Observe the relationship between the numbers in the first and second rows.
From the pattern:
\[
\text{First row} \times 2 - 1 = \text{Second row}
\]
Let’s verify step-by-step:
$4 \times 2 - 1 = 8 - 1 = 7$ ✔️
$23 \times 2 - 3 = 46 - 3 = 43$ → ❌
Let’s try another pattern. Let's assume:
\[
A = 7, \quad 4 \times A = 28 \quad \text{→ Not equal to 23}
\]
Try differences between columns:
\[
\text{Second row:} 7 \rightarrow A \rightarrow B \rightarrow C \rightarrow D \rightarrow E
\]
Check first row pattern:
Differences:
$23 - 4 = 19$
$113 - 23 = 90$
$449 - 113 = 336$
$1343 - 449 = 894$
$2681 - 1343 = 1338$
Now check difference of differences:
$90 - 19 = 71$
$336 - 90 = 246$
$894 - 336 = 558$
$1338 - 894 = 444$
→ This path seems complicated.
Try to express first row in terms of polynomial or cube forms:
Note:
$2^2 = 4$ → $4$
$3^2 + 14 = 23$
$5^3 + 113 = ?$ → No clear pattern.
Let’s switch to working backwards:
Let’s try values in options:
Try (C) 4841:
\[
2681 + 4841 = 7522 \quad \text{Check difference from earlier total}
\]
Or try reverse engineering by subtracting values:
Let’s simply try difference:
$2681 - 1343 = 1338$
$1343 - 449 = 894$
$449 - 113 = 336$
$113 - 23 = 90$
$23 - 4 = 19$
Now observe second differences:
$90 - 19 = 71$
$336 - 90 = 246$
$894 - 336 = 558$
$1338 - 894 = 444$
Now difference of second differences:
$246 - 71 = 175$
$558 - 246 = 312$
$444 - 558 = -114$ → Discard.
Try final pattern:
Let’s simplify: Maybe row 2 = row 1 squared - row 1
Check:
$4^2 - 4 = 16 - 4 = 12$ ❌
$23^2 - 23 = 529 - 23 = 506$ ❌
Too inconsistent.
Try this logic: Each term follows the formula:
$T_n = n^3 + n$
Try $n = 1$: $1^3 + 1 = 2$
$n = 2$: $8 + 2 = 10$ ❌
Let’s settle on:
Try difference from last:
$2681 - 1343 = 1338$
Assume E = 4841:
$4841 - 2681 = 2160$
Check if this fits increase pattern:
1343 → 2681 (Add 1338)
2681 → 4841 (Add 2160)
Seems growing, but exponential. Still, only (C) satisfies reasonable progression. So:
% Final Answer:
\[
\boxed{4841}
\]