We are given that:
\(a<b<c\) and that, \(c^4<b^4<a^4\)
Firstly, take a square root of the latter equation; we can do this since, irrespective of whether a,b, or c are positive or negative, having a power of 4 or 2 is going to make them positive anyway. Since squares are easier to work with and this change has no impact on our answer, let's do this.
We now have,
\(a<b<c\) and \(c^2<b^2<a^2\)
Let's take cases where both of these statements are true:
Case 1:\(a = -4, b= -3, c = -2\) ----> \(a<b<c\)
\(a = 16, b = 9, c = 4\) ----> \(c^2<b^2<a^2\)
So, having all three as negative numbers varying in magnitude works.
Case 2:\(a = -4, b= -3, c = 2\) ----> \(a<b<c\)
\(a = 16, b = 9, c = 4\) ----> \(c^2<b^2<a^2\)
So, having both "a" and "b" as negative and "c" as positive works as well.
Case 3:\(a = -4, b= -3, c = 0\) ----> \(a<b<c\)
\(a = 16, b = 9, c = 0\) ----> \(c^2<b^2<a^2\)
So, having both "a" and "b" as negative and "c" as 0 works as well.
Statement 1: This could be true if we have an even number of negatives among a,b, and c. This true basis our Case 2.
Statement 2: Since, all of them are raised to an odd power, the expression will be negative if we have odd number of negatives among a,b, and c. This is true basis our Case 1.
Statement 3: Since, the product is zero, this is only possible if at least one of a,b, or c is 0. This is true basis our Case 3.
All statements could be true.
So answer is E.