ac analysis in graphs (mag + phase, log axis)

2022-02-02 18:33:16 +01:00 · 2022-02-02 18:33:16 +01:00 · 008b289e4f
parent 5f82f63580
commit 008b289e4f
10 changed files with 938 additions and 44 deletions
--- a/src/callback.c
+++ b/src/callback.c
@ -320,7 +320,7 @@ static int waves_callback(int event, int mx, int my, KeySym key, int button, int
      if(xctx->graph_flags & 64) {
        if( POINTINSIDE(xctx->mousex, xctx->mousey, gr->x1, gr->y1, gr->x2, gr->y2)) {
          char sx[100], sy[100];
-          double yval;
+          double xval, yval;
          if(gr->digital) { 
            double deltag = gr->gy2 - gr->gy1;
            double s1 = DIG_NWAVES; /* 1/DIG_NWAVES  waveforms fit in graph if unscaled vertically */
@ -333,8 +333,18 @@ static int waves_callback(int event, int mx, int my, KeySym key, int button, int
          } else {
            yval = G_Y(xctx->mousey);
          }
-          my_snprintf(sx, S(sx), "%.4g", G_X(xctx->mousex));
-          my_snprintf(sy, S(sy), "%.4g", yval);
+
+          xval = G_X(xctx->mousex);
+          if(xctx->graph_sim_type == 3) xval = pow(10, xval);
+          if(gr->unitx != 0) 
+            my_snprintf(sx, S(sx), "%.4g%c", gr->unitx * xval, gr->unitx_suffix);
+          else
+            my_snprintf(sx, S(sx), "%.4g", xval);
+
+          if(gr->unitx != 0)
+            my_snprintf(sy, S(sy), "%.4g%c", gr->unity * yval, gr->unity_suffix);
+          else
+            my_snprintf(sy, S(sy), "%.4g", yval);
  
          tclvareval("set measure_text \"y=", sy, "\nx=", sx, "\"", NULL);
          tcleval("graph_show_measure");
--- a/src/draw.c
+++ b/src/draw.c
@ -1528,7 +1528,7 @@ void drawtemprect(GC gc, int what, double rectx1,double recty1,double rectx2,dou
 *                  112   --> 100
 *                  6300  --> 10000
 */
-static double axis_increment(double a, double b, int div)
+static double axis_increment(double a, double b, int div, int freq)
 {
  double scale;
  double sign;
@ -1545,10 +1545,16 @@ static double axis_increment(double a, double b, int div)
  delta = fabs(delta);
  scale = pow(10.0, floor(log10(delta)));
  scaled_delta =  delta / scale; /* 1 <= scaled_delta < 10 */
-  if(scaled_delta > 5.5) scaled_delta = 10.0;
+  dbg(1, "a=%g, b=%g, scale=%g, scaled_delta=%g --> ", a, b, scale, scaled_delta);
+  if(freq && scaled_delta > 2.5) scaled_delta = 10.0;
+  else if(freq && scaled_delta > 1.9) scaled_delta = 5.0;
+  else if(freq && scaled_delta > 1.4) scaled_delta = 2.0;
+  else if(freq) scaled_delta = 1.0;
+  else if(scaled_delta > 5.5) scaled_delta = 10.0;
  else if(scaled_delta > 2.2) scaled_delta = 5.0;
  else if(scaled_delta > 1.1) scaled_delta = 2.0;
  else scaled_delta = 1.0;
+  dbg(1, "scaled_delta = %g, scaled_delta * scale * sign=%g\n", scaled_delta, scaled_delta * scale * sign);
  return scaled_delta * scale * sign;
 }

@ -1810,12 +1816,16 @@ static void draw_graph_grid(Graph_ctx *gr)
  bbox(ADD, gr->rx1, gr->ry1, gr->rx2, gr->ry2);
  bbox(SET_INSIDE, 0.0, 0.0, 0.0, 0.0);
  /* vertical grid lines */
-  deltax = axis_increment(gr->gx1, gr->gx2, gr->divx);
+  deltax = axis_increment(gr->gx1, gr->gx2, gr->divx, (xctx->graph_sim_type == 3));
  startx = axis_start(gr->gx1, deltax, gr->divx);
  for(j = -1;; j++) { /* start one interval before to allow sub grids at beginning */
    wx = startx + j * deltax;
    if(gr->subdivx > 0) for(k = 1; k <=gr->subdivx; k++) {
-      double subwx = wx + k * deltax / (gr->subdivx + 1);
+      double subwx;
+      if(xctx->graph_sim_type == 3)  {
+        subwx = wx + deltax * log10(1.0 + (double)k * 9.0 / ((double)gr->subdivx + 1.0)); 
+      } else
+        subwx = wx + deltax * (double)k / ((double)gr->subdivx + 1.0);
      if(!axis_within_range(subwx, gr->gx1, gr->gx2)) continue;
      if(axis_end(subwx, deltax, gr->gx2)) break;
      drawline(GRIDLAYER, ADD, W_X(subwx),   W_Y(gr->gy2), W_X(subwx),   W_Y(gr->gy1), dash_sizey);
@ -1826,7 +1836,11 @@ static void draw_graph_grid(Graph_ctx *gr)
    drawline(GRIDLAYER, ADD, W_X(wx),   W_Y(gr->gy2), W_X(wx),   W_Y(gr->gy1), dash_sizey);
    drawline(GRIDLAYER, ADD, W_X(wx),   W_Y(gr->gy1), W_X(wx),   W_Y(gr->gy1) + mark_size, 0); /* axis marks */
    /* X-axis labels */
-    draw_string(3, NOW, dtoa(wx * gr->unitx), 0, 0, 1, 0, W_X(wx), gr->y2 + mark_size + 5 * gr->txtsizex,
+    if(xctx->graph_sim_type == 3) 
+      draw_string(3, NOW, dtoa(pow(10, wx ) * gr->unitx), 0, 0, 1, 0, W_X(wx), gr->y2 + mark_size + 5 * gr->txtsizex,
+                gr->txtsizex, gr->txtsizex);
+    else
+      draw_string(3, NOW, dtoa(wx * gr->unitx), 0, 0, 1, 0, W_X(wx), gr->y2 + mark_size + 5 * gr->txtsizex,
                gr->txtsizex, gr->txtsizex);
  }
  /* first and last vertical box delimiters */
@ -1834,7 +1848,7 @@ static void draw_graph_grid(Graph_ctx *gr)
  drawline(GRIDLAYER, ADD, W_X(gr->gx2),   W_Y(gr->gy2), W_X(gr->gx2),   W_Y(gr->gy1), 0);
  /* horizontal grid lines */
  if(!gr->digital) {
-    deltay = axis_increment(gr->gy1, gr->gy2, gr->divy);
+    deltay = axis_increment(gr->gy1, gr->gy2, gr->divy, 0);
    starty = axis_start(gr->gy1, deltay, gr->divy);
    for(j = -1;; j++) { /* start one interval before to allow sub grids at beginning */
      wy = starty + j * deltay;
@ -1922,8 +1936,13 @@ void setup_graph_data(int i, const int flags, int skip, Graph_ctx *gr)
  gr->unitx_suffix = val[0];
  gr->unitx = get_unit(val);
  val = get_tok_value(r->prop_ptr,"unity",0);
-  gr->unity_suffix = val[0];
-  gr->unity = get_unit(val);
+  if(xctx->graph_sim_type == 3) { /* AC */
+    gr->unity_suffix = '1';
+    gr->unity = 1.0;
+  } else {
+    gr->unity_suffix = val[0];
+    gr->unity = get_unit(val);
+  }
  val = get_tok_value(r->prop_ptr,"subdivx",0);
  if(val[0]) gr->subdivx = atoi(val);
  val = get_tok_value(r->prop_ptr,"subdivy",0);
@ -2020,6 +2039,7 @@ static void draw_cursor(double active_cursorx, double other_cursorx, int cursor_

  if(xx >= gr->x1 && xx <= gr->x2) {
    drawline(cursor_color, NOW, xx, gr->ry1, xx, gr->ry2, 1);
+    if(xctx->graph_sim_type == 3) active_cursorx = pow(10, active_cursorx);
    if(gr->unitx != 1.0)
       my_snprintf(tmpstr, S(tmpstr), "%.4g%c", gr->unitx * active_cursorx , gr->unitx_suffix);
    else
@ -2046,6 +2066,7 @@ static void draw_cursor_difference(Graph_ctx *gr)
  double yy = gr->ry2 - 1;
  double tmpd;
  double yline;
+  if(xctx->graph_sim_type == 3) return;
  if(gr->unitx != 1.0)
     my_snprintf(tmpstr, S(tmpstr), "%.4g%c", gr->unitx * diffw , gr->unitx_suffix);
  else
@ -2085,7 +2106,13 @@ static void draw_graph_variables(int wcnt, int wave_color, int n_nodes, int swee
    if(gr->unity != 1.0) my_snprintf(tmpstr, S(tmpstr), "%s[%c]", find_nth(ntok, ',', 1), gr->unity_suffix);
    else  my_snprintf(tmpstr, S(tmpstr), "%s",find_nth(ntok, ',', 1));
  } else {
-    if(gr->unity != 1.0) my_snprintf(tmpstr, S(tmpstr), "%s[%c]", ntok, gr->unity_suffix);
+    if(xctx->graph_sim_type == 3) {
+      if(strstr(ntok, "ph(") == ntok)
+        my_snprintf(tmpstr, S(tmpstr), "%s[Phase]", ntok);
+      else
+        my_snprintf(tmpstr, S(tmpstr), "%s[dB]", ntok);
+    }
+    else if(gr->unity != 1.0) my_snprintf(tmpstr, S(tmpstr), "%s[%c]", ntok, gr->unity_suffix);
    else  my_snprintf(tmpstr, S(tmpstr), "%s", ntok);
  }
  if(gr->digital) {
--- a/src/save.c
+++ b/src/save.c
@ -222,16 +222,15 @@ unsigned char *base64_decode(const char *data, const size_t input_length, size_t
 * data layout in memory arranged to maximize cache locality 
 * when looking up data 
 */
-static void read_binary_block(FILE *fd, int sim_type)
+static void read_binary_block(FILE *fd)
 {
  int p, v;
  double *tmp;
  size_t size = 0;
  int offset = 0;
-  int m = 0;
-  double val;
+  int ac = 0;

-  if(sim_type == 3) m = 1; /* AC analysis, complex numbers twice the size */
+  if(xctx->graph_sim_type == 3) ac = 1; /* AC analysis, complex numbers twice the size */

  for(p = 0 ; p < xctx->graph_datasets; p++) {
    size += xctx->graph_nvars * xctx->graph_npoints[p];
@ -239,7 +238,7 @@ static void read_binary_block(FILE *fd, int sim_type)
  }

  /* read buffer */
-  tmp = my_calloc(1405, xctx->graph_nvars, (sizeof(double *) << m));
+  tmp = my_calloc(1405, xctx->graph_nvars, (sizeof(double *) ));
  /* allocate storage for binary block */
  if(!xctx->graph_values) xctx->graph_values = my_calloc(118, xctx->graph_nvars, sizeof(SPICE_DATA *));
  for(p = 0 ; p < xctx->graph_nvars; p++) {
@ -248,13 +247,19 @@ static void read_binary_block(FILE *fd, int sim_type)
  }
  /* read binary block */
  for(p = 0; p < xctx->graph_npoints[xctx->graph_datasets]; p++) {
-    if(fread(tmp, (sizeof(double) << m), xctx->graph_nvars, fd) != xctx->graph_nvars) {
+    if(fread(tmp, sizeof(double) , xctx->graph_nvars, fd) != xctx->graph_nvars) {
       dbg(0, "Warning: binary block is not of correct size\n");
    }
    /* assign to xschem struct, memory aligned per variable, for cache locality */
-    if(m) for(v = 0; v < xctx->graph_nvars; v++) { /*AC analysis: calculate magnitude */
-      xctx->graph_values[v][offset + p] = 
-         sqrt( tmp[v << m] * tmp[v << m] + tmp[(v << m) + 1] * tmp[(v << m) + 1]);
+    if(ac) {
+      for(v = 0; v < xctx->graph_nvars; v += 2) { /*AC analysis: calculate magnitude */
+        if( v == 0 ) 
+          xctx->graph_values[v][offset + p] = log10(sqrt( tmp[v] * tmp[v] + tmp[v + 1] * tmp[v + 1]));
+        else
+          xctx->graph_values[v][offset + p] = 20 * log10(sqrt(tmp[v] * tmp[v] + tmp[v + 1] * tmp[v + 1]));
+
+        xctx->graph_values[v + 1] [offset + p] = atan2(tmp[v + 1], tmp[v]) * 180.0 / XSCH_PI;
+      }
    } 
    else for(v = 0; v < xctx->graph_nvars; v++) {
      xctx->graph_values[v][offset + p] = tmp[v];
@ -291,16 +296,17 @@ static int read_dataset(FILE *fd)
  int variables = 0, i, done_points = 0;
  char line[PATH_MAX], varname[PATH_MAX];
  char *ptr;
-  int sim_type = 0; /* 1: transient, 2: dc, 4: ... */
  int done_header = 0;
  int exit_status = 0;
+  xctx->graph_sim_type = 0;
+  
  while((ptr = fgets(line, sizeof(line), fd)) ) {
    /* after this line comes the binary blob made of nvars * npoints * sizeof(double) bytes */
    if(!strcmp(line, "Binary:\n")) {
      int npoints = xctx->graph_npoints[xctx->graph_datasets];
-      if(sim_type) {
+      if(xctx->graph_sim_type) {
        done_header = 1;
-        read_binary_block(fd, sim_type); 
+        read_binary_block(fd); 
        dbg(1, "read_dataset(): read binary block, nvars=%d npoints=%d\n", xctx->graph_nvars, npoints);
        xctx->graph_datasets++;
        exit_status = 1;
@ -311,19 +317,19 @@ static int read_dataset(FILE *fd)
      done_points = 0;
    }
    else if(!strncmp(line, "Plotname: Transient Analysis", 28)) {
-      if(sim_type && sim_type != 1) sim_type = 0;
-      else sim_type = 1;
+      if(xctx->graph_sim_type && xctx->graph_sim_type != 1) xctx->graph_sim_type = 0;
+      else xctx->graph_sim_type = 1;
    }
    else if(!strncmp(line, "Plotname: DC transfer characteristic", 36)) {
-      if(sim_type && sim_type != 2) sim_type = 0;
-      else sim_type = 2;
+      if(xctx->graph_sim_type && xctx->graph_sim_type != 2) xctx->graph_sim_type = 0;
+      else xctx->graph_sim_type = 2;
    }
    else if(!strncmp(line, "Plotname: AC Analysis", 21)) {
-      if(sim_type && sim_type != 3) sim_type = 0;
-      else sim_type = 3;
+      if(xctx->graph_sim_type && xctx->graph_sim_type != 3) xctx->graph_sim_type = 0;
+      else xctx->graph_sim_type = 3;
    }
    else if(!strncmp(line, "Plotname:", 9)) {
-      sim_type = 0;
+      xctx->graph_sim_type = 0;
    }
    /* points and vars are needed for all sections (also ones we are not interested in)
     * to skip binary blobs */
@ -335,6 +341,7 @@ static int read_dataset(FILE *fd)
    }
    else if(!strncmp(line, "No. Variables:", 14)) {
      sscanf(line, "No. Variables: %d", &xctx->graph_nvars);
+      if(xctx->graph_sim_type == 3) xctx->graph_nvars <<= 1; /* mag and phase */
    }
    else if(!done_points && !strncmp(line, "No. Points:", 11)) {
      my_realloc(1415, &xctx->graph_npoints, (xctx->graph_datasets+1) * sizeof(int));
@ -344,14 +351,24 @@ static int read_dataset(FILE *fd)
      /* get the list of lines with index and node name */
      if(!xctx->graph_names) xctx->graph_names = my_calloc(426, xctx->graph_nvars, sizeof(char *));
      sscanf(line, "%d %s", &i, varname); /* read index and name of saved waveform */
-      xctx->graph_names[i] = my_malloc(415, strlen(varname) + 1);
-      strcpy(xctx->graph_names[i], varname);
+      if(xctx->graph_sim_type == 3) { /* AC */
+        my_strcat(414, &xctx->graph_names[i << 1], varname);
+        int_hash_lookup(xctx->raw_table, xctx->graph_names[i << 1], (i << 1), XINSERT_NOREPLACE);
+        if(strstr(varname, "v(") == varname || strstr(varname, "i(") == varname ||
+           strstr(varname, "V(") == varname || strstr(varname, "I(") == varname)
+          my_mstrcat(540, &xctx->graph_names[(i << 1) + 1], "ph(", varname + 2, NULL);
+        else
+          my_mstrcat(540, &xctx->graph_names[(i << 1) + 1], varname, "_ph", NULL);
+        int_hash_lookup(xctx->raw_table, xctx->graph_names[(i << 1) + 1], (i << 1) + 1, XINSERT_NOREPLACE);
+      } else {
+        my_strcat(541, &xctx->graph_names[i], varname);
+        int_hash_lookup(xctx->raw_table, xctx->graph_names[i], i, XINSERT_NOREPLACE);
+      }
      /* use hash table to store index number of variables */
-      int_hash_lookup(xctx->raw_table, xctx->graph_names[i], i, XINSERT_NOREPLACE);
      dbg(1, "read_dataset(): get node list -> names[%d] = %s\n", i, xctx->graph_names[i]);
    }
    /* after this line comes the list of indexes and associated nodes */
-    if(sim_type && !strncmp(line, "Variables:", 10)) {
+    if(xctx->graph_sim_type && !strncmp(line, "Variables:", 10)) {
      variables = 1 ;
    }
  }
--- a/src/xinit.c
+++ b/src/xinit.c
@ -447,6 +447,7 @@ static void alloc_xschem_data(const char *top_path, const char *win_path)
  xctx->graph_bottom = 0;
  xctx->graph_left = 0;
  xctx->graph_lastsel = -1;
+  xctx->graph_sim_type = 0; /* type of sim, 1: Tran, 2: Dc, 3: Ac */
  xctx->graph_struct.hilight_wave[0] = -1; /* graph index of hilight wave */
  xctx->graph_struct.hilight_wave[1] = -1; /* index of wave */
  xctx->raw_schname = NULL;
--- a/src/xschem.h
+++ b/src/xschem.h
@ -900,6 +900,7 @@ typedef struct {
  int graph_bottom; 
  int graph_left;
  int graph_lastsel; /* last graph that was clicked (selected) */
+  int graph_sim_type; /* type of sim, 1: Tran, 2: Dc, 3: Ac */
  Int_hashentry **raw_table;
  char *raw_schname;
  /*     */
--- a/src/xschem.tcl
+++ b/src/xschem.tcl
@ -1449,6 +1449,7 @@ proc graph_get_signal_list {siglist pattern } {
  if {$graph_sort} {set direction {-increasing}}
  set result {}
  set siglist [join [lsort $direction -dictionary $siglist] \n]
+  # just check if pattern is a valid regexp
  set err [catch {regexp $pattern {12345}} res]
  if {$err} {set pattern {}}
  foreach i $siglist {
--- a/xschem_library/examples/0_examples_top.sch
+++ b/xschem_library/examples/0_examples_top.sch
@ -1457,3 +1457,4 @@ xwtAgA9ve8fHC0Dod8blIpQLQJBdgRgxavQ/AAAAgEslwD6d7SiMdxwqP41maeirFRxABH/Rb+tVM0DO
 cwtAyKwqggMC8z8AAABAXz/APixDHOviNio/cIyWTt0GHEAHmaX3NW0zQHJvU5F/bTNA3V5CW3kqoL85tJeeXUIJQIB/waNeQglAcFfF8JIdC0DY7tjwBPjxPwAAALCc
 UsA+"
 }
+C {test_ac.sym} 160 -90 0 0 {name=x15}
--- a/xschem_library/examples/cmos_example.sch
+++ b/xschem_library/examples/cmos_example.sch
--- a/xschem_library/examples/test_ac.sch
+++ b/xschem_library/examples/test_ac.sch
@ -0,0 +1,827 @@
+v {xschem version=3.0.0 file_version=1.2 }
+G {}
+K {}
+V {}
+S {}
+E {}
+B 2 1030 -330 1570 -130 {flags=graph
+y1=-5.7
+y2=44
+ypos1=0
+ypos2=2
+divy=10
+subdivy=1
+unity=1
+x1=3
+x2=10
+
+subdivx=8
+node=diffout
+color=4
+
+unitx=M
+divx=10
+dataset=1}
+B 2 1030 -550 1570 -350 {flags=graph
+y1=-180
+y2=180
+ypos1=0
+ypos2=2
+divy=10
+subdivy=1
+unity=1
+x1=3
+x2=10
+
+subdivx=8
+node=ph(diffout)
+color=7
+
+unitx=M
+divx=10
+dataset=1}
+T {CMOS DIFFERENTIAL AMPLIFIER
+EXAMPLE} 40 -680 0 0 0.4 0.4 {}
+T {Feedback
+network 
+loading} 870 -490 0 0 0.4 0.4 {}
+T {gain AC plot at 1uA, 10uA, 100uA bias current} 1030 -120 0 0 0.4 0.4 {layer=5}
+N 30 -240 30 -210 {lab=VCC}
+N 30 -240 60 -240 {lab=VCC}
+N 190 -230 190 -180 {lab=GN}
+N 190 -180 230 -180 {lab=GN}
+N 230 -180 230 -150 {lab=GN}
+N 230 -150 410 -150 {lab=GN}
+N 450 -220 450 -180 {lab=D}
+N 380 -250 400 -250 {lab=0}
+N 500 -250 520 -250 {lab=0}
+N 380 -220 520 -220 {lab=D}
+N 320 -250 340 -250 {lab=PLUS}
+N 560 -250 580 -250 {lab=MINUS}
+N 520 -400 570 -400 {lab=VCC}
+N 330 -400 380 -400 {lab=VCC}
+N 420 -400 480 -400 {lab=#net1}
+N 420 -400 420 -370 {lab=#net1}
+N 380 -370 420 -370 {lab=#net1}
+N 380 -370 380 -280 {lab=#net1}
+N 520 -370 520 -280 {lab=DIFFOUT}
+N 520 -470 520 -430 {lab=VCC}
+N 380 -470 520 -470 {lab=VCC}
+N 380 -470 380 -430 {lab=VCC}
+N 450 -490 450 -470 {lab=VCC}
+N 520 -330 900 -330 {lab=DIFFOUT}
+N 30 -370 30 -340 {lab=PLUS}
+N 30 -370 60 -370 {lab=PLUS}
+N 450 -120 450 -90 {lab=0}
+N 450 -120 470 -120 {lab=0}
+N 470 -150 470 -120 {lab=0}
+N 450 -150 470 -150 {lab=0}
+N 190 -120 190 -90 {lab=0}
+N 170 -120 190 -120 {lab=0}
+N 170 -150 170 -120 {lab=0}
+N 170 -150 190 -150 {lab=0}
+N 830 -600 830 -580 {lab=DIFFOUT_L}
+N 830 -520 830 -500 {lab=0}
+N 750 -250 750 -220 { lab=#net2}
+N 750 -160 750 -140 { lab=0}
+N 580 -250 580 -230 { lab=MINUS}
+N 720 -230 750 -230 { lab=#net2}
+N 650 -600 650 -580 {lab=D_L}
+N 650 -520 650 -500 {lab=0}
+N 790 -470 790 -450 { lab=DIFFOUT_L}
+N 790 -390 790 -370 { lab=D_L}
+N 830 -420 850 -420 { lab=DIFFOUT}
+N 850 -420 850 -330 { lab=DIFFOUT}
+N 580 -230 660 -230 { lab=MINUS}
+N 890 -330 890 -250 { lab=DIFFOUT}
+N 850 -250 890 -250 { lab=DIFFOUT}
+N 750 -250 790 -250 { lab=#net2}
+C {lab_pin.sym} 30 -150 0 0 {name=p17 lab=0  net_name=true}
+C {title.sym} 160 -30 0 0 {name=l1 author="Stefan Schippers"  net_name=true}
+C {nmos4.sym} 430 -150 0 0 {name=m1 model=cmosn w=5u l=2u m=1  net_name=true}
+C {pmos4.sym} 500 -400 0 0 {name=mtop_2nd model=cmosp w=5u l=2u m=1  net_name=true}
+C {vsource.sym} 30 -180 0 0 {name=VVCC value=5  net_name=true}
+C {lab_pin.sym} 450 -90 0 0 {name=p1 lab=0  net_name=true}
+C {lab_pin.sym} 60 -240 0 1 {name=p2 lab=VCC  net_name=true}
+C {nmos4.sym} 210 -150 0 1 {name=m3 model=cmosn w=5u l=2u m=1  net_name=true}
+C {lab_pin.sym} 190 -90 0 0 {name=p3 lab=0  net_name=true}
+C {isource.sym} 190 -260 0 0 {name=IBIAS value=IBIAS  net_name=true}
+C {lab_pin.sym} 190 -290 0 0 {name=p4 lab=0  net_name=true}
+C {nmos4.sym} 360 -250 0 0 {name=m4 model=cmosn w=10u l=1u m=1  net_name=true}
+C {lab_pin.sym} 400 -250 0 1 {name=p5 lab=0  net_name=true}
+C {nmos4.sym} 540 -250 0 1 {name=m5 model=cmosn w=10u l=1u m=1  net_name=true}
+C {lab_pin.sym} 500 -250 0 0 {name=p0 lab=0  net_name=true}
+C {lab_pin.sym} 570 -400 0 1 {name=p6 lab=VCC  net_name=true}
+C {pmos4.sym} 400 -400 0 1 {name=mtop_1st model=cmosp w=5u l=2u m=1  net_name=true}
+C {lab_pin.sym} 330 -400 0 0 {name=p7 lab=VCC  net_name=true}
+C {lab_pin.sym} 450 -490 0 0 {name=p8 lab=VCC  net_name=true}
+C {lab_pin.sym} 320 -250 0 0 {name=p9 lab=PLUS  net_name=true}
+C {lab_pin.sym} 580 -250 0 1 {name=p10 lab=MINUS  net_name=true}
+C {lab_pin.sym} 900 -330 0 1 {name=p11 lab=DIFFOUT  net_name=true}
+C {lab_pin.sym} 190 -200 0 0 {name=p13 lab=GN  net_name=true}
+C {lab_pin.sym} 30 -280 0 0 {name=p14 lab=0  net_name=true}
+C {vsource.sym} 30 -310 0 0 {name=VPLUS value="dc 2.5"
+}
+C {lab_pin.sym} 60 -370 0 1 {name=p15 lab=PLUS  net_name=true}
+C {code.sym} 10 -550 0 0 {name=STIMULI
+only_toplevel=true
+value="
+** ngspice
+.temp 30
+
+** models are generally not free: you must download
+** SPICE models for active devices and put them  into the below 
+** referenced file in netlist/simulation directory.
+** http://bwrcs.eecs.berkeley.edu/Classes/icdesign/ee241_s00/ASSIGNMENTS/TSMC035-n96g-params.txt
+.include \\"models_cmos_example.txt\\"
+
+.param IBIAS=1u
+.control
+let C=180/PI
+ac dec 10 1000 10G
+write test_ac.raw
+set appendwrite
+alter IBIAS=10u
+ac dec 10 1000 10G
+write test_ac.raw
+alter IBIAS=100u
+ac dec 10 1000 10G
+write test_ac.raw
+* plot vdb(ac1.diffout)
+* plot C*phase(ac1.diffout)
+plot vdb(ac2.diffout)
+plot C*phase(ac2.diffout)
+* plot vdb(ac3.diffout)
+* plot C*phase(ac3.diffout)
+.endc
+
+** ngspice
+* .save all
+
+** xyce, not needed if -r given om cmdline
+* .print tran format=raw v(diffout) v(plus) v(minus)
+"  net_name=true}
+C {lab_pin.sym} 790 -570 0 0 {name=l18 lab=DIFFOUT}
+C {lab_pin.sym} 790 -530 0 0 {name=l19 lab=0}
+C {lab_pin.sym} 830 -500 0 0 {name=l20 lab=0}
+C {lab_pin.sym} 830 -600 0 1 {name=l21 lab=DIFFOUT_L}
+C {vcvs.sym} 830 -550 0 0 {name=e1 value=1}
+C {lab_pin.sym} 750 -140 0 0 {name=p12 lab=0  net_name=true}
+C {lab_pin.sym} 450 -200 0 0 {name=p16 lab=D}
+C {lab_pin.sym} 610 -570 0 0 {name=l2 lab=D}
+C {lab_pin.sym} 610 -530 0 0 {name=l3 lab=0}
+C {lab_pin.sym} 650 -500 0 0 {name=l4 lab=0}
+C {lab_pin.sym} 650 -600 0 1 {name=l5 lab=D_L}
+C {vcvs.sym} 650 -550 0 0 {name=e2 value=1}
+C {nmos4.sym} 810 -420 0 1 {name=m7 model=cmosn w=10u l=1u m=1  net_name=true}
+C {lab_pin.sym} 790 -470 0 0 {name=l6 lab=DIFFOUT_L}
+C {lab_pin.sym} 790 -370 0 0 {name=l7 lab=D_L}
+C {lab_pin.sym} 790 -420 0 0 {name=p18 lab=0  net_name=true}
+C {vsource.sym} 690 -230 3 0 {name=VLOOP value="dc 0 ac 1 0"}
+C {res_ac.sym} 750 -190 0 0 {name=R2
+value=10G
+ac=0.1
+m=1}
+C {ind.sym} 820 -250 1 0 {name=L1
+m=1
+value=100k
+footprint=1206
+device=inductor}
+C {launcher.sym} 1040 -650 0 0 {name=h1 
+descr="Select arrow and 
+Ctrl key + Left Button-Click to load/unload waveforms
+from .raw file" 
+tclcommand="
+xschem raw_read $netlist_dir/[file tail [file rootname [xschem get current_name]]].raw
+"
+}
+C {launcher.sym} 1040 -580 0 0 {name=h2
+descr="View raw file"
+tclcommand="textwindow $netlist_dir/[file tail [file rootname [xschem get current_name]]].raw"
+}
+C {launcher.sym} 1040 -720 0 0 {name=h5 
+descr=" Ctrl-Left-Click to load/unload
+embedded waveforms" 
+tclcommand="xschem raw_read_from_attr"
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--- a/xschem_library/examples/test_ac.sym
+++ b/xschem_library/examples/test_ac.sym
@ -0,0 +1,11 @@
+v {xschem version=3.0.0 file_version=1.2}
+K {type=subcircuit
+format="@name @pinlist @symname"
+template="name=x1"
+}
+T {@symname} -49.5 -6 0 0 0.3 0.3 {}
+T {@name} 135 -22 0 0 0.2 0.2 {}
+L 4 -130 -10 130 -10 {}
+L 4 -130 10 130 10 {}
+L 4 -130 -10 -130 10 {}
+L 4 130 -10 130 10 {}