Making LaTex Lists Wrap - formatting

Question

So I have the following LaTex list, and many like it in a paper I'm translating:
\begin{enumerate}
\item If $\mathfrak{E}$ and $\mathfrak{B}$ with the arguments $x, y, z$ a solution of the Maxwell's equations (1), then through the components $\mathfrak{E}_x, \mathfrak{E}_y, \mathfrak{-E}_z, \mathfrak{-B}_x, \mathfrak{-B}_y, \mathfrak{B}_z$, with the arguments $x, y, z$ is given also an electromagnetic field that is a solution to Maxwell's equations.
\item If $\mathfrak{E, B}$ is the electromagnetic field of a planar electromagnetic wave radiation, then $\mathfrak{E}_x, \mathfrak{E}_y, \mathfrak{B}_z$ are symmetrical to the plane of the figure with $\mathfrak{E}_z, \mathfrak{B}_x, \mathfrak{B}_y$, with opposite values.
\item If $\mathfrak{E, B}$ a solution to Maxwell's equations (1), the following field is as well:
$$\mathfrak{E'} = \pm \sqrt{\frac{\mu}{\epsilon}} \mathfrak{B}, \mathfrak{B'} = \mp \sqrt{\frac{\epsilon}{\mu}} \mathfrak{E}$$
\end{enumerate}\par
It compiles to this:
There's a lot of dead space that should be taken up by text. How do I make the text wrap around the numbers?
PS. Also, I'm trying to add space between the equations. Simply putting more spaces didn't do it. Any pointers?

Answer 1

Strange how you want to save space in the enumeration yet add space between equations. I enjoy the current display. However, you can use a custom mylist which looks like an enumerate without alignment:
\documentclass{article}
\usepackage{showframe}% Just for this example
\usepackage{amsfonts}
\newenvironment{mylist}
{\setlength{\parindent}{0pt}% No paragraph indent
\setcounter{enumi}{0}% Restart enumeration at level 1 (i)
\renewcommand{\item}{\par\refstepcounter{enumi}%
\theenumi.~\ignorespaces}%
}{}
\begin{document}
\begin{enumerate}
\item
If~$\mathfrak{E}$ and~$\mathfrak{B}$ with the arguments~$x$, $y$,~$z$ a solution of the Maxwell's equations~(1),
then through the components~$\mathfrak{E}_x$, $\mathfrak{E}_y$, $\mathfrak{-E}_z$, $\mathfrak{-B}_x$,
$\mathfrak{-B}_y$,~$\mathfrak{B}_z$, with the arguments~$x$, $y$,~$z$ is given also an electromagnetic field
that is a solution to Maxwell's equations.
\item
If~$\mathfrak{E}$, $\mathfrak{B}$ is the electromagnetic field of a planar electromagnetic wave radiation,
then~$\mathfrak{E}_x$, $\mathfrak{E}_y$,~$\mathfrak{B}_z$ are symmetrical to the plane of the figure
with~$\mathfrak{E}_z$, $\mathfrak{B}_x$,~$\mathfrak{B}_y$, with opposite values.
\item
If~$\mathfrak{E}$, $\mathfrak{B}$ a solution to Maxwell's equations~(1), the following field is as well:
\[
\mathfrak{E'} = \pm \sqrt{\frac{\mu}{\epsilon}} \mathfrak{B}, \mathfrak{B'} =
\mp \sqrt{\frac{\epsilon}{\mu}} \mathfrak{E}
\]
\end{enumerate}
\begin{mylist}
\item
If~$\mathfrak{E}$ and~$\mathfrak{B}$ with the arguments~$x$, $y$,~$z$ a solution of the Maxwell's equations~(1),
then through the components~$\mathfrak{E}_x$, $\mathfrak{E}_y$, $\mathfrak{-E}_z$, $\mathfrak{-B}_x$,
$\mathfrak{-B}_y$,~$\mathfrak{B}_z$, with the arguments~$x$, $y$,~$z$ is given also an electromagnetic field
that is a solution to Maxwell's equations.
\item
If~$\mathfrak{E}$, $\mathfrak{B}$ is the electromagnetic field of a planar electromagnetic wave radiation,
then~$\mathfrak{E}_x$, $\mathfrak{E}_y$,~$\mathfrak{B}_z$ are symmetrical to the plane of the figure
with~$\mathfrak{E}_z$, $\mathfrak{B}_x$,~$\mathfrak{B}_y$, with opposite values.
\item
If~$\mathfrak{E}$, $\mathfrak{B}$ a solution to Maxwell's equations~(1), the following field is as well:
\[
\mathfrak{E'} = \pm \sqrt{\frac{\mu}{\epsilon}} \mathfrak{B}, \mathfrak{B'} =
\mp \sqrt{\frac{\epsilon}{\mu}} \mathfrak{E}
\]
\end{mylist}
\end{document}
For changing the spacing around display equations, see How can I decrease spaces between equations? Also see Why is \[ … \] preferable to $$ … $$?