News & Events

  • Title: Exoplanets: Under a Microscope, and Through a Wide-Field Lens  (Video)

    Abstract: The Solar System furnishes the most familiar planetary architecture: many planets, orbiting nearly coplanar to one another. We can examine the composition and atmospheres of the Solar System planets in detail, even occasionally in situ. Studies of planets orbiting other stars (exoplanets), in contrast, only...

  • Title: Tying Knots in a Quantum Fluid (Video)

    Abstract: Knots are familiar entities that appear at a captivating nexus of art, technology, mathematics,and science. Following a lengthy period of theoretical investigation and development, they have recently attracted great experimental interest in contexts ranging from knotted DNA and nanostructures to vortex knots in classical fluids. In this...

  • Title: The Tonks-Girardeau Gas: Then, Now, and in the Future (Video)

    Abstract: In this presentation, I will review the 55+ years of progress passed since Marvin Girardeau found, in 1960, a full nonperturbative solution for the quantum hard-core bosons, further extended to the finite strength interactions in 1963 by Lieb and Liniger. This discovery brought the multi-(all the way to infinite-)...

  • Tuesday, May 31, 2016, Wilder 115, 10:00 AM

    Lucas Valenca Soares Bezerra, Department of Physics and Astronomy, Dartmouth College

    Title: Fast Wavefront Characterization of Optical Traps for Quantum Gases

    Abstract: Ultracold quantum gases are frequently confined in optical dipole traps consisting of focused high power laser beams. In this project, we have designed and built a dynamically controllable dipole trap in which...

  • Tuesday, May 31, 2016, Wilder 104, 3:00 PM

    Muhammad H. Kiani, Department of Physics and Astronomy Dartmouth College

    Title: Fabrication and Characterization of Graphene Devices

    Abstract: Graphene is a one-atom-thick 2D crystal of carbon atoms that form a hexagonal lattice. As a consequence of this structure, graphene has a linear energy dispersion relation about the Dirac point where the valence and conduction bands meet...

  • Thursday, June 2, 2016, Wilder 102, 2:00 PM

    Oscar Friedman​, Department of Physics and Astronomy, Dartmouth College

    Title:  The Wigner Flow Function for Open Quantum Systems

    Abstract:  In classical mechanics, one can fully describe the dynamics of any one-dimensional system using a single trajectory in phase space. Since the rules of quantum mechanics beget an inherent uncertainty associated with a simultaneous measurement of the...

  • Dartmouth post-doc Alexa Halford's latest paper using BARREL data is highlighted in a NASA article. BARREL was designed to study how electrons from Earth’s radiation belts – vast swaths of particles trapped in Earth’s magnetic field hundreds of miles above the surface – can make their way down into the atmosphere. The BARREL campaign is primarily tasked with supplementing...

  • Monday, May 30, 2016, Wilder 202, 10:00 AM

    Kathryn Waychoff​, Department of Physics and Astronomy, Dartmouth College

    Title:  Zonal Wind Variability of the Jovian Planets


    The proximity and massive scale of Jupiter has made it a uniquely observable case study in planetary atmospheric dynamics, resulting in a wealth of data from several missions. Jupiter’s characteristically striated atmosphere makes it a prime...

  • Thursday, May 26, 2016, Wilder 104, 2:00 PM

    Jonathan Vandermause, Department of Physics and Astronomy, Dartmouth College

    Title:  Characterization and Control of Nuclear Spin Systems

    Abstract: Liquid-state nuclear magnetic resonance (NMR) spectroscopy allows small quantum systems of coupled nuclear spins to be precisely controlled. This thesis examines three aspects of characterization and control of nuclear spins using liquid-...

  • This project maps the stochastic and deterministic dynamics of open and closed quantum systems to analog circuit architectures and motifs. Such motifs may then be used to both map quantum systems to analog supercomputing chips, and to design novel quantum circuits. Many common circuit themes in analog and quantum computation include noise and thermodynamics, fault tolerance, feedback control, back action and loading, entanglement and correlation, precision measurement,  nonlinear dynamics,...