/* -*- Mode: C++; tab-width: 4; indent-tabs-mode: nil; c-basic-offset: 4 -*- */ /* * This file is part of the LibreOffice project. * * This Source Code Form is subject to the terms of the Mozilla Public * License, v. 2.0. If a copy of the MPL was not distributed with this * file, You can obtain one at http://mozilla.org/MPL/2.0/. */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include // component-data is encoded in dconf as follows: // // * The node hierarchy (starting at component nodes with names like // "org.openoffice.Setup") maps to dconf paths underneath // "/org/libreoffice/registry/". // // * Component, group, set, and localized property nodes map to dconf dirs // (except for removal of set elements, see below), while property and // localized value nodes map to dconf keys. // // * The names of nodes that are not set elements are used directly as dconf // path segments. (The syntax for node names is any non-empty sequences of // any Unicode scalar values except U+0000--0008, U+000B--000C, U+000E--001F, // U+002F SOLIDUS, and U+FFFE--FFFF. TODO: " sberg, in general I think // it'd be nice if you used path separators instead of dots though, they have // meaning in dconf/gvdb world :-)"?) // // * Set element "fuse" and "replace" operations are encoded as dconf path // segments as concatenations // // N ; T ; O // // where ";" represents U+003B SEMICOLON; N is an encoding of the node name, // where each occurrence of U+0000 NULL is replace by the three characters // "\00", each occurrence of U+002F SOLIDUS is replaced by the three // characters "\2F", each occurrence of U+003B SEMICOLON is replaced by the // three characters "\3B", and each ocurrence of U+005C REVERSE SOLIDUS is // replaced by the three characters "\5C"; T is an encoding of the full // template name, where each occurrence of U+002F SOLIDUS is replaced by the // three characters "\2F", each occurrence of U+003B SEMICOLON is replaced by // the three characters "\3B", and each ocurrence of U+005C REVERSE SOLIDUS is // replaced by the three characters "\5C"; and O is "fuse" or "replace", // respectively. // // * Set element and property "remove" operations are encoded as dconf key path // segments as follows, and the associated value being a GVariant of empty // tuple type. For set elements, the dconf key path segment consists of an // encoding of the node name, where each occurrence of U+0000 NULL is replace // by the three characters "\00", each occurrence of U+002F SOLIDUS is // replaced by the three characters "\2F", and each ocurrence of U+005C // REVERSE SOLIDUS is replaced by the three characters "\5C". For properties, // the dconf key path segment directly uses the node name. // // * Property and localized property value "fuse" operations map to GVariant // instances as follows: // // ** Non-nillable boolean values map to GVariant boolean instances. // // ** Non-nillable short values map to GVariant int16 instances. // // ** Non-nillable int values map to GVariant int32 instances. // // ** Non-nillable long values map to GVariant int64 instances. // // ** Non-nillable double values map to GVariant double instances. // // ** Non-nillable string values map to GVariant string instances, with the // following encoding: each occurrence of U+0000 NULL is replace by the three // characters "\00" and each occurrence of U+005C REVERSE SOLIDUS is replaced // by the three characters "\5C". // // ** Non-nillable hexbinary values map to GVariant byte array instances. // // ** Non-nillable list values recursively map to GVariant array instances. // // ** Nillable values recursively map to GVariant maybe instances. // // Finalization: The component-update.dtd allows for finalization of // oor:component-data, node, and prop elements, while dconf allows for locking // of individual keys. That does not match, but just mark the individual Node // instances that correspond to individual dconf keys as finalized for // non-writable dconf keys. // // TODO: support "mandatory" and "external"? namespace configmgr { namespace dconf { namespace { template class GObjectHolder { public: explicit GObjectHolder(T * object): object_(object) {} ~GObjectHolder() { if (object_ != nullptr) { g_object_unref(object_); } } T * get() const { return object_; } private: GObjectHolder(GObjectHolder &) = delete; void operator =(GObjectHolder) = delete; T * object_; }; class GVariantHolder { public: explicit GVariantHolder(GVariant * variant): variant_(variant) {} ~GVariantHolder() { unref(); } void reset(GVariant * variant) { unref(); variant_ = variant; } GVariant * get() const { return variant_; } private: GVariantHolder(GVariantHolder &) = delete; void operator =(GVariantHolder) = delete; void unref() { if (variant_ != nullptr) { g_variant_unref(variant_); } } GVariant * variant_; }; class StringArrayHolder { public: explicit StringArrayHolder(gchar ** array): array_(array) {} ~StringArrayHolder() { g_strfreev(array_); } gchar ** get() const { return array_; } private: StringArrayHolder(StringArrayHolder &) = delete; void operator =(StringArrayHolder) = delete; gchar ** array_; }; bool decode(OUString * string, bool nul, bool slash, bool semicolon) { for (sal_Int32 i = 0;; ++i) { i = string->indexOf('\\', i); if (i == -1) { return true; } if (nul && string->match("00", i + 1)) { *string = string->replaceAt(i, 3, OUString(sal_Unicode(0))); } else if (slash && string->match("2F", i + 1)) { *string = string->replaceAt(i, 3, "/"); } else if (semicolon && string->match("3B", i + 1)) { *string = string->replaceAt(i, 3, ";"); } else if (string->match("5C", i + 1)) { *string = string->replaceAt(i + 1, 2, ""); } else { SAL_WARN("configmgr.dconf", "bad escape in " << *string); return false; } } } bool getBoolean( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (!g_variant_is_of_type(variant.get(), G_VARIANT_TYPE_BOOLEAN)) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match boolean property"); return false; } *value <<= bool(g_variant_get_boolean(variant.get())); return true; } bool getShort( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (!g_variant_is_of_type(variant.get(), G_VARIANT_TYPE_INT16)) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match short property"); return false; } *value <<= sal_Int16(g_variant_get_int16(variant.get())); return true; } bool getInt( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (!g_variant_is_of_type(variant.get(), G_VARIANT_TYPE_INT32)) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match int property"); return false; } *value <<= sal_Int32(g_variant_get_int32(variant.get())); return true; } bool getLong( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (!g_variant_is_of_type(variant.get(), G_VARIANT_TYPE_INT64)) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match long property"); return false; } *value <<= sal_Int64(g_variant_get_int64(variant.get())); return true; } bool getDouble( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (!g_variant_is_of_type(variant.get(), G_VARIANT_TYPE_DOUBLE)) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match double property"); return false; } *value <<= double(g_variant_get_double(variant.get())); return true; } bool getStringValue( OString const & key, GVariantHolder const & variant, OUString * value) { assert(value != nullptr); if (!g_variant_is_of_type(variant.get(), G_VARIANT_TYPE_STRING)) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match string property"); return false; } gsize n; char const * p = g_variant_get_string(variant.get(), &n); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long string value for key " << key); return false; } if (!rtl_convertStringToUString( &value->pData, p, static_cast(n), RTL_TEXTENCODING_UTF8, (RTL_TEXTTOUNICODE_FLAGS_UNDEFINED_ERROR | RTL_TEXTTOUNICODE_FLAGS_MBUNDEFINED_ERROR | RTL_TEXTTOUNICODE_FLAGS_INVALID_ERROR))) { SAL_WARN("configmgr.dconf", "non--UTF-8 string value for key " << key); return false; } return decode(value, true, false, false); } bool getString( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); OUString v; if (!getStringValue(key, variant, &v)) { return false; } *value <<= v; return true; } bool getHexbinaryValue( OString const & key, GVariantHolder const & variant, css::uno::Sequence * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "ay") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match hexbinary property"); return false; } gsize n; gconstpointer p = g_variant_get_fixed_array( variant.get(), &n, sizeof (guchar)); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long hexbinary value for key " << key); return false; } value->realloc(static_cast(n)); static_assert(sizeof (sal_Int8) == sizeof (guchar), "size mismatch"); std::memcpy(value->getArray(), p, n * sizeof (guchar)); // assuming that n * sizeof (guchar) is small enough for std::size_t return true; } bool getHexbinary( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); css::uno::Sequence v; if (!getHexbinaryValue(key, variant, &v)) { return false; } *value <<= v; return true; } bool getBooleanList( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "ab") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match boolean list property"); return false; } gsize n; gconstpointer p = g_variant_get_fixed_array( variant.get(), &n, sizeof (guchar)); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long boolean list for key " << key); return false; } css::uno::Sequence v(static_cast(n)); static_assert(sizeof (sal_Bool) == sizeof (guchar), "size mismatch"); std::memcpy(v.getArray(), p, n * sizeof (guchar)); // assuming that n * sizeof (guchar) is small enough for std::size_t *value <<= v; return true; } bool getShortList( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "an") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match short list property"); return false; } gsize n; gconstpointer p = g_variant_get_fixed_array( variant.get(), &n, sizeof (gint16)); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long short list for key " << key); return false; } css::uno::Sequence v(static_cast(n)); static_assert(sizeof (sal_Int16) == sizeof (gint16), "size mismatch"); std::memcpy(v.getArray(), p, n * sizeof (gint16)); // assuming that n * sizeof (gint16) is small enough for std::size_t *value <<= v; return true; } bool getIntList( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "ai") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match int list property"); return false; } gsize n; gconstpointer p = g_variant_get_fixed_array( variant.get(), &n, sizeof (gint32)); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long int list for key " << key); return false; } css::uno::Sequence v(static_cast(n)); static_assert(sizeof (sal_Int32) == sizeof (gint32), "size mismatch"); std::memcpy(v.getArray(), p, n * sizeof (gint32)); // assuming that n * sizeof (gint32) is small enough for std::size_t *value <<= v; return true; } bool getLongList( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "ax") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match long list property"); return false; } gsize n; gconstpointer p = g_variant_get_fixed_array( variant.get(), &n, sizeof (gint64)); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long long list for key " << key); return false; } css::uno::Sequence v(static_cast(n)); static_assert(sizeof (sal_Int64) == sizeof (gint64), "size mismatch"); std::memcpy(v.getArray(), p, n * sizeof (gint64)); // assuming that n * sizeof (gint64) is small enough for std::size_t *value <<= v; return true; } bool getDoubleList( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "ad") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match double list property"); return false; } gsize n; gconstpointer p = g_variant_get_fixed_array( variant.get(), &n, sizeof (gdouble)); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long double list for key " << key); return false; } css::uno::Sequence v(static_cast(n)); static_assert(std::is_same::value, "type mismatch"); std::memcpy(v.getArray(), p, n * sizeof (gdouble)); // assuming that n * sizeof (gdouble) is small enough for std::size_t *value <<= v; return true; } bool getStringList( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "as") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match string list property"); return false; } gsize n = g_variant_n_children(variant.get()); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long string list for key " << key); return false; } css::uno::Sequence v(static_cast(n)); for (gsize i = 0; i != n; ++i) { GVariantHolder c(g_variant_get_child_value(variant.get(), i)); if (!getStringValue(key, c, v.getArray() + i)) { return false; } } *value <<= v; return true; } bool getHexbinaryList( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { assert(value != nullptr); if (std::strcmp(g_variant_get_type_string(variant.get()), "aay") != 0) { SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match hexbinary list property"); return false; } gsize n = g_variant_n_children(variant.get()); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long hexbinary list for key " << key); return false; } css::uno::Sequence> v( static_cast(n)); for (gsize i = 0; i != n; ++i) { GVariantHolder c(g_variant_get_child_value(variant.get(), i)); if (!getHexbinaryValue(key, c, v.getArray() + i)) { return false; } } *value <<= v; return true; } bool getAny( OString const & key, GVariantHolder const & variant, css::uno::Any * value) { char const * t = g_variant_get_type_string(variant.get()); if (std::strcmp(t, "b") == 0) { return getBoolean(key, variant, value); } if (std::strcmp(t, "n") == 0) { return getShort(key, variant, value); } if (std::strcmp(t, "i") == 0) { return getInt(key, variant, value); } if (std::strcmp(t, "x") == 0) { return getLong(key, variant, value); } if (std::strcmp(t, "d") == 0) { return getDouble(key, variant, value); } if (std::strcmp(t, "s") == 0) { return getString(key, variant, value); } if (std::strcmp(t, "ay") == 0) { return getHexbinary(key, variant, value); } if (std::strcmp(t, "ab") == 0) { return getBooleanList(key, variant, value); } if (std::strcmp(t, "an") == 0) { return getShortList(key, variant, value); } if (std::strcmp(t, "ai") == 0) { return getIntList(key, variant, value); } if (std::strcmp(t, "ax") == 0) { return getLongList(key, variant, value); } if (std::strcmp(t, "ad") == 0) { return getDoubleList(key, variant, value); } if (std::strcmp(t, "as") == 0) { return getStringList(key, variant, value); } if (std::strcmp(t, "aay") == 0) { return getHexbinaryList(key, variant, value); } SAL_WARN( "configmgr.dconf", "bad key " << key << " does not match any property"); return false; } enum class ReadValue { Error, Value, Remove }; ReadValue readValue( GObjectHolder const & client, OString const & path, Type type, bool nillable, bool removable, css::uno::Any * value) { assert(value != nullptr); assert(!value->hasValue()); assert(!path.endsWith("/")); GVariantHolder v(dconf_client_read(client.get(), path.getStr())); if (v.get() == nullptr) { SAL_WARN("configmgr.dconf", "cannot read key " << path); return ReadValue::Error; } if (removable && std::strcmp(g_variant_get_type_string(v.get()), "()") == 0) { return ReadValue::Remove; } bool nil; if (nillable) { if (g_variant_classify(v.get()) != G_VARIANT_CLASS_MAYBE) { SAL_WARN( "configmgr.dconf", "bad key " << path << " does not match nillable property"); } v.reset(g_variant_get_maybe(v.get())); nil = v.get() == nullptr; } else { nil = false; } if (!nil) { switch (type) { case TYPE_ANY: if (!getAny(path, v, value)) { return ReadValue::Error; } break; case TYPE_BOOLEAN: if (!getBoolean(path, v, value)) { return ReadValue::Error; } break; case TYPE_SHORT: if (!getShort(path, v, value)) { return ReadValue::Error; } break; case TYPE_INT: if (!getInt(path, v, value)) { return ReadValue::Error; } break; case TYPE_LONG: if (!getLong(path, v, value)) { return ReadValue::Error; } break; case TYPE_DOUBLE: if (!getDouble(path, v, value)) { return ReadValue::Error; } break; case TYPE_STRING: if (!getString(path, v, value)) { return ReadValue::Error; } break; case TYPE_HEXBINARY: if (!getHexbinary(path, v, value)) { return ReadValue::Error; } break; case TYPE_BOOLEAN_LIST: if (!getBooleanList(path, v, value)) { return ReadValue::Error; } break; case TYPE_SHORT_LIST: if (!getShortList(path, v, value)) { return ReadValue::Error; } break; case TYPE_INT_LIST: if (!getIntList(path, v, value)) { return ReadValue::Error; } break; case TYPE_LONG_LIST: if (!getLongList(path, v, value)) { return ReadValue::Error; } break; case TYPE_DOUBLE_LIST: if (!getDoubleList(path, v, value)) { return ReadValue::Error; } break; case TYPE_STRING_LIST: if (!getStringList(path, v, value)) { return ReadValue::Error; } break; case TYPE_HEXBINARY_LIST: if (!getHexbinaryList(path, v, value)) { return ReadValue::Error; } break; default: assert(false); // cannot happen } } return ReadValue::Value; } void finalize( GObjectHolder const & client, OString const & path, rtl::Reference & node, int layer) { if (!dconf_client_is_writable(client.get(), path.getStr())) { node->setFinalized(layer); } } void readDir( Data & data, int layer, rtl::Reference const & node, NodeMap & members, GObjectHolder const & client, OString const & dir) { StringArrayHolder a(dconf_client_list(client.get(), dir.getStr(), nullptr)); for (char const * const * p = a.get(); *p != nullptr; ++p) { std::size_t n = std::strlen(*p); if (n > static_cast::type>( std::numeric_limits::max())) { SAL_WARN("configmgr.dconf", "too long dir/key in dir " << dir); continue; } OString s(*p, static_cast(n)); OString path(dir + s); OUString seg; if (!rtl_convertStringToUString( &seg.pData, s.getStr(), s.getLength(), RTL_TEXTENCODING_UTF8, (RTL_TEXTTOUNICODE_FLAGS_UNDEFINED_ERROR | RTL_TEXTTOUNICODE_FLAGS_MBUNDEFINED_ERROR | RTL_TEXTTOUNICODE_FLAGS_INVALID_ERROR))) { SAL_WARN("configmgr.dconf", "non--UTF-8 dir/key in dir " << dir); continue; } bool isDir = seg.endsWith("/", &seg); bool remove; OUString name; OUString templ; bool replace; if (node.is() && node->kind() == Node::KIND_SET) { if (isDir) { remove = false; sal_Int32 i1 = seg.indexOf(';'); if (i1 == -1) { SAL_WARN( "configmgr.dconf", "bad set element syntax " << path); continue; } name = seg.copy(0, i1); if (!decode(&name, true, true, true)) { continue; } ++i1; sal_Int32 i2 = seg.indexOf(';', i1); if (i2 == -1) { SAL_WARN( "configmgr.dconf", "bad set element syntax " << path); continue; } templ = seg.copy(i1, i2 - i1); if (!decode(&templ, false, true, true)) { continue; } ++i2; if (rtl_ustr_asciil_reverseCompare_WithLength( seg.getStr() + i2, seg.getLength() - i2, "fuse", std::strlen("fuse")) == 0) { replace = false; } else if (rtl_ustr_asciil_reverseCompare_WithLength( seg.getStr() + i2, seg.getLength() - i2, "replace", std::strlen("replace")) == 0) { replace = true; } else { SAL_WARN( "configmgr.dconf", "bad set element syntax " << path); continue; } rtl::Reference set(static_cast(node.get())); if (!set->isValidTemplate(templ)) { SAL_WARN( "configmgr.dconf", "bad " << path << " denotes unsupported set element template"); continue; } } else { remove = true; name = seg; if (!decode(&name, true, true, false)) { continue; } replace = false; assert(!path.endsWith("/")); GVariantHolder v( dconf_client_read(client.get(), path.getStr())); if (v.get() == nullptr) { SAL_WARN("configmgr.dconf", "cannot read key " << path); continue; } if (std::strcmp(g_variant_get_type_string(v.get()), "()") != 0) { SAL_WARN( "configmgr.dconf", "bad " << path << " does not denote set element removal"); continue; } } } else { remove = false; name = seg; replace = false; } rtl::Reference member(members.findNode(layer, name)); bool insert = !member.is(); if (!remove) { if (replace || insert) { if (!node.is()) { SAL_WARN("configmgr.dconf", "bad unmatched " << path); continue; } switch (node->kind()) { case Node::KIND_LOCALIZED_PROPERTY: member.set(new LocalizedValueNode(layer)); break; case Node::KIND_GROUP: if (!static_cast(node.get())->isExtensible()) { SAL_WARN("configmgr.dconf", "bad unmatched " << path); continue; } member.set( new PropertyNode( layer, TYPE_ANY, true, css::uno::Any(), true)); break; case Node::KIND_SET: assert(!templ.isEmpty()); member = data.getTemplate(layer, templ); if (!member.is()) { SAL_WARN( "configmgr.dconf", "bad " << path << " denoting undefined template " << templ); continue; } break; default: assert(false); // cannot happen } } else if (!templ.isEmpty() && templ != member->getTemplateName()) { SAL_WARN( "configmgr.dconf", "bad " << path << " denoting set element of non-matching template " << member->getTemplateName()); continue; } } if (member.is()) { if (member->getFinalized() < layer) { continue; } switch (member->kind()) { case Node::KIND_PROPERTY: { if (isDir) { SAL_WARN( "configmgr.dconf", "bad dir " << path << " does not match property"); continue; } rtl::Reference prop( static_cast(member.get())); css::uno::Any value; switch (readValue( client, path, prop->getStaticType(), prop->isNillable(), prop->isExtension(), &value)) { case ReadValue::Error: continue; case ReadValue::Value: prop->setValue(layer, value); finalize(client, path, member, layer); break; case ReadValue::Remove: remove = true; break; } break; } case Node::KIND_LOCALIZED_VALUE: { if (isDir) { SAL_WARN( "configmgr.dconf", "bad dir " << path << " does not match localized value"); continue; } assert( node.is() && node->kind() == Node::KIND_LOCALIZED_PROPERTY); rtl::Reference locProp( static_cast(node.get())); css::uno::Any value; if (readValue( client, path, locProp->getStaticType(), locProp->isNillable(), false, &value) == ReadValue::Error) { continue; } static_cast(member.get())->setValue( layer, value); finalize(client, path, member, layer); break; } case Node::KIND_LOCALIZED_PROPERTY: case Node::KIND_GROUP: case Node::KIND_SET: if (!isDir) { SAL_WARN( "configmgr.dconf", "bad key " << path << " does not match localized property, group, or" " set, respectively"); continue; } assert(path.endsWith("/")); readDir( data, layer, member, member->getMembers(), client, path); break; default: assert(false); // cannot happen } } if (remove) { if (!(member.is() && member->getMandatory())) { members.erase(name); } } else if (replace) { members.erase(name); members.insert(NodeMap::value_type(name, member)); } else if (insert) { members.insert(NodeMap::value_type(name, member)); } } } } void readLayer(Data & data, int layer) { GObjectHolder client(dconf_client_new()); readDir( data, layer, rtl::Reference(), data.getComponents(), client, "/org/libreoffice/registry/"); } } } /* vim:set shiftwidth=4 softtabstop=4 expandtab: */