Interplay of torsion, equivalence principle and Lorentz symmetry violation in spin dragging Workshop on Precision Physics and Fundamental Physical Constants.

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Interplay of torsion, equivalence principle and Lorentz symmetry violation in spin dragging Workshop on Precision Physics and Fundamental Physical Constants JINR, Dubna, December 5, 2014 Oleg Teryaev BLTP, JINR, Dubna, in collaboration with Yu.Obukhov, A.Silenko ; O.Selyugin; M. Baznat, K. Gudima, А.Sorin, R. Usubov

Main Topics Description of spin-gravity interactions: Dirac eqn / EMT matrix elements Equivalence principle with spin and its tests Sources of spin dragging Indirect tests of EP and it extension (validity separately for quarks and gluons) via sum rules for hadronic matrix elements of EMT

Spin-gravity interactions 1. Dirac equation (Hehl and Ni) Gauge structure of gravity manifested; limit of classical gravity - FW transformation 2. Matrix elements of Energy- Momentum Tensor May be studied in non-gravitational experiments/theory Simple interpretation in comparison to EM field case

Gravitational Formfactors Conservation laws - zero Anomalous Gravitomagnetic Moment : (g=2) May be extracted from high-energy experiments/NPQCD calculations Describe the partition of angular momentum between quarks and gluons Describe interaction with both classical and TeV gravity

G eneralized Parton Diistributions (related to matrix elements of non local operators ) – models for both EM and Gravitational Formfactors (Selyugin,OT ’09) Smaller mass square radius (attraction vs repulsion!?)

Electromagnetism vs Gravity Interaction – field vs metric deviation Static limit Mass as charge – equivalence principle

Gravitomagnetism Gravitomagnetic field (weak, except in gravity waves) – action on spin from spin dragging twice smaller than EM Lorentz force – similar to EM case: factor ½ cancelled with 2 from Larmor frequency same as EM Orbital and Spin momenta dragging – the same - Equivalence principle

Experimental test of PNEP Reinterpretation of the data on G(EDM) search If (CP-odd!) GEDM=0 -> constraint for AGM (Silenko, OT’07) from Earth rotation – was considered as obvious (but it is just EP!) background

Equivalence principle for moving particles Compare gravity and acceleration: gravity provides EXTRA space components of metrics Matrix elements DIFFER Ratio of accelerations: - confirmed by explicit solution of Dirac equation (Silenko, OT, ‘05) Arbitrary fields – Obukhov, Silenko, OT ’09,’11,’13

Gravity vs accelerated frame for spin and helicity Spin precession – well known factor 3 (Probe B; spin at satellite – probe of PNEP!) – smallness of relativistic correction (~P 2 ) is compensated by 1/ P 2 in the momentum direction precession frequency Helicity flip – the same! No helicity flip in gravitomagnetic field – another formulation of PNEP (OT’99)

Gyromagnetic and Gravigyromagnetic ratios Free particles – coincide = P {m /e up to the terms linear in q Special role of g=2 for any spin (asymptotic freedom for vector bosons) Should Einstein know about PNEP, the outcome of his and de Haas experiment would not be so surprising Recall also g=2 for Black Holes. Indication of “quantum” nature?!

Cosmological implications of PNEP Necessary condition for Mach’s Principle (in the spirit of Weinberg’s textbook) - Lense-Thirring inside massive rotating empty shell (=model of Universe) For flat “Universe” - precession frequency equal to that of shell rotation Simple observation-Must be the same for classical and quantum rotators – PNEP! More elaborate models - Tests for cosmology ?!

Torsion – acts only on spin Dirac eq+FW transformation-Obukhov,Silenko (talk),OT Hermitian Dirac Hamiltonian Spin-torsion coupling FW – semiclassical limit - precession

Experimental bounds for torsion Magnetic field+rotation+torsion Same ’92 EDM experiment New(based on Gemmel et al ’10)

Lorentz symmetry violation Lorentz violating “background” field anomalous spin coupling to an anisotropy in space This coupling causes a periodic variation of the relative Larmor frequencies Δω, respectively phases, of the co-located 3He and 129Xe spin samples σ, during a sidereal day as the laboratory reference frame rotates with Ωs with respect to a hypothetical background field with magnitude and pointing in direction ε

Imterplay of dragging effects “Effective” field + bS Only this field is measurable Sepration – correlation with Earth rotation

Microworld: where is the fastest possible rotation? Non-central heavy ion collisions (~c/Compton wavelength) – “small Bang” Differential rotation – vorticity Calculation in quark - gluon string model (Baznat,Gudima,Sorin,OT,PRC’13 )

Structure of velocity and vorticity fields GeV/c)

Generalization of Equivalence principle Various arguments: AGM 0 separately for quarks and gluons – most clear from the lattice (LHPC/SESAM)

Recent lattice study (M. Deka et al. arXiv: )arXiv: Sum of u and d for Dirac (T1) and Pauli (T2) FFs

Extended Equivalence Principle=Exact EquiPartition In pQCD – violated Reason – in the case of ExEP- no smooth transition for zero fermion mass limit (Milton, 73) Conjecture (O.T., 2001 – prior to lattice data) – valid in NP QCD – zero quark mass limit is safe due to chiral symmetry breaking Supported by generic smallness of E (isoscalar AMM)

Sum rules for EMT (and OAM) First (seminal) example: X. Ji’s sum rule (’96). Gravity counterpart – OT’99 Burkardt sum rule – looks similar: can it be derived from EMT? Yes (OT’14), if provide correct prescription (Anikin, OT’10) to gluonic pole

Pole prescription and Burkardt SR Pole prescription (dynamics!) provides (“T-odd”) symmetric part! SR: (but relation of gluon Sivers to twist 3 still not found – prediction!) Can it be valid separately for each quark flavour: nodes (related to “sign problem”)? Valid if structures forbidden for TOTAL EMT do not appear for each flavour Structure contains besides S gauge vector n: If GI separation of EMT – forbidden: SR valid separately!

Another manifestation of post- Newtonian (E)EP for spin 1 hadrons Tensor polarization - coupling of gravity to spin in forward matrix elements - inclusive processes Second moments of tensor distributions should sum to zero =0 for ExEP

HERMES – data on tensor spin structure function Isoscalar target – proportional to the sum of u and d quarks – combination required by EEP Second moments – compatible to zero better than the first one (collective glue << sea) – for valence:

Are more accurate data possible? HERMES – unlikely JLab may provide information about collective sea and glue in deuteron and indirect new test of Equivalence Principle

CONCLUSIONS Spin-gravity interactions may be probed directly in gravitational (inertial) experiments and indirectly – studing EMT matrix element Torsion, EP, and Lorentz symmetry violation may be tested in EDM experiments SR’s for deuteron tensor polarization- indirectly probe EP and its extension separately for quarks and gluons

BACKUP SLIDES

EEP and AdS/QCD Recent development – calculation of Rho formfactors in Holographic QCD (Grigoryan, Radyushkin) Provides g=2 identically! Experimental test at time –like region possible