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Theoretical Astrophysics Santa Cruz Theoretical Astrophysics Santa Cruz DON'T BE DISTRACTED... Anthony Aguirre ...by the redwood trees, pristine beaches, and Doug Lin Physics brilliant sunshine... Astronomy & Astrophysics Cosmology; inflation; SANTA CRUZ HOSTS HARDCORE ASTROPHYSICS. Planet and star formation; gravity; galaxy formation; accretion disks; stellar UCSC’s astrophysics group is one of the world’s best, dynamics boasting top faculty across a broad range of subjects, great Erik Asphaug Piero Madau Earth & Planetary Sciences access to instrumental and computational resources, and a Astronomy & Astrophysics top-notch graduate training program. And yes, exceptional Origin and evolution of the quality of life. Interested? Cosmology and high-energy solar system; comets and astrophysics asteroids TASC is a research unit spanning four affiliated departments. Nic Brummell We work closely with each other and with experimentalists, Francis Nimmo Applied Math instrumentalists, and observers at the University of California Earth and Planetary Sciences Observatories, the Santa Cruz Institute for Particle Physics, the Structure and evolution of Planetary and stellar Center for Adaptive Optics, the Center for the Origin, interiors; computational rocky and icy planets magnetohydrodynamics; Dynamics, and Evolution of Planets, and the Institute for Geophysics and Planetary Physics. As part of TASC, you will Jonathan Fortney also have opportunities to access our new world-class Pleiades Joel Primack Astronomy & Astrophysics Supercomputer and to become deeply involved in science Physics using GLAST, Hubble, Keck, Spitzer, VERITAS, NuSTAR, Planetary atmosphere and Cosmology; galaxy interior physics planetary spacecraft, and other world-class instruments. formation; dark matter TASC science tackles a wide range of problems, such as: Pascale Garaud How do stars and planets form, evolve, move, and die? Is Stefano Profumo Applied Math Earth unique? How were the elements created? How do black Physics holes impact the Universe? What is the nature of dark matter Solar and stellar interiors; High-energy and particle disk dynamics and dark energy? How do galaxies form and evolve? How did astrophysics; dark matter the Universe begin (and are there other universes)? Gary Glatzmaier DID YOU KNOW?... Enrico Ramirez-Ruiz Earth & Planetary Sciences Cold-dark-matter galaxy formation theory began at UCSC. Astronomy & Astrophysics The hypernova model for GRBs was invented at UCSC. Computer simulations of High-energy astrophysics; stellar and planetary UCSC’s physics faculty is the nation’s most highly cited. stellar explosions; GRBs; dynamos Most known extrasolar planets were discovered with UCSC- accretion disks built equipment. Adriane Steinacker Mark Krumholz UCSC physicists are major builders and users of GLAST. Astronomy & Astrophysics Astronomy & Astrophysics UCSC pioneered giant optical telescopes like Keck, and is Star formation; making the key technology breakthroughs for even larger Formation of planetary interstellar medium; telescopes. systems; solar system numerical methods dynamics. As a TASC graduate student, you will contribute significantly Greg Laughlin to world-class, cutting-edge discoveries while positioning Stan Woosley Astronomy & Astrophysics Astronomy & Astrophysics yourself to follow previous UCSC students who have gone on Extrasolar planets; stellar to become Hubble Fellows, Keck Fellows, Chandra Fellows, Nuclear astrophysics; evolution; disk dynamics and junior faculty at excellent institutions. supernovae; gamma ray bursts; nucleosynthesis HOW TO APPLY: submit all applications to the Graduate Division of the University of California at Santa Cruz (http://graddiv.ucsc.edu/admissions). Apply to the UCSC department of your choice but indicate your interest in TASC in the application. All TASC-oriented applications will be reviewed jointly. Also send a separate letter of interest to Maria Sliwinski ([email protected]), TASC graduate program advisor, 201 Interdisciplinary Sciences Bldg., UC Santa Cruz, Santa Cruz CA 95064. For further information see http://astro.ucsc.edu/tasc Theoretical Astrophysics Santa Cruz DON'T BE DISTRACTED... Anthony Aguirre ...by the redwood trees, pristine beaches, and Doug Lin Physics brilliant sunshine... Astronomy & Astrophysics Cosmology; inflation; SANTA CRUZ HOSTS HARDCORE ASTROPHYSICS. Planet and star formation; gravity; galaxy formation; accretion disks; stellar UCSC’s astrophysics group is one of the world’s best, dynamics boasting top faculty across a broad range of subjects, great Erik Asphaug Piero Madau Earth & Planetary Sciences access to instrumental and computational resources, and a Astronomy & Astrophysics top-notch graduate training program. And yes, exceptional Origin and evolution of the quality of life. Interested? Cosmology and high-energy solar system; comets and astrophysics asteroids TASC is a research unit spanning four affiliated departments. Nic Brummell We work closely with each other and with experimentalists, Francis Nimmo Applied Math instrumentalists, and observers at the University of California Earth and Planetary Sciences Observatories, the Santa Cruz Institute for Particle Physics, the Structure and evolution of Planetary and stellar Center for Adaptive Optics, the Center for the Origin, interiors; computational rocky and icy planets magnetohydrodynamics; Dynamics, and Evolution of Planets, and the Institute for Geophysics and Planetary Physics. As part of TASC, you will Jonathan Fortney also have opportunities to access our new world-class Pleiades Joel Primack Astronomy & Astrophysics Supercomputer and to become deeply involved in science Physics using GLAST, Hubble, Keck, Spitzer, VERITAS, NuSTAR, Planetary atmosphere and Cosmology; galaxy interior physics planetary spacecraft, and other world-class instruments. formation; dark matter TASC science tackles a wide range of problems, such as: Pascale Garaud How do stars and planets form, evolve, move, and die? Is Stefano Profumo Applied Math Earth unique? How were the elements created? How do black Physics holes impact the Universe? What is the nature of dark matter Solar and stellar interiors; High-energy and particle disk dynamics and dark energy? How do galaxies form and evolve? How did astrophysics; dark matter the Universe begin (and are there other universes)? Gary Glatzmaier DID YOU KNOW?... Enrico Ramirez-Ruiz Earth & Planetary Sciences Cold-dark-matter galaxy formation theory began at UCSC. Astronomy & Astrophysics The hypernova model for GRBs was invented at UCSC. Computer simulations of High-energy astrophysics; stellar and planetary UCSC’s physics faculty is the nation’s most highly cited. stellar explosions; GRBs; dynamos Most known extrasolar planets were discovered with UCSC- accretion disks built equipment. Adriane Steinacker Mark Krumholz UCSC physicists are major builders and users of GLAST. Astronomy & Astrophysics Astronomy & Astrophysics UCSC pioneered giant optical telescopes like Keck, and is Star formation; making the key technology breakthroughs for even larger Formation of planetary interstellar medium; telescopes. systems; solar system numerical methods dynamics. As a TASC graduate student, you will contribute significantly Greg Laughlin to world-class, cutting-edge discoveries while positioning Stan Woosley Astronomy & Astrophysics Astronomy & Astrophysics yourself to follow previous UCSC students who have gone on Extrasolar planets; stellar to become Hubble Fellows, Keck Fellows, Chandra Fellows, Nuclear astrophysics; evolution; disk dynamics and junior faculty at excellent institutions. supernovae; gamma ray bursts; nucleosynthesis HOW TO APPLY: submit all applications to the Graduate Division of the University of California at Santa Cruz (http://graddiv.ucsc.edu/admissions). Apply to the UCSC department of your choice but indicate your interest in TASC in the application. All TASC-oriented applications will be reviewed jointly. Also send a separate letter of interest to Maria Sliwinski ([email protected]), TASC graduate program advisor, 201 Interdisciplinary Sciences Bldg., UC Santa Cruz, Santa Cruz CA 95064. For further information see http://astro.ucsc.edu/tasc Physics 205 6 February 2017 Comparing Observed Galaxies with Simulations Joel R. Primack UCSC Hubble Space Telescope Ultra Deep Field - ACS This picture is beautiful but misleading, since it only shows about 0.5% of the cosmic density. The other 99.5% of the universe is invisible. Matter and Energy Content of the Universe Imagine that the entire universe is an ocean of dark energy. On that ocean sail billions of ghostly ships made of dark matter... Matter and Energy Content of the Dark Universe Matter Ships on a ΛCDM Dark Double Energy Dark Ocean Imagine that the entire universe is an ocean of dark Theory energy. On that ocean sail billions of ghostly ships made of dark matter... Matter Distribution Agrees with Double Dark Theory! Planck Collaboration: Cosmological parameters PlanckPlanck Collaboration: Collaboration: The ThePlanckPlanckmissionmission Planck Collaboration: The Planck mission 6000 6000 Angular scale 5000 90◦ 500018◦ 1◦ 0.2◦ 0.1◦ 0.07◦ Planck Collaboration: The Planck mission European 6000 ] 4000 2 ] 4000 2 K Double K µ [ µ 3000 [ 3000Dark TT Space TT 5000 D D 2000 2000Theory Agency 1000 1000 ] 4000 2 Cosmic 0 K 0 PLANCK 600 Variance600 60 µ 60 [ 3000 300300 30 TT 30 TT 0 0 Satellite D 0 0 D ∆ D Fig. 7. Maximum posterior CMB intensity map at 50 resolution derived from the joint baseline-30 analysis of Planck, WMAP, and ∆ -300 -300 408
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  • Primack-Phys205-Feb2
    Physics 205 6 February 2017 Comparing Observed Galaxies with Simulations Joel R. Primack UCSC Hubble Space Telescope Ultra Deep Field - ACS This picture is beautiful but misleading, since it only shows about 0.5% of the cosmic density. The other 99.5% of the universe is invisible. Matter and Energy Content of the Universe Imagine that the entire universe is an ocean of dark energy. On that ocean sail billions of ghostly ships made of dark matter... Matter and Energy Content of the Dark Universe Matter Ships on a ΛCDM Dark Double Energy Dark Ocean Imagine that the entire universe is an ocean of dark Theory energy. On that ocean sail billions of ghostly ships made of dark matter... Matter Distribution Agrees with Double Dark Theory! Planck Collaboration: Cosmological parameters PlanckPlanck Collaboration: Collaboration: The ThePlanckPlanckmissionmission Planck Collaboration: The Planck mission 6000 6000 Angular scale 5000 90◦ 500018◦ 1◦ 0.2◦ 0.1◦ 0.07◦ Planck Collaboration: The Planck mission European 6000 ] 4000 2 ] 4000 2 K Double K µ [ µ 3000 [ 3000Dark TT Space TT 5000 D D 2000 2000Theory Agency 1000 1000 ] 4000 2 Cosmic 0 K 0 PLANCK 600 Variance600 60 µ 60 [ 3000 300300 30 TT 30 TT 0 0 Satellite D 0 0 D ∆ D Fig. 7. Maximum posterior CMB intensity map at 50 resolution derived from the joint baseline-30 analysis of Planck, WMAP, and ∆ -300 -300 408 MHz observations. A small strip of the Galactic plane, 1.6 % of the sky, is filled in by-30 a constrained realization that has the same statistical properties as the rest of the sky.
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    Savvas M. Koushiappas Title: Associate Professor of Physics Contact Information Phone: +1-401-863-6816 Department of Physics Fax: +1-401-863-2024 Brown University, Box 1843 Email: [email protected] Providence, RI 02912 Education Ph.D. Physics, The Ohio State University, Columbus, OH, USA, 2004 Advisor: Terry P. Walker B.S. Astrophysics, The University of New Mexico, Albuquerque, NM, USA, 1998 Professional Appointments Associate Professor of Physics 7/2015{ Present Department of Physics, Brown University Providence, RI, USA Visiting Professor 5/2017 - 8/2017 Institute for Computational Science, University of Z¨urich Z¨urich, Switzerland Visiting Professor 9/2016{ 4/2017 Institute for Theory and Computation, Harvard University Cambridge, MA, USA Assistant Professor of Physics 7/2008{6/2015 Department of Physics, Brown University Providence, RI, USA Postdoctoral Researcher 10/2005{6/2008 Theoretical Division, Los Alamos National Laboratory Los Alamos, NM, USA Postdoctoral Researcher 10/2004{9/2005 ETH-Z¨urich (Swiss Federal Institute of Technology) Z¨urich, Switzerland Research interests: My research is in the interface between cosmology, particle physics and astrophysics with contribu- tions in the interconnection that exists between these disciplines. I work predominantly in the area of dark matter physics and the search for the nature of the dark matter particle. I am interested in the effects of dark matter mass and couplings to the large-scale structure of the universe, the im- plications of cosmic variance on cosmological constraints and the disentanglement of backgrounds, as well as new statistical approaches to a wide variety of problems. I also maintain interests in high-energy astrophysics, gravitational lensing and more recently in gravitational waves and how merger events can be used to explore a variety of open questions in cosmology and galaxy formation.
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