Vector3D getPosition(boost::property_tree::ptree const & tree, const std::string& prefixe)
{
Vector3D position;
position.x = tree.get(prefixe+"x", 0.f);
position.y = tree.get(prefixe+"y", 0.f);
position.z = tree.get(prefixe+"z", 0.f);
return position;
}
std::shared_ptr<IComponent> MoveComponent::loadFromXml(const boost::property_tree::ptree& tree)
{
std::shared_ptr<MoveComponent> result = std::make_shared<MoveComponent>();
result->x = tree.get("x", 0.0f);
result->y = tree.get("y", 0.0f);
result->speed = tree.get("speed", 1.0f);
result->movingLeft = false;
result->movingRight = false;
result->movingUp = false;
result->movingDown = false;
return result;
}
void CompPathMove::loadFromPropertyTree(const boost::property_tree::ptree& propTree)
{
m_pathId = propTree.get("path_id", "");
m_repeat = propTree.get("repeat", false);
m_resetAngle = propTree.get("resetAngle", false);
//m_velocity = propTree.get<float>("velocity");
//if (propTree.get<std::string>("mode") != "relative")
// throw DataLoadException("CompPathMove: Only 'relatve' mode is supported");
foreach(const ptree::value_type &v, propTree)
{
if (v.first != cPoint) continue;
const ptree& point = v.second;
PathMovePoint::MotionMode mode;
std::string modeStr = point.get<std::string>(cMode);
if (modeStr == cModeUniform) mode = PathMovePoint::Uniform;
else if (modeStr == cModeAccelerated) mode = PathMovePoint::Accelerated;
else throw DataLoadException("PathMovePoint: invalid mode '"+modeStr+"'");
float linAccel = point.get(cLinAccel, 0.0f);
float angAccel = point.get(cAngAccel, 0.0f);
float topLinVel = point.get(cTopLinVel, 0.0f);
float topAngVel = point.get(cTopAngVel, 0.0f);
float linVel = point.get(cLinVel, 0.0f);
float angVel = point.get(cAngVel, 0.0f);
float time = point.get(cTime, 0.0f);
switch (mode)
{
case PathMovePoint::Uniform:
if (time != 0)
m_points.push_back(PathMovePoint::makeUniformByTime(time));
else if (linVel != 0)
m_points.push_back(PathMovePoint::makeUniformByLinVel(linVel));
else if (angVel != 0)
m_points.push_back(PathMovePoint::makeUniformByAngVel(angVel));
else
throw DataLoadException("invalid uniform PathMovePoint");
break;
case PathMovePoint::Accelerated:
if (linAccel != 0.0f)
m_points.push_back(PathMovePoint::makeLinAccelerated(linAccel, topLinVel));
else if (angAccel != 0.0f)
m_points.push_back(PathMovePoint::makeAngAccelerated(angAccel, topAngVel));
else
throw DataLoadException("invalid accelerated PathMovePoint");
break;
}
}
}
QueryData parseALFTree(const pt::ptree& tree) {
Row r;
for (const auto& it : kTopLevelIntKeys) {
int val = tree.get(it.first, -1);
r[it.second] = INTEGER(val);
}
for (const auto& it : kTopLevelStringKeys) {
std::string val = tree.get(it.second, "");
r[it.first] = val;
}
return {r};
}
void genXProtectEntry(const pt::ptree &entry, QueryData& results) {
// Entry is an XProtect dictionary of meta data about the item.
auto name = entry.get("Description", "");
auto launch_type = entry.get("LaunchServices.LSItemContentType", "");
// Get the list of matches
std::vector<Row> file_matches;
genMatches(entry, file_matches);
for (auto& r : file_matches) {
r["name"] = name;
r["launch_type"] = launch_type;
results.push_back(r);
}
}
Status parsePack(const std::string& name, const pt::ptree& data) {
if (data.count("queries") == 0) {
return Status(0, "Pack contains no queries");
}
// Check the pack-global minimum SDK version and platform.
auto version = data.get("version", "");
if (version.size() > 0 && !versionChecker(version, kSDKVersion)) {
return Status(0, "Minimum SDK version not met");
}
auto platform = data.get("platform", "");
if (platform.size() > 0 && !platformChecker(platform, kSDKPlatform)) {
return Status(0, "Platform version mismatch");
}
// For each query in the pack's queries, check their version/platform.
for (const auto& query : data.get_child("queries")) {
auto query_string = query.second.get("query", "");
if (Config::checkScheduledQuery(query_string)) {
VLOG(1) << "Query pack " << name
<< " contains a duplicated query: " << query.first;
continue;
}
// Check the specific query's required version.
version = query.second.get("version", "");
if (version.size() > 0 && !versionChecker(version, kSDKVersion)) {
continue;
}
// Check the specific query's required platform.
platform = query.second.get("platform", "");
if (platform.size() > 0 && !platformChecker(platform, kSDKPlatform)) {
continue;
}
// Hope there is a supplied/non-0 query interval to apply this query pack
// query to the osquery schedule.
auto query_interval = query.second.get("interval", 0);
if (query_interval > 0) {
auto query_name = "pack_" + name + "_" + query.first;
Config::addScheduledQuery(query_name, query_string, query_interval);
}
}
return Status(0, "OK");
}
void genMatches(const pt::ptree& entry, std::vector<Row>& results) {
if (entry.count("Matches") == 0) {
return;
}
bool optional = (entry.get("MatchType", "") == "MatchAny");
for (const auto& match : entry.get_child("Matches")) {
if (match.second.count("Matches") > 0) {
genMatches(match.second, results);
continue;
}
Row r;
r["optional"] = (optional) ? "1" : "0";
r["identity"] = match.second.get("Identity", "");
if (match.second.count("MatchFile") == 0) {
// There is no file in this match entry, odd.
continue;
}
// This can contain any of Foundation/Classes/NSURL_Class keys.
auto fileinfo = match.second.get_child("MatchFile");
if (fileinfo.count("LSDownloadContentTypeKey") > 0) {
r["filetype"] = fileinfo.get<std::string>("LSDownloadContentTypeKey");
} else {
r["filetype"] = fileinfo.get("NSURLTypeIdentifierKey", "");
}
r["uses_pattern"] = (match.second.count("Pattern") > 0) ? "1" : "0";
r["filename"] = fileinfo.get("NSURLNameKey", "");
results.push_back(r);
}
}
draw_state create_draw_state(boost::property_tree::ptree const& props)
{
return{
nullptr,
props.get("use_alpha_blending", false),
read_property(props, "alpha_blending_src_function", get_map_from_alpha_blending_function_names_to_gl_values()),
read_property(props, "alpha_blending_dst_function", get_map_from_alpha_blending_function_names_to_gl_values())
};
}
Ogre::Quaternion getQuaternion(boost::property_tree::ptree const & tree)
{
Ogre::Quaternion q;
Vector3D vec(getPosition(tree, "q"));
q.x = vec.x;
q.y = vec.y;
q.z = vec.z;
q.w = tree.get("qw", 0.f);
return q;
}
WeaponDesc(const boost::property_tree::ptree& node)
{
memset(this, 0, sizeof(WeaponDesc));
m_iDefId = node.get<int>("defindex");
m_sClass = node.get("item_class", "<unknown>");
m_sName = node.get("item_name", "<unknown>");
try
{
auto wpnProps = node.get_child("attributes");
m_bCanCrit = ( std::find_if(wpnProps.begin(), wpnProps.end(), [](const boost::property_tree::ptree::value_type& attrib)
{
return ((attrib.second.get("class", "") == "mult_crit_chance") &&
(attrib.second.get<float>("value") == 0));
} ) == wpnProps.end() );
}
catch(const boost::property_tree::ptree_error& e)
{
m_bCanCrit = true;
};
UpdateFilteredName(m_sName);
};
void XSDSchemaParser::parseKey(const pt::ptree &keyTree)
{
std::string keyName = getXSDAttributeValue(keyTree, "<xmlattr>.name");
bool duplicateOk = keyTree.get("<xmlattr>.hpcc:allowDuplicate", "false") == "true";
std::string elementName = getXSDAttributeValue(keyTree, "xs:selector.<xmlattr>.xpath", false, "");
std::string attrName = getXSDAttributeValue(keyTree, "xs:field.<xmlattr>.xpath", false, "");
std::string attributeName;
if (attrName.find_first_of('@') != std::string::npos)
{
attributeName = attrName.substr(attrName.find_first_of('@') + 1);
}
else
{
attributeName = attrName;
}
m_pSchemaItem->addUniqueAttributeValueSetDefinition(keyName, elementName, attributeName, duplicateOk);
}
void Split::updateConfig(const boost::property_tree::ptree &pt)
{
BOOST_LOG_TRIVIAL(debug) << __FUNCTION__ << " " << id();
_in_cloud = pt.get("inputs.cloud", _in_cloud);
_out_inliers = pt.get("outputs.inliers", _out_inliers);
_out_outliers = pt.get("outputs.outliers", _out_outliers);
_axis = pt.get("axis", _axis);
_min = pt.get("min", _min);
_max = pt.get("max", _max);
_axis = pt.get("options.axis", _axis);
_min = pt.get("options.min", _min);
_max = pt.get("options.max", _max);
}
void hydrator::read_element(const boost::property_tree::ptree& pt,
yarn::intermediate_model& m) const {
yarn::name_builder b;
const auto in_global_module(pt.get(in_global_module_key, false));
if (!in_global_module)
b.model_name(m.name().location());
const auto simple_name_value(pt.get<std::string>(simple_name_key));
b.simple_name(simple_name_value);
const auto i(pt.find(internal_modules_key));
if (i != pt.not_found()) {
std::list<std::string> ipp;
for (auto& item : pt.get_child(internal_modules_key))
ipp.push_back(item.second.get_value<std::string>());
if (!ipp.empty())
b.internal_modules(ipp);
else {
BOOST_LOG_SEV(lg, debug) << "Ignoring empty internal module path. "
<< "Type: " << simple_name_value;
}
}
yarn::name n(b.build());
const auto documentation(pt.get_optional<std::string>(documentation_key));
const auto lambda([&](yarn::element& e) {
BOOST_LOG_SEV(lg, debug) << "Processing element: " << n.qualified();
e.name(n);
e.origin_type(m.origin_type());
e.generation_type(m.generation_type());
e.in_global_module(in_global_module);
if (documentation)
e.documentation(*documentation);
const auto scope(dynamic::scope_types::entity);
e.extensions(create_dynamic_extensions(pt, scope));
});
const auto meta_type_value(pt.get<std::string>(meta_type_key));
if (meta_type_value == meta_type_object_value) {
yarn::object o;
lambda(o);
const auto ot(pt.get_optional<std::string>(object_type_key));
o.object_type(to_object_type(ot));
m.objects().insert(std::make_pair(n.qualified(), o));
} else if (meta_type_value == meta_type_primitive_value) {
yarn::primitive p;
const auto dit(pt.get(is_default_enumeration_type_key, false));
p.is_default_enumeration_type(dit);
lambda(p);
m.primitives().insert(std::make_pair(n.qualified(), p));
}
else {
BOOST_LOG_SEV(lg, error) << invalid_meta_type << meta_type_value;
BOOST_THROW_EXCEPTION(
hydration_error(invalid_meta_type + meta_type_value));
}
}
void CompShapeCircle::loadFromPropertyTree(const boost::property_tree::ptree& propTree)
{
m_center.x = propTree.get("circle.x", 0.0f);
m_center.y = propTree.get("circle.y", 0.0f);
m_radius = propTree.get("circle.r", 1.0f);
}
void setup_subchannel_from_ptree(dabSubchannel* subchan,
boost::property_tree::ptree &pt,
std::shared_ptr<dabEnsemble> ensemble,
string subchanuid,
std::shared_ptr<BaseRemoteController> rc)
{
using boost::property_tree::ptree;
using boost::property_tree::ptree_error;
string type;
/* Read type first */
try {
type = pt.get<string>("type");
}
catch (ptree_error &e) {
stringstream ss;
ss << "Subchannel with uid " << subchanuid << " has no type defined!";
throw runtime_error(ss.str());
}
string inputUri = "";
// fail if no inputUri given unless type is test
if (type != "test") {
inputUri = pt.get<string>("inputuri", "");
if (inputUri == "") {
try {
inputUri = pt.get<string>("inputfile");
}
catch (ptree_error &e) {
stringstream ss;
ss << "Subchannel with uid " << subchanuid << " has no inputUri defined!";
throw runtime_error(ss.str());
}
}
}
string proto;
size_t protopos = inputUri.find("://");
if (protopos == string::npos) {
proto = "file";
}
else {
proto = inputUri.substr(0, protopos);
}
subchan->inputUri = inputUri;
/* The input is of the old_style type,
* with the struct of function pointers,
* and needs to be a DabInputCompatible
*/
bool input_is_old_style = true;
dabInputOperations operations;
dabProtection* protection = &subchan->protection;
if (0) {
#if defined(HAVE_FORMAT_MPEG)
} else if (type == "audio") {
subchan->type = subchannel_type_t::Audio;
subchan->bitrate = 0;
if (0) {
#if defined(HAVE_INPUT_FILE)
} else if (proto == "file") {
operations = dabInputMpegFileOperations;
#endif // defined(HAVE_INPUT_FILE)
#if defined(HAVE_INPUT_ZEROMQ)
}
else if (proto == "tcp" ||
proto == "epmg" ||
proto == "ipc") {
input_is_old_style = false;
dab_input_zmq_config_t zmqconfig;
try {
zmqconfig.buffer_size = pt.get<int>("zmq-buffer");
}
catch (ptree_error &e) {
stringstream ss;
ss << "ZMQ Subchannel with uid " << subchanuid <<
" has no zmq-buffer defined!";
throw runtime_error(ss.str());
}
try {
zmqconfig.prebuffering = pt.get<int>("zmq-prebuffering");
}
catch (ptree_error &e) {
stringstream ss;
ss << "ZMQ Subchannel with uid " << subchanuid <<
" has no zmq-buffer defined!";
throw runtime_error(ss.str());
}
zmqconfig.enable_encryption = false;
DabInputZmqMPEG* inzmq =
new DabInputZmqMPEG(subchanuid, zmqconfig);
inzmq->enrol_at(*rc);
subchan->input = inzmq;
if (proto == "epmg") {
etiLog.level(warn) << "Using untested epmg:// zeromq input";
}
else if (proto == "ipc") {
etiLog.level(warn) << "Using untested ipc:// zeromq input";
}
#endif // defined(HAVE_INPUT_ZEROMQ)
} else {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": Invalid protocol for MPEG input (" <<
proto << ")" << endl;
throw runtime_error(ss.str());
}
#endif // defined(HAVE_INPUT_FILE) && defined(HAVE_FORMAT_MPEG)
#if defined(HAVE_FORMAT_DABPLUS)
} else if (type == "dabplus") {
subchan->type = subchannel_type_t::Audio;
subchan->bitrate = 32;
if (0) {
#if defined(HAVE_INPUT_FILE)
} else if (proto == "file") {
operations = dabInputDabplusFileOperations;
#endif // defined(HAVE_INPUT_FILE)
#if defined(HAVE_INPUT_ZEROMQ)
}
else if (proto == "tcp" ||
proto == "epmg" ||
proto == "ipc") {
input_is_old_style = false;
dab_input_zmq_config_t zmqconfig;
try {
zmqconfig.buffer_size = pt.get<int>("zmq-buffer");
}
catch (ptree_error &e) {
stringstream ss;
ss << "ZMQ Subchannel with uid " << subchanuid <<
" has no zmq-buffer defined!";
throw runtime_error(ss.str());
}
try {
zmqconfig.prebuffering = pt.get<int>("zmq-prebuffering");
}
catch (ptree_error &e) {
stringstream ss;
ss << "ZMQ Subchannel with uid " << subchanuid <<
" has no zmq-buffer defined!";
throw runtime_error(ss.str());
}
zmqconfig.curve_encoder_keyfile = pt.get<string>("encoder-key","");
zmqconfig.curve_secret_keyfile = pt.get<string>("secret-key","");
zmqconfig.curve_public_keyfile = pt.get<string>("public-key","");
zmqconfig.enable_encryption = pt.get<int>("encryption", 0);
DabInputZmqAAC* inzmq =
new DabInputZmqAAC(subchanuid, zmqconfig);
inzmq->enrol_at(*rc);
subchan->input = inzmq;
if (proto == "epmg") {
etiLog.level(warn) << "Using untested epmg:// zeromq input";
}
else if (proto == "ipc") {
etiLog.level(warn) << "Using untested ipc:// zeromq input";
}
#endif // defined(HAVE_INPUT_ZEROMQ)
} else {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": Invalid protocol for DAB+ input (" <<
proto << ")" << endl;
throw runtime_error(ss.str());
}
#endif // defined(HAVE_FORMAT_DABPLUS)
} else if (type == "bridge") {
// TODO default proto should be udp://
if (0) {
#if defined(HAVE_FORMAT_BRIDGE)
#if defined(HAVE_INPUT_UDP)
} else if (proto == "udp") {
operations = dabInputBridgeUdpOperations;
#endif // defined(HAVE_INPUT_UDP)
#if defined(HAVE_INPUT_SLIP)
} else if (proto == "slip") {
operations = dabInputSlipOperations;
#endif // defined(HAVE_INPUT_SLIP)
#endif // defined(HAVE_FORMAT_BRIDGE)
}
} else if (type == "data") {
// TODO default proto should be udp://
if (0) {
#if defined(HAVE_INPUT_UDP)
} else if (proto == "udp") {
operations = dabInputUdpOperations;
#endif
#if defined(HAVE_INPUT_PRBS) && defined(HAVE_FORMAT_RAW)
} else if (proto == "prbs") {
operations = dabInputPrbsOperations;
#endif
#if defined(HAVE_INPUT_FILE) && defined(HAVE_FORMAT_RAW)
} else if (proto == "file") {
operations = dabInputRawFileOperations;
#endif
} else if (proto == "fifo") {
operations = dabInputRawFifoOperations;
} else {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": Invalid protocol for data input (" <<
proto << ")" << endl;
throw runtime_error(ss.str());
}
subchan->type = subchannel_type_t::DataDmb;
subchan->bitrate = DEFAULT_DATA_BITRATE;
#if defined(HAVE_INPUT_TEST) && defined(HAVE_FORMAT_RAW)
} else if (type == "test") {
subchan->type = subchannel_type_t::DataDmb;
subchan->bitrate = DEFAULT_DATA_BITRATE;
operations = dabInputTestOperations;
#endif // defined(HAVE_INPUT_TEST)) && defined(HAVE_FORMAT_RAW)
#ifdef HAVE_FORMAT_PACKET
} else if (type == "packet") {
subchan->type = subchannel_type_t::Packet;
subchan->bitrate = DEFAULT_PACKET_BITRATE;
#ifdef HAVE_INPUT_FILE
operations = dabInputPacketFileOperations;
#elif defined(HAVE_INPUT_FIFO)
operations = dabInputFifoOperations;
#else
# pragma error("Must define at least one packet input")
#endif // defined(HAVE_INPUT_FILE)
#ifdef HAVE_FORMAT_EPM
} else if (type == "enhancedpacket") {
subchan->type = subchannel_type_t::Packet;
subchan->bitrate = DEFAULT_PACKET_BITRATE;
operations = dabInputEnhancedPacketFileOperations;
#endif // defined(HAVE_FORMAT_EPM)
#endif // defined(HAVE_FORMAT_PACKET)
#ifdef HAVE_FORMAT_DMB
} else if (type == "dmb") {
// TODO default proto should be UDP
if (0) {
#if defined(HAVE_INPUT_UDP)
} else if (proto == "udp") {
operations = dabInputDmbUdpOperations;
#endif
} else if (proto == "file") {
operations = dabInputDmbFileOperations;
} else {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": Invalid protocol for DMB input (" <<
proto << ")" << endl;
throw runtime_error(ss.str());
}
subchan->type = subchannel_type_t::DataDmb;
subchan->bitrate = DEFAULT_DATA_BITRATE;
#endif
} else {
stringstream ss;
ss << "Subchannel with uid " << subchanuid << " has unknown type!";
throw runtime_error(ss.str());
}
subchan->startAddress = 0;
if (type == "audio") {
protection->form = UEP;
protection->level = 2;
protection->uep.tableIndex = 0;
} else {
protection->level = 2;
protection->form = EEP;
protection->eep.profile = EEP_A;
}
/* Get bitrate */
try {
subchan->bitrate = pt.get<int>("bitrate");
if ((subchan->bitrate & 0x7) != 0) {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": Bitrate (" << subchan->bitrate << " not a multiple of 8!";
throw runtime_error(ss.str());
}
}
catch (ptree_error &e) {
stringstream ss;
ss << "Error, no bitrate defined for subchannel " << subchanuid;
throw runtime_error(ss.str());
}
#if defined(HAVE_INPUT_FIFO) && defined(HAVE_INPUT_FILE)
/* Get nonblock */
bool nonblock = pt.get("nonblock", false);
if (nonblock) {
switch (subchan->type) {
#ifdef HAVE_FORMAT_PACKET
case subchannel_type_t::Packet:
if (operations == dabInputPacketFileOperations) {
operations = dabInputFifoOperations;
#ifdef HAVE_FORMAT_EPM
} else if (operations == dabInputEnhancedPacketFileOperations) {
operations = dabInputEnhancedFifoOperations;
#endif // defined(HAVE_FORMAT_EPM)
} else {
stringstream ss;
ss << "Error, wrong packet operations for subchannel " <<
subchanuid;
throw runtime_error(ss.str());
}
break;
#endif // defined(HAVE_FORMAT_PACKET)
#ifdef HAVE_FORMAT_MPEG
case subchannel_type_t::Audio:
if (operations == dabInputMpegFileOperations) {
operations = dabInputMpegFifoOperations;
} else if (operations == dabInputDabplusFileOperations) {
operations = dabInputDabplusFifoOperations;
} else {
stringstream ss;
ss << "Error, wrong audio operations for subchannel " <<
subchanuid;
throw runtime_error(ss.str());
}
break;
#endif // defined(HAVE_FORMAT_MPEG)
case subchannel_type_t::DataDmb:
case subchannel_type_t::Fidc:
default:
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
" non-blocking I/O only available for audio or packet services!";
throw runtime_error(ss.str());
}
#endif // defined(HAVE_INPUT_FIFO) && defined(HAVE_INPUT_FILE)
}
/* Get id */
try {
subchan->id = hexparse(pt.get<std::string>("id"));
}
catch (ptree_error &e) {
for (int i = 0; i < 64; ++i) { // Find first free subchannel
vector<dabSubchannel*>::iterator subchannel = getSubchannel(ensemble->subchannels, i);
if (subchannel == ensemble->subchannels.end()) {
subchannel = ensemble->subchannels.end() - 1;
subchan->id = i;
break;
}
}
}
/* Get optional protection profile */
string profile = pt.get("protection-profile", "");
if (profile == "EEP_A") {
protection->form = EEP;
protection->eep.profile = EEP_A;
}
else if (profile == "EEP_B") {
protection->form = EEP;
protection->eep.profile = EEP_B;
}
else if (profile == "UEP") {
protection->form = UEP;
}
/* Get protection level */
try {
int level = pt.get<int>("protection");
if (protection->form == UEP) {
if ((level < 1) || (level > 5)) {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": protection level must be between "
"1 to 5 inclusively (current = " << level << " )";
throw runtime_error(ss.str());
}
}
else if (protection->form == EEP) {
if ((level < 1) || (level > 4)) {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": protection level must be between "
"1 to 4 inclusively (current = " << level << " )";
throw runtime_error(ss.str());
}
}
protection->level = level - 1;
}
catch (ptree_error &e) {
stringstream ss;
ss << "Subchannel with uid " << subchanuid <<
": protection level undefined!";
throw runtime_error(ss.str());
}
/* Create object */
if (input_is_old_style) {
subchan->input = new DabInputCompatible(operations);
}
// else { it's already been created! }
}
void XSDSchemaParser::parseComplexType(const pt::ptree &typeTree)
{
std::string complexTypeName = getXSDAttributeValue(typeTree, "<xmlattr>.name", false, "");
std::string className = typeTree.get("<xmlattr>.hpcc:class", "");
std::string catName = typeTree.get("<xmlattr>.hpcc:category", "");
std::string componentName = typeTree.get("<xmlattr>.hpcc:componentName", "");
std::string displayName = typeTree.get("<xmlattr>.hpcc:displayName", "");
if (!complexTypeName.empty())
{
if (!className.empty())
{
if (className == "component")
{
std::shared_ptr<SchemaItem> pComponent = std::make_shared<SchemaItem>(complexTypeName, "component", m_pSchemaItem);
pComponent->setProperty("category", catName);
pComponent->setProperty("componentName", componentName);
pComponent->setProperty("displayName", displayName);
pt::ptree componentTree = typeTree.get_child("", pt::ptree());
if (!componentTree.empty())
{
std::shared_ptr<XSDComponentParser> pComponentXSDParaser = std::make_shared<XSDComponentParser>(std::dynamic_pointer_cast<SchemaItem>(pComponent));
pComponentXSDParaser->parseXSD(typeTree);
m_pSchemaItem->addSchemaType(pComponent, complexTypeName);
}
else
{
throw(ParseException("Component definition empty: " + displayName));
}
}
else
{
throw(ParseException("Unrecognized class name for complex type: " + className));
}
}
//
// This is a complex type definition of just regular XSD statements, no special format. Create a parser and parse it
// and add it to the
else
{
std::shared_ptr<SchemaItem> pTypeItem = std::make_shared<SchemaItem>(complexTypeName, "", m_pSchemaItem);
pt::ptree childTree = typeTree.get_child("", pt::ptree());
if (!childTree.empty())
{
std::shared_ptr<XSDSchemaParser> pXSDParaser = std::make_shared<XSDSchemaParser>(pTypeItem);
pXSDParaser->parseXSD(childTree);
m_pSchemaItem->addSchemaType(pTypeItem, complexTypeName);
}
else
{
throw(ParseException("Complex type definition empty: " + displayName));
}
}
}
//
// Just a complexType delimiter, ignore and parse the children
else
{
parseXSD(typeTree.get_child("", pt::ptree()));
}
}
int ConfigurationReader::GetIntValue(const boost::property_tree::ptree& root, std::string path, int defaultValue) {
return root.get(path, defaultValue);
}
params(const boost::property_tree::ptree &p) {
std::vector<vex::backend::command_queue> *ptr = 0;
ptr = p.get("q", ptr);
if (ptr) q = *ptr;
}
void populate(boost::property_tree::ptree& tree, Key&& key, Value&& value, Remaining&&... args)
{
this->properties.insert(std::make_pair(key, std::make_pair(tree.get(key, value), value)));
populate(tree, args...);
}
void XSDSchemaParser::parseElement(const pt::ptree &elemTree)
{
std::string elementName = elemTree.get("<xmlattr>.name", "");
std::string className = elemTree.get("<xmlattr>.hpcc:class", "");
std::string category = elemTree.get("<xmlattr>.hpcc:category", "");
std::string displayName = elemTree.get("<xmlattr>.hpcc:displayName", "");
std::string typeName = elemTree.get("<xmlattr>.type", "");
unsigned minOccurs = elemTree.get("<xmlattr>.minOccurs", 1);
std::string maxOccursStr = elemTree.get("<xmlattr>.maxOccurs", "1");
unsigned maxOccurs = (maxOccursStr != "unbounded") ? stoi(maxOccursStr) : UINTMAX_MAX;
std::shared_ptr<SchemaItem> pConfigElement = std::make_shared<SchemaItem>(elementName, className, m_pSchemaItem);
pConfigElement->setProperty("displayName", displayName);
pConfigElement->setMinInstances(minOccurs);
pConfigElement->setMaxInstances(maxOccurs);
pConfigElement->setProperty("category", category);
pt::ptree childTree = elemTree.get_child("", pt::ptree());
// special case to set the root since the top level schema can't specify it
if (category == "root") // special case to set the root since the top level schema can't specify it
{
m_pSchemaItem->setProperty("name", elementName);
parseXSD(childTree);
}
else
{
//
// If a type is specified, then either it's a simple value type (which could be previously defined) for this element, or a named complex type.
if (!typeName.empty())
{
const std::shared_ptr<SchemaType> pSimpleType = m_pSchemaItem->getSchemaValueType(typeName, false);
if (pSimpleType != nullptr)
{
std::shared_ptr<SchemaValue> pCfgValue = std::make_shared<SchemaValue>(""); // no name value since it's the element's value
pCfgValue->setType(pSimpleType); // will throw if type is not defined
pConfigElement->setItemSchemaValue(pCfgValue);
}
else
{
std::shared_ptr<SchemaItem> pConfigType = m_pSchemaItem->getSchemaType(typeName, false);
if (pConfigType != nullptr)
{
//
// Insert into this config element the component defined data (attributes, references, etc.)
pConfigElement->insertSchemaType(pConfigType);
//
// Set element min/max instances to that defined by the component type def (ignore values parsed above)
pConfigElement->setMinInstances(pConfigType->getMinInstances());
pConfigElement->setMaxInstances(pConfigType->getMaxInstances());
//
// If a component, then set element data (allow overriding with locally parsed values)
if (pConfigType->getProperty("className") == "component")
{
pConfigElement->setProperty("name", (!elementName.empty()) ? elementName : pConfigType->getProperty("name"));
pConfigElement->setProperty("className", (!className.empty()) ? className : pConfigType->getProperty("className"));
pConfigElement->setProperty("category", (!category.empty()) ? category : pConfigType->getProperty("category"));
pConfigElement->setProperty("displayName", (!displayName.empty()) ? displayName : pConfigType->getProperty("displayName"));
pConfigElement->setProperty("componentName", pConfigType->getProperty("componentName"));
}
}
else
{
std::string msg = "Unable to find type " + typeName + " when parsing element " + elementName;
throw(ParseException(msg));
}
}
}
//
// Now, if there are children, create a parser and have at it
if (!childTree.empty())
{
std::shared_ptr<XSDSchemaParser> pXSDParaser = std::make_shared<XSDSchemaParser>(pConfigElement);
pXSDParaser->parseXSD(childTree);
}
//
// Add the element
m_pSchemaItem->addChild(pConfigElement);
}
}
std::shared_ptr<SchemaValue> XSDSchemaParser::getSchemaValue(const pt::ptree &attr)
{
std::string attrName = getXSDAttributeValue(attr, "<xmlattr>.name");
std::shared_ptr<SchemaValue> pCfgValue = std::make_shared<SchemaValue>(attrName);
pCfgValue->setDisplayName(attr.get("<xmlattr>.hpcc:displayName", attrName));
pCfgValue->setRequired(attr.get("<xmlattr>.use", "optional") == "required");
pCfgValue->setTooltip(attr.get("<xmlattr>.hpcc:tooltip", ""));
pCfgValue->setReadOnly(attr.get("<xmlattr>.hpcc:readOnly", "false") == "true");
pCfgValue->setHidden(attr.get("<xmlattr>.hpcc:hidden", "false") == "true");
pCfgValue->setDeprecated(attr.get("<xmlattr>.hpcc:deprecated", "false") == "true");
pCfgValue->setMirrorFromPath(attr.get("<xmlattr>.hpcc:mirrorFrom", ""));
pCfgValue->setAutoGenerateType(attr.get("<xmlattr>.hpcc:autoGenerateType", ""));
pCfgValue->setAutoGenerateValue(attr.get("<xmlattr>.hpcc:autoGenerateValue", ""));
pCfgValue->setDefaultValue(attr.get("<xmlattr>.default", ""));
std::string modList = attr.get("<xmlattr>.hpcc:modifiers", "");
if (modList.length())
{
pCfgValue->setModifiers(split(modList, ","));
}
std::string typeName = attr.get("<xmlattr>.type", "");
if (!typeName.empty())
{
pCfgValue->setType(m_pSchemaItem->getSchemaValueType(typeName));
}
else
{
std::shared_ptr<SchemaType> pType = getSchemaType(attr.get_child("xs:simpleType", pt::ptree()), false);
if (!pType->isValid())
{
throw(ParseException("Attribute " + attrName + " does not have a valid type"));
}
pCfgValue->setType(pType);
}
return pCfgValue;
}
Status serialize(const boost::property_tree::ptree& params,
std::string& serialized) {
serialized = params.get("copy", "");
return Status(0, "OK");
}
bool ProduceExcelWorkbook(Excel::_WorkbookPtr &pXLBook,
const std::wstring &wstrFilename,
const std::string &strPropellant,
bool bMetric,
const boost::property_tree::ptree &tree,
const std::vector<std::tuple<double, double, double, double, double> > &vReadings,
std::map<std::wstring, std::wstring> &mapProperties)
{
if(vReadings.empty())
{
return false;
}
// Get the active Worksheet and set its name.
Excel::_WorksheetPtr pXLSheet = pXLBook->ActiveSheet;
_ASSERT(pXLSheet);
if(nullptr == pXLSheet)
{
return false;
}
//
// Get Max Pressure to calculate the 10% line
double dPmaxtime = 0.0f;
double dPmax = GetPmax(dPmaxtime, vReadings);
double dpTenPercent = dPmax * 0.10f;
//
// Need to know the start and stop burn time based on 10% of Pmax:
double dBurnStartTime = 0.0f;
double dBurnEndTime = 0.0f;
LONG lIndexBurnStart = 0;
LONG lIndexBurnEnd = 0;
LONG lExcelIndex = 1;
bool bHaveEndTime = false;
for(auto entry : vReadings)
{
double dPressure = std::get<ePressure>(entry);
double dTime = std::get<eTime>(entry);
++lExcelIndex;
if(dTime <= dPmaxtime)
{
if(dPressure < dpTenPercent)
{
continue;
}
if(0 == lIndexBurnStart)
{
dBurnStartTime = dTime;
lIndexBurnStart = lExcelIndex;
}
}
else
{
// Watching the curve downward...
lIndexBurnEnd = lExcelIndex;
if(dPressure < dpTenPercent)
{
break;
}
dBurnEndTime = dTime;
}
}
double dBurnTime = dBurnEndTime - dBurnStartTime;
//
// Convert name to a wide string and assign it to the sheet
std::wstring wstrTabName(wstrFilename);
SanitizeStringName(wstrTabName);
//
// Remove any math operators from the name:
_bstr_t bstrTabName(SysAllocString(wstrTabName.c_str()));
pXLSheet->Name = bstrTabName;
std::wstring_convert<std::codecvt_utf8_utf16<wchar_t>> converter;
// std::wstring wstrPropellantName(converter.from_bytes(strPropellant.c_str()));
//
// Create seven columns of data: Time, Thrust (LBS), Thrust (N), and Pressure (PSI), ...
// Construct a safearray of the data
LONG lIndex = 2; // Note, 1 based not 0 - will contain # of rows...
VARIANT saData;
VARIANT saDataReferences;
saData.vt = VT_ARRAY | VT_VARIANT;
saDataReferences.vt = VT_ARRAY | VT_VARIANT;
{
SAFEARRAYBOUND sab[2];
sab[0].lLbound = 1;
sab[0].cElements = vReadings.size() + 2;
sab[1].lLbound = 1;
sab[1].cElements = 7;
saData.parray = SafeArrayCreate(VT_VARIANT, 2, sab);
if(saData.parray == nullptr)
{
MessageBoxW(HWND_TOP, L"Unable to create safearray for passing data to Excel.", L"Memory error...", MB_TOPMOST | MB_ICONERROR);
return false;
}
//
// Clean-up safe array when done...
auto cleanArray = std::experimental::make_scope_exit([&saData]() -> void
{
VariantClear(&saData);
});
sab[0].lLbound = 1;
sab[0].cElements = vReadings.size() + 2;
sab[1].lLbound = 1;
sab[1].cElements = 5;
saDataReferences.parray = SafeArrayCreate(VT_VARIANT, 2, sab);
if(saDataReferences.parray == nullptr)
{
MessageBoxW(HWND_TOP, L"Unable to create safearray for passing data to Excel.", L"Memory error...", MB_TOPMOST | MB_ICONERROR);
return false;
}
//
// Clean-up safe array when done...
auto cleanRefArray = std::experimental::make_scope_exit([&saDataReferences]() -> void
{
VariantClear(&saDataReferences);
});
//
// Labels:
SafeArrayPutString(*saData.parray, 1, 1, L"Time");
SafeArrayPutString(*saData.parray, 1, 2, L"Thrust\n(lbs.)");
SafeArrayPutString(*saData.parray, 1, 3, L"Thrust\n(N)");
SafeArrayPutString(*saData.parray, 1, 4, L"Pressure\n(PSI)");
SafeArrayPutString(*saData.parray, 1, 5, L"Threshold");
SafeArrayPutString(*saData.parray, 1, 6, L"Time\nDelta");
SafeArrayPutString(*saData.parray, 1, 7, L"Thrust Element\n(N)");
//
// Labels for reference data
SafeArrayPutString(*saDataReferences.parray, 1, 1, L"Time Delta"); // AA
SafeArrayPutString(*saDataReferences.parray, 1, 2, L"Thrust\n(lbs.)"); // AB
SafeArrayPutString(*saDataReferences.parray, 1, 3, L"Thrust\n(N)"); // AC
SafeArrayPutString(*saDataReferences.parray, 1, 4, L"Pressure\n(PSI)"); // AD
SafeArrayPutString(*saDataReferences.parray, 1, 5, L"Thrust Element\n(N)"); // AE
LONG lIndexBurnStart = lIndex;
LONG lIndexBurnEnd = lIndex;
for(auto data : vReadings)
{
double dTime = std::get<eTime>(data);
double dThrust = std::get<eThrust>(data);
double dPressure = std::get<ePressure>(data);
double dThrustLBS = bMetric ? dThrust / g_dNewtonsPerPound : dThrust;
double dThrustN = bMetric ? dThrust : dThrust * g_dNewtonsPerPound;
double dTimeDelta = std::get<eTimeDelta>(data);
double dThrustElementN = std::get<eThrustElementN>(data);
SafeArrayPutDouble(*saData.parray, lIndex, 1, dTime); // A
SafeArrayPutDouble(*saData.parray, lIndex, 2, dThrustLBS); // B
SafeArrayPutDouble(*saData.parray, lIndex, 3, dThrustN); // C
SafeArrayPutDouble(*saData.parray, lIndex, 4, dPressure); // D
std::wstring wstrPmaxCalcCell(L"=IF($D$");
wstrPmaxCalcCell += std::to_wstring(lIndex);
wstrPmaxCalcCell += L"<$Q$35,0,$Q$35";
SafeArrayPutString(*saData.parray, lIndex, 5, wstrPmaxCalcCell);// E (pMax threshold)
SafeArrayPutDouble(*saData.parray, lIndex, 6, dTimeDelta); // F
SafeArrayPutDouble(*saData.parray, lIndex, 7, dThrustElementN); // G
//
// Generate a set of data (to be hidden) which is blank when the real value is below the threshold
auto fnGenThresholdIFStatement = ([lIndex](std::wstring &wstrStatement, wchar_t wcCol)
{
wstrStatement = L"=IF($E$";
wstrStatement += std::to_wstring(lIndex);
wstrStatement += L",$";
wstrStatement += wcCol;
wstrStatement += L"$";
wstrStatement += std::to_wstring(lIndex);
wstrStatement += L",\"\")";
});
//
// Now the references to included data =IF($E$n,$F$n,"")
std::wstring wstrRef;
fnGenThresholdIFStatement(wstrRef, L'F');
SafeArrayPutString(*saDataReferences.parray, lIndex, 1, wstrRef);// AA (Time Delta)
fnGenThresholdIFStatement(wstrRef, L'B');
SafeArrayPutString(*saDataReferences.parray, lIndex, 2, wstrRef);// AB (Thrust LBS.)
fnGenThresholdIFStatement(wstrRef, L'C');
SafeArrayPutString(*saDataReferences.parray, lIndex, 3, wstrRef);// AC (Thrust N.)
fnGenThresholdIFStatement(wstrRef, L'D');
SafeArrayPutString(*saDataReferences.parray, lIndex, 4, wstrRef);// AD (Pressure)
fnGenThresholdIFStatement(wstrRef, L'G');
SafeArrayPutString(*saDataReferences.parray, lIndex, 5, wstrRef);// AE (Thrust Element)
++lIndex;
}
//
// Insert the data into A1-Gx
std::wstring wstrDataRange(L"A1:G");
wstrDataRange += std::to_wstring(lIndex);
Excel::RangePtr pXLRange = pXLSheet->Range[_variant_t(wstrDataRange.c_str())];
_ASSERT(pXLRange);
if(nullptr == pXLRange)
{
return false;
}
pXLRange->Value2 = saData;
//
// Insert the Reference Data in AA - EE
std::wstring wstrDataRangeRef(L"AA1:AE");
wstrDataRangeRef += std::to_wstring(lIndex);
Excel::RangePtr pXLRangeRef = pXLSheet->Range[_variant_t(wstrDataRangeRef.c_str())];
_ASSERT(pXLRangeRef);
if(nullptr == pXLRangeRef)
{
return false;
}
pXLRangeRef->Value2 = saDataReferences;
}
//
// Create a chart showing pressure and thrust curves
// With a secondary axis for thrust so that curves are near in scale
// e.g. "ASBLUE3_16!$A$1:$B$457,ASBLUE3_16!$D$1:$D$457"
std::wstring wstrChartRange(wstrTabName + L"!$A$1:$B$");
wstrChartRange += std::to_wstring(lIndex);
wstrChartRange += L",";
wstrChartRange += wstrTabName;
wstrChartRange += L"!$D$1:$D$";
wstrChartRange += std::to_wstring(lIndex);
_variant_t varChartRangeString(wstrChartRange.c_str());
//
// Create the range...
Excel::RangePtr pChartRange = pXLSheet->Range[varChartRangeString];
_ASSERT(pChartRange);
if(nullptr == pChartRange)
{
return false;
}
//
// Create the chart -- odd, but this the method for getting it embedded on
// the same page as the data...
auto pShapes = pXLSheet->GetShapes();
_ASSERT(pShapes);
if(nullptr == pShapes)
{
return false;
}
// auto pChartShape = pShapes->AddChart2(240, Excel::xlXYScatter); <- Requires Excel 2013
auto pChartShape = pShapes->AddChart(Excel::xlXYScatter);
_ASSERT(pChartShape);
if(nullptr == pChartShape)
{
return false;
}
pChartShape->Select();
//
// With the newly created Chart Shape we can access it's chart with Workbook::GetActiveChart()
// And set the source data to the range created previously...
auto pChart = pXLBook->GetActiveChart();
_ASSERT(pChart);
if(nullptr == pChart)
{
return false;
}
pChart->SetSourceData(pChartRange);
//
// Set the Chart Title
pChart->PutHasTitle(LOCALE_USER_DEFAULT, VARIANT_TRUE);
auto pChartTitle = pChart->ChartTitle;
_ASSERT(pChartTitle);
if(nullptr != pChartTitle)
{
pChartTitle->Select();
pChartTitle->Text = _bstr_t(L"Pressure and Thrust");
}
//
// Setup as a custom chart with stacked lines and a secondary axis
Excel::SeriesPtr pFSC1 = pChart->SeriesCollection(variant_t(1));
Excel::SeriesPtr pFSC2 = pChart->SeriesCollection(variant_t(2));
_ASSERT(pFSC1);
_ASSERT(pFSC2);
if(nullptr == pFSC1 || nullptr == pFSC2)
{
return false;
}
pFSC1->ChartType = Excel::xlLineStacked;
pFSC1->AxisGroup = Excel::xlSecondary;
pFSC2->ChartType = Excel::xlLineStacked;
pFSC2->AxisGroup = Excel::xlPrimary;
//
// Make the axis labels appear (left for PSI, bottom for time, and right for thrust)
pChart->SetElement(Office::msoElementPrimaryCategoryAxisTitleAdjacentToAxis);
pChart->SetElement(Office::msoElementPrimaryValueAxisTitleRotated);
pChart->SetElement(Office::msoElementSecondaryValueAxisTitleAdjacentToAxis);
//
// Set the bottom (Primary - Category) axis title to "time":
Excel::AxisPtr pPrimaryAxes = pChart->Axes(Excel::xlCategory, Excel::xlPrimary);
_ASSERT(pPrimaryAxes);
if(nullptr == pPrimaryAxes)
{
return false;
}
Excel::AxisTitlePtr pPrimaryAxisTitle = pPrimaryAxes->AxisTitle;
_ASSERT(pPrimaryAxisTitle);
if(nullptr == pPrimaryAxisTitle)
{
return false;
}
pPrimaryAxisTitle->Select();
_bstr_t bstrTime(L"Time");
pPrimaryAxisTitle->Text = bstrTime;
//
// Set the left (Primary - Value) axis title to "PSI":
_bstr_t bstrPSI(L"PSI");
Excel::AxisPtr pPrimaryVAxes = pChart->Axes(Excel::xlValue, Excel::xlPrimary);
_ASSERT(pPrimaryVAxes);
if(nullptr == pPrimaryVAxes)
{
return false;
}
Excel::AxisTitlePtr pPrimaryVAxisTitle = pPrimaryVAxes->AxisTitle;
_ASSERT(pPrimaryVAxisTitle);
if(nullptr == pPrimaryVAxisTitle)
{
return false;
}
pPrimaryVAxisTitle->Select();
pPrimaryVAxisTitle->Text = bstrPSI;
//
// Set the right (Secondary - Value) axis title to "Pounds of Thrust"
Excel::AxisPtr pSecondaryAxes = pChart->Axes(Excel::xlValue, Excel::xlSecondary);
_ASSERT(pSecondaryAxes);
if(nullptr == pSecondaryAxes)
{
return false;
}
Excel::AxisTitlePtr pSecondaryAxisTitle = pSecondaryAxes->AxisTitle;
_ASSERT(pSecondaryAxisTitle);
if(nullptr == pSecondaryAxisTitle)
{
return false;
}
pSecondaryAxisTitle->Text = _bstr_t(L"Pounds of Thrust");
//
// Move chart into place and give a good size:
Excel::ChartAreaPtr pChartArea = pChart->GetChartArea(0);
_ASSERT(pChartArea);
if(nullptr == pChartArea)
{
return false;
}
pChartArea->PutLeft(365.0f);
pChartArea->PutTop(52.0f);
pChartArea->PutHeight(300.0f);
pChartArea->PutWidth(500.0f);
//
// Set Gridlines
pChart->SetElement(Office::msoElementPrimaryCategoryGridLinesNone);
pChart->SetElement(Office::msoElementPrimaryValueGridLinesNone);
pChart->SetElement(Office::msoElementPrimaryValueGridLinesMajor);
pChart->SetElement(Office::msoElementPrimaryValueGridLinesNone);
pChart->SetElement(Office::msoElementPrimaryValueGridLinesMinor);
//
// Add the 10% Pmax line:
Excel::SeriesCollectionPtr pSeriesCol = pChart->SeriesCollection();
_ASSERT(pSeriesCol);
if(nullptr == pSeriesCol)
{
return false;
}
Excel::SeriesPtr pPmaxSeries = pSeriesCol->NewSeries();
_ASSERT(pPmaxSeries);
if(nullptr == pPmaxSeries)
{
return false;
}
pPmaxSeries->Name = _bstr_t(L"Action Time");
std::wstring wstrPmaxValue(L"=");
wstrPmaxValue += wstrTabName;
std::wstring wstrPmaxXValue(wstrPmaxValue);
wstrPmaxValue += L"!$E$2:$E$";
wstrPmaxXValue += L"!$A$2:$A$";
wstrPmaxValue += std::to_wstring(lIndex);
wstrPmaxXValue += std::to_wstring(lIndex);
pPmaxSeries->Values = _bstr_t(wstrPmaxValue.c_str());
pPmaxSeries->XValues = _bstr_t(wstrPmaxXValue.c_str());
pPmaxSeries->ChartType = Excel::xlLine;
pPmaxSeries->AxisGroup = Excel::xlPrimary;
std::wstring wstrPressureRange(L"(D2:D");
wstrPressureRange += std::to_wstring(lIndex);
wstrPressureRange += L")";
//
// Display other file data...
const std::string strGrains(tree.get("Document.MotorData.Grains", "0"));
const std::string strCaseDiameter(tree.get("Document.MotorData.CaseDiameter", "0 mm"));
const std::string strNozzleThroat(tree.get("Document.MotorData.NozzleThroatDiameter", "0"));
std::string strInfo(strGrains + " grain " + strCaseDiameter + " " + strPropellant + " with " + strNozzleThroat + "\" throat 'nozzle'");
std::wstring wstrInfo(converter.from_bytes(strInfo.c_str()));
std::wstring wstrInfoRange(L"K1");
Excel::RangePtr pInfoRange = pXLSheet->Range[_variant_t(wstrInfoRange.c_str())];
_ASSERT(pInfoRange);
if(nullptr == pInfoRange)
{
return false;
}
pInfoRange->Value2 = _bstr_t(wstrInfo.c_str());
//
// Add calculated data: ??? 5% line and other calculated data...
// <doc name, display name, display location row letter, display location cell number, metric conversion>
std::vector<std::tuple<std::string, std::wstring, wchar_t, int, bool> > vFileItemDisplay;
vFileItemDisplay.push_back(std::make_tuple("Document.MotorData.MaxThrust", L"Maximum Thrust:", L'K', 25, true));
vFileItemDisplay.push_back(std::make_tuple("Document.MotorData.AvgThrust", L"Average Thrust:", L'K', 26, true));
vFileItemDisplay.push_back(std::make_tuple("Document.MotorData.MaxPressure", L"Maximum Pressure:", L'K', 28, false));
vFileItemDisplay.push_back(std::make_tuple("Document.MotorData.AvgPressure", L"Average Pressure:", L'K', 29, false));
vFileItemDisplay.push_back(std::make_tuple("Document.MotorData.BurnTime", L"Burn Time:", L'K', 31, false));
vFileItemDisplay.push_back(std::make_tuple("Document.MotorData.Impuse", L"Impulse:", L'K', 32, false)); // NOTE: Spelling mistake in the TC Logger data!
PlaceStringInCell(pXLSheet, L'L', 24, L"TC Logger File Data:");
for(auto entry : vFileItemDisplay)
{
std::wstring wstrDisplay(std::get<1>(entry));
double dData = tree.get(std::get<0>(entry).c_str(), 0.0f);
bool bConversion = std::get<4>(entry);
const wchar_t wcColumn = std::get<2>(entry);
const wchar_t wcDataColumn = wcColumn + 2;
int row = std::get<3>(entry);
PlaceStringInCell(pXLSheet, wcColumn, row, wstrDisplay);
if(bConversion)
{
double dThrustLBS = bMetric ? dData / g_dNewtonsPerPound : dData;
double dThrustN = bMetric ? dData : dData * g_dNewtonsPerPound;
PlaceStringInCell(pXLSheet, wcDataColumn, row, std::to_wstring(dThrustLBS));
PlaceStringInCell(pXLSheet, wcDataColumn + 1, row, L"LBS.");
PlaceStringInCell(pXLSheet, wcDataColumn + 2, row, std::to_wstring(dThrustN));
PlaceStringInCell(pXLSheet, wcDataColumn + 3, row, L"N");
}
else
{
PlaceStringInCell(pXLSheet, wcDataColumn, row, std::to_wstring(dData));
}
}
PlaceStringInCell(pXLSheet, L'I', 34, L"VARIABLES:");
//
// Percent of Pmax used for calculations
PlaceStringInCell(pXLSheet, L'I', 35, L"% Pmax for Burn threshold:");
PlaceStringInCell(pXLSheet, L'L', 35, mapProperties[L"PmaxThreshold"]); // 10% by default gives Action Time according to Sutton
PlaceStringInCell(pXLSheet, L'M', 35, L"Pmax:");
std::wstring wstrPmaxCalc(L"=MAX");
wstrPmaxCalc += wstrPressureRange;
PlaceStringInCell(pXLSheet, L'N', 35, wstrPmaxCalc);
PlaceStringInCell(pXLSheet, L'O', 35, L"Pmax Threshold:");
PlaceStringInCell(pXLSheet, L'Q', 35, L"=($N$35*($L$35/100))"); // Q35
//
// Grain Weight (g): [178]
PlaceStringInCell(pXLSheet, L'I', 36, L"Grain Weight (g):");
PlaceStringInCell(pXLSheet, L'L', 36, mapProperties[L"GrainWeight"]);
// Liner Weight g/in: [ 1.9197342 ] or [ 3.030928 ]
PlaceStringInCell(pXLSheet, L'I', 37, L"Casting Tube Weight (g/in.):");
PlaceStringInCell(pXLSheet, L'L', 37, mapProperties[L"CastingTubeWeight"]);
// PlaceStringInCell(pXLSheet, L'M', 37, L"White 54mm casting tube: 1.9197342 g/in. Tru-Core Waxy 54mm: 3.030928 g/in");
// Grain Length: [ 3.0625 ]
PlaceStringInCell(pXLSheet, L'I', 38, L"Grain Length (in.):");
PlaceStringInCell(pXLSheet, L'L', 38, mapProperties[L"GrainLength"]);
// Grain Diameter (in.): [ 1.75 ]
PlaceStringInCell(pXLSheet, L'I', 39, L"Grain Diameter (in.):");
PlaceStringInCell(pXLSheet, L'L', 39, mapProperties[L"GrainDiameter"]);
// Grain Core (in.): [ 0.625 ]
PlaceStringInCell(pXLSheet, L'I', 40, L"Grain Core (in.):");
PlaceStringInCell(pXLSheet, L'L', 40, mapProperties[L"GrainCore"]);
//
// Our calculations (using Excel formulas so input can be changed)...
PlaceStringInCell(pXLSheet, L'I', 42, L"Calculations based on Pmax Threshold:");
// Density:
PlaceStringInCell(pXLSheet, L'I', 43, L"Density:");
PlaceStringInCell(pXLSheet, L'L', 43, L"=((L36-(L38*L37))/453.59237)/(((((L39/2)^2)-(L40/2)^2))*PI()*L38)");
// Web
PlaceStringInCell(pXLSheet, L'I', 44, L"Web:");
PlaceStringInCell(pXLSheet, L'L', 44, L"=(L39-L40)/2");
// Burn Time (s)
PlaceStringInCell(pXLSheet, L'I', 45, L"Burn Time (s):");
std::wstring wstrBurnTime(L"=SUM(AA1:AA");
wstrBurnTime += std::to_wstring(lIndex);
PlaceStringInCell(pXLSheet, L'L', 45, wstrBurnTime);
PlaceStringInCell(pXLSheet, L'M', 45, std::wstring(L"10% = " + std::to_wstring(dBurnTime)));
// Max Pressure
PlaceStringInCell(pXLSheet, L'I', 46, L"Max Pressure (PSI):");
std::wstring wstrBtPressureRange(L"(AD1:AD");
wstrBtPressureRange += std::to_wstring(lIndex);
wstrBtPressureRange += L")";
std::wstring wstrMaxPressure(L"=MAX");
wstrMaxPressure += wstrBtPressureRange;
PlaceStringInCell(pXLSheet, L'L', 46, wstrMaxPressure);
// Average Pressure
PlaceStringInCell(pXLSheet, L'I', 47, L"Average Pressure (PSI):");
std::wstring wstrAvgPressure(L"=AVERAGE");
wstrAvgPressure += wstrBtPressureRange;
PlaceStringInCell(pXLSheet, L'L', 47, wstrAvgPressure);
std::wstring wstrThrustRange(L"(AB1:AB");
std::wstring wstrThrustRangeN(L"(AC1:AC");
std::wstring wstrThrustElementRangeN(L"(AE1:AE");
wstrThrustRange += std::to_wstring(lIndex);
wstrThrustRangeN += std::to_wstring(lIndex);
wstrThrustElementRangeN += std::to_wstring(lIndex);
wstrThrustRange += L")";
wstrThrustRangeN += L")";
wstrThrustElementRangeN += L")";
// Max Thrust (LBS)
PlaceStringInCell(pXLSheet, L'I', 48, L"Max Thrust (LBS):");
std::wstring wstrMaxThrust(L"=MAX");
wstrMaxThrust += wstrThrustRange;
PlaceStringInCell(pXLSheet, L'L', 48, wstrMaxThrust);
// Max Thrust (N)
PlaceStringInCell(pXLSheet, L'I', 49, L"Max Thrust (N):");
std::wstring wstrMaxThrustN(L"=MAX");
wstrMaxThrustN += wstrThrustRangeN;
PlaceStringInCell(pXLSheet, L'L', 49, wstrMaxThrustN);
// Average Thrust (LBS)
PlaceStringInCell(pXLSheet, L'I', 50, L"Average Thrust (LBS):");
std::wstring wstrAvgThrust(L"=AVERAGE");
wstrAvgThrust += wstrThrustRange;
PlaceStringInCell(pXLSheet, L'L', 50, wstrAvgThrust);
// Average Thrust (N)
PlaceStringInCell(pXLSheet, L'I', 51, L"Average Thrust (N):");
std::wstring wstrAvgThrustN(L"=AVERAGE");
wstrAvgThrustN += wstrThrustRangeN;
PlaceStringInCell(pXLSheet, L'L', 51, wstrAvgThrustN);
// Total Thrust:
PlaceStringInCell(pXLSheet, L'I', 52, L"Total Thrust (N):");
std::wstring wstrTotalThrustN(L"=SUM");
wstrTotalThrustN += wstrThrustElementRangeN;
PlaceStringInCell(pXLSheet, L'L', 52, wstrTotalThrustN);
// Grain Weight minus Liner:
PlaceStringInCell(pXLSheet, L'I', 53, L"Propellant Weight (g):");
PlaceStringInCell(pXLSheet, L'L', 53, L"=(L36-(L38*L37))");
// ISP:
PlaceStringInCell(pXLSheet, L'I', 55, L"ISP:");
PlaceStringInCell(pXLSheet, L'L', 55, L"=L52/(9.8*(L53/1000))");
// Burn Rate:
PlaceStringInCell(pXLSheet, L'I', 56, L"Burn Rate:");
PlaceStringInCell(pXLSheet, L'L', 56, L"=(L44/L45)");
//
// Make the INPUT area GREEN:
Excel::RangePtr pVariableRange = pXLSheet->Range[_variant_t(L"I35:L40")];
_ASSERT(pVariableRange);
if(nullptr == pVariableRange)
{
return false;
}
Excel::InteriorPtr pIntVarRange = pVariableRange->Interior;
_ASSERT(pIntVarRange);
if(nullptr == pIntVarRange)
{
return false;
}
pIntVarRange->Pattern = xlSolid;
pIntVarRange->PatternColorIndex = Excel::xlAutomatic;
pIntVarRange->Color = 5287936;
pIntVarRange->TintAndShade = 0;
pIntVarRange->PatternTintAndShade = 0;
//
// Output Area
Excel::RangePtr pCalcRange = pXLSheet->Range[_variant_t(L"I43:L56")];
_ASSERT(pCalcRange);
if(nullptr == pCalcRange)
{
return false;
}
Excel::InteriorPtr pIntCalcRange = pCalcRange->Interior;
_ASSERT(pIntCalcRange);
if(nullptr == pIntCalcRange)
{
return false;
}
pIntCalcRange->PatternColorIndex = Excel::xlAutomatic;
pIntCalcRange->Color = 7373816;
pIntCalcRange->TintAndShade = 0;
pIntCalcRange->PatternTintAndShade = 0;
return true;
}
