hbar^2/(m_\pi^2 c^2)$
 -->
<SPAN CLASS="MATH"><IMG
 STYLE=""
 SRC="img89.svg"
 ALT="$\hbar^2/(m_\pi^2 c^2)$"></SPAN> = 2.000.

<P>
0 : Woods-Saxon  = &ndash; CONLS * P1 *  E / [(1+E)<SPAN CLASS="MATH"><IMG
 STYLE=""
 SRC="img37.svg"
 ALT="$^2$"></SPAN> * P3 * r] 
<BR>
1 : WS squared   = &ndash; CONLS * P1 * E*E / (1+E)<SPAN CLASS="MATH"><IMG
 STYLE=""
 SRC="img87.svg"
 ALT="$^3$"></SPAN> / (2*r*P3) 
<BR>
2 : Gaussian     = &ndash; CONLS * P1 * exp(-RH*RH) * RH  / (2*r*P3) 
<BR>
3 : Yukawa       = &ndash; CO