Fourth Grade: Unit 1- Light White Light Spectrum Prism Refraction Reflection
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Model and Visualization of Ray Tracing Using Javascript and HTML5 for TIR Measurement System Equipped with Equilateral Right Angle Prism
Invited talk in parallel session of the 2nd Indonesian Student Conference on Science and Mathematics (ISCSM-2), 11-12 October 2013, Bandung, Indonesia Model and Visualization of Ray Tracing using JavaScript and HTML5 for TIR Measurement System Equipped with Equilateral Right Angle Prism S. Viridi 1 and Hendro 2 1Nuclear Physics and Biophysics, Institut Teknologi Bandung, Bandung 40132, Indonesia 2Theoretical High Energy Physics and Instrumentation, Institut Teknologi Bandung, Bandung 40132, Indonesia [email protected], [email protected] Abstract Trace of ray deviated by a prism, which is common in a TIR (total internal reflection) 2013 measurement system, is sometimes difficult to manage, especially if the prism is an Oct equilateral right angle prism (ERAP). The point where the ray is reflected inside the right- 2 1 angle prism is also changed as the angle of incident ray changed. In an ATR (attenuated total reflectance) measurement system, range of this point determines size of sample. Using JavaScript and HTML5 model and visualization of ray tracing deviated by an ERAP is perform and reported in this work. Some data are obtained from this visualization and an empirical relations between angle of incident ray source θS , angle of ray detector hand θ D′ , [physics.optics] and angle of ray detector θ D are presented for radial position of ray source RS = 25 cm , v1 radial position of ray detector RD = 20 cm , height of right-angle prism t =15 cm , and 0000 . 0 refractive index of the prism n = 5.1 . 1 Keywords: deviation angle, equilateral right angle prism, total internal reflection, JavaScript, HTML5. -
Bringing Optical Metamaterials to Reality
UC Berkeley UC Berkeley Electronic Theses and Dissertations Title Bringing Optical Metamaterials to Reality Permalink https://escholarship.org/uc/item/5d37803w Author Valentine, Jason Gage Publication Date 2010 Peer reviewed|Thesis/dissertation eScholarship.org Powered by the California Digital Library University of California Bringing Optical Metamaterials to Reality By Jason Gage Valentine A dissertation in partial satisfaction of the requirements for the degree of Doctor of Philosophy in Engineering – Mechanical Engineering in the Graduate Division of the University of California, Berkeley Committee in charge: Professor Xiang Zhang, Chair Professor Costas Grigoropoulos Professor Liwei Lin Professor Ming Wu Fall 2010 Bringing Optical Metamaterials to Reality © 2010 By Jason Gage Valentine Abstract Bringing Optical Metamaterials to Reality by Jason Gage Valentine Doctor of Philosophy in Mechanical Engineering University of California, Berkeley Professor Xiang Zhang, Chair Metamaterials, which are artificially engineered composites, have been shown to exhibit electromagnetic properties not attainable with naturally occurring materials. The use of such materials has been proposed for numerous applications including sub-diffraction limit imaging and electromagnetic cloaking. While these materials were first developed to work at microwave frequencies, scaling them to optical wavelengths has involved both fundamental and engineering challenges. Among these challenges, optical metamaterials tend to absorb a large amount of the incident light and furthermore, achieving devices with such materials has been difficult due to fabrication constraints associated with their nanoscale architectures. The objective of this dissertation is to describe the progress that I have made in overcoming these challenges in achieving low loss optical metamaterials and associated devices. The first part of the dissertation details the development of the first bulk optical metamaterial with a negative index of refraction. -
Absorption of Light Energy Light, Energy, and Electron Structure SCIENTIFIC
Absorption of Light Energy Light, Energy, and Electron Structure SCIENTIFIC Introduction Why does the color of a copper chloride solution appear blue? As the white light hits the paint, which colors does the solution absorb and which colors does it transmit? In this activity students will observe the basic principles of absorption spectroscopy based on absorbance and transmittance of visible light. Concepts • Spectroscopy • Visible light spectrum • Absorbance and transmittance • Quantized electron energy levels Background The visible light spectrum (380−750 nm) is the light we are able to see. This spectrum is often referred to as “ROY G BIV” as a mnemonic device for the order of colors it produces. Violet has the shortest wavelength (about 400 nm) and red has the longest wavelength (about 650–700 nm). Many common chemical solutions can be used as filters to demonstrate the principles of absorption and transmittance of visible light in the electromagnetic spectrum. For example, copper(II) chloride (blue), ammonium dichromate (orange), iron(III) chloride (yellow), and potassium permanganate (red) are all different colors because they absorb different wave- lengths of visible light. In this demonstration, students will observe the principles of absorption spectroscopy using a variety of different colored solutions. Food coloring will be substituted for the orange and yellow chemical solutions mentioned above. Rare earth metal solutions, erbium and praseodymium chloride, will be used to illustrate line absorption spectra. Materials Copper(II) chloride solution, 1 M, 85 mL Diffraction grating, holographic, 14 cm × 14 cm Erbium chloride solution, 0.1 M, 50 mL Microchemistry solution bottle, 50 mL, 6 Potassium permanganate solution (KMnO4), 0.001 M, 275 mL Overhead projector and screen Praseodymium chloride solution, 0.1 M, 50 mL Red food dye Water, deionized Stir rod, glass Beaker, 250-mL Tape Black construction paper, 12 × 18, 2 sheets Yellow food dye Colored pencils Safety Precautions Copper(II) chloride solution is toxic by ingestion and inhalation. -
Introduction to the Ray Optics Module
INTRODUCTION TO Ray Optics Module Introduction to the Ray Optics Module © 1998–2020 COMSOL Protected by patents listed on www.comsol.com/patents, and U.S. Patents 7,519,518; 7,596,474; 7,623,991; 8,457,932; 9,098,106; 9,146,652; 9,323,503; 9,372,673; 9,454,625; 10,019,544; 10,650,177; and 10,776,541. Patents pending. This Documentation and the Programs described herein are furnished under the COMSOL Software License Agreement (www.comsol.com/comsol-license-agreement) and may be used or copied only under the terms of the license agreement. COMSOL, the COMSOL logo, COMSOL Multiphysics, COMSOL Desktop, COMSOL Compiler, COMSOL Server, and LiveLink are either registered trademarks or trademarks of COMSOL AB. All other trademarks are the property of their respective owners, and COMSOL AB and its subsidiaries and products are not affiliated with, endorsed by, sponsored by, or supported by those trademark owners. For a list of such trademark owners, see www.comsol.com/ trademarks. Version: COMSOL 5.6 Contact Information Visit the Contact COMSOL page at www.comsol.com/contact to submit general inquiries, contact Technical Support, or search for an address and phone number. You can also visit the Worldwide Sales Offices page at www.comsol.com/contact/offices for address and contact information. If you need to contact Support, an online request form is located at the COMSOL Access page at www.comsol.com/support/case. Other useful links include: • Support Center: www.comsol.com/support • Product Download: www.comsol.com/product-download • Product Updates: www.comsol.com/support/updates •COMSOL Blog: www.comsol.com/blogs • Discussion Forum: www.comsol.com/community •Events: www.comsol.com/events • COMSOL Video Gallery: www.comsol.com/video • Support Knowledge Base: www.comsol.com/support/knowledgebase Part number. -
Surface Plasmon Enhanced Evanescent Wave Laser Linac
Particle Accelerators, 1993, Vol. 40, pp.171-179 © 1993 Gordon & Breach Science Publishers, S.A. Reprints available directly from the publisher Printed in the United States of America. Photocopying permitted by license only SURFACE PLASMON ENHANCED EVANESCENT WAVE LASER LINAC T. H. KOSCHMIEDER* Department ofPhysicsIRLM5.208, University ofTexas at Austin, Austin, TX 78712 (Received 17 January 1992; in final form 25 September 1992) The grating laser linac concept of Palmer will be modified to incorporate a surface plasmon excitation in the visible part of the optical spectrum. Both grating and prism coupling of light to the surface plasmon will be discussed. It will be shown that phase matching between a relativistic particle and the surface plasmon can be achieved. Finally calculations will be presented showing that accelerations up to 14 GeV1m for a grating and up to 7 GeV1m for a prism could be obtained for incident power densities less than a nominal damage threshold. KEY WORDS: Laser-beam accelerators, Surface plasmons INTRODUCTION There is an ongoing interest in increasing the exit energy of particles from linacs. One possibility of achieving this is by PalmerI who showed that light incident upon a grating ? at skew angles could achieve very high accelerations (GeV1m). The relativistic particles travel just above the grating and are accelerated by coupling to evanescent waves. One effect that can occur for light incident upon a metal grating is the excitation of 2 a surface plasmon. Surface plasmon excitationc in the visible part of the spectrum will be explored in this paper. It will be shown that surface plasmon excitation in the visible part of the spectrum can be used to accelerate relativistic particles. -
I'll Build You a Rainbow
I'll Build You A Rainbow Summary Experiments and demonstrations are used to help students understand that white visible light is composed of the colors of the spectrum. Time Frame 1 class periods of 45 minutes each Group Size Large Groups Materials For the Teacher: Shallow Baking Dish Water Small Mirror Modeling Clay White Paper 3 Flashlights Red, Green, and Blue Cellophane For the Student: Clear Plastic Cup Water Straw Pencil Penny Prism Flashlight White Paper Science Journal Background for Teachers People first thought rainbows were something of a supernatural explanation. The first person to realize that light contained color was a man in 1666 named Sir Isaac Newton. Newton discovered the colors when he bent light. We see a rainbow of colors when we use a prism or water to separate the colors of sunlight. Light is bent as it passes through the water or prism and the colors are spread apart into a spectrum. Each color becomes individually visible. Each color has a different wavelength with red being the longest and violet the shortest. When light passes through a prism or water, each color is bent at a different angle. Color is an essential part of our life. Everything we see has color. Colors are in the clothes we wear, in the plants and animals. The sky is blue. The snow is white. The asphalt is black. Can you imagine what our world would be like if there were no color? If you were asked to draw a rainbow, in which order would you put the colors? Young (and sometimes older) children may think each rainbow, like each person is unique. -
A Study to Determine the Color Preferences of School Children, 1950-1951
A study to determine the color preferences of school children, 1950-1951 Item Type text; Thesis-Reproduction (electronic) Authors Ryan, Leo Thomas, 1914- Publisher The University of Arizona. Rights Copyright © is held by the author. Digital access to this material is made possible by the University Libraries, University of Arizona. Further transmission, reproduction or presentation (such as public display or performance) of protected items is prohibited except with permission of the author. Download date 06/10/2021 16:01:14 Link to Item http://hdl.handle.net/10150/319109 A STUDY TO DETERMINE THE COLOR PREFERENCES OF SCHOOL CHILDREN 1950 - 1951 LeoL Ryanz /' v \ A Thesis submitted to the faculty of the Department of Education in partial fulfillment of the requirements for the degree of MASTER OF ARTS in the Graduate College, University of Arizona 1951 TABLE OP CONTENTS: Chapter Page ■I. INTRODUCTION«, t . 6 "II. BACKGROUND FOR THE STUDY. - . , . .18: III. METHOD OF PROCEDURE .............. 40 IVp PRESENTATION OF DATA. .............. 50 V. ANALYSIS AND INTERPRETATION .......... 64 VI. SUMMARY.-. ... V ' . .... ... ... 75 Oozig3.U1 s 2.ons o oo o a o o o o 0 a & 0 o o o 5 Recommendations® o 76 Xj im 11 a t x on s <> o ©& <» » « @ @ 6 « « © <> * © *7 7 Suggestions for Future Research • *, . <> • „ 77 BIBLIOGRAPHY o . < . , . o . , -* . , 78 AP P BIX 3D IDC ^ 0 8 o o o o o e o O © o o o © o o o o 8 ii LIST OF GH&RTS Ghart , . Page lo ■ SYMBOLISM OF COLORS Q . 0 21 II.:- SYMBOLISM OF DIRECTIONAL COLORS IN . ' DIFFERENT COUNTRIES . .. .. ... 23 III, SYMBOLISM OF COLORS OF THE ELEMENTS . -
How Does Light Work? Making a Water Prism
How does light work? Making a water prism How do we see color? In this activity students release the colors in the rainbow through the action of bending light in a water prism. Time Grade Next Generation Science Standards • 5 minutes prep time • 1-4 • 1-PS4-3. Plan and conduct an investigation to determine the effect of placing objects made with different materials in the path of light. • 10 minutes class time • 4-PS4-1. Develop a model of waves to describe patterns in terms of for activity amplitude and wavelength. • More if you are using • 4– PS3-2. Make observations to provide evidence that energy can be the Lab Sheet transferred from place to place by sound, light, heat and electric currents. Materials Utah Science Core Standards You will need to do this outside or with the • K-2 Standard 2– Earth and Space Science sunlight streaming through a window • 3.1.1b Explain the sun is the source of light that lights the moon A bowl full of water A mirror A sheet of white paper Science notebook or lab sheet Directions • You may want to view this video ahead of time which shows how to move the paper to find the rainbow How to make a water prism https://www.youtube.com/watch?v=D8g4l8mSonM • You may want to introduce your class to color and light with this video Light and Color (Bill Nye) https://www.youtube.com/watch?v=dH1YH0zEAik&t=10s GBO suggestion - Do this activity as a station in a rotation with several other light activities. -
The Physics, Chemistry and Perception of Colored Flames
An earlier version appeared in: Pyrotechnica VII (1981). The Physics, Chemistry and Perception of Colored Flames Part I K. L. Kosanke SUMMARY ed analogy, semi-classical explanations, and a little hand waving in place of perfectly rigorous The first part of this three-part monograph science. In doing this, I have been careful not to presents an in-depth examination of the develop- distort the science being discussed, but only to ment of light theory; mechanisms of light genera- make the subject more understandable. I have in- tion in flames; atomic line, molecular band and cluded numerous drawings, notes and equations as continuous spectra; the definition, laws and figures. I hope the result is complete, accurate, measurement of color; chromaticity diagrams and useful, understandable, and may possibly even how the pyrotechnist can use this knowledge of makes enjoyable reading. physics in planning colored flame formulations of optimal purity. 2.0 Introduction 1.0 Preface Many of the concepts discussed in this paper are not particularly easy to understand or to work In my examination of pyrotechnic literature, I with. It is reasonable to wonder why you should have not been able to find a comprehensive dis- bother to read it and what you will get out of it. cussion of the physics, chemistry and perception The answer is slightly different depending on your of colored flames, let alone one that could be un- scientific background and on what type of pyro- derstood by the average fireworks enthusiast. The technist you are. I will assume your scientific standard texts such as Davis (1943), Weingart background is limited. -
Light and the Electromagnetic Spectrum
© Jones & Bartlett Learning, LLC © Jones & Bartlett Learning, LLC NOT FOR SALE OR DISTRIBUTION NOT FOR SALE OR DISTRIBUTION © Jones & Bartlett Learning, LLC © Jones & Bartlett Learning, LLC NOT FOR SALE OR DISTRIBUTION NOT FOR SALE OR DISTRIBUTION © Jones & Bartlett Learning, LLC © Jones & Bartlett Learning, LLC NOT FOR SALE OR DISTRIBUTION NOT FOR SALE OR DISTRIBUTION © Jones & Bartlett Learning, LLC © Jones & Bartlett Learning, LLC NOT FOR SALE OR DISTRIBUTION NOT FOR SALE OR DISTRIBUTION © Jones & Bartlett Learning, LLC © Jones & Bartlett Learning, LLC NOT FOR SALE OR DISTRIBUTION NOT FOR SALE OR DISTRIBUTION © JonesLight & Bartlett and Learning, LLCthe © Jones & Bartlett Learning, LLC NOTElectromagnetic FOR SALE OR DISTRIBUTION NOT FOR SALE OR DISTRIBUTION4 Spectrum © Jones & Bartlett Learning, LLC © Jones & Bartlett Learning, LLC NOT FOR SALEJ AMESOR DISTRIBUTIONCLERK MAXWELL WAS BORN IN EDINBURGH, SCOTLANDNOT FOR IN 1831. SALE His ORgenius DISTRIBUTION was ap- The Milky Way seen parent early in his life, for at the age of 14 years, he published a paper in the at 10 wavelengths of Proceedings of the Royal Society of Edinburgh. One of his first major achievements the electromagnetic was the explanation for the rings of Saturn, in which he showed that they con- spectrum. Courtesy of Astrophysics Data Facility sist of small particles in orbit around the planet. In the 1860s, Maxwell began at the NASA Goddard a study of electricity© Jones and & magnetismBartlett Learning, and discovered LLC that it should be possible© Jones Space & Bartlett Flight Center. Learning, LLC to produce aNOT wave FORthat combines SALE OR electrical DISTRIBUTION and magnetic effects, a so-calledNOT FOR SALE OR DISTRIBUTION electromagnetic wave. -
Equilateral Dispersing Prisms
3ch_PrismsandRetroreflectors_renumbered.qxd 2/15/2010 1:13 PM Page 3.18 Optical Components Ask About Our Build-to-Print and Custom Capabilities OEM Optical Flats Windows and Windows Dispersing Prisms Prisms and Retroreflectors Lenses Spherical Equilateral Dispersing Prisms Do you need . Equilateral dispersing prisms are used for wavelength-separation appli- cations. A light ray is twice refracted passing through the prism with POST-MOUNTED PRISM HOLDERS total deviation denoted by vd in the figure below. Deviation is a Allows post mounting of prisms up to 50 mm (2 inches) in size Lenses Cylindrical function of refractive index and hence wavelength. Angular dispersion and permits precise tilt adjustment in two axes. Please see part Dvd is the difference in deviation for light rays having different wave- numbers 07 TTM 203 and 07 TTM 703. lengths, and it varies with prism orientation. $ Reflection losses are minimized for unpolarized rays traveling parallel to the base of the prism.This condition is called minimum Lenses deviation. Multielement $ Minimum deviation occurs when the ray and wavelength angle of incidence at the entrance surface are equal to the angle of emer- gence (both angles measured with respect to the surface normals). $ Prisms are available in BK7, F2, and SF10 glass as well as UV-grade Mirrors fused silica. $ Antireflection coatings help reduce polarization at the prism sur- faces by increasing total transmittance. Beamsplitters MINIATURE PRISM TABLE This miniature prism table allows tilt adjustment and 360-degree rotation for components of up to 15 mm in size. Please see part numbers 07 TTC 501 and 07 TTD 501. -
Act IV: Rebirth in Reprise
Act IV: Rebirth In Reprise It’s been almost a decade since Casey Crescenzo brought The Dear Hunter – both the band and the character of the same name – to life with his 2006 debut full-length, Act I: The Lake South, The River North. Although it was evident from his stint as singer of The Receiving End Of Sirens, the record revealed Crescenzo’s incredibly inventive and ambitious musical flair, something which has been evolving ever since. The two albums which followed – 2007’s Act II: The Meaning Of, And All Things Regarding Ms. Leading and 2009’s Act III: Life And Death – cemented the now 32 year-old as a maverick, idiosyncratic talent whose music, while fitting a modern aesthetic, was also from a bygone era. Anachronistic and timeless in equal measure, the narrative of The Dear Hunter existed in both the past and the present, its detailed plot standing simultaneously as an age-old and new age fable. As that tale progressed, so did Crescenzo’s art, his experimental compositions blurring the line between different genres to create a sound that was – and still is – unique to the band. But then, halfway through the six envisioned Acts of the Dear Hunter narrative, Crescenzo’s attentions shifted. Between 2010 and 2011, the band recorded a series of nine, four-track EPs, known as The Color Spectrum. Later released as a single volume edition, each EP was a musical interpretation of a color from the visible spectrum, showcasing the increasingly far-reaching ambitions for Crescenzo’s musical vision and his inventive interpretation of the world around him.