The banker takes care of funds of the customer as a?
Security Guard
The question asks about the specific role a banker plays when taking care of a customer's funds.
Let's look at the options provided:
Typically, the primary relationship between a bank and a customer regarding deposited funds is that of a debtor and creditor, where the customer is the creditor and the bank is the debtor (the bank owes the customer the money). However, considering the options and the term "takes care of funds," the provided option "Security Guard" can be interpreted as focusing on the bank's crucial function of ensuring the safety and security of the customer's money against various risks.
Therefore, based on the options given, the role that most closely relates to the bank's function of protecting or safeguarding customer funds is that of a Security Guard.
A stone is thrown horizontally from the top of a 20 m high building with a speed of 12 m/s. It hits the ground at a distance R from the building. Taking g = 10 m/s2 and neglecting air resistance will give :
A sphere of volume V is made of a material with lower density than water. While on Earth, it floats on water with its volume f1V (f1 < 1) submerged. On the other hand, on a spaceship accelerating with acceleration a < g (g is the acceleration due to gravity on Earth) in outer space, its submerged volume in water is f2V. Then:
A railway wagon (open at the top) of mass M1 is moving with speed v1 along a straight track. As a result of rain, after some time it gets partially filled with water so that the mass of the wagon becomes M2 and speed becomes v2. Taking the rain to be falling vertically and the water stationery inside the wagon, the relation between the two speeds v1 and v2 is :
Consider the following statements:
1. Distance between the longitudes becomes zero on North Pole and South Pole.
2. Distance between the longitudes is maximum on the Equator.
3. Number of longitudes is more than number of latitudes.
Which of the statements given above is/are correct?
One block of 2⋅0 kg mass is placed on top of another block of 3⋅0 kg mass. The coefficient of static friction between the two blocks is 0⋅2. The bottom block is pulled with a horizontal force F such that both the blocks move together without slipping. Taking acceleration due to gravity as 10 m/s2, the maximum value of the frictional force is :