Updated WolframAutomata's simulation speed related CLI flags to match README.

[screensavers] / hacks / WolframAutomata / WolframAutomata.c

diff --git a/hacks/WolframAutomata/WolframAutomata.c b/hacks/WolframAutomata/WolframAutomata.c
index 65a7e5c..fe3ab1f 100644 (file)
--- a/hacks/WolframAutomata/WolframAutomata.c
+++ b/hacks/WolframAutomata/WolframAutomata.c
@@ -307,14 +307,14 @@ WolframAutomata_init(Display * dpy, Window win)
     state->gc = XCreateGC(state->dpy, state->win, GCForeground, &gcv);
 
     /* Set the size of each simulated cell to NxN pixels for cell_size=N.     */
     state->gc = XCreateGC(state->dpy, state->win, GCForeground, &gcv);
 
     /* Set the size of each simulated cell to NxN pixels for cell_size=N.     */

-    if (get_boolean_resource(state->dpy, "random-pixel-size", "Boolean")) {
+    if (get_boolean_resource(state->dpy, "random-cell-size", "Boolean")) {

         /* Although we are choosing the pixel size 'randomly', a truly random */
         /* selection would bias toward large numbers since there are more of  */
         /* them. To avoid this, we select a random number for a bit shift,    */
         /* resulting in a pixel size of 1, 2, 4, 8, 16 or 32, equally likely. */
         state->cell_size = 1 << (random() % 6);
     } else {
         /* Although we are choosing the pixel size 'randomly', a truly random */
         /* selection would bias toward large numbers since there are more of  */
         /* them. To avoid this, we select a random number for a bit shift,    */
         /* resulting in a pixel size of 1, 2, 4, 8, 16 or 32, equally likely. */
         state->cell_size = 1 << (random() % 6);
     } else {

-        state->cell_size = get_integer_resource(state->dpy, "pixel-size", "Integer");
+        state->cell_size = get_integer_resource(state->dpy, "cell-size", "Integer");

     }
     if (state->cell_size < 1) state->cell_size = 1;
     if (state->cell_size > state->dpy_width) state->cell_size = state->dpy_width;
     }
     if (state->cell_size < 1) state->cell_size = 1;
     if (state->cell_size > state->dpy_width) state->cell_size = state->dpy_width;


@@ -353,13 +353,13 @@ WolframAutomata_init(Display * dpy, Window win)
         /* the exponent in '2^11'.                                            */
         state->delay_microsec = 1 << ((random() % 3) + 11 + pixel_shift_range);
     } else {
         /* the exponent in '2^11'.                                            */
         state->delay_microsec = 1 << ((random() % 3) + 11 + pixel_shift_range);
     } else {

-        state->delay_microsec = get_integer_resource(state->dpy, "delay-usec", "Integer");
+        state->delay_microsec = get_integer_resource(state->dpy, "delay", "Integer");

     }
     if (state->delay_microsec < 0) state->delay_microsec = 0;
 
     /* Set the number of generations to simulate before wiping the simulation */
     /* and re-running with new settings.                                      */
     }
     if (state->delay_microsec < 0) state->delay_microsec = 0;
 
     /* Set the number of generations to simulate before wiping the simulation */
     /* and re-running with new settings.                                      */

-    if (get_boolean_resource(state->dpy, "random-num-generations", "Boolean")) {
+    if (get_boolean_resource(state->dpy, "random-length", "Boolean")) {

         /* By empirical observation, keep the product                         */
         /*      state->num_generations * state->cell_size                     */
         /* below 10,000 to avoid BadAlloc errors from the X server due to     */
         /* By empirical observation, keep the product                         */
         /*      state->num_generations * state->cell_size                     */
         /* below 10,000 to avoid BadAlloc errors from the X server due to     */


@@ -372,7 +372,7 @@ WolframAutomata_init(Display * dpy, Window win)
             state->num_generations = (state->dpy_height / state->cell_size) + 1;
         }
     } else {
             state->num_generations = (state->dpy_height / state->cell_size) + 1;
         }
     } else {

-        state->num_generations = get_integer_resource(state->dpy, "num-generations", "Integer");
+        state->num_generations = get_integer_resource(state->dpy, "length", "Integer");

     }
     /* The minimum number of generations is 2 since we must allocate enough   */
     /* space to hold the seed generation and at least one pass through        */
     }
     /* The minimum number of generations is 2 since we must allocate enough   */
     /* space to hold the seed generation and at least one pass through        */


@@ -502,14 +502,14 @@ WolframAutomata_draw(Display * dpy, Window win, void * closure)
 }
 
 static const char * WolframAutomata_defaults[] = {
 }
 
 static const char * WolframAutomata_defaults[] = {

-    "*delay-usec:         25000",
+    "*delay:              25000",

     "*admiration-delay:   5",
     "*admiration-delay:   5",

-    "*num-generations:    5000",
-    "*pixel-size:         2",
+    "*length:             5000",
+    "*cell-size:          2",

     "*color-index:        -1",
     "*population-density: 50",
     "*population-single:  False",
     "*color-index:        -1",
     "*population-density: 50",
     "*population-single:  False",

-    "*random-cellsize:    False",
+    "*random-cell-size:   False",

     "*random-delay:       False",
     "*random-length:      False",
     "*random-rule:        False",
     "*random-delay:       False",
     "*random-length:      False",
     "*random-rule:        False",


@@ -518,16 +518,16 @@ static const char * WolframAutomata_defaults[] = {
 };
 
 static XrmOptionDescRec WolframAutomata_options[] = {
 };
 
 static XrmOptionDescRec WolframAutomata_options[] = {

-    { "-delay-usec",         ".delay-usec",             XrmoptionSepArg, 0      },
+    { "-delay",              ".delay",                  XrmoptionSepArg, 0      },

     { "-admiration-delay",   ".admiration-delay",       XrmoptionSepArg, 0      },
     { "-admiration-delay",   ".admiration-delay",       XrmoptionSepArg, 0      },

-    { "-num-generations",    ".num-generations",        XrmoptionSepArg, 0      },
-    { "-pixel-size",         ".pixel-size",             XrmoptionSepArg, 0      },
+    { "-length",             ".length",                 XrmoptionSepArg, 0      },
+    { "-cell-size",          ".cell-size",              XrmoptionSepArg, 0      },

     { "-color-index",        ".color-index",            XrmoptionSepArg, 0      },
     { "-population-density", ".population-density",     XrmoptionSepArg, 0      },
     { "-population-single",  ".population-single",      XrmoptionNoArg,  "True" },
     { "-color-index",        ".color-index",            XrmoptionSepArg, 0      },
     { "-population-density", ".population-density",     XrmoptionSepArg, 0      },
     { "-population-single",  ".population-single",      XrmoptionNoArg,  "True" },

-    { "-random-cellsize",    ".random-pixel-size",      XrmoptionNoArg,  "True" },
+    { "-random-cell-size",   ".random-cell-size",       XrmoptionNoArg,  "True" },

     { "-random-delay",       ".random-delay",           XrmoptionNoArg,  "True" },
     { "-random-delay",       ".random-delay",           XrmoptionNoArg,  "True" },

-    { "-random-length",      ".random-num-generations", XrmoptionNoArg,  "True" },
+    { "-random-length",      ".random-length",          XrmoptionNoArg,  "True" },

     { "-random-rule",        ".rule-random",            XrmoptionNoArg,  "True" },
     { "-rule",               ".rule-requested",         XrmoptionSepArg, 0      },
     { 0, 0, 0, 0 }
     { "-random-rule",        ".rule-random",            XrmoptionNoArg,  "True" },
     { "-rule",               ".rule-requested",         XrmoptionSepArg, 0      },
     { 0, 0, 0, 0 }