Dr. Jie ZouPHY 13711 Chapter 36 Image Formation Discussions.

Slides:

Advertisements

Similar presentations

Mirror and Lens by Rifki Irawan. a surface, such as polished metal or glass coated with a metal film, that reflects light without diffusion and produces.

Advertisements

Option G2: Optical Instruments

Notation for Mirrors and Lenses

Physics 1C Lecture 26B Quiz Grades for Quiz 2 are now online. Avg is again 67% Same as for Quiz 1.

Flat Mirrors Consider an object placed in front of a flat mirror

Chapter 36 Image Formation EXAMPLES. Chapter 36 Image Formation: Examples.

Chapter 23 Mirrors and Lenses.

Chapter 23 Mirrors and Lenses Conceptual questions: 4,5,10,14,15,17

Chapter 23 Mirrors and Lenses. Notation for Mirrors and Lenses The object distance is the distance from the object to the mirror or lens Denoted by p.

Chapter 23 Mirrors and Lenses.

Physics 1C Lecture 26C. Recap from last lecture Optical characteristics of lens are defined by focal length f: For a given f, imaging properties are given.

The Refraction of Light The speed of light is different in different materials. We define the index of refraction, n, of a material to be the ratio of.

Lecture 23 Mirrors Lens.

Phy 212: General Physics II Chapter 34: Images Lecture Notes.

Image Formation and the Lens: Object Beyond The Focal Point

26.6 Lenses. Converging Lens Focal length of a converging lens is real and considered positive.

Magnification of lenses Images

Images Formed by Refraction

Chapter 36 Image Formation Dr. Jie Zou PHY 1371.

Physics for Scientists and Engineers II, Summer Semester Lecture 25: July 27 th 2009 Physics for Scientists and Engineers II.

Copyright © 2009 Pearson Education, Inc. Lecture 2 – Geometrical Optics b) Thin Lenses.

Geometric Optics Ray Model assume light travels in straight line

Chapter 23 Mirrors and Lenses.

Goal: To understand how mirrors and lenses work

Lecture 14 Images Chapter 34. Law of Reflection Dispersion Snell’s Law Brewsters Angle Preliminary topics before mirrors and lenses.

Geometrical Optics (Lecture II)

Module 1-4 Basic Geometrical Optics. Image Formation with Lenses Lenses are at the heart of many optical devices, not the least of which are cameras,

Lecture 14 Images Chp. 35 Opening Demo Topics –Plane mirror, Two parallel mirrors, Two plane mirrors at right angles –Spherical mirror/Plane mirror comparison.

Chapter 34. Images What is Physics? Two Types of Image

Geometric Optics Conceptual Quiz 23.

 Mirrors that are formed from a section of a sphere.  Convex: The reflection takes place on the outer surface of the spherical shape  Concave: The.

Light through a Converging lens. Lesson Objectives. Know how converging lenses refract light. Describe how to draw light diagrams from convex lenses.

8. Thin lenses Thin lenses are those whose thickness is small compared to their radius of curvature. They may be either converging or diverging. 1) Types.

Geometric Optics This chapter covers how images form when light bounces off mirrors and refracts through lenses. There are two different kinds of images:

 When light strikes the surface of an object  Some light is reflected  The rest is absorbed (and transferred into thermal energy)  Shiny objects,

Curved Mirrors Chapter 14, Section 3 Pg

Chapter 7 Light and Geometric Optics

In describing the propagation of light as a wave we need to understand: wavefronts: a surface passing through points of a wave that have the same phase.

Chapter 36 Image Formation.

AP Physics IV.C Geometric Optics. Wave Fronts and Rays.

1 32 Optical Images image formation reflection & refraction mirror & lens equations Human eye Spherical aberration Chromatic aberration.

Thin Lens Optics Physics 11. Thin Lens Optics If we have a lens that has a small diameter when compared to the focal length, we can use geometrical optics.

1 Thin Lens Light refracts on the interface of two media, following Snell’s law of refraction: Light bends through a triangular prism: θ 1 and θ 2 are.

Unit 3: Light.  Symbols used: ◦ Ho- height of the object ◦ Hi- height of the image ◦ m-magnification ◦ do (or p)- distance between object and vertex.

Thin Lens Chapter Bending of Light Any transparent object that is curved with affect the path of light rays. Ex: o Glass bottle full of water will.

Dispersion The spreading of light into its color components is called dispersion. When light enters a prism, the refracted ray is bent towards the normal,

8. Thin lenses 1) Types of lenses

Part 10 Optics --Mirrors and Lenses Chapter 24 Geometric Optics.

Geometric Optics AP Physics Chapter 23.

Lenses Topic 13.4.

Chapter 32Light: Reflection and Refraction

Lenses & Optical Instruments

2 types of lenses just like mirrors

Mirror Equations Lesson 4.

8. Thin lenses 1) Types of lenses

Thin Lenses 1/p + 1/q = 1/f 1/f = (n -1) (1/R1 - 1/R2)

What Happens When… Light is transmitted through a glass shaped like a triangle? Light is transmitted straight toward a glass shaped like a square?

Chapter 33 Continued Properties of Light Law of Reflection

Thin Lenses A lens is a transparent object with two refracting surfaces whose central axes coincide. The common central axis is the central axis of the.

Free-Response-Questions

32 Optical Images image formation reflection & refraction

Image Formation and the Lens: Object Beyond The Focal Point

8. Thin lenses 1) Types of lenses

Chapter 8 Ray Diagrams (光線圖)

. y y’ A B a a’ = C D OPTICAL SYSTEM GEOMETRICAL OPTICS

Lenses: Day 1 -Converging Lenses

Thin Lens Equation 1

Presentation transcript:

Dr. Jie ZouPHY Chapter 36 Image Formation Discussions

Dr. Jie ZouPHY Problem #22. A flint glass plate (n = 1.66) rests on the bottom of an aquarium tank. The plate is 8.00 cm thick (vertical dimension) and is covered with a layer of water (n = 1.33) 12.0 cm deep. Calculate the apparent thickness of the plate as viewed from straight above the water.

Dr. Jie ZouPHY Problem #40. Figure P36.40 shows a thin glass (n = 1.50) converging lens for which the radii of curvature are R1 = 15.0 cm and R2 = –12.0 cm. To the left of the lens is a cube having a face area of 100 cm2. The base of the cube is on the axis of the lens, and the right face is 20.0 cm to the left of the lens. (a) Determine the focal length of the lens. (b) Draw the image of the square face formed by the lens. What type of geometric figure is this? (c) Determine the area of the image.

Dr. Jie ZouPHY Problem #62. The object in Figure P36.62 is midway between the lens and the mirror. The mirror’s radius of curvature is 20.0 cm, and the lens has focal length of –16.7 cm. Considering only the light that leaves the object and travels first toward the mirror, locate the final image formed by this system. Is this image real or virtual? Is it upright or inverted? What is the overall magnification?