If \(\mathop a\limits^ \to = 6\hat i + 4\hat j + 4\hat k\) and \(\mathop b\limits^ \to = 2\hat i + 4\hat j + 3\hat k\), then the value of \(\mathop b\limits^ \to \times \mathop a\limits^ \to\) is:

\(4\hat i + 10\hat j + 16\hat k\)

\(4\hat i + 10\hat j - 16\hat k\)

\(4\hat i + 10\hat j - 12\hat k\)

\(4\hat i + 10\hat j + 3\hat k\)

If \(\mathop a\limits^ \to = 6\hat i + 4\hat j + 4\hat k\) and \(\m

1.	If \(\mathop a\limits^ \to = 6\hat i + 4\hat j + 4\hat k\) and \(\mathop b\limits^ \to = 2\hat i + 4\hat j + 3\hat k\), then the value of \(\mathop b\limits^ \to \times \mathop a\limits^ \to\) is:
A.	\(4\hat i + 10\hat j - 16\hat k\)
B.	\(4\hat i + 10\hat j + 16\hat k\)
C.	\(4\hat i + 10\hat j - 12\hat k\)
D.	\(4\hat i + 10\hat j + 3\hat k\)
Answer» B. \(4\hat i + 10\hat j + 16\hat k\)

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If \(\mathop a\limits^ \to = 6\hat i + 4\hat j + 4\hat k\) and \(\mathop b\limits^ \to = 2\hat i + 4\hat j + 3\hat k\), then the value of \(\mathop b\limits^ \to \times \mathop a\limits^ \to\) is:

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