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Stratégie Européenne et Nationale Vers le APPEC Town Meeting 6-7 Avril 2016 http://app2016.in2p3.fr/ Journées du Programme National des Hautes Energies 30 Mars 2016 S. Katsanevas APC et APPEC
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StratégieEuropéenneetNationale VersleAPPECTownMeeting6-7Avril2016

http://app2016.in2p3.fr/

JournéesduProgrammeNationaldesHautesEnergies 30Mars2016

S.KatsanevasAPCetAPPEC

• 2006-2008ApPscientificvisionthe“SevenMagnificent” • Anattempttodefinethefield,nopriorities • Inputtoglobalcoordinationforums:OECDWG,ESFRI,…

• 2011ThefirstAPPECpriorityroadmap: I. Completetheupgrades:

• Adv.GravitationalWaveantennas• Undergroundlaboratories(DMandνless2β)

II. PrepareconstructionoflargeCRprograms: • CTA,KM3Net/IceCube,AUGERupgrade

III. Globalcoordinationforverylargeprojects: • Largeneutrinodetectors,DarkEnergyandCMB

• 2016Roadmapupdate• “Considerations”preparedbytheAPPECSAC*tobedebatedintheTownmeeting.Canbefoundonthewebsite.RoadmappublishedinAutumn2016

EuropeanAstroparticlePhysicsRoadmaps Thelast10years

*A.Masiero(chair),MichalOstrowski,MauroMezzetto,GiselaAnton,LauraBaudis,JocelynMonroe,PetrTiniakov,JovandenBrand,PatrickSutton,RamonMiquel,ZitoMarco,AndreaGiuliani,FelixAharonian,PierreBinétruy,IgnatiosAntoniadis,YifangWang,FrancisHalzen,HankSobel,A.Haungs,S.Katsanevas(APPEC)

Sixchapters (anarrativeorderandnotapriorityorder)

1. Formationofcosmicstructures:CMB 2. AccelerationoftheexpansionoftheUniverse:DarkEnergy 3. DirectdetectionofDarkMatter 4. ProbingtheultimatenatureoftheNeutrino 5. ProbingtheUniversewithGravitationalWaves 6. HighEnergyUniverse:photons,neutrinosandcosmicrays

CosmologicalMicrowaveBackground

• LargeDarkenergysurveys(eBOSS,DESI,EUCLID,LSS)probethe“recent”Universe(z<2) • SKAandradiosurveys probethereionisationera(z=7-10) • Futureground(egS4)andspace(CORE+,LiteBird,PIXIE)surveyswillprobetherecombination

eraandbeyond (z<1100)

B-polarisationprobesinflation andlargescalestructure

oftheUniverse• Largeanglesl<100➔ inflation• Smallanglesl>200lensing➔mν

PLANCK2015

Primordiallightandgravitationallensing Probematter(incl.darkmatter)inthe

Universe

CosmologicalMicrowaveBackground

PLanck Core+

ProspectiveCMBonground,CMB-S4

r=0.1,δ(Σmν)=0.15

r=0.01,δ(Σmν)=0.05

r=0.001,δ(Σmν)=0.015

Europeanprojectsongroundandballoons

NIKA2 IRAM

Goal:ClusterevolutionusingtSZasproxy

QUBIC

1stmodulegoalr=0.03FromSouthPoleDomeC➔ Argentina?

• QUIJOTE“Low”frequencies(<44GhZ)studyofsynchrotronforegrounds • BalloonsOLIMPO(SZE)andLSPE(largeCMBanglesr=0.03) • BalloonPlanB(testsofKIDS..) • ParticipationinUSPolarbear(GEN2)/SimonsArray(GEN3)

PossiblefutureCMBsites

InviewofCMB-S4WaterVapourRadiometercampaign?(ALMAWVR)

Resolve the CMB ≈ 4'-6' resolution or better

Signal dominated data (S/N >2-3 for Blens) σP = 1.5-2.5 µK.arcmin on ≈ 100% sky

Exquisite control of systematic effets for polarisation measurements

Exquisite control/separation of polarised (and intensity) foregrounds

Think the mission as the (near)-ultimate CMB polarisation mission, with guaranteed science whatever the value of r, and great legacy value and discovery potential.

Class 1.5m telescope or better ≈ 6' at 135 GHz; ≈ 4' at 200 GHz

from ≈ 2500 (base) to 5000 (extension) detectors at ≈ 100 mK

L2 orbit; Redundancy and polarisation modulation by scanning strategy

15-20 frequency bands (or more) covering ≈ 60-600 GHz (or more)

Performance / requirement Solution

European CMB space plans J. Delabrouille

COrE+conceptandstrategy

TheCMBprospectiveinspace

NASA PIXIELiteBIRD

JAXA

Absolute spectrophotometer

ESA COrE+

Primordial B-modes mission Cosmic origins explorer

"LiteCOrE" A joint ESA-JAXA CMB polarization imager ?

DISCUSSIONS ONGOING

Removing99%oftheforegroundcontamination requiresfrequencychannelsaccessibleonlyfromspace

ESAM5callApril2016 SelectionApril2017 Launch2029-2030 ForESAonly(<550ME)

ΣmνandNefffromCMB

TensionwithLargeScaleStructure(PlanckSZ,X-ray),intheσ8-Ωmplane.Ingeneral«recent»variables(H0,σ8)belowvaluesmeasuredatrecombination.Clustermeasurementuncertaintiesornewphysics(sterileneutrinos,DMetc)?

mν∑ < 0.21 Neff = 3.15 ± 0.23 Planck TT +lowP+BAO

mν∑ < 0.17 Neff = 3.04 ± 0.118 Planck TT,TE,EE +lowP+BAO

• Planck together and CMB measurements on ground opened the possibility of newbreakthroughsintheCMBdomain:

• MapB-polarisationgivingaccesstotheparametersofinflation• Determinethesumofneutrinomasses • CorrelationofCMBwithlargescalestructures • Distortionsoftheblackbodyspectrum

• Nextspacemissionwillhappenattheearliestmidtolate20’s• ShouldbeplannedwiththesameambitionasPlanck➔ givedefinitivemeasurements.

EuropeanandGlobalCoordinationforCMB ongroundandinspace

• APPECandASTRONETorganized “1stmeeting:TowardstheEuropeanCoordinationof theCMBprogram” inAugust31-1September2015 inVilla Finally Florence, gatheringPI’s andagency representatives to chart the first steps towardsEuropeancoordination.

• Worldwide agencies agree is that roadmapping needs toconvergetoaglobalprogramongroundandinspace.

• 2ndmeeting:TowardstheEuropeanCoordinationoftheCMBprogram”inSeptember8-92016inVillaFinallyFlorence,

1. Thenext generationof experiments should aimatpermil sensitivities for thetensortoscalarratiorandalsoatthelargestcoverageoftheangularspectrum.Ground-andspacebasedexperimentsplayacomplementaryroleinthisstudysinceground-basedexperimentspermitthedeploymentofverylargearraysandtherefore high angular resolution, while space-born experiments can probe asufficientnumberof frequenciespermitting anunsurpassed parametrisationandsubtractionoftheforegounds.

2. Europe should participate in a G4 ground programme in synergy/complementaritywith the CMB-S4 CMB-currently in development in the USA,aimingataprecisiononthetensortoscalarratiooforderonepermil,ca2025,aswell as unprecedentedprecision on themass of light neutrinos, in synergywiththeneutrinoprogramme.

3. EuropeshouldleadaCMBspaceprogramme(e.g.CORE+asaM5ESAmission),inclosediscussionwithspaceprogramsinJapan(LiteBird)andtheUSA(Pixie).

4. Technology wise, Europe should support R&D and TRL upgrade of newdetection technologies using cryogenic Transition Edge Sensors (TES) andKineticInductanceDetectors(KIDs).

5. APPECshouldpromotetheglobalcoordinationofthefield.

1.CosmologicalMicrowaveBackground

LargeDarkEnergysurveys• Largedarkenergysurveys

• “kinematic”(SnaeBAO)or • “dynamic”(WL,clusters,…) willstudythelargescalestructureandassociateitwithknowledgeobtainedatrecombinationwillgivecrucialinformationforneutrinomass(seeabove)andalsodarkenergyequationofstate.

• CurrentprogrameBOSS/DES • Inthenearfuture

• DESI(BAOandGalaxyclustering)

• EUCLIDESAM2mission(NASAparticipation)a1.2mtelescopeatL2withvisibleandNIRimaging,NIRslitlessspectroscopy.Launch2020

• LSSTComplementaryinsystematicstoEuclidsuperiorspectroscopy(LSST)vsabsenceofatmosphericdistortion(EUCLID).Firstlight2021

• LSSTpartofFrenchNationalRodamapofIR

LSST/EUCLID

W(a)=W0+wa(1-a)

FutureΣmνmeasurements(2025-2030)

Forecast sensitivities δ (Σmν ) meV δ (Neff )Planck +BOSS BAO → 100 0.18Planck+eBOSS (BAO+GC) → 40-100 0.13-0.18Planck+DESI (BAO+GC) → 17/24 0.08-0.12> 2025CMB-S4+BOSS BAO → 25 0.02CMB-S4+DESI BAO → 16 0.02

PLANCK+LSST → 23 0.07PLANCK+EUCLID → 25 0.06

Notacompetitionwithνexperimentsbutcomparisonportaltonewphysics forbothStandardModels.

1. Europeshouldsupport theconstructionanddataanalysisofEuclidwhichwilldominatedarkenergysciencefromspaceinthenextdecade,providingclearEuropeanleadershipinthatarea.

2. Europe should support the key contributions of European groups to theground program, in particular LSST thatwill be deeper,wider and fasterthananygroundbasedopticalsurveytodate.

3. Europe should encouragedata exchangebetweenEuclid andLSST as thiswillenhancethescientificoutputofbothmissions.

2.DarkEnergy

DarkMatter:WIMPSandbeyond

• WIMPswillbeputinasevere,ifnotconclusive,testduringthenext10years. Incaseofdiscoveryboth accelerator and non-accelerator experiments will be needed to determine the physicalpropertiesofWIMPS.

B.ShuveMoriond2016

Darkmatter Experimentalprogram

✓XENON1tinaugurated ✓LUXNewresults ✓DarkSide-50demonstratedextremebackgroundrejectionwithUAr.Industrialplans.

✓APPECSAC➔ Decideca2018G3multi-tonexperiment. ✓Costsandscalesmakeglobalcoordinationimperative

• G2willreach10-47cm2at100GeVin2020-2025

• LargeEuropeanG3willapproachneutrinofloorca2030

• Extremepuritiesneeded: • 1event/ton/year

• NobleLiquidprojects: • Xenon1T➔ XenonnT• DarkSide➔ Darkside20t

• Sardenia,Ardepletionindustrialplan+CERN

• ComplementaritywithBolometersandCCD

• Beyondtheneutrinofloor➔ directionalityandannualmodulation

Futuresensitivities darkmatter

Complementaritybetween DirectDetection(DD),IndirectDetection(ID),LHC

LHC

DD

ID

ComplementaritywithLHC,alsoincaseofhighWIMPmassesrationalefornextcollider(2018animportantmilestone)

All

LHC

DD/ID

DD

1. EuropeshouldsupportandcloselyfollowthedevelopmentandresultsoftheG2experimentsdirectlysearchingforWIMPsDMinthevastrangeofWIMPmassesfrom1GeVuptotenofTeVs.

2. APPEC should appoint a scientific and technical committee to work with theEuropeanDMcommunitytorecommendthetechnologyforonenoble-liquidG3directdetectionexperimentinsynergy/complementaritywithsimilardetectorsinotherregionsoftheworld.

3. EuropeshouldsupporttheparticipationofEuropeangroupsinaG3bolometricdetectorintheUSA(Super-CDMS).

4. EuropeshouldsupportR&Dandtechnologytobuildadirectionaldetector.

5. Europe should continue to support non-WIMP searches (e.g. axions ADMX,IAXO).

3.Darkmatterdirectdetection

The point of view of the neutrino

⎟⎟⎟

⎜⎜⎜

ν

ν

ν

⎟⎟⎟

⎜⎜⎜

−⎟⎟⎟

⎜⎜⎜

⎟⎟⎟

⎜⎜⎜

=⎟⎟⎟

⎜⎜⎜

ν

ν

ν

τ

µ

3

2

1

1212

1212

1313

1313

2323

2323

e

1CSSC

CS1

SC

CSSC

1 δ−ie

δ− ie

.,etccosC 1212 θ= + 2 Μαϕορανα phases

Solar 75±3

Atmospheric 2400±100

22 meVmΔReactor/Accelerator Solar/ReactorAtmosph/Accelarator

0.4 < sin2θ23 < 0.6 sin2θ13 = 0.023± 0.02 sin2θ12 = 0.30 ± 0.01

µe τ

µe τ

µ τ

1Sun

Normal

2

3

Atmosphere

µe τ

µe τ

µ τ

1Sun

Inverted2

3

Atmosphere

Tasks

• Precision for θ12 and θ23

• Mass ordering? • CP-violating phase δ? • Dirac or Majorana ? • Absolute masses? • Steriles ? Open Questions •Relation to formation and evolution of cosmic stuctures •Relation to dark matter? •Relation to dark energy?

First version of slide due to G. Raffelt

• Spring2014releaseofP5reportandCERNMediumtermplan

• June2014:1stInternationalMeetingonLargeNeutrinoInfrastructures,Paris,APPECbringingtogetherPI’sandagencies.AlsoICFAνpanel,APIF,OECD.

• Agencycommonpressreleaseurgingforaglobalcoordination • GlobalcollaborationaroundFermilabLBNF • R&DandprototypingatCERN • SupportforHyperKamioka

• Aprl20152ndInternationalMeetingonLargeNeutrinoInfrastructures,Fermilab/APPEC

• InparallelwithformationofDUNEgovernanceandoversight • Fromthepressrelease:”…agencyrepresentativesimpressedby

therapidity,qualityofconvergenceandmomentumofthecommunityefforts”

• May20163rdInternationalMeetingonLargeNeutrinoInfrastructures,KEK/Fermilab/APPEC

• Goals:Hyperkamioka,GlobalcoordinationonNLDBD?

Neverbeforesomanyconvergedsofast….

Globalcoordinationintheneutrinosector Thelast2years

Atmospheric,ReactorandAcceleratorprogram

Howsoon? Howmanysigmaswillbeconvincingproof?

ORCA

PINGU

Futuredetectors

DUNE

Masshierarchy Atmospheric,Reactor,Accelerator

ORCA/PINGU3σin3years,

3σ 2023-25 5σ 20300

I

DowehaveahintforCP-violation(DYB)ornot(DC)?

DUNE HKT2K+NOVA

CPviolationReactor,Accelerator

Sterileneutrinoscanaffectthevalue determination

OtherphysicsoflargeNeutrinodetectors:B-polarisationspectraandprotondecay

• Smallanglesl>200lensing➔neutrinomass • Largeanglesl<100➔ primordialinflation

r=ratioofscalartotensormodes

τ (p→π 0 + e+ ) ≈ 6 ×1034 ×rCMB0,01

⎛⎝⎜

⎞⎠⎟

years

(Planck/BICEP2r<0.09)Inthesimplestmodelsrisrelatedtothe

GUTscaleandprotondecay

r=.0016➔ τ=1034years r=.016➔ τ=1035years

S3andS4CMBandnextgenerationneutrinoswillexplorethesameparameterspace withinthesemodels

JUNO

Otherphysicsofthelargeneutrinodetectors: thenextgalacticsupernova+DSNB

DUNE

DUNE(40kt) JUNO(20kt) HK(500kt)SN coolof (10kpc) 15400 (all flavours) 8000 (all flavours) 194000 (mostly e)

SN burst (10kpc) 150 νe CC 12 250

SN in Andromeda 3 2 40

DSN 20 10-15 250

HK

JUNO

AlsolowenergyimplementationsofICECUBE/KM3NEt

TopredicttheyearofexplosionofaSupernovaisnotharderthantopredicttheyearoffundingabigacceleratororabigdetector.ThereweresixSupernovaerecordedinthismillenium.AllhistoricalSupernovaewerenotinthecenterofourGalaxybutintheneighborhoodoftheSun.Ourcenterishiddenfromusbydust:thatexplainswhyourancestorshavenotseenSupernovaethere.Dustistransparenttoneutrinos.Accordingtothemostrecentestimatesofexperts.thereoccurinourGalaxy2-3SNae/century... Beingoptimistic,IexpectthatthedateofthenextSupernovais2003±15years. LevOkunNeutrino-88

Sterileneutrinos,toohardtodie

LSND MINIBOONE

Sterileneutrinosatallscales: • <eVν-oscillationanomalies

• Experimentalprogramindevelopment • keVtoTeVtheoreticalneeds

• e.g.HiggsastheinflatonwithN1(KeV)DMandN2,N2(GeV))• Indirect«hints»3,5KeVline • Newexperimentsandindirecteffectse.g.double-betadecay

• >>TeVGood-oldunificationandleptogenesis• Tensionswithcosmology,unlessnewmechanisms… • Needtocontinuethesearchprogram

νe,νe disappearance νµ →νe appearance

M.Drewes

mβ:KATRIṆandPROJECT8

Katrinfirstrun2016+200meV(2018+)

Project8cyclotronradiation fromtriumbetadecaySuccessfulR&D, 40mEVin202?

PROJECT 8

AlsolowTμ-calorimeters:sourceembeddedinsidethedetector(ECHo,HOLMES)

mββ(2β0ν)detectiontechnologies

LiqandGazXe nΕΧΟ,ΝΕΧΤ

XeandTeloadedLS Kamlamd-Zen,SNO+

Te,Se,MoBolometersCuore,

LUMINEU,LUCIFER,AMOREGeBolometersGERDA,MAJORANA

MoUfor1tManyelements SuperNemo(egNd)

4ways:3calorimetric+1trackingcalorimeter

XeGeBolometerTracking-calo

• 2ndgenerationfortheinversehierarchyregion• Europe➔ APPECRoadmap2016• US➔ NSACroadmap • Towardsadecisionin2018.Globalcollaborations?

GERDA-2 (75 - 129 meV, 1026y) CUORE(51–133meV) NEXT,SuperNEMO(100Kg) In5-6years,by2020

GERDA-1/KAMLAND/EXO-200 (140-300 meV, 1025y) today

Scintillatingbolometers (350kg,5y)(13–36meV) InitialnEXO(5tons,10y)(10–30meV) SimilarsensitivitesfromGERDA-3/MajoranaandupgradeofKamLAND-ZenLowerlimitofIHby2025?

0νββapproaching/exploringtheinvertedhierarchy thenextdecade

20mEV0.5-5evts/y/ton

ShowstoppergAquenching?Renormalisedfrom1.269 to0.8-0.5➔ neutrinomasslimitsincreasedby2.5-6

FromFogli,Lisi,Marrone,Montanino,Palazzo,Rotunno2013

Neutrinomassinterconnectedsearches

1. EuropeshouldsupportthetimelyrealisationofLBNF/DUNEandJUNO. 2. EuropeshouldsupportthedefinitionoftheprojectHyperKamiokandewhich

isintheplanningphase. 3. Europeshouldsupportamedium-scaleprogramof short-baselineoscillation

experimentsatFermilabaimingtotestthesterileneutrinohypothesis foreVscaleneutrinos.

4. Europe should support a strongR&D and prototyping program in the CERNNorthArea,relatedtotheaboveprogram(considerations1to3).

5. Europe should continue to support the experiments and the R&D activitiesrelatingtosingleanddoublebetadecayneutrinomasssearches.

6. Europe should support at least one of the efforts to determine the neutrinomasshierarchythroughatmosphericneutrinos(ORCA,PINGU).

7. APPEC should appoint a committee to recommend a strategy to adopt for acomplete investigation of the inverted mass hierarchy region usingneutrinoless double-beta decay processes. Establishing connections andpossibly coordinationwith the analogous process going on in the US in theframeworkoftheNuclearScienceAdvisoryCommittee.

4.Neutrino

Gravitationalwaves Aworldwideantennanetwork

KAGRA, 3km Cryogenic

TheGWICcommunitypioneeredanetworkbetweenthegravitationalwaveantennasinEuropeandintheUnitedStates(advVIRGO,advLIGO,advGEO,since2007),withsharingofinformationandtechniques,scienceruncoordinationandjointpublicationofresults. KAGRAinJapaninoperation2018,INDIGOinIndiaapprovedFebruary2018. Theywilljointhenetwork.

Benefits: ❑ Confidenceindetection

❑ Skycoverage ❑ Dutycycle ❑ Skypositionlocalization

Gravitationalwaves AfterGW140915

• AdvancedVirgounderintegration. • Firstlockexpectedmid-2016• FrenchNationalRoadmap:TGIR

Enhancementtoexistinginfrastructures: superLIGO/VIRGO:sqeezing,biggermirrorsandlaser,eventratex5,2018-2025O(100M) LIGOVoyagLer:Cryogenic ,eventratex40,2025-2035,O(200M)

VIRGO+LIGO Localisation %

GravitationalwavesEinsteinTelescope(ET)andeLISA

✓ETaDSandIA-EUproposal(ca2020). ✓ASPERA/ApPECfundingforR&D

eLISA(ESAL3:2034➔ 2030?) • 0.1-100mHz⟹1-1000TeV(LHC) •Phasetransitions, •Topologicaldefects… •Higgsself-couplingsandpotential •Supersymmetry•Extradimensions •Strings

Resultsexpected15April2016

1. Europe, incollaborationwiththeotherregionsintheworld,shouldaimto prepare a new roadmap in the next crucial years after the firstdetection of gravitationalwaves; decide on the timelines of support forthefurtherupgradesofG2antennas,thatmightpromiseanincreasethesensitivity by factors of 2 to 3 corresponding to increases of reach byfactorsof8to27,whilepreparingincreasesinsensitivitybyfactorsof10ontheground(Einsteintelescope).

2. Europe should encourage the advancement of the launch date of theeLISA mission in discussion with the relevant authorities (ESA andeventuallyNASA).

5.Gravitationalwaves

CherenkovTelescopeArray(CTA)

large7km2arrayof smalltelescopes,

~km2arrayof medium-sized telescopes

fewlargetelescopes forlowestenergies

~70SSTs~25MSTsplus ~24SCTsextension

4LSTs

StartofConstruction2018 Constructiontime5years

Futurehighenergyγsensitivities

InTeVdomaintheCherenkovTelescopeArray(CTA)isaworldwidepriority Candidate(project)fortheFrenchNationalRoadmofTGIRComplementedbyPeVscalewidefieldobservatories: HAWC(constructed)andLHASSOunderconstruction(2020)+TAIGA(Siberia)n

Pevatrons

Dark matter reach

HighEnergyNeutrinoTelescopes

4yearsICECUBEdata: • 6,5σexcess, • flux0,810-18cm2/s-1/sr-1 • noclearclustering, • hintsofamixofdifferentenergyspectra, • compositioncompatiblewith1:1:1but

alsootherpossibilities

Proposedextensions

PINGUandGEN-2(>2020)

ARCA/ORCA

GVD LakeBaikal 1O-12clusters0,5Km2

KM3Net (ORCAandARCA)

• Phase1(35ME,fundedinconstruction) • 24linesKM3Net-Italy(➔ ARCA) • 6linesKM3Net-France(➔ ORCA) • FirstlinedeployedDecember2015 • Completion2016

• Phase2(120ME,decision2017?) • LoI• ESFRIProject(March2016) • ARCA2x115lines • ORCA1x115lines(20mspacing) • WindowofopportunityforORCA? • IntheFrenchNationalRoadmapofIR

Vela, RXJ1713

Telescope Array

AUGER

LHAASO

Highenergycosmicrays

AMS TUNKA

IceTop

1)EnhancedmuoncountingASCII

2)Fasterelectronics 3)ExtendedoperationofFD-telescopes 4)Highprecisioncomplementaryarray(burriedscintillators)

Auger-Prime(2016-2018,12ME)

• Newagreementtill2023 • SCIENCEGOALSOFAUGER-Prime

• Studycompositioneventbyevent.

• Measurethemuoniccomponentoftheshowers

• porFe? • Originofthefluxsuppression • Astronomybyusingthe

individuallytaggedprotons • Particlephysicsat70TeVTAarrayupgradex4totesthotspots

UltraHighEnergycosmicrays orderofmagntitudeimpovements

JEM-EUSO20X?

Inbetween: Longdurationballoon(NASA)2017 Minii-EusoISS2017

Groundambitiousprojections

Didwereachfinallythesensitivitiesnecessary formultimessengerstudies?

ICECUBE/Fermi

HESS Pevatron

UHECR vs HEN

GW INTEGRALGW140915

1. Europe should continue to support theCTAdeployment as a highpriorityproject.

2. CTAbeingthefirstgeneralpurposelargeobservatorythatwillbedeployedbytheastroparticlecommunity,requires itsoperationcoststobeproperlyscrutinisedandoptimised to reduce the risksof these costshaving severeimpactsontherestoftheprogram.Fulldeploymentshouldbecontingentonacompletestudyoftheoperationcosts.

3. Europe should examine a funding plan for phase 2 of KM3NeT (ARCA)during2016.Theoperationcostsshouldbeequallyscrutinised.

4. TheEuropeanagenciesshouldsupporttheapprovalofIceCube-Gen2byNSFandmakeavailablethecorrespondingEuropeancontributions.

5. TheEuropeanagenciesshouldoversee the timelycompletionof theAugerupgrade.

6. R&D for the next generation of ultra-high energy cosmic rays should besupported.

6.HighEnergyUniverse

AstroparticlePhysicsandCosmologythenext20years

2016 2018 2020 2022 2024 2026 2028 2030 2032 2034

CMB CMB-S4 CORE/LiteBrd

DESI/LSST/EUCLIDDE

1 Multiton detectors Liq Xe/ArDM

ν 1 Ton 2β0ν/JUNO DUNE/HK

GW AdvVIRGO/LIGO+ ET? LISA

HE CTA/KM3NEt/AUGER+ LISA

DecisionsaheadinaEuropeanandglobalcontextinviewoftheAPPECRoadmap

Wewillneedtotakedecisionsinthenext2-3yearson:

1. Theconstructionofthephase2ofofKM3NetandtheextensionofICECUBEincludingPINGU/ORCA

2. AmajorcontributiontoalongbaselineprograminUS,andJapanifitgoesahdeadwithHK(activesupporttoSBLalso)

3. AEuropean-leddarkmattermulti-tonexperimentandaton-scaleneutrinomassdetector(doublebetadecaytechnique)inaglobalcontext

4. Amajorcontributionongroundand/orspacetothecosmologyprogramprobingtheparametersofinflation.

5. Thegravitationalwaveantennaupgraderoadmap

InparallelcontinuethesupporttheneutrinoplatformatCERN,theconstructionofCTAandlargedarkenergysurveysongroundandspace.Canweaffordtheabovegiventheca¾BilionEuro/10yinvestmentonAstroparticleinEurope?Bewareofoperatingfunds.

ManycomplementaryaspectstothespaceprogramindevelopmentbyESA(EUCLID,ATHENA,eLISA,aspacecosmologymission?)

Conclusions

• Inthelast30years,wehaveseen • thedetectionofSupernova1987AandtheCrabinHEγ1989

and4majorparadigm-changingdiscoveriesinthe90’s 1. CMBfluctuations 2. Confirmationofneutrinooscillationandmass 3. Darkenergy 4. Gravitationalwaves

• ThelongestseriesofNobelprizesforanemergingdomain

• Whatcanwereasonablyexpectinthecoming10-15years? 1. Darkmattersensitivitiesclosetotheparameterlimits

ofourcurrenttheories,andultimateprecisionsmeasurementsininflationanddarkenergy,

2. ThedevelopmentofneutrinoandUltraHighEnergyCRastronomyinamulti-messengercontext

3. Adeterminationoftheneutrinomasses,numberandCPviolationandtheirinterplaywithcosmology

4. Anothersupernova?

2002

2006

2011

2015

Spare

Outreach➔ STFC

Frank Linde

AstroparticlePhysicsEuropeanConsortium:APPEC

Coordinationsince2001,ASPERA2006-2012,Consortiumsince2012

European detectors for CMB polarization measurements (P. DeBernardis)

! TES Developed in Europe in Paris, Cambridge, Genova … ✓ European MUX tecnology demonstrated in the lab (128:1, QUBIC) ✓ Single-mode TES successfully operated at telescopes (SPT, ACT, BICEP, ….) and flown on balloons

(EBEX, SPIDER) by US teams ✓ European multimode TES to be flown on a balloon with LSPE (ASI+INFN)

! KID Developed in Europe in Grenoble, Groningen, Cambridge, Rome, …. – Operation down to 60-80 GHz demonstrated (A&A 580, A15 (2015), Astro-ph/1601.01466) – Large European matrix already operated at a telescope (NIKA & NIKA2) – For a filled array, 10 aW/sqrt(Hz) sensitivity demonstrated in a laboratory setup simulating the

radiative background in L2 and 30% bands @100 and 150 GHz - Astro-ph/1511.02652; The sensitivity target for use in COrE+ is around 3 aW/sqrt(Hz) for a 35% band.

– Study of cosmic ray effects on-going (space-KIDs, see e.g. Astro-ph/1511.02652). Glitches are very short; cross section slightly larger than for TESs.

– To be flown on balloons (Adv. Blastpol in the USA, OLIMPO and Plan-B / B-SIDE in Europe) ! MID MEMS metal insulator detectors developed at CEA-Leti for Herschel-PACS have been improved to reach aW/

sqrt(Hz) sensitivity operating at <100 mK, and in-pixel polarization measurements. European program CESAR developed suitable readout electronics. Still to be operated at telescopes

! CEB Developed in Chalmers. Instrinsically insensitive to Cosmic Rays Still to be operated at telescopes.

TESdetectors

TES multimode detectors for LSPE

TES detectors for QUBIC (Paris)

(Genova / Rome)

KID detectors in Europe

LEKID for 150 GHz (Rome)

NIKA2 array 200-300 GHz (Grenoble) -> IRAM30m

AMKID array - submm (Groningen) -> APEX ALMA

THz camera for safety scanner (Cardiff)

Horn-coupled KIDs for CMB (Cardiff + ASU)


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