Let $b _ { i } > 1$ for $i = 1,2 , \ldots , 101$. Suppose $\log _ { e } b _ { 1 } , \log _ { e } b _ { 2 } , \ldots , \log _ { e } b _ { 101 }$ are in Arithmetic Progression (A.P.) with the common difference $\log _ { e } 2$. Suppose $a _ { 1 } , a _ { 2 } , \ldots , a _ { 101 }$ are in A.P. such that $a _ { 1 } = b _ { 1 }$ and $a _ { 51 } = b _ { 51 }$. If $t = b _ { 1 } + b _ { 2 } + \cdots + b _ { 51 }$ and $s = a _ { 1 } + a _ { 2 } + \cdots + a _ { 51 }$, then\\
(A) $s > t$ and $a _ { 101 } > b _ { 101 }$\\
(B) $s > t$ and $a _ { 101 } < b _ { 101 }$\\
(C) $s < t$ and $a _ { 101 } > b _ { 101 }$\\
(D) $s < t$ and $a _ { 101 } < b _ { 101 }$