fix samples/tests for removal of JoinStringListWithSeparator helper

This commit is contained in:
ryanfleury
2021-04-12 13:21:19 -06:00
parent 28ea290661
commit 714cb85824
3 changed files with 74 additions and 74 deletions
+1 -1
View File
@@ -32,7 +32,7 @@ static void PrintNode(MD_Node* node, FILE* file, int indent_count) {
Print(file, indent_count+1, "Flags: %s,\n", binary_flags); Print(file, indent_count+1, "Flags: %s,\n", binary_flags);
Print(file, indent_count+1, "Flag Names: ", binary_flags); Print(file, indent_count+1, "Flag Names: ", binary_flags);
MD_String8List flags_list = MD_StringListFromNodeFlags(node->flags); MD_String8List flags_list = MD_StringListFromNodeFlags(node->flags);
MD_String8 flag_names = MD_JoinStringListWithSeparator(flags_list, MD_S8CString(", ")); MD_String8 flag_names = MD_JoinStringList(flags_list, MD_S8CString(", "));
fprintf(file, "%.*s,\n", MD_StringExpand(flag_names)); fprintf(file, "%.*s,\n", MD_StringExpand(flag_names));
if(node->string.size > 0) Print(file, indent_count+1, "String: %.*s,\n", MD_StringExpand(node->string)); if(node->string.size > 0) Print(file, indent_count+1, "String: %.*s,\n", MD_StringExpand(node->string));
+1 -1
View File
@@ -1793,7 +1793,7 @@ _MD_ParseOneNode(MD_ParseCtx *ctx)
{ {
MD_PushStringToList(&bytes, MD_PushStringF("0x%02X", token.outer_string.str[i_byte])); MD_PushStringToList(&bytes, MD_PushStringF("0x%02X", token.outer_string.str[i_byte]));
} }
MD_String8 byte_string = MD_JoinStringListWithSeparator(bytes, MD_S8Lit(" ")); MD_String8 byte_string = MD_JoinStringList(bytes, MD_S8Lit(" "));
_MD_TokenError(ctx, token, MD_MessageKind_Error, "Non-ASCII character \"%.*s\"", MD_StringExpand(byte_string)); _MD_TokenError(ctx, token, MD_MessageKind_Error, "Non-ASCII character \"%.*s\"", MD_StringExpand(byte_string));
goto retry; goto retry;
} }
+72 -72
View File
@@ -24,13 +24,13 @@ static MD_u32 rand_U32(RandomSeries* rng)
static RandomSeries rand_seed(MD_u64 initstate, MD_u64 initseq) static RandomSeries rand_seed(MD_u64 initstate, MD_u64 initseq)
{ {
RandomSeries result = {0}; RandomSeries result = {0};
result.state = 0U; result.state = 0U;
result.inc = (initseq << 1u) | 1u; // NOTE: inc must be odd result.inc = (initseq << 1u) | 1u; // NOTE: inc must be odd
rand_U32(&result); rand_U32(&result);
result.state += initstate; result.state += initstate;
rand_U32(&result); rand_U32(&result);
return result; return result;
} }
@@ -55,7 +55,7 @@ static void TagSquareBracketSetsAsOptional(MD_Node *node, MD_Node *optional_tag)
MD_PushTag(node, optional_tag); MD_PushTag(node, optional_tag);
} }
} }
for(MD_EachNode(child, node->first_child)) for(MD_EachNode(child, node->first_child))
{ {
TagSquareBracketSetsAsOptional(child, optional_tag); TagSquareBracketSetsAsOptional(child, optional_tag);
@@ -65,7 +65,7 @@ static void TagSquareBracketSetsAsOptional(MD_Node *node, MD_Node *optional_tag)
static MD_Node * NewChildLabel(MD_Node *parent, MD_String8 label) static MD_Node * NewChildLabel(MD_Node *parent, MD_String8 label)
{ {
MD_Node *result = 0; MD_Node *result = 0;
result = MD_MakeNodeFromString(MD_NodeKind_Label, MD_S8Lit(""), 0, 0, label); result = MD_MakeNodeFromString(MD_NodeKind_Label, MD_S8Lit(""), 0, 0, label);
if(parent) if(parent)
{ {
@@ -87,14 +87,14 @@ static MD_Node * NewChild(MD_Node *parent)
static void PrintRule(MD_Map *depth_map, MD_Node *rule) static void PrintRule(MD_Map *depth_map, MD_Node *rule)
{ {
MD_b32 is_literal_char = rule->flags & MD_NodeFlag_CharLiteral; MD_b32 is_literal_char = rule->flags & MD_NodeFlag_CharLiteral;
MD_b32 optional = MD_NodeHasTag(rule, MD_S8Lit(OPTIONAL_TAG)); MD_b32 optional = MD_NodeHasTag(rule, MD_S8Lit(OPTIONAL_TAG));
if(optional) if(optional)
{ {
printf("["); printf("[");
} }
for(MD_EachNode(tag, rule->first_tag)) for(MD_EachNode(tag, rule->first_tag))
{ {
if(!MD_StringMatch(tag->string, MD_S8Lit(OPTIONAL_TAG), 0)) if(!MD_StringMatch(tag->string, MD_S8Lit(OPTIONAL_TAG), 0))
@@ -102,22 +102,22 @@ static void PrintRule(MD_Map *depth_map, MD_Node *rule)
printf("@%.*s ", MD_StringExpand(tag->string)); printf("@%.*s ", MD_StringExpand(tag->string));
} }
} }
if(is_literal_char) if(is_literal_char)
{ {
printf("'"); printf("'");
} }
MD_b32 has_children = !MD_NodeIsNil(rule->first_child); MD_b32 has_children = !MD_NodeIsNil(rule->first_child);
if(has_children) if(has_children)
{ {
MD_Assert(rule->string.size == 0); MD_Assert(rule->string.size == 0);
for(MD_EachNode(rule_element, rule->first_child)) for(MD_EachNode(rule_element, rule->first_child))
{ {
PrintRule(depth_map, rule_element); PrintRule(depth_map, rule_element);
printf(" (%lu) ", (unsigned long)GET_DEPTH(depth_map, rule_element)); printf(" (%lu) ", (unsigned long)GET_DEPTH(depth_map, rule_element));
if(!MD_NodeIsNil(rule_element->next)) if(!MD_NodeIsNil(rule_element->next))
{ {
printf(" "); printf(" ");
@@ -129,12 +129,12 @@ static void PrintRule(MD_Map *depth_map, MD_Node *rule)
MD_Assert(rule->string.size > 0); MD_Assert(rule->string.size > 0);
printf("%.*s", MD_StringExpand(rule->string)); printf("%.*s", MD_StringExpand(rule->string));
} }
if(is_literal_char) if(is_literal_char)
{ {
printf("'"); printf("'");
} }
if(optional) if(optional)
{ {
printf("]"); printf("]");
@@ -166,7 +166,7 @@ static void ExpandRule(MD_Node *rule, MD_String8List *out_strings, MD_Node *cur_
if(MD_NodeHasTag(rule_element, MD_S8Lit(OPTIONAL_TAG))) if(MD_NodeHasTag(rule_element, MD_S8Lit(OPTIONAL_TAG)))
{ {
expand = rand_U32(globals.random_series)%2; expand = rand_U32(globals.random_series)%2;
if(expand) if(expand)
{ {
if(GET_DEPTH(depth_map, rule_element) + depth >= max_depth) if(GET_DEPTH(depth_map, rule_element) + depth >= max_depth)
@@ -175,7 +175,7 @@ static void ExpandRule(MD_Node *rule, MD_String8List *out_strings, MD_Node *cur_
} }
} }
} }
if(expand) if(expand)
{ {
MD_Node *node_to_tag = 0; MD_Node *node_to_tag = 0;
@@ -213,7 +213,7 @@ static void ExpandRule(MD_Node *rule, MD_String8List *out_strings, MD_Node *cur_
MD_Assert(!"Not implemented"); MD_Assert(!"Not implemented");
} }
} }
MD_b32 has_children = !MD_NodeIsNil(rule_element->first_child); MD_b32 has_children = !MD_NodeIsNil(rule_element->first_child);
if(has_children) if(has_children)
{ {
@@ -227,20 +227,20 @@ static void ExpandRule(MD_Node *rule, MD_String8List *out_strings, MD_Node *cur_
if(rule_element->string.size == 2 && rule_element->string.str[0] == '\\') if(rule_element->string.size == 2 && rule_element->string.str[0] == '\\')
{ {
switch(rule_element->string.str[1]){ switch(rule_element->string.str[1]){
case '\\': c = '\\'; break; case '\\': c = '\\'; break;
case '\'': c = '\''; break; case '\'': c = '\''; break;
case '"': c = '\"'; break; case '"': c = '\"'; break;
case 'n': c = '\n'; break; case 'n': c = '\n'; break;
} }
} }
else else
{ {
c = rule_element->string.str[0]; c = rule_element->string.str[0];
} }
MD_String8 character = MD_PushStringF("%c", c); MD_String8 character = MD_PushStringF("%c", c);
MD_PushStringToList(out_strings, character); MD_PushStringToList(out_strings, character);
if(op_flags & OperationFlag_Fill) if(op_flags & OperationFlag_Fill)
{ {
Extend(&cur_node->whole_string, c); Extend(&cur_node->whole_string, c);
@@ -257,13 +257,13 @@ static void ExpandRule(MD_Node *rule, MD_String8List *out_strings, MD_Node *cur_
ExpandProduction(production, out_strings, cur_node, op_flags, depth_map, max_depth, depth+1); ExpandProduction(production, out_strings, cur_node, op_flags, depth_map, max_depth, depth+1);
} }
} }
if(node_to_tag) if(node_to_tag)
{ {
MD_PushTag(node_to_tag, cur_node); MD_PushTag(node_to_tag, cur_node);
cur_node = node_to_tag; cur_node = node_to_tag;
} }
op_flags = old_op_flags; op_flags = old_op_flags;
} }
} }
@@ -274,22 +274,22 @@ static void ExpandProduction(MD_Node *production, MD_String8List *out, MD_Node *
MD_u32 max_depth, MD_u32 depth) MD_u32 max_depth, MD_u32 depth)
{ {
MD_i64 rule_count = MD_ChildCountFromNode(production); MD_i64 rule_count = MD_ChildCountFromNode(production);
MD_Assert(GET_DEPTH(depth_map, production)+depth <= max_depth); MD_Assert(GET_DEPTH(depth_map, production)+depth <= max_depth);
MD_Node *rule = 0; MD_Node *rule = 0;
do{ do{
int rule_number = rand_U32(globals.random_series)%rule_count; int rule_number = rand_U32(globals.random_series)%rule_count;
rule = MD_ChildFromIndex(production, rule_number); rule = MD_ChildFromIndex(production, rule_number);
}while(GET_DEPTH(depth_map, rule)+depth > max_depth); }while(GET_DEPTH(depth_map, rule)+depth > max_depth);
ExpandRule(rule, out, cur_node, op_flags, depth_map, max_depth, depth); ExpandRule(rule, out, cur_node, op_flags, depth_map, max_depth, depth);
} }
static MD_Node * FindNonTerminalProduction(MD_Node *node, MD_Map *visited) static MD_Node * FindNonTerminalProduction(MD_Node *node, MD_Map *visited)
{ {
MD_Node *result = 0; MD_Node *result = 0;
MD_b32 should_visit = 1; MD_b32 should_visit = 1;
if(!MD_NodeIsNil(node->first_child) && node->string.size) if(!MD_NodeIsNil(node->first_child) && node->string.size)
{ {
@@ -303,7 +303,7 @@ static MD_Node * FindNonTerminalProduction(MD_Node *node, MD_Map *visited)
MD_Assert(inserted); MD_Assert(inserted);
} }
} }
if(should_visit) if(should_visit)
{ {
if(MD_NodeIsNil(node->first_child)) if(MD_NodeIsNil(node->first_child))
@@ -337,7 +337,7 @@ static MD_Node * FindNonTerminalProduction(MD_Node *node, MD_Map *visited)
} }
} }
} }
return result; return result;
} }
@@ -371,13 +371,13 @@ static MD_b32 EqualTrees(MD_Node *a, MD_Node *b)
static MD_String8 EscapeNewlines(MD_String8 s) static MD_String8 EscapeNewlines(MD_String8 s)
{ {
MD_String8 result = s; MD_String8 result = s;
MD_u32 newline_count = 0; MD_u32 newline_count = 0;
for(MD_u8 *c = s.str; c < s.str + s.size; ++c) for(MD_u8 *c = s.str; c < s.str + s.size; ++c)
{ {
newline_count += (*c == '\n'); newline_count += (*c == '\n');
} }
if(newline_count) if(newline_count)
{ {
result.size = s.size + newline_count; result.size = s.size + newline_count;
@@ -395,7 +395,7 @@ static MD_String8 EscapeNewlines(MD_String8 s)
} }
} }
} }
return result; return result;
} }
@@ -435,7 +435,7 @@ static void ComputeElementDepth(MD_Map *depth_map, MD_Node *re)
result = GET_DEPTH(depth_map, production)+1; result = GET_DEPTH(depth_map, production)+1;
} }
} }
SET_DEPTH(depth_map, re, result); SET_DEPTH(depth_map, re, result);
} }
@@ -475,10 +475,10 @@ FirstBadNodeAtPointer(MD_Node *node)
{ {
MD_Node *result = 0; MD_Node *result = 0;
switch(node->kind){ switch(node->kind){
case MD_NodeKind_File: case MD_NodeKind_File:
{ {
} break; } break;
case MD_NodeKind_Label: case MD_NodeKind_Label:
{ {
if(node->at != node->whole_string.str) if(node->at != node->whole_string.str)
{ {
@@ -493,15 +493,15 @@ FirstBadNodeAtPointer(MD_Node *node)
result = node; result = node;
} }
} }
if(result) if(result)
{ {
goto end; goto end;
} }
} }
} break; } break;
case MD_NodeKind_List: case MD_NodeKind_List:
case MD_NodeKind_Tag: case MD_NodeKind_Tag:
{ {
if(node->at != node->whole_string.str) if(node->at != node->whole_string.str)
{ {
@@ -509,10 +509,10 @@ FirstBadNodeAtPointer(MD_Node *node)
goto end; goto end;
} }
} break; } break;
default: default:
break; break;
} }
for(MD_EachNode(child, node->first_child)) for(MD_EachNode(child, node->first_child))
{ {
result = FirstBadNodeAtPointer(child); result = FirstBadNodeAtPointer(child);
@@ -523,16 +523,16 @@ FirstBadNodeAtPointer(MD_Node *node)
result = FirstBadNodeAtPointer(child); result = FirstBadNodeAtPointer(child);
if(result) goto end; if(result) goto end;
} }
end: end:
return result; return result;
} }
int main(int argument_count, char **arguments) int main(int argument_count, char **arguments)
{ {
MD_Node *grammar = MD_ParseWholeFile(MD_S8Lit("tests/grammar.md")).node; MD_Node *grammar = MD_ParseWholeFile(MD_S8Lit("tests/grammar.md")).node;
// NOTE(mal): In order to get a BNF-like syntax, I feed the MD output through two transformations: // NOTE(mal): In order to get a BNF-like syntax, I feed the MD output through two transformations:
// 1) Tag []-style sets as optional // 1) Tag []-style sets as optional
MD_Node *optional_tag = 0; MD_Node *optional_tag = 0;
@@ -541,7 +541,7 @@ int main(int argument_count, char **arguments)
optional_tag = parse_result.node->first_tag; optional_tag = parse_result.node->first_tag;
} }
TagSquareBracketSetsAsOptional(grammar, optional_tag); TagSquareBracketSetsAsOptional(grammar, optional_tag);
// NOTE(mal): 2) Divide rules around '|' operators and transplant them into a new tree structure // NOTE(mal): 2) Divide rules around '|' operators and transplant them into a new tree structure
// productions > production > rules > rule > rule_element // productions > production > rules > rule > rule_element
MD_Node *productions = NewChild(0); MD_Node *productions = NewChild(0);
@@ -552,7 +552,7 @@ int main(int argument_count, char **arguments)
for(MD_Node *rule_element = symbol->first_child; !MD_NodeIsNil(rule_element); ) for(MD_Node *rule_element = symbol->first_child; !MD_NodeIsNil(rule_element); )
{ {
MD_Node *next = rule_element->next; MD_Node *next = rule_element->next;
MD_b32 has_children = !MD_NodeIsNil(rule_element->first_child); MD_b32 has_children = !MD_NodeIsNil(rule_element->first_child);
if(has_children) if(has_children)
{ {
@@ -570,11 +570,11 @@ int main(int argument_count, char **arguments)
MD_PushChild(rule, rule_element); MD_PushChild(rule, rule_element);
} }
} }
rule_element = next; rule_element = next;
} }
} }
// NOTE(mal): Build production hash table // NOTE(mal): Build production hash table
MD_Map production_table_ = {0}; MD_Map production_table_ = {0};
globals.production_table = &production_table_; globals.production_table = &production_table_;
@@ -584,7 +584,7 @@ int main(int argument_count, char **arguments)
production->string, production); production->string, production);
MD_Assert(inserted); MD_Assert(inserted);
} }
// NOTE(mal): Check for root production // NOTE(mal): Check for root production
MD_Node* file_production = 0; MD_Node* file_production = 0;
{ {
@@ -596,10 +596,10 @@ int main(int argument_count, char **arguments)
} }
file_production = file_production_slot->value; file_production = file_production_slot->value;
} }
// NOTE(mal): Check that all branches lead to terminal nodes // NOTE(mal): Check that all branches lead to terminal nodes
MD_Map visited_productions = {0}; MD_Map visited_productions = {0};
for(MD_EachNode(production, productions->first_child)) for(MD_EachNode(production, productions->first_child))
{ {
MD_Node *non_terminal_production = FindNonTerminalProduction(production, &visited_productions); MD_Node *non_terminal_production = FindNonTerminalProduction(production, &visited_productions);
@@ -609,7 +609,7 @@ int main(int argument_count, char **arguments)
goto error; goto error;
} }
} }
// NOTE(mal): Check that all productions are reachable // NOTE(mal): Check that all productions are reachable
for(MD_EachNode(production, productions->first_child)) for(MD_EachNode(production, productions->first_child))
{ {
@@ -619,9 +619,9 @@ int main(int argument_count, char **arguments)
fprintf(stderr, "Warning: Unreachable production \"%.*s\"\n", MD_StringExpand(production->string)); fprintf(stderr, "Warning: Unreachable production \"%.*s\"\n", MD_StringExpand(production->string));
} }
} }
// NOTE(mal): Compute depth of productions, rules, rule elements // NOTE(mal): Compute depth of productions, rules, rule elements
// NOTE(mal): Init all MD_Node depths to 0 // NOTE(mal): Init all MD_Node depths to 0
MD_Map depth_map_ = {0}; MD_Map depth_map_ = {0};
MD_Map *depth_map = &depth_map_; MD_Map *depth_map = &depth_map_;
@@ -637,7 +637,7 @@ int main(int argument_count, char **arguments)
} }
} }
} }
MD_b32 progress = 1; MD_b32 progress = 1;
while(progress) while(progress)
{ {
@@ -653,7 +653,7 @@ int main(int argument_count, char **arguments)
{ {
ComputeElementDepth(depth_map, rule_element); ComputeElementDepth(depth_map, rule_element);
MD_u64 depth = GET_DEPTH(depth_map, rule_element); MD_u64 depth = GET_DEPTH(depth_map, rule_element);
if(!MD_NodeHasTag(rule_element, MD_S8Lit(OPTIONAL_TAG))) if(!MD_NodeHasTag(rule_element, MD_S8Lit(OPTIONAL_TAG)))
{ {
MD_u64 depth = 0; MD_u64 depth = 0;
@@ -664,31 +664,31 @@ int main(int argument_count, char **arguments)
depth = GET_DEPTH(depth_map, production); depth = GET_DEPTH(depth_map, production);
} }
depth += 1; depth += 1;
if(depth > max_mandatory_rule_element_depth) if(depth > max_mandatory_rule_element_depth)
{ {
max_mandatory_rule_element_depth = depth; max_mandatory_rule_element_depth = depth;
} }
} }
if(depth > max_rule_element_depth) if(depth > max_rule_element_depth)
{ {
max_rule_element_depth = depth; max_rule_element_depth = depth;
} }
} }
if(max_mandatory_rule_element_depth > GET_DEPTH(depth_map, rule)) if(max_mandatory_rule_element_depth > GET_DEPTH(depth_map, rule))
{ {
progress = 1; progress = 1;
SET_DEPTH(depth_map, rule, max_mandatory_rule_element_depth); SET_DEPTH(depth_map, rule, max_mandatory_rule_element_depth);
} }
if(max_mandatory_rule_element_depth < min_rule_depth) if(max_mandatory_rule_element_depth < min_rule_depth)
{ {
min_rule_depth = max_mandatory_rule_element_depth; min_rule_depth = max_mandatory_rule_element_depth;
} }
} }
if(min_rule_depth > GET_DEPTH(depth_map, production)) if(min_rule_depth > GET_DEPTH(depth_map, production))
{ {
progress = 1; progress = 1;
@@ -696,7 +696,7 @@ int main(int argument_count, char **arguments)
} }
} }
} }
#if DEBUG_RULES_AFTER_TRANSFORMATIONS #if DEBUG_RULES_AFTER_TRANSFORMATIONS
for(MD_EachNode(production, productions->first_child)) for(MD_EachNode(production, productions->first_child))
{ {
@@ -710,11 +710,11 @@ int main(int argument_count, char **arguments)
} }
} }
#endif #endif
RandomSeries random_series = rand_seed(0, 0); // NOTE(mal): Reproduceable RandomSeries random_series = rand_seed(0, 0); // NOTE(mal): Reproduceable
globals.random_series = &random_series; globals.random_series = &random_series;
MD_Node* file_production_node = MD_StringMap_Lookup(globals.production_table, MD_S8Lit("file"))->value; MD_Node* file_production_node = MD_StringMap_Lookup(globals.production_table, MD_S8Lit("file"))->value;
// NOTE(mal): Generate test_count unique tests, sorted by complexity // NOTE(mal): Generate test_count unique tests, sorted by complexity
MD_u32 test_count = 1000; MD_u32 test_count = 1000;
MD_u32 max_production_depth = 30; MD_u32 max_production_depth = 30;
@@ -726,12 +726,12 @@ int main(int argument_count, char **arguments)
Test test = {0}; Test test = {0};
test.expected_output = NewChild(0); test.expected_output = NewChild(0);
test.expected_output->kind = MD_NodeKind_File; test.expected_output->kind = MD_NodeKind_File;
MD_String8List string_list = {0}; MD_String8List string_list = {0};
// NOTE(mal): Generate a random MD file // NOTE(mal): Generate a random MD file
ExpandProduction(file_production_node, &string_list, test.expected_output, 0, depth_map, max_production_depth, 0); ExpandProduction(file_production_node, &string_list, test.expected_output, 0, depth_map, max_production_depth, 0);
test.input = MD_JoinStringList(string_list); test.input = MD_JoinStringList(string_list, MD_S8Lit(""));
Test *prev = 0; Test *prev = 0;
for(Test *cur = first_test; cur; cur = cur->next) for(Test *cur = first_test; cur; cur = cur->next)
{ {
@@ -749,7 +749,7 @@ int main(int argument_count, char **arguments)
prev = 0; // NOTE(mal): Repeat node prev = 0; // NOTE(mal): Repeat node
} }
} }
if(prev) if(prev)
{ {
Test *stored_test = calloc(1, sizeof(Test)); Test *stored_test = calloc(1, sizeof(Test));
@@ -759,13 +759,13 @@ int main(int argument_count, char **arguments)
++i_test; ++i_test;
} }
} }
MD_u32 i_test = 0; MD_u32 i_test = 0;
for(Test *test = first_test; test; test = test->next) for(Test *test = first_test; test; test = test->next)
{ {
MD_Node *file_node = MD_ParseWholeString(MD_S8Lit(""), test->input).node; MD_Node *file_node = MD_ParseWholeString(MD_S8Lit(""), test->input).node;
file_node->string = file_node->whole_string = (MD_String8){0}; file_node->string = file_node->whole_string = (MD_String8){0};
#if DEBUG_PRINT_GENERATED_TESTS #if DEBUG_PRINT_GENERATED_TESTS
printf("> %.*s <\n", MD_StringExpand(EscapeNewlines(test->input))); printf("> %.*s <\n", MD_StringExpand(EscapeNewlines(test->input)));
#endif #endif
@@ -779,7 +779,7 @@ int main(int argument_count, char **arguments)
MD_OutputTree(stdout, test->expected_output); printf("\n"); MD_OutputTree(stdout, test->expected_output); printf("\n");
return -1; return -1;
} }
MD_Node *bad_at_node = FirstBadNodeAtPointer(file_node); MD_Node *bad_at_node = FirstBadNodeAtPointer(file_node);
if(bad_at_node) if(bad_at_node)
{ {
@@ -793,7 +793,7 @@ int main(int argument_count, char **arguments)
} }
++i_test; ++i_test;
} }
printf("Passed %d tests\n", test_count); printf("Passed %d tests\n", test_count);
error: error: