For all x ∈ [0, 2024] assume that f (x) is differentiable. f (0) = −2 and f ′(x) ≥ 5. Then the least possible value of f (2024) is:
Step 1: Apply the Mean Value Theorem.
Since f(x) is differentiable on [0, 2024], by the Mean Value Theorem, there exists a c \(\in\) (0, 2024) such that:
f'(c) = \(\frac{f(2024) - f(0)}{2024 - 0}\)
f'(c) = \(\frac{f(2024) - (-2)}{2024}\)
f'(c) = \(\frac{f(2024) + 2}{2024}\)
Step 2: Use the given condition f'(x) \(\ge\) 5.
Since f'(x) \(\ge\) 5 for all x \(\in\) [0, 2024], we have f'(c) \(\ge\) 5.
\(\frac{f(2024) + 2}{2024} \ge 5\)
Step 3: Solve for f(2024).
f(2024) + 2 \(\ge\) 5 \(\times\) 2024
f(2024) + 2 \(\ge\) 10120
f(2024) \(\ge\) 10120 - 2
f(2024) \(\ge\) 10118
Step 4: Determine the least possible value of f(2024).
The least possible value of f(2024) is 10118.
Therefore, the least possible value of f(2024) is 10,118.
Find the area of the region defined by the conditions: $ \left\{ (x, y): 0 \leq y \leq \sqrt{9x}, y^2 \geq 3 - 6x \right\} \text{(in square units)} $
A solid is dissolved in 1 L water. The enthalpy of its solution (\(\Delta H_{{sol}}^\circ\)) is 'x' kJ/mol. The hydration enthalpy (\(\Delta H_{{hyd}}^\circ\)) for the same reaction is 'y' kJ/mol. What is lattice enthalpy (\(\Delta H_{{lattice}}^\circ\)) of the solid in kJ/mol?