/* * synergy -- mouse and keyboard sharing utility * Copyright (C) 2012 Bolton Software Ltd. * Copyright (C) 2002 Chris Schoeneman * * This package is free software; you can redistribute it and/or * modify it under the terms of the GNU General Public License * found in the file COPYING that should have accompanied this file. * * This package is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program. If not, see . */ #include "server/Config.h" #include "server/Server.h" #include "synergy/KeyMap.h" #include "synergy/key_types.h" #include "net/XSocket.h" #include "base/IEventQueue.h" #include "common/stdistream.h" #include "common/stdostream.h" #include using namespace synergy::string; // // Config // Config::Config(IEventQueue* events) : m_inputFilter(events), m_hasLockToScreenAction(false), m_events(events) { // do nothing } Config::~Config() { // do nothing } bool Config::addScreen(const String& name) { // alias name must not exist if (m_nameToCanonicalName.find(name) != m_nameToCanonicalName.end()) { return false; } // add cell m_map.insert(std::make_pair(name, Cell())); // add name m_nameToCanonicalName.insert(std::make_pair(name, name)); return true; } bool Config::renameScreen(const String& oldName, const String& newName) { // get canonical name and find cell String oldCanonical = getCanonicalName(oldName); CellMap::iterator index = m_map.find(oldCanonical); if (index == m_map.end()) { return false; } // accept if names are equal but replace with new name to maintain // case. otherwise, the new name must not exist. if (!CaselessCmp::equal(oldName, newName) && m_nameToCanonicalName.find(newName) != m_nameToCanonicalName.end()) { return false; } // update cell Cell tmpCell = index->second; m_map.erase(index); m_map.insert(std::make_pair(newName, tmpCell)); // update name m_nameToCanonicalName.erase(oldCanonical); m_nameToCanonicalName.insert(std::make_pair(newName, newName)); // update connections Name oldNameObj(this, oldName); for (index = m_map.begin(); index != m_map.end(); ++index) { index->second.rename(oldNameObj, newName); } // update alias targets if (CaselessCmp::equal(oldName, oldCanonical)) { for (NameMap::iterator iter = m_nameToCanonicalName.begin(); iter != m_nameToCanonicalName.end(); ++iter) { if (CaselessCmp::equal( iter->second, oldCanonical)) { iter->second = newName; } } } return true; } void Config::removeScreen(const String& name) { // get canonical name and find cell String canonical = getCanonicalName(name); CellMap::iterator index = m_map.find(canonical); if (index == m_map.end()) { return; } // remove from map m_map.erase(index); // disconnect Name nameObj(this, name); for (index = m_map.begin(); index != m_map.end(); ++index) { index->second.remove(nameObj); } // remove aliases (and canonical name) for (NameMap::iterator iter = m_nameToCanonicalName.begin(); iter != m_nameToCanonicalName.end(); ) { if (iter->second == canonical) { m_nameToCanonicalName.erase(iter++); } else { ++index; } } } void Config::removeAllScreens() { m_map.clear(); m_nameToCanonicalName.clear(); } bool Config::addAlias(const String& canonical, const String& alias) { // alias name must not exist if (m_nameToCanonicalName.find(alias) != m_nameToCanonicalName.end()) { return false; } // canonical name must be known if (m_map.find(canonical) == m_map.end()) { return false; } // insert alias m_nameToCanonicalName.insert(std::make_pair(alias, canonical)); return true; } bool Config::removeAlias(const String& alias) { // must not be a canonical name if (m_map.find(alias) != m_map.end()) { return false; } // find alias NameMap::iterator index = m_nameToCanonicalName.find(alias); if (index == m_nameToCanonicalName.end()) { return false; } // remove alias m_nameToCanonicalName.erase(index); return true; } bool Config::removeAliases(const String& canonical) { // must be a canonical name if (m_map.find(canonical) == m_map.end()) { return false; } // find and removing matching aliases for (NameMap::iterator index = m_nameToCanonicalName.begin(); index != m_nameToCanonicalName.end(); ) { if (index->second == canonical && index->first != canonical) { m_nameToCanonicalName.erase(index++); } else { ++index; } } return true; } void Config::removeAllAliases() { // remove all names m_nameToCanonicalName.clear(); // put the canonical names back in for (CellMap::iterator index = m_map.begin(); index != m_map.end(); ++index) { m_nameToCanonicalName.insert( std::make_pair(index->first, index->first)); } } bool Config::connect(const String& srcName, EDirection srcSide, float srcStart, float srcEnd, const String& dstName, float dstStart, float dstEnd) { assert(srcSide >= kFirstDirection && srcSide <= kLastDirection); // find source cell CellMap::iterator index = m_map.find(getCanonicalName(srcName)); if (index == m_map.end()) { return false; } // add link CellEdge srcEdge(srcSide, Interval(srcStart, srcEnd)); CellEdge dstEdge(dstName, srcSide, Interval(dstStart, dstEnd)); return index->second.add(srcEdge, dstEdge); } bool Config::disconnect(const String& srcName, EDirection srcSide) { assert(srcSide >= kFirstDirection && srcSide <= kLastDirection); // find source cell CellMap::iterator index = m_map.find(srcName); if (index == m_map.end()) { return false; } // disconnect side index->second.remove(srcSide); return true; } bool Config::disconnect(const String& srcName, EDirection srcSide, float position) { assert(srcSide >= kFirstDirection && srcSide <= kLastDirection); // find source cell CellMap::iterator index = m_map.find(srcName); if (index == m_map.end()) { return false; } // disconnect side index->second.remove(srcSide, position); return true; } void Config::setSynergyAddress(const NetworkAddress& addr) { m_synergyAddress = addr; } bool Config::addOption(const String& name, OptionID option, OptionValue value) { // find options ScreenOptions* options = NULL; if (name.empty()) { options = &m_globalOptions; } else { CellMap::iterator index = m_map.find(name); if (index != m_map.end()) { options = &index->second.m_options; } } if (options == NULL) { return false; } // add option options->insert(std::make_pair(option, value)); return true; } bool Config::removeOption(const String& name, OptionID option) { // find options ScreenOptions* options = NULL; if (name.empty()) { options = &m_globalOptions; } else { CellMap::iterator index = m_map.find(name); if (index != m_map.end()) { options = &index->second.m_options; } } if (options == NULL) { return false; } // remove option options->erase(option); return true; } bool Config::removeOptions(const String& name) { // find options ScreenOptions* options = NULL; if (name.empty()) { options = &m_globalOptions; } else { CellMap::iterator index = m_map.find(name); if (index != m_map.end()) { options = &index->second.m_options; } } if (options == NULL) { return false; } // remove options options->clear(); return true; } bool Config::isValidScreenName(const String& name) const { // name is valid if matches validname // name ::= [_A-Za-z0-9] | [_A-Za-z0-9][-_A-Za-z0-9]*[_A-Za-z0-9] // domain ::= . name // validname ::= name domain* // we also accept names ending in . because many OS X users have // so misconfigured their systems. // empty name is invalid if (name.empty()) { return false; } // check each dot separated part String::size_type b = 0; for (;;) { // accept trailing . if (b == name.size()) { break; } // find end of part String::size_type e = name.find('.', b); if (e == String::npos) { e = name.size(); } // part may not be empty if (e - b < 1) { return false; } // check first and last characters if (!(isalnum(name[b]) || name[b] == '_') || !(isalnum(name[e - 1]) || name[e - 1] == '_')) { return false; } // check interior characters for (String::size_type i = b; i < e; ++i) { if (!isalnum(name[i]) && name[i] != '_' && name[i] != '-') { return false; } } // next part if (e == name.size()) { // no more parts break; } b = e + 1; } return true; } Config::const_iterator Config::begin() const { return const_iterator(m_map.begin()); } Config::const_iterator Config::end() const { return const_iterator(m_map.end()); } Config::all_const_iterator Config::beginAll() const { return m_nameToCanonicalName.begin(); } Config::all_const_iterator Config::endAll() const { return m_nameToCanonicalName.end(); } bool Config::isScreen(const String& name) const { return (m_nameToCanonicalName.count(name) > 0); } bool Config::isCanonicalName(const String& name) const { return (!name.empty() && CaselessCmp::equal(getCanonicalName(name), name)); } String Config::getCanonicalName(const String& name) const { NameMap::const_iterator index = m_nameToCanonicalName.find(name); if (index == m_nameToCanonicalName.end()) { return String(); } else { return index->second; } } String Config::getNeighbor(const String& srcName, EDirection srcSide, float position, float* positionOut) const { assert(srcSide >= kFirstDirection && srcSide <= kLastDirection); // find source cell CellMap::const_iterator index = m_map.find(getCanonicalName(srcName)); if (index == m_map.end()) { return String(); } // find edge const CellEdge* srcEdge, *dstEdge; if (!index->second.getLink(srcSide, position, srcEdge, dstEdge)) { // no neighbor return ""; } else { // compute position on neighbor if (positionOut != NULL) { *positionOut = dstEdge->inverseTransform(srcEdge->transform(position)); } // return neighbor's name return getCanonicalName(dstEdge->getName()); } } bool Config::hasNeighbor(const String& srcName, EDirection srcSide) const { return hasNeighbor(srcName, srcSide, 0.0f, 1.0f); } bool Config::hasNeighbor(const String& srcName, EDirection srcSide, float start, float end) const { assert(srcSide >= kFirstDirection && srcSide <= kLastDirection); // find source cell CellMap::const_iterator index = m_map.find(getCanonicalName(srcName)); if (index == m_map.end()) { return false; } return index->second.overlaps(CellEdge(srcSide, Interval(start, end))); } Config::link_const_iterator Config::beginNeighbor(const String& srcName) const { CellMap::const_iterator index = m_map.find(getCanonicalName(srcName)); assert(index != m_map.end()); return index->second.begin(); } Config::link_const_iterator Config::endNeighbor(const String& srcName) const { CellMap::const_iterator index = m_map.find(getCanonicalName(srcName)); assert(index != m_map.end()); return index->second.end(); } const NetworkAddress& Config::getSynergyAddress() const { return m_synergyAddress; } const Config::ScreenOptions* Config::getOptions(const String& name) const { // find options const ScreenOptions* options = NULL; if (name.empty()) { options = &m_globalOptions; } else { CellMap::const_iterator index = m_map.find(name); if (index != m_map.end()) { options = &index->second.m_options; } } // return options return options; } bool Config::hasLockToScreenAction() const { return m_hasLockToScreenAction; } bool Config::operator==(const Config& x) const { if (m_synergyAddress != x.m_synergyAddress) { return false; } if (m_map.size() != x.m_map.size()) { return false; } if (m_nameToCanonicalName.size() != x.m_nameToCanonicalName.size()) { return false; } // compare global options if (m_globalOptions != x.m_globalOptions) { return false; } for (CellMap::const_iterator index1 = m_map.begin(), index2 = x.m_map.begin(); index1 != m_map.end(); ++index1, ++index2) { // compare names if (!CaselessCmp::equal(index1->first, index2->first)) { return false; } // compare cells if (index1->second != index2->second) { return false; } } for (NameMap::const_iterator index1 = m_nameToCanonicalName.begin(), index2 = x.m_nameToCanonicalName.begin(); index1 != m_nameToCanonicalName.end(); ++index1, ++index2) { if (!CaselessCmp::equal(index1->first, index2->first) || !CaselessCmp::equal(index1->second, index2->second)) { return false; } } // compare input filters if (m_inputFilter != x.m_inputFilter) { return false; } return true; } bool Config::operator!=(const Config& x) const { return !operator==(x); } void Config::read(ConfigReadContext& context) { Config tmp(m_events); while (context.getStream()) { tmp.readSection(context); } *this = tmp; } const char* Config::dirName(EDirection dir) { static const char* s_name[] = { "left", "right", "up", "down" }; assert(dir >= kFirstDirection && dir <= kLastDirection); return s_name[dir - kFirstDirection]; } InputFilter* Config::getInputFilter() { return &m_inputFilter; } String Config::formatInterval(const Interval& x) { if (x.first == 0.0f && x.second == 1.0f) { return ""; } return synergy::string::sprintf("(%d,%d)", (int)(x.first * 100.0f + 0.5f), (int)(x.second * 100.0f + 0.5f)); } void Config::readSection(ConfigReadContext& s) { static const char s_section[] = "section:"; static const char s_options[] = "options"; static const char s_screens[] = "screens"; static const char s_links[] = "links"; static const char s_aliases[] = "aliases"; String line; if (!s.readLine(line)) { // no more sections return; } // should be a section header if (line.find(s_section) != 0) { throw XConfigRead(s, "found data outside section"); } // get section name String::size_type i = line.find_first_not_of(" \t", sizeof(s_section) - 1); if (i == String::npos) { throw XConfigRead(s, "section name is missing"); } String name = line.substr(i); i = name.find_first_of(" \t"); if (i != String::npos) { throw XConfigRead(s, "unexpected data after section name"); } // read section if (name == s_options) { readSectionOptions(s); } else if (name == s_screens) { readSectionScreens(s); } else if (name == s_links) { readSectionLinks(s); } else if (name == s_aliases) { readSectionAliases(s); } else { throw XConfigRead(s, "unknown section name \"%{1}\"", name); } } void Config::readSectionOptions(ConfigReadContext& s) { String line; while (s.readLine(line)) { // check for end of section if (line == "end") { return; } // parse argument: `nameAndArgs = [values][;[values]]' // nameAndArgs := [(arg[,...])] // values := valueAndArgs[,valueAndArgs]... // valueAndArgs := [(arg[,...])] String::size_type i = 0; String name, value; ConfigReadContext::ArgList nameArgs, valueArgs; s.parseNameWithArgs("name", line, "=", i, name, nameArgs); ++i; s.parseNameWithArgs("value", line, ",;\n", i, value, valueArgs); bool handled = true; if (name == "address") { try { m_synergyAddress = NetworkAddress(value, kDefaultPort); m_synergyAddress.resolve(); } catch (XSocketAddress& e) { throw XConfigRead(s, String("invalid address argument ") + e.what()); } } else if (name == "heartbeat") { addOption("", kOptionHeartbeat, s.parseInt(value)); } else if (name == "switchCorners") { addOption("", kOptionScreenSwitchCorners, s.parseCorners(value)); } else if (name == "switchCornerSize") { addOption("", kOptionScreenSwitchCornerSize, s.parseInt(value)); } else if (name == "switchDelay") { addOption("", kOptionScreenSwitchDelay, s.parseInt(value)); } else if (name == "switchDoubleTap") { addOption("", kOptionScreenSwitchTwoTap, s.parseInt(value)); } else if (name == "switchNeedsShift") { addOption("", kOptionScreenSwitchNeedsShift, s.parseBoolean(value)); } else if (name == "switchNeedsControl") { addOption("", kOptionScreenSwitchNeedsControl, s.parseBoolean(value)); } else if (name == "switchNeedsAlt") { addOption("", kOptionScreenSwitchNeedsAlt, s.parseBoolean(value)); } else if (name == "screenSaverSync") { addOption("", kOptionScreenSaverSync, s.parseBoolean(value)); } else if (name == "relativeMouseMoves") { addOption("", kOptionRelativeMouseMoves, s.parseBoolean(value)); } else if (name == "win32KeepForeground") { addOption("", kOptionWin32KeepForeground, s.parseBoolean(value)); } else { handled = false; } if (handled) { // make sure handled options aren't followed by more values if (i < line.size() && (line[i] == ',' || line[i] == ';')) { throw XConfigRead(s, "to many arguments to %s", name.c_str()); } } else { // make filter rule InputFilter::Rule rule(parseCondition(s, name, nameArgs)); // save first action (if any) if (!value.empty() || line[i] != ';') { parseAction(s, value, valueArgs, rule, true); } // get remaining activate actions while (i < line.length() && line[i] != ';') { ++i; s.parseNameWithArgs("value", line, ",;\n", i, value, valueArgs); parseAction(s, value, valueArgs, rule, true); } // get deactivate actions if (i < line.length() && line[i] == ';') { // allow trailing ';' i = line.find_first_not_of(" \t", i + 1); if (i == String::npos) { i = line.length(); } else { --i; } // get actions while (i < line.length()) { ++i; s.parseNameWithArgs("value", line, ",\n", i, value, valueArgs); parseAction(s, value, valueArgs, rule, false); } } // add rule m_inputFilter.addFilterRule(rule); } } throw XConfigRead(s, "unexpected end of options section"); } void Config::readSectionScreens(ConfigReadContext& s) { String line; String screen; while (s.readLine(line)) { // check for end of section if (line == "end") { return; } // see if it's the next screen if (line[line.size() - 1] == ':') { // strip : screen = line.substr(0, line.size() - 1); // verify validity of screen name if (!isValidScreenName(screen)) { throw XConfigRead(s, "invalid screen name \"%{1}\"", screen); } // add the screen to the configuration if (!addScreen(screen)) { throw XConfigRead(s, "duplicate screen name \"%{1}\"", screen); } } else if (screen.empty()) { throw XConfigRead(s, "argument before first screen"); } else { // parse argument: `=' String::size_type i = line.find_first_of(" \t="); if (i == 0) { throw XConfigRead(s, "missing argument name"); } if (i == String::npos) { throw XConfigRead(s, "missing ="); } String name = line.substr(0, i); i = line.find_first_not_of(" \t", i); if (i == String::npos || line[i] != '=') { throw XConfigRead(s, "missing ="); } i = line.find_first_not_of(" \t", i + 1); String value; if (i != String::npos) { value = line.substr(i); } // handle argument if (name == "halfDuplexCapsLock") { addOption(screen, kOptionHalfDuplexCapsLock, s.parseBoolean(value)); } else if (name == "halfDuplexNumLock") { addOption(screen, kOptionHalfDuplexNumLock, s.parseBoolean(value)); } else if (name == "halfDuplexScrollLock") { addOption(screen, kOptionHalfDuplexScrollLock, s.parseBoolean(value)); } else if (name == "shift") { addOption(screen, kOptionModifierMapForShift, s.parseModifierKey(value)); } else if (name == "ctrl") { addOption(screen, kOptionModifierMapForControl, s.parseModifierKey(value)); } else if (name == "alt") { addOption(screen, kOptionModifierMapForAlt, s.parseModifierKey(value)); } else if (name == "altgr") { addOption(screen, kOptionModifierMapForAltGr, s.parseModifierKey(value)); } else if (name == "meta") { addOption(screen, kOptionModifierMapForMeta, s.parseModifierKey(value)); } else if (name == "super") { addOption(screen, kOptionModifierMapForSuper, s.parseModifierKey(value)); } else if (name == "xtestIsXineramaUnaware") { addOption(screen, kOptionXTestXineramaUnaware, s.parseBoolean(value)); } else if (name == "switchCorners") { addOption(screen, kOptionScreenSwitchCorners, s.parseCorners(value)); } else if (name == "switchCornerSize") { addOption(screen, kOptionScreenSwitchCornerSize, s.parseInt(value)); } else if (name == "preserveFocus") { addOption(screen, kOptionScreenPreserveFocus, s.parseBoolean(value)); } else { // unknown argument throw XConfigRead(s, "unknown argument \"%{1}\"", name); } } } throw XConfigRead(s, "unexpected end of screens section"); } void Config::readSectionLinks(ConfigReadContext& s) { String line; String screen; while (s.readLine(line)) { // check for end of section if (line == "end") { return; } // see if it's the next screen if (line[line.size() - 1] == ':') { // strip : screen = line.substr(0, line.size() - 1); // verify we know about the screen if (!isScreen(screen)) { throw XConfigRead(s, "unknown screen name \"%{1}\"", screen); } if (!isCanonicalName(screen)) { throw XConfigRead(s, "cannot use screen name alias here"); } } else if (screen.empty()) { throw XConfigRead(s, "argument before first screen"); } else { // parse argument: `[(,)]=[(,)]' // the stuff in brackets is optional. interval values must be // in the range [0,100] and start < end. if not given the // interval is taken to be (0,100). String::size_type i = 0; String side, dstScreen, srcArgString, dstArgString; ConfigReadContext::ArgList srcArgs, dstArgs; s.parseNameWithArgs("link", line, "=", i, side, srcArgs); ++i; s.parseNameWithArgs("screen", line, "", i, dstScreen, dstArgs); Interval srcInterval(s.parseInterval(srcArgs)); Interval dstInterval(s.parseInterval(dstArgs)); // handle argument EDirection dir; if (side == "left") { dir = kLeft; } else if (side == "right") { dir = kRight; } else if (side == "up") { dir = kTop; } else if (side == "down") { dir = kBottom; } else { // unknown argument throw XConfigRead(s, "unknown side \"%{1}\" in link", side); } if (!isScreen(dstScreen)) { throw XConfigRead(s, "unknown screen name \"%{1}\"", dstScreen); } if (!connect(screen, dir, srcInterval.first, srcInterval.second, dstScreen, dstInterval.first, dstInterval.second)) { throw XConfigRead(s, "overlapping range"); } } } throw XConfigRead(s, "unexpected end of links section"); } void Config::readSectionAliases(ConfigReadContext& s) { String line; String screen; while (s.readLine(line)) { // check for end of section if (line == "end") { return; } // see if it's the next screen if (line[line.size() - 1] == ':') { // strip : screen = line.substr(0, line.size() - 1); // verify we know about the screen if (!isScreen(screen)) { throw XConfigRead(s, "unknown screen name \"%{1}\"", screen); } if (!isCanonicalName(screen)) { throw XConfigRead(s, "cannot use screen name alias here"); } } else if (screen.empty()) { throw XConfigRead(s, "argument before first screen"); } else { // verify validity of screen name if (!isValidScreenName(line)) { throw XConfigRead(s, "invalid screen alias \"%{1}\"", line); } // add alias if (!addAlias(screen, line)) { throw XConfigRead(s, "alias \"%{1}\" is already used", line); } } } throw XConfigRead(s, "unexpected end of aliases section"); } InputFilter::Condition* Config::parseCondition(ConfigReadContext& s, const String& name, const std::vector& args) { if (name == "keystroke") { if (args.size() != 1) { throw XConfigRead(s, "syntax for condition: keystroke(modifiers+key)"); } IPlatformScreen::KeyInfo* keyInfo = s.parseKeystroke(args[0]); return new InputFilter::KeystrokeCondition(m_events, keyInfo); } if (name == "mousebutton") { if (args.size() != 1) { throw XConfigRead(s, "syntax for condition: mousebutton(modifiers+button)"); } IPlatformScreen::ButtonInfo* mouseInfo = s.parseMouse(args[0]); return new InputFilter::MouseButtonCondition(m_events, mouseInfo); } if (name == "connect") { if (args.size() != 1) { throw XConfigRead(s, "syntax for condition: connect([screen])"); } String screen = args[0]; if (isScreen(screen)) { screen = getCanonicalName(screen); } else if (!screen.empty()) { throw XConfigRead(s, "unknown screen name \"%{1}\" in connect", screen); } return new InputFilter::ScreenConnectedCondition(m_events, screen); } throw XConfigRead(s, "unknown argument \"%{1}\"", name); } void Config::parseAction(ConfigReadContext& s, const String& name, const std::vector& args, InputFilter::Rule& rule, bool activate) { InputFilter::Action* action; if (name == "keystroke" || name == "keyDown" || name == "keyUp") { if (args.size() < 1 || args.size() > 2) { throw XConfigRead(s, "syntax for action: keystroke(modifiers+key[,screens])"); } IPlatformScreen::KeyInfo* keyInfo; if (args.size() == 1) { keyInfo = s.parseKeystroke(args[0]); } else { std::set screens; parseScreens(s, args[1], screens); keyInfo = s.parseKeystroke(args[0], screens); } if (name == "keystroke") { IPlatformScreen::KeyInfo* keyInfo2 = IKeyState::KeyInfo::alloc(*keyInfo); action = new InputFilter::KeystrokeAction(m_events, keyInfo2, true); rule.adoptAction(action, true); action = new InputFilter::KeystrokeAction(m_events, keyInfo, false); activate = false; } else if (name == "keyDown") { action = new InputFilter::KeystrokeAction(m_events, keyInfo, true); } else { action = new InputFilter::KeystrokeAction(m_events, keyInfo, false); } } else if (name == "mousebutton" || name == "mouseDown" || name == "mouseUp") { if (args.size() != 1) { throw XConfigRead(s, "syntax for action: mousebutton(modifiers+button)"); } IPlatformScreen::ButtonInfo* mouseInfo = s.parseMouse(args[0]); if (name == "mousebutton") { IPlatformScreen::ButtonInfo* mouseInfo2 = IPlatformScreen::ButtonInfo::alloc(*mouseInfo); action = new InputFilter::MouseButtonAction(m_events, mouseInfo2, true); rule.adoptAction(action, true); action = new InputFilter::MouseButtonAction(m_events, mouseInfo, false); activate = false; } else if (name == "mouseDown") { action = new InputFilter::MouseButtonAction(m_events, mouseInfo, true); } else { action = new InputFilter::MouseButtonAction(m_events, mouseInfo, false); } } /* XXX -- not supported else if (name == "modifier") { if (args.size() != 1) { throw XConfigRead(s, "syntax for action: modifier(modifiers)"); } KeyModifierMask mask = s.parseModifier(args[0]); action = new InputFilter::ModifierAction(mask, ~mask); } */ else if (name == "switchToScreen") { if (args.size() != 1) { throw XConfigRead(s, "syntax for action: switchToScreen(name)"); } String screen = args[0]; if (isScreen(screen)) { screen = getCanonicalName(screen); } else if (!screen.empty()) { throw XConfigRead(s, "unknown screen name in switchToScreen"); } action = new InputFilter::SwitchToScreenAction(m_events, screen); } else if (name == "switchInDirection") { if (args.size() != 1) { throw XConfigRead(s, "syntax for action: switchInDirection()"); } EDirection direction; if (args[0] == "left") { direction = kLeft; } else if (args[0] == "right") { direction = kRight; } else if (args[0] == "up") { direction = kTop; } else if (args[0] == "down") { direction = kBottom; } else { throw XConfigRead(s, "unknown direction \"%{1}\" in switchToScreen", args[0]); } action = new InputFilter::SwitchInDirectionAction(m_events, direction); } else if (name == "lockCursorToScreen") { if (args.size() > 1) { throw XConfigRead(s, "syntax for action: lockCursorToScreen([{off|on|toggle}])"); } InputFilter::LockCursorToScreenAction::Mode mode = InputFilter::LockCursorToScreenAction::kToggle; if (args.size() == 1) { if (args[0] == "off") { mode = InputFilter::LockCursorToScreenAction::kOff; } else if (args[0] == "on") { mode = InputFilter::LockCursorToScreenAction::kOn; } else if (args[0] == "toggle") { mode = InputFilter::LockCursorToScreenAction::kToggle; } else { throw XConfigRead(s, "syntax for action: lockCursorToScreen([{off|on|toggle}])"); } } if (mode != InputFilter::LockCursorToScreenAction::kOff) { m_hasLockToScreenAction = true; } action = new InputFilter::LockCursorToScreenAction(m_events, mode); } else if (name == "keyboardBroadcast") { if (args.size() > 2) { throw XConfigRead(s, "syntax for action: keyboardBroadcast([{off|on|toggle}[,screens]])"); } InputFilter::KeyboardBroadcastAction::Mode mode = InputFilter::KeyboardBroadcastAction::kToggle; if (args.size() >= 1) { if (args[0] == "off") { mode = InputFilter::KeyboardBroadcastAction::kOff; } else if (args[0] == "on") { mode = InputFilter::KeyboardBroadcastAction::kOn; } else if (args[0] == "toggle") { mode = InputFilter::KeyboardBroadcastAction::kToggle; } else { throw XConfigRead(s, "syntax for action: keyboardBroadcast([{off|on|toggle}[,screens]])"); } } std::set screens; if (args.size() >= 2) { parseScreens(s, args[1], screens); } action = new InputFilter::KeyboardBroadcastAction(m_events, mode, screens); } else { throw XConfigRead(s, "unknown action argument \"%{1}\"", name); } rule.adoptAction(action, activate); } void Config::parseScreens(ConfigReadContext& c, const String& s, std::set& screens) const { screens.clear(); String::size_type i = 0; while (i < s.size()) { // find end of next screen name String::size_type j = s.find(':', i); if (j == String::npos) { j = s.size(); } // extract name String rawName; i = s.find_first_not_of(" \t", i); if (i < j) { rawName = s.substr(i, s.find_last_not_of(" \t", j - 1) - i + 1); } // add name if (rawName == "*") { screens.insert("*"); } else if (!rawName.empty()) { String name = getCanonicalName(rawName); if (name.empty()) { throw XConfigRead(c, "unknown screen name \"%{1}\"", rawName); } screens.insert(name); } // next i = j + 1; } } const char* Config::getOptionName(OptionID id) { if (id == kOptionHalfDuplexCapsLock) { return "halfDuplexCapsLock"; } if (id == kOptionHalfDuplexNumLock) { return "halfDuplexNumLock"; } if (id == kOptionHalfDuplexScrollLock) { return "halfDuplexScrollLock"; } if (id == kOptionModifierMapForShift) { return "shift"; } if (id == kOptionModifierMapForControl) { return "ctrl"; } if (id == kOptionModifierMapForAlt) { return "alt"; } if (id == kOptionModifierMapForAltGr) { return "altgr"; } if (id == kOptionModifierMapForMeta) { return "meta"; } if (id == kOptionModifierMapForSuper) { return "super"; } if (id == kOptionHeartbeat) { return "heartbeat"; } if (id == kOptionScreenSwitchCorners) { return "switchCorners"; } if (id == kOptionScreenSwitchCornerSize) { return "switchCornerSize"; } if (id == kOptionScreenSwitchDelay) { return "switchDelay"; } if (id == kOptionScreenSwitchTwoTap) { return "switchDoubleTap"; } if (id == kOptionScreenSwitchNeedsShift) { return "switchNeedsShift"; } if (id == kOptionScreenSwitchNeedsControl) { return "switchNeedsControl"; } if (id == kOptionScreenSwitchNeedsAlt) { return "switchNeedsAlt"; } if (id == kOptionScreenSaverSync) { return "screenSaverSync"; } if (id == kOptionXTestXineramaUnaware) { return "xtestIsXineramaUnaware"; } if (id == kOptionRelativeMouseMoves) { return "relativeMouseMoves"; } if (id == kOptionWin32KeepForeground) { return "win32KeepForeground"; } if (id == kOptionScreenPreserveFocus) { return "preserveFocus"; } return NULL; } String Config::getOptionValue(OptionID id, OptionValue value) { if (id == kOptionHalfDuplexCapsLock || id == kOptionHalfDuplexNumLock || id == kOptionHalfDuplexScrollLock || id == kOptionScreenSwitchNeedsShift || id == kOptionScreenSwitchNeedsControl || id == kOptionScreenSwitchNeedsAlt || id == kOptionScreenSaverSync || id == kOptionXTestXineramaUnaware || id == kOptionRelativeMouseMoves || id == kOptionWin32KeepForeground || id == kOptionScreenPreserveFocus) { return (value != 0) ? "true" : "false"; } if (id == kOptionModifierMapForShift || id == kOptionModifierMapForControl || id == kOptionModifierMapForAlt || id == kOptionModifierMapForAltGr || id == kOptionModifierMapForMeta || id == kOptionModifierMapForSuper) { switch (value) { case kKeyModifierIDShift: return "shift"; case kKeyModifierIDControl: return "ctrl"; case kKeyModifierIDAlt: return "alt"; case kKeyModifierIDAltGr: return "altgr"; case kKeyModifierIDMeta: return "meta"; case kKeyModifierIDSuper: return "super"; default: return "none"; } } if (id == kOptionHeartbeat || id == kOptionScreenSwitchCornerSize || id == kOptionScreenSwitchDelay || id == kOptionScreenSwitchTwoTap) { return synergy::string::sprintf("%d", value); } if (id == kOptionScreenSwitchCorners) { std::string result("none"); if ((value & kTopLeftMask) != 0) { result += " +top-left"; } if ((value & kTopRightMask) != 0) { result += " +top-right"; } if ((value & kBottomLeftMask) != 0) { result += " +bottom-left"; } if ((value & kBottomRightMask) != 0) { result += " +bottom-right"; } return result; } return ""; } // // Config::Name // Config::Name::Name(Config* config, const String& name) : m_config(config), m_name(config->getCanonicalName(name)) { // do nothing } bool Config::Name::operator==(const String& name) const { String canonical = m_config->getCanonicalName(name); return CaselessCmp::equal(canonical, m_name); } // // Config::CellEdge // Config::CellEdge::CellEdge(EDirection side, float position) { init("", side, Interval(position, position)); } Config::CellEdge::CellEdge(EDirection side, const Interval& interval) { assert(interval.first >= 0.0f); assert(interval.second <= 1.0f); assert(interval.first < interval.second); init("", side, interval); } Config::CellEdge::CellEdge(const String& name, EDirection side, const Interval& interval) { assert(interval.first >= 0.0f); assert(interval.second <= 1.0f); assert(interval.first < interval.second); init(name, side, interval); } Config::CellEdge::~CellEdge() { // do nothing } void Config::CellEdge::init(const String& name, EDirection side, const Interval& interval) { assert(side != kNoDirection); m_name = name; m_side = side; m_interval = interval; } Config::Interval Config::CellEdge::getInterval() const { return m_interval; } void Config::CellEdge::setName(const String& newName) { m_name = newName; } String Config::CellEdge::getName() const { return m_name; } EDirection Config::CellEdge::getSide() const { return m_side; } bool Config::CellEdge::overlaps(const CellEdge& edge) const { const Interval& x = m_interval; const Interval& y = edge.m_interval; if (m_side != edge.m_side) { return false; } return (x.first >= y.first && x.first < y.second) || (x.second > y.first && x.second <= y.second) || (y.first >= x.first && y.first < x.second) || (y.second > x.first && y.second <= x.second); } bool Config::CellEdge::isInside(float x) const { return (x >= m_interval.first && x < m_interval.second); } float Config::CellEdge::transform(float x) const { return (x - m_interval.first) / (m_interval.second - m_interval.first); } float Config::CellEdge::inverseTransform(float x) const { return x * (m_interval.second - m_interval.first) + m_interval.first; } bool Config::CellEdge::operator<(const CellEdge& o) const { if (static_cast(m_side) < static_cast(o.m_side)) { return true; } else if (static_cast(m_side) > static_cast(o.m_side)) { return false; } return (m_interval.first < o.m_interval.first); } bool Config::CellEdge::operator==(const CellEdge& x) const { return (m_side == x.m_side && m_interval == x.m_interval); } bool Config::CellEdge::operator!=(const CellEdge& x) const { return !operator==(x); } // // Config::Cell // bool Config::Cell::add(const CellEdge& src, const CellEdge& dst) { // cannot add an edge that overlaps other existing edges but we // can exactly replace an edge. if (!hasEdge(src) && overlaps(src)) { return false; } m_neighbors.erase(src); m_neighbors.insert(std::make_pair(src, dst)); return true; } void Config::Cell::remove(EDirection side) { for (EdgeLinks::iterator j = m_neighbors.begin(); j != m_neighbors.end(); ) { if (j->first.getSide() == side) { m_neighbors.erase(j++); } else { ++j; } } } void Config::Cell::remove(EDirection side, float position) { for (EdgeLinks::iterator j = m_neighbors.begin(); j != m_neighbors.end(); ++j) { if (j->first.getSide() == side && j->first.isInside(position)) { m_neighbors.erase(j); break; } } } void Config::Cell::remove(const Name& name) { for (EdgeLinks::iterator j = m_neighbors.begin(); j != m_neighbors.end(); ) { if (name == j->second.getName()) { m_neighbors.erase(j++); } else { ++j; } } } void Config::Cell::rename(const Name& oldName, const String& newName) { for (EdgeLinks::iterator j = m_neighbors.begin(); j != m_neighbors.end(); ++j) { if (oldName == j->second.getName()) { j->second.setName(newName); } } } bool Config::Cell::hasEdge(const CellEdge& edge) const { EdgeLinks::const_iterator i = m_neighbors.find(edge); return (i != m_neighbors.end() && i->first == edge); } bool Config::Cell::overlaps(const CellEdge& edge) const { EdgeLinks::const_iterator i = m_neighbors.upper_bound(edge); if (i != m_neighbors.end() && i->first.overlaps(edge)) { return true; } if (i != m_neighbors.begin() && (--i)->first.overlaps(edge)) { return true; } return false; } bool Config::Cell::getLink(EDirection side, float position, const CellEdge*& src, const CellEdge*& dst) const { CellEdge edge(side, position); EdgeLinks::const_iterator i = m_neighbors.upper_bound(edge); if (i == m_neighbors.begin()) { return false; } --i; if (i->first.getSide() == side && i->first.isInside(position)) { src = &i->first; dst = &i->second; return true; } return false; } bool Config::Cell::operator==(const Cell& x) const { // compare options if (m_options != x.m_options) { return false; } // compare links if (m_neighbors.size() != x.m_neighbors.size()) { return false; } for (EdgeLinks::const_iterator index1 = m_neighbors.begin(), index2 = x.m_neighbors.begin(); index1 != m_neighbors.end(); ++index1, ++index2) { if (index1->first != index2->first) { return false; } if (index1->second != index2->second) { return false; } // operator== doesn't compare names. only compare destination // names. if (!CaselessCmp::equal(index1->second.getName(), index2->second.getName())) { return false; } } return true; } bool Config::Cell::operator!=(const Cell& x) const { return !operator==(x); } Config::Cell::const_iterator Config::Cell::begin() const { return m_neighbors.begin(); } Config::Cell::const_iterator Config::Cell::end() const { return m_neighbors.end(); } // // Config I/O // std::istream& operator>>(std::istream& s, Config& config) { ConfigReadContext context(s); config.read(context); return s; } std::ostream& operator<<(std::ostream& s, const Config& config) { // screens section s << "section: screens" << std::endl; for (Config::const_iterator screen = config.begin(); screen != config.end(); ++screen) { s << "\t" << screen->c_str() << ":" << std::endl; const Config::ScreenOptions* options = config.getOptions(*screen); if (options != NULL && options->size() > 0) { for (Config::ScreenOptions::const_iterator option = options->begin(); option != options->end(); ++option) { const char* name = Config::getOptionName(option->first); String value = Config::getOptionValue(option->first, option->second); if (name != NULL && !value.empty()) { s << "\t\t" << name << " = " << value << std::endl; } } } } s << "end" << std::endl; // links section String neighbor; s << "section: links" << std::endl; for (Config::const_iterator screen = config.begin(); screen != config.end(); ++screen) { s << "\t" << screen->c_str() << ":" << std::endl; for (Config::link_const_iterator link = config.beginNeighbor(*screen), nend = config.endNeighbor(*screen); link != nend; ++link) { s << "\t\t" << Config::dirName(link->first.getSide()) << Config::formatInterval(link->first.getInterval()) << " = " << link->second.getName().c_str() << Config::formatInterval(link->second.getInterval()) << std::endl; } } s << "end" << std::endl; // aliases section (if there are any) if (config.m_map.size() != config.m_nameToCanonicalName.size()) { // map canonical to alias typedef std::multimap CMNameMap; CMNameMap aliases; for (Config::NameMap::const_iterator index = config.m_nameToCanonicalName.begin(); index != config.m_nameToCanonicalName.end(); ++index) { if (index->first != index->second) { aliases.insert(std::make_pair(index->second, index->first)); } } // dump it String screen; s << "section: aliases" << std::endl; for (CMNameMap::const_iterator index = aliases.begin(); index != aliases.end(); ++index) { if (index->first != screen) { screen = index->first; s << "\t" << screen.c_str() << ":" << std::endl; } s << "\t\t" << index->second.c_str() << std::endl; } s << "end" << std::endl; } // options section s << "section: options" << std::endl; const Config::ScreenOptions* options = config.getOptions(""); if (options != NULL && options->size() > 0) { for (Config::ScreenOptions::const_iterator option = options->begin(); option != options->end(); ++option) { const char* name = Config::getOptionName(option->first); String value = Config::getOptionValue(option->first, option->second); if (name != NULL && !value.empty()) { s << "\t" << name << " = " << value << std::endl; } } } if (config.m_synergyAddress.isValid()) { s << "\taddress = " << config.m_synergyAddress.getHostname().c_str() << std::endl; } s << config.m_inputFilter.format("\t"); s << "end" << std::endl; return s; } // // ConfigReadContext // ConfigReadContext::ConfigReadContext(std::istream& s, SInt32 firstLine) : m_stream(s), m_line(firstLine - 1) { // do nothing } ConfigReadContext::~ConfigReadContext() { // do nothing } bool ConfigReadContext::readLine(String& line) { ++m_line; while (std::getline(m_stream, line)) { // strip leading whitespace String::size_type i = line.find_first_not_of(" \t"); if (i != String::npos) { line.erase(0, i); } // strip comments and then trailing whitespace i = line.find('#'); if (i != String::npos) { line.erase(i); } i = line.find_last_not_of(" \r\t"); if (i != String::npos) { line.erase(i + 1); } // return non empty line if (!line.empty()) { // make sure there are no invalid characters for (i = 0; i < line.length(); ++i) { if (!isgraph(line[i]) && line[i] != ' ' && line[i] != '\t') { throw XConfigRead(*this, "invalid character %{1}", synergy::string::sprintf("%#2x", line[i])); } } return true; } // next line ++m_line; } return false; } UInt32 ConfigReadContext::getLineNumber() const { return m_line; } bool ConfigReadContext::operator!() const { return !m_stream; } OptionValue ConfigReadContext::parseBoolean(const String& arg) const { if (CaselessCmp::equal(arg, "true")) { return static_cast(true); } if (CaselessCmp::equal(arg, "false")) { return static_cast(false); } throw XConfigRead(*this, "invalid boolean argument \"%{1}\"", arg); } OptionValue ConfigReadContext::parseInt(const String& arg) const { const char* s = arg.c_str(); char* end; long tmp = strtol(s, &end, 10); if (*end != '\0') { // invalid characters throw XConfigRead(*this, "invalid integer argument \"%{1}\"", arg); } OptionValue value = static_cast(tmp); if (value != tmp) { // out of range throw XConfigRead(*this, "integer argument \"%{1}\" out of range", arg); } return value; } OptionValue ConfigReadContext::parseModifierKey(const String& arg) const { if (CaselessCmp::equal(arg, "shift")) { return static_cast(kKeyModifierIDShift); } if (CaselessCmp::equal(arg, "ctrl")) { return static_cast(kKeyModifierIDControl); } if (CaselessCmp::equal(arg, "alt")) { return static_cast(kKeyModifierIDAlt); } if (CaselessCmp::equal(arg, "altgr")) { return static_cast(kKeyModifierIDAltGr); } if (CaselessCmp::equal(arg, "meta")) { return static_cast(kKeyModifierIDMeta); } if (CaselessCmp::equal(arg, "super")) { return static_cast(kKeyModifierIDSuper); } if (CaselessCmp::equal(arg, "none")) { return static_cast(kKeyModifierIDNull); } throw XConfigRead(*this, "invalid argument \"%{1}\"", arg); } OptionValue ConfigReadContext::parseCorner(const String& arg) const { if (CaselessCmp::equal(arg, "left")) { return kTopLeftMask | kBottomLeftMask; } else if (CaselessCmp::equal(arg, "right")) { return kTopRightMask | kBottomRightMask; } else if (CaselessCmp::equal(arg, "top")) { return kTopLeftMask | kTopRightMask; } else if (CaselessCmp::equal(arg, "bottom")) { return kBottomLeftMask | kBottomRightMask; } else if (CaselessCmp::equal(arg, "top-left")) { return kTopLeftMask; } else if (CaselessCmp::equal(arg, "top-right")) { return kTopRightMask; } else if (CaselessCmp::equal(arg, "bottom-left")) { return kBottomLeftMask; } else if (CaselessCmp::equal(arg, "bottom-right")) { return kBottomRightMask; } else if (CaselessCmp::equal(arg, "none")) { return kNoCornerMask; } else if (CaselessCmp::equal(arg, "all")) { return kAllCornersMask; } throw XConfigRead(*this, "invalid argument \"%{1}\"", arg); } OptionValue ConfigReadContext::parseCorners(const String& args) const { // find first token String::size_type i = args.find_first_not_of(" \t", 0); if (i == String::npos) { throw XConfigRead(*this, "missing corner argument"); } String::size_type j = args.find_first_of(" \t", i); // parse first corner token OptionValue corners = parseCorner(args.substr(i, j - i)); // get +/- i = args.find_first_not_of(" \t", j); while (i != String::npos) { // parse +/- bool add; if (args[i] == '-') { add = false; } else if (args[i] == '+') { add = true; } else { throw XConfigRead(*this, "invalid corner operator \"%{1}\"", String(args.c_str() + i, 1)); } // get next corner token i = args.find_first_not_of(" \t", i + 1); j = args.find_first_of(" \t", i); if (i == String::npos) { throw XConfigRead(*this, "missing corner argument"); } // parse next corner token if (add) { corners |= parseCorner(args.substr(i, j - i)); } else { corners &= ~parseCorner(args.substr(i, j - i)); } i = args.find_first_not_of(" \t", j); } return corners; } Config::Interval ConfigReadContext::parseInterval(const ArgList& args) const { if (args.size() == 0) { return Config::Interval(0.0f, 1.0f); } if (args.size() != 2 || args[0].empty() || args[1].empty()) { throw XConfigRead(*this, "invalid interval \"%{1}\"", concatArgs(args)); } char* end; long startValue = strtol(args[0].c_str(), &end, 10); if (end[0] != '\0') { throw XConfigRead(*this, "invalid interval \"%{1}\"", concatArgs(args)); } long endValue = strtol(args[1].c_str(), &end, 10); if (end[0] != '\0') { throw XConfigRead(*this, "invalid interval \"%{1}\"", concatArgs(args)); } if (startValue < 0 || startValue > 100 || endValue < 0 || endValue > 100 || startValue >= endValue) { throw XConfigRead(*this, "invalid interval \"%{1}\"", concatArgs(args)); } return Config::Interval(startValue / 100.0f, endValue / 100.0f); } void ConfigReadContext::parseNameWithArgs( const String& type, const String& line, const String& delim, String::size_type& index, String& name, ArgList& args) const { // skip leading whitespace String::size_type i = line.find_first_not_of(" \t", index); if (i == String::npos) { throw XConfigRead(*this, String("missing ") + type); } // find end of name String::size_type j = line.find_first_of(" \t(" + delim, i); if (j == String::npos) { j = line.length(); } // save name name = line.substr(i, j - i); args.clear(); // is it okay to not find a delimiter? bool needDelim = (!delim.empty() && delim.find('\n') == String::npos); // skip whitespace i = line.find_first_not_of(" \t", j); if (i == String::npos && needDelim) { // expected delimiter but didn't find it throw XConfigRead(*this, String("missing ") + delim[0]); } if (i == String::npos) { // no arguments index = line.length(); return; } if (line[i] != '(') { // no arguments index = i; return; } // eat '(' ++i; // parse arguments j = line.find_first_of(",)", i); while (j != String::npos) { // extract arg String arg(line.substr(i, j - i)); i = j; // trim whitespace j = arg.find_first_not_of(" \t"); if (j != String::npos) { arg.erase(0, j); } j = arg.find_last_not_of(" \t"); if (j != String::npos) { arg.erase(j + 1); } // save arg args.push_back(arg); // exit loop at end of arguments if (line[i] == ')') { break; } // eat ',' ++i; // next j = line.find_first_of(",)", i); } // verify ')' if (j == String::npos) { // expected ) throw XConfigRead(*this, "missing )"); } // eat ')' ++i; // skip whitespace j = line.find_first_not_of(" \t", i); if (j == String::npos && needDelim) { // expected delimiter but didn't find it throw XConfigRead(*this, String("missing ") + delim[0]); } // verify delimiter if (needDelim && delim.find(line[j]) == String::npos) { throw XConfigRead(*this, String("expected ") + delim[0]); } if (j == String::npos) { j = line.length(); } index = j; return; } IPlatformScreen::KeyInfo* ConfigReadContext::parseKeystroke(const String& keystroke) const { return parseKeystroke(keystroke, std::set()); } IPlatformScreen::KeyInfo* ConfigReadContext::parseKeystroke(const String& keystroke, const std::set& screens) const { String s = keystroke; KeyModifierMask mask; if (!synergy::KeyMap::parseModifiers(s, mask)) { throw XConfigRead(*this, "unable to parse key modifiers"); } KeyID key; if (!synergy::KeyMap::parseKey(s, key)) { throw XConfigRead(*this, "unable to parse key"); } if (key == kKeyNone && mask == 0) { throw XConfigRead(*this, "missing key and/or modifiers in keystroke"); } return IPlatformScreen::KeyInfo::alloc(key, mask, 0, 0, screens); } IPlatformScreen::ButtonInfo* ConfigReadContext::parseMouse(const String& mouse) const { String s = mouse; KeyModifierMask mask; if (!synergy::KeyMap::parseModifiers(s, mask)) { throw XConfigRead(*this, "unable to parse button modifiers"); } char* end; ButtonID button = (ButtonID)strtol(s.c_str(), &end, 10); if (*end != '\0') { throw XConfigRead(*this, "unable to parse button"); } if (s.empty() || button <= 0) { throw XConfigRead(*this, "invalid button"); } return IPlatformScreen::ButtonInfo::alloc(button, mask); } KeyModifierMask ConfigReadContext::parseModifier(const String& modifiers) const { String s = modifiers; KeyModifierMask mask; if (!synergy::KeyMap::parseModifiers(s, mask)) { throw XConfigRead(*this, "unable to parse modifiers"); } if (mask == 0) { throw XConfigRead(*this, "no modifiers specified"); } return mask; } String ConfigReadContext::concatArgs(const ArgList& args) { String s("("); for (size_t i = 0; i < args.size(); ++i) { if (i != 0) { s += ","; } s += args[i]; } s += ")"; return s; } // // Config I/O exceptions // XConfigRead::XConfigRead(const ConfigReadContext& context, const String& error) : m_error(synergy::string::sprintf("line %d: %s", context.getLineNumber(), error.c_str())) { // do nothing } XConfigRead::XConfigRead(const ConfigReadContext& context, const char* errorFmt, const String& arg) : m_error(synergy::string::sprintf("line %d: ", context.getLineNumber()) + synergy::string::format(errorFmt, arg.c_str())) { // do nothing } XConfigRead::~XConfigRead() _NOEXCEPT { // do nothing } String XConfigRead::getWhat() const throw() { return format("XConfigRead", "read error: %{1}", m_error.c_str()); }