I was asked the following question:
>Using Wallis's method, calculate the values \(n=0,\frac12,1,\frac32,2,\frac52\) in row \(p=\frac32\) of his ratio table.
The Wallis rereferred to here is John Wallis of England (1616-1703). The ratio table looks like this:
\[\begin{matrix}p/n&0&1&2&3&4&5&6&7&...\\0&1&1&1&1&1&1&1&1&...\\1&1&2&3&4&5&6&7&8&...\\2&1&3&6&10&15&21&28&36&...\\3&1&4&10&20&35&56&84&120&...\\…&...&...&...&...&...&...&...&...&...&\\\end{matrix}\]
I don't understand how to read this table or how to actually go about solving the question. The table's goal is to find the ratio of the area of the unit square to the area enclosed in the first quadrant by the curve \(y=(1-x^{\frac1p})^n\).
>Using Wallis's method, calculate the values \(n=0,\frac12,1,\frac32,2,\frac52\) in row \(p=\frac32\) of his ratio table.
The Wallis rereferred to here is John Wallis of England (1616-1703). The ratio table looks like this:
\[\begin{matrix}p/n&0&1&2&3&4&5&6&7&...\\0&1&1&1&1&1&1&1&1&...\\1&1&2&3&4&5&6&7&8&...\\2&1&3&6&10&15&21&28&36&...\\3&1&4&10&20&35&56&84&120&...\\…&...&...&...&...&...&...&...&...&...&\\\end{matrix}\]
I don't understand how to read this table or how to actually go about solving the question. The table's goal is to find the ratio of the area of the unit square to the area enclosed in the first quadrant by the curve \(y=(1-x^{\frac1p})^n\).