Step 1: Understand the money multiplier.
The money multiplier is the ratio of the money supply to the base or high-powered money. It indicates how much the money supply increases for every unit of high-powered money. It is calculated as:
\[
\text{Money Multiplier} = \frac{1}{\text{Reserve Ratio}}.
\]
Step 2: Analysis of options.
- (A) It is the ratio of the stock of money to the stock of high-powered money: This is correct. The money multiplier measures how much the money supply increases relative to high-powered money.
- (B) It is always smaller than one: This is incorrect. The money multiplier is generally greater than one, except in cases where the reserve ratio is 100%.
- (C) Its value depends on the reserve ratio and currency-deposit ratio: This is correct. The money multiplier is influenced by both the reserve ratio and the currency-deposit ratio, affecting how much the central bank can expand the money supply.
- (D) It is inversely related to the reserve ratio: This is correct. The money multiplier is inversely proportional to the reserve ratio; as the reserve ratio increases, the money multiplier decreases.
Step 3: Conclusion.
The correct answer is (A), (B), and (D) only, as these options correctly describe the relationship of the money multiplier.
Arrange the following components of monetary aggregates in descending order as per their liquidity:
(A) currency notes
(B) demand deposits
(C) time deposits
(D) money market mutual fund
Choose the correct answer from the options given below:
In the Keynesian framework, determination of an equilibrium interest rate also implies
(A) The rate that equates the supply of and the demand for bonds.
(B) The rate that equates the supply of money with the demand for money.
(C) The rate that equates the supply of money and demand for investment.
(D) The rate that equates supply of labour and demand for labour.
Choose the correct answer from the options given below:
A weight of $500\,$N is held on a smooth plane inclined at $30^\circ$ to the horizontal by a force $P$ acting at $30^\circ$ to the inclined plane as shown. Then the value of force $P$ is:
A steel wire of $20$ mm diameter is bent into a circular shape of $10$ m radius. If modulus of elasticity of wire is $2\times10^{5}\ \text{N/mm}^2$, then the maximum bending stress induced in wire is: