Summer 2007 Program

Total Page:16

File Type:pdf, Size:1020Kb

Summer 2007 Program Summer 2007 Program May 28 – June 10 Cytoskeletal Assembly Jay Tang [email protected] Leah Edelstein-Keshet – diversity – [email protected] A. Carlsson, L. Edelstein-Keshet*, J. Tang, Y-L. Wang May 28 – June 10 Neutrino Physics Danny Marfatia [email protected] V. Barger, G. Gelmini, D. Marfatia*, J. Valle June 4 – 17 Gamma –Ray Bursts Don Lamb [email protected] N. Gehrels, D. Lamb*, L. Piro June 11 - July 1 Notions of Locomotion Tom Powers [email protected] A. Hosoi, G. Huber, T. Powers*, M. Shelley June 11 - July 1 Galaxy Clustering Joanne Cohn [email protected] A. Berlind, J. Cohn*, M.White, I. Zehavi June 18 – July 1 Supernovae as Cosmological Distance Indicators Josh Frieman [email protected] W. Freedman, J. Frieman*, A. Khoklov July 2 – 22 Topological Phases James Eisenstein [email protected] Michael Freedman [email protected] Kirill Shtengel [email protected] Steve Simon [email protected] July 2 – 29 String Theory and Quantum Geometry Dan Freed [email protected] Hirosi Ooguri Robbert Dijkgraaf, Tony Pantev July 23 – August 12 Jamming Eric R. Weeks [email protected] Organizers: A. Liu, N. Menon*, E. Weeks July 30 – Sept. 2 Superconductivity Andrey Chubakov [email protected] Organizers: A. Chubukov*, P. Coleman, P. Lee, D. Morr August 13 – Sept. 2 Infectious Diseases Charles DeLisi [email protected] Organizers: D. Burke, C. DeLisi*, S. Levin, A. Levine August 13 – Sept. 2 Between the LHC and B Factories Gilad Perez [email protected] Organizers: Y. Grossman*, Z. Ligeti, G. Perez, M. Schmaltz Summer 2006 Workshop Schedule The Supersolid State of Matter May 29 - June 11 D. Ceperley & M. Chan Cosmic Voids May 29 – June 18 F. Hoyle, PJE Peeples, R. Sheth, R. van de Weygaert & M. Vogeley Galaxy Evolution fromLarge Surveys May 20 – June 18 M. Giavalisco, N, Scoville, C. Papovich & D. Calzetti Deconstructing the Local Group: June 12 – July 2 Galaxy Formation in our own Backyard J. Bullock, A. Ferguson, K. Johnston, A. Kravtsov, M. Putman & K. Venn Magnetic Self-Organization in Laboratory June 19 – July 2 & Astrophysical Plasmas F. Cattaneo & S. Cowley Physical and Mathematical Aspects of Packing June 19 – July 9 M. Bowick, H. Cohn, C. Radin & S. Torquato Interactions, Coherence and Control in Mesoscopic Systems July 3 – July 30 M. Devoret, S. Girvin, L. Glazman & C. Marcus String Theory, Gauge Theory and Particle Physics July 10 – Aug. 6 D. Berenstein, M. Cvetic, W. Taylor IV & H. Verlinde Physics Inspired by Biology July 31 – Aug. 20 A. Grosberg, P. Pincus & Y. Rabin Particle Theory in Anticipation of the LHC July 31 – Sept. 3 J. Erlich, G. Kribs, T. Tait & C. Wagner Extreme Mechanics: Current Issues in Continuum Aug. 21 – Sept. 10 And Fluid Mechanics T. Halsey & F. Mackintosh Recent Advances in Black Hole Physics in String Theory Aug. 21 – Sept. 10 V. Balasubraman, R. Emparan, P. Kraus, S. Mathur & N. Warner 2005 Aspen Center for Physics Summer Workshops 1. Physics of the S-Process (F. Herwig, R. Reifarth, J. Truran and M. Wiescher) contact: Jim Truran ([email protected]) dates of workshop: May 29--June 12 2. LISA Data: Analysis, Sources and Science (M. Benacquista, S. Finn, A. Vecchio and V. Kalogera) contact: Matthew Benacquista ([email protected]) dates of workshop: May 29--June 19 3. Ultracold Trapped Atomic Gases (G. Baym, R. Hulet, E. Mueller and F. Zhou) contact: Erich Mueller ([email protected]) dates of workshop: May 29--June 19 4. Novel Approaches to Climate (D. Cox, J. Harte, G. Falkovich and B. Marston) contact: Brad Marston ([email protected]) dates of workshop: June 12--July 3 5. New Approaches to Electroweak Symmetry Breaking (C. Csaki, K. Matchev and J. Terning) contact: John Terning ([email protected]) dates of workshop: June 19--July 10 6. Dynamics, Structure and Correlation in Glasses (C. Chamon, P. Goldbart, D. Reichman and J. Schmalian) contact: Claudio Chamon ([email protected]) dates of workshop: June 19--July 17 7. Revealing Black Holes (organizers: W. Kluzniak, M. Mendez, M. Nowak and L. Titarchuk) contact: Mike Nowak ([email protected]) dates of workshop: July 10--July 31 8. Gauge Theories and Fractionalization in Correlated Quantum Matter (organizers: M. Franz, A. Vishwanath, D.A. Bonn, O. Tchernyshyov, M. Randeria and X.-G. Wen) contact: Ashvin Vishwanath ([email protected]) dates of workshop: July 17--August 14 9. Supercosmology (K. Becker, P. Gondolo, A. Mazumdar and D. Tong) contact: Katrin Becker ([email protected]) dates of workshop: July 31--August 21 10. Collider Physics: from the Tevatron to the LHC to the Linear Collider (T. Han, S. Mrenna and J. Hewett) contact: Stephen Mrenna ([email protected]) dates of workshop: August 14--September 11 11. Ultrahigh-Energy Cosmic Rays (K. Arisaka, G. Gelmini, A. Kusenko and A. Olinto) contact: Alexander Kusenko ([email protected]) dates of workshop: August 21--September 11 12. Spatial effects in signal transduction (W.-J. Rappel and Y. Tu) contact: Wouter-Jan Rappel ([email protected]) dates of workshop: August 21--September 11 2004 Summer Program May 31-June 27 Coherence and Coordination in the Brain: Perspectives From Olfaction And Birdsong Organizers Michael Fee [email protected] Henry Greenside [email protected] 919-660-2548 Lawrence Katz [email protected] 919-681-6225 Principal Contact: Lawrence Katz Diversity Coordinator: Henry Greenside ACP contact: Chuck Stevens [email protected] May 31-June 27 Geometry and Materials Physics: Making the Connection Organizers Veit Elser [email protected] 607-255-2340 607-255-6428 Randall Kamien [email protected] 215-898-5940 215-898-2010 Meigan Kerr [email protected] 781-283-3144 781-283-3642 Thomas Powers [email protected] 401-863-2868 401-863-9009 Principal contact: Thomas Powers Diversity Coordinator: Thomas Powers ACP contact: Andy Millis [email protected] June 6-June 27 The Formation of Supermassive Black Holes Organizers Andrew Hamilton [email protected] 303-492-7833 Tom Abel [email protected] 814-863-9551 Mitch Begelman [email protected] 303-492-7856 Andrea Ghez [email protected] 310-206-0420 Martin Haehnelt [email protected] 011-44-1223-766671 Principal contact: Andrew Hamilton Diversity: Andrea Ghez ACP contact: Mike Turner [email protected] June 28-July 18 Lepton number violation: Neutrinos, Leptogenesis, Grand Unified Theories and Beyond Organizers M Concha Gonzalez-Garcia [email protected] 631-632-7971 Yuval Grossman [email protected] 650-926-2477 Hitoshi Murayama [email protected] 510-486-5589 Principal Contact: Yuval Grossma Diversity Coordinator: Concha Gonzalez-Garcia ACP contact: Howard Haber [email protected] June 28-July 18 Star Formation in Galaxies Organizers Andreas Burkert [email protected] +49 6221 528 226 Timothy Heckman [email protected] 410-516-7369 G. Kauffmann [email protected] +49-89-30000-201 Rosemary Wyse [email protected] 410.516.5392 Principal Contact: Diversity Coordinator: ACP contact: Mike Turner [email protected] June 28-July 11 Physics Education and Outreach Organizers Michael Barnett [email protected] (510) 486-5650 Marjorie Bardeen [email protected] (630) 840-2031 Randall Landsberg [email protected] (773) 702-7783 Randy Ruchti [email protected] (574) 631-7143 Elizabeth Simmons [email protected] Contact person: Elizabeth Simmons Diversity Coordinator: Marjorie Bardeen ACP contact Elizabeth Simmons [email protected] July 19-Aug 15 Strings, Branes and Superpotentials Organizers Robbert Dijkgraaf [email protected] +31-20-525-5745 Daniel Freed [email protected] 512-471-7136 Gregory Moore [email protected] 732 445 4375 Hirosi Ooguri [email protected] 626 395-6648 Tony Pantev [email protected] 215 898 5970 Contact Person: Dan Freed Diversity Coordinator: Hirosi Ooguri ACP contact: Joe Polchinski [email protected] July 19-Aug 8 Coherence and Dissipation in Quantum Systems Organizers S. Chakravarty [email protected] 310 825 4974 310 825 5734 S. Habib [email protected] A. Kapitulnik [email protected] M. Troyer [email protected] Principal Contact: S. Chakravarty Diversity Coordinator: S. Chakravarty ACP contact: Jim Sauls [email protected] Aug 9-Sept 12 Pseudogaps in Strongly Correlated Metals Organizers Catherine Kallin [email protected] 905-525-9140 x23176 fax: 546-1252 Mike Norman [email protected] 630-252-3518 630-252-7777 Louis Taillefer [email protected] 819 821-8000 x2051 819 821-8046 Erica Carlsson [email protected] 765.494.3041 fax: -0706 Principal Contact: Mike Norman Diversity Coordinator: Catherine Kallin ACP contact: Jim Sauls [email protected] Aug 15-Sept 12 Strings and the Real World Organizers Pierre Binetruy [email protected] (+33) 1 69 15 62 96 Gordon Kane* [email protected] 734-764-4451 Fernando Quevedo [email protected] (+44) 1223 330852 Stuart Raby [email protected] 614-292-3910 *Principal contact and diversity coordinator ACP contact: Howard Haber [email protected] Aug 15-Sept 12 Cosmic Acceleration: Dark Energy or New Gravitational Physics Organizers Wendy Freeman [email protected] 626 577 0204 626 795 8136 Josh Frieman [email protected] 630 840 2226 630 840 8231 Nemanja Kaloper [email protected] 530 752 5779 530 752 4717 Scott Thomas [email protected] 650 725-2366 650 725 9389 Contact Person: Scott Thomas Diversity Coordinator: Nemanja Kaloper ACP contact: Mike Turner [email protected] 2003 Summer Program The Nuclear Physics Of Core Collapse Supernovae May 26 - June 8 A. Burrows, H. Schatz, J. Truran, M. Wiescher [email protected], [email protected] Complex Networks In Biology: From Molecules To Neurons May 26 - June 8 Sergei Maslov, [email protected], Dmitri 'Mitya' Chklovskii, [email protected] Cosmology And Astrophysics With Galaxy Clusters May 26 - June 15 J.
Recommended publications
  • Galaxy Cross-Corr
    Astro2020 Science White Paper Synergies Between Galaxy Surveys and Reionization Measurements Thematic Areas: ☐ Planetary Systems ☐ Star and Planet Formation ☐Formation and Evolution of Compact Objects ☒ Cosmology and Fundamental Physics ☐Stars and Stellar Evolution ☐Resolved Stellar Populations and their Environments ☒Galaxy Evolution ☐Multi-Messenger Astronomy and Astrophysics Principal Author: Name: Steven Furlanetto Institution: University of California, Los Angeles Email: [email protected] Phone: (310) 206-4127 Co-authors: Adam Beardsley (Arizona State University), Chris L. Carilli (Cavendish Laboratory, NRAO), Jordan Mirocha (McGill University), James Aguirre (University of Pennsylvania), Yacine Ali- Haimoud (New York University), Marcelo Alvarez (University of California Berkeley), George Becker (University of California Riverside), Judd D. Bowman (Arizona State University), Patrick Breysse (CITA), Volker Bromm (University of Texas at Austin), Philip Bull (Queen Mary University of London), Jack Burns (University of Colorado Boulder), Isabella P. Carucci (University College London), Tzu-Ching Chang (JPL), Hsin Chiang (McGill University), Joanne Cohn (University of California Berkeley), Frederick Davies (University of California Santa Barbara), David DeBoer (University of California Berkeley), Mark Dickinson (NOAO), Joshua Dillon (University of California Berkeley), Olivier Doré (JPL, California Institute of Technology), Cora Dvorkin (Harvard University), Anastasia Fialkov (University of Sussex), Steven Finkelstein (University
    [Show full text]
  • Astro2020 Science White Paper Cosmology with the Highly Redshifted 21 Cm Line
    Astro2020 Science White Paper Cosmology with the Highly Redshifted 21 cm Line Thematic Areas: Planetary Systems Star and Planet Formation Formation and Evolution of Compact Objects 3Cosmology and Fundamental Physics Stars and Stellar Evolution Resolved Stellar Populations and their Environments Galaxy Evolution Multi-Messenger Astronomy and Astrophysics Principal Author: Name: Adrian Liu Institution: McGill University Email: [email protected] Phone: (514) 716-0194 Co-authors: (names and institutions) James Aguirre (University of Pennsylvania), Joshua S. Dillon (UC Berkeley), Steven R. Furlanetto (UCLA), Chris Carilli (National Radio Astronomy Observatory), Yacine Ali-Haimoud (New York University), Marcelo Alvarez (University of California, Berkeley), Adam Beardsley (Arizona State University), George Becker (University of California, Riverside), Judd Bowman (Arizona State University), Patrick Breysse (Canadian Institute for Theoretical Astrophysics), Volker Bromm (University of Texas at Austin), Philip Bull (Queen Mary University of London), Jack Burns (University of Colorado Boulder), Isabella P. Carucci (University College London), Tzu-Ching Chang (Jet Propulsion Laboratory), Hsin Chiang (McGill University), Joanne Cohn (University of California, Berkeley), David DeBoer (University of California, Berkeley), Cora Dvorkin (Harvard University), Anastasia Fialkov (Sussex University), Nick Gnedin (Fermilab), Bryna Hazelton (University of Washington), Daniel Jacobs (Arizona State University), Marc Klein Wolt (Radboud University
    [Show full text]
  • A NSF Physics Frontier Center Annual Report 2005-2006
    A NSF Physics Frontier Center Annual Report 2005-2006 June 29, 2006 i Table of Contents 1 Executive Summary 1 2 Research Accomplishments and Plans 4 2.a Major Research Accomplishments . 4 2.a.1 Research Highlights . 4 2.a.2 Detailed Research Activities: MRC I- Theory . 5 2.a.3 Detailed Research Activities: MRC II- Structures in the Uni- verse ..................................... 20 2.a.4 Detailed Research Activities: MRC III - Cosmic Radiation Backgrounds ................................ 24 2.a.5 Detailed Research Activities: MRC IV - Particles from Space . 28 2.a.6 References . 32 2.b Research Organizational Details . 33 2.c Plans for the Coming Year . 33 3 Publications, Awards and Technology Transfers 40 3.a List of Publications in Peer Reviewed Journals . 40 3.b List of Publications in Peer Reviewed Conference Proceedings . 48 3.c Invited Talks by Institute Members . 52 3.d Honors and Awards . 56 3.e Technology Transfer . 57 4 Education and Human Resources 58 4.a Graduate and Postdoctoral Training . 58 4.a.1 Research Training . 58 4.a.2 Curriculum Development: . 62 4.b Undergraduate Education . 63 4.b.1 Undergraduate Research Experiences: . 63 4.b.2 Undergraduate Curriculum Development: . 64 4.c Educational Outreach . 65 4.c.1 K-12 Programs: Space Explorers . 66 4.c.2 Web-Based Educational Activities: . 69 4.c.3 Other: . 69 4.d Enhancing Diversity . 72 5 Community Outreach and Knowledge Transfer 74 5.a Visitor Participation in Center . 74 5.a.1 Long term visitors . 74 5.a.2 Short term and seminar visitors . 75 5.b Workshops and Symposia .
    [Show full text]
  • Upcoming Events: Science@Cal Monthly Lectures 3Rd Saturday of Each Month 11:00 A.M
    University of California, Berkeley Department of Astronomy B E R K E L E Y A S T R O N O M Y Hearst Field Annex MC 3411 Berkeley, CA 94720-3411 Upcoming Events: Science@Cal Monthly Lectures 3rd Saturday of each month 11:00 a.m. UC Berkeley Campus location changes each month Consult website for details http://scienceatcal. berkeley.edu/lectures UniversityUNIVERSITY of California OF CALIFORNIA | 2014 2014 Evening with the Stars TBA Fall 2014 From the Chair’s Desk… co-PI on the founding grant for the Berkeley the Friends of Astrophysics Postdoctoral Please see the Astronomy website for more Institute for Data Science (BIDS) to bring Fellowship and many other coveted prize information together scientists with diverse backgrounds, fellowships. http://astro.berkeley.edu The Astronomy Department is a yet all dealing with “Big Data” (see page In addition to the rigorous research they vibrant, evolving 2). He is also on the management council pursue, our students and postdocs also find 2015 Raymond and Beverly Sackler community. It’s hard that oversees the Large Synoptic Survey time to get involved in other interesting Distinguished Lecture in Astronomy to fully capture all Telescope. This past summer Bloom again career-building and public outreach activities. Carolyn Porco, Space Science Institute that is happening organized the annual Python Language Matt George, Adam Morgan, and Chris Klein Public lecture: Wednesday, Jan 28 here in a few brief Bootcamp, an immensely popular three-day joined the Insight Data Science Fellows Joint Astronomy/Earth Planetary Sciences paragraphs, but I’ll summer workshop with >200 attendees.
    [Show full text]
  • Aspen Physics Turns 50 Michael S
    COMMENT AWARDS Passion and punch-ups ECOLOGY A paean to decay EXHIBITION London show OBITUARY Akira Tonomura, in a chronicle of two contested charts the life that death celebrates Alan Turing’s imaging pioneer, Nobel prizes p.318 provides p.320 life and legacy p.321 remembered p.324 S. MAXWELL/ASPEN CENTER FOR PHYSICS S. MAXWELL/ASPEN CENTER FOR Summer workshops at the Aspen Center for Physics give researchers respite from their academic duties. Aspen physics turns 50 Michael S. Turner reflects on how mountain serenity has bred big breakthroughs at the Aspen Center for Physics in Colorado. heoretical physicists are an odd lot: 10,000 theoretical physicists, including 53 Victorian buildings and wonderful skiing. She bad communicators (Niels Bohr Nobel laureates, from 65 countries. The centre persuaded her husband, a devotee of German and Werner Heisenberg); brilliant can lay claim to the string-theory revolution, writer Johann Wolfgang von Goethe, to visit Tshowmen (Richard Feynman and George the birth of the arXiv preprint archive and in 1945. Seeing it as the ideal place to bring Gamow); the ‘strangest man’ (Paul Dirac); to setting the agenda for condensed-matter together the three aspects of life — economic, lots of Hungarians (Leó Szilárd, Edward physics. Its history is tied to the revival of a sil- cultural and physical — he invested millions Teller and Eugene Wigner); bad hair (Albert ver-mining town and the American entrepre- of dollars in rebuilding it. In 1946, he formed Einstein); and too few women. They don’t neurial spirit, and features a fascinating cast of the Aspen Skiing Corporation, which remains need fancy equipment — a pencil and paper characters, from philosopher Mortimer Adler the financial engine of the valley.
    [Show full text]
  • Dark Matter Halo Mergers and Quasars
    University of Pennsylvania ScholarlyCommons Publicly Accessible Penn Dissertations Spring 2010 Dark Matter Halo Mergers and Quasars Jorge Moreno University of Pennsylvania, [email protected] Follow this and additional works at: https://repository.upenn.edu/edissertations Part of the Cosmology, Relativity, and Gravity Commons, and the External Galaxies Commons Recommended Citation Moreno, Jorge, "Dark Matter Halo Mergers and Quasars" (2010). Publicly Accessible Penn Dissertations. 177. https://repository.upenn.edu/edissertations/177 This paper is posted at ScholarlyCommons. https://repository.upenn.edu/edissertations/177 For more information, please contact [email protected]. Dark Matter Halo Mergers and Quasars Abstract The formation and evolution of galaxies and the supermassive black holes they harbor at their nuclei depends strongly on the merger history of their surrounding dark matter haloes. First we developed a semi-analytic algorithm that describes the merger history tree of a halo. The following tests were performed: the conditional mass function, the time and mass distributions at formation, and the time distribution of the last major merger. We provide a model for the creation rate of dark matter haloes, informed by both coagulation theory and the modified excursion set approach with moving barriers. A comparison with N-body simulations shows that our square-root barrier merger rate is significantly better than the standard extended Press-Schechter rate used in the literature. The last chapter is dedicated to a simple model of quasar activation by major mergers of dark matter haloes. The model consists of two main ingredients: the halo merger rate describing triggering, and a quasar light curve, which tracks the evolution of individual quasars.
    [Show full text]
  • In Theory for Every Fundamental Particle, the Theory of Supersymmetry Proposes a Supersymmetric Partner, a “Sparticle” in SUSY Jargon
    Volume 21 Friday, June 5, 1998 Number 11 ~ In Theory For every fundamental particle, the theory of supersymmetry proposes a supersymmetric partner, a “sparticle” in SUSY jargon. The electron, e, for example, has a SUSY spartner, the selectron e.˜ Would every Fermilab theorist have a SUSY “stheorist”? Probably not, but theorists worldwide will be watching Tevatron Run II for the first experimental evidence for SUSY. The Fermilab Stheory Group INSIDE f 2 Supersymmetry 7 Supersymmetry Workshop 8 MiniBooNE 10 Fishing 12 Paperless Papers 14 CDF Party The Fermilab Theory Group supersymmetry …and the physics of Run II by Meher Antia Without resorting to tricky mathematics or exotic physics, anyone can see that much of the stuff the world is made of has mass. Things can STANDARD be touched and felt; they have some bulk, unlike, say, light which is intangible and MODEL immaterial. But why? Why are some things in the universe, like quarks and leptons, chunky and massive and others, like photons and Mass = ~ 3 MeV ~ 1.2 GeV 175 (6) GeV gluons, ethereal and massless? up charm top photon ~ 4 MeV 95 (15) MeV ~ 4.8 GeV Answers to questions like these are usually bottom gluon provided by the Standard Model, to date the down strange 91.186 (2) GeV best framework to < 15 eV < 100 KeV < 35 MeV describe the patchwork of elementary particles electron neutrino muon neutrino tau neutrino Z boson and forces of nature. .511 MeV 106.76 MeV 1.784 GeV 80.36 (13) GeV However, in its simplest form, the Standard Model disappoints.
    [Show full text]
  • David I. Kaiser
    David I. Kaiser Program in Science, Technology, and Society, and Department of Physics Massachusetts Institute of Technology Tel. 617 452-3173. Email. [email protected] http://web.mit.edu/dikaiser/www Academic Positions 2019 –. Associate Dean, Social and Ethical Responsibilities of Computing, Schwarzman College of Computing, MIT 2015 –. Professor, Department of Physics, MIT. 2011 –. Germeshausen Professor of the History of Science, Program in Science, Technology, and Society, MIT. 2011 –. Affiliated Faculty, Department of the History of Science, Harvard University. 2000 – 2011. Assistant Professor (2000-2004) and Associate Professor (2004-2011), Program in Science, Technology, and Society, MIT. 2000 – 2015. Lecturer (2000-2010) and Senior Lecturer (2010-2015), Department of Physics, MIT. Spring 1999. Visiting Lecturer. Department of Physics and Astronomy, Dartmouth College. Education 2000. Ph.D. in Physics and in History of Science, Harvard University History of Science Dissertation: “Making Theory: Producing Physics and Physicists in Postwar America.” May 2000. Physics Dissertation: “Post-Inflation Reheating in an Expanding Universe.” December 1997. 1993. A.B. in Physics, Dartmouth College. Summa cum Laude Academic Honors and Awards 2020. Physics World “Best of Physics in Books, TV, and Film in 2020” for Quantum Legacies: Dispatches from an Uncertain World. 2016. George Sarton Memorial Lecturer, plenary address sponsored by the History of Science Society, delivered at the American Association for the Advancement of Science annual meeting. 2013. History of Science Society, Davis Prize for best book aimed at a general audience, awarded for How the Hippies Saved Physics: Science, Counterculture, and the Quantum Revival. 2012. Physics World “Book of the Year” award for How the Hippies Saved Physics: Science, Counterculture, and the Quantum Revival.
    [Show full text]
  • University of Groningen Fundamental Cosmology in the Dark Ages With
    University of Groningen Fundamental Cosmology in the Dark Ages with 21-cm Line Fluctuations Furlanetto, Steven; Bowman, Judd D.; Mirocha, Jordan; Pober, Jonathan; Burns, Jack; Carilli, Chris L.; Munoz, Julian; Aguirre, James; Ali-Haimoud, Yacine; Alvarez, Marcelo Published in: Bulletin of the American Astronomical Society IMPORTANT NOTE: You are advised to consult the publisher's version (publisher's PDF) if you wish to cite from it. Please check the document version below. Document Version Final author's version (accepted by publisher, after peer review) Publication date: 2019 Link to publication in University of Groningen/UMCG research database Citation for published version (APA): Furlanetto, S., Bowman, J. D., Mirocha, J., Pober, J., Burns, J., Carilli, C. L., Munoz, J., Aguirre, J., Ali- Haimoud, Y., Alvarez, M., Beardsley, A., Becker, G., Breysse, P., Bromm, V., Bull, P., Chang, T-C., Chen, X., Chiang, H., Cohn, J., ... Zaldarriaga, M. (2019). Fundamental Cosmology in the Dark Ages with 21-cm Line Fluctuations. Bulletin of the American Astronomical Society, 51(3), [ID 144 (2019)]. https://ui.adsabs.harvard.edu/abs/2019BAAS...51c.144F Copyright Other than for strictly personal use, it is not permitted to download or to forward/distribute the text or part of it without the consent of the author(s) and/or copyright holder(s), unless the work is under an open content license (like Creative Commons). Take-down policy If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim. Downloaded from the University of Groningen/UMCG research database (Pure): http://www.rug.nl/research/portal.
    [Show full text]
  • @Xxx.Lanl.Gov
    @xxx.lanl.gov first steps toward electronic research communication Paul H. Ginsparg [email protected] is the e-mail short period the primary means of com- The archiving software has been ex- address for the first of a series of municating ongoing research informa- panded to serve a number of other re- hautomated archives for electronic tion in formal areas of high energy par- search disciplines (see Figure 1). The communication of research information. ticle theory. Its rapid acceptance within extended, automatically maintained This “e-print archive” went on-line in this community depended critically on database and distribution system cur- August, 1991. It began as an experi- both recent technological advances and rently serves over 20,000 users from mental means of circumventing recog- particular behavioral aspects of the more than 60 countries and processes nized inadequacies of research journals, community. There are now more than over 30,000 messages per day. It is al- but unexpectedly became within a very 3600 regular users of hep-th worldwide. ready one of the largest and most active 156 Los Alamos Science Number 22 1994 @xxx.lanl.gov databases on the internet. This system may be a paradigm for worldwide, dis- cipline-wide scientific-information ex- change when the next generation of “electronic-data highways” begins to provide more universal access to high- speed computer networks. Background The rapid acceptance of electronic communication of research information in my own community of high-energy theoretical physics was facilitated by a pre-existing “preprint culture,” in which the irrelevance of refereed journals to ongoing research has long been recog- nized.
    [Show full text]
  • The Large-Scale Structure of the Universe: Probes of Cosmology and Structure Formation
    UC Berkeley UC Berkeley Electronic Theses and Dissertations Title The Large-scale Structure of the Universe: Probes of Cosmology and Structure Formation Permalink https://escholarship.org/uc/item/0gg775z6 Author Noh, Yookyung Publication Date 2013 Peer reviewed|Thesis/dissertation eScholarship.org Powered by the California Digital Library University of California The Large-scale Structure of the Universe: Probes of Cosmology and Structure Formation By Yookyung Noh A dissertation submitted in partial satisfaction of the requirements for the degree of Doctor of Philosophy in Astrophysics in the Graduate Division of the University of California, Berkeley Committee in charge: Professor Martin White, Co-chair Professor Eliot Quataert, Co-chair Doctor Joanne D. Cohn Professor Daniel Kasen Professor Adrian T. Lee Fall 2013 The Large-scale Structure of the Universe: Probes of Cosmology and Structure Formation Copyright 2013 by Yookyung Noh 1 Abstract The Large-scale Structure of the Universe: Probes of Cosmology and Structure Formation by Yookyung Noh Doctor of Philosophy in Astrophysics University of California, Berkeley Professor Martin White, Co-chair Professor Eliot Quataert, Co-chair The usefulness of large-scale structure as a probe of cosmology and structure formation is increasing as large deep surveys in multi-wavelength bands are becoming possible. The ob- servational analysis of large-scale structure guided by large volume numerical simulations are beginning to offer us complementary information and crosschecks of cosmological parameters estimated from the anisotropies in Cosmic Microwave Background (CMB) radiation. Under- standing structure formation and evolution and even galaxy formation history is also being aided by observations of different redshift snapshots of the Universe, using various tracers of large-scale structure.
    [Show full text]
  • COVARIANT QUANTIZATION of SUPERSYMMETRIC STRING THEORIES: the Spinor Field of the Ramond-Neveu-Schwarz Model*
    Nuclear Physics B278 (1986) 577-600 North-Holland, Amsterdam COVARIANT QUANTIZATION OF SUPERSYMMETRIC STRING THEORIES: The spinor field of the Ramond-Neveu-Schwarz model* Joanne COHN x, Daniel FRIEDAN, Zongan QIU 2, and Stephen SHENKER Enrico Fermi and James Franck Institutes and Department of Physics, University of Chicago, Chicago, IL 60637, USA Received 17 April 1986 A brief review of superconformal field theory and superstrings is presented. The spacetime spinor contribution to the fermion vertex operator is constructed and the four-fermion amplitude is calculated using the differential equation method in the SO(1,9) current algebra. The spinor field is also described as a vertex operator in the bosonization of the Ramond-Neveu-Schwarz fermions, and the two-cocycle for the ferrnion vertex is given. The original formulation of superstring theory was the manifestly covariant Ramond-Neveu-Schwarz (RNS) model [1-3]. The RNS theory was never developed far enough to describe general fermionic amplitudes and therefore the spacetime supersymmetry of the model remained obscure. Only part of the fermion emission vertex was constructed [4], the spacetime spinor field of the RNS model, which we would now call the matter contribution to the fermion vertex. Spacetime supersym- metry was proved in light-cone gauge, where the spacetime spinor field becomes the complete fermion vertex [5]. This paper is part of a program [6, 7] to give a manifestly Lorentz covariant formulation of superstring theory by completing the RNS model. The motivations for embarking on this project were: (i) to develop effective methods for calculating string tree amplitudes and loop corrections in flat spacetime; (ii) to develop methods which can be used to describe strings in curved backgrounds; and (iii) to take a step towards understanding the general covariance of string theory.
    [Show full text]