Let \(a = 30!\), \(b = 50!\), and \(c = 100!\). Consider the following numbers: \(\log_a c\), \(\log_c a\), \(\log_b a\), \(\log_a b\)
Which one of the following inequalities is CORRECT?
Step 1: Understanding the values of \(a\), \(b\), and \(c\).
- \(a = 30!\), a very large number.
- \(b = 50!\), a larger number than \(a\).
- \(c = 100!\), which is even larger than \(b\).
Step 2: Evaluate logarithmic relations.
- \(\log_a c\) measures how many times you need to multiply \(a\) to get \(c\), which will be small, since \(c = 100!\) is much larger than \(a = 30!\).
- \(\log_c a\) is the inverse, and it will be much smaller than \(\log_a c\).
- \(\log_b a\) and \(\log_a b\) reflect the relationship between \(b = 50!\) and \(a = 30!\). Since \(b\) is larger, \(\log_a b\) will be larger than \(\log_b a\).
Step 3: Compare the inequalities.
- \(\log_a c\) is the smallest.
- \(\log_a b\) is the next in order.
- \(\log_b a\) is larger than both.
- \(\log_a c\) is the largest.
Thus, the correct inequality is:
\[
\log_a c < \log_a b < \log_b a < \log_a c
\]
\[
\boxed{\text{The correct inequality is (A).}}
\]
Pick the CORRECT eigenvalue(s) of the matrix [A] from the following choices.
\[ [A] = \begin{bmatrix} 6 & 8 \\ 4 & 2 \end{bmatrix} \]
Consider a five-digit number PQRST that has distinct digits P, Q, R, S, and T, and satisfies the following conditions:
1. \( P<Q \)
2. \( S>P>T \)
3. \( R<T \)
If integers 1 through 5 are used to construct such a number, the value of P is:



