| 1. | moves away from the lens with an uniform speed \(5\) m/s. | 
| 2. | moves away from the lens with an uniform acceleration. | 
| 3. | moves away from the lens with a non-uniform acceleration. | 
| 4. | moves towards the lens with a non-uniform acceleration. | 
| 1. | never see a rainbow. | 
| 2. | may see a primary and a secondary rainbow as concentric circles. | 
| 3. | may see a primary and a secondary rainbow as concentric arcs. | 
| 4. | shall never see a secondary rainbow. | 
| 1. | The beam of red light would undergo total internal reflection. | 
| 2. | The beam of red light would bend towards normal while it gets refracted through the second medium. | 
| 3. | The beam of blue light would undergo total internal reflection. | 
| 4. | The beam of green light would bend away from the normal as it gets refracted through the second medium | 
| 1. | act as a convex lens only for the objects that lie on its curved side. | 
| 2. | act as a concave lens for the objects that lie on its curved side. | 
| 3. | act as a convex lens irrespective of the side on which the object lies. | 
| 4. | act as a concave lens irrespective of side on which the object lies. | 
 
| 1. | \(1\) | 2. | \(2\) | 
| 3. | \(3\) | 4. | \(4\) | 

| 1. | The speed of the car in the rear is \(65~\text{km/h}\). | 
| 2. | In the side mirror the car in the rear would appear to approach with a speed of \(5~\text{km/h}\) to the driver of the leading car. | 
| 3. | In the rear view mirror the speed of the approaching car would appear to decrease as the distance between the cars decreases. | 
| 4. | In the side mirror, the speed of the approaching car would appear to increase as the distance between the cars decreases. |