Venkitesh P. Ayyar, PhD
Postdoctoral Associate (previously held)
Boston University
Hariri Institute for Computing and Computational Science & Engineering




Venkitesh Ayyar’s background is in Theoretical and Computational Particle Physics. Ayyar got his Ph.D. in Theoretical Physics from Duke University in September 2016, specializing in Lattice Field theory.

He is interested in developing novel Multigrid methods for lattice gauge theories. As part of the Exascale Computing Project (ECP), he is developing and implementing novel Multigrid methods for different fermion formulations on Exascale supercomputers such as Frontier at the Oak Ridge National Laboratory. He also explores lattice gauge theories of interest in Physics beyond the Standard Model of particle physics. As part of the Lattice Strong Dynamics (LSD) group, he is exploring SU(4) gauge theories of interest as dark matter candidates. He is currently building and optimizing lattice gauge theory code on supercomputers at the Lawrence Livermore National Laboratory. He also explores generative models to learn the underlying distribution of matter in the early universe. As part of the ExaLearn initiative, he is developing Generative adversarial Neural networks (GANs) that can produce novel maps of matter distribution for untrained values of cosmological parameters.

Prior to working at Boston University, he held postdoctoral positions at Lawrence Berkeley National Laboratory and University of Colorado.

Publications listed below are automatically derived from MEDLINE/PubMed and other sources, which might result in incorrect or missing publications. Faculty can login to make corrections and additions.

iCite Analysis       Copy PMIDs To Clipboard

  1. Ayyar V, Golterman M, Hackett DC, Jay WI, Neil ET, Shamir Y, Svetitsky B. Radiative contribution to the composite-Higgs potential in a two-representation lattice model. Physical Review D. 2019; 99(9). View Publication
  2. Ayyar V, Degrand T, Hackett DC, Jay WI, Neil ET, Shamir Y, Svetitsky B. Partial compositeness and baryon matrix elements on the lattice. Physical Review D. 2019; 99(9). View Publication
  3. Ayyar V, Degrand T, Hackett DC, Jay WI, Neil ET, Shamir Y, Svetitsky B. Finite-temperature phase structure of SU (4) gauge theory with multiple fermion representations. Physical Review D. 2018; 97(11). View Publication
  4. Ayyar V, Chandrasekharan S, Rantaharju J. Benchmark results in the 2D lattice Thirring model with a chemical potential. Physical Review D. 2018; 97(5). View Publication
  5. Ayyar V, Degrand T, Golterman M, Hackett DC, Jay WI, Neil ET, Shamir Y, Svetitsky B. Spectroscopy of SU (4) composite Higgs theory with two distinct fermion representations. Physical Review D. 2018; 97(7). View Publication
  6. Ayyar V, Degrand T, Golterman M, Hackett DC, Jay WI, Neil ET, Shamir Y, Svetitsky B. Baryon spectrum of SU (4) composite Higgs theory with two distinct fermion representations. Physical Review D. 2018; 97(11). View Publication
  7. Ayyar V, Chandrasekharan S. Generating a nonperturbative mass gap using Feynman diagrams in an asymptotically free theory. Physical Review D. 2017; 96(11). View Publication
  8. Ayyar V, Chandrasekharan S. Origin of fermion masses without spontaneous symmetry breaking. Physical Review D. 2016; 93(8). View Publication
  9. Ayyar V, Chandrasekharan S. Fermion masses through four-fermion condensates. Journal of High Energy Physics. 2016; 2016(10):1-20. View Publication
  10. Ayyar V. Semimetal-Insulator transition without a condensate. Journal of Physics: Conference Series. 2015; 640(1). View Publication
Showing 10 of 12 results. Show More

This graph shows the total number of publications by year, by first, middle/unknown, or last author.

Bar chart showing 12 publications over 6 distinct years, with a maximum of 4 publications in 2018

YearPublications
20131
20152
20162
20171
20184
20192


2018 Postdoc Research SLAM at Lawrence Berkeley National Lab: Finalist
2017 Flash Talk competition on research for Postdocs at CU Boulder: Winner
Contact for Mentoring:

Same Department