\(\frac{n^3}{m^3}\)\(L_1\)=\(L_2\) and \(\frac{n2}{m}\)\(T_1\)=\(T_2\)
\(L_1\)=n4/m2\(L_2\) and \(T_1\)=\(\frac{n^2}{m}\)T2
\(L_1\)=\(\frac{n^2}{m}\)\(L_2\) and \(T_1\)=\(\frac{n^4}{m_2}\)T2
\(\frac{n^2}{m}\)\(L_1\)=\(L_2\) and \(\frac{n^4}{m^2}\)\(T_1\)=\(T_2\)
[L]=\(\frac{[v^2]}{[a]}\)
So, [v2]2[a2]=\(\frac{[\frac{n}{m^2}v_1]^2}{[\frac{a_1}{mn}]}\)
[v2]2[a2]=\(\frac{n^3}{m^3}\)\(\frac{[v_1]^2}{[a_1]}\) or [L2]=\(\frac{n^3}{m^3}\)[L1]
Similarly, [T]=\(\frac{[v]}{[a]}\)
So, [T2]=\(\frac{n^2}{m}\)[T1]
\(\therefore\) The correct option is (A): \(\frac{n^3}{m^3}\)\(L_1\)=\(L_2\) and \(\frac{n2}{m}\)\(T_1\)=\(T_2\)
Let $ P_n = \alpha^n + \beta^n $, $ n \in \mathbb{N} $. If $ P_{10} = 123,\ P_9 = 76,\ P_8 = 47 $ and $ P_1 = 1 $, then the quadratic equation having roots $ \alpha $ and $ \frac{1}{\beta} $ is:
The motion in a straight line is an object changes its position with respect to its surroundings with time, then it is called in motion. It is a change in the position of an object over time. It is nothing but linear motion.
Linear motion is also known as the Rectilinear Motion which are of two types: