#include "test.hpp" #include "writer_string.hpp" #include #include #include using namespace pugi; TEST_XML(write_simple, "text") { CHECK_NODE_EX(doc, STR("\ntext\n\n"), STR(""), 0); } TEST_XML(write_raw, "text") { CHECK_NODE_EX(doc, STR("text"), STR(""), format_raw); } TEST_XML(write_indent, "text") { CHECK_NODE_EX(doc, STR("\n\t\n\t\ttext\n\t\n\n"), STR("\t"), format_indent); } TEST_XML(write_indent_attributes, "text") { CHECK_NODE_EX(doc, STR("\n\t\n\t\ttext\n\t\n\n"), STR("\t"), format_indent_attributes); } TEST_XML(write_indent_attributes_empty_element, "") { CHECK_NODE_EX(doc, STR("\n"), STR("\t"), format_indent_attributes); } TEST_XML_FLAGS(write_indent_attributes_declaration, "", parse_full) { CHECK_NODE_EX(doc, STR("\n\n"), STR("\t"), format_indent_attributes); } TEST_XML(write_indent_attributes_raw, "text") { CHECK_NODE_EX(doc, STR("text"), STR("\t"), format_indent_attributes | format_raw); } TEST_XML(write_indent_attributes_empty_indent, "text") { CHECK_NODE_EX(doc, STR("\n\ntext\n\n\n"), STR(""), format_indent_attributes); } TEST_XML(write_pcdata, "text") { CHECK_NODE_EX(doc, STR("\n\t\n\t\ttext\n\n"), STR("\t"), format_indent); } TEST_XML_FLAGS(write_cdata, "", parse_cdata | parse_fragment) { CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR(""), STR(""), 0); } TEST_XML_FLAGS(write_cdata_empty, "", parse_cdata | parse_fragment) { CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR(""), STR(""), 0); } TEST_XML_FLAGS(write_cdata_escape, "", parse_cdata | parse_fragment) { CHECK_NODE(doc, STR("")); doc.first_child().set_value(STR("1]]>2]]>3")); CHECK_NODE(doc, STR("2]]]]>3]]>")); doc.first_child().set_value(STR("1]")); CHECK_NODE(doc, STR("")); doc.first_child().set_value(STR("1]]")); CHECK_NODE(doc, STR("")); } TEST_XML(write_cdata_inner, "") { CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR("\n"), STR(""), 0); } TEST(write_cdata_null) { xml_document doc; doc.append_child(node_cdata); doc.append_child(STR("node")).append_child(node_cdata); CHECK_NODE(doc, STR("")); } TEST_XML_FLAGS(write_comment, "", parse_comments | parse_fragment) { CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR("\n"), STR(""), 0); } TEST(write_comment_invalid) { xml_document doc; xml_node child = doc.append_child(node_comment); CHECK_NODE(doc, STR("")); child.set_value(STR("-")); CHECK_NODE(doc, STR("")); child.set_value(STR("--")); CHECK_NODE(doc, STR("")); child.set_value(STR("---")); CHECK_NODE(doc, STR("")); child.set_value(STR("-->")); CHECK_NODE(doc, STR("")); child.set_value(STR("-->-")); CHECK_NODE(doc, STR("")); } TEST(write_comment_null) { xml_document doc; doc.append_child(node_comment); CHECK_NODE(doc, STR("")); } TEST_XML_FLAGS(write_pi, "", parse_pi | parse_fragment) { CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR("\n"), STR(""), 0); } TEST(write_pi_null) { xml_document doc; xml_node node = doc.append_child(node_pi); CHECK_NODE(doc, STR("")); node.set_value(STR("value")); CHECK_NODE(doc, STR("")); } TEST(write_pi_invalid) { xml_document doc; xml_node node = doc.append_child(node_pi); node.set_name(STR("test")); node.set_value(STR("?")); CHECK_NODE(doc, STR("")); node.set_value(STR("?>")); CHECK_NODE(doc, STR("?>")); node.set_value(STR("")); CHECK_NODE(doc, STR("?>")); } TEST_XML_FLAGS(write_declaration, "", parse_declaration | parse_fragment) { CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR("\n"), STR(""), 0); } TEST_XML_FLAGS(write_doctype, "", parse_doctype | parse_fragment) { CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR("\n"), STR(""), 0); } TEST(write_doctype_null) { xml_document doc; doc.append_child(node_doctype); CHECK_NODE(doc, STR("")); } TEST_XML(write_escape, "text") { doc.child(STR("node")).attribute(STR("attr")) = STR("<>'\"&\x04\r\n\t"); doc.child(STR("node")).first_child().set_value(STR("<>'\"&\x04\r\n\t")); CHECK_NODE(doc, STR("<>'\"&\r\n\t")); } TEST_XML(write_escape_unicode, "") { #ifdef PUGIXML_WCHAR_MODE #ifdef U_LITERALS CHECK_NODE(doc, STR("")); #else CHECK_NODE(doc, STR("")); #endif #else CHECK_NODE(doc, STR("")); #endif } TEST_XML(write_no_escapes, "text") { doc.child(STR("node")).attribute(STR("attr")) = STR("<>'\"&\x04\r\n\t"); doc.child(STR("node")).first_child().set_value(STR("<>'\"&\x04\r\n\t")); CHECK_NODE_EX(doc, STR("'\"&\x04\r\n\t\"><>'\"&\x04\r\n\t"), STR(""), format_raw | format_no_escapes); } struct test_writer: xml_writer { std::basic_string contents; virtual void write(const void* data, size_t size) PUGIXML_OVERRIDE { CHECK(size % sizeof(char_t) == 0); contents.append(static_cast(data), size / sizeof(char_t)); } }; TEST_XML(write_print_writer, "") { test_writer writer; doc.print(writer, STR(""), format_default, get_native_encoding()); CHECK(writer.contents == STR("\n")); } #ifndef PUGIXML_NO_STL TEST_XML(write_print_stream, "") { std::ostringstream oss; doc.print(oss, STR(""), format_default, encoding_utf8); CHECK(oss.str() == "\n"); } TEST_XML(write_print_stream_encode, "") { std::ostringstream oss; doc.print(oss, STR(""), format_default, encoding_utf16_be); CHECK(oss.str() == std::string("\x00<\x00n\x00 \x00/\x00>\x00\n", 12)); } TEST_XML(write_print_stream_wide, "") { std::basic_ostringstream oss; doc.print(oss, STR(""), format_default, encoding_utf8); CHECK(oss.str() == L"\n"); } #endif TEST_XML(write_huge_chunk, "") { std::basic_string name(10000, STR('n')); doc.child(STR("node")).set_name(name.c_str()); test_writer writer; doc.print(writer, STR(""), format_default, get_native_encoding()); CHECK(writer.contents == STR("<") + name + STR(" />\n")); } TEST(write_encodings) { static char s_utf8[] = "<\x54\xC2\xA2\xE2\x82\xAC\xF0\xA4\xAD\xA2/>"; xml_document doc; CHECK(doc.load_buffer(s_utf8, sizeof(s_utf8), parse_default, encoding_utf8)); CHECK(write_narrow(doc, format_default, encoding_utf8) == "<\x54\xC2\xA2\xE2\x82\xAC\xF0\xA4\xAD\xA2 />\n"); CHECK(test_write_narrow(doc, format_default, encoding_utf32_le, "<\x00\x00\x00\x54\x00\x00\x00\xA2\x00\x00\x00\xAC\x20\x00\x00\x62\x4B\x02\x00 \x00\x00\x00/\x00\x00\x00>\x00\x00\x00\n\x00\x00\x00", 36)); CHECK(test_write_narrow(doc, format_default, encoding_utf32_be, "\x00\x00\x00<\x00\x00\x00\x54\x00\x00\x00\xA2\x00\x00\x20\xAC\x00\x02\x4B\x62\x00\x00\x00 \x00\x00\x00/\x00\x00\x00>\x00\x00\x00\n", 36)); CHECK(write_narrow(doc, format_default, encoding_utf32) == write_narrow(doc, format_default, is_little_endian() ? encoding_utf32_le : encoding_utf32_be)); CHECK(test_write_narrow(doc, format_default, encoding_utf16_le, "<\x00\x54\x00\xA2\x00\xAC\x20\x52\xd8\x62\xdf \x00/\x00>\x00\n\x00", 20)); CHECK(test_write_narrow(doc, format_default, encoding_utf16_be, "\x00<\x00\x54\x00\xA2\x20\xAC\xd8\x52\xdf\x62\x00 \x00/\x00>\x00\n", 20)); CHECK(write_narrow(doc, format_default, encoding_utf16) == write_narrow(doc, format_default, is_little_endian() ? encoding_utf16_le : encoding_utf16_be)); size_t wcharsize = sizeof(wchar_t); std::basic_string v = write_wide(doc, format_default, encoding_wchar); if (wcharsize == 4) { CHECK(v.size() == 9 && v[0] == '<' && v[1] == 0x54 && v[2] == 0xA2 && v[3] == 0x20AC && v[4] == wchar_cast(0x24B62) && v[5] == ' ' && v[6] == '/' && v[7] == '>' && v[8] == '\n'); } else { CHECK(v.size() == 10 && v[0] == '<' && v[1] == 0x54 && v[2] == 0xA2 && v[3] == 0x20AC && v[4] == wchar_cast(0xd852) && v[5] == wchar_cast(0xdf62) && v[6] == ' ' && v[7] == '/' && v[8] == '>' && v[9] == '\n'); } CHECK(test_write_narrow(doc, format_default, encoding_latin1, "<\x54\xA2?? />\n", 9)); } #ifdef PUGIXML_WCHAR_MODE TEST(write_encoding_huge) { const unsigned int N = 16000; // make a large utf16 name consisting of 6-byte char pairs (6 does not divide internal buffer size, so will need split correction) std::string s_utf16 = std::string("\x00<", 2); for (unsigned int i = 0; i < N; ++i) s_utf16 += "\x20\xAC\xd8\x52\xdf\x62"; s_utf16 += std::string("\x00/\x00>", 4); xml_document doc; CHECK(doc.load_buffer(&s_utf16[0], s_utf16.length(), parse_default, encoding_utf16_be)); std::string s_utf8 = "<"; for (unsigned int j = 0; j < N; ++j) s_utf8 += "\xE2\x82\xAC\xF0\xA4\xAD\xA2"; s_utf8 += " />\n"; CHECK(test_write_narrow(doc, format_default, encoding_utf8, s_utf8.c_str(), s_utf8.length())); } TEST(write_encoding_huge_invalid) { size_t wcharsize = sizeof(wchar_t); if (wcharsize == 2) { const unsigned int N = 16000; // make a large utf16 name consisting of leading surrogate chars std::basic_string s_utf16; for (unsigned int i = 0; i < N; ++i) s_utf16 += static_cast(0xd852); xml_document doc; doc.append_child().set_name(s_utf16.c_str()); CHECK(test_write_narrow(doc, format_default, encoding_utf8, "< />\n", 5)); } } #else TEST(write_encoding_huge) { const unsigned int N = 16000; // make a large utf8 name consisting of 3-byte chars (3 does not divide internal buffer size, so will need split correction) std::string s_utf8 = "<"; for (unsigned int i = 0; i < N; ++i) s_utf8 += "\xE2\x82\xAC"; s_utf8 += "/>"; xml_document doc; CHECK(doc.load_buffer(&s_utf8[0], s_utf8.length(), parse_default, encoding_utf8)); std::string s_utf16 = std::string("\x00<", 2); for (unsigned int j = 0; j < N; ++j) s_utf16 += "\x20\xAC"; s_utf16 += std::string("\x00 \x00/\x00>\x00\n", 8); CHECK(test_write_narrow(doc, format_default, encoding_utf16_be, s_utf16.c_str(), s_utf16.length())); } TEST(write_encoding_huge_invalid) { const unsigned int N = 16000; // make a large utf8 name consisting of non-leading chars std::string s_utf8; for (unsigned int i = 0; i < N; ++i) s_utf8 += "\x82"; xml_document doc; doc.append_child().set_name(s_utf8.c_str()); std::string s_utf16 = std::string("\x00<\x00 \x00/\x00>\x00\n", 10); CHECK(test_write_narrow(doc, format_default, encoding_utf16_be, s_utf16.c_str(), s_utf16.length())); } #endif TEST(write_unicode_escape) { char s_utf8[] = "<\xE2\x82\xAC \xC2\xA2='\"\xF0\xA4\xAD\xA2 \"'>&\x14\xF0\xA4\xAD\xA2<"; xml_document doc; CHECK(doc.load_buffer(s_utf8, sizeof(s_utf8), parse_default, encoding_utf8)); CHECK(write_narrow(doc, format_default, encoding_utf8) == "<\xE2\x82\xAC \xC2\xA2=\""\xF0\xA4\xAD\xA2 "\">&\xF0\xA4\xAD\xA2<\n"); } #ifdef PUGIXML_WCHAR_MODE static bool test_write_unicode_invalid(const wchar_t* name, const char* expected) { xml_document doc; doc.append_child(node_pcdata).set_value(name); return write_narrow(doc, format_raw, encoding_utf8) == expected; } TEST(write_unicode_invalid_utf16) { size_t wcharsize = sizeof(wchar_t); if (wcharsize == 2) { // check non-terminated degenerate handling #ifdef U_LITERALS CHECK(test_write_unicode_invalid(L"a\uda1d", "a")); CHECK(test_write_unicode_invalid(L"a\uda1d_", "a_")); #else CHECK(test_write_unicode_invalid(L"a\xda1d", "a")); CHECK(test_write_unicode_invalid(L"a\xda1d_", "a_")); #endif // check incorrect leading code #ifdef U_LITERALS CHECK(test_write_unicode_invalid(L"a\ude24", "a")); CHECK(test_write_unicode_invalid(L"a\ude24_", "a_")); #else CHECK(test_write_unicode_invalid(L"a\xde24", "a")); CHECK(test_write_unicode_invalid(L"a\xde24_", "a_")); #endif } } #else static bool test_write_unicode_invalid(const char* name, const wchar_t* expected) { xml_document doc; doc.append_child(node_pcdata).set_value(name); return write_wide(doc, format_raw, encoding_wchar) == expected; } TEST(write_unicode_invalid_utf8) { // invalid 1-byte input CHECK(test_write_unicode_invalid("a\xb0", L"a")); CHECK(test_write_unicode_invalid("a\xb0_", L"a_")); // invalid 2-byte input CHECK(test_write_unicode_invalid("a\xc0", L"a")); CHECK(test_write_unicode_invalid("a\xd0", L"a")); CHECK(test_write_unicode_invalid("a\xc0_", L"a_")); CHECK(test_write_unicode_invalid("a\xd0_", L"a_")); // invalid 3-byte input CHECK(test_write_unicode_invalid("a\xe2\x80", L"a")); CHECK(test_write_unicode_invalid("a\xe2", L"a")); CHECK(test_write_unicode_invalid("a\xe2\x80_", L"a_")); CHECK(test_write_unicode_invalid("a\xe2_", L"a_")); // invalid 4-byte input CHECK(test_write_unicode_invalid("a\xf2\x97\x98", L"a")); CHECK(test_write_unicode_invalid("a\xf2\x97", L"a")); CHECK(test_write_unicode_invalid("a\xf2", L"a")); CHECK(test_write_unicode_invalid("a\xf2\x97\x98_", L"a_")); CHECK(test_write_unicode_invalid("a\xf2\x97_", L"a_")); CHECK(test_write_unicode_invalid("a\xf2_", L"a_")); // invalid 5-byte input CHECK(test_write_unicode_invalid("a\xf8_", L"a_")); } #endif TEST(write_no_name_element) { xml_document doc; xml_node root = doc.append_child(); root.append_child(); root.append_child().append_child(node_pcdata).set_value(STR("text")); CHECK_NODE(doc, STR("<:anonymous><:anonymous/><:anonymous>text")); CHECK_NODE_EX(doc, STR("<:anonymous>\n\t<:anonymous />\n\t<:anonymous>text\n\n"), STR("\t"), format_default); } TEST(write_no_name_pi) { xml_document doc; doc.append_child(node_pi); CHECK_NODE(doc, STR("")); } TEST(write_no_name_attribute) { xml_document doc; doc.append_child().set_name(STR("root")); doc.child(STR("root")).append_attribute(STR("")); CHECK_NODE(doc, STR("")); } TEST(write_print_empty) { test_writer writer; xml_node().print(writer); } #ifndef PUGIXML_NO_STL TEST(write_print_stream_empty) { std::ostringstream oss; xml_node().print(oss); } TEST(write_print_stream_empty_wide) { std::basic_ostringstream oss; xml_node().print(oss); } #endif TEST(write_stackless) { unsigned int count = 20000; std::basic_string data; for (unsigned int i = 0; i < count; ++i) data += STR(""); data += STR("text"); for (unsigned int j = 0; j < count; ++j) data += STR(""); xml_document doc; CHECK(doc.load_string(data.c_str())); CHECK_NODE(doc, data.c_str()); } TEST_XML(write_indent_custom, "text") { CHECK_NODE_EX(doc, STR("\n\ntext\n\n\n"), STR(""), format_indent); CHECK_NODE_EX(doc, STR("\nA\nAAtext\nA\n\n"), STR("A"), format_indent); CHECK_NODE_EX(doc, STR("\nAB\nABABtext\nAB\n\n"), STR("AB"), format_indent); CHECK_NODE_EX(doc, STR("\nABC\nABCABCtext\nABC\n\n"), STR("ABC"), format_indent); CHECK_NODE_EX(doc, STR("\nABCD\nABCDABCDtext\nABCD\n\n"), STR("ABCD"), format_indent); CHECK_NODE_EX(doc, STR("\nABCDE\nABCDEABCDEtext\nABCDE\n\n"), STR("ABCDE"), format_indent); } TEST(write_pcdata_null) { xml_document doc; doc.append_child(STR("node")).append_child(node_pcdata); CHECK_NODE(doc, STR("")); CHECK_NODE_EX(doc, STR("\n"), STR("\t"), format_indent); doc.first_child().append_child(node_pcdata); CHECK_NODE_EX(doc, STR("\n"), STR("\t"), format_indent); } TEST(write_pcdata_whitespace_fixedpoint) { const char_t* data = STR(" test \n \n \n"); static const unsigned int flags_parse[] = { 0, parse_ws_pcdata, parse_ws_pcdata_single, parse_trim_pcdata }; static const unsigned int flags_format[] = { 0, format_raw, format_indent }; for (unsigned int i = 0; i < sizeof(flags_parse) / sizeof(flags_parse[0]); ++i) { xml_document doc; CHECK(doc.load_string(data, flags_parse[i])); for (unsigned int j = 0; j < sizeof(flags_format) / sizeof(flags_format[0]); ++j) { std::string saved = write_narrow(doc, flags_format[j], encoding_auto); xml_document rdoc; CHECK(rdoc.load_buffer(&saved[0], saved.size(), flags_parse[i])); std::string rsaved = write_narrow(rdoc, flags_format[j], encoding_auto); CHECK(saved == rsaved); } } } TEST_XML_FLAGS(write_mixed, "premidpostfin", parse_full) { CHECK_NODE(doc, STR("premidpostfin")); CHECK_NODE_EX(doc, STR("\n\npremid\npostfin\n\n\n"), STR("\t"), 0); CHECK_NODE_EX(doc, STR("\n\t\n\tpremid\n\t\tpostfin\n\t\n\n"), STR("\t"), format_indent); } TEST_XML(write_no_empty_element_tags, "text") { CHECK_NODE(doc, STR("text")); CHECK_NODE_EX(doc, STR("text"), STR("\t"), format_raw | format_no_empty_element_tags); CHECK_NODE_EX(doc, STR("\n\t\n\ttext\n\t\n\n"), STR("\t"), format_indent | format_no_empty_element_tags); } TEST_XML_FLAGS(write_roundtrip, "premid<text&escapepostfin", parse_full) { const unsigned int flagset[] = { format_indent, format_raw, format_no_declaration, format_indent_attributes, format_no_empty_element_tags }; size_t flagcount = sizeof(flagset) / sizeof(flagset[0]); for (size_t i = 0; i < (size_t(1) << flagcount); ++i) { unsigned int flags = 0; for (size_t j = 0; j < flagcount; ++j) if (i & (size_t(1) << j)) flags |= flagset[j]; std::string contents = write_narrow(doc, flags, encoding_utf8); xml_document verify; CHECK(verify.load_buffer(contents.c_str(), contents.size(), parse_full)); CHECK(test_write_narrow(verify, flags, encoding_utf8, contents.c_str(), contents.size())); xml_document verifyws; CHECK(verifyws.load_buffer(contents.c_str(), contents.size(), parse_full | parse_ws_pcdata)); CHECK(test_write_narrow(verifyws, flags, encoding_utf8, contents.c_str(), contents.size())); } } TEST(write_flush_coverage) { xml_document doc; // this creates a node that uses short sequences of lengths 1-6 for output xml_node n = doc.append_child(STR("n")); xml_attribute a = n.append_attribute(STR("a")); xml_attribute b = n.append_attribute(STR("b")); b.set_value(STR("<&\"")); n.append_child(node_comment); size_t basel = save_narrow(doc, format_raw, encoding_auto).size(); size_t bufl = 2048; for (size_t l = 0; l <= basel; ++l) { std::basic_string pad(bufl - l, STR('v')); a.set_value(pad.c_str()); std::string s = save_narrow(doc, format_raw, encoding_auto); CHECK(s.size() == basel + bufl - l); } } #ifndef PUGIXML_NO_EXCEPTIONS struct throwing_writer: xml_writer { virtual void write(const void*, size_t) PUGIXML_OVERRIDE { throw std::runtime_error("write failed"); } }; TEST_XML(write_throw_simple, "") { try { throwing_writer w; doc.print(w); CHECK_FORCE_FAIL("Expected exception"); } catch (std::runtime_error&) { } } TEST_XML(write_throw_encoding, "") { try { throwing_writer w; doc.print(w, STR("\t"), format_default, encoding_utf32_be); CHECK_FORCE_FAIL("Expected exception"); } catch (std::runtime_error&) { } } #endif