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MINER MINER A (FNAL E938) A (FNAL E938) Gabriel Niculescu, JMU Gabriel Niculescu, JMU MINERA web site: http://minerva.fnal.gov/ Minera Main Injector MINOS Near Detector NuMI Beam Where? FERMILAB Numi Beam Line In front of the Minos near detector ( used as “muon catcher”) NuMi Beam Line Fully Active Target: 8.3 tons Nuclear Targets: 6.2 tons (40% scint.) LHe LHe SideECAL SideECAL Fully Active Target Fully Active Target Downstream ECAL Downstream ECAL Downstream Downstream HCAL HCAL Nuclear Nuclear Targets Targets Side HCAL (OD) Side HCAL (OD) Veto Wall Veto Wall What with? Active core of segmented solid scintillator providing: Precision tracking (including low momentum recoil protons) Particle identification 3 ns (RMS) per hit timing (track direction, stopped K ± ) LHe, C, Fe, Pb targets (upstream) Core surrounded by electromagnetic and hadronic calorimeters , 0 , and hadronic E measurement MINOS near detector as muon catcher Low-risk, simple, well-understood, Affordable! Target Fiducial Vol. Expected CC (tons) Yields (10 6 ) CH (scintillator) 3.00 9.0 He 0.20 0.6 C 0.15 0.4 Fe 0.70 2.0 Pb 0.85 2.5 Assume: 4.0 x 1020 POT LE and 12.0 x 1020 POT ME beam How Big? Main CC Physics Topics (Statistics in active target only - CH) Quasi-elastic 0.8 M events Resonance Production 1.7 M total Transition: Resonance to DIS 2.1 M events DIS, Structure Funcs. and high-x PDFs 0.3 M DIS events Coherent Pion Production 89 K CC / 44 K NC Strange and Charm Production >240 K Generalized Parton Distributions ~ 10 K events What? Axial form factor of the nucleon Resonance production in both NC & CC interactions Statistically significant measurements with 1-5 GeV neutrinos Study of “duality” with neutrinos Coherent pion production Statistically significant measurements of A-dependence Strange particle production (Important backgrounds for proton decay) Parton distribution functions (Measurement of high-x behavior of quarks) Generalized parton distributions Nuclear effects (Expect significant differences for -A vs e/-A nuclear effects) Detailed Why? p Quasielastic event n p Neutral Current 0 A Resonance production p ++ - p + p Simulated Miner a Events 1.7 × 3.3 cm 2 strips WLS fiber readout in center hole Optical Connector s Scintillator & embedded WLS Clear fiber M-64 PMT PMT Box Minera Core Quo Vadis, Minera? CD 1 and 2 approval (working on 3) Vertical Slice Test Small array test @JLab (300MeV Full Module Prototype (spring ’07) Test beam (MTEST) @Fermilab Start production in ’08, data taking in ‘09 Your Minera (Put your comments here) What? MINERvA is a compact, fully active neutrino detector designed to study neutrino-nucleus interactions in detail at high statistics” Why? Inherent interest in the phenomena of low-energy neutrino-nucleus scattering “Neutrino Engineering”: Provide knowledge that will help improve/enhance other neutrino studies (read “oscillations”) Who? (E938 Collaboration) University of Athens - Greece; University of Dortmund; University of Minnesota – Duluth; Fermi National Accelerator Laboratory; Hampton University; Illinois Institute of Technology; Institute for Nuclear Research – Moscow; University of California – Irvine; Thomas Jefferson National Laboratory; James Madison University; Northwestern University; Pontificia Universidad Catolica del Peru; University of Pittsburgh; Rutgers, The State University of New Jersey; Tufts University; Universidad Nacional de Ingenieria – Peru; University of Rochester; College of William & Mary; St. Xavier University; Centro Brasileiro de Pesquisas Fisicas - Brazil

MINER A (FNAL E938) Gabriel Niculescu, JMU MINERA web site: Miner a Main Injector MINOS Near Detector NuMI Beam Where? FERMILAB

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Page 1: MINER A (FNAL E938) Gabriel Niculescu, JMU MINERA web site:  Miner a Main Injector MINOS Near Detector NuMI Beam Where?  FERMILAB

MINERMINERA (FNAL A (FNAL E938)E938)

Gabriel Niculescu, JMUGabriel Niculescu, JMU

MINERA web site: http://minerva.fnal.gov/

Minera

Main Injector

MINOS Near Detector

NuMI Beam Where?FERMILABNumi Beam LineIn front of the Minos

near detector ( used as “muon catcher”)

NuMi Beam Line

Fully Active Target:8.3 tons

NuclearTargets:6.2 tons(40% scint.)

LHeLHe

SideECALSideECAL

Fully Active TargetFully Active Target

Do

wn

stre

am E

CA

LD

ow

nst

ream

EC

AL D

ow

ns

tre

am

Do

wn

str

ea

mH

CA

LH

CA

L

Nu

clea

rN

ucl

ear

Tar

get

sT

arg

ets

Side HCAL (OD)Side HCAL (OD)

Veto WallVeto Wall

What with? Active core of segmented solid scintillator providing:

Precision tracking (including low momentum recoil protons)

Particle identification

3 ns (RMS) per hit timing (track direction, stopped K±)

LHe, C, Fe, Pb targets (upstream)

Core surrounded by electromagneticand hadronic calorimeters

, 0, and hadronic E measurement

MINOS near detector as muon catcher

Low-risk, simple, well-understood,

Affordable!

Target Fiducial Vol. Expected CC (tons) Yields (106)

CH (scintillator) 3.00 9.0He 0.20 0.6C 0.15 0.4Fe 0.70 2.0Pb 0.85 2.5

Assume: 4.0 x 1020 POT LE and 12.0 x 1020 POT ME beam

How Big? Main CC Physics Topics (Statistics in active target only - CH)

Quasi-elastic 0.8 M events Resonance Production 1.7 M totalTransition: Resonance to DIS 2.1 M eventsDIS, Structure Funcs. and high-x PDFs 0.3 M DIS eventsCoherent Pion Production 89 K CC / 44 K NCStrange and Charm Production >240 KGeneralized Parton Distributions ~ 10 K events

What?

Axial form factor of the nucleon Resonance production in both NC & CC interactions

Statistically significant measurements with 1-5 GeV neutrinosStudy of “duality” with neutrinos

Coherent pion production

Statistically significant measurements of A-dependence

Strange particle production (Important backgrounds for proton decay)

Parton distribution functions (Measurement of high-x behavior of quarks)

Generalized parton distributionsNuclear effects (Expect significant differences for -A vs e/-A nuclear effects)

Detailed Why?

p

Quasielastic event

n p

Neutral Current 0

A

Resonance production

p ++ - p +

p

Simulated Minera Events

1.7 × 3.3 cm2 strips

WLS fiber readout in center hole

Optical Connectors

Scintillator & embedded

WLS

Clear fiber

M-64 PMT

PMT Box

Minera Core

Quo Vadis, Minera?

• CD 1 and 2 approval (working on 3)• Vertical Slice Test• Small array test @JLab (300MeV • Full Module Prototype (spring ’07)

• Test beam (MTEST) @Fermilab• Start production in ’08, data taking in ‘09

Your Minera (Put your comments here)

What?

MINERvA is a compact, fully active neutrino detector designed to study neutrino-nucleus interactions in detail at high statistics”

Why?Inherent interest in the phenomena of

low-energy neutrino-nucleus scattering

“Neutrino Engineering”: Provide knowledge that will help improve/enhance other neutrino studies (read “oscillations”)

Who? (E938 Collaboration)

University of Athens - Greece; University of Dortmund; University of Minnesota – Duluth; Fermi National Accelerator Laboratory; Hampton University; Illinois Institute of Technology; Institute for Nuclear Research – Moscow; University of California – Irvine; Thomas Jefferson National Laboratory; James Madison University; Northwestern University; Pontificia Universidad Catolica del Peru; University of Pittsburgh; Rutgers, The State University of New Jersey; Tufts University; Universidad Nacional de Ingenieria – Peru; University of Rochester; College of William & Mary; St. Xavier University; Centro Brasileiro de Pesquisas Fisicas - Brazil