/* -*- Mode: C++; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 4 -*-
* vim: set ts=8 sts=4 et sw=4 tw=99:
*
* SleepLib ResMed Loader Implementation
*
* Copyright (c) 2011-2014 Mark Watkins <jedimark@users.sourceforge.net>
*
* 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 <QApplication>
#include <QString>
#include <QDateTime>
#include <QDir>
#include <QFile>
#include <QMessageBox>
#include <QProgressBar>
#include <QDebug>
#include <cmath>
#include "resmed_loader.h"
#include "SleepLib/session.h"
#include "SleepLib/calcs.h"
#ifdef DEBUG_EFFICIENCY
#include <QElapsedTimer> // only available in 4.8
#endif
extern QProgressBar *qprogress;
QHash<QString, QList<quint16> > Resmed_Model_Map;
const QString STR_UnknownModel = "Resmed S9 ???";
// Return the model name matching the supplied model number.
const QString & lookupModel(quint16 model)
{
QHash<QString, QList<quint16> >::iterator end = Resmed_Model_Map.end();
for (QHash<QString, QList<quint16> >::iterator it = Resmed_Model_Map.begin(); it != end; ++it) {
QList<quint16> & list = it.value();
for (int i=0; i < list.size(); ++i) {
if (list.at(i) == model) {
return it.key();
}
}
}
return STR_UnknownModel;
}
QHash<ChannelID, QStringList> resmed_codes;
const QString STR_ext_TGT = "tgt";
const QString STR_ext_CRC = "crc";
const QString STR_ext_EDF = "edf";
const QString STR_ext_gz = ".gz";
// Looks up foreign language Signal names that match this channelID
EDFSignal *EDFParser::lookupSignal(ChannelID ch)
{
// Get list of all known foreign language names for this channel
QHash<ChannelID, QStringList>::iterator channames = resmed_codes.find(ch);
if (channames == resmed_codes.end()) {
// no alternatives strings found for this channel
return nullptr;
}
// Scan through EDF's list of signals to see if any match
for (int i = 0; i < channames.value().size(); i++) {
QHash<QString, EDFSignal *>::iterator jj = lookup.find(channames.value()[i]);
if (jj == lookup.end()) {
continue;
}
// return the EDFSignal record
return jj.value();
}
// Failed
return nullptr;
}
// Check if given string matches any alternative signal names for this channel
bool matchSignal(ChannelID ch, const QString & name)
{
QHash<ChannelID, QStringList>::iterator channames = resmed_codes.find(ch);
if (channames == resmed_codes.end()) {
return false;
}
QStringList & strings = channames.value();
int size = strings.size();
for (int i=0; i < size; ++i) {
// Using starts with, because ResMed is very lazy about consistency
if (name.startsWith(strings.at(i), Qt::CaseInsensitive)) {
return true;
}
}
return false;
}
EDFSignal *EDFParser::lookupName(QString name)
{
QHash<QString, EDFSignal *>::iterator i = lookup.find(name);
if (i != lookup.end()) { return i.value(); }
return nullptr;
}
EDFParser::EDFParser(QString name)
{
buffer = nullptr;
Open(name);
}
EDFParser::~EDFParser()
{
for (QVector<EDFSignal>::iterator s = edfsignals.begin(); s != edfsignals.end(); s++) {
if ((*s).data) { delete [](*s).data; }
}
if (buffer) { delete [] buffer; }
}
// Read a 16 bits integer
qint16 EDFParser::Read16()
{
if ((pos + 2) > filesize) {
return 0;
}
#ifdef LITTLE_ENDIAN
// Intel, etc...
qint16 res = *(qint16 *)&buffer[pos];
#else
// ARM, PPC, etc..
qint16 res = buffer[pos] | (buffer[pos+1] << 8);
#endif
pos += 2;
return res;
}
QString EDFParser::Read(unsigned n)
{
if ((pos + long(n)) > filesize) {
return "";
}
QString str;
for (unsigned i = 0; i < n; i++) {
str += buffer[pos++];
}
return str.trimmed();
}
bool EDFParser::Parse()
{
bool ok;
QString temp, temp2;
version = QString::fromLatin1(header.version, 8).toLong(&ok);
if (!ok) {
return false;
}
//patientident=QString::fromLatin1(header.patientident,80);
recordingident = QString::fromLatin1(header.recordingident, 80); // Serial number is in here..
int snp = recordingident.indexOf("SRN=");
serialnumber.clear();
/*char * idx=index(header.recordingident,'=');
idx++;
for (int i=0;i<16;++i) {
if (*idx==0x20) break;
serialnumber+=*idx;
++idx;
} */
for (int i = snp + 4; i < recordingident.length(); i++) {
if (recordingident[i] == ' ') {
break;
}
serialnumber += recordingident[i];
}
QDateTime startDate = QDateTime::fromString(QString::fromLatin1(header.datetime, 16),
"dd.MM.yyHH.mm.ss");
//startDate.toTimeSpec(Qt::UTC);
QDate d2 = startDate.date();
if (d2.year() < 2000) {
d2.setDate(d2.year() + 100, d2.month(), d2.day());
startDate.setDate(d2);
}
if (!startDate.isValid()) {
qDebug() << "Invalid date time retreieved parsing EDF File " << filename;
return false;
}
startdate = qint64(startDate.toTime_t()) * 1000L;
//startdate-=timezoneOffset();
//qDebug() << startDate.toString("yyyy-MM-dd HH:mm:ss");
num_header_bytes = QString::fromLatin1(header.num_header_bytes, 8).toLong(&ok);
if (!ok) {
return false;
}
//reserved44=QString::fromLatin1(header.reserved,44);
num_data_records = QString::fromLatin1(header.num_data_records, 8).toLong(&ok);
if (!ok) {
return false;
}
dur_data_record = QString::fromLatin1(header.dur_data_records, 8).toDouble(&ok) * 1000.0;
if (!ok) {
return false;
}
num_signals = QString::fromLatin1(header.num_signals, 4).toLong(&ok);
if (!ok) {
return false;
}
enddate = startdate + dur_data_record * qint64(num_data_records);
// if (dur_data_record==0)
// return false;
// this could be loaded quicker by transducer_type[signal] etc..
// Initialize fixed-size signal list.
edfsignals.resize(num_signals);
for (int i = 0; i < num_signals; i++) {
EDFSignal &signal = edfsignals[i];
signal.data = nullptr;
signal.label = Read(16);
lookup[signal.label] = &signal; // Safe: edfsignals won't move.
}
for (int i = 0; i < num_signals; i++) { edfsignals[i].transducer_type = Read(80); }
for (int i = 0; i < num_signals; i++) { edfsignals[i].physical_dimension = Read(8); }
for (int i = 0; i < num_signals; i++) { edfsignals[i].physical_minimum = Read(8).toDouble(&ok); }
for (int i = 0; i < num_signals; i++) { edfsignals[i].physical_maximum = Read(8).toDouble(&ok); }
for (int i = 0; i < num_signals; i++) { edfsignals[i].digital_minimum = Read(8).toDouble(&ok); }
for (int i = 0; i < num_signals; i++) {
EDFSignal &e = edfsignals[i];
e.digital_maximum = Read(8).toDouble(&ok);
e.gain = (e.physical_maximum - e.physical_minimum) / (e.digital_maximum - e.digital_minimum);
e.offset = 0;
}
for (int i = 0; i < num_signals; i++) { edfsignals[i].prefiltering = Read(80); }
for (int i = 0; i < num_signals; i++) { edfsignals[i].nr = Read(8).toLong(&ok); }
for (int i = 0; i < num_signals; i++) { edfsignals[i].reserved = Read(32); }
// allocate the buffers
for (int i = 0; i < num_signals; i++) {
//qDebug//cout << "Reading signal " << signals[i]->label << endl;
EDFSignal &sig = edfsignals[i];
long recs = sig.nr * num_data_records;
if (num_data_records < 0) {
return false;
}
sig.data = new qint16 [recs];
sig.pos = 0;
}
for (int x = 0; x < num_data_records; x++) {
for (int i = 0; i < num_signals; i++) {
EDFSignal &sig = edfsignals[i];
#if LITTLE_ENDIAN
// Intel x86, etc..
memcpy((char *)&sig.data[sig.pos], (char *)&buffer[pos], sig.nr * 2);
sig.pos += sig.nr;
pos += sig.nr * 2;
#else
// ARM, PPC, etc..
for (int j=0;j<sig.nr;j++) {
qint16 t=Read16();
sig.data[sig.pos++]=t;
}
#endif
}
}
return true;
}
bool EDFParser::Open(QString name)
{
Q_ASSERT(buffer == nullptr);
if (name.endsWith(STR_ext_gz)) {
// Open and decempress file to buffer
filename = name.mid(0, -3);
// Get file length from inside gzip file
QFile fi(name);
if (!fi.open(QFile::ReadOnly) || !fi.seek(fi.size() - 4)) {
goto badfile;
}
unsigned char ch[4];
fi.read((char *)ch, 4);
filesize = ch[0] | (ch [1] << 8) | (ch[2] << 16) | (ch[3] << 24);
datasize = filesize - EDFHeaderSize;
if (datasize < 0) {
goto badfile;
}
// Open gzip file for reading
gzFile f = gzopen(name.toLatin1(), "rb");
if (!f) {
goto badfile;
}
// Decompressed header and data block
gzread(f, (char *)&header, EDFHeaderSize);
buffer = new char [datasize];
gzread(f, buffer, datasize);
gzclose(f);
} else {
// Open and read uncompressed file
QFile f(name);
if (!f.open(QIODevice::ReadOnly)) {
goto badfile;
}
filename = name;
filesize = f.size();
datasize = filesize - EDFHeaderSize;
if (datasize < 0) {
goto badfile;
}
f.read((char *)&header, EDFHeaderSize);
buffer = new char [datasize];
f.read(buffer, datasize);
f.close();
}
pos = 0;
return true;
badfile:
qDebug() << "EDFParser::Open() Couldn't open file" << name;
return false;
}
ResmedLoader::ResmedLoader()
{
}
ResmedLoader::~ResmedLoader()
{
}
Machine *ResmedLoader::CreateMachine(QString serial, Profile *profile)
{
if (!profile) { return nullptr; }
QList<Machine *> ml = profile->GetMachines(MT_CPAP);
bool found = false;
QList<Machine *>::iterator i;
Machine *m = nullptr;
for (i = ml.begin(); i != ml.end(); i++) {
if (((*i)->GetClass() == resmed_class_name) && ((*i)->properties[STR_PROP_Serial] == serial)) {
ResmedList[serial] = *i; //static_cast<CPAP *>(*i);
found = true;
m = *i;
break;
}
}
if (!found) {
m = new CPAP(profile, 0);
}
m->properties[STR_PROP_Brand] = STR_MACH_ResMed;
m->properties[STR_PROP_Series] = "S9";
if (found) {
return m;
}
qDebug() << "Create ResMed Machine" << serial;
m->SetClass(resmed_class_name);
ResmedList[serial] = m;
profile->AddMachine(m);
m->properties[STR_PROP_Serial] = serial;
m->properties[STR_PROP_DataVersion] = QString::number(resmed_data_version);
QString path = "{" + STR_GEN_DataFolder + "}/" + m->GetClass() + "_" + serial + "/";
m->properties[STR_PROP_Path] = path;
m->properties[STR_PROP_BackupPath] = path + "Backup/";
return m;
}
long event_cnt = 0;
const QString RMS9_STR_datalog = "DATALOG";
const QString RMS9_STR_idfile = "Identification.";
const QString RMS9_STR_strfile = "STR.";
bool ResmedLoader::Detect(const QString & givenpath)
{
QDir dir(givenpath);
if (!dir.exists()) {
return false;
}
// ResMed drives contain a folder named "DATALOG".
if (!dir.exists(RMS9_STR_datalog)) {
return false;
}
// They also contain a file named "STR.edf".
if (!dir.exists("STR.edf")) {
return false;
}
return true;
}
int ResmedLoader::Open(QString &path, Profile *profile)
{
QString serial; // Serial number
QString key, value;
QString line;
QString newpath;
QString filename;
QHash<QString, QString> idmap; // Temporary properties hash
path = path.replace("\\", "/");
// Strip off end "/" if any
if (path.endsWith("/")) {
path = path.section("/", 0, -2);
}
// Strip off DATALOG from path, and set newpath to the path contianing DATALOG
if (path.endsWith(RMS9_STR_datalog)) {
newpath = path + "/";
path = path.section("/", 0, -2);
} else {
newpath = path + "/" + RMS9_STR_datalog + "/";
}
// Add separator back
path += "/";
// Check DATALOG folder exists and is readable
if (!QDir().exists(newpath)) {
return 0;
}
///////////////////////////////////////////////////////////////////////////////////
// Parse Identification.tgt file (containing serial number and machine information)
///////////////////////////////////////////////////////////////////////////////////
filename = path + RMS9_STR_idfile + STR_ext_TGT;
QFile f(filename);
// Abort if this file is dodgy..
if (!f.exists() || !f.open(QIODevice::ReadOnly)) {
return 0;
}
// Parse # entries into idmap.
while (!f.atEnd()) {
line = f.readLine().trimmed();
if (!line.isEmpty()) {
key = line.section(" ", 0, 0).section("#", 1);
value = line.section(" ", 1);
if (key == "SRN") { // Serial Number
key = STR_PROP_Serial;
serial = value;
} else if (key == "PNA") { // Product Name
key = STR_PROP_Model;
value.replace("_"," ");
} else if (key == "PCD") { // Product Code
key = STR_PROP_ModelNumber;
}
idmap[key] = value;
}
}
f.close();
// Abort if no serial number
if (serial.isEmpty()) {
qDebug() << "S9 Data card has no valid serial number in Indentification.tgt";
return 0;
}
// Early check for STR.edf file, so we can early exit before creating faulty machine record.
QString strpath = path + RMS9_STR_strfile + STR_ext_EDF; // STR.edf file
f.setFileName(strpath);
if (!f.exists()) { // No STR.edf.. Do we have a STR.edf.gz?
strpath += STR_ext_gz;
f.setFileName(strpath);
if (!f.exists()) {
qDebug() << "Missing STR.edf file";
return 0;
}
}
///////////////////////////////////////////////////////////////////////////////////
// Create machine object (unless it's already registered)
///////////////////////////////////////////////////////////////////////////////////
Machine *m = CreateMachine(serial, profile);
bool create_backups = PROFILE.session->backupCardData();
bool compress_backups = PROFILE.session->compressBackupData();
QString backup_path = PROFILE.Get(m->properties[STR_PROP_BackupPath]);
if (backup_path.isEmpty()) {
backup_path = PROFILE.Get(m->properties[STR_PROP_Path]) + "Backup/";
}
if (path == backup_path) {
// Don't create backups if importing from backup folder
create_backups = false;
}
///////////////////////////////////////////////////////////////////////////////////
// Parse the idmap into machine objects properties, (overwriting any old values)
///////////////////////////////////////////////////////////////////////////////////
for (QHash<QString, QString>::iterator i = idmap.begin(); i != idmap.end(); i++) {
m->properties[i.key()] = i.value();
}
///////////////////////////////////////////////////////////////////////////////////
// Open and Parse STR.edf file
///////////////////////////////////////////////////////////////////////////////////
EDFParser stredf(strpath);
if (!stredf.Parse()) {
qDebug() << "Faulty file" << RMS9_STR_strfile;
return 0;
}
if (stredf.serialnumber != serial) {
qDebug() << "Identification.tgt Serial number doesn't match STR.edf!";
}
// Creating early as we need the object
QDir dir(newpath);
///////////////////////////////////////////////////////////////////////////////////
// Create the backup folder for storing a copy of everything in..
// (Unless we are importing from this backup folder)
///////////////////////////////////////////////////////////////////////////////////
if (create_backups) {
if (!dir.exists(backup_path)) {
if (!dir.mkpath(backup_path + RMS9_STR_datalog)) {
qDebug() << "Could not create S9 backup directory :-/";
}
}
// Copy Identification files to backup folder
QFile::copy(path + RMS9_STR_idfile + STR_ext_TGT, backup_path + RMS9_STR_idfile + STR_ext_TGT);
QFile::copy(path + RMS9_STR_idfile + STR_ext_CRC, backup_path + RMS9_STR_idfile + STR_ext_CRC);
QDateTime dts = QDateTime::fromMSecsSinceEpoch(stredf.startdate);
dir.mkpath(backup_path + "STR_Backup");
QString strmonthly = backup_path + "STR_Backup/STR-" + dts.toString("yyyyMM") + "." + STR_ext_EDF;
//copy STR files to backup folder
if (strpath.endsWith(STR_ext_gz)) { // Already compressed. Don't bother decompressing..
QFile::copy(strpath, backup_path + RMS9_STR_strfile + STR_ext_EDF + STR_ext_gz);
} else { // Compress STR file to backup folder
QString strf = backup_path + RMS9_STR_strfile + STR_ext_EDF;
// Copy most recent to STR.edf
if (QFile::exists(strf)) {
QFile::remove(strf);
}
if (QFile::exists(strf + STR_ext_gz)) {
QFile::remove(strf + STR_ext_gz);
}
compress_backups ?
compressFile(strpath, strf)
:
QFile::copy(strpath, strf);
}
// Keep one STR.edf backup every month
if (!QFile::exists(strmonthly) && !QFile::exists(strmonthly + ".gz")) {
compress_backups ?
compressFile(strpath, strmonthly)
:
QFile::copy(strpath, strmonthly);
}
// Meh.. these can be calculated if ever needed for ResScan SDcard export
QFile::copy(path + "STR.crc", backup_path + "STR.crc");
}
///////////////////////////////////////////////////////////////////////////////////
// Process the actual STR.edf data
///////////////////////////////////////////////////////////////////////////////////
qint64 numrecs = stredf.GetNumDataRecords();
qint64 duration = numrecs * stredf.GetDuration();
int days = duration / 86400000L; // GetNumDataRecords = this.. Duh!
//QDateTime dt1=QDateTime::fromTime_t(stredf.startdate/1000L);
//QDateTime dt2=QDateTime::fromTime_t(stredf.enddate/1000L);
//QDate dd1=dt1.date();
//QDate dd2=dt2.date();
// for (int s=0;s<stredf.GetNumSignals();s++) {
// EDFSignal &es = stredf.edfsignals[s];
// long recs=es.nr*stredf.GetNumDataRecords();
// //qDebug() << "STREDF:" << es.label << recs;
// }
// Process STR.edf and find first and last time for each day
QVector<qint8> dayused;
dayused.resize(days);
QList<SessionID> strfirst;
QList<SessionID> strlast;
QList<int> strday;
QList<bool> dayfoo;
QHash<qint16, QList<time_t> > daystarttimes;
QHash<qint16, QList<time_t> > dayendtimes;
//qint16 on,off;
//qint16 o1[10],o2[10];
//time_t st,et;
time_t time = stredf.startdate / 1000L; // == 12pm on first day
// for (int i=0;i<days;i++) {
// EDFSignal *maskon=stredf.lookup["Mask On"];
// EDFSignal *maskoff=stredf.lookup["Mask Off"];
// int j=i*10;
// // Counts for on and off don't line up, and I'm not sure why
// // The extra 'off' always seems to start with a 1 at the beginning
// // A signal it's carried over from the day before perhaps? (noon boundary)
// int ckon=0,ckoff=0;
// for (int k=0;k<10;k++) {
// on=maskon->data[j+k];
// off=maskoff->data[j+k];
// o1[k]=on;
// o2[k]=off;
// if (on >= 0) ckon++;
// if (off >= 0) ckoff++;
// }
// // set to true if day starts with machine running
// int offset=ckoff-ckon;
// dayfoo.push_back(offset>0);
// st=0,et=0;
// time_t l,f;
// // Find the Min & Max times for this day
// for (int k=0;k<ckon;k++) {
// on=o1[k];
// off=o2[k+offset];
// f=time+on*60;
// l=time+off*60;
// daystarttimes[i].push_back(f);
// dayendtimes[i].push_back(l);
// if (!st || (st > f)) st=f;
// if (!et || (et < l)) et=l;
// }
// strfirst.push_back(st);
// strlast.push_back(et);
// strday.push_back(i);
// dayused[i]=ckon;
// time+=86400;
// }
// reset time to first day
time = stredf.startdate / 1000;
///////////////////////////////////////////////////////////////////////////////////
// Open DATALOG file and build list of session files
///////////////////////////////////////////////////////////////////////////////////
QStringList dirs;
dirs.push_back(newpath);
dir.setFilter(QDir::Dirs | QDir::Hidden | QDir::NoDotAndDotDot);
QFileInfoList flist = dir.entryInfoList();
bool ok;
for (int i = 0; i < flist.size(); i++) {
QFileInfo fi = flist.at(i);
filename = fi.fileName();
if (filename.length() == 4) {
filename.toInt(&ok);
if (ok) {
dirs.push_back(fi.canonicalFilePath());
}
}
}
QString datestr;
SessionID sessionid;
QDateTime date;
QString fullname;
bool gz;
int size;
QMap<SessionID, QStringList>::iterator si;
sessfiles.clear();
for (int dc = 0; dc < dirs.size(); dc++) {
dir.setPath(dirs.at(dc));
dir.setFilter(QDir::Files | QDir::Hidden | QDir::NoSymLinks);
dir.setSorting(QDir::Name);
flist = dir.entryInfoList();
size = flist.size();
// For each file in flist...
for (int i = 0; i < size; i++) {
QFileInfo fi = flist.at(i);
filename = fi.fileName();
// Forget about it if it can't be read.
if (!fi.isReadable()) {
continue;
}
if (filename.endsWith(STR_ext_gz)) {
filename.chop(3);
gz = true;
} else { gz = false; }
// Accept only .edf and .edf.gz files
if (filename.right(4).toLower() != "." + STR_ext_EDF) {
continue;
}
fullname = fi.canonicalFilePath();
// Extract the session date out of the filename
datestr = filename.section("_", 0, 1);
// Take the filename's date, and
date = QDateTime::fromString(datestr, "yyyyMMdd_HHmmss");
date = date.toUTC();
// Skip file if dates invalid, the filename is clearly wrong..
if (!date.isValid()) {
continue;
}
// convert this date to UNIX epoch to form the sessionID
sessionid = date.toTime_t();
////////////////////////////////////////////////////////////////////////////////////////////
// Resmed bugs up on the session filenames.. More than these 3 seconds
// Moral of the story, when writing firmware and saving in batches, use the same datetimes,
// and provide firmware updates for free to your customers.
////////////////////////////////////////////////////////////////////////////////////////////
si = sessfiles.find(sessionid);
if (si == sessfiles.end()) {
// Scan 3 seconds either way for sessions..
for (int j = 1; j < 3; j++) {
if ((si = sessfiles.find(sessionid + j)) != sessfiles.end()) {
sessionid += j;
break;
} else if ((si = sessfiles.find(sessionid - j)) != sessfiles.end()) {
sessionid -= j;
break;
}
}
}
fullname = backup(fullname, backup_path);
// Push current filename to ordered-by-sessionid list
if (si != sessfiles.end()) {
// Ignore if already compressed version of the same file exists.. (just in case)
bool skip = false;
// check for any other versions of the same file.
for (int i = 0; i < si.value().size(); i++) {
QString st = si.value().at(i).section("/", -1);
if (st.endsWith(STR_ext_gz)) {
st.chop(3);
}
if (st == filename) {
skip = true;
}
}
if (!skip) {
si.value().push_back(fullname);
}
} else {
sessfiles[sessionid].push_back(fullname);
}
// if ((i % 10)==0) {
// Update the progress bar
if (qprogress) { qprogress->setValue((float(i + 1) / float(size) * 10.0)); }
QApplication::processEvents();
// }
}
}
QString fn;
Session *sess;
int cnt = 0;
size = sessfiles.size();
QHash<SessionID, int> sessday;
/////////////////////////////////////////////////////////////////////////////
// Scan over file list and knock out of dayused list
/////////////////////////////////////////////////////////////////////////////
//int dn;
// for (QMap<SessionID,QStringList>::iterator si=sessfiles.begin();si!=sessfiles.end();si++) {
// sessionid=si.key();
// // Earliest possible day number
// int edn=((sessionid-time)/86400)-1;
// if (edn<0) edn=0;
// // Find real day number from str.edf mask on/off data.
// dn=-1;
// for (int j=edn;j<strfirst.size();j++){
// st=strfirst.at(j);
// if (sessionid>=st) {
// et=strlast.at(j);
// if (sessionid<(et+300)) {
// dn=j;
// break;
// }
// }
// }
// // If found, mark day off so STR.edf summary data isn't used instead of the real thing.
// if (dn>=0) {
// dayused[dn]=0;
// }
// }
EDFSignal *sig;
/////////////////////////////////////////////////////////////////////////////
// For all days not in session lists, (to get at days without data records)
/////////////////////////////////////////////////////////////////////////////
// for (dn=0;dn<days;dn++) {
// // Skip days with loadable data.
// if (!dayused[dn])
// continue;
// if (!daystarttimes.contains(dn))
// continue;
// sess=nullptr;
// int scnt=daystarttimes[dn].size(); // count of sessions for this day
// // Create a new session for each mask on/off segment in a day
// // But only populate the last one with summary data.
// for (int j=0;j<scnt;j++) {
// st=daystarttimes[dn].at(j);
// // Skip if session already exists
// if (m->SessionExists(st))
// continue;
// et=dayendtimes[dn].at(j);
// // Create the session
// sess=new Session(m,st);
// sess->really_set_first(qint64(st)*1000L);
// sess->really_set_last(qint64(et)*1000L);
// sess->SetChanged(true);
// m->AddSession(sess,profile);
// }
// // Add the actual data to the last session
// EventDataType tmp,dur;
// if (sess) {
// /////////////////////////////////////////////////////////////////////
// // CPAP Mode
// /////////////////////////////////////////////////////////////////////
// int mode;
// sig=stredf.lookupSignal(CPAP_Mode);
// if (sig) {
// mode=sig->data[dn];
// } else mode=0;
// /////////////////////////////////////////////////////////////////////
// // EPR Settings
// /////////////////////////////////////////////////////////////////////
// sess->settings[CPAP_PresReliefType]=PR_EPR;
// // Note: AutoSV machines don't have both fields
// sig=stredf.lookupSignal(RMS9_EPR);
// if (sig) {
// sess->settings[CPAP_PresReliefMode]=EventDataType(sig->data[dn])*sig->gain;
// }
// sig=stredf.lookupSignal(RMS9_EPRSet);
// if (sig) {
// sess->settings[CPAP_PresReliefSet]=EventDataType(sig->data[dn])*sig->gain;
// }
// /////////////////////////////////////////////////////////////////////
// // Set Min & Max pressures depending on CPAP mode
// /////////////////////////////////////////////////////////////////////
// if (mode==0) {
// sess->settings[CPAP_Mode]=MODE_CPAP;
// sig=stredf.lookupSignal(RMS9_SetPressure); // ?? What's meant by Set Pressure?
// if (sig) {
// EventDataType pressure=sig->data[dn]*sig->gain;
// sess->settings[CPAP_Pressure]=pressure;
// }
// } else { // VPAP or Auto
// if (mode>5) {
// if (mode>=7)
// sess->settings[CPAP_Mode]=MODE_ASV;
// else
// sess->settings[CPAP_Mode]=MODE_BIPAP;
// EventDataType tmp,epap=0,ipap=0;
// if ((sig=stredf.lookupName("EPAP"))) {
// epap=sig->data[dn]*sig->gain;
// sess->settings[CPAP_EPAP]=epap;
// sess->setMin(CPAP_EPAP,epap);
// }
// if ((sig=stredf.lookupName("IPAP"))) {
// ipap=sig->data[dn]*sig->gain;
// sess->settings[CPAP_IPAP]=ipap;
// }
// if ((sig=stredf.lookupName("PS"))) {
// tmp=sig->data[dn]*sig->gain;
// sess->settings[CPAP_PS]=tmp; // technically this is IPAP-EPAP
// if (!ipap) {
// // not really possible. but anyway, just in case..
// sess->settings[CPAP_IPAP]=epap+tmp;
// }
// }
// if ((sig=stredf.lookupName("Min PS"))) {
// tmp=sig->data[dn]*sig->gain;
// sess->settings[CPAP_PSMin]=tmp;
// sess->settings[CPAP_IPAPLo]=epap+tmp;
// sess->setMin(CPAP_IPAP,epap+tmp);
// }
// if ((sig=stredf.lookupName("Max PS"))) {
// tmp=sig->data[dn]*sig->gain;
// sess->settings[CPAP_PSMax]=tmp;
// sess->settings[CPAP_IPAPHi]=epap+tmp;
// }
// if ((sig=stredf.lookupName("RR"))) { // Is this a setting to force respiratory rate on S/T machines?
// tmp=sig->data[dn];
// sess->settings[CPAP_RespRate]=tmp*sig->gain;
// }
// if ((sig=stredf.lookupName("Easy-Breathe"))) {
// tmp=sig->data[dn]*sig->gain;
// sess->settings[CPAP_PresReliefSet]=tmp;
// sess->settings[CPAP_PresReliefType]=(int)PR_EASYBREATHE;
// sess->settings[CPAP_PresReliefMode]=(int)PM_FullTime;
// }
// } else {
// sess->settings[CPAP_Mode]=MODE_APAP;
// sig=stredf.lookupSignal(CPAP_PressureMin);
// if (sig) {
// EventDataType pressure=sig->data[dn]*sig->gain;
// sess->settings[CPAP_PressureMin]=pressure;
// //sess->setMin(CPAP_Pressure,pressure);
// }
// sig=stredf.lookupSignal(CPAP_PressureMax);
// if (sig) {
// EventDataType pressure=sig->data[dn]*sig->gain;
// sess->settings[CPAP_PressureMax]=pressure;
// //sess->setMax(CPAP_Pressure,pressure);
// }
// }
// }
// EventDataType valmed=0,valmax=0,val95=0;
// /////////////////////////////////////////////////////////////////////
// // Leak Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Leak Med"))) {
// valmed=sig->data[dn];
// if (valmed>=0) {
// sess->m_gain[CPAP_Leak]=sig->gain*60.0;
// sess->m_valuesummary[CPAP_Leak][valmed]=51;
// }
// }
// if ((sig=stredf.lookupName("Leak 95"))) {
// val95=sig->data[dn];
// if (val95>=0)
// sess->m_valuesummary[CPAP_Leak][val95]=45;
// }
// if ((sig=stredf.lookupName("Leak Max"))) {
// valmax=sig->data[dn];
// if (valmax>=0) {
// sess->setMax(CPAP_Leak,valmax*sig->gain*60.0);
// sess->m_valuesummary[CPAP_Leak][valmax]=4;
// }
// }
// /////////////////////////////////////////////////////////////////////
// // Minute Ventilation Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Min Vent Med"))) {
// valmed=sig->data[dn];
// sess->m_gain[CPAP_MinuteVent]=sig->gain;
// sess->m_valuesummary[CPAP_MinuteVent][valmed]=51;
// }
// if ((sig=stredf.lookupName("Min Vent 95"))) {
// val95=sig->data[dn];
// sess->m_valuesummary[CPAP_MinuteVent][val95]=45;
// }
// if ((sig=stredf.lookupName("Min Vent Max"))) {
// valmax=sig->data[dn];
// sess->setMax(CPAP_MinuteVent,valmax*sig->gain);
// sess->m_valuesummary[CPAP_MinuteVent][valmax]=4;
// }
// /////////////////////////////////////////////////////////////////////
// // Respiratory Rate Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("RR Med"))) {
// valmed=sig->data[dn];
// sess->m_gain[CPAP_RespRate]=sig->gain;
// sess->m_valuesummary[CPAP_RespRate][valmed]=51;
// }
// if ((sig=stredf.lookupName("RR 95"))) {
// val95=sig->data[dn];
// sess->m_valuesummary[CPAP_RespRate][val95]=45;
// }
// if ((sig=stredf.lookupName("RR Max"))) {
// valmax=sig->data[dn];
// sess->setMax(CPAP_RespRate,valmax*sig->gain);
// sess->m_valuesummary[CPAP_RespRate][valmax]=4;
// }
// /////////////////////////////////////////////////////////////////////
// // Tidal Volume Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Tid Vol Med"))) {
// valmed=sig->data[dn];
// sess->m_gain[CPAP_TidalVolume]=sig->gain*1000.0;
// sess->m_valuesummary[CPAP_TidalVolume][valmed]=51;
// }
// if ((sig=stredf.lookupName("Tid Vol 95"))) {
// val95=sig->data[dn];
// sess->m_valuesummary[CPAP_TidalVolume][val95]=45;
// }
// if ((sig=stredf.lookupName("Tid Vol Max"))) {
// valmax=sig->data[dn];
// sess->setMax(CPAP_TidalVolume,valmax*sig->gain*1000.0);
// sess->m_valuesummary[CPAP_TidalVolume][valmax]=4;
// }
// /////////////////////////////////////////////////////////////////////
// // Target Minute Ventilation Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Targ Vent Med"))) {
// valmed=sig->data[dn];
// sess->m_gain[CPAP_TgMV]=sig->gain;
// sess->m_valuesummary[CPAP_TgMV][valmed]=51;
// }
// if ((sig=stredf.lookupName("Targ Vent 95"))) {
// val95=sig->data[dn];
// sess->m_valuesummary[CPAP_TgMV][val95]=45;
// }
// if ((sig=stredf.lookupName("Targ Vent Max"))) {
// valmax=sig->data[dn];
// sess->setMax(CPAP_TgMV,valmax*sig->gain);
// sess->m_valuesummary[CPAP_TgMV][valmax]=4;
// }
// /////////////////////////////////////////////////////////////////////
// // I:E Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("I:E Med"))) {
// valmed=sig->data[dn];
// sess->m_gain[CPAP_IE]=sig->gain;
// sess->m_valuesummary[CPAP_IE][valmed]=51;
// }
// if ((sig=stredf.lookupName("I:E 95"))) {
// val95=sig->data[dn];
// sess->m_valuesummary[CPAP_IE][val95]=45;
// }
// if ((sig=stredf.lookupName("I:E Max"))) {
// valmax=sig->data[dn];
// sess->setMax(CPAP_IE,valmax*sig->gain);
// sess->m_valuesummary[CPAP_IE][valmax]=4;
// }
// /////////////////////////////////////////////////////////////////////
// // Mask Pressure Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Mask Pres Med"))) {
// valmed=sig->data[dn];
// if (valmed >= 0) {
// sess->m_gain[CPAP_Pressure]=sig->gain;
// sess->m_valuesummary[CPAP_Pressure][valmed]=51;
// }
// }
// if ((sig=stredf.lookupName("Mask Pres 95"))) {
// val95=sig->data[dn];
// if (val95 >= 0) {
// sess->m_valuesummary[CPAP_Pressure][val95]=45;
// }
// }
// if ((sig=stredf.lookupName("Mask Pres Max"))) {
// valmax=sig->data[dn];
// if (valmax >= 0) {
// sess->setMax(CPAP_Pressure,valmax*sig->gain);
// sess->m_valuesummary[CPAP_Pressure][valmax]=4;
// }
// }
// /////////////////////////////////////////////////////////////////////
// // Therapy Pressure Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Therapy Pres Me"))) {
// valmed=sig->data[dn];
// if (valmed >= 0) {
// //sess->m_gain[CPAP_Pressure]=sig->gain;
// //sess->m_valuesummary[CPAP_Pressure][valmed]=51;
// }
// }
// if ((sig=stredf.lookupName("Therapy Pres 95"))) {
// val95=sig->data[dn];
// if (val95 >= 0) {
//// sess->m_valuesummary[CPAP_Pressure][val95]=45;
// }
// }
// if ((sig=stredf.lookupName("Therapy Pres Ma"))) {
// valmax=sig->data[dn];
// if (valmax >= 0) {
//// sess->setMax(CPAP_Pressure,valmax*sig->gain);
//// sess->m_valuesummary[CPAP_Pressure][valmax]=4;
// }
// }
// /////////////////////////////////////////////////////////////////////
// // Inspiratory Pressure (IPAP) Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Insp Pres Med"))) {
// valmed=sig->data[dn];
// sess->m_gain[CPAP_IPAP]=sig->gain;
// sess->m_valuesummary[CPAP_IPAP][valmed]=51;
// }
// if ((sig=stredf.lookupName("Insp Pres 95"))) {
// val95=sig->data[dn];
// sess->m_valuesummary[CPAP_IPAP][val95]=45;
// }
// if ((sig=stredf.lookupName("Insp Pres Max"))) {
// valmax=sig->data[dn];
// sess->setMax(CPAP_IPAP,valmax*sig->gain);
// sess->m_valuesummary[CPAP_IPAP][valmax]=4;
// }
// /////////////////////////////////////////////////////////////////////
// // Expiratory Pressure (EPAP) Summary
// /////////////////////////////////////////////////////////////////////
// if ((sig=stredf.lookupName("Exp Pres Med"))) {
// valmed=sig->data[dn];
// if (valmed>=0) {
// sess->m_gain[CPAP_EPAP]=sig->gain;
// sess->m_valuesummary[CPAP_EPAP][valmed]=51;
// }
// }
// if ((sig=stredf.lookupName("Exp Pres 95"))) {
// if (val95>=0) {
// val95=sig->data[dn];
// sess->m_valuesummary[CPAP_EPAP][val95]=45;
// }
// }
// if ((sig=stredf.lookupName("Exp Pres Max"))) {
// valmax=sig->data[dn];
// if (valmax>=0) {
// sess->setMax(CPAP_EPAP,valmax*sig->gain);
// sess->m_valuesummary[CPAP_EPAP][valmax]=4;
// }
// }
// /////////////////////////////////////////////////////////////////////
// // Duration and Event Indices
// /////////////////////////////////////////////////////////////////////
// dur=0;
// if ((sig=stredf.lookupName("Mask Dur"))) {
// dur=sig->data[dn]*sig->gain;
// dur/=60.0f; // convert to hours.
// }
// if ((sig=stredf.lookupName("OAI"))) { // Obstructive Apnea Index
// tmp=sig->data[dn]*sig->gain;
// if (tmp>=0) {
// sess->setCph(CPAP_Obstructive,tmp);
// sess->setCount(CPAP_Obstructive,tmp*dur); // Converting from indice to counts..
// }
// }
// if ((sig=stredf.lookupName("HI"))) { // Hypopnea Index
// tmp=sig->data[dn]*sig->gain;
// if (tmp>=0) {
// sess->setCph(CPAP_Hypopnea,tmp);
// sess->setCount(CPAP_Hypopnea,tmp*dur);
// }
// }
// if ((sig=stredf.lookupName("UAI"))) { // Unspecified Apnea Index
// tmp=sig->data[dn]*sig->gain;
// if (tmp>=0) {
// sess->setCph(CPAP_Apnea,tmp);
// sess->setCount(CPAP_Apnea,tmp*dur);
// }
// }
// if ((sig=stredf.lookupName("CAI"))) { // "Central" Apnea Index
// tmp=sig->data[dn]*sig->gain;
// if (tmp>=0) {
// sess->setCph(CPAP_ClearAirway,tmp);
// sess->setCount(CPAP_ClearAirway,tmp*dur);
// }
// }
// }
// }
backup_path += RMS9_STR_datalog + "/";
QString backupfile, backfile, crcfile, yearstr, bkuppath;
// Have to sacrifice these features to get access to summary data.
p_profile->session->setCombineCloseSessions(0);
p_profile->session->setDaySplitTime(QTime(12,0,0));
p_profile->session->setIgnoreShortSessions(false);
/////////////////////////////////////////////////////////////////////////////
// Scan through new file list and import sessions
/////////////////////////////////////////////////////////////////////////////
for (QMap<SessionID, QStringList>::iterator si = sessfiles.begin(); si != sessfiles.end(); si++) {
sessionid = si.key();
// Skip file if already imported
if (m->SessionExists(sessionid)) {
continue;
}
// Create the session
sess = new Session(m, sessionid);
QString oldbkfile;
// Process EDF File List
for (int i = 0; i < si.value().size(); ++i) {
fullname = si.value()[i];
filename = fullname.section("/", -1);
gz = (filename.right(3).toLower() == STR_ext_gz);
// yearstr=filename.left(4);
// bkuppath=backup_path;
// int year=yearstr.toInt(&ok,10);
// if (ok) {
// bkuppath+=yearstr+"/";
// dir.mkpath(bkuppath);
// }
// // Copy the EDF file to the backup folder
// if (create_backups) {
// oldbkfile=backup_path+filename;
// backupfile=bkuppath+filename;
// bool dobackup=true;
// if (QFile::exists(oldbkfile+STR_ext_gz))
// QFile::remove(oldbkfile+STR_ext_gz);
// if (QFile::exists(oldbkfile))
// QFile::remove(oldbkfile);
// if (!gz && QFile::exists(backupfile+STR_ext_gz)) {
// dobackup=false; // gzipped edf.. assume it's already a backup
// } else if (QFile::exists(backupfile)) {
// if (gz) {
// // don't bother, it's already there and compressed.
// dobackup=false;
// } else {
// // non compressed file is there..
// if (compress_backups) {
// // remove old edf file, as we are writing a compressed one
// QFile::remove(backupfile);
// } else { // don't bother copying it.
// dobackup=false;
// }
// }
// }
// if (dobackup) {
// if (!gz) {
// compress_backups ?
// compressFile(fullname, backupfile)
// :
// QFile::copy(fullname, backupfile);
// } else {
// // already compressed, just copy it.
// QFile::copy(fullname, backupfile);
// }
// }
// if (!gz) {
// backfile=filename.replace(".edf",".crc",Qt::CaseInsensitive);
// } else {
// backfile=filename.replace(".edf.gz",".crc",Qt::CaseInsensitive);
// }
// backupfile=bkuppath+backfile;
// crcfile=newpath+backfile;
// QFile::copy(crcfile, backupfile);
// }
EDFParser edf(fullname);
// Parse the actual file
if (!edf.Parse()) {
continue;
}
// Give a warning if doesn't match the machine serial number in Identification.tgt
if (edf.serialnumber != serial) {
qDebug() << "edf Serial number doesn't match Identification.tgt";
}
fn = filename.section("_", -1).section(".", 0, 0).toLower();
if (fn == "eve") { LoadEVE(sess, edf); }
else if (fn == "pld") { LoadPLD(sess, edf); }
else if (fn == "brp") { LoadBRP(sess, edf); }
else if (fn == "sad") { LoadSAD(sess, edf); }
}
if ((++cnt % 10) == 0) {
// TODO: Change me to emit once MachineLoader is QObjectified...
if (qprogress) { qprogress->setValue(10.0 + (float(cnt) / float(size) * 90.0)); }
QApplication::processEvents();
}
int mode = 0;
EventDataType prset = 0, prmode = 0;
qint64 dif;
int dn;
if (!sess) { continue; }
if (!sess->first()) {
delete sess;
continue;
} else {
sess->SetChanged(true);
dif = sess->first() - stredf.startdate;
dn = dif / 86400000L;
if ((dn >= 0) && (dn < days)) {
sig = stredf.lookupSignal(CPAP_Mode);
if (sig) {
mode = sig->data[dn];
} else { mode = 0; }
// Ramp, Fulltime
// AutoSV machines don't have both fields
sig = stredf.lookupSignal(RMS9_EPR);
if (sig) {
sess->settings[CPAP_PresReliefType] = PR_EPR;
prmode = EventDataType(sig->data[dn]) * sig->gain;
// Off,
if (prmode < 0) {
// Kaart's data has -1 here.. Not sure what it means.
prmode = 0;
} else if (prmode > sig->physical_maximum) {
prmode = sig->physical_maximum;
}
// My VPAP (using EasyBreathe) and JM's Elite (using none) have 0
sess->settings[CPAP_PresReliefMode] = prmode;
}
sig = stredf.lookupSignal(RMS9_EPRSet);
if (sig) {
prset = EventDataType(sig->data[dn]) * sig->gain;
if (prset > sig->physical_maximum) {
prset = sig->physical_maximum;
} else if (prset < sig->physical_minimum) {
prset = sig->physical_minimum;
}
sess->settings[CPAP_PresReliefSet] = prset;
}
if (mode == 0) {
sess->settings[CPAP_Mode] = MODE_CPAP;
sig = stredf.lookupSignal(RMS9_SetPressure); // ?? What's meant by Set Pressure?
if (sig) {
EventDataType pressure = sig->data[dn] * sig->gain;
sess->settings[CPAP_Pressure] = pressure;
}
} else if (mode > 5) {
if (mode >= 7) {
sess->settings[CPAP_Mode] =
MODE_ASV; // interestingly, last digit of model number matches these when in full mode.
} else {
sess->settings[CPAP_Mode] = MODE_BIPAP;
}
// All S9 machines have Set Pressure
// Elite has Min Pressure and Max Pressure
// VPAP Auto has EPAP, Min EPAP, IPAP and Max IPAP, and PS
// VPAP Adapt 36007 has just EPAP and PSLo/Hi,
// VPAP Adapt 36037 has EPAPLo, EPAPHi and PSLo/Hi
QHash<ChannelID, QString> hash;
hash[CPAP_EPAP] = "EPAP";
hash[CPAP_IPAP] = "IPAP";
hash[CPAP_EPAPLo] = "Min EPAP";
hash[CPAP_EPAPHi] = "Max EPAP";
hash[CPAP_IPAPLo] = "Min IPAP";
hash[CPAP_IPAPHi] = "Max IPAP";
hash[CPAP_PS] = "PS";
hash[CPAP_PSMin] = "Min PS";
hash[CPAP_PSMax] = "Max PS";
hash[CPAP_RespRate] = "RR"; // Is this a setting to force respiratory rate on S/T machines? or an average
hash[CPAP_PresReliefSet] = "Easy-Breathe";
for (QHash<ChannelID, QString>::iterator it = hash.begin(); it != hash.end(); ++it) {
QHash<QString, EDFSignal *>::iterator a = stredf.lookup.find(it.value());
if (a != stredf.lookup.end()) {
sig = a.value();
sess->settings[it.key()] = EventDataType(sig->data[dn] * sig->gain);
if (it.key() == CPAP_PresReliefSet) {
// this is not a setting on any machine I've played with, I think it's just an indication of the type of motor
sess->settings[CPAP_PresReliefType] = (int)PR_EASYBREATHE;
sess->settings[CPAP_PresReliefMode] = (int)PM_FullTime;
}
}
}
} else {
sess->settings[CPAP_Mode] = MODE_APAP;
sig = stredf.lookupSignal(CPAP_PressureMin);
if (sig) {
EventDataType pressure = sig->data[dn] * sig->gain;
sess->settings[CPAP_PressureMin] = pressure;
//sess->setMin(CPAP_Pressure,pressure);
}
sig = stredf.lookupSignal(CPAP_PressureMax);
if (sig) {
EventDataType pressure = sig->data[dn] * sig->gain;
sess->settings[CPAP_PressureMax] = pressure;
//sess->setMax(CPAP_Pressure,pressure);
}
}
}
// The following only happens when the STR.edf file is not up to date..
// This will only happen when the user fails to back up their SDcard properly.
// Basically takes a guess.
// bool dodgy=false;
// if (!sess->settings.contains(CPAP_Mode)) {
// //The following is a lame assumption if 50th percentile == max, then it's CPAP
// EventDataType max=sess->Max(CPAP_Pressure);
// EventDataType p50=sess->percentile(CPAP_Pressure,0.60);
// EventDataType p502=sess->percentile(CPAP_MaskPressure,0.60);
// p50=qMax(p50, p502);
// if (max==0) {
// dodgy=true;
// } else if (qAbs(max-p50)<1.8) {
// max=round(max*10.0)/10.0;
// sess->settings[CPAP_Mode]=MODE_CPAP;
// if (max<1) {
// int i=5;
// }
// sess->settings[CPAP_PressureMin]=max;
// EventDataType epr=round(sess->Max(CPAP_EPAP)*10.0)/10.0;
// int i=max-epr;
// sess->settings[CPAP_PresReliefType]=PR_EPR;
// prmode=(i>0) ? 0 : 1;
// sess->settings[CPAP_PresReliefMode]=prmode;
// sess->settings[CPAP_PresReliefSet]=i;
// } else {
// // It's not cpap, so just take the highest setting for this machines history.
// // This may fail if the missing str data is at the beginning of a fresh import.
// CPAPMode mode=(CPAPMode)(int)PROFILE.calcSettingsMax(CPAP_Mode,MT_CPAP,sess->machine()->FirstDay(),sess->machine()->LastDay());
// if (mode<MODE_APAP) mode=MODE_APAP;
// sess->settings[CPAP_Mode]=mode;
// // Assuming 10th percentile should cover for ramp/warmup
// sess->settings[CPAP_PressureMin]=sess->percentile(CPAP_Pressure,0.10);
// sess->settings[CPAP_PressureMax]=sess->Max(CPAP_Pressure);
// }
// }
//Rather than take a dodgy guess, EPR settings can take a hit, and this data can simply be missed..
// Add the session to the machine & profile objects
//if (!dodgy)
if (sess->length() > 0) {
m->AddSession(sess, profile);
} else {
// Hmm.. this means a ton of these could slow down import.
// I could instead set these to disabled by default, or implement a dodgy session marker
delete sess;
}
}
}
/////////////////////////////////////////////////////////////////////////////////
// Process STR.edf now all valid Session data is imported
/////////////////////////////////////////////////////////////////////////////////
/*
qint64 tt=stredf.startdate;
QDateTime dt=QDateTime::fromMSecsSinceEpoch(tt);
QDateTime mt;
QDate d;
EDFSignal *maskon=stredf.lookup["Mask On"];
EDFSignal *maskoff=stredf.lookup["Mask Off"];
int nr1=maskon->nr;
int nr2=maskoff->nr;
qint64 mon, moff;
int mode;
EventDataType prset, prmode;
SessionID sid;
for (int dn=0; dn < days; dn++, tt+=86400000L) {
dt=QDateTime::fromMSecsSinceEpoch(tt);
d=dt.date();
Day * day=PROFILE.GetDay(d, MT_CPAP);
if (day) {
continue;
}
QString a;
// Todo: check session start times.
// mask time is in minutes per day, assuming starting from 12 noon
// Also to think about: users who are too lazy to set their clocks, or who have flat clock batteries.
int nr=maskon->nr;
int j=dn * nr;
qint16 m_on=-1, m_off=-1, m_off2=0;
for (int i=0;i<10;i++) {
m_on=maskon->data[j+i];
if ((i>0) && (m_on >=0) && (m_on < m_off)) {
qDebug() << "Mask on before previous off";
}
m_off=maskoff->data[j+i];
m_off2=m_off;
if ((m_on >= 0) && (m_off < 0)) {
// valid session.. but machine turned off the next day
// look ahead and pinch the end time from tomorrows record
if ((dn+1) > days) {
qDebug() << "Last record should have contained a mask off event :(";
continue;
}
m_off=maskoff->data[j + nr];
if (maskon->data[j + nr] < 0) {
qDebug() << dn << "Looking ahead maskon should be < 0";
continue;
}
if (m_off < 0) {
qDebug() << dn << "Looking ahead maskoff should be > 0";
continue;
}
// It's in the next day, so add one day in minutes..
m_off+=1440;
// Valid
} else if ((m_off >= 0) && (m_on < 0)) {
if (i>0) {
qDebug() << "WTH!??? Mask off but no on";
}
// first record of day.. might already be on (crossing noon)
// Safely ignore because they are picked up on the other day.
continue;
} else if ((m_off < 0) && (m_on < 0))
continue;
mon=tt + m_on * 60000L;
moff=tt + m_off * 60000L;
sid=mon/1000L;
QDateTime on=QDateTime::fromMSecsSinceEpoch(mon);
QDateTime off=QDateTime::fromMSecsSinceEpoch(moff);
sess=new Session(m,sid);
sess->set_first(mon);
sess->set_last(moff);
sig=stredf.lookupSignal(CPAP_Mode);
if (sig) {
mode=sig->data[dn];
} else mode=0;
sess->settings[CPAP_PresReliefType]=PR_EPR;
// AutoSV machines don't have both fields
sig=stredf.lookupSignal(RMS9_EPR);
if (sig) {
prmode=EventDataType(sig->data[dn])*sig->gain;
if (prmode>sig->physical_maximum) {
int i=5;
}
sess->settings[CPAP_PresReliefMode]=prmode;
}
sig=stredf.lookupSignal(RMS9_EPRSet);
if (sig) {
prset=EventDataType(sig->data[dn])*sig->gain;
if (prset>sig->physical_maximum) {
int i=5;
}
sess->settings[CPAP_PresReliefSet]=prset;
}
if (mode==0) {
sess->settings[CPAP_Mode]=MODE_CPAP;
sig=stredf.lookupSignal(RMS9_SetPressure); // ?? What's meant by Set Pressure?
if (sig) {
EventDataType pressure=sig->data[dn]*sig->gain;
sess->settings[CPAP_Pressure]=pressure;
}
} else if (mode>5) {
if (mode>=7)
sess->settings[CPAP_Mode]=MODE_ASV;
else
sess->settings[CPAP_Mode]=MODE_BIPAP;
EventDataType tmp,epap=0,ipap=0;
if (stredf.lookup.contains("EPAP")) {
sig=stredf.lookup["EPAP"];
epap=sig->data[dn]*sig->gain;
sess->settings[CPAP_EPAP]=epap;
}
if (stredf.lookup.contains("IPAP")) {
sig=stredf.lookup["IPAP"];
ipap=sig->data[dn]*sig->gain;
sess->settings[CPAP_IPAP]=ipap;
}
if (stredf.lookup.contains("PS")) {
sig=stredf.lookup["PS"];
tmp=sig->data[dn]*sig->gain;
sess->settings[CPAP_PS]=tmp; // technically this is IPAP-EPAP
if (!ipap) {
// not really possible. but anyway, just in case..
sess->settings[CPAP_IPAP]=epap+tmp;
}
}
if (stredf.lookup.contains("Min PS")) {
sig=stredf.lookup["Min PS"];
tmp=sig->data[dn]*sig->gain;
sess->settings[CPAP_PSMin]=tmp;
sess->settings[CPAP_IPAPLo]=epap+tmp;
sess->setMin(CPAP_IPAP,epap+tmp);
}
if (stredf.lookup.contains("Max PS")) {
sig=stredf.lookup["Max PS"];
tmp=sig->data[dn]*sig->gain;
sess->settings[CPAP_PSMax]=tmp;
sess->settings[CPAP_IPAPHi]=epap+tmp;
}
if (stredf.lookup.contains("RR")) { // Is this a setting to force respiratory rate on S/T machines?
sig=stredf.lookup["RR"];
tmp=sig->data[dn];
sess->settings[CPAP_RespRate]=tmp*sig->gain;
}
if (stredf.lookup.contains("Easy-Breathe")) {
sig=stredf.lookup["Easy-Breathe"];
tmp=sig->data[dn]*sig->gain;
sess->settings[CPAP_PresReliefSet]=tmp;
sess->settings[CPAP_PresReliefType]=(int)PR_EASYBREATHE;
sess->settings[CPAP_PresReliefMode]=(int)PM_FullTime;
}
} else {
sess->settings[CPAP_Mode]=MODE_APAP;
sig=stredf.lookupSignal(CPAP_PressureMin);
if (sig) {
EventDataType pressure=sig->data[dn]*sig->gain;
sess->settings[CPAP_PressureMin]=pressure;
//sess->setMin(CPAP_Pressure,pressure);
}
sig=stredf.lookupSignal(CPAP_PressureMax);
if (sig) {
EventDataType pressure=sig->data[dn]*sig->gain;
sess->settings[CPAP_PressureMax]=pressure;
//sess->setMax(CPAP_Pressure,pressure);
}
}
m->AddSession(sess,profile);
a=QString("[%3] %1:%2, ").arg(on.toString()).arg(off.toString()).arg(sid);
qDebug() << a.toStdString().data();
}
}
*/
#ifdef DEBUG_EFFICIENCY
{
qint64 totalbytes = 0;
qint64 totalns = 0;
qDebug() << "Time Delta Efficiency Information";
for (QHash<ChannelID, qint64>::iterator it = channel_efficiency.begin();
it != channel_efficiency.end(); it++) {
ChannelID code = it.key();
qint64 value = it.value();
qint64 ns = channel_time[code];
totalbytes += value;
totalns += ns;
double secs = double(ns) / 1000000000.0L;
QString s = value < 0 ? "saved" : "cost";
qDebug() << "Time-Delta conversion for " + schema::channel[code].label() + " " + s + " " +
QString::number(qAbs(value)) + " bytes and took " + QString::number(secs, 'f', 4) + "s";
}
qDebug() << "Total toTimeDelta function usage:" << totalbytes << "in" << double(
totalns) / 1000000000.0 << "seconds";
}
#endif
if (m) {
m->Save();
}
if (qprogress) { qprogress->setValue(100); }
qDebug() << "Total Events " << event_cnt;
return 1;
}
QString ResmedLoader::backup(QString fullname, QString backup_path, bool compress)
{
QString filename, yearstr, newname, oldname;
bool ok, gz = (fullname.right(3).toLower() == STR_ext_gz);
filename = fullname.section("/", -1);
if (gz) {
filename.chop(3);
}
yearstr = filename.left(4);
yearstr.toInt(&ok, 10);
if (!ok) {
qDebug() << "Invalid EDF filename given to ResMedLoader::backup()";
return "";
}
newname = backup_path + RMS9_STR_datalog + "/" + yearstr;
QDir dir;
dir.mkpath(newname);
newname += "/" + filename;
QString tmpname = newname;
if (compress) {
newname += STR_ext_gz;
}
// First make sure the correct backup exists.
if (!QFile::exists(newname)) {
if (compress) {
gz ?
QFile::copy(fullname, newname) // Already compressed.. copy it to the right location
:
compressFile(fullname, newname);
} else {
// dont really care if it's compressed and not meant to be, leave it that way
QFile::copy(fullname, newname);
}
} // else backup already exists...
// Now the correct backup is in place, we can trash any
if (compress) {
// Remove any uncompressed duplicate
if (QFile::exists(tmpname)) {
QFile::remove(tmpname);
}
} else {
// Delete the non compressed copy and choose it instead.
if (QFile::exists(tmpname + STR_ext_gz)) {
QFile::remove(tmpname);
newname = tmpname + STR_ext_gz;
}
}
// Remove any traces from old backup directory structure
oldname = backup_path + RMS9_STR_datalog + "/" + filename;
if (QFile::exists(oldname)) {
QFile::remove(oldname);
}
if (QFile::exists(oldname + STR_ext_gz)) {
QFile::remove(oldname + STR_ext_gz);
}
return newname;
}
bool ResmedLoader::LoadEVE(Session *sess, EDFParser &edf)
{
QString t;
long recs;
double duration;
char *data;
char c;
long pos;
bool sign, ok;
double d;
double tt;
// Notes: Event records have useless duration record.
sess->updateFirst(edf.startdate);
EventList *OA = nullptr, *HY = nullptr, *CA = nullptr, *UA = nullptr;
// Allow for empty sessions..
// Create EventLists
OA = sess->AddEventList(CPAP_Obstructive, EVL_Event);
HY = sess->AddEventList(CPAP_Hypopnea, EVL_Event);
UA = sess->AddEventList(CPAP_Apnea, EVL_Event);
// Process event annotation records
for (int s = 0; s < edf.GetNumSignals(); s++) {
recs = edf.edfsignals[s].nr * edf.GetNumDataRecords() * 2;
data = (char *)edf.edfsignals[s].data;
pos = 0;
tt = edf.startdate;
sess->updateFirst(tt);
duration = 0;
while (pos < recs) {
c = data[pos];
if ((c != '+') && (c != '-')) {
break;
}
if (data[pos++] == '+') { sign = true; }
else { sign = false; }
t = "";
c = data[pos];
do {
t += c;
pos++;
c = data[pos];
} while ((c != 20) && (c != 21)); // start code
d = t.toDouble(&ok);
if (!ok) {
qDebug() << "Faulty EDF EVE file " << edf.filename;
break;
}
if (!sign) { d = -d; }
tt = edf.startdate + qint64(d * 1000.0);
duration = 0;
// First entry
if (data[pos] == 21) {
pos++;
// get duration.
t = "";
do {
t += data[pos];
pos++;
} while ((data[pos] != 20) && (pos < recs)); // start code
duration = t.toDouble(&ok);
if (!ok) {
qDebug() << "Faulty EDF EVE file (at %" << pos << ") " << edf.filename;
break;
}
}
while ((data[pos] == 20) && (pos < recs)) {
t = "";
pos++;
if (data[pos] == 0) {
break;
}
if (data[pos] == 20) {
pos++;
break;
}
do {
t += tolower(data[pos++]);
} while ((data[pos] != 20) && (pos < recs)); // start code
if (!t.isEmpty()) {
if (matchSignal(CPAP_Obstructive, t)) {
OA->AddEvent(tt, duration);
} else if (matchSignal(CPAP_Hypopnea, t)) {
HY->AddEvent(tt, duration + 10); // Only Hyponea's Need the extra duration???
} else if (matchSignal(CPAP_Apnea, t)) {
UA->AddEvent(tt, duration);
} else if (matchSignal(CPAP_ClearAirway, t)) {
// Not all machines have it, so only create it when necessary..
if (!CA) {
if (!(CA = sess->AddEventList(CPAP_ClearAirway, EVL_Event))) { return false; }
}
CA->AddEvent(tt, duration);
} else {
if (t != "recording starts") {
qDebug() << "Unobserved ResMed annotation field: " << t;
}
}
}
if (pos >= recs) {
qDebug() << "Short EDF EVE file" << edf.filename;
break;
}
// pos++;
}
while ((data[pos] == 0) && (pos < recs)) { pos++; }
if (pos >= recs) { break; }
}
sess->updateLast(tt);
}
return true;
}
bool ResmedLoader::LoadBRP(Session *sess, EDFParser &edf)
{
sess->updateFirst(edf.startdate);
qint64 duration = edf.GetNumDataRecords() * edf.GetDuration();
sess->updateLast(edf.startdate + duration);
for (int s = 0; s < edf.GetNumSignals(); s++) {
EDFSignal &es = edf.edfsignals[s];
long recs = es.nr * edf.GetNumDataRecords();
ChannelID code;
if (matchSignal(CPAP_FlowRate, es.label)) {
code = CPAP_FlowRate;
es.gain *= 60.0;
es.physical_minimum *= 60.0;
es.physical_maximum *= 60.0;
es.physical_dimension = "L/M";
} else if (matchSignal(CPAP_MaskPressureHi, es.label)) {
code = CPAP_MaskPressureHi;
} else if (matchSignal(CPAP_RespEvent, es.label)) {
code = CPAP_RespEvent;
} else {
qDebug() << "Unobserved ResMed BRP Signal " << es.label;
continue;
}
if (code) {
double rate = double(duration) / double(recs);
EventList *a = sess->AddEventList(code, EVL_Waveform, es.gain, es.offset, 0, 0, rate);
a->setDimension(es.physical_dimension);
a->AddWaveform(edf.startdate, es.data, recs, duration);
sess->setMin(code, a->Min());
sess->setMax(code, a->Max());
sess->setPhysMin(code, es.physical_minimum);
sess->setPhysMax(code, es.physical_maximum);
}
}
return true;
}
// Convert EDFSignal data to sleepyheads Time-Delta Event format
void ResmedLoader::ToTimeDelta(Session *sess, EDFParser &edf, EDFSignal &es, ChannelID code,
long recs, qint64 duration, EventDataType t_min, EventDataType t_max, bool square)
{
if (t_min == t_max) {
t_min = es.physical_minimum;
t_max = es.physical_maximum;
}
#ifdef DEBUG_EFFICIENCY
QElapsedTimer time;
time.start();
#endif
double rate = (duration / recs); // milliseconds per record
double tt = edf.startdate;
EventStoreType c, last;
int startpos = 0;
if ((code == CPAP_Pressure) || (code == CPAP_IPAP) || (code == CPAP_EPAP)) {
startpos = 20; // Shave the first 20 seconds of pressure data
tt += rate * startpos;
}
qint16 *sptr = es.data;
qint16 *eptr = sptr + recs;
sptr += startpos;
EventDataType min = t_max, max = t_min, tmp;
EventList *el = nullptr;
if (recs > startpos + 1) {
// Prime last with a good starting value
do {
last = *sptr++;
tmp = EventDataType(last) * es.gain;
if ((tmp >= t_min) && (tmp <= t_max)) {
min = tmp;
max = tmp;
el = sess->AddEventList(code, EVL_Event, es.gain, es.offset, 0, 0);
el->AddEvent(tt, last);
tt += rate;
break;
}
tt += rate;
} while (sptr < eptr);
if (!el) {
return;
}
for (; sptr < eptr; sptr++) {
c = *sptr;
if (last != c) {
if (square) {
tmp = EventDataType(last) * es.gain;
if ((tmp >= t_min) && (tmp <= t_max)) {
if (tmp < min) {
min = tmp;
}
if (tmp > max) {
max = tmp;
}
el->AddEvent(tt, last);
} else {
// Out of bounds value, start a new eventlist
if (el->count() > 1) {
// that should be in session, not the eventlist.. handy for debugging though
el->setDimension(es.physical_dimension);
el = sess->AddEventList(code, EVL_Event, es.gain, es.offset, 0, 0);
} else {
el->clear(); // reuse the object
}
}
}
tmp = EventDataType(c) * es.gain;
if ((tmp >= t_min) && (tmp <= t_max)) {
if (tmp < min) {
min = tmp;
}
if (tmp > max) {
max = tmp;
}
el->AddEvent(tt, c);
} else {
if (el->count() > 1) {
el->setDimension(es.physical_dimension);
// Create and attach new EventList
el = sess->AddEventList(code, EVL_Event, es.gain, es.offset, 0, 0);
} else { el->clear(); }
}
}
tt += rate;
last = c;
}
tmp = EventDataType(c) * es.gain;
if ((tmp >= t_min) && (tmp <= t_max)) {
el->AddEvent(tt, c);
}
sess->setMin(code, min);
sess->setMax(code, max);
sess->setPhysMin(code, es.physical_minimum);
sess->setPhysMax(code, es.physical_maximum);
sess->updateLast(tt);
}
#ifdef DEBUG_EFFICIENCY
qint64 t = time.nsecsElapsed();
int cnt = el->count();
int bytes = cnt * (sizeof(EventStoreType) + sizeof(quint32));
int wvbytes = recs * (sizeof(EventStoreType));
QHash<ChannelID, qint64>::iterator it = channel_efficiency.find(code);
if (it == channel_efficiency.end()) {
channel_efficiency[code] = wvbytes - bytes;
channel_time[code] = t;
} else {
it.value() += wvbytes - bytes;
channel_time[code] += t;
}
#endif
}
// Load SAD Oximetry Signals
bool ResmedLoader::LoadSAD(Session *sess, EDFParser &edf)
{
sess->updateFirst(edf.startdate);
qint64 duration = edf.GetNumDataRecords() * edf.GetDuration();
sess->updateLast(edf.startdate + duration);
for (int s = 0; s < edf.GetNumSignals(); s++) {
EDFSignal &es = edf.edfsignals[s];
//qDebug() << "SAD:" << es.label << es.digital_maximum << es.digital_minimum << es.physical_maximum << es.physical_minimum;
long recs = es.nr * edf.GetNumDataRecords();
ChannelID code;
bool hasdata = false;
for (int i = 0; i < recs; ++i) {
if (es.data[i] != -1) {
hasdata = true;
break;
}
}
if (!hasdata) continue;
if (matchSignal(OXI_Pulse, es.label)) {
code = OXI_Pulse;
ToTimeDelta(sess, edf, es, code, recs, duration);
sess->setPhysMax(code, 180);
sess->setPhysMin(code, 18);
} else if (matchSignal(OXI_SPO2, es.label)) {
code = OXI_SPO2;
es.physical_minimum = 60;
ToTimeDelta(sess, edf, es, code, recs, duration);
sess->setPhysMax(code, 100);
sess->setPhysMin(code, 60);
} else {
qDebug() << "Unobserved ResMed SAD Signal " << es.label;
}
}
return true;
}
bool ResmedLoader::LoadPLD(Session *sess, EDFParser &edf)
{
// Is it save to assume the order does not change here?
enum PLDType { MaskPres = 0, TherapyPres, ExpPress, Leak, RR, Vt, Mv, SnoreIndex, FFLIndex, U1, U2 };
qint64 duration = edf.GetNumDataRecords() * edf.GetDuration();
sess->updateFirst(edf.startdate);
sess->updateLast(edf.startdate + duration);
QString t;
int emptycnt = 0;
EventList *a = nullptr;
double rate;
long recs;
ChannelID code;
for (int s = 0; s < edf.GetNumSignals(); s++) {
a = nullptr;
EDFSignal &es = edf.edfsignals[s];
recs = es.nr * edf.GetNumDataRecords();
if (recs <= 0) { continue; }
rate = double(duration) / double(recs);
//qDebug() << "EVE:" << es.digital_maximum << es.digital_minimum << es.physical_maximum << es.physical_minimum << es.gain;
if (matchSignal(CPAP_Snore, es.label)) {
code = CPAP_Snore;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_Pressure, es.label)) {
code = CPAP_Pressure;
es.physical_maximum = 25;
es.physical_minimum = 4;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_IPAP, es.label)) {
code = CPAP_IPAP;
sess->settings[CPAP_Mode] = MODE_BIPAP;
es.physical_maximum = 25;
es.physical_minimum = 4;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_MinuteVent,es.label)) {
code = CPAP_MinuteVent;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_RespRate, es.label)) {
code = CPAP_RespRate;
a = sess->AddEventList(code, EVL_Waveform, es.gain, es.offset, 0, 0, rate);
a->AddWaveform(edf.startdate, es.data, recs, duration);
} else if (matchSignal(CPAP_TidalVolume, es.label)) {
code = CPAP_TidalVolume;
es.gain *= 1000.0;
es.physical_maximum *= 1000.0;
es.physical_minimum *= 1000.0;
// es.digital_maximum*=1000.0;
// es.digital_minimum*=1000.0;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_Leak, es.label)) {
code = CPAP_Leak;
es.gain *= 60.0;
es.physical_maximum *= 60.0;
es.physical_minimum *= 60.0;
// es.digital_maximum*=60.0;
// es.digital_minimum*=60.0;
es.physical_dimension = "L/M";
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0, true);
sess->setPhysMax(code, 120.0);
sess->setPhysMin(code, 0);
} else if (matchSignal(CPAP_FLG, es.label)) {
code = CPAP_FLG;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_MaskPressure, es.label)) {
code = CPAP_MaskPressure;
es.physical_maximum = 25;
es.physical_minimum = 4;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_EPAP, es.label)) { // Expiratory Pressure
code = CPAP_EPAP;
es.physical_maximum = 25;
es.physical_minimum = 4;
ToTimeDelta(sess, edf, es, code, recs, duration, 0, 0);
} else if (matchSignal(CPAP_IE, es.label)) { //I:E ratio
code = CPAP_IE;
a = sess->AddEventList(code, EVL_Waveform, es.gain, es.offset, 0, 0, rate);
a->AddWaveform(edf.startdate, es.data, recs, duration);
//a=ToTimeDelta(sess,edf,es, code,recs,duration,0,0);
} else if (matchSignal(CPAP_Ti, es.label)) {
code = CPAP_Ti;
a = sess->AddEventList(code, EVL_Waveform, es.gain, es.offset, 0, 0, rate);
a->AddWaveform(edf.startdate, es.data, recs, duration);
//a=ToTimeDelta(sess,edf,es, code,recs,duration,0,0);
} else if (matchSignal(CPAP_Te, es.label)) {
code = CPAP_Te;
a = sess->AddEventList(code, EVL_Waveform, es.gain, es.offset, 0, 0, rate);
a->AddWaveform(edf.startdate, es.data, recs, duration);
//a=ToTimeDelta(sess,edf,es, code,recs,duration,0,0);
} else if (matchSignal(CPAP_TgMV, es.label)) {
code = CPAP_TgMV;
a = sess->AddEventList(code, EVL_Waveform, es.gain, es.offset, 0, 0, rate);
a->AddWaveform(edf.startdate, es.data, recs, duration);
//a=ToTimeDelta(sess,edf,es, code,recs,duration,0,0);
} else if (es.label == "") {
if (emptycnt == 0) {
code = RMS9_E01;
ToTimeDelta(sess, edf, es, code, recs, duration);
} else if (emptycnt == 1) {
code = RMS9_E02;
ToTimeDelta(sess, edf, es, code, recs, duration);
} else {
qDebug() << "Unobserved Empty Signal " << es.label;
}
emptycnt++;
} else {
qDebug() << "Unobserved ResMed PLD Signal " << es.label;
a = nullptr;
}
if (a) {
sess->setMin(code, a->Min());
sess->setMax(code, a->Max());
sess->setPhysMin(code, es.physical_minimum);
sess->setPhysMax(code, es.physical_maximum);
a->setDimension(es.physical_dimension);
}
}
return true;
}
void ResInitModelMap()
{
// don't really need this anymore
// Resmed_Model_Map = {
// { "S9 Escape", { 36001, 36011, 36021, 36141, 36201, 36221, 36261, 36301, 36361 } },
// { "S9 Escape Auto", { 36002, 36012, 36022, 36302, 36362 } },
// { "S9 Elite", { 36003, 36013, 36023, 36103, 36113, 36123, 36143, 36203, 36223, 36243, 36263, 36303, 36343, 36363 } },
// { "S9 Autoset", { 36005, 36015, 36025, 36105, 36115, 36125, 36145, 36205, 36225, 36245, 36265, 36305, 36325, 36345, 36365 } },
// { "S9 AutoSet CS", { 36100, 36110, 36120, 36140, 36200, 36220, 36360 } },
// { "S9 AutoSet 25", { 36106, 36116, 36126, 36146, 36206, 36226, 36366 } },
// { "S9 AutoSet for Her", { 36065 } },
// { "S9 VPAP S", { 36004, 36014, 36024, 36114, 36124, 36144, 36204, 36224, 36284, 36304 } },
// { "S9 VPAP Auto", { 36006, 36016, 36026 } },
// { "S9 VPAP Adapt", { 36037, 36007, 36017, 36027, 36367 } },
// { "S9 VPAP ST", { 36008, 36018, 36028, 36108, 36148, 36208, 36228, 36368 } },
// { "S9 VPAP ST 22", { 36118, 36128 } },
// { "S9 VPAP ST-A", { 36039, 36159, 36169, 36379 } },
// //S8 Series
// { "S8 Escape", { 33007 } },
// { "S8 Elite II", { 33039 } },
// { "S8 Escape II", { 33051 } },
// { "S8 Escape II AutoSet", { 33064 } },
// { "S8 AutoSet II", { 33129 } },
// };
////////////////////////////////////////////////////////////////////////////
// Translation lookup table for non-english machines
////////////////////////////////////////////////////////////////////////////
// Only put the first part, enough to be identifiable, because ResMed likes
// to signal names crop short
// Read this from a table?
resmed_codes[CPAP_FlowRate].push_back("Flow");
resmed_codes[CPAP_MaskPressureHi].push_back("Mask Pres");
resmed_codes[CPAP_MaskPressure].push_back("Mask Pres");
resmed_codes[CPAP_RespEvent].push_back("Resp Event");
resmed_codes[CPAP_Pressure].push_back("Therapy Pres");
resmed_codes[CPAP_IPAP].push_back("Insp Pres");
resmed_codes[CPAP_EPAP].push_back("Exp Pres");
resmed_codes[CPAP_Leak].push_back("Leak");
resmed_codes[CPAP_Leak].push_back("Leck");
resmed_codes[CPAP_Leak].push_back("Lekk");
resmed_codes[CPAP_Leak].push_back("Läck");
resmed_codes[CPAP_Leak].push_back("Läck");
resmed_codes[CPAP_RespRate].push_back("RR");
resmed_codes[CPAP_RespRate].push_back("AF");
resmed_codes[CPAP_RespRate].push_back("FR");
resmed_codes[CPAP_MinuteVent].push_back("MV");
resmed_codes[CPAP_MinuteVent].push_back("VM");
resmed_codes[CPAP_TidalVolume].push_back("Vt");
resmed_codes[CPAP_TidalVolume].push_back("VC");
resmed_codes[CPAP_IE].push_back("I:E");
resmed_codes[CPAP_Snore].push_back("Snore");
resmed_codes[CPAP_FLG].push_back("FFL Index");
resmed_codes[CPAP_Ti].push_back("Ti");
resmed_codes[CPAP_Te].push_back("Te");
resmed_codes[CPAP_TgMV].push_back("TgMV");
resmed_codes[OXI_Pulse].push_back("Pulse");
resmed_codes[OXI_Pulse].push_back("Puls");
resmed_codes[OXI_Pulse].push_back("Pols");
resmed_codes[OXI_SPO2].push_back("SpO2");
resmed_codes[CPAP_Obstructive].push_back("Obstructive apnea");
resmed_codes[CPAP_Hypopnea].push_back("Hypopnea");
resmed_codes[CPAP_Apnea].push_back("Apnea");
resmed_codes[CPAP_ClearAirway].push_back("Central apnea");
resmed_codes[CPAP_Mode].push_back("Mode");
resmed_codes[CPAP_Mode].push_back("Modus");
resmed_codes[CPAP_Mode].push_back("Funktion");
resmed_codes[RMS9_SetPressure].push_back("SetPressure");
resmed_codes[RMS9_SetPressure].push_back("Eingest. Druck");
resmed_codes[RMS9_SetPressure].push_back("Ingestelde druk");
resmed_codes[RMS9_SetPressure].push_back("Pres. prescrite");
resmed_codes[RMS9_SetPressure].push_back("Inställt tryck");
resmed_codes[RMS9_SetPressure].push_back("Inställt tryck");
resmed_codes[RMS9_EPR].push_back("EPR");
resmed_codes[RMS9_EPRSet].push_back("EPR Level");
resmed_codes[RMS9_EPRSet].push_back("EPR-Stufe");
resmed_codes[RMS9_EPRSet].push_back("EPR-niveau");
resmed_codes[RMS9_EPRSet].push_back("Niveau EPR");
resmed_codes[RMS9_EPRSet].push_back("EPR-nivå");
resmed_codes[RMS9_EPRSet].push_back("EPR-nivå");
resmed_codes[CPAP_PressureMax].push_back("Max Pressure");
resmed_codes[CPAP_PressureMax].push_back("Max. Druck");
resmed_codes[CPAP_PressureMax].push_back("Max druk");
resmed_codes[CPAP_PressureMax].push_back("Pression max.");
resmed_codes[CPAP_PressureMax].push_back("Max tryck");
resmed_codes[CPAP_PressureMin].push_back("Min Pressure");
resmed_codes[CPAP_PressureMin].push_back("Min. Druck");
resmed_codes[CPAP_PressureMin].push_back("Min druk");
resmed_codes[CPAP_PressureMin].push_back("Pression min.");
resmed_codes[CPAP_PressureMin].push_back("Min tryck");
}
bool resmed_initialized = false;
void ResmedLoader::Register()
{
if (resmed_initialized) { return; }
qDebug() << "Registering ResmedLoader";
RegisterLoader(new ResmedLoader());
ResInitModelMap();
resmed_initialized = true;
}
////////////////////////////////////////////////////////////////////////////////////////////////
// Model number information
// 36003, 36013, 36023, 36103, 36113, 36123, 36143, 36203,
// 36223, 36243, 36263, 36303, 36343, 36363 S9 Elite Series
// 36005, 36015, 36025, 36105, 36115, 36125, 36145, 36205,
// 36225, 36245, 36265, 36305, 36325, 36345, 36365 S9 AutoSet Series
// 36065 S9 AutoSet for Her
// 36001, 36011, 36021, 36141, 36201, 36221, 36261, 36301,
// 36361 S9 Escape
// 36002, 36012, 36022, 36302, 36362 S9 Escape Auto
// 36004, 36014, 36024, 36114, 36124, 36144, 36204, 36224,
// 36284, 36304 S9 VPAP S (+ H5i, + Climate Control)
// 36006, 36016, 36026 S9 VPAP AUTO (+ H5i, + Climate Control)
// 36007, 36017, 36027, 36367
// S9 VPAP ADAPT (+ H5i, + Climate
// Control)
// 36008, 36018, 36028, 36108, 36148, 36208, 36228, 36368 S9 VPAP ST (+ H5i, + Climate Control)
// 36100, 36110, 36120, 36140, 36200, 36220, 36360 S9 AUTOSET CS
// 36106, 36116, 36126, 36146, 36206, 36226, 36366 S9 AUTOSET 25
// 36118, 36128 S9 VPAP ST 22
// 36039, 36159, 36169, 36379 S9 VPAP ST-A
// 24921, 24923, 24925, 24926, 24927 ResMed Power Station II (RPSII)
// 33030 S8 Compact
// 33001, 33007, 33013, 33036, 33060 S8 Escape
// 33032 S8 Lightweight
// 33033 S8 AutoScore
// 33048, 33051, 33052, 33053, 33054, 33061 S8 Escape II
// 33055 S8 Lightweight II
// 33021 S8 Elite
// 33039, 33045, 33062, 33072, 33073, 33074, 33075 S8 Elite II
// 33044 S8 AutoScore II
// 33105, 33112, 33126 S8 AutoSet (including Spirit & Vantage)
// 33128, 33137 S8 Respond
// 33129, 33141, 33150 S8 AutoSet II
// 33136, 33143, 33144, 33145, 33146, 33147, 33148 S8 AutoSet Spirit II
// 33138 S8 AutoSet C
// 26101, 26121 VPAP Auto 25
// 26119, 26120 VPAP S
// 26110, 26122 VPAP ST
// 26104, 26105, 26125, 26126 S8 Auto 25
// 26102, 26103, 26106, 26107, 26108, 26109, 26123, 26127 VPAP IV
// 26112, 26113, 26114, 26115, 26116, 26117, 26118, 26124 VPAP IV ST