\small
\begin{center}
{\it E. Barberis, 
     W. Bokhari, 
     P. Bhat, 
     R. Gilmartin, 
     H. Prosper, 
     W. Yao}\\
\end{center}
\normalsize \nopagebreak

Previous studies \cite{tev2k,snowmass96,tev33} have indicated that the
$WH$ channel, with $H\rightarrow b\bar{b}$ and $W\rightarrow l\nu$ is
the single most powerful channel to detect a Higgs signal over the
large expected background.  We present here three different analyses
of this channel, each an extension of the previous.  The initial
analysis uses events produced by a well--established Run 1 CDF
detector simulation, QFL$^\prime$ and sequential selection requirements on a
single variable at a time.  The second analysis is similar to the
first, but uses the SHW detector simulation developed for this
workshop.  The final analysis also uses SHW for detector simulation,
but neural network techniques are employed to maximize the
sensitivity.  The good agreement between the first and second analyses
indicates the quality of the SHW simulation, and the third analysis
illustrates potential improvements to the sensitivity of this channel.
      
       \vskip 4mm 
       \centerline{ \large \it 1a. $\ell\nu\bb$, QFL$^\prime$ Simulation
           and Traditional Techniques} \nopagebreak
       \vskip 4mm 
       \input{whlv/whlv-cdf.tex}

       \vskip 4mm 
       \centerline{ \large \it 1b. $\ell\nu\bb$, SHW Simulation 
           and Traditional Techniques} \nopagebreak
       \vskip 4mm 
       \input{whlv/whlv-shw.tex}

       \newpage
       \vskip 4mm 
       \centerline{ \large \it 1c. $\ell\nu\bb$, SHW Simulation 
           and Neural Network Techniques} \nopagebreak
       \vskip 4mm 
	\input{whlv/whlv-nn.tex}
 