Given \(a < b < c\), and \(c^4 < b^4 < a^4\)
We are to find out which of the \(3\) conditions are possible.
First analysing the given conditions, we have \(a < b\) but \(b^4 < a^4\); This means the the absolute value of \(a\) is the greatest out of the \(3\), then \(\)b and then finally \(c\).
Now from the above conditions for \(b^4 < a^4\), when \(a < b\), \(a\) has to be negative. Similarly, for \(b < c\) when \(c^4 < b^4\), \(b\) must be negative.
This leaves us with \(c\) and in this case it can be positive, negative, or zero.
Scenarios:
- \(a\) -> Negative
- \(b\) -> Positive
- \(c\) -> Negative, Positive or zero
Now coming to the 3 conditions in question,
1.)\(abc > 0\)
We know a & b are negative. So the only variable is c.
If c is negative, \(abc < 0\); If \(c\) is zero, \(abc = 0\); If \(c\) is positive \( abc > 0\); So \(abc > 0\) is possible.
2.)\(a^3b^5c^7 < 0\)
As \(a\) & \(b\) are negative and they are raised to odd powers, their product must be positive.
When considering \(c\) as negative, we have \(a^3b^5c^7 < 0\); This condition is possible too.
3.)\(a^2b^4c^6 = 0\)
Since \(a\) & \(b\) are raised to even powers, they will always be positive, and when \(c = 0\), we have \(a^2b^4c^6 = 0\) satisfied. So this condition is also possible.
From this we can conclude all \(3\) of the condition could be true.
Therefore the correct option is Option E.