Question

In: Physics

What is the image distance when d0 =10.11 cm, f = 3.0 cm, di = ?...

What is the image distance when d0 =10.11 cm, f = 3.0 cm, di = ?

. Write down the lens formula (1/f = 1/o + 1/i)

. What happens in the simulation experiment when you change the focal length?

. What happens to the image if you change the object distance?

Describe the ray tracing - light tracing for the following:

. A Refracting telescope

. A Reflecting telescope

. A pair of binoculars. Porro Prism and Roof Prism binoculars.

. A microscope

. What happens to the image if you change the object size?

. Write down the Lens Maker's equation and explain

1/f = (n - 1 ) ( 1/R1 - 1/R2)

Solutions

Expert Solution

Ans 1

1/d0 + 1/d1 = 1/f

Where:

D0: Object distance ,
D1: Image distance ,
f: Focal length

Substituting the given values

We found out that image distance= 4.26cm

Ans2


Related Solutions

Complete the table below. Trial Object Distance (cm) Object Size (cm) Image Distance (cm) Image Size/Orientation...
Complete the table below. Trial Object Distance (cm) Object Size (cm) Image Distance (cm) Image Size/Orientation (cm) Focal Length (cm) 1 11.25 2.00 87.75 15.5 / inverted 2 87.60 2.00 11.40 0.300 / inverted 3 23.35 XXX 17.65 XXX 4 17.55 XXX 23.45 XXX XXX XXX XXX XXX Average XXX XXX XXX XXX Std. Dev. (5 points x 6 = 30 points) 1. Plot the 1/o (object distance) vs. 1/i (image distance) graph from all data collected. (10 points) What...
A concave mirror (f = 44 cm) produces an image whose distance from the mirror is...
A concave mirror (f = 44 cm) produces an image whose distance from the mirror is one-fourth the object distance. (a) Determine the object distance. cm (b) Determine the (positive) image distance. cm
A converging lens whose focal length f = 20 cm projects a 3.0 times magnified image...
A converging lens whose focal length f = 20 cm projects a 3.0 times magnified image of an object on a screen. What is the distance q from the screen to the lens and the distance p from the object to the lens?
The distance between an object and its image formed by a diverging lens is 51.7 cm....
The distance between an object and its image formed by a diverging lens is 51.7 cm. The focal length of the lens is -235 cm. a.) Find the image distance b.) Find the object distance.
The distance between an object and its image formed by a diverging lens is 8.20 cm....
The distance between an object and its image formed by a diverging lens is 8.20 cm. The focal length of the lens is -3.70 cm. Find (a) the image distance and (b) the object distance.
When an object is placed 10 cm in front of a mirror, an image is formed...
When an object is placed 10 cm in front of a mirror, an image is formed 45 cm behind the mirror. What is the mirror’s focal length?
As a distant object moves toward a converging lens the image distance _____ and the image...
As a distant object moves toward a converging lens the image distance _____ and the image gets _____ a. decreases, smaller b. decreases, larger c. increases, smaller d. increases, larger
(a) What is the distance between an object and its real image formed by a thin...
(a) What is the distance between an object and its real image formed by a thin converging lens with focal length f = 16 cm, if the object distance is 45 cm? (b) What is the minimum object-image distance for a real image formed by that lens?
1a. Calculate the height of the image formed when a 2.1 cm high object is placed...
1a. Calculate the height of the image formed when a 2.1 cm high object is placed 17 cm away from a lens with focal length -10.5 cm. (Give your answer in cm) b. When 720 nm wavelength light is diffracted through a double slit the angle of the first dark fringe on each side of the center of the diffraction pattern is 3.5 degrees. Calculate the spacing between the double slits. (Give your answer in meters.) c. Two red bottles...
A solid, rectangular iron bar measures 0.30 cm by 3.0 cm by 25 cm . Part...
A solid, rectangular iron bar measures 0.30 cm by 3.0 cm by 25 cm . Part A Find the resistance between opposing faces with crosssectional area 0.30 cm × 3.0 cm , assuming the faces in question are equipotentials. Express your answer using two significant figures. R = ? Ω Part B Find the resistance between opposing faces with crosssectional area 0.30 cm × 25 cm , assuming the faces in question are equipotentials. R = ? Ω Part C...
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT