Daniel Hooper

Theoretical Astrophysics Group, Fermi National Accelerator Laboratory; Associate Professor, KICP

Ph.D, Physics, University of Wisconsin, 2003
 
Contact Information
Phone: (773) 702-4197
Location: ERC 483
Email: dhooperfnal.gov
WWW: Web Site
 
Research
My research focuses on the interface between particle physics and cosmology. Particle physics explores the fundamental nature of energy and matter, while cosmology is the science of the universe itself, including its composition, history and evolution. Some of the areas of this field that I have worked on include dark matter, supersymmetry, high-energy neutrinos, extra dimensions and ultra-high energy cosmic rays.

As the new field of astro-particle physics rapidly develops, we are witnessing an exciting time in the history of science. In addition to the progress being made in the traditional areas of experimental particle physics (accelerator experiments), exciting developments are also taking place in the use of astrophysical experiments to study elementary particles. The most striking example of this success is the measurement of the neutrino masses and mixing angles that have been made over the last decade. Many of the questions asked by particle physicists are difficult to address with collider experiments and are being explored ever increasingly by astrophysicists. These efforts include the development of particle dark matter searches, ultra-high energy cosmic rays detectors, gamma-ray telescopes and high-energy neutrino telescopes. My research is focused primarily, although not entirely, on studying and exploring particle physics beyond the Standard Model using astrophysics.
 
Talks, Lectures, & Workshops

 
Students
GRADUATE STUDENTS
Past Students

GRADUATE: Asher Berlin (2016), Christopher M. Kelso (2012)
 
Currently in Committees
  • Fellowship committee (Chair)

 
KICP Publications
2018 | 2017 | 2016 | 2015 | 2014 | 2013 | 2012 | 2011 | 2010


Latest Journal Publications
  1. "Severely Constraining Dark Matter Interpretations of the 21-cm Anomaly", arXiv:1803.02804 (Mar 2018)
  2. "Millisecond Pulsars, TeV Halos, and Implications For The Galactic Center Gamma-Ray Excess", arXiv:1803.08046 (Mar 2018)
  3. "Robust Constraints and Novel Gamma-Ray Signatures of Dark Matter That Interacts Strongly With Nucleons", arXiv:1802.03025 (Feb 2018)
  4. "High-energy gamma rays and neutrinos from nearby radio galaxies", Journal of Cosmology and Astroparticle Physics, Issue 12, article id. 017 (2017) (Dec 2017)
  5. "Novel Gamma-Ray Signatures of PeV-Scale Dark Matter", arXiv:1712.02805 (Dec 2017)
  6. "HAWC observations strongly favor pulsar interpretations of the cosmic-ray positron excess", Physical Review D, Volume 96, Issue 10, id.103013 (Nov 2017)
  7. "Using HAWC to discover invisible pulsars", Physical Review D, Volume 96, Issue 10, id.103016 (Nov 2017)
  8. "Hidden sector dark matter and the Galactic Center gamma-ray excess: a closer look", Journal of Cosmology and Astroparticle Physics, Issue 11, article id. 042 (2017) (Nov 2017)
  9. "Measuring the Local Diffusion Coefficient with H.E.S.S. Observations of Very High-Energy Electrons", arXiv:1711.07482 (Nov 2017)
  10. "Comment on "Characterizing the population of pulsars in the Galactic bulge with the $ extit{Fermi}$ Large Area Telescope" [arXiv:1705.00009v1]", arXiv:1710.10266 (Oct 2017)
  11. "Resolving Dark Matter Subhalos With Future Sub-GeV Gamma-Ray Telescopes", arXiv:1709.08562 (Sep 2017)
  12. "Possible evidence for the stochastic acceleration of secondary antiprotons by supernova remnants", Physical Review D, Volume 95, Issue 12, id.123007 (Jun 2017)
  13. "Low mass X-ray binaries in the Inner Galaxy: implications for millisecond pulsars and the GeV excess", Journal of Cosmology and Astroparticle Physics, Issue 05, article id. 056 (2017) (May 2017)
  14. "TeV Gamma Rays From Galactic Center Pulsars", arXiv:1705.09293 (May 2017)
  15. "Axion-assisted production of sterile neutrino dark matter", Physical Review D, Volume 95, Issue 7, id.075017 (Apr 2017)
  16. "Gamma rays from dark matter subhalos revisited: refining the predictions and constraints", Journal of Cosmology and Astroparticle Physics, Issue 04, article id. 018 (2017) (Apr 2017)
  17. "The density of dark matter in the Galactic bulge and implications for indirect detection", Physics of the Dark Universe, Volume 15, p. 53-56 (Mar 2017)
  18. "Updated collider and direct detection constraints on Dark Matter models for the Galactic Center gamma-ray excess", Journal of Cosmology and Astroparticle Physics, Issue 02, article id. 038 (2017) (Feb 2017)
  19. "The Effects of Dark Matter Annihilation on Cosmic Reionization", The Astrophysical Journal, Volume 833, Issue 2, article id. 162, 7 pp. (2016) (Dec 2016)
  20. "Toward (finally!) ruling out Z and Higgs mediated dark matter models", Journal of Cosmology and Astroparticle Physics, Issue 12, article id. 029 (2016) (Dec 2016)

Latest Conference Proceedings
  1. "The Fermi Galactic Center excess as a signal from Bursts of Cosmic-Rays", APS April Meeting 2017, abstract id. R5.007 (Jan 2017)
  2. "Dark Matter Annihilation and the Origin of Synchrotron Radio Emission from the Galactic Center Filaments", American Astronomical Society, AAS Meeting #219, #112.03 (Jan 2012)
  3. "The Hunt For Dark Matter", American Physical Society, APS April Meeting 2011, April 30-May 3, 2011, abstract #A1.003 (Apr 2011)

 
Visitors
Past Visitors:
  1. Surjeet Rajendran, UC Berkeley (2016)
  2. Timothy Linden, UC - Santa Cruz (2013)