Implement cell statistics command line interface

This commit is contained in:
2022-04-17 00:37:26 +02:00
parent 1548c82542
commit ba6b07c8a2
7 changed files with 469 additions and 16 deletions

View File

@@ -30,6 +30,7 @@
#include <stdio.h>
#include <glib/gi18n.h>
#include <string.h>
#include <gds-render/command-line.h>
#include <gds-render/gds-utils/gds-parser.h>
@@ -38,6 +39,41 @@
#include <gds-render/output-renderers/latex-renderer.h>
#include <gds-render/output-renderers/external-renderer.h>
#include <gds-render/gds-utils/gds-tree-checker.h>
#include <gds-render/gds-utils/gds-statistics.h>
#include <fort.h>
#ifndef COUNT_OF
#define COUNT_OF(x) (sizeof((x))/sizeof(0[(x)]))
#endif
enum analysis_format {
ANA_FORMAT_SIMPLE = 0,
ANA_FORMAT_CELLS_ONLY,
ANA_FORMAT_PRETTY,
};
struct analysis_format_cmdarg {
enum analysis_format format;
const char *argument;
};
static const struct analysis_format_cmdarg analysis_format_lookup[] = {
{
.format = ANA_FORMAT_SIMPLE,
.argument = "simple",
},
{
.format = ANA_FORMAT_PRETTY,
.argument = "pretty",
},
{
.format = ANA_FORMAT_CELLS_ONLY,
.argument = "cellsonly"
}
};
static int string_array_count(char **string_array)
{
@@ -136,14 +172,14 @@ static struct gds_cell *find_gds_cell_in_lib(struct gds_library *lib, const char
}
int command_line_convert_gds(const char *gds_name,
const char *cell_name,
char **renderers,
char **output_file_names,
const char *layer_file,
struct external_renderer_params *ext_param,
gboolean tex_standalone,
gboolean tex_layers,
double scale)
const char *cell_name,
char **renderers,
char **output_file_names,
const char *layer_file,
struct external_renderer_params *ext_param,
gboolean tex_standalone,
gboolean tex_layers,
double scale)
{
int ret = -1;
GList *libs = NULL;
@@ -240,4 +276,188 @@ ret_destroy_layer_mapping:
return ret;
}
static void indent_line(int level)
{
while (level--)
printf("\t");
}
static int printf_indented(int level, const char *format, ...)
{
int ret;
va_list a_list;
va_start(a_list, format);
indent_line(level);
ret = vprintf(format, a_list);
va_end(a_list);
return ret;
}
static void print_simple_stat(GList *lib_stat_list)
{
int indentation_level = 0;
GList *lib_iter;
GList *cell_iter;
const struct gds_lib_statistics *lib_stats;
const struct gds_cell_statistics *cell_stats;
for (lib_iter = lib_stat_list; lib_iter; lib_iter = g_list_next(lib_iter)) {
lib_stats = (const struct gds_lib_statistics *)lib_iter->data;
printf_indented(indentation_level, "Library %s\n", lib_stats->library->name);
indentation_level++;
for (cell_iter = lib_stats->cell_statistics; cell_iter; cell_iter = g_list_next(cell_iter)) {
cell_stats = (const struct gds_cell_statistics *)cell_iter->data;
printf_indented(indentation_level, "Cell %s\n", cell_stats->cell->name);
indentation_level++;
printf_indented(indentation_level, "Reference count: %zu\n", cell_stats->reference_count);
printf_indented(indentation_level, "Graphics count: %zu\n", cell_stats->gfx_count);
printf_indented(indentation_level, "Vertex count: %zu\n", cell_stats->vertex_count);
printf_indented(indentation_level, "Unresolved children: %d\n",
cell_stats->cell->checks.unresolved_child_count);
printf_indented(indentation_level, "Reference loop: %s\n",
cell_stats->cell->checks.affected_by_reference_loop ? "yes" : "no");
indentation_level--;
}
printf_indented(indentation_level, "Cell count: %zu\n", lib_stats->cell_count);
printf_indented(indentation_level, "Reference count: %zu\n", lib_stats->reference_count);
printf_indented(indentation_level, "Graphics count: %zu\n", lib_stats->gfx_count);
printf_indented(indentation_level, "Vertex count: %zu\n", lib_stats->vertex_count);
}
}
static void print_table_stat(GList *lib_stat_list)
{
ft_table_t *table;
GList *lib_stat_iter;
GList *cell_stat_iter;
const struct gds_lib_statistics *lib_stats;
const struct gds_cell_statistics *cell_stats;
table = ft_create_table();
ft_set_cell_prop(table, 0, FT_ANY_COLUMN, FT_CPROP_ROW_TYPE, FT_ROW_HEADER);
ft_set_cell_prop(table, 0, FT_ANY_COLUMN, FT_CPROP_ROW_TYPE, FT_ROW_HEADER);
ft_write_ln(table, "Library", "Cell", "GFX", "Vertices", "Refs", "Unresolved Refs", "Loops");
for (lib_stat_iter = lib_stat_list; lib_stat_iter; lib_stat_iter = g_list_next(lib_stat_iter)) {
lib_stats = (const struct gds_lib_statistics *)lib_stat_iter->data;
ft_printf_ln(table, "%s|%zu|%zu|%zu|%zu|-|-", lib_stats->library->name, lib_stats->cell_count,
lib_stats->gfx_count, lib_stats->vertex_count, lib_stats->reference_count);
for (cell_stat_iter = lib_stats->cell_statistics; cell_stat_iter;
cell_stat_iter = g_list_next(cell_stat_iter)) {
cell_stats = (const struct gds_cell_statistics *)cell_stat_iter->data;
ft_printf_ln(table, "%s|%s|%zu|%zu|%zu|%d|%d", lib_stats->library->name, cell_stats->cell->name,
cell_stats->gfx_count, cell_stats->vertex_count, cell_stats->reference_count,
cell_stats->cell->checks.unresolved_child_count,
cell_stats->cell->checks.affected_by_reference_loop);
}
}
printf("%s\n", ft_to_string(table));
ft_destroy_table(table);
}
static void print_statistics(enum analysis_format format, GList *lib_stat_list)
{
switch (format) {
case ANA_FORMAT_PRETTY:
print_table_stat(lib_stat_list);
break;
default:
print_simple_stat(lib_stat_list);
break;
}
}
static void print_cell_names(GList *lib_list)
{
GList *lib_iter;
GList *name_iter;
struct gds_library *lib;
for (lib_iter = lib_list; lib_iter; lib_iter = g_list_next(lib_iter)) {
lib = (struct gds_library *)lib_iter->data;
for (name_iter = lib->cell_names; name_iter; name_iter = name_iter->next) {
printf("%s\n", (const char *)name_iter->data);
}
}
}
int command_line_analyze_lib(const char *format, const char *gds_name)
{
enum analysis_format fmt = ANA_FORMAT_SIMPLE;
size_t idx;
int found = 0;
GList *lib_list = NULL;
const struct gds_library_parsing_opts parsing_opts = {
.simplified_polygons = 0,
};
int res;
int ret = 0;
GList *lib_iter;
GList *lib_stat_list = NULL;
g_return_val_if_fail(gds_name, -1002);
if (format && *format) {
/* Check format if it is not empty */
for (idx = 0; idx < COUNT_OF(analysis_format_lookup); idx++) {
if (!strcmp(analysis_format_lookup[idx].argument, format)) {
/* Format specifier matches */
fmt = analysis_format_lookup[idx].format;
found = 1;
}
}
if (!found) {
fprintf(stderr, "No format matches %s. Using default.\n", format);
}
}
/* Load the GDS file */
res = parse_gds_from_file(gds_name, &lib_list, &parsing_opts);
if (res) {
fprintf(stderr, "Error parsing GDS file\n");
(void)clear_lib_list(&lib_list);
ret = res;
goto return_val;
}
for (lib_iter = lib_list; lib_iter; lib_iter = g_list_next(lib_iter)) {
res = gds_tree_check_cell_references((struct gds_library *)lib_iter->data);
if (res < 0) {
fprintf(stderr, "Error checking cell references. Will continue...\n");
}
res = gds_tree_check_reference_loops((struct gds_library *)lib_iter->data);
if (res < 0) {
fprintf(stderr, "Error checking cell reference loops. Will continue...\n");
}
}
if (fmt == ANA_FORMAT_CELLS_ONLY) {
print_cell_names(lib_list);
goto return_clear_libs;
}
gds_statistics_calc_library(lib_list, &lib_stat_list);
print_statistics(fmt, lib_stat_list);
/* Clean up the whole mess */
gds_statistics_free_lib_stat_list(&lib_stat_list);
return_clear_libs:
clear_lib_list(&lib_list);
return_val:
return ret;
}
/** @} */