\begin{tabbing}
\hspace{2.1in} \= darrow$\;$ \= \kill
\tt AND\_gate({\sl n}) \> log \> basic `and' gate, 2 or {\sl n\/} inputs \\
\tt AND\_ht \> log \> height of basic `and' and `or' gates \\
\tt AND\_wd \> log \> width of basic `and' and `or' gates \\
\tt BUFFER\_gate({\sl linespec}) \> log \> 
   basic buffer, 1 input or as a 2-terminal element \\
\tt BUF\_ht \> log \> basic buffer gate height \\
\tt BUF\_wd \> log \> basic buffer gate width \\
\tt Cos({\sl integer}) \> gen \> cosine function, {\sl integer\/} degrees \\
\tt E\_ \> gen \> the constant $e$ \\
\tt G\_hht\_ \> log \> gate half-height \\
\tt HOMELIB\_ \> all \> directory containing libraries \\
\tt L\_unit \> log \> logic-element grid size \\
\tt NAND\_gate({\sl n}) \> log \> `nand' gate, 2 or {\sl n\/} inputs \\
\tt NOR\_gate({\sl n}) \> log \> `nor' gate, 2 or {\sl n\/} inputs \\
\tt NOT\_gate({\sl linespec}) \> log \>
   `not' gate, 1 input or as a 2-terminal element \\
\tt NXOR\_gate({\sl n}) \> log \> `nxor' gate, 2 or {\sl n\/} inputs \\
\tt N\_diam \> log \> diameter of `not' circles \\
\tt OR\_gate({\sl n}) \> log \> `or' gate, 2 or {\sl n\/} inputs \\
\tt Point\_({\sl integer}) \> gen \> sets direction cosines in degrees \\
\tt Rect\_({\sl radius},{\sl angle}) \> gen \> (deg) polar-to-rectangular conversion \\
\tt Sin({\sl integer}) \> gen \> sine function, {\sl integer\/} degrees \\
\tt XOR\_gate({\sl n}) \> log \> `xor' gate, 2 or {\sl n\/} inputs \\
\tt above\_ \> gen \> string position above relative to current direction \\
\tt abs\_({\sl number}) \> gen \> absolute value function \\
\tt amp({\sl linespec}) \> cct \> amplifier \\
\tt battery({\sl linespec},n) \> cct \> n-cell battery, default 1 cell \\
\tt below\_ \> gen \> string position relative to current direction \\
\tt bi\_tr({\sl linespec},L|R,P,E) \> cct \> 
   left or right, N or P-type bipolar transistor, without or with envelope \\
\tt b\_current({\sl label},{\sl pos},{\sl dir}) \> cct \> draw and label branch-current arrow \\
\tt capacitor({\sl linespec},C) \> cct \> capacitor, straght or curved-plate\\
\tt clabel({\sl label},{\sl label},{\sl label}) \> cct \> centre triple label \\
\tt consource({\sl linespec},V|I) \> cct \> 
   blank or voltage or current-controlled source\\
\tt cross( at {\sl location}) \> gen \> plots a small cross \\
\tt crosswd\_ \> gen \> cross dimension \\
\tt csdim\_ \> cct \> controlled-source width \\
\tt d\_fet({\sl linespec},L|R,P,E) \> cct \> 
   left or right, N or P depletion MOSFET, without or with envelope\\
\tt darrow({\sl linespec},t,t,{\sl width}) \> darrow \> double arrow\\
\tt delay({\sl linespec}) \> cct \> delay element \\
\tt delay\_rad\_ \> cct \> delay radius \\
\tt dend( at {\sl location}) \> darrow \> close (or start) double line \\
\tt diff\_({\sl a},{\sl b}) \> gen \> difference function \\
\tt dimen\_ \> cct \> size parameter for circuit elements \\
\tt dimension\_({\sl linespec},{\sl offset},{\sl label},{\sl label wid},%
   {\sl tic offset}) \\
   \> gen \> macro for dimensioning diagrams \\
\tt diode({\sl linespec} ,Z|BD) \> cct \> 
   diode, normal or zener or bi-directional \\
\tt dlabel({\sl long},{\sl lat},{\sl label},{\sl label},{\sl label}) \\
  \> cct \> general triple label \\
\tt dleft \> darrow \> double line left turn \\
\tt dline({\sl linespec},t,t,{\sl width}) \> darrow \> double line \\
\tt dlinewid \> darrow \> width of double lines \\
\tt dn\_ \> gen \> sets down relative to current-direction \\
\tt dot( at {\sl location}) \> gen \> draw a dot \\
\tt dotrad\_ \> gen \> dot radius \\
\tt down\_ \> gen \> sets current direction to down \\
\tt dright \> darrow \> double arrow right turn \\
\tt dtee({\tt `}{\sl direction}{\tt '}) \> darrow \> double arrow tee junction\\
\tt dtor\_ \> gen \> degrees to radians conversion constant \\
\tt e\_ \> gen \> .e relative to current direction \\
\tt e\_fet({\sl linespec},L|R,P,E) \> cct \> 
   left or right, N or P enhancement MOSFET, without or with envelope\\
\tt ebox({\sl linespec},{\sl length},{\sl ht}) \> cct \> 
   two-terminal box element with adjustable dimensions \\
\tt eleminit\_({\sl linespec}) \> cct \> internal line initialization \\
\tt elen\_ \> cct \> default element length \\
\tt fill\_({\sl number}) \> gen \> fill macro, 0=black, 1=white \\
\tt gamp({\sl linespec}) \> cct \> general amplifier \\
\tt gap({\sl linespec}) \> cct \> gap with dots \\
\tt glabel\_ \> cct \> internal general labeller \\
\tt gpic\_ \> gpic \> defined to signify gpic is being used \\
\tt grid\_({\sl x},{\sl y}) \> log \> absolute grid location \\
\tt ground( at {\sl location},T) \> cct \> ground, without stem for nonblank 2nd arg\\
\tt hop(L|R,at {\sl location}) \> cct \> 
   conductor crossing another to left or right\\
\tt hoprad\_ \> cct \> hop radius \\
\tt ht\_ \> gen \> height relative to current direction \\
\tt inductor({\sl linespec},W,{\sl n},M) \> cct \> inductor, narrow or wide,
   4 or {\sl n} arcs, without or with magnetic core \\
\tt integrator({\sl linespec}) \> cct \> integrating amplifier \\
\tt j\_fet({\sl linespec},L|R,P,E) \> cct \>
   left or right, N or P JFET, without or with envelope\\
\tt left\_ \> gen \> left with respect to current direction \\
\tt linethick\_({\sl number}) \> gen \> set line thickness in points \\
\tt ljust\_ \> gen \> ljust with respect to current direction \\
\tt llabel({\sl label},{\sl label},{\sl label}) \> cct \> triple lable on left side of the element \\
\tt loc\_({\sl x}, {\sl y}) \> gen \> location adjusted for current direction \\
\tt lt\_ \> gen \> left with respect to current direction \\
\tt manhattan \> gen \> sets direction cosines for left, right, up, down \\
\tt mfpic\_ \> mfpic \> defined to signify mfpic is being used \\
\tt n\_ \> gen \> .n with respect to current direction \\
\tt ne\_ \> gen \> .ne with respect to current direction \\
\tt neg\_ \> gen \> unary negation \\
\tt nw\_ \> gen \> .nw with respect to current direction \\
\tt opamp({\sl linespec},{\sl label},{\sl label}) \> cct \> 
   operational amplifier with $-,$ $+$ or other internal labels \\
\tt point\_({\sl angle}) \> gen \> (radians) set direction cosines \\
\tt polar\_({\sl x},{\sl y}) \> gen \> rectangular-to polar conversion \\
\tt prod\_({\sl a},{\sl b}) \> gen \> binary multiplication \\
\tt project({\sl x},({\sl y},({\sl z}) \> gen \> 3D to 2D projection \\
\tt psset\_({\sl PSTricks settings}) \> gen \> set PSTricks parameters \\
\tt pstricks\_ \> pstricks \> defined to signify PSTricks is being used \\
\tt pt\_ \> gen \> big point size \\
\tt rect\_({\sl radius},{\sl angle}) \> gen \> (radians) polar-rectangular conversion \\
\tt resistor({\sl linespec},n) \> cct \> resistor, n peaks, default 3 \\
\tt right\_ \> gen \> set current direction right \\
\tt rjust\_ \> gen \> right justify with respect to current direction \\
\tt rlabel({\sl label},{\sl label},{\sl label}) \> cct \> triple lable on right side of the element \\
\tt rpoint\_({\sl angle}) \> gen \> (radians) set direction cosines \\
\tt rpos\_({\sl position}) \> gen \> Here + {\sl position} \\
\tt rt\_ \> gen \> right with respect to current direction \\
\tt rtod\_ \> gen \> constant, degrees/radian \\
\tt rvec\_({\sl x},{\sl y}) \> gen \> location relative to current direction \\
\tt s\_ \> gen \> .s with respect to current direction \\
\tt se\_ \> gen \> .se with respect to current direction \\
\tt setview({\sl azimuth},{\sl (radians) elevation}) \\
  \> gen \> set projection viewpoint \\
\tt shadebox({\sl box specification}) \> gen \> box with edge shading \\
\tt sign\_({\sl number}) \> gen \> sign function \\
\tt source({\sl linespec},V|I|AC|{\sl string}) \> \> \\
   \> cct \> source, blank or voltage or current or AC or labelled\\
\tt sourcerad\_ \> cct \> source radius \\
\tt sp\_ \> gen \> evaluates to medium space for gpic strings \\
\tt sum\_({\sl a},{\sl b}) \> gen \> binary sum \\
\tt svec\_({\sl x},{\sl y}) \> log \> scaled and rotated grid coordinate vector \\
\tt sw\_ \> gen \> .sw with respect to current direction \\
\tt switch({\sl linespec},L|R,C|O) \> cct \> 
   SPST switch left or right, blank or closing or opening arrow\\
\tt thicklines\_({\sl number}) \> gen \> set line thickness in points\\
\tt thinlines\_({\sl number}) \> gen \> set line thickness in points \\
\tt transformer({\sl linespec},L|R,n) \> cct \> 
   2-winding transformer, left or right, n arcs \\
\tt twopi\_ \> gen \> $2\pi$ \\
\tt up\_ \> gen \> set current direction up \\
\tt up\_\_ \> gen \> up with respect to current direction \\
\tt vec\_({\sl x},{\sl y}) \> gen \> position rotated with respect to current direction \\
\tt vrot\_({\sl x},{\sl y},{\sl xcosine},{\sl ycosine}) \> gen \> rotation operator \\
\tt vscal\_({\sl number},{\sl x},{\sl y}) \> gen \> vector scale operator \\
\tt w\_ \> gen \> .w with respect to current direction \\
\tt wid\_ \> gen \> width with respect to current direction \\
\tt xtal({\sl linespec}) \> cct \> quartz crystal \\
   \end{tabbing}