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%\lhead{Developing a rigorous bottom-up modular static failure mode modelling methodology}
%\lhead{Developing a rigorous bottom-up modular static failure modelling methodology}
                                   % numbers at outer edges
\pagenumbering{arabic}                        % Arabic page numbers hereafter
\author{R.Clark$^\star$ \\ %, A.~Fish$^\dagger$ , C.~Garrett$^\dagger$, J.~Howse$^\dagger$  \\     
         $^\star${\em Energy Technology Control, UK. r.clark@energytechnologycontrol.com} \and $^\dagger${\em University of Brighton, UK} 
}

%\title{Developing a rigorous bottom-up modular static failure mode modelling methodology}
\title{Matter conceived as whirlpools of trapped energy}
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\today 

\paragraph{Keywords:} fermion, boson, matter,relativity, gravity
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\abstract{ % \em 
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This paper explores ideas about the structure of matter, fermions and bosons,
as waves, in effect stable whirlpools of energy.
With this concept in mind, the effects of special and general relativity
can be visualised.
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} % abstract



\section{Introduction}

\begin{itemize}
 \item Objects in matter are whirlpools of energy similar to Jon Conways stable structures in the game of life.
 \item For special relativity, comparing a frame of reference to another moving at some proportion of $c$
 the particle in the faster frame of reference will be stretched along its path of travel. Its wave function
 (for it) will appear to be slower than the particle in the slower frame of reference. Thus time
 will appear to slow down for the particle in the faster frame.
 \item For General relativity a particle in an accelerating frame of reference will also have its
 wave path compressed, its wave function has less far to travel to complete its whirlpool.
 Time will therefore run slower of the particle being accelerated.
 This is bourne out by experiment.
 \end{itemize}

 
 \section{Modelling 3 dimensional Life whirlpools}
 
 
 \section{ Applying acceleration and relative velocity to these models}
 
 
{
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