Question

In: Physics

A. A convex lens has a focal length of 5.74704 cm. The object distance is 7.11538...

A. A convex lens has a focal length of 5.74704 cm. The object distance is 7.11538 cm. Find the image distance.
Answer in units of cm. Find the magnification.
B. A concave lens has a focal length of 35.0689 cm. The object distance is 17.2727 cm. Find the image distance.
Answer in units of cm. Find the magnification.

C. A convex lens has a focal length of 10.4082 cm. The object distance is 6.07143 cm. Find the image distance.
Answer in units of cm.

Expert Solution

To resolve this problem you have to know about Lens

Step 1.

Definition: is a transmissive optical device that affects the focus of a light beam through refraction.

lenses can be either positive or negative, depending on the relative curvatures of the two surfaces. A negative meniscus lens has a steeper concave surface and is thinner at the centre than at the periphery. Conversely, a positive meniscus lens has a steeper convex surface and is thicker at the centre than at the periphery.

A positive or converging lens in air focuses a collimated beam travelling along the lens axis to a spot (known as the focal point) at a distance f from the lens. Conversely, a point source of light placed at the focal point is converted into a collimated beam by the lens. These two cases are examples of image formation in lenses. In the former case, an object at an infinite distance (as represented by a collimated beam of waves) is focused to an image at the focal point of the lens. In the latter, an object at the focal length distance from the lens is imaged at infinity. The plane perpendicular to the lens axis situated at a distance f from the lens is called the focal plane.

If the distances from the object to the lens and from the lens to the image are S₁ and S₂ respectively, for a lens of negligible thickness, in air, the distances are related by the thin lens formula:

The linear magnification of an imaging system using a single lens is given by

,

Step 2.

A.- Find the image distance and Find the magnification?

B.- Find the image distance and Find the magnification?

C.- Find the image distance?

If you have any question please let me know in the comments

genius_generous answered 2 hours ago

a convex lens has a focal length f. if an object is placed at a distance...

a convex lens has a focal length f. if an object is placed at a distance beyond 2f from the lens on the principle axis, the image is located at a distance from the lens

1. Consider a convex lens with a focal length of 5.50 cm. An object is located...

1. Consider a convex lens with a focal length of 5.50 cm. An object is located at 13.50 cm. The object is 6.00 cm tall. Draw the ray diagram to scale. Determine the image distance, the height of the image, the magnification and the characteristices of the image. Pay attention to the sign conventions and units. 2. White light shines through a diffraction grating with 7300 lines per cm. Make a table of diffraction angles for m = 1, 2,...

Q3- lens A to be a convex lens with a focal length of 20 cm, lens...

Q3- lens A to be a convex lens with a focal length of 20 cm, lens B is concave lens with focal length of 15 cm a- Calculate and compare the optical powers for lenses A, and B b- Find the combined optical power if the two lenses were cascaded behind each other Q4- Use ray tracing or Lens equation to find the image of an object 1 cm high located at 2 cm away from a convex lens that...

An object is 15.2 cm to the left of a lens with a focal length of...

An object is 15.2 cm to the left of a lens with a focal length of 10.2 cm. A second lens of focal length 11.8 cm is 39.27 cm to the right of the first lens. The height of the object of is 2.1 cm. What is the location of the final image with respect to the second lens? What is the height of the image?

A converging lens has a focal length of 15 cm. If an object is placed at...

A converging lens has a focal length of 15 cm. If an object is placed at a distance of 5 cm from the lens, a. find the image position d i = _____ cm (include sign +/-) b. find the magnification M = _____(include sign +/-) c. characterize the resulting image. ________(real or virtual) ________(enlarged or reduced) ________(upright or inverted)

A converging lens has a focal length of 21.1 cm. (a) Locate the object if a...

A converging lens has a focal length of 21.1 cm. (a) Locate the object if a real image is located at a distance from the lens of 63.3 cm. distance cm location (b) Locate the object if a real image is located at a distance from the lens of 105.5 cm. distance cm location (c) Locate the object if a virtual image is located at a distance from the lens of -63.3 cm. distance cm location (d) Locate the object...

7. A convex lens has a focal length of f= 50cm. An object is placed 40cm...

7. A convex lens has a focal length of f= 50cm. An object is placed 40cm from the lens.Compute the location of the image. -200 cm 200 cm 22.2 cm -22.2 cm 8. An LED flashlight produces a beam with an intensity of I= 7.36W/m2 when it illuminates a circular piece of matte black painted steel having a radius of r = 40cm. If the steel has a mass of m= 5kg, what is the acceleration of the mirror due...

Consider a double convex lens with a focal length of 35 cm. If a marble is...

Consider a double convex lens with a focal length of 35 cm. If a marble is placed 85 cm from the lens, what is the image distance? Enter your answer in cm.

A lens of focal length f1 = +20 cm has an object positioned 50 cm in...

A lens of focal length f1 = +20 cm has an object positioned 50 cm in front of it. A second lens of focal length f2= -15 cm is located 10 cm behind the first lens. a) Determine the two image positions for this combination of lenses. b) Is each image real or virtual, upright or inverted, and magnified or demagnified?

An object is located to the left of a convex lens whose focal length is f=34...

An object is located to the left of a convex lens whose focal length is f=34 cm. The magnification (m) produced by the lens is 4.0. Find an expression for magnification in terms of “f” and object distance (do). To increase the magnification to 5.0, calculate the distance through which the object should be moved. Also explain your result with free hand ray diagram. At what position of the object the magnification becomes infinity?