Past Seminars 
Time 
Speaker 
Title 
Host 
February 20, 1PM
Monday

Yuta Kikuchi
(Stony Brook)

Chiral magnetic effect without chirality source in asymmetric Weyl semimetals
We describe a new type of the Chiral Magnetic Effect (CME) in Weyl semimetals with an asymmetry in the dispersion relations of the left and righthanded chiral Weyl cones. In such materials, timedependent pumping of electrons from a nonchiral source generates a nonvanishing chiral chemical potential. This is due to the different capacities of the left and righthanded (LH and RH) chiral Weyl cones arising from the difference in the density of states in the LH and RH cones. The chiral chemical potential then generates, via the chiral anomaly, a current along the direction of an applied magnetic field even in the absence of an external electric field. We illustrate the effect by an effective field theory argument as well as by the chiral kinetic theory calculation for a Weyl semimetal with different Fermi velocities in the left and right chiral Weyl cones.


February 16, 2h30PM
Thursday

Juergen Eser
(Goethe University Frankfurt)

The extended linear sigma model within the functional renormalization group approach
We use the functional renormalization group (FRG) technique to explore the characteristics
of the socalled extended linear sigma model (eLSM). This model is an effective
description of the strong interaction in terms of quarks and mesonic fields. Besides scalars
and pseudoscalars, it also features vector and axialvector mesons.
The first part focuses on the restoration of chiral symmetry in the context of the transition
from hadronic matter to the quarkgluon plasma in the phase diagram of quantum
chromodynamics (QCD). Results on the order of the chiral phase transition in the presence
of vector and axialvector mesons will be presented. Vector mesons are of particular
interest since modifications related to chiral symmetry restoration affect their inmedium
spectral properties, which can be detected via decays into dileptons. Effects of the axial
anomaly and the explicit breaking of chiral symmetry due to nonzero quark masses are
also studied. The mass degeneracy of chiral partners beyond the phase boundary and the
phase diagram as a function of the temperature and the quarkchemical potential will be
shown.
The second part sheds light on the lowenergy limit of the eLSM. We consider the influence of wavefunction renormalization factors and couplings beyond the local potential
approximation. The infraredrelevant couplings can be associated with the corresponding
lowenergy constants of QCD.

J.F. Paquet 
February 3, 12PM
Friday

Adith Ramamurti
(Stony Brook University)

Practice talk: PathIntegral Monte Carlo Study of the Magnetic Component of QuarkGluon Plasma At and Above $T_c$


February 3, 12h40PM
Friday

Aleksas Mazeliauskas
(Stony Brook University)

Practice talk: Initial conditions for hydrodynamics from weakly coupled preequilibrium evolution


February 2, 3h30PM
Thursday

JeanFrançois Paquet
(Stony Brook University)

Practice talk: Electromagnetic probes in A+A and p+A collisions


February 2, 1PM
Thursday

Huiyoung Ryu
(Pusan National University)

Photoproduction and transition form factor

Ismail Zahed 
January 26, 3h30PM
Thursday

Björn Schenke
(Brookhaven National Lab)

The Ridge in p+p and p+Pb collisions: YangMills+Lund fragmentation
We present calculations of azimuthal anisotropies of produced gluons in p+p and p+Pb collisions within the YangMills framework.
In order to compare to recent experimental data from the LHC we combine the YangMills calculation with
the Lund fragmentation framework from PYTHIA, resulting in a new event generator that includes particle
production from the color glass condensate with string fragmentation. We present results of mean transverse
momentum and anisotropic flow for identified particles, showing a clear mass dependence, similar to that observed
in the experimental data.

J.F. Paquet 
January 26, 9h30AM
Thursday

Aleksas Mazeliauskas
(Stony Brook University)

PhD Defence: Fluctuactions in ultrarelativistic heavy ion collisions


January 18, 1PM
Wednesday

Peter Petreczky
(Brookhaven National Laboratory)

Weakly coupled QGP?

J.F. Paquet 
December 21, 3PM
Wednesday

Mauricio Adrian EscobarRuiz
(Universidad Nacional Autónoma de México & University of Minnesota)

Discussion on recent developments in semiclassical theories 
Edward Shuryak 
December 21, 1PM
Wednesday

Alezander Turbiner
(Universidad Nacional Autónoma de México & Stony Brook)

Developments in semiclassical theories 
Edward Shuryak 
December 8, 3h30PM
Thursday

Michał P. Heller
(Perimeter)

Hydrodynamization and transient modes of expanding plasma in kinetic theory

J.F. Paquet 
December 1, 3h30PM
Thursday

Stefan Flörchinger
(Heidelberg University)

Dissipation from the analytically continued 1 PI effective action
The analytic continuation from the Euclidean domain to real space of the oneparticle irreducible quantum effective action is discussed in the context of generalized local equilibrium states. Discontinuous terms associated with dissipative behavior are parametrized in terms of a conveniently defined sign operator. A generalized variational principle is then formulated, which allows to obtain causal and real dissipative equations of motion from the analytically continued quantum effective action. Differential equations derived from the implications of general covariance determine the spacetime evolution of the temperature and fluid velocity fields and allow for a discussion of entropy production including a local form of the second law of thermodynamics.

Aleksas Mazeliauskas 
November 28, 1PM
Monday

Morgan Henry Lynch
(University of Wisconsin  Milwaukee)

Applications of Accelerated Quantum Dynamics to Hadronic Physics
Utilizing the Unruh effect, and the associated temperature, I will present an effective Fermi theory of accelerationinduced interactions. This accelerated quantum dynamics provides a framework for computing a wide class of observables to probe the physics of high acceleration. General expressions for the emission rate, multiplicity, power, spectra, and displacement law of particles undergoing timedependent acceleration and transitioning into a final state of arbitrary particle number will be presented. As potential applications, I will show how this formalism may be applied to thermal particle production in hadronic collisions and quark gluon plasmas.


November 18, 12h45PM
Friday

Alina Czajka
(McGill University)

Quantumfieldtheoretical approach to shear and bulk relaxation times
The shear and the bulk relaxation times are important ingredients of the second order hydrodynamics whose success in heavy ion phenomenology is unquestioned. Unlike viscosites themselves, field theoretical calculations of the relaxation times are hard to come by in literature, especially for the bulk relaxation time. In this talk, we report two fieldtheoretical analyses involving the shear and the bulk relaxation time. First, by carefully examining the analytic structure of the stressenergy tensor response functions, we have been able to derive, for the first time, a Kubo formula involving both the shear and the bulk relaxation times. Second, by evaluating the Kubo formula within the massless scalar theory, we have so far been able to calculate the shear relaxation time in a simple form. We will then show how this calculation can be extended to calculate the bulk relaxation time as well.

J.F. Paquet 
November 10, 2h30PM
Thursday

Raju Venugopalan
(Brookhaven National Lab)

Berry's phase and the Chiral Anomaly from supersymmetric world lines: towards the anomalous Boedeker theory
We outline an ab initio derivation of how Berry's phase and the chiral anomaly arise in a heat kernel
regularization of the fermion determinant in QCD. We further argue that a semiclassical treatment of the resulting supersymmetric world line
equations of motion provides the framework to derive a chiral kinetic theory that includes the effects of fluctuations induced by topological transitions.
The phenomenological implications of these developments for the Chiral Magnetic Effect are noted.

Dima Kharzeev

November 9, 1PM
Wednesday

Yi Yin
(MIT)

New quantum effects in relativistic magnetohydrodynamics: topology, instability and selfsimilarity
Chiral anomaly induces a family of macroscopic quantum behaviors in chiral medium, including the chiral magnetic effect. The application of these effects covers systems of enormous varieties and scales, ranging from the structure of primordial magnetic field in the early universe to charged particle correlation in heavyion collisions and negative magnetoresistivity in the newly discovered Weyl semimetal. In this talk, I will present three closely related aspects of new quantum effects present in fluids that contain chiral fermions: topology, instability and selfsimilarity. I will demonstrate the magnetic reconnections changing chirality of magnetic flux induces in the fluid a quantized electric current, a new kind of the "chiral magnetic effect". I further show selfsimilar inverse cascade driven by the chiral magnetic current. Finally, I report a new type of instability in a magnetohydrodynamics due to anomaly.


November 2, 12h30PM
Wednesday

Yachao Qian
(Stony Brook)

Form Invariance, Topological Fluctuations and Mass Gap of YangMills Theory
We study the quantum YangMills theory in the presence of topologically nontrivial backgrounds. The topologically stable gauge fields are constrained by the form invariance condition and the topological properties. Obeying these constraints, the known classical solutions to the YangMills equation in the 3 and 4dimensional Euclidean spaces are recovered, and the other allowed configurations form the nontrivial topological fluctuations at quantum level. Together, they constitute the background configurations, upon which the quantum YangMills theory can be constructed. We demonstrate that the theory mimics the Higgs mechanism in a certain limit and develops a mass gap at semiclassical level on a flat space with finite size or on a sphere.

Ismail Zahed

October 27, 4PM
Thursday

Eugene Levin
(Tel Aviv University)

Perturbative QCD and beyond: BoseEinstein correlation and $v_n$ at any n

Dima Kharzeev

October 21, 12h45PM
Friday

Niklas Mueller
(Heidelberg University)

Chiral magnetic effect and anomalous transport from realtime lattice simulations
We present a firstprinciples study of anomaly induced transport phenomena by performing realtime lattice simulations with dynamical fermions coupled simultaneously to nonAbelian SU(Nc) and Abelian U(1) gauge fields. Investigating the behavior of vector and axial currents during a sphaleron transition in the presence of an external magnetic field, we demonstrate how the interplay of the chiral magnetic and chiral separation effect leads to the formation of a propagating wave. We further analyze the dependence of the magnitude of the induced vector current and the propagation of the wave on the amount of explicit chiral symmetry breaking due to finite quark masses. Further we perform simulations using overlapfermions for the first time in realtime, showing that in the classical statistical regime they can be related to the Wilson formulation.

J.F. Paquet 
October 6, 3h30PM
Thursday

Yuya Tanizaki
(Brookhaven National Lab)

Lefschetzthimble path integral for studying the Silver Blaze phenomenon
Recently, PicardLefschetz theory has received much attention in the context of the sign problem, because it enables us to study the system with the complex classical action nonperturbatively by extending the semiclassical analysis. In this seminar, after a brief introduction, I will apply it to the onesite Hubbard model. This model has a severe sign problem, which looks quite similar to that of the finitedensity QCD at low temperatures. By solving this model using the Lefschetzthimble path integral, we are trying to understand the structure of the sign problem of finitedensity QCD. In particular, I give a speculation about the earlyonset problem of the baryon number density, called the baryon Silver Blaze problem. We also discuss that the complex Langevin method does not work in a certain situation.

J.F. Paquet 
August 29, 2h30PM
Monday

Niko Jokela
(University of Helsinki)

Towards sliding stripes in holography
The D3D7' system provides a unique laboratory to address notoriously difficult questions in (2+1)dimensional fermionic systems at strong coupling via AdS/CFT. I will review select properties of the dense holographic matter in this brane intersection model. At low temperature, the ground state is a spatially modulated charge and spin density wave. A linear external electric field will kick the stripes to slide. Holographic techniques allows us to separate out the contributions of the modulation and the sliding to the electric conductivities. This provides a new viewpoint to understand the otherwise challenging quantum Hall fluids which spontaneously break the translational symmetry.

René Meyer 
August 8, 1PM
Monday

Tigran Kalaydzhyan
(University of Illinois at Chicago)

Testing gravity on accelerators
Weak equivalence principle (WEP) is one of the cornerstones of the
modern theories of gravity, stating that the trajectory of a freely
falling test body is independent of its internal structure and
composition. Even though WEP is known to be valid for the usual
matter, it has never been experimentally confirmed for antimatter and
relativistic matter. We make an attempt to constrain possible
deviations from WEP utilizing the modern accelerator technologies. We
analyze the (absence of) vacuum Cherenkov radiation, photon decay and
anomalous synchrotron losses at the Large ElectronPositron Collider
(LEP) and at Tevatron to put limits on a difference between the
gravitational and inertial masses of the relativistic
electrons/positrons. Our main result is the 0.1% upper limit on the
mentioned difference. I will further explain how this figure can be
improved with the analysis of a highenergy Compton scattering at the
future International Linear Collider (ILC).


August 4, 3h30PM
Thursday

J. Meng
(Peking University)

Covariant density functional theory for nuclear structure

Thomas Kuo 
July 27, 1PM
Wednesday

Michael Lublinsky
(BenGurion University)



July 15, 1PM
Friday

Song Shu
(Stony Brook)

One loop quantum fluctuations to the energy of the nontopological soliton in FriedbergLee model
I have used a practical method to calculate the oneloop quantum
correction to the energy of the nontopological soliton in
FriedbergLee model. The quantum effects which come from the
quarks of the Dirac sea scattering with the soliton bag are
calculated by a summation of the discrete and continuum energy
spectrum of the Dirac equation in the background field of soliton.
The phase shift of the continuum spectrum is numerically
calculated in an efficient way and all the divergences are removed
by the same renormalization procedure.


July 12, 1PM
Tuesday

Matti Järvinen
(École Normale Supérieure)

Magnetic field and theta dynamics in holographic QCD
I will start by an introduction to holographic QCD, concentrating on bottomup models where the backreaction of quarks to gluon dynamics is fully included (VQCD). I go on turning on a finite temperature and magnetic field, and demonstrate that inverse magnetic catalysis can be obtained. The physics of theta angle and axial anomaly can also be consistently included. In the limit of small quark mass, the predictions of the model agree with effective field theory: in particular the mass of the pions obey the GellMannOakesRenner relation and the etaprime meson obeys the WittenVeneziano relation.

René Meyer 
July 7, 12h30PM
Thursday

Rasmus Larsen



June 28, 1PM
Tuesday

Gabor Almasi
(GSI/BNL)

Fluctuations as probes of the chiral phase transition
Fluctuations of conserved charges are important observables that offer insight into the phase structure of strongly interacting matter. Around critical points, such as the chiral critical endpoint of QCD, higher order cumulants of the relevant quantities show universal behavior. The universal behavior of baryon number cumulants can be studied in effective models that lie in the same universality class as QCD. Such a model is for example the Quark Meson model. In my talk I discuss what one can learn from effective field theory studies of fluctuations and present my results obtained using the Functional Renormalization Group method in the Quark Meson model.

J.F. Paquet 
June 22, 1PM
Wednesday

Bin Wu
(Ohio State University)

Leading log resummation in highenergy parton production in QCD matter
In this talk I shall start with the double logarithmic correction to the transverse momentum broadening of highenergy parton in QCD matter. Such a double logarithmic term, averaged over the path length of the partons, can be taken as the radiative correction to the jet quenching parameter $\hat{q}$ and contributes to radiative energy loss. Then, I shall talk about how such a double log is hidden in the smallx evolution of a quarkantiquark dipole described by the BalitskyKovchegov equation in a large nucleus. At the end, I shall discuss that the smallx WW quark distribution includes such a medium double log as well as Sudakov double logs.

J.F. Paquet 
June 14, 1PM
Tuesday

Stefan Rechenberger
(Darmstadt/BNL)

The Functional Renormalization Group Method and Delayed Magnetic Catalysis
This talk will start with a very general introduction to the Functional Renormalization Group method, a powerful nonperturbative tool which can be applied to various problems. The second part of the talk will demonstrate this by discussing the influence of an external magnetic field on the chiral phase transition in the theory of strong interaction. The Functional Renormalization Group analysis shows that, driven by gluon dynamics, the chiral critical temperature decreases for small values of the magnetic field. For large values of the external field, however, the phase transition temperature increases.

J.F. Paquet 
June 6, 1PM
Monday

Yachao Qian
(Stony Brook University)

Form Invariance, Topological Fluctuations and Mass Gap of YangMills Theory

Ismail Zahed

June 3, 12h
Friday

Takumi Iritani
(Stony Brook University) 
Baryon interaction from lattice QCD
Baryon interactions are important quantities in nuclear physics. Both Luscher's finite volume method and HAL QCD method are used to calculate hadron interactions from lattice QCD. However, these two approaches give different results for nucleonnucleon system in the previous studies. For example, at unphysical pion mass, deuteron and dineutron become bound states in Luscher's method, while both channels are unbound in HAL QCD approach.
In this talk, I will clarify this puzzle, and show how to approach baryon interactions from lattice QCD correctly. I will also review recent progress of baryon potentials at physical pion mass from lattice QCD by HAL QCD Collaboration.


June 2, 3h30PM
Thursday

Sören Schlichting
(Brookhaven National Lab) 
Nonequilibrium dynamics of topological transitions and axial charges 
J.F. Paquet 
May 18, 12h
Wednesday

Aleksas Mazeliauskas
(Stony Brook)

Initial conditions for hydrodynamics from weakly coupled preequilibrium evolution
We use effective kinetic theory, accurate at weak coupling, to simulate
the preequilibrium evolution of transverse energy and flow perturbations in heavyion collisions. We provide
a Green function which propagates the initial perturbations to the energymomentum tensor at a time
when hydrodynamics becomes applicable. With this map,
the complete prethermal evolution from saturated nuclei to hydrodynamics can be modelled in a perturbatively controlled way.
[https://arxiv.org/abs/1605.04287]


May 16, 12h30
Monday

Heikki Mantysaari
(Brookhaven National Lab) 
Incoherent diffraction as a probe of proton structure fluctuations
Exclusive vector meson production can be used to directly probe the gluon density of a hadron. Measuring the cross section differentially in momentum transfer makes it possible to determine the transverse density profile (via coherent diffraction) and density fluctuations (incoherent diffraction) of the target hadron. This knowledge of the geometric fluctuations of the proton is particularly important for understanding collective phenomena observed in protonnucleus collisions.
We calculate coherent and incoherent diffractive vector meson production in photonproton scattering in the Color Glass Condensate framework. The dipole model used in the calculation is constrained by the proton structure function data. By implementing subnucleon scale fluctuations using the constituent quark model or the IPglasma framework we demonstrate that incoherent gammap scattering measurements from HERA suggest that the proton shape has large eventbyevent fluctuations.

J.F. Paquet 
April 28, 4PM
Thursday

Daniel Tapia Takaki
(University of Kansas) 
Nuclear gluon effects in gamma+Pb collisions at the LHC
By studying quarkonia photonuclear production, the ALICE and CMS collaborations have recently provided experimental evidence of nuclear gluon effects in gamma+Pb interactions at unprecedentedly low Bjorkenx values in the Pb nucleus. In this talk, an experimental and theoretical review about these studies will be given. The prospect of innovative quarkonia and jet measurements using the Run 2 data at the LHC will be described.

Abhay Deshpande 
April 28, 10AM
Thursday

Gökçe Başar
(University of Maryland)

Going with the flow: sign problem, Lefschetz thimbles and beyond
Monte Carlo methods, a robust way of studying field theories and many body systems, suffer from the sign problem when the action is complex. This includes an important set of problems such as most field theories, including QCD, and strong correlated electronic systems at finite density, as well as computation of real time quantities like transport coefficients. I will show that lifting the path integration to a complex manifold provides a way to ameliorate the sign problem, and introduce a new algorithm for carrying on such a computation. I will give some quantum mechanical examples with severe sign problems, including finite density of fermions and real time observables where Monte Carlo simulations can be profitably performed by this method. Finally I will discuss the 3+1d Bose gas with nonzero chemical potential.


April 27, 13h
Wednesday

Mauricio Adrian Ruis
(University of Minnesota)

Two charges in a magnetic field


April 22, 12h30
Friday

Rene Meyer
(Stony Brook)

Holographic YangMillsChernSimons Defects
ChernSimons gauge theories in 3 dimensions are an important class of quantum field theories, both because they (and their matter extensions) offer some of the few solvable QFTs in more than 2 dimensions, and because of their realworld applications in condensed matter theory.
In this talk we will discuss domain walls that shift the value of the ChernSimons level in field theories described in the IR by ChernSimonsYangMills theory, and their embedding in gauge/gravity correspondence in terms of D7 branes on the AdS soliton geometry. After carrying out holographic renormalization to evaluate the free energy with sources, we evaluate the behavior of correlation functions on and between defects, and from this derive interesting phase transitions as a function of defect separation and temperature. We will also comment on possible implications for the fractional quantum hall effect and a connection to 2d (holographic) QCD.


April 8, 12h30
Friday

Mark Mace
(Stony Brook/BNL)

Sphalerons Far From Equilibrium and Associated Phenomena
In this talk, I will present a first computation of sphalerons in the glasma; the highly occupied, weakly coupled gluon dominated preequilibrium matter created at early times after an ultrarelativistic heavy ion collisions. The sphaleron transition is a well known ingredient in the generation of anomalous vector current in a strong magnetic field, the socalled Chiral Magnetic Effect. We perform classicalstatistical realtime lattice simulations to study the dynamics of these topological transitions; simplifying our description by employing SU(2) gauge fields and neglecting the longitudinal expansion for this first study. I will show that the nonequilibrium sphaleron transition rate is time dependent and nonMarkovian, in addition to being dominant in comparison to the thermal equilibrium sphaleron transition rate. In addition, we can measure the scaling and separation of physical scales in analogy to those from thermal equilibrium, in order to parameterize this rate and understand the approach to equilibrium. I will then demonstrate that it is the magnetic screening length, which we extract nonpertrubatively, that controls this rate. Additionally, I will briefly mention studies of related anomalous transport effects that we plan on studying using this first principles classicalstatistical realtime lattice technology.


March 3, 3h30PM
Thursday

Yuta Kikuchi
(Stony Brook)

Mesoscopic dynamics of fermionic cold atoms: quantitative analysis of transport coefficients and relaxation times
We give a quantitative analysis of the shear viscosity, heat conductivity, and viscous relaxation times, using the novel microscopic expressions derived by the renormalization group (RG) method, where the Boltzmann equation is faithfully solved to extract the hydrodynamics without recourse to any ansatz. We examine the quantum statistical effects, temperature dependence, and scatteringlength dependence of the transport coefficients and the viscous relaxation times. The numerical calculation shows that the relation $\tau_\pi=\eta/P$, which is derived in the relaxationtime approximation (RTA) and is used in the most literature, turns out to be satisfied quite well, while the similar relation for the viscous relaxation time $\tau_J$ of the heat conductivity is satisfied only approximately with a considerable error.


February 18, 3h30PM
Thursday

Niklas Mueller
(BNL/Heidelberg)

Anomalyinduced dynamics in strong field QED
We investigate the impact of the AdlerBellJackiw axial anomaly on the realtime dynamics of quantum electrodynamics in the strong field regime.
While it is known that there is no net production of axial charges in equilibrium situations, we show that there are intriguing consequences if one considers the farfromequilibrium dynamics.
Using realtime lattice simulations we study the evolution of the electromagnetic field for initial conditions which lead to the production of vector and axial charges via the Schwinger effect and the axial anomaly.
We show that the Chiral Magnetic Effect, which has been predicted in the context of ultrarelativistic heavy ion collisions, can result in nontrivial experimental signatures, which could possibly be observed in future highintensity laser experiments.
Further I will give an outlook and first results on anomalous particle production in nonAbelian backgrounds as a first step towards the investigation of the Chiral Magnetic Effect using realtime lattice methods.

Dima Kharzeev 
February 12, 12h
Friday

Matthew Lippert
(Long Island University  Brooklyn) 
Phases of Holographic QCD
This talk will be a review of holographic QCD, focused primarily on the SakaiSugimoto model. I will explain the strengths and weaknesses of the SakaiSugimoto model, especially as compared with other holographic models, and I will present the results of the phase diagram at nonzero baryon charge.

Rene Meyer 
February 11, 3h30PM
Thursday

Takumi Iritani
(Stony Brook) 
Finite temperature phase transition of Nf = 3 SU(3) gauge theory with exact center symmetry
Confinement is often discussed in terms of center symmetry, however, quarks break this symmetry explicitly, and there are no definite order parameters for "confinement". In this talk, we introduce a formulation of center symmetric QCDlike theory with quarks by introducing specific boundary conditions. We discuss center and chiral phase transitions of such QCDlike theory at finite temperature from lattice QCD calculation.


January 29, 12h30PM
Friday

Yukinao Akamatsu
(Stony Brook) 
Kinetic regime of hydrodynamic fluctuation and renormalization 

January 15, 12h30PM
Friday 
Rasmus Larsen
(Stony Brook) 
Confinement and Chiral symmetry breaking from an Interacting Instantondyon ensemble for 2 colors and Nf flavors 

January 14, 4PM
Thursday

Ismail Zahed
(Stony Brook) 
Flow in spectra (part 2) 

January 11, 1PM
Monday

Ismail Zahed
(Stony Brook) 
Flow in spectra (part 1) 

January 8, 12h30PM
Friday

Edward Shuryak
(Stony Brook) 
New semiclassical method for QM and QFTs 

December 4 
Sergey Syritsyn 
TBA 
Robert Shrock 
December 2 
HueyWen Lin 
Frontiers in Lattice Nucleon Structure 
Robert Shrock 
November 30 
Yasumichi Aoki 
TBA 
Robert Shrock 
October 8, 4PM 
J. Noronha 
TBA 

October 9, 1PM 
Jacob Sonnenscheim 
TBA 

October 13, 1PM 
Jacob Sonnenschein 
TBA 

September 17, 4PM 
Yukinao Akamatsu 
Heavy Quarks in the QGP as Open Quantum
Sys

Edward Shuryak 
September 11, 1PM 
Song Shu 
Chiral Solitons 
Edward Shuryak 
September 3, 4PM 
Stanislaw Glazek 
Asymptotic Freedom of Gluons in the Fock Space 
Dima Kharzeev 