-BRNS HEP Symposium 9 of 32

International Linear Collider High energy e + e - collider Linear design to reduce synchrotron radiation loss s = 250-500 GeV (upgrade to 1 TeV) 500 fb -1 in 4 years, Beam polarisation Probe Higgs couplings with precision Komamiya CLIC at CERN s = 3 TeV 50 km vis-à-vis ILC 30km R&D in progress XXIDAE-BRNS HEP Symposium 10 of 32

Future Circular Collider s = 100 TeV pp collider: CERN FCC Superconducting 16T 100km 20T 80km Use same tunnel e + e - : s=90-350 GeV (80-100 km) TLEP ep: s = 3.6-5 TeV (80-100 km) FCC A richer alternative to the HE LHC33? pp: Circular collider s = 50-90 TeV SppC China Same tunnel e + e - : Circular collider: s = 240 GeV (50-70 km) CEPC XXIDAE-BRNS HEP Symposium 11 of 32

Super KEK-B Super KEK-B e + e - : (4 x 7) lumi 80 x 10 34 cm 2 s -1 3km Spectacular increase of luminosity through narrower beams and improved magnet design. KEK-B (3.5x8) lumi 2.1 x 10 34 cm 2 s -1 Browder Look for BSM physics through examination of CP-violation and B-physics in greater detail 12 of 32

Neutrino facilities India-based Neutrino Observatory Inter-Institutional Centre for High-Energy Physics (IICHEP), Madurai Long baseline neutrino experiments: Neutrinos travel over hundreds of kms from production to detection: Interactions with matter important. LBNF: J. Strait Large-sized detectors: IceCube, PINGU Reactor antineutrino experiments 13 of 32

More details at this meeting Future accelerators Colliders: Godbole NICA: Meshkov ILC: Komamiya NICA Intensity Frontier (Fermilab): High Intensity neutrino and muon beams for frontier experiments Neutrinos Long-baseline: Gandhi, Large-sized detectors INO, PINGU: N.Sinha Reactor antineutrino experiments: Naumov 14 of 32

India s role India-CERN protocol for the LHC (1991) 60M SF in-kind contribution Superconducting sextupole, octupole, magnets RRCAT in the lead role Tier-2 LHC Grids Observer status at CERN India-based Neutrino Observatory Planning, design, simulation, prototype, site selection IICHEP, Madurai Manpower training program well in place 15 of 32

In India in future Low energy accelerators at RRCAT IUAC at Delhi More indigenous accelerators at diverse energies Accelerators in wide use not just in HEP Especially medical applications Teaching program in Accelerator Science & Engineering needs development Investment promising good return. 16 of 32

Experiment 17 of 32

Indian involvement CMS NISER, Panjab, Delhi, SINP, BARC, TIFR ALICE Aligarh, IOP, NISER, Panjab, GauhatiU, IIT (Indore, Bombay), Jaipur, Jammu, BoseInst, SINP, VECC, BARC STAR@RHIC VECC, Rajasthan, Panjab NISER, Jammu, IOP MINOZ 18 of 32

Indian involvement BELLE II IIT (BBSR, Guwahati, Madras), TIFR,IMSc IIT Guwahati MINOS NISER WASA@COSY BARC, IIT Bombay, IIT Indore: & decays 19 of 32

Indian involvement FAIR facility (Darmstadt) CBM experiment NO A (off-axis) 2 GeV (BHU, Cochin, Delhi, IIT (Guwahati, Hyderabad,) Hyderabad, Jammu, Panjab 20 of 32

India s role LHC Experiments: Involvement in detector fabrication, data taking, Tier-2 Grid support, science analysis for both CMS and ALICE. Funding support Many students and post-docs trained. Long involvement also in Belle. Smaller connections with other experiments 21 of 32

India s role At CMS and ALICE at the LHC 200 scientists, engineers, students India contributing to FAIR, NO A India-based Neutrino Observatory IICHEP, Madurai ICAL magnetized neutrino detector Other proposals: DINO, 0 2 Training school 22 of 32

More details Higgs boson: K. Mazumdar Supersymmetry: Guchait Quark-Gluon plasma: S.Raniwalla Proton spin: Lorcé B physics results & Future: Browder Atmospheric nu: N. Sinha Reactor anti-nu: Naumov Long-baseline: Gandhi 23 of 32

India in future Funding is not scarce Expansion of IITs, IISERs, Central Universities provide job openings Not enough trained manpower available We must (and, I hope, will) do better in the years ahead 24 of 32

Theory 25 of 32

Future Theory What protects the light Higgs? Metastable Higgs potential? What lies beyond the Standard Model? Supersymmetry, Extra Dimensions, Little Higgs, Technicolor,. More Higgs-like scalars? What could make the Higgs potential stable up to the Planck scale? Understanding confinement B-physics signals BSM? 26 of 32

Future Theory Neutrino mass and mixing: what BSM features can we extract? And how? Sterile neutrinos? Origin of UHE neutrinos Dark Matter? Baryon/Lepton number non-conservation Unification of forces? Early universe, Inflation Quantum Gravity? Strings? 27 of 32

India s role The increase in the number of formal theorists/phenomenologists very encouraging Some level of activity in most areas. Summer schools, focussed meetings, etc. many in number Travel funding easing: Increased international visibility 28 of 32

More details Higgs bosons: Morning discussion on 08/12 Flavour & New Physics: Dighe Light flavours: Ananthanarayan Lattice Gauge Theory: Soni Effective Field Theories: Wudka Inflation: Raghavan, A.Mazumdar Quantum Gravity: String Theory: Minwalla, A.Maharana, Ashoke Sen 29 of 32

India in future Take up more challenging problems! Activity in a very large number of institutions now. Yet not attracting enough high-quality students Intra-India collaborations should further increase Linkage with Astrophysics, Cosmology requires strengthening. Years ahead appear brighter 30 of 32

Nobel Prize 2013 François Englert Peter Higgs Peter Higgs and also Robert Brout and François Englert proposed the method by which particles get mass Also Guralnik, Hagen, and Kibble (USA & UK) They identified spontaneous breaking of a symmetry as a solution to the conflict in writing down theories of interactions of short range and symmetries underlying them. The signal for this solution is a massive particle: the Higgs boson. 31 of 32

Summary The discovery of the Higgs boson, emerging information about lepton mixing, etc. make this an exciting era. New facilities, increased energy, higher luminosity, & novel experiments are matched with creative developments in theory. Good days ahead! High Energy Physics research activity in India is on a steady rise Capacity building still remains a high priority for India 32 of 32

Thank You!! 33 of 32