Step 1: Remove the modulus in $f(t)$.
For $t<0$, we have: \[ f(t)=\frac{-(t+1)}{t^2} \] Step 2: Differentiate $f(t)$.
\[ f'(t)=\frac{t+2}{t^3} \] Step 3: Use the decreasing condition.
For $f(t)$ to be strictly decreasing: \[ f'(t)<0 \Rightarrow \frac{t+2}{t^3}<0 \] Since $t<0$, this gives: \[ -2Step 4: Compare intervals.
Given interval $(2\alpha,\alpha)=(-2,0)$: \[ \Rightarrow \alpha=-1 \] Step 5: Substitute $\alpha$ in $g(x)$.
\[ g(x)=2\log(x-2)-x^2+4x+1 \] Step 6: Differentiate $g(x)$.
\[ g'(x)=\frac{2}{x-2}-2x+4 \] Setting $g'(x)=0$: \[ \frac{2}{x-2}=2x-4 \Rightarrow x=3 \] Step 7: Find maximum value.
\[ g(3)=2\log 1-9+12+1=4 \]
Let \( y = f(x) \) be the solution of the differential equation\[\frac{dy}{dx} + \frac{xy}{x^2 - 1} = \frac{x^6 + 4x}{\sqrt{1 - x^2}}, \quad -1 < x < 1\] such that \( f(0) = 0 \). If \[6 \int_{-1/2}^{1/2} f(x)dx = 2\pi - \alpha\] then \( \alpha^2 \) is equal to ______.
If \[ \frac{dy}{dx} + 2y \sec^2 x = 2 \sec^2 x + 3 \tan x \cdot \sec^2 x \] and
and \( f(0) = \frac{5}{4} \), then the value of \[ 12 \left( y \left( \frac{\pi}{4} \right) - \frac{1}{e^2} \right) \] equals to:
Let \( y = f(x) \) be the solution of the differential equation
\[ \frac{dy}{dx} + 3y \tan^2 x + 3y = \sec^2 x \]
such that \( f(0) = \frac{e^3}{3} + 1 \), then \( f\left( \frac{\pi}{4} \right) \) is equal to:
What will be the equilibrium constant of the given reaction carried out in a \(5 \,L\) vessel and having equilibrium amounts of \(A_2\) and \(A\) as \(0.5\) mole and \(2 \times 10^{-6}\) mole respectively?
The reaction : \(A_2 \rightleftharpoons 2A\)