A cantilever beam ACB has end A fixed and subjected to a point load P at free end B. The point C is mid-point of AB and the moment of inertia of AC is twice that of CB. The deflection at the free end will be

\(\frac{{5\;P{l^3}}}{{96\;EI}}\)

\(\frac{{9\;P{l^3}}}{{48\;EI}}\)

A cantilever beam ACB has end A fixed and subjected to a point load P

1.	A cantilever beam ACB has end A fixed and subjected to a point load P at free end B. The point C is mid-point of AB and the moment of inertia of AC is twice that of CB. The deflection at the free end will be
A.	\(\frac{{P{l^3}}}{{3\;EI}}\)
B.	\(\frac{{P{l^3}}}{{48\;EI}}\)
C.	\(\frac{{5\;P{l^3}}}{{96\;EI}}\)
D.	\(\frac{{9\;P{l^3}}}{{48\;EI}}\)
Answer» E.

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A cantilever beam ACB has end A fixed and subjected to a point load P at free end B. The point C is mid-point of AB and the moment of inertia of AC is twice that of CB. The deflection at the free end will be

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