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69 through 79 76, 78 75, 77 More lenses. Object Ostands on the central axis of a thin symmetric lens. For this situation, each problem in Table 34-8 refers to (a) the lens type, converging (C)or diverging (D), (b) the focal distance f, (c) the object distance p, (d) the image distance i, and (e) the lateral magnification m. (All distances are in centimeters.) It also refers to whether (f) the image is real(R) or virtual (V), (g) inverted (I)or non-inverted (NI)from O, and (h) on the same side of the lens as Oor on the opposite side. Fill in the missing information, including the value of mwhen only an inequality is given, where only a sign is missing, answer with the sign.

Short Answer

Expert verified
  1. The lens type is diverging
  2. The focal distance is -10cm
  3. The object distance is +10cm
  4. The image distance is -5.0cm.
  5. The lateral magnification is +0.50
  6. The image is virtual (V)
  7. The image is non-inverted (NI)
  8. The image is on the same side of the lens as the object.

Step by step solution

01

The given data

  1. The object distance, p=+10cm
  2. The lateral magnification, m=0.50
  3. The image is not inverted.
02

Understanding the concept of properties of the lens

Formula:

The lens formula, 1f=1p+1i (i)

The magnification formula of the lens,m=-ip (ii)

03

Calculation of the lens type

(a)

The image formed is smaller than the object as the magnification m<1.0. Also the image is not inverted. So the image will be virtual. A divergent lens always forms a reduced image, i.e., m<1.0 .

Hence, the type of lens is diverging.

04

Calculation of the focal distance

(b)

The image distance is given using the given data in equation (ii) as follows:

i=-mp=-0.5×10=-5.0cm

As the lens used is divergent, the focal distance should be taken as negative. Now, using the given data in equation (i), the focal length of the lens can b given using the data in equation (i) as follows:

1f=110+1-5.0=-110=-10cm

Hence, the focal length is -10cm.

05

Calculation of the object distance

(c)

From the given data in table, the object distance is+10cm.

06

Calculation of the image distance

(d)

The image distance is given using the given data in equation (ii) as follows:

i=-mp=-0.5×10=-5.0cmi=-mp=-0.5×10=-5.0cm

The image distance is -5.0cm.

07

Calculation of the lateral magnification

(e)

From the given data in table, the lateral magnification is +0.50.

08

Calculation of the type of image

(f)

The value of image distance is negative.

Hence, the image is virtual (V)

09

Calculation if the image is inverted or not

(g)

The value of lateral magnification is positive.

Hence, the image is non-inverted (NI).

10

Calculation of the position of the object

(h)

From the above data, it is given that p<f.

Hence, the image is on the same side as object.

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Most popular questions from this chapter

80 through 87 80, 87 SSM WWW 83 Two-lens systems. In Fig. 34-45, stick figure (the object) stands on the common central axis of two thin, symmetric lenses, which are mounted in the boxed regions. Lens 1 is mounted within the boxed region closer to O, which is at object distance p1. Lens 2 is mounted within the farther boxed region, at distance d. Each problem in Table 34-9 refers to a different combination of lenses and different values for distances, which are given in centimeters. The type of lens is indicated by C for converging and D for diverging; the number after C or D is the distance between a lens and either of its focal points (the proper sign of the focal distance is not indicated). Find (a) the image distance localid="1663045000066" i2for the image produced by lens 2 (the final image produced by the system) and (b) the overall lateral magnification Mfor the system, including signs. Also, determine whether the final image is (c) real(R)or virtual localid="1663045476655" (V), (d) inverted (I)from object O or non-inverted (NI), and (e) on the same side of lens 2 as object O or on the opposite side.

A lens is made of glass having an index of refraction of 1.5. One side of the lens is flat, and the other is convex with a radius of curvature of 20 cm(a) Find the focal length of the lens. (b) If an object is placed 40 cmin front of the lens, where is the image?

(a) A luminous point is moving at speedV0toward a spherical mirror with a radius of curvaturer, along the central axis of the mirror. Show that the image of this point is moving at the speed

vI=-(r2p-r)2v0

Where,p is the distance of the luminous point from the mirror at any given time. Now assume the mirror is concave, withr=15cm.and letV0=5cm/s. FindV1when (b)p=30cm(far outside the focal point), (c) p=8.0cm(just outside the focal point), and (d)p=10mm(very near the mirror).

A double-convex lens is to be made of glass with an index of refraction of 1.5.One surface is to have twice the radius of curvature of the other and the focal length is to be 60mm. What is the (a) smaller and (b) larger radius?

50 through 57 55, 57 53 Thin lenses. Object Ostands on the central axis of a thin symmetric lens. For this situation, each problem in Table 34-6 gives object distance p (centimeters), the type of lens (C stands for converging and D for diverging), and then the distance (centimeters, without proper sign) between a focal point and the lens. Find (a) the image distance iand (b) the lateral magnification m of the object, including signs. Also, determine whether the image is (c) real (R) or virtual (V) , (d) inverted (I)from object O or non inverted (NI) , and (e) on the same side of the lens as object Oor on the opposite side.

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