Physics 9 Wednesday, February 17, 2016
|
|
- Mae Butler
- 5 years ago
- Views:
Transcription
1 Physics 9 Wednesday, February 7, 206 On Wednesday, I will be out of town. Zoey Davidson will be here, in my place, to work some mirror and lens examples with you, probably on worksheets: try ray-tracing; try f = d o + d i ; compare what you and your neighbor get with what Zoey does on the board; etc. Let s finish up where we left off on Monday with the convex lens, then work a bunch of example problems.
2 The trick for finding the image point graphically: draw the easy-to-draw rays ( principal rays ), and see where they meet. For thin converging lens, what comes in parallel to axis on LHS must pass through focus on RHS. What passes through focus on LHS must exit parallel to axis on RHS. What passes through the point at center of lens does not bend. (There are analogous tricks for mirrors, thin diverging lenses, but thin converging lens is most useful case to remember.)
3 An object is placed 7 m to the left of a converging lens having focal length f = 5 m. Where does the image form? Let s try the equations first this time. hi di = +, = f do di ho do di = do f ho f, hi = do f f do
4 An object is placed 7 m to the left of a converging lens having focal length f = 5 m. Where does the image form? Object and image distances: = + f do di Magnification: m= di hi = ho do Image distance di is (A) +7.5 m (B) 7.5 m (C) +35 m (D) 35 m (E) +5 m
5 An object is placed 7 m to the left of a converging lens having focal length f = 5 m. Where does the image form? Object and image distances: = + f do di Magnification: m= di hi = ho do Magnification m is: (A) +0.4 (B) 0.4 (C) +2.5 (D) 2.5 (E) +5.0
6 An object is placed 7 m to the left of a converging lens having f = 5 m. Where does the image form? Where are the principal rays? Start with one that is horizontal on the left side of the lens.
7 An object is placed 7 m to the left of a converging lens having f = 5 m. Where does the image form? Next principal ray: passing through left focus.
8 An object is placed 7 m to the left of a converging lens having f = 5 m. Where does the image form? Next principal ray: passing through center of (thin) lens.
9 An object is placed 7 m to the left of a converging lens having f = 5 m. Where does the image form? Math gave d i = +7.5 m, m = 2.5. The graph qualitatively agrees, but my thick colored pencils missed the mark slightly.
10 hi di = +, = f do di ho do di = do f hi f, = do f ho f do For what values of do is the image inverted/upright? Real/virtual?
11 You ll work through more examples with Zoey on Wednesday.
12 Worksheet. Next, we draw the object (in this case, the actual light bulb), as a vertical arrow. In this special case, we re trying d o = 2f. The arrow s tip is a height h o > 0 above its base. The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o.
13 The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o. Starting from the tip of the object, we draw the three easy-to-draw rays. I ve started one ray here: how do I continue it after it strikes the mirror?
14 The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o. Starting from the tip of the object, we draw the three easy-to-draw rays. An incident horizontal ray is reflected through the focus.
15 The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o. Starting from the tip of the object, we draw the three easy-to-draw rays. An incident horizontal ray is reflected through the focus. What happens to an incident ray that passes through the focus?
16 The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o. Starting from the tip of the object, we draw the three easy-to-draw rays. An incident horizontal ray is reflected through the focus. An incident ray that passes through the focus is reflected as a horizontal ray. Two lines suffice to determine a point, but we ll do one more ray as a check.
17 The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o. Starting from the tip of the object, we draw the three easy-to-draw rays. What happens to an incident ray that hits the mirror on the x axis, where the surface normal is horizontal?
18 The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o. Starting from the tip of the object, we draw the three easy-to-draw rays. An incident ray that hits the mirror on the x axis is just mirrored across the x axis. (Alternative: a ray passing through the center of curvature comes right back on itself. That ray is harder to draw in this case.)
19 The goal is to figure out where (if anywhere) the mirror forms an image of the point x = d o, y = h o. In this case, the image is the same height as the object, but it is inverted. So h i = h o. We ll see from the math in a minute that if I had drawn more carefully, the rays would meet (in this example) at d o = d i. Imprecision is a limitation of the graphing method.
20 Worksheet 2. In this case, the object is at half the focal distance since f = R/2. Let s ray trace.
21 Worksheet 2. In this case, the object is at half the focal distance since f = R/2. For one ray, I need to start at the focal point to draw its trace through the arrow tip.
22 Worksheet 2. In this case, the object is at half the focal distance since f = R/2. This is the case where you hold the spoon close to your face. The image is virtual and magnified. From the math: f = + d o d i 4 = 2 + = d i = 4 d i
23 Worksheet 3....go to start of slides...
24 Worksheet 4. Same equations and ray tracing principles apply.
25 Worksheet 4. Same equations and ray tracing principles apply. But take care with the signs! f = + d o d i 6 = 2 + = d i = 4 d i
26 Worksheet 4. Same equations and ray tracing principles apply. But take care with the signs! f = + d o d i 6 = 2 + = d i = 4 d i m = d i d o What type of image?
27 Physics 9 Monday, February 5, 206 This week s reading: two more Giancoli chapters (24 & 25) about light and optics. Bill is back Friday!
Image Formation and the Lens: Object Beyond The Focal Point
Image Formation and the Lens: Object Beyond The Focal Point A convex lens is shown below with its focal points displayed (the dots). An object is located to the left of and at a distance of 2f to the lens.
More informationAP Physics: Curved Mirrors and Lenses
The Ray Model of Light Light often travels in straight lines. We represent light using rays, which are straight lines emanating from an object. This is an idealization, but is very useful for geometric
More informationAlgebra Based Physics
Slide 1 / 66 Slide 2 / 66 Algebra Based Physics Geometric Optics 2015-12-01 www.njctl.org Table of ontents Slide 3 / 66 lick on the topic to go to that section Reflection Spherical Mirror Refraction and
More informationChapter 3: Mirrors and Lenses
Chapter 3: Mirrors and Lenses Chapter 3: Mirrors and Lenses Lenses Refraction Converging rays Diverging rays Converging Lens Ray tracing rules Image formation Diverging Lens Ray tracing Image formation
More informationGeneral Physics II. Mirrors & Lenses
General Physics II Mirrors & Lenses Nothing New! For the next several lectures we will be studying geometrical optics. You already know the fundamentals of what is going on!!! Reflection: θ 1 = θ r incident
More informationLight: Geometric Optics
Light: Geometric Optics 23.1 The Ray Model of Light Light very often travels in straight lines. We represent light using rays, which are straight lines emanating from an object. This is an idealization,
More informationLight: Geometric Optics (Chapter 23)
Light: Geometric Optics (Chapter 23) Units of Chapter 23 The Ray Model of Light Reflection; Image Formed by a Plane Mirror Formation of Images by Spherical Index of Refraction Refraction: Snell s Law 1
More informationThe Lens. Refraction and The Lens. Figure 1a:
Lenses are used in many different optical devices. They are found in telescopes, binoculars, cameras, camcorders and eyeglasses. Even your eye contains a lens that helps you see objects at different distances.
More informationUnit 11 Light and Optics Holt Chapter 14 Student Outline Light and Refraction
Holt Chapter 14 Student Outline Light and Refraction Variables introduced or used in chapter: Quantity Symbol Units Speed of light frequency wavelength angle Object Distance Image Distance Radius of Curvature
More informationPhysics 11 Chapter 18: Ray Optics
Physics 11 Chapter 18: Ray Optics "... Everything can be taken from a man but one thing; the last of the human freedoms to choose one s attitude in any given set of circumstances, to choose one s own way.
More informationP06 ray diagrams with concave mirrors and intro to problem solving.notebook
Ray Diagrams Concave Mirror A concave mirror is a converging mirror because parallel rays will. For any object, millions and millions of rays are reflected in all directions. Some of these rays hit the
More informationCh. 26: Geometrical Optics
Sec. 6-1: The Reflection of Light Wave Fronts and Rays Ch. 6: Geometrical Optics Wave front: a surface on which E is a maximum. Figure 5-3: Plane Wave *For this wave, the wave fronts are a series of planes.
More informationChapter 26 Geometrical Optics
Chapter 26 Geometrical Optics 1 Overview of Chapter 26 The Reflection of Light Forming Images with a Plane Mirror Spherical Mirrors Ray Tracing and the Mirror Equation The Refraction of Light Ray Tracing
More informationPHYS 202 Notes, Week 9
PHYS 202 Notes, Week 9 Greg Christian March 22 & 24, 206 Last updated: 03/24/206 at 2:23:56 This week we learn about images by mirrors, refraction, and thin lenses. Images Spherical Mirrors First let s
More informationToday s Topic: Ray Diagrams Intro to & Converging
Today s Topic: Ray Diagrams Intro to & Converging Learning Goal: Students will be able to describe the resulting image of light once it passes through a converging lens. What is a focal point? What happens
More informationPhysics 1C. Lecture 23A. "If Dracula can t see his reflection in the mirror, how come his hair is always so neatly combed?
Physics 1C Lecture 23A "If Dracula can t see his reflection in the mirror, how come his hair is always so neatly combed?" --Steven Wright Mirror Equation You can mathematically relate the object distance,
More information1. What is the law of reflection?
Name: Skill Sheet 7.A The Law of Reflection The law of reflection works perfectly with light and the smooth surface of a mirror. However, you can apply this law to other situations. For example, how would
More informationLight, Photons, and MRI
Light, Photons, and MRI When light hits an object, some of it will be reflected. The reflected light can form an image. We usually want to be able to characterize the image given what we know about the
More informationRay Diagrams. Ray Diagrams Used for determining location, size, orientation, and type of image
Ray Diagrams Reflection for concave mirror: Any incident ray traveling parallel to the principal axis on the way to the mirror will pass through the focal point upon reflection. Any incident ray passing
More informationReflection and Mirrors
Reflection and Mirrors 1 The Law of Reflection The angle of incidence equals the angle of reflection. 2 The Law of Reflection When light strikes a surface it is reflected. The light ray striking the surface
More informationQuest Chapter 30. Same hint as in #1. Consider the shapes of lenses that make them converge or diverge.
1 Consider the light rays depicted in the figure. 1. diverging mirror 2. plane mirror 3. converging mirror 4. converging lens 5. diverging lens 6. Unable to determine. 2 Consider the light rays depicted
More informationDraw a diagram showing the fibre and the path of the ray of light. Describe one use of optical fibres in medicine. You may draw a diagram.
1 (a) (i) A ray of light passes through a length of curved optical fibre. Draw a diagram showing the fibre and the path of the ray of light. [1] Describe one use of optical fibres in medicine. You may
More informationThin Lenses. Lecture 23. Chapter 34. Ray Optics. Physics II. Course website:
Lecture 23 Chapter 34 Physics II Ray Optics Thin Lenses Course website: http://faculty.uml.edu/andriy_danylov/teaching/physicsii Today we are going to discuss: Chapter 34: Section 34.5-6 Thin Lenses There
More informationWelcome to: Physics I. I m Dr Alex Pettitt, and I ll be your guide!
Welcome to: Physics I I m Dr Alex Pettitt, and I ll be your guide! Physics I: x Mirrors and lenses Lecture 13: 6-11-2018 Last lecture: Reflection & Refraction Reflection: Light ray hits surface Ray moves
More informationPhysics 1C Lecture 26A. Beginning of Chapter 26
Physics 1C Lecture 26A Beginning of Chapter 26 Mirrors and Lenses! As we have noted before, light rays can be diverted by optical systems to fool your eye into thinking an object is somewhere that it is
More informationOptics Course (Phys 311) Geometrical Optics Refraction through Lenses
Optics Course (Phys ) Geometrical Optics Refraction through Lenses Lecturer: Dr Zeina Hashim Slide 1 Objectives covered in this lesson : 1. Refraction through single spherical refracting surfaces. 2. Lenses:
More informationA concave mirror is a converging mirror because parallel rays will. A convex mirror is a diverging mirror because parallel rays will
Ray Diagrams Convex Mirror A concave mirror is a converging mirror because parallel rays will. A convex mirror is a diverging mirror because parallel rays will. Quick Activity obtain a ray box and a curved
More informationOptics Course (Phys 311) Geometrical Optics Refraction through Lenses
Optics Course (Phys ) Geometrical Optics Refraction through Lenses Lecturer: Dr Zeina Hashim Slide 1 Objectives covered in this lesson : 1. The refracting power of a thin lens. 2. Thin lens combinations.
More informationOptics II. Reflection and Mirrors
Optics II Reflection and Mirrors Geometric Optics Using a Ray Approximation Light travels in a straight-line path in a homogeneous medium until it encounters a boundary between two different media The
More informationIJSO Training: Light and Colour Mini-experiment Refractive Index and Snell s Law
IJSO Training: Light and Colour Mini-experiment Refractive Index and Snell s Law Objective In this experiment, you are required to determine the refractive index of an acrylic trapezoid (or any block with
More informationRay Optics. Physics 11. Sources of Light Rays: Self-Luminous Objects. The Ray Model of Light
Physics 11 Ray Optics Ray Model of Light Reflection Plane Mirrors Spherical Mirrors Ray Tracing Images from a Concave Mirror Images from a Convex Mirror Slide 18-3 The Ray Model of Light Sources of Light
More informationEssential Physics I. Lecture 13:
Essential Physics I E I Lecture 13: 11-07-16 Reminders No lecture: Monday 18th July (holiday) Essay due: Monday 25th July, 4:30 pm 2 weeks!! Exam: Monday 1st August, 4:30 pm Announcements 250 word essay
More informationAssuming: f = 10 cm C = 20 cm p = 12 cm q = 60 cm h = 5 cm h = - 25 cm M = -5
Object Distance greater than C Object Distance at C Assuming: f = 10 cm C = 20 cm p = 25 cm q = 16.66 h = 5 cm h = -3.32 cm M = -.664 Assuming: f = 10 cm C = 20 cm p = 20 cm q = 20 cm h = 5 cm h = -5 cm
More informationGEOMETRIC OPTICS. LENSES refract light, so we need to know how light bends when entering and exiting a lens and how that interaction forms an image.
I. What is GEOMTERIC OPTICS GEOMETRIC OPTICS In geometric optics, LIGHT is treated as imaginary rays. How these rays interact with at the interface of different media, including lenses and mirrors, is
More informationM = h' h = #i. n = c v
Name: Physics Chapter 14 Study Guide ----------------------------------------------------------------------------------------------------- Useful Information: c = 3 "10 8 m s 1 i + 1 o = 1 f M = h' h =
More informationThe Reflection of Light
King Saud University College of Applied Studies and Community Service Department of Natural Sciences The Reflection of Light General Physics II PHYS 111 Nouf Alkathran nalkathran@ksu.edu.sa Outline Introduction
More informationThe Law of Reflection
If the surface off which the light is reflected is smooth, then the light undergoes specular reflection (parallel rays will all be reflected in the same directions). If, on the other hand, the surface
More informationOn Fig. 7.1, draw a ray diagram to show the formation of this image.
1- A small object is placed 30 cm from the centre of a convex lens of focal length 60 cm An enlarged image is observed from the other side of the lens (a) On Fig 71, draw a ray diagram to show the formation
More informationLight: Geometric Optics
Light: Geometric Optics The Ray Model of Light Light very often travels in straight lines. We represent light using rays, which are straight lines emanating from an object. This is an idealization, but
More informationSolution and Grading Key PHYS1212 / PHYS1252 Quiz #1.04 Ray Diagrams
(A) Solution and Grading Key PHYS1212 / PHYS1252 Quiz #1.04 Ray Diagrams Only the object is shown here. The image is hidden and you have to infer its location and orientation from the rays as drawn. Red
More informationindex of refraction-light speed
AP Physics Study Guide Chapters 22, 23, 24 Reflection, Refraction and Interference Name Write each of the equations specified below, include units for all quantities. Law of Reflection Lens-Mirror Equation
More informationReflections. I feel pretty, oh so pretty
Reflections I feel pretty, oh so pretty Objectives By the end of the lesson, you should be able to: Draw an accurate reflective angle Determine the focal length of a spherical mirror Light Review Light
More information4. Refraction. glass, air, Perspex and water.
Mr. C. Grima 11 1. Rays and Beams A ray of light is a narrow beam of parallel light, which can be represented by a line with an arrow on it, in diagrams. A group of rays makes up a beam of light. In laboratory
More informationPhysics 1230: Light and Color. Guest Lecture 18 Jack Houlton Lenses, Rays, and Math!
Physics 230: Light and Color Chuck Rogers, Charles.Rogers@colorado.edu Ryan Henley, Valyria McFarland, Peter Siegfried physicscourses.colorado.edu/phys230 Guest Lecture 8 Jack Houlton Lenses, Rays, and
More informationChapter 26 Geometrical Optics
Chapter 26 Geometrical Optics The Reflection of Light: Mirrors: Mirrors produce images because the light that strikes them is reflected, rather than absorbed. Reflected light does much more than produce
More informationOptics Worksheet. Chapter 12: Optics Worksheet 1
Optics Worksheet Triangle Diagram: This represents a triangular prism. We want to follow the path of a light ray striking one of the surfaces as it passes through the prism and exits one of the other surfaces.
More informationFigure 27a3See Answer T5. A convex lens used as a magnifying glass.
F1 Figure 27a (in Answer T5) shows a diagram similar to that required, but with different dimensions. The object is between the first focus and the lens. The image is erect and virtual. The lateral magnification
More informationPHY 171 Lecture 6 (January 18, 2012)
PHY 171 Lecture 6 (January 18, 2012) Light Throughout most of the next 2 weeks, we will be concerned with the wave properties of light, and phenomena based on them (interference & diffraction). Light also
More informationChapter 26 Geometrical Optics
Chapter 26 Geometrical Optics 26.1 The Reflection of Light 26.2 Forming Images With a Plane Mirror 26.3 Spherical Mirrors 26.4 Ray Tracing and the Mirror Equation 26.5 The Refraction of Light 26.6 Ray
More informationSection 2 Flat Mirrors. Distinguish between specular and diffuse reflection of light. Apply the law of reflection for flat mirrors.
Section 2 Flat Mirrors Objectives Distinguish between specular and diffuse reflection of light. Apply the law of reflection for flat mirrors. Describe the nature of images formed by flat mirrors. Section
More informationLIGHT. Speed of light Law of Reflection Refraction Snell s Law Mirrors Lenses
LIGHT Speed of light Law of Reflection Refraction Snell s Law Mirrors Lenses Light = Electromagnetic Wave Requires No Medium to Travel Oscillating Electric and Magnetic Field Travel at the speed of light
More informationChapter 12 Notes: Optics
Chapter 12 Notes: Optics How can the paths traveled by light rays be rearranged in order to form images? In this chapter we will consider just one form of electromagnetic wave: visible light. We will be
More informationRefraction at a single curved spherical surface
Refraction at a single curved spherical surface This is the beginning of a sequence of classes which will introduce simple and complex lens systems We will start with some terminology which will become
More informationLight and Mirrors MIRRORS
Light and Mirrors MIRRORS 1 Polarized Sunglasses- How do they work? light waves vibrate in more than one plane light waves can be made to vibrate in a single plane by use of polarizing filters. 2 polarizing
More information34.2: Two Types of Image
Chapter 34 Images 34.2: Two Types of Image For you to see an object, your eye intercepts some of the light rays spreading from the object and then redirect them onto the retina at the rear of the eye.
More informationReflection and Image Formation by Mirrors
Purpose Theory a. To study the reflection of light Reflection and Image Formation by Mirrors b. To study the formation and characteristics of images formed by different types of mirrors. When light (wave)
More informationAP* Optics Free Response Questions
AP* Optics Free Response Questions 1978 Q5 MIRRORS An object 6 centimeters high is placed 30 centimeters from a concave mirror of focal length 10 centimeters as shown above. (a) On the diagram above, locate
More informationThe Role of Light to Sight
Reflection The Role of Light to Sight The visual ability of humans and other animals is the result of the complex interaction of light, eyes and brain. Absence of Light Darkness. Luminous objects are objects
More informationRefraction and Lenses. Honors Physics
Refraction and Lenses Honors Physics Refraction Refraction is based on the idea that LIGHT is passing through one MEDIUM into another. The question is, WHAT HAPPENS? Suppose you are running on the beach
More informationPhysics 102: Lecture 17 Reflection and Refraction of Light
Physics 102: Lecture 17 Reflection and Refraction of Light Physics 102: Lecture 17, Slide 1 Today Last Time Recall from last time. Reflection: q i = q r Flat Mirror: image equidistant behind Spherical
More informationChapter 23. Geometrical Optics (lecture 1: mirrors) Dr. Armen Kocharian
Chapter 23 Geometrical Optics (lecture 1: mirrors) Dr. Armen Kocharian Reflection and Refraction at a Plane Surface The light radiate from a point object in all directions The light reflected from a plane
More informationDispersion (23.5) Neil Alberding (SFU Physics) Physics 121: Optics, Electricity & Magnetism Spring / 17
Neil Alberding (SFU Physics) Physics 121: Optics, Electricity & Magnetism Spring 2010 1 / 17 Dispersion (23.5) The speed of light in a material depends on its wavelength White light is a mixture of wavelengths
More informationLecture Notes (Geometric Optics)
Lecture Notes (Geometric Optics) Intro: - plane mirrors are flat, smooth surfaces from which light is reflected by regular reflection - light rays are reflected with equal angles of incidence and reflection
More informationSpherical Mirrors Learning Outcomes
1 Spherical Mirrors Learning Outcomes Recognise and use key words relating to mirrors. Centre of curvature Focus / focal point, focal length Pole Principal axis Use ray tracing to demonstrate reflection.
More informationSpherical Mirrors Learning Outcomes. Spherical Mirrors Learning Outcomes. Spherical Mirrors
1 Spherical Mirrors Learning Outcomes Recognise and use key words relating to mirrors. Centre of curvature Focus / focal point, focal length Pole Principal axis Use ray tracing to demonstrate reflection.
More informationName: Jonathan Smartt Title: Thin Lenses Investigation Date of Lesson: Week 2, Day 2 Technology Lesson: Yes Length: 75 minutes Course: Physics Grade
Name: Jonathan Smartt Title: Thin Lenses Investigation Date of Lesson: Week 2, Day 2 Technology Lesson: Yes Length: 75 minutes Course: Physics Grade Level: 11 th or 12 th Source: Some information taken
More information30/08/2016. Spherical Mirrors Learning Outcomes. Spherical Mirrors Learning Outcomes. Spherical Mirrors - Images
1 Spherical Mirrors Learning Outcomes Recognise and use key words relating to mirrors. Centre of curvature Focus / focal point, focal length Pole Principal axis Use ray tracing to demonstrate reflection.
More informationToday s Topic: Refraction / Snell s Law
Today s Topic: Refraction / Snell s Law Learning Goal: Students will be able to calculate the angle of reflection of a bent light wave. Take out your notes from yesterday as we learn about Snell s Law.
More informationChapter 34: Geometrical Optics
Chapter 34: Geometrical Optics Mirrors Plane Spherical (convex or concave) Lenses The lens equation Lensmaker s equation Combination of lenses E! Phys Phys 2435: 22: Chap. 34, 3, Pg Mirrors New Topic Phys
More informationPhysics 102: Lecture 17 Reflection and Refraction of Light
Physics 102: Lecture 17 Reflection and Refraction of Light Physics 102: Lecture 17, Slide 1 Recall from last time. Today Last Time Reflection: θ i = θ r Flat Mirror: image equidistant behind Spherical
More informationChapter 23. Images and Mirrors 3/23/11. Mirrors and Lenses QUESTIONS? PLEASE ASK! Types of Images for Mirrors and Lenses.
3/23/ LIGO mirror Announcements LIGO mirror Two exams down, one to go! No HW this week. Credit: LIGO Laboratory, Caltech Office hours: My office hours today from 2-3 pm (or make an appointment) Chapter
More informationPhysics 1202: Lecture 18 Today s Agenda
Physics 1202: Lecture 18 Today s Agenda Announcements: Team problems today Team 10: Alisha Kumar, Adam Saxton, Alanna Forsberg Team 11: Riley Burns, Deanne Edwards, Shauna Bolton Team 12: Kervell Baird,
More informationLECTURE 17 MIRRORS AND THIN LENS EQUATION. Instructor: Kazumi Tolich
LECTURE 17 MIRRORS AND THIN LENS EQUATION Instructor: Kazumi Tolich Lecture 17 2 18.6 Image formation with spherical mirrors Concave mirrors Convex mirrors 18.7 The thin-lens equation Sign conventions
More informationLec. 7: Ch. 2 - Geometrical Optics. 1. Shadows 2. Reflection 3. Refraction 4. Dispersion. 5. Mirages, sun dogs, etc.
Lec. 7: h. 2 - Geometrical Optics We are here 1. Shadows 2. Reflection 3. Refraction 4. Dispersion We only covered the first 44 vugraphs. 5. Mirages, sun dogs, etc. Read hapter 3, skip 3.3 and skip 3.5D
More informationPhysics 123 Optics Review
Physics 123 Optics Review I. Definitions & Facts concave converging convex diverging real image virtual image real object virtual object upright inverted dispersion nearsighted, farsighted near point,
More informationThe path of light is bent. Refraction and Lenses 5/3/2018. The angle of incidence equals the angle of reflection. Not so for refraction.
The path of light is bent. Refraction and Lenses Unit 11 These are not photographs, but rather computer generated graphics based on the artist s understanding of the index of refraction. The angle of incidence
More informationLocating Images is Curved Mirrors
Locating Images is Curved Mirrors Part 1: Intro and Concave Mirrors Types of Mirrors Concave (Converging) mirror - the centre of the mirror bulges away from you (eg. makeup mirror, car headlight, flashlight)
More informationChapter 23. Geometrical Optics: Mirrors and Lenses and other Instruments
Chapter 23 Geometrical Optics: Mirrors and Lenses and other Instruments HITT1 A small underwater pool light is 1 m below the surface of a swimming pool. What is the radius of the circle of light on the
More informationPart Images Formed by Flat Mirrors. This Chapter. Phys. 281B Geometric Optics. Chapter 2 : Image Formation. Chapter 2: Image Formation
Phys. 281B Geometric Optics This Chapter 3 Physics Department Yarmouk University 21163 Irbid Jordan 1- Images Formed by Flat Mirrors 2- Images Formed by Spherical Mirrors 3- Images Formed by Refraction
More informationWillis High School Physics Workbook Unit 7 Waves and Optics
Willis High School Physics Workbook Unit 7 Waves and Optics This workbook belongs to Period Waves and Optics Pacing Guide DAY DATE TEXTBOOK PREREADING CLASSWORK HOMEWORK ASSESSMENT M 2/25 T 2/26 W 2/27
More informationVideo: The Mirror. Unit #3 - Optics. Geometric Optics. A) The Law of Reflection. applications Mirrors.
Video: The Mirror http://vimeo.com/6212004 Unit #3 - Optics 11.1 - Mirrors Geometric Optics the science of how light reflects and bends optical device is any technology that uses light A) The Law of Reflection
More informationLight travels in straight lines, this is referred to as... this means that light does not bend...
SNC 2DI - 10.2 Properties of Light and Reflection Light travels in straight lines, this is referred to as... this means that light does not bend... Reflection : Light travels in a straight line as long
More informationWinmeen Tnpsc Group 1 & 2 Self Preparation Course Physics UNIT 9. Ray Optics. surface at the point of incidence, all lie in the same plane.
Laws of reflection Physics UNIT 9 Ray Optics The incident ray, the reflected ray and the normal drawn to the reflecting surface at the point of incidence, all lie in the same plane. The angle of incidence
More informationnormal: a line drawn perpendicular (90 ) from the point of incidence of the reflecting surface
Ch 11 Reflecting Light off a Plane Mirror p. 313 Types of Mirrors (3) 1) Plane: flat fg 1 p. 313 law of reflection: the angle of incidence = the angle of reflection incident ray (in): the ray (light beam)
More informationParaxial into real surfaces
Paraxial into real surfaces Curvature, Radius Power lens and mirrors lens maker equation mirror and lens in contact Principle planes Real Surfaces Refractive via Fermat s Principle Calculate optical path
More informationLight and Optics Learning Goals Review
SNC2D Light and Optics Learning Goals Review Different types of light be familiar with the different types of light i.e. direct and indirect, natural and artificial and be able to describe the different
More informationOptics and Images. Lenses and Mirrors. Matthew W. Milligan
Optics and Images Lenses and Mirrors Light: Interference and Optics I. Light as a Wave - wave basics review - electromagnetic radiation II. Diffraction and Interference - diffraction, Huygen s principle
More informationWaves & Oscillations
Physics 42200 Waves & Oscillations Lecture 26 Propagation of Light Hecht, chapter 5 Spring 2015 Semester Matthew Jones Geometric Optics Typical problems in geometric optics: Given an optical system, what
More informationRefraction & Concave Mirrors
rev 05/2018 Equipment List Refraction & Concave Mirrors Qty Items Part Numbers 1 Light Source OS-8517 1 Ray Optics Set OS-8516 1 Optics Bench OS-8518 1 50 mm Concave Mirror, and Half Screen OS-8519 1 Viewing
More informationLECTURE 25 Spherical Refracting Surfaces. Geometric Optics
LECTURE 25 Spherical Refracting Surfaces Geometric ptics When length scales are >> than the light s wavelength, light propagates as rays incident ray reflected ray θ θ r θ 2 refracted ray Reflection: Refraction:
More information3. For an incoming ray of light vacuum wavelength 589 nm, fill in the unknown values in the following table.
Homework Set 15A: Mirrors and Lenses 1. Find the angle of refraction for a ray of light that enters a bucket of water from air at an angle of 25 degrees to the normal. 2. A ray of light of vacuum wavelength
More informationP H Y L A B 1 : G E O M E T R I C O P T I C S
P H Y 1 4 3 L A B 1 : G E O M E T R I C O P T I C S Introduction Optics is the study of the way light interacts with other objects. This behavior can be extremely complicated. However, if the objects in
More informationLIGHT CLASS X STUDY MATERIAL & QUESTION BANK:
LIGHT CLASS X STUDY MATERIAL & QUESTION BANK: 1. REFLECTION OF LIGHT: The phenomenon of light coming back into the same medium after it strikes a smooth surface is called reflection. 2. LAWS OF REFLECTION:
More informationChapter 7: Geometrical Optics. The branch of physics which studies the properties of light using the ray model of light.
Chapter 7: Geometrical Optics The branch of physics which studies the properties of light using the ray model of light. Overview Geometrical Optics Spherical Mirror Refraction Thin Lens f u v r and f 2
More informationStevens High School AP Physics II Work for Not-school
1. Gravitational waves are ripples in the fabric of space-time (more on this in the next unit) that travel at the speed of light (c = 3.00 x 10 8 m/s). In 2016, the LIGO (Laser Interferometry Gravitational
More information12:40-2:40 3:00-4:00 PM
Physics 294H l Professor: Joey Huston l email:huston@msu.edu l office: BPS3230 l Homework will be with Mastering Physics (and an average of 1 hand-written problem per week) Help-room hours: 12:40-2:40
More informationOutline The Refraction of Light Forming Images with a Plane Mirror 26-3 Spherical Mirror 26-4 Ray Tracing and the Mirror Equation
Chapter 6 Geometrical Optics Outline 6-1 The Reflection of Light 6- Forming Images with a Plane Mirror 6-3 Spherical Mirror 6-4 Ray Tracing and the Mirror Equation 6-5 The Refraction of Light 6-6 Ray Tracing
More informationPHYSICS. Chapter 34 Lecture FOR SCIENTISTS AND ENGINEERS A STRATEGIC APPROACH 4/E RANDALL D. KNIGHT
PHYSICS FOR SCIENTISTS AND ENGINEERS A STRATEGIC APPROACH 4/E Chapter 34 Lecture RANDALL D. KNIGHT Chapter 34 Ray Optics IN THIS CHAPTER, you will learn about and apply the ray model of light Slide 34-2
More informationnormal angle of incidence increases special angle no light is reflected
Reflection from transparent materials (Chapt. 33 last part) When unpolarized light strikes a transparent surface like glass there is both transmission and reflection, obeying Snell s law and the law of
More informationGeometrical Optics. 1 st year physics laboratories. University of Ottawa
Geometrical Optics 1 st year physics laboratories University of Ottawa https://uottawa.brightspace.com/d2l/home INTRODUCTION Geometrical optics deals with light as a ray that can be bounced (reflected)
More information