3. Image formation in mirrors and the mirror equation: The distance of an object in front of a concave mirror is 6 cm. If the focal length of the mirror is 3 cm, what is the distance of the image from the mirror? Describe the image. Show your solution graphically and mathematically using the mirror equation. (Use a bond paper for your answer). 4. Image formation in mirrors and the mirror equation:_If a convex mirror is used using the same given quantities in number 3. (Use the back page of your answer sheet in number 3).

3. Image formation in mirrors and the mirror equation: The distance of an object in front of a concave mirror is 6 cm. If the focal length of the mirror is 3 cm, what is the distance of the image from the mirror? Describe the image. Show your solution graphically and mathematically using the mirror equation. (Use a bond paper for your answer). 4. Image formation in mirrors and the mirror equation:_If a convex mirror is used using the same given quantities in number 3. (Use the back page of your answer sheet in number 3).

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

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For the following lens, locate the image by drawing a ray diagram (3 rays) and describe the image as (inverted or upright, real or virtual, magnified or reduced). Converging lens a. Upright, virtual, reduced b. Inverted, real, magnified c. Inverted, virtual, magnified d. Upright, real, reduced
7. Image formation in lenses and the lens equation: An object is placed 3 cm in front of a converging lens with a focus of 5 cm. Describe and determine the distance of the image from the lens. Show your solution graphically and mathematically using the lens equation. (Use a bond paper for your answer). 8. Image formation in microscope: The objective lens of a microscope has a focal length of 1 cm while its eyepiece lens has a focal length of 2 cm. The object is placed 2 cm away from the objective lens. Illustrate and describe the first image and final image formed. Determine also the image distances. (Use the back page of your answer sheet in number 7).
Please, show its complete solution. Thank You!
4. Diverging Lens - Object Inside Focal Point An object with heigh 0.75cm is placed a distance of 2.5 cm in front of a thin diverging lens with focal length -15cm. A. What is the image position in cm? Please draw a ray diagram and use the lens equation to solve algebraically. B. What is the image height? C. What is the magnification? ↑ 1 1 do d₁ + = 1 m= hi ho di do Skill: Find an Image Using 3 Principle Rays in Ray Diagram Skill: Find an Image Using the Lens Equation
Which rules apply to concave mirror ray tracing? Click all that apply. -If an incident ray travels parallel to the principal axis on the way to the curved mirror, the ray will be reflected in away from the focal point behind the mirror. -If an incident ray travels toward the focal point on the way to the curved mirror, the ray will be reflected back parallel to the principal axis. -If an incident ray travels parallel to the principal axis on the way to the curved mirror, the ray will be reflected back through the focal point. -If an incident ray travels through the focal point on the way to the curved mirror, the ray will be reflected back parallel to the principal axis.
Choose true or false for each statement regarding concave mirrors. A concave mirror produces an enlarged real image when the object is placed far beyond its focal point (Region 1). If an object is placed 7.9 cm from a concave mirror with f = 4 cm, then its image will be reduced and virtual. ]If an object is placed 4.1 cm from a concave mirror with f = 4 cm, then its image will be reduced and virtual. Submit Answer Tries 0/2 Choose true or false for each statement regarding convex mirrors. A convex mirror produces an enlarged virtual image when the object is placed far beyond its focal point (Region 1). If an object is placed 4.1 cm from a convex mirror with f 4 cm, then its image will be enlarged and real. Ir an object is placed 7.9 cm from a convex mirror with f4 cm, then its image wil be enlarged and virtual. Submit Answer Tries 0/2 Choose true or false for each statement regarding the sign conventions for mirrors. V The magnification m is positive for upright images. V Real images…
A concave mirror has a focal length of 20 cm. Knowing that the image was placed 12 cm from the mirror: 10 a) What is the position (in cm) of resulting image? b) Draw a ray diagram to locate the image c) Describe the formed image.
Multiple Choice: Encircle the letter that corresponds to the correct answer. 1.How do you describe the image formed by a plane mirror? A. The image is virtual, behind the mirror, and enlarged B. The image is virtual, behind the mirror, and of the same size as the object C. The image is real, at the surface of the mirror and enlarged D. The image is real, behind the mirror, and of the same size as the object 2. What is the focal length of a spherical mirror with a radius of curvature of 30 cm is A. 10 cm B. 15 cm C. 20 cm D. 30 cm 3. Where should an object be placed in a concave mirror to form a real image larger than the object? A. at a distance equal to the radius of curvature B. at a distance less than the focal length C. between focus and center of curvature D. at a distance greater than the radius of curvature 4. What is the distance of the image if an object is placed at a large distance in front of a concave mirror of a radius of curvature of 40 cm? B. 30 cm C. 40 cm D. 50 cm A.…
please answer 4 and 5, thank you
2. Spherical (Curved) Mirrors - Concave Mirror An object is placed at a distance of 15cm in front of a concave mirror whose focal length if 10.5 cm. A. What is the image distance? Please draw a Ray Diagram AND Use the Mirror Equation to Find the Image. B. What is the magnification? ). 1 1 + do di 1 ƒ f = R Skill: Use 3 Principal Rays to Draw a Ray Diagram and Find the Image m= h₁ ho Skill: Use the Mirror Equation to Algebraically Solved for Image Distance, then Solve for Magnification d₁ do