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Benedict Irwin edited Introduction.tex
over 8 years ago
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\section{Introduction}
For some
$N $n \in
\mathbb{Z}$, \mathbb{N}^0$, we can represent the number as a binary polynomial of finite order
$q$ $q=\lfloor\mathrm{log}_2 n \rfloor_+$ \begin{equation}
N=\sum_{k}^{q} n=\sum_{k}^{q} a_k2^k
\end{equation}
with the, $a_k \in
{0,1}$. {0,1}$ and \begin{equation}
\lfloor x \rfloor_+ := \Bigg\{\begin{matrix} \lfloor x \rfloor ,& x>0\\0,&x\le0 \end{matrix}
\end{equation} Then performing a map of the coefficients to some row vector
$V $v \in \mathbb{R^q}$ will produce a construct of the form \begin{equation}
N n \to
V:= v:=
\begin{bmatrix}
a_1,a_2,\cdots,a_q
\end{bmatrix}
\end{equation}
Thus, a column vector consisting of elements
$N_i $n_i \in {1,2,..r}$ will map to a matrix of the form \begin{equation}
M:=
\begin{bmatrix}
a_{11} & a_{12} & ... & a_{1q} \\