/* SleepLib PRS1 Loader Implementation * * Copyright (c) 2011-2014 Mark Watkins * * This file is subject to the terms and conditions of the GNU General Public * License. See the file COPYING in the main directory of the Linux * distribution for more details. */ #include #include #include #include #include #include #include #include #include #include #include "SleepLib/schema.h" #include "prs1_loader.h" #include "SleepLib/session.h" #include "SleepLib/calcs.h" //const int PRS1_MAGIC_NUMBER = 2; //const int PRS1_SUMMARY_FILE=1; //const int PRS1_EVENT_FILE=2; //const int PRS1_WAVEFORM_FILE=5; //******************************************************************************************** /// IMPORTANT!!! //******************************************************************************************** // Please INCREMENT the prs1_data_version in prs1_loader.h when making changes to this loader // that change loader behaviour or modify channels. //******************************************************************************************** extern QProgressBar *qprogress; QHash ModelMap; #define PRS1_CRC_CHECK #ifdef PRS1_CRC_CHECK typedef quint16 crc_t; static const crc_t crc_table[256] = { 0x0000, 0x1189, 0x2312, 0x329b, 0x4624, 0x57ad, 0x6536, 0x74bf, 0x8c48, 0x9dc1, 0xaf5a, 0xbed3, 0xca6c, 0xdbe5, 0xe97e, 0xf8f7, 0x1081, 0x0108, 0x3393, 0x221a, 0x56a5, 0x472c, 0x75b7, 0x643e, 0x9cc9, 0x8d40, 0xbfdb, 0xae52, 0xdaed, 0xcb64, 0xf9ff, 0xe876, 0x2102, 0x308b, 0x0210, 0x1399, 0x6726, 0x76af, 0x4434, 0x55bd, 0xad4a, 0xbcc3, 0x8e58, 0x9fd1, 0xeb6e, 0xfae7, 0xc87c, 0xd9f5, 0x3183, 0x200a, 0x1291, 0x0318, 0x77a7, 0x662e, 0x54b5, 0x453c, 0xbdcb, 0xac42, 0x9ed9, 0x8f50, 0xfbef, 0xea66, 0xd8fd, 0xc974, 0x4204, 0x538d, 0x6116, 0x709f, 0x0420, 0x15a9, 0x2732, 0x36bb, 0xce4c, 0xdfc5, 0xed5e, 0xfcd7, 0x8868, 0x99e1, 0xab7a, 0xbaf3, 0x5285, 0x430c, 0x7197, 0x601e, 0x14a1, 0x0528, 0x37b3, 0x263a, 0xdecd, 0xcf44, 0xfddf, 0xec56, 0x98e9, 0x8960, 0xbbfb, 0xaa72, 0x6306, 0x728f, 0x4014, 0x519d, 0x2522, 0x34ab, 0x0630, 0x17b9, 0xef4e, 0xfec7, 0xcc5c, 0xddd5, 0xa96a, 0xb8e3, 0x8a78, 0x9bf1, 0x7387, 0x620e, 0x5095, 0x411c, 0x35a3, 0x242a, 0x16b1, 0x0738, 0xffcf, 0xee46, 0xdcdd, 0xcd54, 0xb9eb, 0xa862, 0x9af9, 0x8b70, 0x8408, 0x9581, 0xa71a, 0xb693, 0xc22c, 0xd3a5, 0xe13e, 0xf0b7, 0x0840, 0x19c9, 0x2b52, 0x3adb, 0x4e64, 0x5fed, 0x6d76, 0x7cff, 0x9489, 0x8500, 0xb79b, 0xa612, 0xd2ad, 0xc324, 0xf1bf, 0xe036, 0x18c1, 0x0948, 0x3bd3, 0x2a5a, 0x5ee5, 0x4f6c, 0x7df7, 0x6c7e, 0xa50a, 0xb483, 0x8618, 0x9791, 0xe32e, 0xf2a7, 0xc03c, 0xd1b5, 0x2942, 0x38cb, 0x0a50, 0x1bd9, 0x6f66, 0x7eef, 0x4c74, 0x5dfd, 0xb58b, 0xa402, 0x9699, 0x8710, 0xf3af, 0xe226, 0xd0bd, 0xc134, 0x39c3, 0x284a, 0x1ad1, 0x0b58, 0x7fe7, 0x6e6e, 0x5cf5, 0x4d7c, 0xc60c, 0xd785, 0xe51e, 0xf497, 0x8028, 0x91a1, 0xa33a, 0xb2b3, 0x4a44, 0x5bcd, 0x6956, 0x78df, 0x0c60, 0x1de9, 0x2f72, 0x3efb, 0xd68d, 0xc704, 0xf59f, 0xe416, 0x90a9, 0x8120, 0xb3bb, 0xa232, 0x5ac5, 0x4b4c, 0x79d7, 0x685e, 0x1ce1, 0x0d68, 0x3ff3, 0x2e7a, 0xe70e, 0xf687, 0xc41c, 0xd595, 0xa12a, 0xb0a3, 0x8238, 0x93b1, 0x6b46, 0x7acf, 0x4854, 0x59dd, 0x2d62, 0x3ceb, 0x0e70, 0x1ff9, 0xf78f, 0xe606, 0xd49d, 0xc514, 0xb1ab, 0xa022, 0x92b9, 0x8330, 0x7bc7, 0x6a4e, 0x58d5, 0x495c, 0x3de3, 0x2c6a, 0x1ef1, 0x0f78 }; crc_t CRC16(const unsigned char *data, size_t data_len) { crc_t crc = 0; unsigned int tbl_idx; while (data_len--) { tbl_idx = (crc ^ *data) & 0xff; crc = (crc_table[tbl_idx] ^ (crc >> 8)) & 0xffff; data++; } return crc & 0xffff; } #endif enum FlexMode { FLEX_None, FLEX_CFlex, FLEX_CFlexPlus, FLEX_AFlex, FLEX_RiseTime, FLEX_BiFlex, FLEX_Unknown }; ChannelID PRS1_TimedBreath = 0, PRS1_HeatedTubing = 0; PRS1::PRS1(MachineID id): CPAP(id) { } PRS1::~PRS1() { } /*! \struct WaveHeaderList \brief Used in PRS1 Waveform Parsing */ struct WaveHeaderList { quint16 interleave; quint8 sample_format; WaveHeaderList(quint16 i, quint8 f) { interleave = i; sample_format = f; } }; PRS1Loader::PRS1Loader() { const QString PRS1_ICON = ":/icons/prs1.png"; const QString PRS1_60_ICON = ":/icons/prs1_60s.png"; QString s = newInfo().series; m_pixmap_paths["System One"] = PRS1_ICON; m_pixmaps["System One"] = QPixmap(PRS1_ICON); m_pixmap_paths["System One (60 Series)"] = PRS1_60_ICON; m_pixmaps["System One (60 Series)"] = QPixmap(PRS1_60_ICON); //genCRCTable(); // find what I did with this.. m_type = MT_CPAP; } PRS1Loader::~PRS1Loader() { } bool isdigit(QChar c) { if ((c >= '0') && (c <= '9')) { return true; } return false; } const QString PR_STR_PSeries = "P-Series"; // Tests path to see if it has (what looks like) a valid PRS1 folder structure bool PRS1Loader::Detect(const QString & path) { QString newpath = checkDir(path); return !newpath.isEmpty(); } QString PRS1Loader::checkDir(const QString & path) { QString newpath = path; newpath.replace("\\", "/"); if (!newpath.endsWith("/" + PR_STR_PSeries)) { newpath = path + "/" + PR_STR_PSeries; } QDir dir(newpath); if ((!dir.exists() || !dir.isReadable())) { return QString(); } qDebug() << "PRS1Loader::Detect path=" << newpath; QFile lastfile(newpath+"/last.txt"); bool exists = true; if (!lastfile.exists()) { lastfile.setFileName(newpath+"/LAST.TXT"); if (!lastfile.exists()) exists = false; } QString machpath; if (exists) { if (!lastfile.open(QIODevice::ReadOnly)) { qDebug() << "PRS1Loader: last.txt exists but I couldn't open it!"; } else { QTextStream ts(&lastfile); QString serial = ts.readLine(64).trimmed(); lastfile.close(); machpath = newpath+"/"+serial; if (!QDir(machpath).exists()) { machpath = QString(); } } } if (machpath.isEmpty()) { QDir dir(newpath); QStringList dirs = dir.entryList(QDir::NoDotAndDotDot | QDir::Dirs); if (dirs.size() > 0) { machpath = dirs[0]; } } return machpath; } void parseModel(MachineInfo & info, QString modelnum) { info.modelnumber = modelnum; QString modelstr; bool fnd = false; for (int i=0; iproperties[pair[0]] = pair[1]; } while (!in.atEnd()); if (!modelnum.isEmpty()) { parseModel(info, modelnum); } if (ptype > 0) { if (ModelMap.contains(ptype)) { info.model = ModelMap[ptype]; } } if (dfv == 3) { info.series = QObject::tr("DreamStation"); } return true; } MachineInfo PRS1Loader::PeekInfo(const QString & path) { QString newpath = checkDir(path); if (newpath.isEmpty()) return MachineInfo(); MachineInfo info = newInfo(); info.serial = newpath.section("/", -1); PeekProperties(info, newpath+"/properties.txt"); return info; } int PRS1Loader::Open(QString path) { QString newpath; path = path.replace("\\", "/"); if (path.endsWith("/" + PR_STR_PSeries)) { newpath = path; } else { newpath = path + "/" + PR_STR_PSeries; } qDebug() << "PRS1Loader::Open path=" << newpath; QDir dir(newpath); if ((!dir.exists() || !dir.isReadable())) { return -1; } dir.setFilter(QDir::NoDotAndDotDot | QDir::Dirs | QDir::Files | QDir::Hidden | QDir::NoSymLinks); dir.setSorting(QDir::Name); QFileInfoList flist = dir.entryInfoList(); QStringList SerialNumbers; QStringList::iterator sn; for (int i = 0; i < flist.size(); i++) { QFileInfo fi = flist.at(i); QString filename = fi.fileName(); if (fi.isDir() && (filename.size() > 4) && (isdigit(filename[1])) && (isdigit(filename[2]))) { SerialNumbers.push_back(filename); } else if (filename.toLower() == "last.txt") { // last.txt points to the current serial number QString file = fi.canonicalFilePath(); QFile f(file); if (!fi.isReadable()) { qDebug() << "PRS1Loader: last.txt exists but I couldn't read it!"; continue; } if (!f.open(QIODevice::ReadOnly)) { qDebug() << "PRS1Loader: last.txt exists but I couldn't open it!"; continue; } last = f.readLine(64); last = last.trimmed(); f.close(); } } if (SerialNumbers.empty()) { return -1; } int c = 0; for (sn = SerialNumbers.begin(); sn != SerialNumbers.end(); sn++) { if ((*sn)[0].isLetter()) { c += OpenMachine(newpath + "/" + *sn); } } for (sn = SerialNumbers.begin(); sn != SerialNumbers.end(); sn++) { if (!(*sn)[0].isLetter()) { c += OpenMachine(newpath + "/" + *sn); } } return c; } /*bool PRS1Loader::ParseProperties(Machine *m, QString filename) { QFile f(filename); if (!f.open(QIODevice::ReadOnly)) { return false; } QString line; QHash prop; QString s = f.readLine(); QChar sep = '='; QString key, value; MachineInfo info = newInfo(); bool ok; while (!f.atEnd()) { key = s.section(sep, 0, 0); if (key == s) { continue; } value = s.section(sep, 1).trimmed(); if (value == s) { continue; } if (key.contains("serialnumber",Qt::CaseInsensitive)) { info.serial = value; } else if (key.contains("modelnumber",Qt::CaseInsensitive)) { parseModel(info, value); } else { if (key.contains("producttype", Qt::CaseInsensitive)) { int i = value.toInt(&ok, 16); if (ok) { if (ModelMap.find(i) != ModelMap.end()) { info.model = ModelMap[i]; } } } prop[key] = value; } s = f.readLine(); } if (info.serial != m->serial()) { qDebug() << "Serial Number in PRS1 properties.txt doesn't match machine record"; } m->setInfo(info); for (QHash::iterator i = prop.begin(); i != prop.end(); i++) { m->properties[i.key()] = i.value(); } f.close(); return true; }*/ int PRS1Loader::OpenMachine(QString path) { Q_ASSERT(p_profile != nullptr); qDebug() << "Opening PRS1 " << path; QDir dir(path); if (!dir.exists() || (!dir.isReadable())) { return 0; } dir.setFilter(QDir::NoDotAndDotDot | QDir::Dirs | QDir::Files | QDir::Hidden | QDir::NoSymLinks); dir.setSorting(QDir::Name); QFileInfoList flist = dir.entryInfoList(); QString filename; if (qprogress) { qprogress->setValue(0); } QStringList paths; int sessionid_base = 10; QString propertyfile; for (int i = 0; i < flist.size(); i++) { QFileInfo fi = flist.at(i); filename = fi.fileName(); if (fi.isDir()) { if ((filename[0].toLower() == 'p') && (isdigit(filename[1]))) { // p0, p1, p2.. etc.. folders contain the session data paths.push_back(fi.canonicalFilePath()); } else if (filename.toLower() == "e") { // Error files.. // Reminder: I have been given some info about these. should check it over. } } else if (filename.compare("properties.txt",Qt::CaseInsensitive) == 0) { propertyfile = fi.canonicalFilePath(); } else if (filename.compare("PROP.TXT",Qt::CaseInsensitive) == 0) { sessionid_base = 16; propertyfile = fi.canonicalFilePath(); } } MachineInfo info = newInfo(); // Have a peek first to get the serial number. PeekProperties(info, propertyfile); QString modelstr; bool fnd = false; for (int i=0; icpap->brickWarning()) { QApplication::processEvents(); QMessageBox::information(QApplication::activeWindow(), QObject::tr("Non Data Capable Machine"), QString(QObject::tr("Your Philips Respironics CPAP machine (Model %1) is unfortunately not a data capable model.")+"\n\n"+ QObject::tr("I'm sorry to report that SleepyHead can only track hours of use and very basic settings for this machine.")). arg(info.modelnumber),QMessageBox::Ok); p_profile->cpap->setBrickWarning(false); } // A bit of protection against future annoyances.. if (((series != 5) && (series != 6) && (series != 0)) || (type >= 10)) { QMessageBox::information(QApplication::activeWindow(), QObject::tr("Machine Unsupported"), QObject::tr("Sorry, your Philips Respironics CPAP machine (Model %1) is not supported yet.").arg(info.modelnumber) +"\n\n"+ QObject::tr("JediMark needs a .zip copy of this machines' SD card and matching Encore .pdf reports to make it work with SleepyHead.") ,QMessageBox::Ok); return -1; } } else { // model number didn't parse.. Meh... Silently ignore it // QMessageBox::information(QApplication::activeWindow(), // QObject::tr("Machine Unsupported"), // QObject::tr("SleepyHead could not parse the model number, this machine can not be imported..") +"\n\n"+ // QObject::tr("JediMark needs a .zip copy of this machines' SD card and matching Encore .pdf reports to make it work with SleepyHead.") // ,QMessageBox::Ok); return -1; } // Which is needed to get the right machine record.. Machine *m = CreateMachine(info); // This time supply the machine object so it can populate machine properties.. PeekProperties(m->info, propertyfile, m); QString backupPath = m->getBackupPath() + path.section("/", -2); if (QDir::cleanPath(path).compare(QDir::cleanPath(backupPath)) != 0) { copyPath(path, backupPath); } SessionID sid; long ext; int size = paths.size(); sesstasks.clear(); new_sessions.clear(); // this hash is used by OpenFile PRS1Import * task = nullptr; // Note, I have observed p0/p1/etc folders containing duplicates session files (in Robin Sanders data.) // for each p0/p1/p2/etc... folder for (int p=0; p < size; ++p) { dir.setPath(paths.at(p)); if (!dir.exists() || !dir.isReadable()) { continue; } flist = dir.entryInfoList(); // Scan for individual session files for (int i = 0; i < flist.size(); i++) { QFileInfo fi = flist.at(i); QString ext_s = fi.fileName().section(".", -1); ext = ext_s.toInt(&ok); if (!ok) { // not a numerical extension continue; } QString session_s = fi.fileName().section(".", 0, -2); sid = session_s.toInt(&ok, sessionid_base); if (!ok) { // not a numerical session ID continue; } if (m->SessionExists(sid)) { // Skip already imported session continue; } if ((ext == 5) || (ext == 6)) { // Waveform files aren't grouped... so we just want to add the filename for later QHash::iterator it = sesstasks.find(sid); if (it != sesstasks.end()) { task = it.value(); } else { // Should probably check if session already imported has this data missing.. // Create the group if we see it first.. task = new PRS1Import(this, sid, m); sesstasks[sid] = task; queTask(task); } if (ext == 5) { if (!task->wavefile.isEmpty()) continue; task->wavefile = fi.canonicalFilePath(); } else if (ext == 6) { if (!task->oxifile.isEmpty()) continue; task->oxifile = fi.canonicalFilePath(); } continue; } // Parse the data chunks and read the files.. QList Chunks = ParseFile(fi.canonicalFilePath()); for (int i=0; i < Chunks.size(); ++i) { PRS1DataChunk * chunk = Chunks.at(i); if (ext <= 1) { const unsigned char * data = (unsigned char *)chunk->m_data.constData(); if (data[0x00] != 0) { delete chunk; continue; } } SessionID chunk_sid = chunk->sessionid; if (m->SessionExists(sid)) { delete chunk; continue; } task = nullptr; QHash::iterator it = sesstasks.find(chunk_sid); if (it != sesstasks.end()) { task = it.value(); } else { task = new PRS1Import(this, chunk_sid, m); sesstasks[chunk_sid] = task; // save a loop an que this now queTask(task); } switch (ext) { case 0: if (task->compliance) continue; task->compliance = chunk; break; case 1: if (task->summary) continue; task->summary = chunk; break; case 2: if (task->event) continue; task->event = chunk; break; default: break; } } } } int tasks = countTasks(); runTasks(p_profile->session->multithreading()); finishAddingSessions(); return m->unsupported() ? -1 : tasks; } bool PRS1Import::ParseF5Events() { ChannelID Codes[] = { PRS1_00, PRS1_01, CPAP_Pressure, CPAP_EPAP, CPAP_PressurePulse, CPAP_Obstructive, CPAP_ClearAirway, CPAP_Hypopnea, PRS1_08, CPAP_FlowLimit, PRS1_0A, CPAP_PB, PRS1_0C, CPAP_VSnore, PRS1_0E, PRS1_0F, CPAP_LargeLeak, // Large leak apparently CPAP_LeakTotal, PRS1_12 }; int ncodes = sizeof(Codes) / sizeof(ChannelID); EventList *Code[0x20] = {nullptr}; EventList *OA = session->AddEventList(CPAP_Obstructive, EVL_Event); EventList *HY = session->AddEventList(CPAP_Hypopnea, EVL_Event); EventList *PB = session->AddEventList(CPAP_PB, EVL_Event); EventList *LEAK = session->AddEventList(CPAP_LeakTotal, EVL_Event); EventList *LL = session->AddEventList(CPAP_LargeLeak, EVL_Event); EventList *SNORE = session->AddEventList(CPAP_Snore, EVL_Event); EventList *IPAP = session->AddEventList(CPAP_IPAP, EVL_Event, 0.1F); EventList *EPAP = session->AddEventList(CPAP_EPAP, EVL_Event, 0.1F); EventList *PS = session->AddEventList(CPAP_PS, EVL_Event, 0.1F); EventList *IPAPLo = session->AddEventList(CPAP_IPAPLo, EVL_Event, 0.1F); EventList *IPAPHi = session->AddEventList(CPAP_IPAPHi, EVL_Event, 0.1F); EventList *RR = session->AddEventList(CPAP_RespRate, EVL_Event); EventList *PTB = session->AddEventList(CPAP_PTB, EVL_Event); EventList *TB = session->AddEventList(PRS1_TimedBreath, EVL_Event); EventList *MV = session->AddEventList(CPAP_MinuteVent, EVL_Event); EventList *TV = session->AddEventList(CPAP_TidalVolume, EVL_Event, 10.0F); EventList *CA = session->AddEventList(CPAP_ClearAirway, EVL_Event); EventList *FL = session->AddEventList(CPAP_FlowLimit, EVL_Event); EventList *VS = session->AddEventList(CPAP_VSnore, EVL_Event); // EventList *VS2 = session->AddEventList(CPAP_VSnore2, EVL_Event); //EventList * PRESSURE=nullptr; //EventList * PP=nullptr; EventDataType data[10];//,tmp; //qint64 start=timestamp; qint64 t = qint64(event->timestamp) * 1000L; session->updateFirst(t); qint64 tt; int pos = 0; int cnt = 0; short delta;//,duration; QDateTime d; bool badcode = false; unsigned char lastcode3 = 0, lastcode2 = 0, lastcode = 0, code = 0; int lastpos = 0, startpos = 0, lastpos2 = 0, lastpos3 = 0; int size = event->m_data.size(); unsigned char * buffer = (unsigned char *)event->m_data.data(); while (pos < size) { lastcode3 = lastcode2; lastcode2 = lastcode; lastcode = code; lastpos3 = lastpos2; lastpos2 = lastpos; lastpos = startpos; startpos = pos; code = buffer[pos++]; if (code >= ncodes) { qDebug() << "Illegal PRS1 code " << hex << int(code) << " appeared at " << hex << startpos; qDebug() << "1: (" << int(lastcode) << hex << lastpos << ")"; qDebug() << "2: (" << int(lastcode2) << hex << lastpos2 << ")"; qDebug() << "3: (" << int(lastcode3) << hex << lastpos3 << ")"; return false; } if (code == 0) { } else if (code != 0x12) { delta = buffer[pos]; //duration=buffer[pos+1]; //delta=buffer[pos+1] << 8 | buffer[pos]; pos += 2; t += qint64(delta) * 1000L; } ChannelID cpapcode = Codes[(int)code]; //EventDataType PS; tt = t; cnt++; int fc = 0; switch (code) { case 0x00: // Unknown (ASV Pressure value) // offset? data[0] = buffer[pos++]; fc++; if (!buffer[pos - 1]) { // WTH??? data[1] = buffer[pos++]; fc++; } if (!buffer[pos - 1]) { data[2] = buffer[pos++]; fc++; } break; case 0x01: // Unknown if (!Code[1]) { if (!(Code[1] = session->AddEventList(cpapcode, EVL_Event, 0.1F))) { return false; } } Code[1]->AddEvent(t, 0); break; case 0x02: // Pressure ??? data[0] = buffer[pos++]; // if (!Code[2]) { // if (!(Code[2]=session->AddEventList(cpapcode,EVL_Event,0.1))) return false; // } // Code[2]->AddEvent(t,data[0]); break; case 0x04: // Pressure Pulse?? data[0] = buffer[pos++]; // if (!Code[3]) { // if (!(Code[3] = session->AddEventList(cpapcode, EVL_Event))) { return false; } // } TB->AddEvent(t, data[0]); break; case 0x05: //code=CPAP_Obstructive; data[0] = buffer[pos++]; tt -= qint64(data[0]) * 1000L; // Subtract Time Offset OA->AddEvent(tt, data[0]); break; case 0x06: //code=CPAP_ClearAirway; data[0] = buffer[pos++]; tt -= qint64(data[0]) * 1000L; // Subtract Time Offset CA->AddEvent(tt, data[0]); break; case 0x07: //code=CPAP_Hypopnea; data[0] = buffer[pos++]; tt -= qint64(data[0]) * 1000L; // Subtract Time Offset HY->AddEvent(tt, data[0]); break; case 0x08: // ??? data[0] = buffer[pos++]; tt -= qint64(data[0]) * 1000L; // Subtract Time Offset qDebug() << "Code 8 found at " << hex << pos - 1 << " " << tt; if (!Code[10]) { if (!(Code[10] = session->AddEventList(cpapcode, EVL_Event))) { return false; } } //???? //data[1]=buffer[pos++]; // ??? Code[10]->AddEvent(tt, data[0]); pos++; break; case 0x09: // ASV Codes //code=CPAP_FlowLimit; data[0] = buffer[pos++]; tt -= qint64(data[0]) * 1000L; // Subtract Time Offset FL->AddEvent(tt, data[0]); break; case 0x0a: data[0] = buffer[pos++]; tt -= qint64(data[0]) * 1000L; // Subtract Time Offset if (!Code[7]) { if (!(Code[7] = session->AddEventList(cpapcode, EVL_Event))) { return false; } } Code[7]->AddEvent(tt, data[0]); break; case 0x0b: // Cheyne Stokes data[0] = ((unsigned char *)buffer)[pos + 1] << 8 | ((unsigned char *)buffer)[pos]; //data[0]*=2; pos += 2; data[1] = ((unsigned char *)buffer)[pos]; //|buffer[pos+1] << 8 pos += 1; //tt-=delta; tt -= qint64(data[1]) * 1000L; if (!PB) { if (!(PB = session->AddEventList(cpapcode, EVL_Event))) { qDebug() << "!PB addeventlist exit"; return false; } } PB->AddEvent(tt, data[0]); break; case 0x0c: data[0] = buffer[pos++]; tt -= qint64(data[0]) * 1000L; // Subtract Time Offset qDebug() << "Code 12 found at " << hex << pos - 1 << " " << tt; if (!Code[8]) { if (!(Code[8] = session->AddEventList(cpapcode, EVL_Event))) { return false; } } Code[8]->AddEvent(tt, data[0]); pos += 2; break; case 0x0d: // All the other ASV graph stuff. IPAP->AddEvent(t, data[0] = buffer[pos++]); // 00=IAP data[4] = buffer[pos++]; IPAPLo->AddEvent(t, data[4]); // 01=IAP Low data[5] = buffer[pos++]; IPAPHi->AddEvent(t, data[5]); // 02=IAP High LEAK->AddEvent(t, buffer[pos++]); // 03=LEAK RR->AddEvent(t, buffer[pos++]); // 04=Breaths Per Minute PTB->AddEvent(t, buffer[pos++]); // 05=Patient Triggered Breaths MV->AddEvent(t, buffer[pos++]); // 06=Minute Ventilation //tmp=buffer[pos++] * 10.0; TV->AddEvent(t, buffer[pos++]); // 07=Tidal Volume SNORE->AddEvent(t, data[2] = buffer[pos++]); // 08=Snore if (data[2] > 0) { if (!VS) { if (!(VS = session->AddEventList(CPAP_VSnore, EVL_Event))) { qDebug() << "!VS eventlist exit"; return false; } } VS->AddEvent(t, 0); //data[2]); // VSnore } EPAP->AddEvent(t, data[1] = buffer[pos++]); // 09=EPAP data[2] = data[0] - data[1]; PS->AddEvent(t, data[2]); // Pressure Support if (event->familyVersion >= 1) { data[0] = buffer[pos++]; } break; case 0x03: // BIPAP Pressure qDebug() << "0x03 Observed in ASV data!!????"; data[0] = buffer[pos++]; data[1] = buffer[pos++]; // data[0]/=10.0; // data[1]/=10.0; // session->AddEvent(new Event(t,CPAP_EAP, 0, data, 1)); // session->AddEvent(new Event(t,CPAP_IAP, 0, &data[1], 1)); break; case 0x11: // Not Leak Rate qDebug() << "0x11 Observed in ASV data!!????"; //if (!Code[24]) { // Code[24]=new EventList(cpapcode,EVL_Event); //} //Code[24]->AddEvent(t,buffer[pos++]); break; case 0x0e: // Unknown qDebug() << "0x0E Observed in ASV data!!????"; data[0] = buffer[pos++]; // << 8) | buffer[pos]; //session->AddEvent(new Event(t,cpapcode, 0, data, 1)); break; case 0x10: // Unknown data[0] = buffer[pos + 1] << 8 | buffer[pos]; pos += 2; data[1] = buffer[pos++]; tt = t - qint64(data[1]) * 1000L; LL->AddEvent(tt, data[0]); // qDebug() << "0x10 Observed in ASV data!!????"; // data[0] = buffer[pos++]; // << 8) | buffer[pos]; // data[1] = buffer[pos++]; // data[2] = buffer[pos++]; //session->AddEvent(new Event(t,cpapcode, 0, data, 3)); break; case 0x0f: qDebug() << "0x0f Observed in ASV data!!????"; data[0] = buffer[pos + 1] << 8 | buffer[pos]; pos += 2; data[1] = buffer[pos]; //|buffer[pos+1] << 8 pos += 1; tt -= qint64(data[1]) * 1000L; //session->AddEvent(new Event(tt,cpapcode, 0, data, 2)); break; case 0x12: // Summary qDebug() << "0x12 Observed in ASV data!!????"; data[0] = buffer[pos++]; data[1] = buffer[pos++]; data[2] = buffer[pos + 1] << 8 | buffer[pos]; pos += 2; //session->AddEvent(new Event(t,cpapcode, 0, data,3)); break; default: // ERROR!!! qWarning() << "Some new fandangled PRS1 code detected " << hex << int(code) << " at " << pos - 1; badcode = true; break; } if (badcode) { break; } } session->updateLast(t); session->m_cnt.clear(); session->m_cph.clear(); session->settings[CPAP_IPAPLo] = session->Min(CPAP_IPAPLo); session->settings[CPAP_IPAPHi] = session->Max(CPAP_IPAPHi); session->settings[CPAP_PSMax] = session->Max(CPAP_IPAPHi) - session->Min(CPAP_EPAP); session->settings[CPAP_PSMin] = session->Min(CPAP_IPAPLo) - session->Min(CPAP_EPAP); session->m_valuesummary[CPAP_Pressure].clear(); session->m_valuesummary.erase(session->m_valuesummary.find(CPAP_Pressure)); return true; } bool PRS1Import::ParseF0Events() { unsigned char code=0; EventList *Code[0x20] = {0}; EventDataType data[10]; int cnt = 0; short delta; int tdata; int pos; qint64 t = qint64(event->timestamp) * 1000L, tt; session->updateFirst(t); EventList *OA = session->AddEventList(CPAP_Obstructive, EVL_Event); EventList *HY = session->AddEventList(CPAP_Hypopnea, EVL_Event); EventList *PB = session->AddEventList(CPAP_PB, EVL_Event); EventList *LEAK = session->AddEventList(CPAP_LeakTotal, EVL_Event); EventList *SNORE = session->AddEventList(CPAP_Snore, EVL_Event); EventList *PP = session->AddEventList(CPAP_PressurePulse, EVL_Event); EventList *RE = session->AddEventList(CPAP_RERA, EVL_Event); EventList *CA = session->AddEventList(CPAP_ClearAirway, EVL_Event); EventList *FL = session->AddEventList(CPAP_FlowLimit, EVL_Event); EventList *VS = session->AddEventList(CPAP_VSnore, EVL_Event); EventList *VS2 = session->AddEventList(CPAP_VSnore2, EVL_Event); //EventList *T1 = session->AddEventList(CPAP_Test1, EVL_Event, 0.1); Code[12] = session->AddEventList(PRS1_0B, EVL_Event); Code[17] = session->AddEventList(PRS1_0E, EVL_Event); EventList * LL = session->AddEventList(CPAP_LargeLeak, EVL_Event); EventList *PRESSURE = nullptr; EventList *EPAP = nullptr; EventList *IPAP = nullptr; EventList *PS = nullptr; EventList *Code15 = nullptr; //session->AddEventList(CPAP_VSnore, EVL_Event); //EventList * VS=session->AddEventList(CPAP_Obstructive, EVL_Event); unsigned char lastcode3 = 0, lastcode2 = 0, lastcode = 0; int lastpos = 0, startpos = 0, lastpos2 = 0, lastpos3 = 0; int size = event->m_data.size(); bool FV3 = (event->fileVersion == 3); // if (FV3) size -= 2; unsigned char * buffer = (unsigned char *)event->m_data.data(); CPAPMode mode = (CPAPMode) session->settings[CPAP_Mode].toInt(); for (pos = 0; pos < size;) { lastcode3 = lastcode2; lastcode2 = lastcode; lastcode = code; lastpos3 = lastpos2; lastpos2 = lastpos; lastpos = startpos; startpos = pos; code = buffer[pos++]; if (code > 0x15) { qDebug() << "Illegal PRS1 code " << hex << int(code) << " appeared at " << hex << startpos; qDebug() << "1: (" << hex << int(lastcode) << hex << lastpos << ")"; qDebug() << "2: (" << hex << int(lastcode2) << hex << lastpos2 << ")"; qDebug() << "3: (" << hex << int(lastcode3) << hex << lastpos3 << ")"; return false; } if (code != 0x12) { delta = buffer[pos + 1] << 8 | buffer[pos]; pos += 2; t += qint64(delta) * 1000L; tt = t; } cnt++; switch (code) { case 0x00: // Unknown 00 if (!Code[0]) { if (!(Code[0] = session->AddEventList(PRS1_00, EVL_Event))) { return false; } } Code[0]->AddEvent(t, buffer[pos++]); if (((event->family == 0) && (event->familyVersion >= 4)) || (event->fileVersion == 3)){ pos++; } break; case 0x01: // Unknown if (!Code[1]) { if (!(Code[1] = session->AddEventList(PRS1_01, EVL_Event))) { return false; } } Code[1]->AddEvent(t, 0); if ((event->family == 0) && (event->familyVersion >= 4)) { if (!PRESSURE) { PRESSURE = session->AddEventList(CPAP_Pressure, EVL_Event, 0.1F); if (!PRESSURE) { return false; } } PRESSURE->AddEvent(t, buffer[pos++]); } break; case 0x02: // Pressure if ((event->family == 0) && (event->familyVersion >= 4)) { // BiPAP Pressure if (!EPAP) { if (!(EPAP = session->AddEventList(CPAP_EPAP, EVL_Event, 0.1F))) { return false; } if (!(IPAP = session->AddEventList(CPAP_IPAP, EVL_Event, 0.1F))) { return false; } if (!(PS = session->AddEventList(CPAP_PS, EVL_Event, 0.1F))) { return false; } } EPAP->AddEvent(t, data[0] = buffer[pos++]); IPAP->AddEvent(t, data[1] = buffer[pos++]); PS->AddEvent(t, data[1] - data[0]); } else { if (!PRESSURE) { PRESSURE = session->AddEventList(CPAP_Pressure, EVL_Event, 0.1F); if (!PRESSURE) { return false; } } PRESSURE->AddEvent(t, buffer[pos++]); } break; case 0x03: // BIPAP Pressure if (FV3) { if (!PRESSURE) { PRESSURE = session->AddEventList(CPAP_Pressure, EVL_Event, 0.1F); if (!PRESSURE) { return false; } } PRESSURE->AddEvent(t, buffer[pos++]); } else { if (!EPAP) { if (!(EPAP = session->AddEventList(CPAP_EPAP, EVL_Event, 0.1F))) { return false; } if (!(IPAP = session->AddEventList(CPAP_IPAP, EVL_Event, 0.1F))) { return false; } if (!(PS = session->AddEventList(CPAP_PS, EVL_Event, 0.1F))) { return false; } } EPAP->AddEvent(t, data[0] = buffer[pos++]); IPAP->AddEvent(t, data[1] = buffer[pos++]); PS->AddEvent(t, data[1] - data[0]); } break; case 0x04: // Pressure Pulse data[0] = buffer[pos++]; //tt = t - (qint64(data[0]) * 1000L); PP->AddEvent(t, data[0]); break; case 0x05: // RERA data[0] = buffer[pos++]; tt = t - (qint64(data[0]) * 1000L); RE->AddEvent(tt, data[0]); break; case 0x06: // Obstructive Apoanea data[0] = buffer[pos++]; tt = t - (qint64(data[0]) * 1000L); OA->AddEvent(tt, data[0]); break; case 0x07: // Clear Airway data[0] = buffer[pos++]; tt = t - (qint64(data[0]) * 1000L); CA->AddEvent(tt, data[0]); break; case 0x0a: // Hypopnea data[0] = buffer[pos++]; tt = t - (qint64(data[0]) * 1000L); HY->AddEvent(tt, data[0]); break; case 0x0c: // Flow Limitation data[0] = buffer[pos++]; tt = t - (qint64(data[0]) * 1000L); FL->AddEvent(tt, data[0]); break; case 0x0b: // Hypopnea related code data[0] = buffer[pos++]; data[1] = buffer[pos++]; // FIXME Code[12]->AddEvent(t, data[0]); break; case 0x0d: // Vibratory Snore // if (event->fileVersion == 3) { // } else { VS->AddEvent(t, 0); // } break; case 0x0e: // Unknown data[0] = ((char *)buffer)[pos++]; data[1] = buffer[pos++]; //(buffer[pos+1] << 8) | buffer[pos]; //data[0]/=10.0; //pos+=2; data[2] = buffer[pos++]; tdata = unsigned(data[1]) << 8 | unsigned(data[0]); Code[17]->AddEvent(t, tdata); //qDebug() << hex << data[0] << data[1] << data[2]; //session->AddEvent(new Event(t,cpapcode, 0, data, 3)); //tt-=data[1]*1000; //session->AddEvent(new Event(t,CPAP_PB, data, 2)); break; case 0x0f: // Cheyne Stokes Respiration data[0] = buffer[pos + 1] << 8 | buffer[pos]; pos += 2; data[1] = buffer[pos++]; tt = t - qint64(data[1]) * 1000L; PB->AddEvent(tt, data[0]); break; case 0x10: // Large Leak data[0] = buffer[pos + 1] << 8 | buffer[pos]; pos += 2; data[1] = buffer[pos++]; tt = t - qint64(data[1]) * 1000L; LL->AddEvent(tt, data[0]); break; case 0x11: // Leak Rate & Snore Graphs data[0] = buffer[pos++]; data[1] = buffer[pos++]; LEAK->AddEvent(t, data[0]); SNORE->AddEvent(t, data[1]); if (data[1] > 0) { VS2->AddEvent(t, data[1]); } if (((event->family == 0) && (event->familyVersion >= 4)) || (event->fileVersion == 3)) { data[0] = buffer[pos]; pos++; } break; case 0x12: // Summary data[0] = buffer[pos++]; data[1] = buffer[pos++]; data[2] = buffer[pos + 1] << 8 | buffer[pos]; pos += 2; // if (!Code[24]) { // if (!(Code[24] = session->AddEventList(PRS1_12, EVL_Event))) { return false; } // } // Code[24]->AddEvent(t, data[0]); break; case 0x14: // DreamStation Hypopnea data[0] = buffer[pos++]; tt = t - (qint64(data[0]) * 1000L); HY->AddEvent(tt, data[0]); break; case 0x15: // DreamStation Hypopnea // Also a hypopnea.. Hmmm. grouped together by encore. data[0] = buffer[pos++]; tt = t - (qint64(data[0]) * 1000L); HY->AddEvent(tt, data[0]); // This will create an ugly overlay... :/ // if (!Code15) { // Code15 = session->AddEventList(CPAP_Pressure, EVL_Event, 0.1F); // if (!Code15) { return false; } // } // Code15->AddEvent(t, data[0]); break; default: // ERROR!!! qWarning() << "Some new fandangled PRS1 code detected in" << event->sessionid << hex << int(code) << " at " << pos - 1; return false; } } session->updateLast(t); session->m_cnt.clear(); session->m_cph.clear(); session->m_lastchan.clear(); session->m_firstchan.clear(); session->m_valuesummary[CPAP_Pressure].clear(); session->m_valuesummary.erase(session->m_valuesummary.find(CPAP_Pressure)); return true; } bool PRS1Import::ParseCompliance() { const unsigned char * data = (unsigned char *)compliance->m_data.constData(); if (data[0x00] > 0) { return false; } session->settings[CPAP_Mode] = (int)MODE_CPAP; EventDataType min_pressure = float(data[0x03]) / 10.0; // EventDataType max_pressure = float(data[0x04]) / 10.0; session->settings[CPAP_Pressure] = min_pressure; int ramp_time = data[0x06]; EventDataType ramp_pressure = float(data[0x07]) / 10.0; session->settings[CPAP_RampTime] = (int)ramp_time; session->settings[CPAP_RampPressure] = ramp_pressure; quint8 flex = data[0x09]; int flexlevel = flex & 0x03; FlexMode flexmode = FLEX_Unknown; flex &= 0xf8; //bool split = false; if (flex & 0x40) { // This bit defines the Flex setting for the CPAP component of the Split night // split = true; } if (flex & 0x80) { // CFlex bit if (flex & 8) { // Plus bit flexmode = FLEX_CFlexPlus; } else { flexmode = FLEX_CFlex; } } else flexmode = FLEX_None; session->settings[PRS1_FlexMode] = (int)flexmode; session->settings[PRS1_FlexLevel] = (int)flexlevel; session->setSummaryOnly(true); //session->settings[CPAP_SummaryOnly] = true; session->settings[PRS1_HumidStatus] = (bool)(data[0x0A] & 0x80); // Humidifier Connected session->settings[PRS1_HumidLevel] = (int)(data[0x0A] & 7); // Humidifier Value // need to parse a repeating structure here containing lengths of mask on/off.. // 0x03 = mask on // 0x01 = mask off qint64 start = qint64(compliance->timestamp) * 1000L; qint64 tt = start; int len = compliance->size()-3; int pos = 0x11; do { quint8 c = data[pos++]; quint64 duration = data[pos] | data[pos+1] << 8; pos+=2; duration *= 1000L; SliceStatus status; if (c == 0x03) { status = EquipmentOn; } else if (c == 0x02) { status = EquipmentLeaking; } else if (c == 0x01) { status = EquipmentOff; } else { qDebug() << compliance->sessionid << "Wasn't expecting" << c; break; } session->m_slices.append(SessionSlice(tt, tt + duration, status)); qDebug() << compliance->sessionid << "Added Slice" << tt << (tt+duration) << status; tt += duration; } while (pos < len); session->set_first(start); session->set_last(tt); // Bleh!! There is probably 10 different formats for these useless piece of junk machines return true; } bool PRS1Import::ParseSummaryF0() { const unsigned char * data = (unsigned char *)summary->m_data.constData(); if (data[0x00] > 0) { return false; } session->set_first(qint64(summary->timestamp) * 1000L); CPAPMode cpapmode = MODE_UNKNOWN; switch (data[0x02]) { // PRS1 mode // 0 = CPAP, 2 = APAP case 0x00: cpapmode = MODE_CPAP; break; case 0x01: cpapmode = MODE_BILEVEL_FIXED; break; case 0x02: cpapmode = MODE_APAP; break; case 0x03: cpapmode = MODE_BILEVEL_AUTO_VARIABLE_PS; } EventDataType min_pressure = float(data[0x03]) / 10.0; EventDataType max_pressure = float(data[0x04]) / 10.0; EventDataType ps = float(data[0x05]) / 10.0; // pressure support if (cpapmode == MODE_CPAP) { session->settings[CPAP_Pressure] = min_pressure; } else if (cpapmode == MODE_APAP) { session->settings[CPAP_PressureMin] = min_pressure; session->settings[CPAP_PressureMax] = max_pressure; } else if (cpapmode == MODE_BILEVEL_FIXED) { session->settings[CPAP_EPAP] = min_pressure; session->settings[CPAP_IPAP] = max_pressure; session->settings[CPAP_PS] = ps; } else if (cpapmode == MODE_BILEVEL_AUTO_VARIABLE_PS) { session->settings[CPAP_EPAPLo] = min_pressure; session->settings[CPAP_EPAPHi] = max_pressure - 2.0; session->settings[CPAP_IPAPLo] = min_pressure + 2.0; session->settings[CPAP_IPAPHi] = max_pressure; session->settings[CPAP_PSMin] = 2.0f; session->settings[CPAP_PSMax] = ps; } session->settings[CPAP_Mode] = (int)cpapmode; int ramp_time = data[0x06]; EventDataType ramp_pressure = float(data[0x07]) / 10.0; session->settings[CPAP_RampTime] = (int)ramp_time; session->settings[CPAP_RampPressure] = ramp_pressure; // Tubing lock has no setting byte // Menu Options session->settings[PRS1_SysLock] = (bool) (data[0x0a] & 0x80); // System One Resistance Lock Setting session->settings[PRS1_SysOneResistSet] = (int)data[0x0a] & 7; // SYstem One Resistance setting value session->settings[PRS1_SysOneResistStat] = (bool) (data[0x0a] & 0x40); // System One Resistance Status bit session->settings[PRS1_HoseDiam] = (data[0x0a] & 0x08) ? QObject::tr("15mm") : QObject::tr("22mm"); session->settings[PRS1_AutoOn] = (bool) (data[0x0b] & 0x40); session->settings[PRS1_AutoOff] = (bool) (data[0x0c] & 0x10); session->settings[PRS1_MaskAlert] = (bool) (data[0x0c] & 0x08); session->settings[PRS1_ShowAHI] = (bool) (data[0x0c] & 0x04); session->settings[PRS1_HumidStatus] = (bool)(data[0x09] & 0x80); // Humidifier Connected session->settings[PRS1_HumidLevel] = (int)(data[0x09] & 7); // Humidifier Value // session-> quint8 flex = data[0x08]; int flexlevel = flex & 0x03; FlexMode flexmode = FLEX_Unknown; // 88 CFlex+ / AFlex (depending on CPAP mode) // 80 CFlex // 00 NoFlex // c0 Split CFlex then None // c8 Split CFlex+ then None flex &= 0xf8; bool split = false; if (flex & 0x40) { // This bit defines the Flex setting for the CPAP component of the Split night split = true; } if (flex & 0x80) { // CFlex bit if (flex & 0x10) { flexmode = FLEX_RiseTime; } else if (flex & 8) { // Plus bit if (split || (cpapmode == MODE_CPAP)) { flexmode = FLEX_CFlexPlus; } else if (cpapmode == MODE_APAP) { flexmode = FLEX_AFlex; } } else { // CFlex bits refer to Rise Time on BiLevel machines flexmode = (cpapmode >= MODE_BILEVEL_FIXED) ? FLEX_BiFlex : FLEX_CFlex; } } else flexmode = FLEX_None; session->settings[PRS1_FlexMode] = (int)flexmode; session->settings[PRS1_FlexLevel] = (int)flexlevel; summary_duration = data[0x14] | data[0x15] << 8; return true; } bool PRS1Import::ParseSummaryF0V4() { const unsigned char * data = (unsigned char *)summary->m_data.constData(); if (data[0x00] > 0) { return false; } session->set_first(qint64(summary->timestamp) * 1000L); CPAPMode cpapmode = MODE_UNKNOWN; switch (data[0x02]) { // PRS1 mode // 0 = CPAP, 2 = APAP case 0x00: cpapmode = MODE_CPAP; break; case 0x20: cpapmode = MODE_BILEVEL_FIXED; break; case 0x40: cpapmode = MODE_APAP; break; case 0x60: cpapmode = MODE_BILEVEL_AUTO_VARIABLE_PS; } EventDataType min_pressure = float(data[0x03]) / 10.0; EventDataType max_pressure = float(data[0x04]) / 10.0; EventDataType min_ps = float(data[0x05]) / 10.0; // pressure support EventDataType max_ps = float(data[0x06]) / 10.0; // pressure support if (cpapmode == MODE_CPAP) { session->settings[CPAP_Pressure] = min_pressure; } else if (cpapmode == MODE_APAP) { session->settings[CPAP_PressureMin] = min_pressure; session->settings[CPAP_PressureMax] = max_pressure; } else if (cpapmode == MODE_BILEVEL_FIXED) { session->settings[CPAP_EPAP] = min_pressure; session->settings[CPAP_IPAP] = max_pressure; session->settings[CPAP_PS] = max_pressure - min_pressure; } else if (cpapmode == MODE_BILEVEL_AUTO_VARIABLE_PS) { session->settings[CPAP_EPAPLo] = min_pressure; session->settings[CPAP_EPAPHi] = max_pressure; session->settings[CPAP_IPAPLo] = min_pressure + min_ps; session->settings[CPAP_IPAPHi] = max_pressure; session->settings[CPAP_PSMin] = min_ps; session->settings[CPAP_PSMax] = max_ps; } session->settings[CPAP_Mode] = (int)cpapmode; quint8 flex = data[0x0a]; int flexlevel = flex & 0x03; FlexMode flexmode = FLEX_Unknown; flex &= 0xf8; bool split = false; if (flex & 0x40) { // This bit defines the Flex setting for the CPAP component of the Split night split = true; } if (flex & 0x80) { // CFlex bit if (flex & 0x10) { flexmode = FLEX_RiseTime; } else if (flex & 8) { // Plus bit if (split || (cpapmode == MODE_CPAP)) { flexmode = FLEX_CFlexPlus; } else if (cpapmode == MODE_APAP) { flexmode = FLEX_AFlex; } } else { // CFlex bits refer to Rise Time on BiLevel machines flexmode = (cpapmode >= MODE_BILEVEL_FIXED) ? FLEX_BiFlex : FLEX_CFlex; } } else flexmode = FLEX_None; int ramp_time = data[0x08]; EventDataType ramp_pressure = float(data[0x09]) / 10.0; session->settings[CPAP_RampTime] = (int)ramp_time; session->settings[CPAP_RampPressure] = ramp_pressure; session->settings[PRS1_FlexMode] = (int)flexmode; session->settings[PRS1_FlexLevel] = (int)flexlevel; session->settings[PRS1_HumidStatus] = (bool)(data[0x0b] & 0x80); // Humidifier Connected session->settings[PRS1_HeatedTubing] = (bool)(data[0x0b] & 0x10); // Heated Hose?? session->settings[PRS1_HumidLevel] = (int)(data[0x0b] & 7); // Humidifier Value summary_duration = data[0x14] | data[0x15] << 8; return true; } bool PRS1Import::ParseSummaryF3() { const unsigned char * data = (unsigned char *)summary->m_data.constData(); if (data[0x00] > 0) { return false; } session->set_first(qint64(summary->timestamp) * 1000L); // EventDataType epap = data[0x04] | (data[0x05] << 8); // EventDataType ipap = data[0x06] | (data[0x07] << 8); // EventDataType f1 = data[0x08] | (data[0x09] << 8); return true; } bool PRS1Import::ParseSummaryF5V0() { const unsigned char * data = (unsigned char *)summary->m_data.constData(); if (data[0x00] > 0) { return false; } session->set_first(qint64(summary->timestamp) * 1000L); CPAPMode cpapmode = MODE_UNKNOWN; int imin_epap = data[0x3]; int imax_epap = data[0x4]; int imin_ps = data[0x5]; int imax_ps = data[0x6]; int imax_pressure = data[0x2]; cpapmode = MODE_ASV_VARIABLE_EPAP; session->settings[CPAP_Mode] = (int)cpapmode; if (cpapmode == MODE_CPAP) { session->settings[CPAP_Pressure] = imin_epap/10.0f; } else if (cpapmode == MODE_BILEVEL_FIXED) { session->settings[CPAP_EPAP] = imin_epap/10.0f; session->settings[CPAP_IPAP] = imax_epap/10.0f; } else if (cpapmode == MODE_ASV_VARIABLE_EPAP) { //int imax_ipap = imax_epap + imax_ps; int imin_ipap = imin_epap + imin_ps; session->settings[CPAP_EPAPLo] = imin_epap / 10.0f; session->settings[CPAP_EPAPHi] = imax_epap / 10.0f; session->settings[CPAP_IPAPLo] = imin_ipap / 10.0f; session->settings[CPAP_IPAPHi] = imax_pressure / 10.0f; session->settings[CPAP_PSMin] = imin_ps / 10.0f; session->settings[CPAP_PSMax] = imax_ps / 10.0f; } quint8 flex = data[0x0c]; int flexlevel = flex & 0x03; FlexMode flexmode = FLEX_Unknown; flex &= 0xf8; bool split = false; if (flex & 0x40) { // This bit defines the Flex setting for the CPAP component of the Split night split = true; } if (flex & 0x80) { // CFlex bit if (flex & 0x10) { flexmode = FLEX_RiseTime; } else if (flex & 8) { // Plus bit if (split || (cpapmode == MODE_CPAP)) { flexmode = FLEX_CFlexPlus; } else if (cpapmode == MODE_APAP) { flexmode = FLEX_AFlex; } } else { // CFlex bits refer to Rise Time on BiLevel machines flexmode = (cpapmode >= MODE_BILEVEL_FIXED) ? FLEX_BiFlex : FLEX_CFlex; } } else flexmode = FLEX_None; session->settings[PRS1_FlexMode] = (int)flexmode; session->settings[PRS1_FlexLevel] = (int)flexlevel; int ramp_time = data[0x0a]; EventDataType ramp_pressure = float(data[0x0b]) / 10.0; session->settings[CPAP_RampTime] = (int)ramp_time; session->settings[CPAP_RampPressure] = ramp_pressure; session->settings[PRS1_HumidStatus] = (bool)(data[0x0d] & 0x80); // Humidifier Connected session->settings[PRS1_HeatedTubing] = (bool)(data[0x0d] & 0x10); // Heated Hose?? session->settings[PRS1_HumidLevel] = (int)(data[0x0d] & 7); // Humidifier Value summary_duration = data[0x18] | data[0x19] << 8; return true; } bool PRS1Import::ParseSummaryF5V1() { const unsigned char * data = (unsigned char *)summary->m_data.constData(); if (data[0x00] > 0) { return false; } session->set_first(qint64(summary->timestamp) * 1000L); CPAPMode cpapmode = MODE_UNKNOWN; int imin_epap = data[0x3]; int imax_epap = data[0x4]; int imin_ps = data[0x5]; int imax_ps = data[0x6]; int imax_pressure = data[0x2]; cpapmode = MODE_ASV_VARIABLE_EPAP; session->settings[CPAP_Mode] = (int)cpapmode; if (cpapmode == MODE_CPAP) { session->settings[CPAP_Pressure] = imin_epap/10.0f; } else if (cpapmode == MODE_BILEVEL_FIXED) { session->settings[CPAP_EPAP] = imin_epap/10.0f; session->settings[CPAP_IPAP] = imax_epap/10.0f; } else if (cpapmode == MODE_ASV_VARIABLE_EPAP) { //int imax_ipap = imax_epap + imax_ps; int imin_ipap = imin_epap + imin_ps; session->settings[CPAP_EPAPLo] = imin_epap / 10.0f; session->settings[CPAP_EPAPHi] = imax_epap / 10.0f; session->settings[CPAP_IPAPLo] = imin_ipap / 10.0f; session->settings[CPAP_IPAPHi] = imax_pressure / 10.0f; session->settings[CPAP_PSMin] = imin_ps / 10.0f; session->settings[CPAP_PSMax] = imax_ps / 10.0f; } quint8 flex = data[0x0c]; int flexlevel = flex & 0x03; FlexMode flexmode = FLEX_Unknown; flex &= 0xf8; bool split = false; if (flex & 0x40) { // This bit defines the Flex setting for the CPAP component of the Split night split = true; } if (flex & 0x80) { // CFlex bit if (flex & 0x10) { flexmode = FLEX_RiseTime; } else if (flex & 8) { // Plus bit if (split || (cpapmode == MODE_CPAP)) { flexmode = FLEX_CFlexPlus; } else if (cpapmode == MODE_APAP) { flexmode = FLEX_AFlex; } } else { // CFlex bits refer to Rise Time on BiLevel machines flexmode = (cpapmode >= MODE_BILEVEL_FIXED) ? FLEX_BiFlex : FLEX_CFlex; } } else flexmode = FLEX_None; session->settings[PRS1_FlexMode] = (int)flexmode; session->settings[PRS1_FlexLevel] = (int)flexlevel; int ramp_time = data[0x0a]; EventDataType ramp_pressure = float(data[0x0b]) / 10.0; session->settings[CPAP_RampTime] = (int)ramp_time; session->settings[CPAP_RampPressure] = ramp_pressure; session->settings[PRS1_HumidStatus] = (bool)(data[0x0d] & 0x80); // Humidifier Connected session->settings[PRS1_HeatedTubing] = (bool)(data[0x0d] & 0x10); // Heated Hose?? session->settings[PRS1_HumidLevel] = (int)(data[0x0d] & 7); // Humidifier Value summary_duration = data[0x18] | data[0x19] << 8; return true; } bool PRS1Import::ParseSummaryF0V6() { // DreamStation machines... // APAP models.. const unsigned char * data = (unsigned char *)summary->m_data.constData(); if (data[0x00] > 0) { return false; } session->set_first(qint64(summary->timestamp) * 1000L); CPAPMode cpapmode = MODE_UNKNOWN; int imin_epap = 0; int imax_epap = 0; int imin_ps = 0; int imax_ps = 0; int imax_pressure = 0; int min_pressure = 0; int max_pressure = 0; int duration = 0; // in 'data', we start with 3 bytes that don't follow the pattern // pattern is varNumber, dataSize, dataValue(dataSize) // examples, 0x0d 0x02 0x28 0xC8 , or 0x0a 0x01 0x64, // first, verify that this dataSize is where we expect // each var pair in headerblock should be (indexByte, valueByte) if ( 0x01 != summary->m_headerblock[1 * 2] ) { return false; //nope, not here qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Bad datablock length"; } int dataBlockSize = summary->m_headerblock[1 * 2 + 1]; int zero = 0; const unsigned char *dataPtr; // start at 3rd byte ; did we go past the end? ; increment for dataSize + varNumberByte + dataSizeByte for ( dataPtr = data + 3; dataPtr < (data + 3 + dataBlockSize); dataPtr+= dataPtr[1] + 2) { switch( *dataPtr) { case 00: // mode? break; case 01: // ??? break; case 10: // 0x0a cpapmode = MODE_CPAP; if (dataPtr[1] != 1) qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Bad CPAP value"; imin_epap = dataPtr[2]; break; case 13: // 0x0d cpapmode = MODE_APAP; if (dataPtr[1] != 2) qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Bad APAP value"; min_pressure = dataPtr[2]; max_pressure = dataPtr[3]; break; case 14: // 0x0e // <--- this is a total guess.. might be 3 and have a pressure support value cpapmode = MODE_BILEVEL_FIXED; if (dataPtr[1] != 2) qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Bad APAP value"; min_pressure = dataPtr[2]; max_pressure = dataPtr[3]; imin_ps = max_pressure - min_pressure; break; case 15: // 0x0f cpapmode = MODE_BILEVEL_AUTO_VARIABLE_PS; //might be C_CHECK? if (dataPtr[1] != 4) qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Bad APAP value"; min_pressure = dataPtr[2]; max_pressure = dataPtr[3]; imin_ps = dataPtr[4]; imax_ps = dataPtr[5]; break; case 0x10: // Auto Trial mode cpapmode = MODE_APAP; if (dataPtr[1] != 3) qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Bad APAP value"; min_pressure = dataPtr[3]; max_pressure = dataPtr[4]; break; case 0x35: duration += ( dataPtr[3] << 8 ) + dataPtr[2]; break; // case 3: // break; default: // have not found this before ; // qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Unknown datablock value:" << (zero + *dataPtr) ; } } // now we encounter yet a different format of data /* const unsigned char *data2Ptr = data + 3 + dataBlockSize; // pattern is byte/data, where length of data depends on value of 'byte' bool data2Done = false; while (!data2Done) { switch(*data2Ptr){ case 0: //this appears to be the last one. '0' plus 5 bytes **eats crc** without checking data2Ptr += 4; data2Ptr += 2; //this is the **CRC**?? data2Done = true; //hope this is always there, since we don't have blocksize from header break; case 1: //don't know yet. data size is the '1' plus 16 bytes data2Ptr += 5; break; case 2: //don't know yet. data size is the '2' plus 16 bytes data2Ptr += 3; break; case 3: //don't know yet. data size is the '3' plus 4 bytes // have seen multiple of these....may have to add them? data2Ptr += 5; break; case 4: // have seen multiple of these....may have to add them? duration = ( data2Ptr[3] << 8 ) + data2Ptr[2]; data2Ptr += 3; break; case 5: //don't know yet. data size is the '5' plus 4 bytes data2Ptr += 5; break; case 6: //don't know yet. data size is the '5' plus 1 byte data2Ptr += 2; break; case 8: //don't know yet. data size is the '8' plus 27 bytes (might be a '0' in here...not enough different types found yet) data2Ptr += 28; break; default: qDebug() << "PRS1Loader::ParseSummaryF0V6=" << "Unknown datablock2 value:" << (zero + *data2Ptr) ; break; } }*/ // need to populate summary-> summary_duration = duration; session->settings[CPAP_Mode] = (int)cpapmode; if (cpapmode == MODE_CPAP) { session->settings[CPAP_Pressure] = imin_epap/10.0f; } else if (cpapmode == MODE_APAP) { session->settings[CPAP_PressureMin] = min_pressure/10.0f; session->settings[CPAP_PressureMax] = max_pressure/10.0f; } else if (cpapmode == MODE_BILEVEL_FIXED) { // Guessing here.. haven't seen BIPAP data. session->settings[CPAP_EPAP] = min_pressure/10.0f; session->settings[CPAP_IPAP] = max_pressure/10.0f; session->settings[CPAP_PS] = imin_ps/10.0f; } else if (cpapmode == MODE_BILEVEL_AUTO_VARIABLE_PS) { session->settings[CPAP_EPAPLo] = min_pressure/10.0f; session->settings[CPAP_IPAPHi] = max_pressure/10.0f; session->settings[CPAP_PSMin] = imin_ps/10.0f; session->settings[CPAP_PSMax] = imax_ps/10.0f; } return true; } bool PRS1Import::ParseSummary() { // Family 0 = XPAP // Family 3 = BIPAP AVAPS // Family 5 = BIPAP AutoSV if (!summary) return false; session->setPhysMax(CPAP_LeakTotal, 120); session->setPhysMin(CPAP_LeakTotal, 0); session->setPhysMax(CPAP_Pressure, 25); session->setPhysMin(CPAP_Pressure, 4); session->setPhysMax(CPAP_IPAP, 25); session->setPhysMin(CPAP_IPAP, 4); session->setPhysMax(CPAP_EPAP, 25); session->setPhysMin(CPAP_EPAP, 4); session->setPhysMax(CPAP_PS, 25); session->setPhysMin(CPAP_PS, 0); switch (summary->family) { case 0: if (summary->familyVersion == 4) { return ParseSummaryF0V4(); } else if (summary->familyVersion == 6) { return ParseSummaryF0V6(); } else { return ParseSummaryF0(); } case 3: // return ParseSummaryF3(); break; case 5: if (summary->familyVersion == 0) { return ParseSummaryF5V0(); } else { return ParseSummaryF5V1(); } default: ; } this->loader->saveMutex.lock(); if (!mach->unsupported()) { this->loader->unsupported(mach); } this->loader->saveMutex.unlock(); return false; const unsigned char * data = (unsigned char *)summary->m_data.constData(); ////////////////////////////////////////////////////////////////////////////////////////// // ASV Codes (Family 5) Recheck 17/10/2013 // These are all confirmed off Encore reports //cpapmax=EventDataType(data[0x02])/10.0; // Max Pressure in ASV machines //minepap=EventDataType(data[0x03])/10.0; // Min EPAP //maxepap=EventDataType(data[0x04])/10.0; // Max EPAP //minps=EventDataType(data[0x05])/10.0 // Min Pressure Support //maxps=EventDataType(data[0x06])/10.0 // Max Pressure Support //duration=data[0x1B] | data[0x1C] << 8) // Session length in seconds //epap90=EventDataType(data[0x21])/10.0; // EPAP 90% //epapavg=EventDataType(data[0x22])/10.0; // EPAP Average //ps90=EventDataType(data[0x23])/10.0; // Pressure Support 90% //psavg=EventDataType(data[0x24])/10.0; // Pressure Support Average //TODO: minpb=data[0x] | data[0x] << 8; // Minutes in PB //TODO: minleak=data[0x] | data[0x] << 8; // Minutes in Large Leak //TODO: oa_cnt=data[0x] | data[0x] << 8; // Obstructive events count //ca_cnt=data[0x2d] | data[0x2e] << 8; // Clear Airway Events count //h_cnt=data[0x2f] | data[0x30] << 8; // Hypopnea events count //fl_cnt=data[0x33] | data[0x34] << 8; // Flow Limitation events count //avg_leak=EventDataType(data[0x35]); // Average Leak //avgptb=EventDataType(data[0x36]); // Average Patient Triggered Breaths % //avgbreathrate=EventDataType(data[0x37]); // Average Breaths Per Minute //avgminvent=EventDataType(data[0x38]); // Average Minute Ventilation //avg_tidalvol=EventDataType(data[0x39])*10.0; // Average Tidal Volume ////////////////////////////////////////////////////////////////////////////////////////// //quint8 rectype = data[0x00]; EventDataType max, min; min = float(data[0x03]) / 10.0; // Min EPAP max = float(data[0x04]) / 10.0; // Max EPAP int offset = 0; int duration = 0; // This is a time value for ASV stuff if (summary->family == 5) { offset = 4; // non zero adds 4 extra fields.. if (summary->familyVersion == 0) { duration = data[0x1B] | data[0x1C] << 8; } } else if (summary->family == 0) { if (summary->familyVersion == 2) { duration = data[0x14] | data[0x15] << 8; } if (summary->familyVersion >= 4) { offset = 2; } } if (duration > 0) { session->set_last(qint64(summary->timestamp + duration) * 1000L); } if (!event) { session->setSummaryOnly(true); } // Minutes. Convert to seconds/hours here? session->settings[CPAP_RampTime] = (int)data[offset + 0x06]; session->settings[CPAP_RampPressure] = (EventDataType)data[offset + 0x07] / 10.0; if (max > 0) { // Ignoring bipap until we see some more data during import session->settings[CPAP_Mode] = (summary->family == 5) ? (int)MODE_ASV : (int)MODE_APAP; session->settings[CPAP_PressureMin] = (EventDataType)min; session->settings[CPAP_PressureMax] = (EventDataType)max; } else { session->settings[CPAP_Mode] = (int)MODE_CPAP; session->settings[CPAP_Pressure] = (EventDataType)min; } if (data[offset + 0x08] & 0x80) { // Flex Setting if (data[offset + 0x08] & 0x08) { if (max > 0) { if (summary->family == 5) { session->settings[PRS1_FlexMode] = (int)PR_BIFLEX; } else { session->settings[PRS1_FlexMode] = (int)PR_AFLEX; } } else { session->settings[PRS1_FlexMode] = (int)PR_CFLEXPLUS; } } else { session->settings[PRS1_FlexMode] = (int)PR_CFLEX; } } else { session->settings[PRS1_FlexMode] = (int)PR_NONE; } // Map the channels session->settings[PRS1_FlexLevel] = (int)(data[offset + 0x08] & 7); session->settings[PRS1_SysLock] = (data[offset + 0x0a] & 0x80) == 0x80; session->settings[PRS1_HoseDiam] = ((data[offset + 0x0a] & 0x08) ? "15mm" : "22mm"); session->settings[PRS1_AutoOff] = (data[offset + 0x0c] & 0x10) == 0x10; session->settings[PRS1_MaskAlert] = (data[offset + 0x0c] & 0x08) == 0x08; session->settings[PRS1_ShowAHI] = (data[offset + 0x0c] & 0x04) == 0x04; if (summary->family == 0 && summary->familyVersion >= 4) { if ((data[offset + 0x0a] & 0x04) == 0x04) { // heated tubing off session->settings[CPAP_HumidSetting] = (int)data[offset + 0x09] & 0x0f; } else { session->settings[CPAP_HumidSetting] = (int)(data[offset + 0x09] & 0x30) >> 4; } session->settings[PRS1_SysOneResistSet] = (int)(data[offset + 0x0b] & 0x38) >> 3; /* These should be added to channels, if they are correct(?) */ /* for now, leave commented out */ /* session->settings[PRS1_HeatedTubing]=(data[offset+0x0a]&0x04)!=0x04; session->settings[PRS1_HeatedTubingConnected]=(data[offset+0x0b]&0x01)==0x01; session->settings[PRS1_HeatedTubingTemp]=(int)(data[offset+0x09]&0x80)>>5 + (data[offset+0x0a]&0x03); */ } else { session->settings[CPAP_HumidSetting] = (int)data[offset + 0x09] & 0x0f; session->settings[PRS1_HumidStatus] = (data[offset + 0x09] & 0x80) == 0x80; session->settings[PRS1_SysOneResistStat] = (data[offset + 0x0a] & 0x40) == 0x40; session->settings[PRS1_SysOneResistSet] = (int)data[offset + 0x0a] & 7; } // Set recommended Graph values.. if (summary->family == 0 && summary->familyVersion == 0) { } return true; } bool PRS1Import::ParseEvents() { bool res = false; if (!event) return false; switch (event->family) { case 0: res = ParseF0Events(); break; case 5: res= ParseF5Events(); break; default: qDebug() << "Unknown PRS1 familyVersion" << event->familyVersion; return false; } if (res) { if (session->count(CPAP_IPAP) > 0) { // if (session->settings[CPAP_Mode].toInt() != (int)MODE_ASV) { // session->settings[CPAP_Mode] = MODE_BILEVEL_FIXED; // } // if (session->settings[CPAP_PresReliefType].toInt() != PR_NONE) { // session->settings[CPAP_PresReliefType] = PR_BIFLEX; // } // EventDataType min = session->settings[CPAP_PressureMin].toDouble(); // EventDataType max = session->settings[CPAP_PressureMax].toDouble(); // session->settings[CPAP_EPAP] = min; // session->settings[CPAP_IPAP] = max; // session->settings[CPAP_PS] = max - min; // session->settings.erase(session->settings.find(CPAP_PressureMin)); // session->settings.erase(session->settings.find(CPAP_PressureMax)); // session->m_valuesummary.erase(session->m_valuesummary.find(CPAP_Pressure)); // session->m_wavg.erase(session->m_wavg.find(CPAP_Pressure)); // session->m_min.erase(session->m_min.find(CPAP_Pressure)); // session->m_max.erase(session->m_max.find(CPAP_Pressure)); // session->m_gain.erase(session->m_gain.find(CPAP_Pressure)); } else { if (!session->settings.contains(CPAP_Pressure) && !session->settings.contains(CPAP_PressureMin)) { session->settings[CPAP_BrokenSummary] = true; //session->set_last(session->first()); if (session->Min(CPAP_Pressure) == session->Max(CPAP_Pressure)) { session->settings[CPAP_Mode] = MODE_CPAP; // no ramp session->settings[CPAP_Pressure] = session->Min(CPAP_Pressure); } else { session->settings[CPAP_Mode] = MODE_APAP; session->settings[CPAP_PressureMin] = session->Min(CPAP_Pressure); session->settings[CPAP_PressureMax] = 0; //session->Max(CPAP_Pressure); } //session->Set("FlexMode",PR_UNKNOWN); } } } return res; } bool PRS1Import::ParseOximetery() { int size = oximetery.size(); for (int i=0; i < size; ++i) { PRS1DataChunk * oxi = oximetery.at(i); int num = oxi->waveformInfo.size(); int size = oxi->m_data.size(); if (size == 0) { continue; } quint64 ti = quint64(oxi->timestamp) * 1000L; qint64 dur = qint64(oxi->duration) * 1000L; if (num > 1) { // Process interleaved samples QVector data; data.resize(num); int pos = 0; do { for (int n=0; n < num; n++) { int interleave = oxi->waveformInfo.at(n).interleave; data[n].append(oxi->m_data.mid(pos, interleave)); pos += interleave; } } while (pos < size); if (data[0].size() > 0) { EventList * pulse = session->AddEventList(OXI_Pulse, EVL_Waveform, 1.0, 0.0, 0.0, 0.0, dur / data[0].size()); pulse->AddWaveform(ti, (unsigned char *)data[0].data(), data[0].size(), dur); } if (data[1].size() > 0) { EventList * spo2 = session->AddEventList(OXI_SPO2, EVL_Waveform, 1.0, 0.0, 0.0, 0.0, dur / data[1].size()); spo2->AddWaveform(ti, (unsigned char *)data[1].data(), data[1].size(), dur); } } } return true; } bool PRS1Import::ParseWaveforms() { int size = waveforms.size(); quint64 s1, s2; for (int i=0; i < size; ++i) { PRS1DataChunk * waveform = waveforms.at(i); int num = waveform->waveformInfo.size(); int size = waveform->m_data.size(); if (size == 0) { continue; } quint64 ti = quint64(waveform->timestamp) * 1000L; quint64 dur = qint64(waveform->duration) * 1000L; if (num > 1) { // Process interleaved samples QVector data; data.resize(num); int pos = 0; do { for (int n=0; n < num; n++) { int interleave = waveform->waveformInfo.at(n).interleave; data[n].append(waveform->m_data.mid(pos, interleave)); pos += interleave; } } while (pos < size); s1 = data[0].size(); s2 = data[1].size(); if (s1 > 0) { EventList * flow = session->AddEventList(CPAP_FlowRate, EVL_Waveform, 1.0, 0.0, 0.0, 0.0, double(dur) / double(s1)); flow->AddWaveform(ti, (char *)data[0].data(), data[0].size(), dur); } if (s2 > 0) { EventList * pres = session->AddEventList(CPAP_MaskPressureHi, EVL_Waveform, 0.1, 0.0, 0.0, 0.0, double(dur) / double(s2)); pres->AddWaveform(ti, (unsigned char *)data[1].data(), data[1].size(), dur); } } else { // Non interleaved, so can process it much faster EventList * flow = session->AddEventList(CPAP_FlowRate, EVL_Waveform, 1.0, 0.0, 0.0, 0.0, double(dur) / double(waveform->m_data.size())); flow->AddWaveform(ti, (char *)waveform->m_data.data(), waveform->m_data.size(), dur); } } return true; } void PRS1Import::run() { if (mach->unsupported()) return; session = new Session(mach, sessionid); if ((compliance && ParseCompliance()) || (summary && ParseSummary())) { if (event && !ParseEvents()) { } waveforms = loader->ParseFile(wavefile); ParseWaveforms(); oximetery = loader->ParseFile(oxifile); ParseOximetery(); if (session->first() > 0) { if (session->last() < session->first()) { // if last isn't set, duration couldn't be gained from summary, parsing events or waveforms.. // This session is dodgy, so kill it session->setSummaryOnly(true); session->really_set_last(session->first()+(qint64(summary_duration) * 1000L)); } session->SetChanged(true); loader->addSession(session); // Update indexes, process waveform and perform flagging session->UpdateSummaries(); // Save is not threadsafe loader->saveMutex.lock(); session->Store(mach->getDataPath()); loader->saveMutex.unlock(); session->TrashEvents(); } } } QList PRS1Loader::ParseFile(QString path) { QList CHUNKS; if (path.isEmpty()) return CHUNKS; QFile f(path); if (!f.exists()) { return CHUNKS; } if (!f.open(QIODevice::ReadOnly)) { return CHUNKS; } PRS1DataChunk *chunk = nullptr, *lastchunk = nullptr; quint16 blocksize; quint16 wvfm_signals; unsigned char * header; int cnt = 0; //int lastheadersize = 0; int lastblocksize = 0; int cruft = 0; int firstsession = 0; do { QByteArray headerBA = f.read(16); if (headerBA.size() != 16) { break; } header = (unsigned char *)headerBA.data(); blocksize = (header[2] << 8) | header[1]; if (blocksize == 0) break; chunk = new PRS1DataChunk(); chunk->sessionid = (header[10] << 24) | (header[9] << 16) | (header[8] << 8) | header[7]; if (!firstsession) { firstsession = chunk->sessionid; } chunk->fileVersion = header[0]; chunk->htype = header[3]; // 00 = normal ?? // 01=waveform ?? // could be a bool signifying extra header bytes? chunk->family = header[4]; chunk->familyVersion = header[5]; chunk->ext = header[6]; chunk->timestamp = (header[14] << 24) | (header[13] << 16) | (header[12] << 8) | header[11]; if (lastchunk != nullptr) { if ((lastchunk->fileVersion != chunk->fileVersion) && (lastchunk->ext != chunk->ext) && (lastchunk->family != chunk->family) && (lastchunk->familyVersion != chunk->familyVersion) && (lastchunk->htype != chunk->htype)) { QByteArray junk = f.read(lastblocksize - 16); Q_UNUSED(junk) if (lastchunk->ext == 5) { // The data is random crap // lastchunk->m_data.append(junk.mid(lastheadersize-16)); } delete chunk; ++cruft; if (cruft > 3) break; continue; // Corrupt header.. skip it. } } int diff = 0; ////////////////////////////////////////////////////////// // Waveform Header ////////////////////////////////////////////////////////// if ((chunk->ext == 5) || (chunk->ext == 6)) { // Get extra 8 bytes in waveform header. QByteArray extra = f.read(4); if (extra.size() != 4) { delete chunk; break; } headerBA.append(extra); // Get the header address again to be safe header = (unsigned char *)headerBA.data(); chunk->duration = header[0x0f] | header[0x10] << 8; wvfm_signals = header[0x12] | header[0x13] << 8; int ws_size = (chunk->fileVersion == 3) ? 4 : 3; int sbsize = wvfm_signals * ws_size + 1; QByteArray sbextra = f.read(sbsize); if (sbextra.size() != sbsize) { delete chunk; break; } headerBA.append(sbextra); header = (unsigned char *)headerBA.data(); // Read the waveform information in reverse. int pos = 0x14 + (wvfm_signals - 1) * ws_size; for (int i = 0; i < wvfm_signals; ++i) { quint16 interleave = header[pos] | header[pos + 1] << 8; // samples per block (Usually 05 00) if (chunk->fileVersion == 2) { quint8 sample_format = header[pos + 2]; chunk->waveformInfo.push_back(PRS1Waveform(interleave, sample_format)); pos -= 3; } else if (chunk->fileVersion == 3) { quint16 sample_size = header[pos + 2] | header[pos + 3] << 8; // size in bits?? (08 00) // Possibly this is size in bits, and sign bit for the other byte? chunk->waveformInfo.push_back(PRS1Waveform(interleave, 0)); pos -= 4; } } if (lastchunk != nullptr) { diff = (chunk->timestamp - lastchunk->timestamp) - lastchunk->duration; } } int headersize = headerBA.size(); lastblocksize = blocksize; blocksize -= headersize; //lastheadersize = headersize; // Check header checksum quint8 csum = 0; for (int i=0; i < headersize-1; ++i) csum += header[i]; if ((chunk->fileVersion==2) || (chunk->ext >= 5)) { if (csum != header[headersize-1]) { // header checksum error. delete chunk; return CHUNKS; } } else if ((chunk->fileVersion==3) && (chunk->ext <= 2)) { // DreamStation has an additional block of data following the timestamp, preceded by a length count, // followed by the additive checksum char len = header[headersize-1]; csum += len; int h2len = len*2+1; blocksize -= h2len; // Read the extra data block chunk->m_headerblock = f.read(h2len); if (chunk->m_headerblock.size() < h2len) { delete chunk; return CHUNKS; } unsigned char * header2 = (unsigned char*) chunk->m_headerblock.data(); // Checksum the whole header for (int i=0; i < h2len-1; ++i) csum += header2[i]; if (csum != header2[h2len-1]) { // header checksum error. delete chunk; return CHUNKS; } } else { // uhhhh.. should not of got this far. because this is an unknown or corrupt file format. delete chunk; return CHUNKS; } // Read data block chunk->m_data = f.read(blocksize); if (chunk->m_data.size() < blocksize) { delete chunk; break; } if (chunk->fileVersion==3) { //int ds = chunk->m_data.size(); //quint32 crc16 = chunk->m_data.at(ds-2) | chunk->m_data.at(ds-1) << 8; chunk->m_data.chop(4); } else { // last two bytes contain crc16 checksum. int ds = chunk->m_data.size(); quint16 crc16 = chunk->m_data.at(ds-2) | chunk->m_data.at(ds-1) << 8; chunk->m_data.chop(2); #ifdef PRS1_CRC_CHECK // This fails.. it needs to include the header! quint16 calc16 = CRC16((unsigned char *)chunk->m_data.data(), chunk->m_data.size()); if (calc16 != crc16) { // corrupt data block.. bleh.. // qDebug() << "CRC16 doesn't match for chunk" << chunk->sessionid << "for" << path; } #endif } if ((chunk->ext == 5) || (chunk->ext == 6)){ if (lastchunk != nullptr) { Q_ASSERT(lastchunk->sessionid == chunk->sessionid); if (diff == 0) { // In sync, so append waveform data to previous chunk lastchunk->m_data.append(chunk->m_data); lastchunk->duration += chunk->duration; delete chunk; cnt++; chunk = lastchunk; continue; } // else start a new chunk to resync } } CHUNKS.append(chunk); lastchunk = chunk; cnt++; } while (!f.atEnd()); return CHUNKS; } void InitModelMap() { ModelMap[0x34] = QObject::tr("RemStar Pro with C-Flex+"); // 450/460P ModelMap[0x35] = QObject::tr("RemStar Auto with A-Flex"); // 550/560P ModelMap[0x36] = QObject::tr("RemStar BiPAP Pro with Bi-Flex"); ModelMap[0x37] = QObject::tr("RemStar BiPAP Auto with Bi-Flex"); ModelMap[0x38] = QObject::tr("RemStar Plus"); // 150/250P/260P ModelMap[0x41] = QObject::tr("BiPAP autoSV Advanced"); ModelMap[0x4a] = QObject::tr("BiPAP autoSV Advanced 60 Series"); ModelMap[0x4E] = QObject::tr("BiPAP AVAPS"); ModelMap[0x58] = QObject::tr("CPAP"); // guessing ModelMap[0x59] = QObject::tr("CPAP Pro"); // guessing ModelMap[0x5A] = QObject::tr("Auto CPAP"); ModelMap[0x5B] = QObject::tr("BiPAP Pro"); // guessing ModelMap[0x5C] = QObject::tr("Auto BiPAP"); } bool initialized = false; using namespace schema; Channel PRS1Channels; void PRS1Loader::initChannels() { Channel * chan = nullptr; channel.add(GRP_CPAP, new Channel(CPAP_PressurePulse = 0x1009, MINOR_FLAG, MT_CPAP, SESSION, "PressurePulse", QObject::tr("Pressure Pulse"), QObject::tr("A pulse of pressure 'pinged' to detect a closed airway."), QObject::tr("PP"), STR_UNIT_EventsPerHour, DEFAULT, QColor("dark red"))); channel.add(GRP_CPAP, chan = new Channel(PRS1_FlexMode = 0xe105, SETTING, MT_CPAP, SESSION, "PRS1FlexMode", QObject::tr("Flex Mode"), QObject::tr("PRS1 pressure relief mode."), QObject::tr("Flex Mode"), "", LOOKUP, Qt::green)); chan->addOption(FLEX_None, STR_TR_None); chan->addOption(FLEX_CFlex, QObject::tr("C-Flex")); chan->addOption(FLEX_CFlexPlus, QObject::tr("C-Flex+")); chan->addOption(FLEX_AFlex, QObject::tr("A-Flex")); chan->addOption(FLEX_RiseTime, QObject::tr("Rise Time")); chan->addOption(FLEX_BiFlex, QObject::tr("Bi-Flex")); channel.add(GRP_CPAP, chan = new Channel(PRS1_FlexLevel = 0xe106, SETTING, MT_CPAP, SESSION, "PRS1FlexSet", QObject::tr("Flex Level"), QObject::tr("PRS1 pressure relief setting."), QObject::tr("Flex Level"), "", LOOKUP, Qt::blue)); chan->addOption(0, STR_TR_Off); chan->addOption(1, QObject::tr("x1")); chan->addOption(2, QObject::tr("x2")); chan->addOption(3, QObject::tr("x3")); chan->addOption(4, QObject::tr("x4")); chan->addOption(5, QObject::tr("x5")); channel.add(GRP_CPAP, chan = new Channel(PRS1_HumidStatus = 0xe101, SETTING, MT_CPAP, SESSION, "PRS1HumidStat", QObject::tr("Humidifier Status"), QObject::tr("PRS1 humidifier connected?"), QObject::tr("Humidifier Status"), "", LOOKUP, Qt::green)); chan->addOption(0, QObject::tr("Disconnected")); chan->addOption(1, QObject::tr("Connected")); channel.add(GRP_CPAP, chan = new Channel(PRS1_HeatedTubing = 0xe10d, SETTING, MT_CPAP, SESSION, "PRS1HeatedTubing", QObject::tr("Heated Tubing"), QObject::tr("Heated Tubing Connected"), QObject::tr("Headed Tubing"), "", LOOKUP, Qt::green)); chan->addOption(0, QObject::tr("Yes")); chan->addOption(1, QObject::tr("No")); channel.add(GRP_CPAP, chan = new Channel(PRS1_HumidLevel = 0xe102, SETTING, MT_CPAP, SESSION, "PRS1HumidLevel", QObject::tr("Humidification Level"), QObject::tr("PRS1 Humidification level"), QObject::tr("Humid. Lvl."), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, QObject::tr("x1")); chan->addOption(2, QObject::tr("x2")); chan->addOption(3, QObject::tr("x3")); chan->addOption(4, QObject::tr("x4")); chan->addOption(5, QObject::tr("x5")); channel.add(GRP_CPAP, chan = new Channel(PRS1_SysOneResistStat = 0xe103, SETTING, MT_CPAP, SESSION, "SysOneResistStat", QObject::tr("System One Resistance Status"), QObject::tr("System One Resistance Status"), QObject::tr("Sys1 Resist. Status"), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, STR_TR_On); channel.add(GRP_CPAP, chan = new Channel(PRS1_SysOneResistSet = 0xe104, SETTING, MT_CPAP, SESSION, "SysOneResistSet", QObject::tr("System One Resistance Setting"), QObject::tr("System One Mask Resistance Setting"), QObject::tr("Sys1 Resist. Set"), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, QObject::tr("x1")); chan->addOption(2, QObject::tr("x2")); chan->addOption(3, QObject::tr("x3")); chan->addOption(4, QObject::tr("x4")); chan->addOption(5, QObject::tr("x5")); channel.add(GRP_CPAP, chan = new Channel(PRS1_HoseDiam = 0xe107, SETTING, MT_CPAP, SESSION, "PRS1HoseDiam", QObject::tr("Hose Diameter"), QObject::tr("Diameter of primary CPAP hose"), QObject::tr("Hose Diameter"), "", LOOKUP, Qt::green)); chan->addOption(0, QObject::tr("22mm")); chan->addOption(1, QObject::tr("15mm")); channel.add(GRP_CPAP, chan = new Channel(PRS1_SysOneResistStat = 0xe108, SETTING, MT_CPAP, SESSION, "SysOneLock", QObject::tr("System One Resistance Lock"), QObject::tr("Whether System One resistance settings are available to you."), QObject::tr("Sys1 Resist. Lock"), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, STR_TR_On); channel.add(GRP_CPAP, chan = new Channel(PRS1_AutoOn = 0xe109, SETTING, MT_CPAP, SESSION, "PRS1AutoOn", QObject::tr("Auto On"), QObject::tr("A few breaths automatically starts machine"), QObject::tr("Auto On"), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, STR_TR_On); channel.add(GRP_CPAP, chan = new Channel(PRS1_AutoOff = 0xe10a, SETTING, MT_CPAP, SESSION, "PRS1AutoOff", QObject::tr("Auto Off"), QObject::tr("Machine automatically switches off"), QObject::tr("Auto Off"), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, STR_TR_On); channel.add(GRP_CPAP, chan = new Channel(PRS1_MaskAlert = 0xe10b, SETTING, MT_CPAP, SESSION, "PRS1MaskAlert", QObject::tr("Mask Alert"), QObject::tr("Whether or not machine allows Mask checking."), QObject::tr("Mask Alert"), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, STR_TR_On); channel.add(GRP_CPAP, chan = new Channel(PRS1_MaskAlert = 0xe10c, SETTING, MT_CPAP, SESSION, "PRS1ShowAHI", QObject::tr("Show AHI"), QObject::tr("Whether or not machine shows AHI via LCD panel."), QObject::tr("Show AHI"), "", LOOKUP, Qt::green)); chan->addOption(0, STR_TR_Off); chan->addOption(1, STR_TR_On); // // QString unknowndesc=QObject::tr("Unknown PRS1 Code %1"); QString unknownname=QObject::tr("PRS1_%1"); QString unknownshort=QObject::tr("PRS1_%1"); channel.add(GRP_CPAP, new Channel(PRS1_00 = 0x1150, UNKNOWN, MT_CPAP, SESSION, "PRS1_00", QString(unknownname).arg(0,2,16,QChar('0')), QString(unknowndesc).arg(0,2,16,QChar('0')), QString(unknownshort).arg(0,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_01 = 0x1151, UNKNOWN, MT_CPAP, SESSION, "PRS1_01", QString(unknownname).arg(1,2,16,QChar('0')), QString(unknowndesc).arg(1,2,16,QChar('0')), QString(unknownshort).arg(1,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_08 = 0x1152, UNKNOWN, MT_CPAP, SESSION, "PRS1_08", QString(unknownname).arg(8,2,16,QChar('0')), QString(unknowndesc).arg(8,2,16,QChar('0')), QString(unknownshort).arg(8,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_0A = 0x1154, UNKNOWN, MT_CPAP, SESSION, "PRS1_0A", QString(unknownname).arg(0xa,2,16,QChar('0')), QString(unknowndesc).arg(0xa,2,16,QChar('0')), QString(unknownshort).arg(0xa,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_0B = 0x1155, UNKNOWN, MT_CPAP, SESSION, "PRS1_0B", QString(unknownname).arg(0xb,2,16,QChar('0')), QString(unknowndesc).arg(0xb,2,16,QChar('0')), QString(unknownshort).arg(0xb,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_0C = 0x1156, UNKNOWN, MT_CPAP, SESSION, "PRS1_0C", QString(unknownname).arg(0xc,2,16,QChar('0')), QString(unknowndesc).arg(0xc,2,16,QChar('0')), QString(unknownshort).arg(0xc,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_0E = 0x1157, UNKNOWN, MT_CPAP, SESSION, "PRS1_0E", QString(unknownname).arg(0xe,2,16,QChar('0')), QString(unknowndesc).arg(0xe,2,16,QChar('0')), QString(unknownshort).arg(0xe,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); // channel.add(GRP_CPAP, new Channel(PRS1_12 = 0x1159, UNKNOWN, MT_CPAP, SESSION, // "PRS1_12", // QString(unknownname).arg(0x12,2,16,QChar('0')), // QString(unknowndesc).arg(0x12,2,16,QChar('0')), // QString(unknownshort).arg(0x12,2,16,QChar('0')), // STR_UNIT_Unknown, // DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_15 = 0x115A, UNKNOWN, MT_CPAP, SESSION, "PRS1_15", QString(unknownname).arg(0x15,2,16,QChar('0')), QString(unknowndesc).arg(0x15,2,16,QChar('0')), QString(unknownshort).arg(0x15,2,16,QChar('0')), STR_UNIT_Unknown, DEFAULT, QColor("black"))); channel.add(GRP_CPAP, new Channel(PRS1_TimedBreath = 0x1180, MINOR_FLAG, MT_CPAP, SESSION, "PRS1TimedBreath", QObject::tr("Timed Breath"), QObject::tr("Machine Initiated Breath"), QObject::tr("TB"), STR_UNIT_Unknown, DEFAULT, QColor("black"))); } void PRS1Loader::Register() { if (initialized) { return; } qDebug() << "Registering PRS1Loader"; RegisterLoader(new PRS1Loader()); InitModelMap(); initialized = true; } /* Thanks SleepyCPAP :) CODE ERROR DESCRIPTION ERROR TYPE ERROR CATEGORY 1 SOFTWARE STOP STOP General Errors 2 Not Used General Errors 3 INT RAM REBOOT General Errors 4 NULL PTR REBOOT General Errors 5 DATA REBOOT General Errors 6 STATE MACHINE REBOOT General Errors 7 SOFTWARE REBOOT General Errors 8-9 Not Used General Errors 10 WDOG TEST RAM REBOOT Watchdog & Timer Errors 11 WDOG TEST REBOOT Watchdog & Timer Errors 12 BACKGROUND WDOG NO CARD REBOOT Watchdog & Timer Errors 13 BACKGROUND WDOG SD CARD REBOOT Watchdog & Timer Errors 14 WDOG LOWRES TIMER REBOOT Watchdog & Timer Errors 15 CYCLE HANDLER OVERRUN REBOOT Watchdog & Timer Errors 16 RASP RESTORE TIMEOUT CONTINUE Watchdog & Timer Errors 17 ONEMS HANDLER OVERRUN REBOOT Watchdog & Timer Errors 18 Not Used Watchdog & Timer Errors 19 WDOG TIMEOUT REBOOT Watchdog & Timer Errors 20 MOTOR SPINUP FLUX LOW REBOOT Motor/Blower Errors 21 MOTOR VBUS HIGH STOP Motor/Blower Errors 22 MOTOR FLUX MAGNITUDE REBOOT Motor/Blower Errors 23 MOTOR OVERSPEED REBOOT Motor/Blower Errors 24 MOTOR SPEED REVERSE REBOOT Motor/Blower Errors 25 MOTOR THERMISTOR OPEN CONTINUE Motor/Blower Errors 26 MOTOR THERMISTOR SHORTED CONTINUE Motor/Blower Errors 27 MOTOR RL NOCONVERGE STOP Motor/Blower Errors 28 NEGATIVE QUADRATURE VOLTAGE VECTOR REBOOT Motor/Blower Errors 29 VBUS GAIN ZERO: REBOOT Motor/Blower Errors 30 MOTOR SPINUP FLUX HIGH REBOOT Motor/Blower Errors 31 (incorrect power supply - 60series) Motor/Blower Errors 32-39 Not Used Motor/Blower Errors 40 NVRAM REBOOT NVRAM Low Level Errors 41 STORAGE UNIT RAM REBOOT NVRAM Low Level Errors 42 UNABLE TO OBTAIN BUS REBOOT NVRAM Low Level Errors 43 NVRAM NO CALLBACK OCCURRED REBOOT NVRAM Low Level Errors 44 NV BUFFER NULL REBOOT NVRAM Low Level Errors 45 NV CALLBACK NULL REBOOT NVRAM Low Level Errors 46 NV ZERO LENGTH REBOOT NVRAM Low Level Errors 47 NVRAM INVALID BYTES XFRRED REBOOT NVRAM Low Level Errors 48-49 Not Used NVRAM Low Level Errors 50 DAILY VALUES CORRUPT LOG ONLY NVRAM Unit Related Errors 51 CORRUPT COMPLIANCE LOG CONTINUE NVRAM Unit Related Errors 52 CORRUPT COMPLIANCE CB CONTINUE NVRAM Unit Related Errors 53 COMP LOG SEM TIMEOUT CONTINUE NVRAM Unit Related Errors 54 COMPLOG REQS OVERFLOW REBOOT NVRAM Unit Related Errors 55 THERAPY QUEUE FULL CONTINUE NVRAM Unit Related Errors 56 COMPLOG PACKET STATUS REBOOT NVRAM Unit Related Errors 57 SESS OBS QUEUE OVF REBOOT NVRAM Unit Related Errors 58 SESS OBS NO CALLBACK REBOOT NVRAM Unit Related Errors 59 Not Used NVRAM Unit Related Errors 60 UNSUPPORTED HARDWARE REBOOT General Hardware Errors 61 PLL UNLOCKED REBOOT General Hardware Errors 62 STUCK RAMP KEY CONTINUE General Hardware Errors 63 STUCK KNOB KEY CONTINUE General Hardware Errors 64 DSP OVERTIME PWM REBOOT General Hardware Errors 65 STUCK ENCODER A CONTINUE General Hardware Errors 66 STUCK ENCODER B CONTINUE General Hardware Errors 67-69 Not Used General Hardware Errors 70 PRESSURE SENSOR ABSENT STOP Pressure Sensor Errors 71 Not Used Pressure Sensor Errors 72 PSENS UNABLE TO OBTAIN BUS REBOOT Pressure Sensor Errors 73 SENSOR PRESS OFFSET STOP STOP Pressure Sensor Errors 74-79 Not Used Pressure Sensor Errors 80 UNABLE TO INIT FLOW SENSOR REBOOT Flow Sensor Errors 81 FLOW SENSOR TABLE CONTINUE Flow Sensor Errors 82 FLOW SENSOR OFFSET CONTINUE Flow Sensor Errors 83 FSENS UNABLE TO OBTAIN BUS REBOOT / 2nd failure=STOP Flow Sensor Errors 84 FLOW SENSOR STOP STOP Flow Sensor Errors 85 FLOW SENSOR OCCLUDED CONTINUE Flow Sensor Errors 86 FLOW SENSOR ABSENT CONTINUE Flow Sensor Errors 87 FLOW SENSOR BUS CONTINUE Flow Sensor Errors 88-89 Not Used Flow Sensor Errors 90 OTP NOT CONFIGURED STOP OTP & RTC Errors 91 OTP INCORRECTLY CONFIGURED STOP OTP & RTC Errors 92 Not Used OTP & RTC Errors 93 RTC VALUE CONTINUE OTP & RTC Errors 94 RTC STOPPED CONTINUE OTP & RTC Errors 95-99 Not Used OTP & RTC Errors 100 HUMID NO HEAT CONTINUE Humidifier Errors 101 HUMID TEMP MAX STOP Humidifier Errors 102 THERMISTOR HIGH CONTINUE Humidifier Errors 103 THERMISTOR LOW CONTINUE Humidifier Errors 104 HUMID AMBIENT OFF CONTINUE Humidifier Errors 105 HUMID AMBIENT COMM CONTINUE Humidifier Errors 106-109 Not Used Humidifier Errors 110 STACK REBOOT Stack & Exception Handler Errors 111 EXCEPTION STACK OVERFLOW REBOOT Stack & Exception Handler Errors 112 EXCEPTION STACK RESERVE LOG ONLY Stack & Exception Handler Errors 113 EXCEPTION STACK UNDERFLOW REBOOT Stack & Exception Handler Errors 114 FIQ STACK OVERFLOW REBOOT Stack & Exception Handler Errors 115 FIQ STACK RESERVE LOG ONLY Stack & Exception Handler Errors 116 FIQ STACK UNDERFLOW REBOOT Stack & Exception Handler Errors 117 IRQ STACK OVERFLOW REBOOT Stack & Exception Handler Errors 118 IRQ STACK RESERVE LOG ONLY Stack & Exception Handler Errors 119 IRQ STACK UNDERFLOW REBOOT Stack & Exception Handler Errors 120 SVC STACK OVERFLOW REBOOT Stack & Exception Handler Errors 121 SVC STACK RESERVE LOG ONLY Stack & Exception Handler Errors 122 SVC STACK UNDERFLOW REBOOT Stack & Exception Handler Errors 123 DATA ABORT EXCEPTION REBOOT Stack & Exception Handler Errors 124 PREFETCH EXCEPTION REBOOT Stack & Exception Handler Errors 125 ILLEGAL INSTRUCTION EXCEPTION REBOOT Stack & Exception Handler Errors 126 SWI ABORT EXCEPTION REBOOT Stack & Exception Handler Errors */