Super Yang-Mills Theory in 10+2 dims. Another Step Toward M-theory Itzhak Bars University of Southern California Talk at 4 th Sakharov Conference, May.

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Super Yang-Mills Theory in 10+2 dims. Another Step Toward M-theory Itzhak Bars University of Southern California Talk at 4 th Sakharov Conference, May

SYM exists only in 2+1, 3+1, 5+1 and 9+1 dimensions. I will report on a new path which enlarges this horizon. I will show that the new theory is the mother of the N=4 SYM in 3+1 dims, the N=1 SYM in 9+1 dims, and M(atrix) theory, and others. The new theory is developed in the context of 2T-physics. Sakharov, who was one of the first to entertain the notion of two times, would have enjoyed what I now call 2T-physics. Strong hints for 2T-physics came from M-theory (IB -1995): Extended SUSY of M-theory is really a SUSY in 12 dimensions {Q 32,Q 32 }=Z [2] +Z [6]+, Q 32 real Weyl spinor  (10+2) signature! But if this implies 2 times, how does one remove the ghosts? 2T-physics developed by finding the fundamental solution to this ghost problem, and related causality problem. The answer is a gauge symmetry in phase space X M,P M. Phase space gauge symmetry is reminiscent of U-duality in M-theory (electric-magnetic). After a crash review on 2T-physics, I will explain the new SYM theory. 2

2T-physics is a ghost-free general framework that correctly describes all physics. 2T-physics and usual 1T-physics are related, but 2T-physics unifies a larger set of phenomena that 1T-physics is unable to predict, but is only able to verify. The relation between 2T-physics and 1T-physics can be described by an analogy : Object in the room (4+2 dim. phase space, X M,P M ) and its shadows on walls (3+1 dim many phase spaces, x m,p m ). Observers like us are stuck on the “walls” (3+1 dims.), no privilege to be in the room (4+2). We interpret the shadows as different dynamical systems (1T formalism). One (2T) to many (1T’s). Predict many relations among the shadows (dualities, symmetries). This is systematically missed information in 1T-physics approach. 2T-Physics as a unifying framework for 1T-physics X M,P M x m,p m x” m,p” m x’ m,p’ m 1) 1T-physics is incomplete !!! 2) Is 2T-physics more suitable for fundamentals? 3

2T-physics principles in a nutshell Basic principle: Position-Momentum symmetry at every instant, for all motion for all physics (?) Sp(2,R) gauge symmetry, local on worldline X M (τ), P M (τ) 3 generators: Q 11 (X,P), Q 22 (X,P), Q 12 (X,P)=Q 21 (X,P) Physical sector : only gauge invariant motion is allowed (shadows) Nontrivial solutions exist only with 2 times! No less and no more! The “shadows” are in 1 less space and 1 less time: [(d-1)+1] (gauge fixed) In the simple example, spacetime η MN : flat d+2 dims., SO(d,2) global symmetry simplest example: Q ij (X,P)= ( X∙X, P∙P, X∙P ) first class constraints Q ij (X,P)=0: requires Sp(2,R) singlets Generalize worldline action for x μ (τ), p μ (τ) Example: spinless particle Generalize? nontrivial soln. and no ghosts : ONLY Sp(2,R) !! Only 2T !! 4 A ij (τ) is Sp(2,R) gauge potential

Massless relativistic particle (p  2 =0 conformal sym Dirac Massive relativistic (p  2 +m 2 =0 Non-relativistic H=p 2 /2m H-atom 3 space dims H=p 2 /2m -a/r SO(4)xSO(2) SO(3)xSO(1,2) Harmonic oscillator 2 space dims mass = 3 rd dim SO(2,2)xSO(2) Shadows from 2T-physics hidden info in 1T-physics 2T-physics predicts hidden symmetries and dualities (with parameters) among the “shadows”. 1T-physics misses these phenomena. Holography: These emergent holographic shadows are only some examples of much broader phenomena. Free or interacting systems, with or without mass, in flat or curved 3+1 spacetime Analogy: shadows on walls Free or interacting systems, with or without mass, in flat or curved 3+1 spacetime Analogy: shadows on walls Hidden Symm. SO(d,2), (d=4) C 2 =1-d 2 /4 = - 3 singleton Hidden Symm. SO(d,2), (d=4) C 2 =1-d 2 /4 = - 3 singleton Emergent spacetimes and emergent parameters: mass, couplings, curvature, etc. These emerge in 2T-field theory as well 5 2T-physics Sp(2,R) gauge symm. generators Q ij (X,P) vanish simplest example X 2 =P 2 =X∙P=0  gauge inv. space: flat 4+2 dims SO(4,2) symmetry

6 Rules for 2T field theory, spins=0,½,1 Impose Sp(2,R) singlet condition !! There is explicit X M, no translation invariance, only SO(d,2) spacetime invariance. This SO(d,2) becomes conformal symmetry in the “conformal shadow”, but a hidden SO(d,2) symmetry in other shadows. Minimizing the action gives two equations, so get all 3 Sp(2,R) constraints for each field, including interaction !! kinematic eqs. X 2 =0, X.P+P.X=0 dynamical eq. P 2 + … = 0 Flat space Homogeneous V(  ) Only dimensionless couplings among scalars Double the size spinor as SO(d-1,1 ) +Fermionic gauge sym. New gauge symmetries + kinematic equations ( Sp(2,R)), eliminate all ghosts!! Use BRST approach for Sp(2,R). Like string field theory: I.B.+Kuo, hep-th/ I.B. hep-th/060645

7 Gravity in 2T-physics Field Theory Pure gravity has triplet of fields: G MN (X), metric  (X), dilaton W(X), replaces X 2 It has unique coupling to matter: scalars, spinors & vectors. Imposes severe constraints on scalar fields coupled to gravity. Prediction from 2T-physics: The gravitational constant is determined by the vacuum values of all scalar fields. It increases after every cosmic phase transition at the scales of inflation, GUT, SUSY, electroweak. Effect on cosmology !! Gauge symmetry and consistency with Sp(2,R) lead to a unique action in d+2 dims, with no parameters at all. Local scale symm  x) comes from general coordinate symm in d+2. Can choose dilaton  x) arbitrarily, e.g. a constant => Gravitational scale. IB: IB+S.H.Chen

Super Yang-Mills in 10+2 dimensions General SUSY Field Theory, for N=1,2,4, in 4+2 dimensions done: IB + Y-C.Kuo hep-th/ , , Usual N=4 SYM in d=4 is the conformal shadow from D theory Note G,W,  general gravity background 8 Homothety: Lie derivative

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For most background geometries such  (X) can be found with only 16 independent components. But there are special cases with 32 components. For example, dimensionally reduce 10+2 to (4+2)+(6+0), then we obtain 32 component  which corresponds to N=4 SYM in 4+2 dimensions, which in turn has N=4 SYM in 3+1 dimensions in the conformal shadow. 10

10+2 SYM as parent of N=4 SYM in 3+1, and a web of dualities 11 N=1 SYM in 10+2 SUSY condition on 32-spinor Compactify 6D N=4 SYM in SUSYs Conformal shadow N=4 SYM in SUSYs Compactify 6D N=4 SYM in SUSYs Conformal shadow N=1 SYM in SUSYs More 3+1 shadows More 9+1 shadows, and other compactifications to d+2, with 1<d<10 There are many dualities that relate the various shadows. This insight only from 2T-physics ! A lot to explore … Fully compactified theory = M(atrix) theory.

Local Sp(2,R)  2T-physics, a principle in CM & QM: Works generally to produce 1T Hamiltonians for particle dynamics, including spin, supersymmetry, backgrounds of all types, including gravity, E&M, etc.. A new unification of 1T systems into classes that belong to the same 2T system, and brings out hidden symmetries related to extra dims. Field Theory, The Standard Model & Gravity in 4+2 dimensions, In the “conformal shadow” in 3+1 dims. agree structurally with usual SM and GR, but include some new constraints that provide new phenomenological guidance for physics at the LHC and in Cosmology (e.g. -⅟ 12 s 2 R is required!!) Beyond the Standard Model GUTS, SUSY, higher dims; all have been elevated to 2T-physics in d+2 dimensions. Strings, branes; tensionless, and twistor superstring, 2T OK. Tensionful incomplete. M-theory; expect 11+2 dimensions  OSp(1|64) global SUSY, S-theory. New non-perturbative technical tools – a lot more to do here !! Emergent spacetimes and dynamics; unification; holography; duality; hidden sym. Expect to be useful for non-perturbative analysis of field theory, including QCD. (analogs of AdS-CFT, others …). Path integral approach for quantum field theory directly in d+2 dimensions will be useful. (still under development). 12 Status of 2T-physics IB+Chen+Quelin, ; IB+Quelin, IB, , , ; IB+S.H.Chen IB+Y.C.Kuo, , , ; IB, , ; IB+Deliduman+Minic, ,

13 Do you need 2T? YES! Hidden information in 1T-physics is revealed by 2T-physics (shadows) A lot more remains to be done with 2T-physics. Predictions at every scale of physics are expected from hidden dualities and symmetries by using the more powerful tools in future research … 1T-physics on its own is not equipped to capture these hidden symmetries and dualities, which actually exist. 1T-physics needs the additional guidance, so 1T-physics is definitely incomplete. 2T-physics seems to be a promising idea on a new direction of higher dimensional unification. extra 1+1 are LARGE, also not Kaluza-Klein, not hidden. Different shadows are different perspectives, so you can “see” extra dims. indirectly by proper interpretation.

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