'Total reflection' diaporamas de présentation

Chapter 2

Introduction to Optical Networks. Chapter 2. Propagation of Signals in Optical Fiber. 2.Propagation of Signals in Optical Fiber. Advantages Low loss ~0.2dB/km at 1550nm Enormous bandwidth at least 25THz Light weight Flexible Immunity to interferences Low cost

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Photonic Band Gap Accelerator Experiments

Photonic Band Gap Accelerator Experiments. Roark Marsh Massachusetts Institute of Technology, Plasma Science and Fusion Center Accelerator Seminar 1/27/2009. Talk Outline. Introduction Photonic Band Gaps Photonic Band Gap Higher Order Modes MIT Accelerator

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Chapter 23 Ray Optics

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Wave Phenomena

Wave Phenomena. Wu, Jinyuan Fermilab Aug. 2013. Introduction. We will talk about classical physics only. We will try to show phenomena not commonly seen in text book. Many pictures in this file are taken via www.google.com They are used for review and comments only.

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Snell law 1

Chemical and spatial resolution with a SNOM introduction to near field optics aperture SNOM SNOM tips apertureless SNOM applications in solid state phisics some examples in biology. Snell law 1. Total reflection in a prism Classically Snell law:

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Physics II PHY 202/222 Temp, Heat & Gas Laws

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Infrared Spectroscopy

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Reflection and Refraction

Reflection and Refraction. Light interacts with matter. Interaction begins at surface and depends on Smoothness of surface Nature of the material Angle of incidence Possible interactions Reflection Refraction Absorption Transmission. Transparent materials transmit light

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Normal Line

Normal Line. Less Dense. More Dense. Normal Line #1. Fast. Slow. Light Beam. AIR. WATER. AIR. Normal Line. More Dense. Less Dense. Normal Line #1. Fast. Slow. Fast. Normal Line #2. Light Beam. AIR. WATER. AIR. Refraction Examples.

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Time of Flight: the scintillator perspective

Time of Flight: the scintillator perspective. Paul Lecoq CERN, Geneva. Where is the limit ?. Philips and Siemens TOF PET achieve 550 to 650ps timing resolution About 9cm localization along the LOR Can we approach the limit of 100ps (1.5cm)?

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Two models for the description of light

Two models for the description of light. The corpuscular theory of light stating that light can be regarded as a stream of particles of discrete energy called photons . Their energy E is defined by: E = h n.

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Status and Challenges for Detectors in Nuclear Physics

Status and Challenges for Detectors in Nuclear Physics. Yacouba Diawara. ERDIT Meeting, CERN 11-12 April 2013. S ome Important Facilities and Experiments:. N uclear spectrometry (incl. radioactive beams, AGATA, GERDA, NUSTAR, FAIR, Spiral2) H adron physics ( Jefferson lab , PANDA at FAIR)

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The Eliassen-Palm (EP) paper

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Workshop PET/SPECT/RADIO-ISOTOPES in Greece

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Beam Sensor Models Pieter Abbeel UC Berkeley EECS

Beam Sensor Models Pieter Abbeel UC Berkeley EECS Many slides adapted from Thrun , Burgard and Fox, Probabilistic Robotics. TexPoint fonts used in EMF. Read the TexPoint manual before you delete this box.: A A A A A A A A A A A A A. Proximity Sensors.

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Methods: Protein-Protein Interactions

Methods: Protein-Protein Interactions. Biochemistry 4000 Dr. Ute Kothe. k 1. P + L P-L. k -1. Equilibrium dissociation constant K D : concentration of 50% binding. [P] [L] k -1 K D = = [PL] k 1. Fraction bound (F):

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Chapter 17 Reflection and Refraction

Chapter 17 Reflection and Refraction. Objectives. 17.1 Explain the law of reflection 17.1 Distinguish between diffuse and specular reflection 17.1 Calculate the index of refraction in a medium. Objectives. 17.2 Explain total internal reflection 17.2 Define the critical angle

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Lecture 6 Incidence at Interfaces with Arbitrary Angle

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How DuPont TM Vertak TM Bonding Works

13.5% Total Reflection. Unenhanced LCD, Non Anti-Reflection Coated Filter . How DuPont TM Vertak TM Bonding Works. 13.5% Total Reflection. Unenhanced LCD, Non Anti-Reflection Coated Filter . 9.5% Total Reflection. AR Film on Front of Display, Non AR Coated Filter. 1.5% Total Reflection.

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Hard X-ray Telescope for the FFAST project

Hard X-ray Telescope for the FFAST project. Hironori Matsumoto (Nagoya University) Miyata, Y., Furuzawa , A., Kunieda , H. (Nagoya Univ.), Ishida, N., Furuta , H., Yamamoto, Y. ( Tamagawa Engineering), Tsunemi , H. (Osaka Univ.) & FFAST team. 1. The FFAST project. 3 . Mirror design.

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