Files
GoldenCheetah/src/Python/SIP/Bindings.cpp

2071 lines
70 KiB
C++

#include <PythonEmbed.h>
#include "Context.h"
#include "RideItem.h"
#include "IntervalItem.h"
#include "Athlete.h"
#include "GcUpgrade.h"
#include "PythonChart.h"
#include "Colors.h"
#include "RideCache.h"
#include "DataFilter.h"
#include "PMCData.h"
#include "Season.h"
#include "WPrime.h"
#include "Zones.h"
#include "HrZones.h"
#include "PaceZones.h"
#include "Bindings.h"
#include <QWebEngineView>
#include <QUrl>
#include <datetime.h> // for Python datetime macros
long Bindings::threadid() const
{
// Get current thread ID via Python thread functions
PyObject* thread = PyImport_ImportModule("_thread");
PyObject* get_ident = PyObject_GetAttrString(thread, "get_ident");
PyObject* ident = PyObject_CallObject(get_ident, 0);
Py_DECREF(get_ident);
long t = PyLong_AsLong(ident);
Py_DECREF(ident);
return t;
}
long Bindings::build() const
{
return VERSION_LATEST;
}
QString Bindings::version() const
{
return VERSION_STRING;
}
int
Bindings::webpage(QString url) const
{
#ifdef Q_OS_WIN
url = url.replace("://C:", ":///C:"); // plotly fails to use enough slashes
url = url.replace("\\", "/");
#endif
QUrl p(url);
python->chart->emitUrl(p);
return 0;
}
void
Bindings::result(double value)
{
python->result = value;
}
// get athlete data
PyObject* Bindings::athlete() const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
PyObject* dict = PyDict_New();
if (dict == NULL) return dict;
// NAME
PyDict_SetItemString(dict, "name", PyUnicode_FromString(context->athlete->cyclist.toUtf8().constData()));
// HOME
PyDict_SetItemString(dict, "home", PyUnicode_FromString(context->athlete->home->root().absolutePath().toUtf8().constData()));
// DOB
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;// import datetime if necessary
QDate d = appsettings->cvalue(context->athlete->cyclist, GC_DOB).toDate();
PyDict_SetItemString(dict, "dob", PyDate_FromDate(d.year(), d.month(), d.day()));
// WEIGHT
PyDict_SetItemString(dict, "weight", PyFloat_FromDouble(appsettings->cvalue(context->athlete->cyclist, GC_WEIGHT).toDouble()));
// HEIGHT
PyDict_SetItemString(dict, "height", PyFloat_FromDouble(appsettings->cvalue(context->athlete->cyclist, GC_HEIGHT).toDouble()));
// GENDER
int isfemale = appsettings->cvalue(context->athlete->cyclist, GC_SEX).toInt();
PyDict_SetItemString(dict, "gender", PyUnicode_FromString(isfemale ? "female" : "male"));
return dict;
}
// one entry per sport per date for hr/power/pace
class gcZoneConfig {
public:
gcZoneConfig(QString sport) : sport(sport), date(QDate(01,01,01)), cp(0), wprime(0), pmax(0), ftp(0),lthr(0),rhr(0),hrmax(0),cv(0) {}
bool operator<(gcZoneConfig rhs) const { return date < rhs.date; }
QString sport;
QDate date;
QList<int> zoneslow;
int cp, wprime, pmax,ftp,lthr,rhr,hrmax,cv;
};
// Return a dataframe with:
// date, sport, cp, w', pmax, ftp, lthr, rhr, hrmax, cv, zoneslow, zonescolor
PyObject*
Bindings::athleteZones(PyObject* date, QString sport) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// import datetime if necessary
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;
// COLLECT ALL THE CONFIG TOGETHER
QList<gcZoneConfig> config;
// for a specific date?
if (date != NULL && PyDate_Check(date)) {
// convert PyDate to QDate
QDate forDate(QDate(PyDateTime_GET_YEAR(date), PyDateTime_GET_MONTH(date), PyDateTime_GET_DAY(date)));
gcZoneConfig bike("bike");
gcZoneConfig run("run");
gcZoneConfig swim("bike");
// BIKE POWER
if (context->athlete->zones(false)) {
// run through the bike zones
int range=context->athlete->zones(false)->whichRange(forDate);
if (range >= 0) {
bike.date = forDate;
bike.cp = context->athlete->zones(false)->getCP(range);
bike.wprime = context->athlete->zones(false)->getWprime(range);
bike.pmax = context->athlete->zones(false)->getPmax(range);
bike.ftp = context->athlete->zones(false)->getFTP(range);
bike.zoneslow = context->athlete->zones(false)->getZoneLows(range);
}
}
// RUN POWER
if (context->athlete->zones(false)) {
// run through the bike zones
int range=context->athlete->zones(true)->whichRange(forDate);
if (range >= 0) {
run.date = forDate;
run.cp = context->athlete->zones(true)->getCP(range);
run.wprime = context->athlete->zones(true)->getWprime(range);
run.pmax = context->athlete->zones(true)->getPmax(range);
run.ftp = context->athlete->zones(true)->getFTP(range);
run.zoneslow = context->athlete->zones(true)->getZoneLows(range);
}
}
// BIKE HR
if (context->athlete->hrZones(false)) {
int range=context->athlete->hrZones(false)->whichRange(forDate);
if (range >= 0) {
bike.date = forDate;
bike.lthr = context->athlete->hrZones(false)->getLT(range);
bike.rhr = context->athlete->hrZones(false)->getRestHr(range);
bike.hrmax = context->athlete->hrZones(false)->getMaxHr(range);
}
}
// RUN HR
if (context->athlete->hrZones(true)) {
int range=context->athlete->hrZones(true)->whichRange(forDate);
if (range >= 0) {
run.date = forDate;
run.lthr = context->athlete->hrZones(true)->getLT(range);
run.rhr = context->athlete->hrZones(true)->getRestHr(range);
run.hrmax = context->athlete->hrZones(true)->getMaxHr(range);
}
}
// RUN PACE
if (context->athlete->paceZones(false)) {
int range=context->athlete->paceZones(false)->whichRange(forDate);
if (range >= 0) {
run.date = forDate;
run.cv = context->athlete->paceZones(false)->getCV(range);
}
}
// SWIM PACE
if (context->athlete->paceZones(true)) {
int range=context->athlete->paceZones(true)->whichRange(forDate);
if (range >= 0) {
swim.date = forDate;
swim.cv = context->athlete->paceZones(true)->getCV(range);
}
}
if (bike.date == forDate) config << bike;
if (run.date == forDate) config << run;
if (swim.date == forDate) config << swim;
} else {
// BIKE POWER
if (context->athlete->zones(false)) {
for (int range=0; range < context->athlete->zones(false)->getRangeSize(); range++) {
// run through the bike zones
gcZoneConfig c("bike");
c.date = context->athlete->zones(false)->getStartDate(range);
c.cp = context->athlete->zones(false)->getCP(range);
c.wprime = context->athlete->zones(false)->getWprime(range);
c.pmax = context->athlete->zones(false)->getPmax(range);
c.ftp = context->athlete->zones(false)->getFTP(range);
c.zoneslow = context->athlete->zones(false)->getZoneLows(range);
config << c;
}
}
// RUN POWER
if (context->athlete->zones(false)) {
// run through the bike zones
for (int range=0; range < context->athlete->zones(true)->getRangeSize(); range++) {
// run through the bike zones
gcZoneConfig c("run");
c.date = context->athlete->zones(true)->getStartDate(range);
c.cp = context->athlete->zones(true)->getCP(range);
c.wprime = context->athlete->zones(true)->getWprime(range);
c.pmax = context->athlete->zones(true)->getPmax(range);
c.ftp = context->athlete->zones(true)->getFTP(range);
c.zoneslow = context->athlete->zones(true)->getZoneLows(range);
config << c;
}
}
// BIKE HR
if (context->athlete->hrZones(false)) {
for (int range=0; range < context->athlete->hrZones(false)->getRangeSize(); range++) {
gcZoneConfig c("bike");
c.date = context->athlete->hrZones(false)->getStartDate(range);
c.lthr = context->athlete->hrZones(false)->getLT(range);
c.rhr = context->athlete->hrZones(false)->getRestHr(range);
c.hrmax = context->athlete->hrZones(false)->getMaxHr(range);
config << c;
}
}
// RUN HR
if (context->athlete->hrZones(true)) {
for (int range=0; range < context->athlete->hrZones(true)->getRangeSize(); range++) {
gcZoneConfig c("run");
c.date = context->athlete->hrZones(true)->getStartDate(range);
c.lthr = context->athlete->hrZones(true)->getLT(range);
c.rhr = context->athlete->hrZones(true)->getRestHr(range);
c.hrmax = context->athlete->hrZones(true)->getMaxHr(range);
config << c;
}
}
// RUN PACE
if (context->athlete->paceZones(false)) {
for (int range=0; range < context->athlete->paceZones(false)->getRangeSize(); range++) {
gcZoneConfig c("run");
c.date = context->athlete->paceZones(false)->getStartDate(range);
c.cv = context->athlete->paceZones(false)->getCV(range);
config << c;
}
}
// SWIM PACE
if (context->athlete->paceZones(true)) {
for (int range=0; range < context->athlete->paceZones(true)->getRangeSize(); range++) {
gcZoneConfig c("swim");
c.date = context->athlete->paceZones(true)->getStartDate(range);
c.cv = context->athlete->paceZones(true)->getCV(range);
config << c;
}
}
}
// no config ?
if (config.count() == 0) return NULL;
// COMPRESS CONFIG TOGETHER BY SPORT
QList<gcZoneConfig> compressed;
qSort(config);
// all will have date zero
gcZoneConfig lastRun("run"), lastBike("bike"), lastSwim("swim");
foreach(gcZoneConfig x, config) {
// BIKE
if (x.sport == "bike" && (sport=="" || sport=="bike")) {
// new date so save what we have collected
if (x.date > lastBike.date) {
if (lastBike.date > QDate(01,01,01)) compressed << lastBike;
lastBike.date = x.date;
}
// merge new values
if (x.date == lastBike.date) {
// merge with prior
if (x.cp) lastBike.cp = x.cp;
if (x.wprime) lastBike.wprime = x.wprime;
if (x.pmax) lastBike.pmax = x.pmax;
if (x.ftp) lastBike.ftp = x.ftp;
if (x.lthr) lastBike.lthr = x.lthr;
if (x.rhr) lastBike.rhr = x.rhr;
if (x.hrmax) lastBike.hrmax = x.hrmax;
if (x.zoneslow.length()) lastBike.zoneslow = x.zoneslow;
}
}
// RUN
if (x.sport == "run" && (sport=="" || sport=="run")) {
// new date so save what we have collected
if (x.date > lastRun.date) {
// add last
if (lastRun.date > QDate(01,01,01)) compressed << lastRun;
lastRun.date = x.date;
}
// merge new values
if (x.date == lastRun.date) {
// merge with prior
if (x.cp) lastRun.cp = x.cp;
if (x.wprime) lastRun.wprime = x.wprime;
if (x.pmax) lastRun.pmax = x.pmax;
if (x.ftp) lastRun.ftp = x.ftp;
if (x.lthr) lastRun.lthr = x.lthr;
if (x.rhr) lastRun.rhr = x.rhr;
if (x.hrmax) lastRun.hrmax = x.hrmax;
if (x.cv) lastRun.cv = x.cv;
if (x.zoneslow.length()) lastRun.zoneslow = x.zoneslow;
}
}
// SWIM
if (x.sport == "swim" && (sport=="" || sport=="swim")) {
// new date so save what we have collected
if (x.date > lastSwim.date) {
// add last
if (lastSwim.date > QDate(01,01,01)) compressed << lastSwim;
lastSwim.date = x.date;
}
// merge new values
if (x.date == lastSwim.date) {
// merge with prior
if (x.cv) lastSwim.cv = x.cv;
}
}
}
if (lastBike.date > QDate(01,01,01)) compressed << lastBike;
if (lastRun.date > QDate(01,01,01)) compressed << lastRun;
if (lastSwim.date > QDate(01,01,01)) compressed << lastSwim;
// now use the new compressed ones
config = compressed;
qSort(config);
int size = config.count();
// CREATE A DICT OF CONFIG
PyObject* dict = PyDict_New();
if (dict == NULL) return dict;
// 12 lists
PyObject* dates = PyList_New(size);
PyObject* sports = PyList_New(size);
PyObject* cp = PyList_New(size);
PyObject* wprime = PyList_New(size);
PyObject* pmax = PyList_New(size);
PyObject* ftp = PyList_New(size);
PyObject* lthr = PyList_New(size);
PyObject* rhr = PyList_New(size);
PyObject* hrmax = PyList_New(size);
PyObject* cv = PyList_New(size);
PyObject* zoneslow = PyList_New(size);
PyObject* zonescolor = PyList_New(size);
int index=0;
foreach(gcZoneConfig x, config) {
// update the lists
PyList_SET_ITEM(dates, index, PyDate_FromDate(x.date.year(), x.date.month(), x.date.day()));
PyList_SET_ITEM(sports, index, PyUnicode_FromString(x.sport.toUtf8().constData()));
PyList_SET_ITEM(cp, index, PyFloat_FromDouble(x.cp));
PyList_SET_ITEM(wprime, index, PyFloat_FromDouble(x.wprime));
PyList_SET_ITEM(pmax, index, PyFloat_FromDouble(x.pmax));
PyList_SET_ITEM(ftp, index, PyFloat_FromDouble(x.ftp));
PyList_SET_ITEM(lthr, index, PyFloat_FromDouble(x.lthr));
PyList_SET_ITEM(rhr, index, PyFloat_FromDouble(x.rhr));
PyList_SET_ITEM(hrmax, index, PyFloat_FromDouble(x.hrmax));
PyList_SET_ITEM(cv, index, PyFloat_FromDouble(x.cv));
int indexlow=0;
PyObject* lows = PyList_New(x.zoneslow.length());
PyObject* colors = PyList_New(x.zoneslow.length());
foreach(int low, x.zoneslow) {
PyList_SET_ITEM(lows, indexlow, PyFloat_FromDouble(low));
PyList_SET_ITEM(colors, indexlow, PyUnicode_FromString(zoneColor(indexlow, x.zoneslow.length()).name().toUtf8().constData()));
indexlow++;
}
PyList_SET_ITEM(zoneslow, index, lows);
PyList_SET_ITEM(zonescolor, index, colors);
index++;
}
// add to dict
PyDict_SetItemString(dict, "date", dates);
PyDict_SetItemString(dict, "sport", sports);
PyDict_SetItemString(dict, "cp", cp);
PyDict_SetItemString(dict, "wprime", wprime);
PyDict_SetItemString(dict, "pmax", pmax);
PyDict_SetItemString(dict, "ftp", ftp);
PyDict_SetItemString(dict, "lthr", lthr);
PyDict_SetItemString(dict, "rhr", rhr);
PyDict_SetItemString(dict, "hrmax", hrmax);
PyDict_SetItemString(dict, "cv", cv);
PyDict_SetItemString(dict, "zoneslow", zoneslow);
PyDict_SetItemString(dict, "zonescolor", zonescolor);
return dict;
}
// get a list of activities (Date&Time)
PyObject*
Bindings::activities(QString filter) const
{
Context *context = python->contexts.value(threadid()).context;
if (context && context->athlete && context->athlete->rideCache) {
// import datetime if necessary
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;
// filters
// apply any global filters
Specification specification;
FilterSet fs;
fs.addFilter(context->isfiltered, context->filters);
fs.addFilter(context->ishomefiltered, context->homeFilters);
// did call contain any filters?
if (filter != "") {
DataFilter dataFilter(python->chart, context);
QStringList files;
dataFilter.parseFilter(context, filter, &files);
fs.addFilter(true, files);
}
specification.setFilterSet(fs);
// how many pass?
int count = 0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
// apply filters
if (!specification.pass(item)) continue;
count++;
}
// allocate space for a list of dates
PyObject* dates = PyList_New(count);
// fill with values for date and class
int idx = 0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
// apply filters
if (!specification.pass(item)) continue;
// add datetime to the list
QDate d = item->dateTime.date();
QTime t = item->dateTime.time();
PyList_SET_ITEM(dates, idx++, PyDateTime_FromDateAndTime(d.year(), d.month(), d.day(), t.hour(), t.minute(), t.second(), t.msec()*10));
}
return dates;
}
return NULL;
}
RideItem*
Bindings::fromDateTime(PyObject* activity) const
{
Context *context = python->contexts.value(threadid()).context;
// import datetime if necessary
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;
if (context !=NULL && activity != NULL && PyDate_Check(activity)) {
// convert PyDateTime to QDateTime
QDateTime dateTime(QDate(PyDateTime_GET_YEAR(activity), PyDateTime_GET_MONTH(activity), PyDateTime_GET_DAY(activity)),
QTime(PyDateTime_DATE_GET_HOUR(activity), PyDateTime_DATE_GET_MINUTE(activity), PyDateTime_DATE_GET_SECOND(activity), PyDateTime_DATE_GET_MICROSECOND(activity)/10));
// search the RideCache
foreach(RideItem*item, context->athlete->rideCache->rides())
if (item->dateTime.toUTC() == dateTime.toUTC())
return const_cast<RideItem*>(item);
}
return NULL;
}
// get the data series for the currently selected ride
PythonDataSeries*
Bindings::series(int type, PyObject* activity) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
RideItem* item = fromDateTime(activity);
if (item == NULL) item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
if (item == NULL) return NULL;
RideFile* f = item->ride();
if (f == NULL) return NULL;
// count the included points, create data series output and copy data
int pCount = 0;
RideFileIterator it(f, python->contexts.value(threadid()).spec);
while (it.hasNext()) { it.next(); pCount++; }
PythonDataSeries* ds = new PythonDataSeries(seriesName(type), pCount);
it.toFront();
for(int i=0; i<pCount && it.hasNext(); i++) {
struct RideFilePoint *point = it.next();
ds->data[i] = point->value(static_cast<RideFile::SeriesType>(type));
}
return ds;
}
// get the wbal series for the currently selected ride
PythonDataSeries*
Bindings::activityWbal(PyObject* activity) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
RideItem* item = fromDateTime(activity);
if (item == NULL) item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
if (item == NULL) return NULL;
RideFile* f = item->ride();
if (f == NULL) return NULL;
f->recalculateDerivedSeries();
WPrime *w = f->wprimeData();
if (w == NULL) return NULL;
// count the included points, create data series output and copy data
int pCount = 0;
int idxStart = 0;
int secsStart = python->contexts.value(threadid()).spec.secsStart();
int secsEnd = python->contexts.value(threadid()).spec.secsEnd();
for(int i=0; i<w->xdata(false).count(); i++) {
if (w->xdata(false)[i] < secsStart) continue;
if (secsEnd >= 0 && w->xdata(false)[i] > secsEnd) break;
if (pCount == 0) idxStart = i;
pCount++;
}
PythonDataSeries* ds = new PythonDataSeries("WBal", pCount);
for(int i=0; i<pCount; i++) ds->data[i] = w->ydata()[i+idxStart];
return ds;
}
// get the xdata series for the currently selected ride
PythonDataSeries*
Bindings::activityXdata(QString name, QString series, QString join, PyObject* activity) const
{
// XDATA join method
RideFile::XDataJoin xjoin;
QStringList xdataValidSymbols;
xdataValidSymbols << "sparse" << "repeat" << "interpolate" << "resample";
int xx = xdataValidSymbols.indexOf(join, Qt::CaseInsensitive);
switch(xx) {
case 0: xjoin = RideFile::SPARSE; break;
default:
case 1: xjoin = RideFile::REPEAT; break;
case 2: xjoin = RideFile::INTERPOLATE; break;
case 3: xjoin = RideFile::RESAMPLE; break;
}
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
RideItem* item = fromDateTime(activity);
if (item == NULL) item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
if (item == NULL) return NULL;
RideFile* f = item->ride();
if (f == NULL) return NULL;
if (!f->xdata().contains(name)) return NULL; // No such XData series
XDataSeries *xds = f->xdata()[name];
if (!xds->valuename.contains(series)) return NULL; // No such XData name
// count the included points, create data series output and copy data
int pCount = 0;
RideFileIterator it(f, python->contexts.value(threadid()).spec);
while (it.hasNext()) { it.next(); pCount++; }
PythonDataSeries* ds = new PythonDataSeries(name, pCount);
it.toFront();
int idx = 0;
for(int i=0; i<pCount && it.hasNext(); i++) {
struct RideFilePoint *point = it.next();
double val = f->xdataValue(point, idx, name, series, xjoin);
ds->data[i] = (val == RideFile::NA) ? sqrt(-1) : val; // NA => NaN
}
return ds;
}
// get the xdata series for the currently selected ride, without interpolation
PythonDataSeries*
Bindings::activityXdataSeries(QString name, QString series, PyObject* activity) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
RideItem* item = fromDateTime(activity);
if (item == NULL) item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
if (item == NULL) return NULL;
RideFile* f = item->ride();
if (f == NULL) return NULL;
if (!f->xdata().contains(name)) return NULL; // No such XData series
XDataSeries *xds = f->xdata()[name];
int valueIdx = -1;
if (xds->valuename.contains(series))
valueIdx = xds->valuename.indexOf(series);
else if (series != "secs" && series != "km")
return NULL; // No such XData name
// count the included points, create data series output and copy data
Specification spec(python->contexts.value(threadid()).spec);
IntervalItem* it = spec.interval();
int pCount = 0;
foreach(XDataPoint* p, xds->datapoints) {
if (it && p->secs < it->start) continue;
if (it && p->secs > it->stop) break;
pCount++;
}
PythonDataSeries* ds = new PythonDataSeries(QString("%1_%2").arg(name).arg(series), pCount);
int idx = 0;
foreach(XDataPoint* p, xds->datapoints) {
if (it && p->secs < it->start) continue;
if (it && p->secs > it->stop) break;
double val = sqrt(-1); // NA => NaN
if (valueIdx >= 0) val = p->number[valueIdx];
else if (series == "secs") val = p->secs;
else if (series == "km") val = p->km;
ds->data[idx++] = val;
}
return ds;
}
PyObject*
Bindings::activityXdataNames(QString name, PyObject* activity) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
RideItem* item = fromDateTime(activity);
if (item == NULL) item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
if (item == NULL) return NULL;
RideFile* f = item->ride();
if (f == NULL) return NULL;
QStringList namelist;
if (name.isEmpty())
namelist = f->xdata().keys();
else if (f->xdata().contains(name))
namelist = f->xdata()[name]->valuename;
else
return NULL; // No such XData series
PyObject* list = PyList_New(namelist.size());
for (int i = 0; i < namelist.size(); i++)
PyList_SET_ITEM(list, i, PyUnicode_FromString(namelist.at(i).toUtf8().constData()));
return list;
}
int
Bindings::seriesLast() const
{
return static_cast<int>(RideFile::none);
}
QString
Bindings::seriesName(int type) const
{
return RideFile::seriesName(static_cast<RideFile::SeriesType>(type), true);
}
bool
Bindings::seriesPresent(int type, PyObject* activity) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return false;
RideItem* item = fromDateTime(activity);
if (item == NULL) item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
if (item == NULL) return NULL;
return item->ride()->isDataPresent(static_cast<RideFile::SeriesType>(type));
}
PythonDataSeries::PythonDataSeries(QString name, Py_ssize_t count) : name(name), count(count), data(NULL)
{
if (count > 0) data = new double[count];
}
// default constructor and copy constructor
PythonDataSeries::PythonDataSeries() : name(QString()), count(0), data(NULL) {}
PythonDataSeries::PythonDataSeries(PythonDataSeries *clone)
{
*this = *clone;
}
PythonDataSeries::~PythonDataSeries()
{
if (data) delete[] data;
data=NULL;
}
PyObject*
Bindings::activityMetrics(bool compare) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// want a list of compares
if (compare) {
// only return compares if its actually active
if (context->isCompareIntervals) {
// how many to return?
int count = 0;
foreach(CompareInterval p, context->compareIntervals) if (p.isChecked()) count++;
PyObject* list = PyList_New(count);
// create a dict for each and add to list as tuple (metrics, color)
long idx = 0;
foreach(CompareInterval p, context->compareIntervals) {
if (p.isChecked()) {
// create a tuple (metrics, color)
PyObject* tuple = Py_BuildValue("(Os)", activityMetrics(p.rideItem), p.color.name().toUtf8().constData());
PyList_SET_ITEM(list, idx++, tuple);
}
}
return list;
} else { // compare isn't active...
// otherwise return the current metrics in a compare list
if (context->currentRideItem()==NULL) return NULL;
RideItem *item = const_cast<RideItem*>(context->currentRideItem());
PyObject* list = PyList_New(1);
PyObject* tuple = Py_BuildValue("(Os)", activityMetrics(item), "#FF00FF");
PyList_SET_ITEM(list, 0, tuple);
return list;
}
} else {
// not compare, so just return a dict
RideItem *item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
return activityMetrics(item);
}
}
PyObject*
Bindings::activityMetrics(RideItem* item) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
PyObject* dict = PyDict_New();
if (dict == NULL) return dict;
const RideMetricFactory &factory = RideMetricFactory::instance();
//
// Date and Time
//
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;// import datetime if necessary
QDate d = item->dateTime.date();
PyDict_SetItemString(dict, "date", PyDate_FromDate(d.year(), d.month(), d.day()));
QTime t = item->dateTime.time();
PyDict_SetItemString(dict, "time", PyTime_FromTime(t.hour(), t.minute(), t.second(), t.msec()*10));
//
// METRICS
//
for(int i=0; i<factory.metricCount();i++) {
QString symbol = factory.metricName(i);
const RideMetric *metric = factory.rideMetric(symbol);
QString name = context->specialFields.internalName(factory.rideMetric(symbol)->name());
name = name.replace(" ","_");
name = name.replace("'","_");
bool useMetricUnits = context->athlete->useMetricUnits;
double value = item->metrics()[i] * (useMetricUnits ? 1.0f : metric->conversion()) + (useMetricUnits ? 0.0f : metric->conversionSum());
// Override if we have precomputed values in ScriptContext (UserMetric)
if (python->contexts.value(threadid()).metrics && python->contexts.value(threadid()).metrics->contains(symbol)) {
const RideMetric *metric = python->contexts.value(threadid()).metrics->value(symbol);
value = metric->value(useMetricUnits);
}
// add to the dict
PyDict_SetItemString(dict, name.toUtf8().constData(), PyFloat_FromDouble(value));
}
//
// META
//
foreach(FieldDefinition field, context->athlete->rideMetadata()->getFields()) {
// don't add incomplete meta definitions or metric override fields
if (field.name == "" || field.tab == "" ||
context->specialFields.isMetric(field.name)) continue;
// add to the dict
PyDict_SetItemString(dict, field.name.replace(" ","_").toUtf8().constData(), PyUnicode_FromString(item->getText(field.name, "").toUtf8().constData()));
}
//
// add Color
//
QString color;
// apply item color, remembering that 1,1,1 means use default (reverse in this case)
if (item->color == QColor(1,1,1,1)) {
// use the inverted color, not plot marker as that hideous
QColor col =GCColor::invertColor(GColor(CPLOTBACKGROUND));
// white is jarring on a dark background!
if (col==QColor(Qt::white)) col=QColor(127,127,127);
color = col.name();
} else
color = item->color.name();
// add to the dict
PyDict_SetItemString(dict, "color", PyUnicode_FromString(color.toUtf8().constData()));
return dict;
}
PyObject*
Bindings::seasonMetrics(bool all, QString filter, bool compare) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// want a list of compares
if (compare) {
// only return compares if its actually active
if (context->isCompareDateRanges) {
// how many to return?
int count=0;
foreach(CompareDateRange p, context->compareDateRanges) if (p.isChecked()) count++;
// cool we can return a list of intervals to compare
PyObject* list = PyList_New(count);
int idx = 0;
// create a dict for each and add to list
foreach(CompareDateRange p, context->compareDateRanges) {
if (p.isChecked()) {
// create a tuple (metrics, color)
PyObject* tuple = Py_BuildValue("(Os)", seasonMetrics(all, DateRange(p.start, p.end), filter), p.color.name().toUtf8().constData());
// add to back and move on
PyList_SET_ITEM(list, idx++, tuple);
}
}
return list;
} else { // compare isn't active...
// otherwise return the current metrics in a compare list
PyObject* list = PyList_New(1);
// create a tuple (metrics, color)
DateRange range = context->currentDateRange();
PyObject* tuple = Py_BuildValue("(Os)", seasonMetrics(all, range, filter), "#FF00FF");
// add to back and move on
PyList_SET_ITEM(list, 0, tuple);
return list;
}
} else {
// just a dict of metrics
DateRange range = context->currentDateRange();
return seasonMetrics(all, range, filter);
}
}
PyObject*
Bindings::seasonMetrics(bool all, DateRange range, QString filter) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL || context->athlete == NULL || context->athlete->rideCache == NULL) return NULL;
// how many rides to return if we're limiting to the
// currently selected date range ?
// apply any global filters
Specification specification;
FilterSet fs;
fs.addFilter(context->isfiltered, context->filters);
fs.addFilter(context->ishomefiltered, context->homeFilters);
// did call contain a filter?
if (filter != "") {
DataFilter dataFilter(python->chart, context);
QStringList files;
dataFilter.parseFilter(context, filter, &files);
fs.addFilter(true, files);
}
specification.setFilterSet(fs);
// we need to count rides that are in range...
int rides = 0;
foreach(RideItem *ride, context->athlete->rideCache->rides()) {
if (!specification.pass(ride)) continue;
if (all || range.pass(ride->dateTime.date())) rides++;
}
PyObject* dict = PyDict_New();
if (dict == NULL) return dict;
//
// Date, Time and Color
//
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;// import datetime if necessary
PyObject* datelist = PyList_New(rides);
PyObject* timelist = PyList_New(rides);
PyObject* colorlist = PyList_New(rides);
int idx = 0;
foreach(RideItem *ride, context->athlete->rideCache->rides()) {
if (!specification.pass(ride)) continue;
if (all || range.pass(ride->dateTime.date())) {
QDate d = ride->dateTime.date();
PyList_SET_ITEM(datelist, idx, PyDate_FromDate(d.year(), d.month(), d.day()));
QTime t = ride->dateTime.time();
PyList_SET_ITEM(timelist, idx, PyTime_FromTime(t.hour(), t.minute(), t.second(), t.msec()*10));
// apply item color, remembering that 1,1,1 means use default (reverse in this case)
QString color;
if (ride->color == QColor(1,1,1,1)) {
// use the inverted color, not plot marker as that hideous
QColor col =GCColor::invertColor(GColor(CPLOTBACKGROUND));
// white is jarring on a dark background!
if (col==QColor(Qt::white)) col=QColor(127,127,127);
color = col.name();
} else
color = ride->color.name();
PyList_SET_ITEM(colorlist, idx, PyUnicode_FromString(color.toUtf8().constData()));
idx++;
}
}
PyDict_SetItemString(dict, "date", datelist);
PyDict_SetItemString(dict, "time", timelist);
PyDict_SetItemString(dict, "color", colorlist);
//
// METRICS
//
const RideMetricFactory &factory = RideMetricFactory::instance();
bool useMetricUnits = context->athlete->useMetricUnits;
for(int i=0; i<factory.metricCount();i++) {
QString symbol = factory.metricName(i);
const RideMetric *metric = factory.rideMetric(symbol);
QString name = context->specialFields.internalName(factory.rideMetric(symbol)->name());
name = name.replace(" ","_");
name = name.replace("'","_");
// set a list of metric values
PyObject* metriclist = PyList_New(rides);
int idx = 0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
if (!specification.pass(item)) continue;
if (all || range.pass(item->dateTime.date())) {
PyList_SET_ITEM(metriclist, idx++, PyFloat_FromDouble(item->metrics()[i] * (useMetricUnits ? 1.0f : metric->conversion()) + (useMetricUnits ? 0.0f : metric->conversionSum())));
}
}
// add to the dict
PyDict_SetItemString(dict, name.toUtf8().constData(), metriclist);
}
//
// META
//
foreach(FieldDefinition field, context->athlete->rideMetadata()->getFields()) {
// don't add incomplete meta definitions or metric override fields
if (field.name == "" || field.tab == "" ||
context->specialFields.isMetric(field.name)) continue;
// Create a string list
PyObject* metalist = PyList_New(rides);
int idx = 0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
if (!specification.pass(item)) continue;
if (all || range.pass(item->dateTime.date())) {
PyList_SET_ITEM(metalist, idx++, PyUnicode_FromString(item->getText(field.name, "").toUtf8().constData()));
}
}
// add to the dict
PyDict_SetItemString(dict, field.name.replace(" ","_").toUtf8().constData(), metalist);
}
return dict;
}
PyObject*
Bindings::seasonIntervals(QString type, bool compare) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// want a list of compares
if (compare) {
// only return compares if its actually active
if (context->isCompareDateRanges) {
// how many to return?
int count=0;
foreach(CompareDateRange p, context->compareDateRanges) if (p.isChecked()) count++;
// cool we can return a list of intervals to compare
PyObject* list = PyList_New(count);
int idx = 0;
// create a dict for each and add to list
foreach(CompareDateRange p, context->compareDateRanges) {
if (p.isChecked()) {
// create a tuple (metrics, color)
PyObject* tuple = Py_BuildValue("(Os)", seasonIntervals(DateRange(p.start, p.end), type), p.color.name().toUtf8().constData());
// add to back and move on
PyList_SET_ITEM(list, idx++, tuple);
}
}
return list;
} else { // compare isn't active...
// otherwise return the current metrics in a compare list
PyObject* list = PyList_New(1);
// create a tuple (metrics, color)
DateRange range = context->currentDateRange();
PyObject* tuple = Py_BuildValue("(Os)", seasonIntervals(range, type), "#FF00FF");
// add to back and move on
PyList_SET_ITEM(list, 0, tuple);
return list;
}
} else {
// just a dict of metrics
DateRange range = context->currentDateRange();
return seasonIntervals(range, type);
}
}
PyObject*
Bindings::seasonIntervals(DateRange range, QString type) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL || context->athlete == NULL || context->athlete->rideCache == NULL) return NULL;
const RideMetricFactory &factory = RideMetricFactory::instance();
int intervals = 0;
// how many interval to return in the currently selected date range ?
// apply any global filters
Specification specification;
FilterSet fs;
fs.addFilter(context->isfiltered, context->filters);
fs.addFilter(context->ishomefiltered, context->homeFilters);
specification.setFilterSet(fs);
// we need to count intervals that are in range...
intervals = 0;
foreach(RideItem *ride, context->athlete->rideCache->rides()) {
if (!specification.pass(ride)) continue;
if (!range.pass(ride->dateTime.date())) continue;
if (type.isEmpty()) intervals += ride->intervals().count();
else {
foreach(IntervalItem *item, ride->intervals())
if (type == RideFileInterval::typeDescription(item->type))
intervals++;
}
}
PyObject* dict = PyDict_New();
if (dict == NULL) return dict;
//
// Date, Time, Name Type and Color
//
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;// import datetime if necessary
PyObject* datelist = PyList_New(intervals);
PyObject* timelist = PyList_New(intervals);
PyObject* namelist = PyList_New(intervals);
PyObject* typelist = PyList_New(intervals);
PyObject* colorlist = PyList_New(intervals);
int idx=0;
foreach(RideItem *ride, context->athlete->rideCache->rides()) {
if (!specification.pass(ride)) continue;
if (range.pass(ride->dateTime.date())) {
foreach(IntervalItem *item, ride->intervals())
if (type.isEmpty() || type == RideFileInterval::typeDescription(item->type)) {
// DATE
QDate d = ride->dateTime.date();
PyList_SET_ITEM(datelist, idx, PyDate_FromDate(d.year(), d.month(), d.day()));
// TIME - time offsets by time of interval
QTime t = ride->dateTime.time().addSecs(item->start);
PyList_SET_ITEM(timelist, idx, PyTime_FromTime(t.hour(), t.minute(), t.second(), t.msec()*10));
// NAME
PyList_SET_ITEM(namelist, idx, PyUnicode_FromString(item->name.toUtf8().constData()));
// TYPE
PyList_SET_ITEM(typelist, idx, PyUnicode_FromString(RideFileInterval::typeDescription(item->type).toUtf8().constData()));
// apply item color, remembering that 1,1,1 means use default (reverse in this case)
QString color;
if (item->color == QColor(1,1,1,1)) {
// use the inverted color, not plot marker as that hideous
QColor col =GCColor::invertColor(GColor(CPLOTBACKGROUND));
// white is jarring on a dark background!
if (col==QColor(Qt::white)) col=QColor(127,127,127);
color = col.name();
} else
color = item->color.name();
PyList_SET_ITEM(colorlist, idx, PyUnicode_FromString(color.toUtf8().constData()));
idx++;
}
}
}
PyDict_SetItemString(dict, "date", datelist);
PyDict_SetItemString(dict, "time", timelist);
PyDict_SetItemString(dict, "name", namelist);
PyDict_SetItemString(dict, "type", typelist);
PyDict_SetItemString(dict, "color", colorlist);
//
// METRICS
//
for(int i=0; i<factory.metricCount();i++) {
// set a list of metric values
PyObject* metriclist = PyList_New(intervals);
QString symbol = factory.metricName(i);
const RideMetric *metric = factory.rideMetric(symbol);
QString name = context->specialFields.internalName(factory.rideMetric(symbol)->name());
name = name.replace(" ","_");
name = name.replace("'","_");
bool useMetricUnits = context->athlete->useMetricUnits;
int index=0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
if (!specification.pass(item)) continue;
if (range.pass(item->dateTime.date())) {
foreach(IntervalItem *interval, item->intervals()) {
if (type.isEmpty() || type == RideFileInterval::typeDescription(interval->type))
PyList_SET_ITEM(metriclist, index++, PyFloat_FromDouble(interval->metrics()[i] * (useMetricUnits ? 1.0f : metric->conversion()) + (useMetricUnits ? 0.0f : metric->conversionSum())));
}
}
}
// add to the dict
PyDict_SetItemString(dict, name.toUtf8().constData(), metriclist);
}
return dict;
}
PyObject*
Bindings::activityIntervals(QString type, PyObject* activity) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
RideItem* ride = fromDateTime(activity);
if (ride == NULL) ride = python->contexts.value(threadid()).item;
if (ride == NULL) ride = const_cast<RideItem*>(context->currentRideItem());
if (ride == NULL) return NULL;
const RideMetricFactory &factory = RideMetricFactory::instance();
int intervals = 0;
// how many interval to return in the currently selected RideItem ?
// we need to count intervals that are of requested type
intervals = 0;
if (type.isEmpty()) intervals = ride->intervals().count();
else foreach(IntervalItem *item, ride->intervals()) if (type == RideFileInterval::typeDescription(item->type)) intervals++;
PyObject* dict = PyDict_New();
if (dict == NULL) return dict;
//
// Start, Stop, Name Type and Color
//
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;// import datetime if necessary
PyObject* startlist = PyList_New(intervals);
PyObject* stoplist = PyList_New(intervals);
PyObject* namelist = PyList_New(intervals);
PyObject* typelist = PyList_New(intervals);
PyObject* colorlist = PyList_New(intervals);
PyObject* selectedlist = PyList_New(intervals);
int idx=0;
foreach(IntervalItem *item, ride->intervals())
if (type.isEmpty() || type == RideFileInterval::typeDescription(item->type)) {
// START
PyList_SET_ITEM(startlist, idx, PyFloat_FromDouble(item->start));
// STOP
PyList_SET_ITEM(stoplist, idx, PyFloat_FromDouble(item->stop));
// NAME
PyList_SET_ITEM(namelist, idx, PyUnicode_FromString(item->name.toUtf8().constData()));
// TYPE
PyList_SET_ITEM(typelist, idx, PyUnicode_FromString(RideFileInterval::typeDescription(item->type).toUtf8().constData()));
// apply item color, remembering that 1,1,1 means use default (reverse in this case)
QString color;
if (item->color == QColor(1,1,1,1)) {
// use the inverted color, not plot marker as that hideous
QColor col =GCColor::invertColor(GColor(CPLOTBACKGROUND));
// white is jarring on a dark background!
if (col==QColor(Qt::white)) col=QColor(127,127,127);
color = col.name();
} else
color = item->color.name();
PyList_SET_ITEM(colorlist, idx, PyUnicode_FromString(color.toUtf8().constData()));
// SELECTED
PyList_SET_ITEM(selectedlist, idx, PyBool_FromLong(item->selected));
idx++;
}
PyDict_SetItemString(dict, "start", startlist);
PyDict_SetItemString(dict, "stop", stoplist);
PyDict_SetItemString(dict, "name", namelist);
PyDict_SetItemString(dict, "type", typelist);
PyDict_SetItemString(dict, "color", colorlist);
PyDict_SetItemString(dict, "selected", selectedlist);
//
// METRICS
//
for(int i=0; i<factory.metricCount();i++) {
// set a list of metric values
PyObject* metriclist = PyList_New(intervals);
QString symbol = factory.metricName(i);
const RideMetric *metric = factory.rideMetric(symbol);
QString name = context->specialFields.internalName(factory.rideMetric(symbol)->name());
name = name.replace(" ","_");
name = name.replace("'","_");
bool useMetricUnits = context->athlete->useMetricUnits;
int index=0;
foreach(IntervalItem *item, ride->intervals()) {
if (type.isEmpty() || type == RideFileInterval::typeDescription(item->type))
PyList_SET_ITEM(metriclist, index++, PyFloat_FromDouble(item->metrics()[i] * (useMetricUnits ? 1.0f : metric->conversion()) + (useMetricUnits ? 0.0f : metric->conversionSum())));
}
// add to the dict
PyDict_SetItemString(dict, name.toUtf8().constData(), metriclist);
}
return dict;
}
PythonDataSeries*
Bindings::metrics(QString metric, bool all, QString filter) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL || context->athlete == NULL || context->athlete->rideCache == NULL) return NULL;
// how many rides to return if we're limiting to the
// currently selected date range ?
DateRange range = context->currentDateRange();
// apply any global filters
Specification specification;
FilterSet fs;
fs.addFilter(context->isfiltered, context->filters);
fs.addFilter(context->ishomefiltered, context->homeFilters);
// did call contain a filter?
if (filter != "") {
DataFilter dataFilter(python->chart, context);
QStringList files;
dataFilter.parseFilter(context, filter, &files);
fs.addFilter(true, files);
}
specification.setFilterSet(fs);
// we need to count rides that are in range...
int rides = 0;
foreach(RideItem *ride, context->athlete->rideCache->rides()) {
if (!specification.pass(ride)) continue;
if (all || range.pass(ride->dateTime.date())) rides++;
}
const RideMetricFactory &factory = RideMetricFactory::instance();
bool useMetricUnits = context->athlete->useMetricUnits;
for(int i=0; i<factory.metricCount();i++) {
QString symbol = factory.metricName(i);
const RideMetric *m = factory.rideMetric(symbol);
QString name = context->specialFields.internalName(factory.rideMetric(symbol)->name());
name = name.replace(" ","_");
name = name.replace("'","_");
if (name == metric) {
// found, set an array of metric values
PythonDataSeries* pds = new PythonDataSeries(name, rides);
int idx = 0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
if (!specification.pass(item)) continue;
if (all || range.pass(item->dateTime.date())) {
pds->data[idx++] = item->metrics()[i] * (useMetricUnits ? 1.0f : m->conversion()) + (useMetricUnits ? 0.0f : m->conversionSum());
}
}
// Done, return the series
return pds;
}
}
// Not found, nothing to return
return NULL;
}
PyObject*
Bindings::activityMeanmax(bool compare) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// want a list of compares
if (compare) {
// only return compares if its actually active
if (context->isCompareIntervals) {
// how many to return?
int count = 0;
foreach(CompareInterval p, context->compareIntervals) if (p.isChecked()) count++;
PyObject* list = PyList_New(count);
// create a dict for each and add to list as tuple (meanmax, color)
long idx = 0;
foreach(CompareInterval p, context->compareIntervals) {
if (p.isChecked()) {
// create a tuple (meanmax, color)
PyObject* tuple = Py_BuildValue("(Os)", activityMeanmax(p.rideItem), p.color.name().toUtf8().constData());
PyList_SET_ITEM(list, idx++, tuple);
}
}
return list;
} else { // compare isn't active...
// otherwise return the current meanmax in a compare list
if (context->currentRideItem()==NULL) return NULL;
PyObject* list = PyList_New(1);
PyObject* tuple = Py_BuildValue("(Os)", activityMeanmax(context->currentRideItem()), "#FF00FF");
PyList_SET_ITEM(list, 0, tuple);
return list;
}
} else {
// not compare, so just return a dict
RideItem *item = python->contexts.value(threadid()).item;
if (item == NULL) item = const_cast<RideItem*>(context->currentRideItem());
return activityMeanmax(item);
}
}
PyObject*
Bindings::seasonMeanmax(bool all, QString filter, bool compare) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// want a list of compares
if (compare && context) {
// only return compares if its actually active
if (context->isCompareDateRanges) {
// how many to return?
int count=0;
foreach(CompareDateRange p, context->compareDateRanges) if (p.isChecked()) count++;
// cool we can return a list of meanaxes to compare
PyObject* list = PyList_New(count);
int idx = 0;
// create a dict for each and add to list
foreach(CompareDateRange p, context->compareDateRanges) {
if (p.isChecked()) {
// create a tuple (meanmax, color)
PyObject* tuple = Py_BuildValue("(Os)", seasonMeanmax(all, DateRange(p.start, p.end), filter), p.color.name().toUtf8().constData());
// add to back and move on
PyList_SET_ITEM(list, idx++, tuple);
}
}
return list;
} else { // compare isn't active...
// otherwise return the current season meanmax in a compare list
PyObject* list = PyList_New(1);
// create a tuple (meanmax, color)
DateRange range = context->currentDateRange();
PyObject* tuple = Py_BuildValue("(Os)", seasonMeanmax(all, range, filter), "#FF00FF");
// add to back and move on
PyList_SET_ITEM(list, 0, tuple);
return list;
}
} else {
// just a datafram of meanmax
DateRange range = context->currentDateRange();
return seasonMeanmax(all, range, filter);
}
}
PyObject*
Bindings::seasonMeanmax(bool all, DateRange range, QString filter) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// construct the date range and then get a ridefilecache
if (all) range = DateRange(QDate(1900,01,01), QDate(2100,01,01));
// did call contain any filters?
QStringList filelist;
bool filt=false;
// if not empty write a filter
if (filter != "") {
DataFilter dataFilter(python->chart, context);
dataFilter.parseFilter(context, filter, &filelist);
filt=true;
}
// RideFileCache for a date range with our filters (if any)
RideFileCache cache(context, range.from, range.to, filt, filelist, false, NULL);
return rideFileCacheMeanmax(&cache);
}
PyObject*
Bindings::activityMeanmax(const RideItem* item) const
{
return rideFileCacheMeanmax(const_cast<RideItem*>(item)->fileCache());
}
PyObject*
Bindings::rideFileCacheMeanmax(RideFileCache* cache) const
{
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;// import datetime if necessary
if (cache == NULL) return NULL;
// we return a dict
PyObject* ans = PyDict_New();
//
// Now we need to add lists to the ans dict...
//
foreach(RideFile::SeriesType series, cache->meanMaxList()) {
QVector <double> values = cache->meanMaxArray(series);
// don't add empty ones but we always add power
if (series != RideFile::watts && values.count()==0) continue;
// set a list
PyObject* list = PyList_New(values.count());
// will have different sizes e.g. when a daterange
// since longest ride with e.g. power may be different
// to longest ride with heartrate
for(int j=0; j<values.count(); j++) PyList_SET_ITEM(list, j, PyFloat_FromDouble(values[j]));
// add to the dict
PyDict_SetItemString(ans, RideFile::seriesName(series, true).toUtf8().constData(), list);
// if is power add the dates
if(series == RideFile::watts) {
// dates
QVector<QDate> dates = cache->meanMaxDates(series);
PyObject* datelist = PyList_New(dates.count());
// will have different sizes e.g. when a daterange
// since longest ride with e.g. power may be different
// to longest ride with heartrate
for(int j=0; j<dates.count(); j++) {
// make sure its a valid date
if (j==0) dates[j] = QDate::currentDate();
PyList_SET_ITEM(datelist, j, PyDate_FromDate(dates[j].year(), dates[j].month(), dates[j].day()));
}
// add to the dict
PyDict_SetItemString(ans, "power_date", datelist);
}
}
// return a valid result
return ans;
}
PyObject*
Bindings::seasonPmc(bool all, QString metric) const
{
Context *context = python->contexts.value(threadid()).context;
// return a dict with PMC data for all or the current season
// XXX uses the default half-life
if (context) {
// import datetime if necessary
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;
// get the currently selected date range
DateRange range(context->currentDateRange());
// convert the name to a symbol, if not found just leave as it is
const RideMetricFactory &factory = RideMetricFactory::instance();
for (int i=0; i<factory.metricCount(); i++) {
QString symbol = factory.metricName(i);
QString name = context->specialFields.internalName(factory.rideMetric(symbol)->name());
name.replace(" ","_");
if (name == metric) {
metric = symbol;
break;
}
}
// create the data
PMCData pmcData(context, Specification(), metric);
// how many entries ?
unsigned int size = all ? pmcData.days() : range.from.daysTo(range.to) + 1;
// returning a dict with
// date, stress, lts, sts, sb, rr
PyObject* ans = PyDict_New();
// DATE - 1 a day from start
PyObject* datelist = PyList_New(size);
QDate start = all ? pmcData.start() : range.from;
for(unsigned int k=0; k<size; k++) {
QDate d = start.addDays(k);
PyList_SET_ITEM(datelist, k, PyDate_FromDate(d.year(), d.month(), d.day()));
}
// add to the dict
PyDict_SetItemString(ans, "date", datelist);
// PMC DATA
PyObject* stress = PyList_New(size);
PyObject* lts = PyList_New(size);
PyObject* sts = PyList_New(size);
PyObject* sb = PyList_New(size);
PyObject* rr = PyList_New(size);
if (all) {
// just copy
for(unsigned int k=0; k<size; k++) {
PyList_SET_ITEM(stress, k, PyFloat_FromDouble(pmcData.stress()[k]));
PyList_SET_ITEM(lts, k, PyFloat_FromDouble(pmcData.lts()[k]));
PyList_SET_ITEM(sts, k, PyFloat_FromDouble(pmcData.sts()[k]));
PyList_SET_ITEM(sb, k, PyFloat_FromDouble(pmcData.sb()[k]));
PyList_SET_ITEM(rr, k, PyFloat_FromDouble(pmcData.rr()[k]));
}
} else {
unsigned int index=0;
for(int k=0; k < pmcData.days(); k++) {
// day today
if (start.addDays(k) >= range.from && start.addDays(k) <= range.to) {
PyList_SET_ITEM(stress, index, PyFloat_FromDouble(pmcData.stress()[k]));
PyList_SET_ITEM(lts, index, PyFloat_FromDouble(pmcData.lts()[k]));
PyList_SET_ITEM(sts, index, PyFloat_FromDouble(pmcData.sts()[k]));
PyList_SET_ITEM(sb, index, PyFloat_FromDouble(pmcData.sb()[k]));
PyList_SET_ITEM(rr, index, PyFloat_FromDouble(pmcData.rr()[k]));
index++;
}
}
}
// add to the dict
PyDict_SetItemString(ans, "stress", stress);
PyDict_SetItemString(ans, "lts", lts);
PyDict_SetItemString(ans, "sts", sts);
PyDict_SetItemString(ans, "sb", sb);
PyDict_SetItemString(ans, "rr", rr);
// return it
return ans;
}
// nothing to return
return NULL;
}
PyObject*
Bindings::seasonMeasures(bool all, QString group) const
{
Context *context = python->contexts.value(threadid()).context;
// return a dict with Measures data for all or the current season
if (context && context->athlete && context->athlete->measures) {
// import datetime if necessary
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;
// get the currently selected date range
DateRange range(context->currentDateRange());
// convert the group symbol to an index, default to Body=0
int groupIdx = context->athlete->measures->getGroupSymbols().indexOf(group);
if (groupIdx < 0) groupIdx = 0;
// Update range for all
if (all) {
range.from = context->athlete->measures->getStartDate(groupIdx);
range.to = context->athlete->measures->getEndDate(groupIdx);
}
// how many entries ?
unsigned int size = range.from.daysTo(range.to) + 1;
// returning a dict with
// date, field1, field2, ...
PyObject* ans = PyDict_New();
// DATE - 1 a day from start
PyObject* datelist = PyList_New(size);
QDate start = range.from;
for(unsigned int k=0; k<size; k++) {
QDate d = start.addDays(k);
PyList_SET_ITEM(datelist, k, PyDate_FromDate(d.year(), d.month(), d.day()));
}
// add to the dict
PyDict_SetItemString(ans, "date", datelist);
// MEASURES DATA
QStringList fieldSymbols = context->athlete->measures->getFieldSymbols(groupIdx);
QVector<PyObject*> fields(fieldSymbols.count());
for (int i=0; i<fieldSymbols.count(); i++)
fields[i] = PyList_New(size);
unsigned int index = 0;
for(int k=0; k < size; k++) {
// day today
if (start.addDays(k) >= range.from && start.addDays(k) <= range.to) {
for (int fieldIdx=0; fieldIdx<fields.count(); fieldIdx++)
PyList_SET_ITEM(fields[fieldIdx], index, PyFloat_FromDouble(context->athlete->measures->getFieldValue(groupIdx, start.addDays(k), fieldIdx)));
index++;
}
}
// add to the dict
for (int fieldIdx=0; fieldIdx<fields.count(); fieldIdx++)
PyDict_SetItemString(ans, fieldSymbols[fieldIdx].toUtf8().constData(), fields[fieldIdx]);
// return it
return ans;
}
// nothing to return
return NULL;
}
PyObject*
Bindings::season(bool all, bool compare) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// import datetime if necessary
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;
// dict for season: color, name, start, end
// XXX TODO type needs adding, but we need to unpick the
// phase/season object model first, will do later
PyObject* ans = PyDict_New();
// worklist of date ranges to return
// XXX TODO use a Season worklist one the phase/season
// object model is fixed
QList<DateRange> worklist;
if (compare) {
// return a list, even if just one
if (context->isCompareDateRanges) {
foreach(CompareDateRange p, context->compareDateRanges)
worklist << DateRange(p.start, p.end, p.name, p.color);
} else {
// if compare not active just return current selection
worklist << context->currentDateRange();
}
} else if (all) {
// list all seasons
foreach(Season season, context->athlete->seasons->seasons) {
worklist << DateRange(season.start, season.end, season.name, QColor(127,127,127));
}
} else {
// just the currently selected season please
worklist << context->currentDateRange();
}
PyObject* start = PyList_New(worklist.count());
PyObject* end = PyList_New(worklist.count());
PyObject* name = PyList_New(worklist.count());
PyObject* color = PyList_New(worklist.count());
int index=0;
foreach(DateRange p, worklist){
PyList_SET_ITEM(start, index, PyDate_FromDate(p.from.year(), p.from.month(), p.from.day()));
PyList_SET_ITEM(end, index, PyDate_FromDate(p.to.year(), p.to.month(), p.to.day()));
PyList_SET_ITEM(name, index, PyUnicode_FromString(p.name.toUtf8().constData()));
PyList_SET_ITEM(color, index, PyUnicode_FromString(p.color.name().toUtf8().constData()));
index++;
}
// list into a data.frame
PyDict_SetItemString(ans, "start", start);
PyDict_SetItemString(ans, "end", end);
PyDict_SetItemString(ans, "name", name);
PyDict_SetItemString(ans, "color", color);
// return it
return ans;
}
PyObject*
Bindings::seasonPeaks(QString series, int duration, bool all, QString filter, bool compare) const
{
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// lets get a Map of names to series
QMap<QString, RideFile::SeriesType> snames;
foreach(RideFile::SeriesType s, RideFileCache::meanMaxList()) {
snames.insert(RideFile::seriesName(s, true), s);
}
// extract as QStrings
QList<RideFile::SeriesType> seriesList;
RideFile::SeriesType stype;
if ((stype=snames.value(series, RideFile::none)) == RideFile::none)
return NULL;
else
seriesList << stype;
// extract as integers
QList<int>durations;
if (duration <= 0)
return NULL;
else
durations << duration;
// want a list of compares not a dataframe
if (compare) {
// only return compares if its actually active
if (context->isCompareDateRanges) {
// how many to return?
int count=0;
foreach(CompareDateRange p, context->compareDateRanges) if (p.isChecked()) count++;
// cool we can return a list of intervals to compare
PyObject* list = PyList_New(count);
int idx = 0;
// create a dict for each and add to list
foreach(CompareDateRange p, context->compareDateRanges) {
if (p.isChecked()) {
// create a tuple (peaks, color)
PyObject* tuple = Py_BuildValue("(Os)", seasonPeaks(all, DateRange(p.start, p.end), filter, seriesList, durations), p.color.name().toUtf8().constData());
// add to back and move on
PyList_SET_ITEM(list, idx++, tuple);
}
}
return list;
} else { // compare isn't active...
// otherwise return the current season meanmax in a compare list
PyObject* list = PyList_New(1);
// create a tuple (peaks, color)
DateRange range = context->currentDateRange();
PyObject* tuple = Py_BuildValue("(Os)", seasonPeaks(all, range, filter, seriesList, durations), "#FF00FF");
// add to back and move on
PyList_SET_ITEM(list, 0, tuple);
return list;
}
} else if (context->athlete && context->athlete->rideCache) {
// just a dict of peaks
DateRange range = context->currentDateRange();
return seasonPeaks(all, range, filter, seriesList, durations);
}
// fail
return NULL;
}
PyObject*
Bindings::seasonPeaks(bool all, DateRange range, QString filter, QList<RideFile::SeriesType> series, QList<int> durations) const
{
if (PyDateTimeAPI == NULL) PyDateTime_IMPORT;// import datetime if necessary
Context *context = python->contexts.value(threadid()).context;
if (context == NULL) return NULL;
// we return a dict
PyObject* ans = PyDict_New();
if (ans == NULL) return NULL;
// how many rides ?
Specification specification;
FilterSet fs;
fs.addFilter(context->isfiltered, context->filters);
fs.addFilter(context->ishomefiltered, context->homeFilters);
specification.setFilterSet(fs);
// did call contain any filters?
if (filter != "") {
DataFilter dataFilter(python->chart, context);
QStringList files;
dataFilter.parseFilter(context, filter, &files);
fs.addFilter(true, files);
}
specification.setFilterSet(fs);
// how many pass?
int size=0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
// apply filters
if (!specification.pass(item)) continue;
// do we want this one ?
if (all || range.pass(item->dateTime.date())) size++;
}
// dates first
PyObject* datetimelist = PyList_New(size);
// fill with values for date
int i=0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
// apply filters
if (!specification.pass(item)) continue;
if (all || range.pass(item->dateTime.date())) {
// add datetime to the list
QDate d = item->dateTime.date();
QTime t = item->dateTime.time();
PyList_SET_ITEM(datetimelist, i++, PyDateTime_FromDateAndTime(d.year(), d.month(), d.day(), t.hour(), t.minute(), t.second(), t.msec()*10));
}
}
// add to the dict
PyDict_SetItemString(ans, "datetime", datetimelist);
foreach(RideFile::SeriesType pseries, series) {
foreach(int pduration, durations) {
// set a list
PyObject* list = PyList_New(size);
// give it a name
QString name = QString("peak_%1_%2").arg(RideFile::seriesName(pseries, true)).arg(pduration);
// fill with values
// get the value for the series and duration requested, although this is called
int index=0;
foreach(RideItem *item, context->athlete->rideCache->rides()) {
// apply filters
if (!specification.pass(item)) continue;
// do we want this one ?
if (all || range.pass(item->dateTime.date())) {
// for each series/duration independently its pretty quick since it lseeks to
// the actual value, so /should't/ be too expensive.........
PyList_SET_ITEM(list, index++, PyFloat_FromDouble(RideFileCache::best(item->context, item->fileName, pseries, pduration)));
}
}
// add to the dict
PyDict_SetItemString(ans, name.toUtf8().constData(), list);
}
}
return ans;
}