Wall Crossing and an Entropy Enigma Work done with Frederik Denef hep-th/0702146 arXiv:0705.2564 TexPoint fonts used in EMF: AA A A A A A AA A A A Strings.

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Presentation transcript:

Wall Crossing and an Entropy Enigma Work done with Frederik Denef hep-th/ arXiv: TexPoint fonts used in EMF: AA A A A A A AA A A A Strings 2007, Madrid, June 28 and with Emanuel Diaconescu arXiv:

Related References:

Outline 1. Setting the Scene 2. Wall-Crossing Formula 3. Mathematical Applications 4. D6-D2-D0 Partition Functions – 5. Derivation of OSV 6. The Entropy Enigma 7. A Nonperturbative ? 8. A Concluding Riddle

Setting the Scene Setting: Type IIA strings on a compact Calabi-Yau 3-fold X. BPS States in the d=4, N=2 SUGRA are wrapped D6-D4-D2-D0 branes in X But existence of states also depends on boundary conditions on VM scalars: They carry RR charge

Possibly categorify knot invariants (Gukov, Vafa, et. al. ) Space of BPS States Is finite dimensional and depends on (Seiberg & Witten) These state spaces are interesting! Accounts for black hole entropy (Strominger & Vafa; Maldacena, Strominger, Witten) Plays a key role in the OSV conjecture Plays a key role in quantum corrections to effective Sugra Possibly carry algebraic structures generalizing GKM (Harvey & Moore)

N=2 Central Charges Duality invariant product of electric+magnetic charges

Wall-Crossing Formula Marginal Stability Wall: t+t+ t-t- t ms

Remarks – I

Remarks - II D-brane moduli space changes topology by blowing-down and blowing-up projective spaces. Macroscopic 2-centered solutions Microscopic Quiver Quantum Mechanics

Macro-proof: Denef Multicenter Solutions Micro-Proof : Quiver Quantum Mechanics (Denef, QQHHH):

Denef’s Halos: Gives products such as McMahon, similar to DT, GV infinite products FOCK SPACE Nonprimitive Wall-Crossing

Mathematical Tests/Applications (with Emanuel Diaconescu) D4 wraps rigid surface:with holomorphic bundle Change of J will induce decay Reproduces nontrivial results of Gottsche, Yoshioka Makes new math predictions Moduli of D4 branes is NOT the moduli of coherent sheaves! Hodge Polynomial of

D6-D2-D0 PartitionFunctions Marginal Stability Wall: Stable UNSTABLE z

Relation to Donaldson-Thomas

Core of the Matter ONLY CORE STATES HALOS+ CORES HALOS+ CORES z

OSV Wall crossing in B Problematic Still has wall-crossing as a function of J !! Diaconescu-MooreDenef-Van den Bleeken

A Refined OSV Formula Has no wall-crossing. In fact is B-independent

Polar States For D4-D2-D0 Charge Define: Then U-duality implies Black hole degeneracies (Fareytail story) is modular (slightly lying here)

Microscopic Polar States X S

Macroscopic Polar States Attractor formula Polar states are realized as Denef’s multi-centered solutions Extreme Polar States: D6

Sketch of Derivation of OSV

Limitations on the Derivation The derivation crucially depends on using only the extreme polar states These states can have large entropy! the derivation is only valid at LARGE coupling:

Entropy Enigma 2-Centered Solution Dominates the Entropy!

Magical Cancellations? Huang,Klemm,Marino,Tavanfar find tentative evidence for k=2, and not k=3! Closely related question: k=3 indicates the entropy enigma, k=2 suggests there are magical cancellations… … and even black hole dominance of the asymptotic degeneracy of states! Contradicts OSV… The issue is open and important.

Degeneracy Dichotomy We expect in the full theory dimension=index. Either there are no magical cancellations, and we have the entropy enigma, or, there, are magical cancellations. In that case we must worry about ``landscape of metastable states’’ Physically, the dimension determines the entropy. All successful microstate entropy computations have used the index.

Remark on the nonperturbative topological string One interesting point of OSV was the promise of a nonperturbative definition of the topological string. The Dondaldson-Thomas product formula natrually splits as a spin zero and positive spin factor:

So we need an answer to our riddle at the microscopic level!! We want to understand black hole entropy We found lots of ``irrelevant’’ stuff – Halos, Multi-Centered Core states, Swing States, … Single-centered black holes always cross the wall. Multi-centered solutions might or might not –but the multicentered ``scaling solutions’’ which cross the wall have macroscopic entropy.) So we really want to count the states which cross the wall… Concluding Riddle: Why did the BPS state cross the wall?

Related References: