PPT-Quantum Simulations with

Yb crystal 5 m m Trapped Atomic Ions Raman beatnotes w HF m upper sidebands frequency w HF m carrier lower sidebands w HF m global spindependent oscillating force. dynamics vs. entang. lement. APS March Meeting. Pittsburgh. , 2009 March 16. . Ramsey . interferometry. and cat . states. Quantum information . perspective. Beyond the Heisenberg . limit. Two-component BECs. with a . Scala. Embedded . Language. Xiao Liu and . John . Kubiatowicz. Computer Science Division. University of California, Berkeley. Email: {. xliu. , . kubitron. }@eecs.berkeley.edu. Why Quantum Computers?. (Quantum Cryptography). The BIG Idea. Basic idea of cryptography – To keep information secure from prying eyes. . Current encryption is mathematically based. Basically there are several possible types of keys and if the sender and end user both know the key, they can exchange information securely. . Chapter 12. E-mail: . benzene4president@gmail.com. Web-site: http://clas.sa.ucsb.edu/staff/terri/. Quantum – . ch 12. 1. A photon has a frequency (v) of 5.45 x 10. 8. MHz. a. Calculate the photons wavelength (λ) in nm. Modern Physics. 5/10/11 . Spring 2011. Ben Miller, Alexander . DeCarli. , Kevin Shaw. What is it?. How do particles become Entangled?. Parametric Down Conversion. A laser (usually ultraviolet for its high frequency) sends a photon through a nonlinear crystal such as Beta Barium Borate. MAS 725. Hartmut. . Klauck. NTU. 12.3.2012. Topics . today. Superdense. . coding. Distinguishing quantum states. Bell . inequalities. Superdense Coding. Alice . has two . b. its of classical information she wants to send to Bob. Todd A. Brun, Daniel A. . Lidar. ,. Ben . Reichardt. , Paolo . Zanardi. University of Southern California. The key to quantum computation. The most serious obstacle to realizing quantum computers is . Fang Song. IQC, University of Waterloo. -- “Quantum-Friendly” Reductions. 2. How do . quantum . attacks change classical cryptography?. Crypto-systems based on the hardness of factoring and discrete-log are . n, l, m, and s. Used to . describe. an . electron. in an . atom. Probable location. n. Principal Quantum Number. Represents . main. energy level of . electron. Maximum. # . o. f . electrons. in an . The Atom is like a Hotel, not a solar system. Copy the diagram on the board if you have not done so.. Electrons do not circle a nucleus willy-nilly. They have assigned positions that only extra energy can cause them to jump into another position ( ex: photoelectric effect ). GARRY KWAN YUAN. 23 AUGUST 2017. MSC THESIS PRESENTATION. 1. 01) WHAT ITS ALL ABOUT (some background knowledge). 02) THE GAME PLAN . 03) THE RESULTS (and some of the nitty-gritty). 04) WHAT DOES IT ALL MEAN. nonadiabatic. processes and quantum control. Victor S. Batista. . Yale University, Department of Chemistry &. Energy Sciences Institute. 1. NSF. DOE. NIH. AFOSR. SIMONS FOUNDATION. 160 Fifth Avenue. Jean Michel D. . Sellier. Yuling. . Hsueh. , . Hesameddin. . Ilatikhameneh. ,. Tillmann. Kubis, Michael . Povolotskyi. , Jim Fonseca, Gerhard Klimeck. Network for Computational Nanotechnology (NCN). Part 1. Outline. Introduction. Problems of classical physics. Black-body Radiation. experimental observations. Wien’s displacement law. Stefan – Boltzmann law. Rayleigh - Jeans. Wien’s radiation law.