HirosiFest @ Caltech

Asia/Tokyo
Description

Dates:  October 27-28, 2022
Venue: Caltech, Pasadena, USA

Overview: Prof. Hirosi Ooguri, who has long been a professor at Caltech, has made tremendous contributions in physics and mathematics, and is one of the most outstanding researchers of his generation. He is turning sixty this year, and we would like to take this opportunity to celebrate his remarkable contributions in physics and mathematics, bringing together experts worldwide.

This conference is proceeded by another event in celebration of Prof. Ooguri's 60th birthday: HirosiFest @ Kavli IPMU, October 20-21, 2022.

The conference is primarily in an "on-site/in-person" format, but we are thinking of making this event into a hybrid format, where online participation is also available. Note that Caltech requires on-site participants to be vaccinated and boosted.

Prof. Hirosi Ooguri

Invited speakers:

Mina Aganagic (Berkeley)
Nathan Berkovits (ICTP-SAIFR, Sao Paulo)
Jan de Boer (Amsterdam)
Csaba Csaki (Cornell)
Dan Freed (UT Austin)
Jaume Gomis (Perimeter)
Rajesh Gopakumar (ICTS)
Daniel Harlow (MIT)
Igor Klebanov (Princeton)
Yaron Oz (Tel Aviv)
Natalie Paquette (Washington)
Nathan Seiberg (IAS)
Steve Shenker (Stanford)
Washington Taylor (MIT)
Tadashi Tokieda (Stanford)
Erik Verlinde (Amsterdam)
Herman Verlinde (Princeton)

Banquet Speeches:

Mark Wise (Caltech) as MC
David Gross (KITP, UCSB)
Spenta Wadia (ICTS)

Session Chairs:

Oliver DeWolfe (Colorado)
Sergei Gukov (Caltech)
Anton Kapustin (Caltech)
Christoph Keller (Arizona)
Juan Maldacena (IAS)
John H. Schwarz (Caltech)
David Simmons-Duffin (Caltech)
Spenta Wadia (ICTS)
Masahito Yamazaki (Kavli IPMU)

Organizing Committee:

Juan Maldacena (IAS)
David Simmons-Duffin (Caltech)
John H. Schwarz (Caltech)
Cumrun Vafa (Harvard)
Masahito Yamazaki (Kavli IPMU)

Address: 

1200 East California Boulevard, Pasadena, California 91125


file


Participants
  • Adolfo Holguin
  • Aiden Sheckler
  • Aike Liu
  • Akishi Kato
  • Alexander Kusenko
  • Alexey Milekhin
  • Allic Sivaramakrishnan
  • Amey Gaikwad
  • Anayeli Ramirez
  • Andreas Helset
  • Andrew Frey
  • Anton Kapustin
  • Arpan Kundu
  • Ashton Lowenstein
  • Atsushi Horikoshi
  • Atsushi Katsuda
  • Brandon Rayhaun
  • Carol Silberstein
  • Chen-Te Ma
  • Chris Akers
  • Christoph Keller
  • CHRISTOS KOKORELIS
  • Clara Murgui
  • Clifford Cheung
  • Clifford Johnson
  • Cynthia Yan
  • Cyuan-Han Chang
  • Da Liu
  • David Grabovsky
  • David Gross
  • Deepak Sah
  • Diandian Wang
  • Dongjun Li
  • Edward Mazenc
  • Ethan Torres
  • Grant Remmen
  • Hao Zhang
  • Haoyu Sun
  • Henry Lin
  • Hidetoshi Awata
  • Hiroshi Naruse
  • Itamar Yaakov
  • Itzhak Bars
  • Jacob McNamara
  • Jaeha Lee
  • Jaime Besprosvany
  • Jerry Zhang
  • Jiakang Bao
  • Jie-qiang Wu
  • John Preskill
  • Jonathan Tannenhauser
  • Joonhwi Kim
  • Jordan Wilson-Gerow
  • Julio Parra-Martinez
  • Junbao Wu
  • Jyong-Hao Chen
  • Kaiwen Sun
  • Kakeru Sugiura
  • Kanato Goto
  • Kathryn Zurek
  • Ken Kikuchi
  • Kevin Loo
  • Ki-ichiro Sato
  • Kip Thorne
  • Koji Hasegawa
  • Lev Spodyneiko
  • Makoto Natsuume
  • Manki Kim
  • Maria Derda
  • Mark Van Raamsdonk
  • Mark Wise
  • Masafumi Shimada
  • Masahito Yamazaki
  • Masashi Hamanaka
  • Masataka Watanabe
  • Meer Ashwinkumar
  • Michael Dine
  • Michael Gutperle
  • Monica Jinwoo Kang
  • Mrunmay Jagadale
  • Nabha Shah
  • Nat Tantivasadakarn
  • Nathan Benjamin
  • nezhla Aghaei
  • Nikita Sopenko
  • Nobuhito Maru
  • Olexei Motrunich
  • Oliver DeWolfe
  • po-shen hsin
  • Pouya Golmohammadi
  • Pratik Rath
  • Rajeev Singh
  • Roberto Nazario
  • Ryo Suzuki
  • Sanjay Moudgalya
  • Sara Murciano
  • Satoru Odake
  • Satoshi Iso
  • Saurabh Kumar Shukla
  • Scott MacDonald
  • Sean McBride
  • Sergei Gukov
  • Shabeeb Alalawi
  • Shafeeq Rahman Thottoli
  • Shogo Aoyama
  • Shoichi Kawamoto
  • Shu-Heng Shao
  • Sridip Pal
  • Steve Giddings
  • Steven Frautschi
  • Tadashi Tokieda
  • Taizan Watari
  • Takahiro Kubota
  • Takanao Tsuyuki
  • Takeshi Morita
  • Takuya Yoda
  • Temple He
  • Tetsutaro Higaki
  • Toshihiro Ota
  • Tsunehide Kuroki
  • Vatche Sahakian
  • Vladimir Dobrev
  • Wasif Ahmed
  • Wayne Weng
  • Xi Dong
  • Xiaohua Ye
  • Xiaoyi Liu
  • Xie Chen
  • Xuyang Yu
  • Yakov Landau
  • Yas-Hiro Quano
  • Yasuhito Kaminaga
  • Ying Zhao
  • Yiting Li
  • Yoichi Kazama
  • Yoshihiko Abe
  • Yu Miyauchi
  • Yufeng Du
  • Yuji Sugimoto
  • Yuji Terashima
  • Yunqin Zheng
  • Yuta Hamada
  • Yutaka Ookouchi
  • Yutaka Yoshida
  • Yuuji Tanaka
  • Yuya Kusuki
  • zhenbin yang
  • Zhencheng Wang
  • Zihan Zhou
  • Thursday, October 27
    • 9:00 AM
      Registration at Reception
    • 1
      Jan de Boer (Amsterdam) Bridge 201

      Bridge 201

      [Session Chair: John H. Schwarz (Caletch)]

      "quantum gravity and statistical physics"

    • 2
      Nathan Berkovits (ICTP-SAIFR, Sao Paulo) Bridge 201

      Bridge 201

      [Session Chair: John H. Schwarz (Caltech)]

      "D=5 Holomorphic Chern-Simons and the Pure Spinor Superstring"

      Superstring amplitudes can be computed using either the N=1 worldsheet supersymmetric prescription of the RNS formalism or the twisted N=2 worldsheet supersymmetric prescription of the pure spinor formalism. Although all amplitudes computed using the two prescriptions coincide, there is still no equivalence proof and multiloop computations.contain different subtleties in the two prescriptions. D=5 holomorphic Chern-Simons amplitudes can also be computed using either N=1 or twisted N=2 worldsheet supersymmetric prescriptions, and provide insights for an equivalence proof of the RNS and pure spinor prescriptions.

    • 10:30 AM
      Break
    • 3
      Mina Aganagic (Berkeley) Hameetman Auditorium

      Hameetman Auditorium

      [Session Chair: Anton Kapustin (Caltech)]

      “Categorification of Chern-Simons link invariants from mirror symmetry”

    • 4
      Csaba Csaki (Cornell) Hameetman Auditorium

      Hameetman Auditorium

      [Session Chair: Anton Kapustin (Caltech)]

      "Magnetic scattering: pairwise little group and pairwise helicity"

      I explain the concept of the pairwise little group which leads to the existence of pairwise helicity for multi-particle states. This pairwise helicity is needed to describe the scattering of magnetically charged particles. I show how to implement pairwise helicity into the spinor-helicity formalism and with its help construct the general 3 point functions. For 2->2 scattering we use the generalization of the partial wave decomposition and derive the famous helicity flip in the lowest partial wave as a simple consequence of a generalized spin-helicity selection rule, as well as the full angular dependence for the higher partial waves. We show a potential resolution of Callan's long-standing semiton problem in our approach. Finally we show how these pairwise states can be understood dynamically as dressed states which incorporate the effects of soft photons, and provide a novel fully field theoretic derivation of Dirac quantization in terms of a geometric Berry phase.

    • 12:00 PM
      Lunch
    • 5
      Jaume Gomis (Perimeter) Bridge 201

      Bridge 201

      [Session Chair: Oliver DeWolfe (Colorado)]

      "Anomalies and Symmetry Fractionalization”

      ’t Hooft anomalies play a central role in informing nonperturbative dynamics.
      I will describe how the ’t Hooft anomalies of a physical
      system can depend on additional data, whose physical interpretation we elucidate,
      and discuss the implications of this for ’t Hooft anomaly matching.

    • 6
      Dan Freed (UT Austin) Bridge 201

      Bridge 201

      [Session Chair: Oliver DeWolfe (Colorado)]

      "Topological symmetry in field theory"

      Recently there has been lots of activity surrounding generalized notions of symmetry in quantum field theory, including "categorical symmetries", "higher symmetries", "noninvertible symmetries", etc. Inspired by definitions of abstract (finite) groups and algebras and their linear actions, we introduce a framework for these symmetries in field theory and a calculus of topological defects based on techniques in topological field theory. This is joint work with Constantin Teleman and Greg Moore.

    • 2:30 PM
      Break
    • 7
      Tadashi Tokieda (Stanford) Bridge 201

      Bridge 201

      [Session Chair: David Simmons-Duffin (Caltech)]

    • 3:30 PM
      Break
    • 8
      Stephen Shenker (physics colloquium) Bridge 201

      Bridge 201

      [Session Chair: David Simmons-Duffin (Caltech)]

    • 5:00 PM
      Wine and Cheese
    • 9
      Spenta Wadia (ICTS)

      Banquet speech

  • Friday, October 28
    • 10
      Rajesh Gopakumar (ICTS) Bridge 201

      Bridge 201

      [Session Chair: Spenta Wadia (ICTS)]

      "Deriving the Simplest Gauge-String Duality"

      The simplest large N gauge theory is, arguably, the Gaussian matrix (or more generally, one hermitian matrix) integral. We will explicitly show that arbitrary correlators of single trace operators in this theory (without any double scaling limit) are identical to corresponding physical correlators in a dual topological string description. We will present both a novel A-model dual and also a mirror B-model Landau-Ginzburg description. The equality of correlators arises via open-closed-open string triality and a surprising relation to the c=1 string theory. The goal will be, however, to go beyond demonstrating equality but rather to make the duality manifest. For the B-model description this involves Eynard's recasting of topological recursion relations in terms of intersection numbers on moduli space. For the A-model this goes through the relation of Gaussian correlators to the special Belyi covering maps or equivalently, discrete volumes of moduli space. Finally, we also briefly mention the significance of these results for the gauge-string duality of N=4 Super Yang-Mills theory. (Based on upcoming works with Edward Mazenc).

    • 11
      Yaron Oz (Tel Aviv) Bridge 201

      Bridge 201

      [Session Chair: Spenta Wadia (ICTS)]

      "Unraveling Turbulence: Modern Viewpoints On An Unsolved Problem"

      Fluid turbulence is a major unsolved problem of physics exhibiting an emergent complex structure from simple rules.
      We will briefly review the problem and discuss three avenues
      towards its solution: field theory, holography and machine learning.

    • 10:30 AM
      Break
    • 12
      Erik Verlinde (Amsterdam) Hameetman Auditorium

      Hameetman Auditorium

      [Session Chair: Juan Maldacena (IAS)]

      "K3, Topological Strings and the Entropic Principle"

    • 13
      Daniel Harlow (MIT) Hameetman Auditorium

      Hameetman Auditorium

      [Session Chair: Juan Maldacena (IAS)]

      "Where we are on the black hole information problem"

      I'll give an overview of recent developments on the black hole information problem and a status report.

    • 12:00 PM
      Lunch
    • 14
      Igor Klebanov (Princeton) Bridge 201

      Bridge 201

      [Session Chair: Sergei Gukov (Caltech)]

      "Group Invariant States as Quantum Many-Body Scars"

    • 15
      Natalie Paquette (Washington) Bridge 201

      Bridge 201

      [Session Chair: Sergei Gukov (Caltech)]

      "Top-down topological holography & twists on twistor space"

    • 2:30 PM
      Break
    • 16
      Nathan Seiberg (IAS) Bridge 201

      Bridge 201

      [Chair: Christoph Keller (Arizona)]

      "Symmetries and Anomalies on the Lattice"

    • 17
      Washington Taylor (MIT) Bridge 201

      Bridge 201

      [Chair: Christoph Keller (Arizona)]

      "From geometry to 4D physics"

      New insight into the topological structure of Calabi-Yau fourfolds provides a useful tool for organizing our understanding of chiral matter and how the Standard Model of particle physics can arise in the geometrical framework of F-theory. This work ties into a number of themes that have played an important role in Hirosi Ooguri's work over the course of his career.

    • 4:00 PM
      Break
    • 18
      Herman Verlinde (Princeton) Bridge 201

      Bridge 201

      [Chair: Masahito Yamazaki (Kavli IPMU)]

      "Some new observations about black hole partition functions"