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The grand aim of all science is to cover the greatest number of empirical facts by logical deduction from the smallest number of hypotheses or axioms.
- Albert Einstein

It doesn't matter how beautiful your theory is, it doesn't matter how smart you are. If it doesn't agree with experiment, it's wrong
- Richard Feynman

 
Last Updated ( Saturday, 07 February 2009 11:43 )
 
Tips
Written by Willy Gerber   
Saturday, 14 February 2009 21:00

Try the Calculator Applet
"Physics Bench"

 bench  

Try the Case Study Applet
"Physics Cases"

 cases  
Applying models into other Sciences:
Check the Applet
"Climate Change Forecast Model"
on our sister webpage www.gforecast.net/climate-change		 www.gforecast.net
Check my Blog
(in spanish)		 Follow me on twitter
(willygerber)
Last Updated ( Tuesday, 08 November 2011 22:33 )
 
MIT Lectures
MIT OpenCourseWare

MIT Course #Course Title
 Undergraduate Courses
8.01Physics I, Fall 2003
8.01Physics I: Classical Mechanics, Fall 1999
8.012Physics I: Classical Mechanics, Fall 2005
8.01LPhysics I: Classical Mechanics, Fall 2005
8.01TPhysics I, Fall 2004
8.01XPhysics I: Classical Mechanics with an Experimental Focus, Fall 2002
8.02Electricity and Magnetism, Spring 2002
8.022Physics II: Electricity and Magnetism, Fall 2004
8.022Physics II: Electricity and Magnetism, Fall 2002
8.022Physics II: Electricity and Magnetism, Fall 2006
8.02TElectricity and Magnetism, Spring 2005
8.02XPhysics II: Electricity & Magnetism with an Experimental Focus, Spring 2005
8.03Physics III, Spring 2003
8.03Physics III: Vibrations and Waves, Fall 2004
8.033Relativity, Fall 2006
8.04Quantum Physics I, Spring 2006
8.044Statistical Physics I, Spring 2004
8.05Quantum Physics II, Fall 2004
8.06Quantum Physics III, Spring 2005
8.07Electromagnetism II, Fall 2005
8.08Statistical Physics II, Spring 2005
8.09Classical Mechanics, Fall 2006
8.13-14Experimental Physics I & II "Junior Lab", Fall 2004
8.20Introduction to Special Relativity, January (IAP) 2005
8.224Exploring Black Holes: General Relativity & Astrophysics, Spring 2003
8.225JEinstein, Oppenheimer, Feynman: Physics in the 20th Century, Spring 2006
8.231Physics of Solids I, Fall 2002
8.251String Theory for Undergraduates, Spring 2007
8.261JIntroduction to Computational Neuroscience, Spring 2004
8.282JIntroduction to Astronomy, Spring 2006
8.284Modern Astrophysics, Spring 2006
8.286The Early Universe, Spring 2004
8.811Particle Physics II, Fall 2005
8.901Astrophysics I, Spring 2006
 Graduate Courses
8.311Electromagnetic Theory, Spring 2004
8.321Quantum Theory I, Fall 2002
8.322Quantum Theory II, Spring 2003
8.323Relativistic Quantum Field Theory I, Spring 2003
8.324Relativistic Quantum Field Theory II, Fall 2005
8.325Relativistic Quantum Field Theory III, Spring 2007
8.325Relativistic Quantum Field Theory III, Spring 2003
8.333Statistical Mechanics I: Statistical Mechanics of Particles, Fall 2005
8.334Statistical Mechanics II: Statistical Mechanics of Fields, Spring 2004
8.351JClassical Mechanics: A Computational Approach, Fall 2002
8.371JQuantum Information Science, Spring 2006
8.395JTeaching College-Level Science, Spring 2006
8.422Atomic and Optical Physics II, Spring 2005
8.511Theory of Solids I, Fall 2004
8.512Theory of Solids II, Spring 2004
8.513Many-Body Theory for Condensed Matter Systems, Fall 2004
8.514Strongly Correlated Systems in Condensed Matter Physics, Fall 2003
8.575JStatistical Thermodynamics of Complex Liquids, Spring 2004
8.591JSystems Biology, Fall 2004
8.592JStatistical Physics in Biology, Spring 2005
8.594JIntroduction to Neural Networks, Spring 2005
8.613JIntroduction To Plasma Physics I, Fall 2002
8.613JIntroduction to Plasma Physics I, Fall 2003
8.701Introduction to Nuclear and Particle Physics, Spring 2004
8.851Strong Interactions: Effective Field Theories of QCD, Spring 2006
8.871Selected Topics in Theoretical Particle Physics: Branes and Gauge Theory Dynamics, Fall 2004
8.901Astrophysics I, Spring 2006
8.902Astrophysics II, Fall 2004
8.942Cosmology, Fall 2001
8.952Particle Physics of the Early Universe, Fall 2004
8.962General Relativity, Spring 2006

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Last Updated ( Saturday, 17 May 2008 14:23 )
 
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Physical Review Letters

  • Indistinguishable Entangled Photons Generated by a Light-Emitting Diode
    Author(s): R. M. Stevenson, C. L. Salter, J. Nilsson, A. J. Bennett, M. B. Ward, I. Farrer, D. A. Ritchie, and A. J. Shields

    A linear optical quantum computer relies on interference between photonic qubits for logic, and entanglement for near-deterministic operation. Here we measure the interference and entanglement properties of...

  • Persistence and Eventual Demise of Oxygen Molecules at Terapascal Pressures
    Author(s): Jian Sun, Miguel Martinez-Canales, Dennis D. Klug, Chris J. Pickard, and Richard J. Needs

    Computational searches for structures of solid oxygen under high pressures in the multi-TPa range are carried out using density-functional-theory methods. We find that molecular oxygen persists to about 1.9 TPa at which it transforms into a semiconducting...

  • Quantum One-Time Pad in the Presence of an Eavesdropper
    Author(s): Fernando G. S. L. Brandão and Jonathan Oppenheim

    A classical one-time pad allows two parties to send private messages over a public classical channel—an eavesdropper who intercepts the communication learns nothing about the message. A quantum one-time pad is a shared quantum state which allows two parties to send private...

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