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.
Let \[ f(t)=\int \left(\frac{1-\sin(\log_e t)}{1-\cos(\log_e t)}\right)dt,\; t>1. \] If $f(e^{\pi/2})=-e^{\pi/2}$ and $f(e^{\pi/4})=\alpha e^{\pi/4}$, then $\alpha$ equals
Which of the following are ambident nucleophiles?
[A.] CN$^{\,-}$
[B.] CH$_{3}$COO$^{\,-}$
[C.] NO$_{2}^{\,-}$
[D.] CH$_{3}$O$^{\,-}$
[E.] NH$_{3}$
Identify the anomers from the following.

The standard Gibbs free energy change \( \Delta G^\circ \) of a cell reaction is \(-301 { kJ/mol}\). What is \( E^\circ \) in volts?
(Given: \( F = 96500 { C/mol}\), \( n = 2 \))