\( [M^0 L^0 T^{1} A^0] \)
The dimensional formula represents the relationship between different physical quantities. To determine the dimensional formula for \( RC \), where \( R \) stands for resistance and \( C \) for capacitance, we first find the dimensions of \( R \) and \( C \) separately.
Resistance \((R)\): The dimensional formula for resistance can be derived from Ohm's Law \( V = IR \), where \( V \) (Voltage) has a dimensional formula \([M^1L^2T^{-3}A^{-1}]\) and \( I \) (Current) has a dimensional formula \([A^1]\). Solving for \( R \), it follows that:
\[R = \frac{V}{I} \Rightarrow [M^1L^2T^{-3}A^{-1}][A^{-1}] = [M^1L^2T^{-3}A^{-2}]\]
Capacitance \((C)\): Capacitance is defined by the relation \( Q = CV \), where \( Q \) (Charge) has a dimensional formula \([A^1T^1]\), and rearranging gives us:
\(C = \frac{Q}{V} \Rightarrow [A^1T^1][M^{-1}L^{-2}T^{3}A^{1}] = [M^{-1}L^{-2}T^{4}A^{2}]\)
Given \( RC \) is the product of resistance and capacitance, we multiply their dimensional formulas:
\[RC = [M^1L^2T^{-3}A^{-2}][M^{-1}L^{-2}T^{4}A^{2}] = [M^{1-1}L^{2-2}T^{-3+4}A^{-2+2}] = [M^0L^0T^1A^0]\]
Thus, correct consideration aligns with answer: \([M^0L^0T^{1}A^0]\).



Alexia Limited invited applications for issuing 1,00,000 equity shares of ₹ 10 each at premium of ₹ 10 per share.
The amount was payable as follows:
Applications were received for 1,50,000 equity shares and allotment was made to the applicants as follows:
Category A: Applicants for 90,000 shares were allotted 70,000 shares.
Category B: Applicants for 60,000 shares were allotted 30,000 shares.
Excess money received on application was adjusted towards allotment and first and final call.
Shekhar, who had applied for 1200 shares failed to pay the first and final call. Shekhar belonged to category B.
Pass necessary journal entries for the above transactions in the books of Alexia Limited. Open calls in arrears and calls in advance account, wherever necessary.
