use of com.eveningoutpost.dexdrip.Models.BloodTest in project xDrip-plus by jamorham.
the class ListenerService method syncBloodTestData.
private synchronized void syncBloodTestData(DataMap dataMap, Context context) {
// KS
Log.d(TAG, "syncBloodTestData");
boolean changed = false;
ArrayList<DataMap> entries = dataMap.getDataMapArrayList("entries");
if (entries != null) {
Gson gson = new GsonBuilder().excludeFieldsWithoutExposeAnnotation().registerTypeAdapter(Date.class, new DateTypeAdapter()).serializeSpecialFloatingPointValues().create();
Log.d(TAG, "syncBloodTestData add BloodTest Table entries count=" + entries.size());
// ensure database has already been initialized
Sensor.InitDb(context);
for (DataMap entry : entries) {
if (entry != null) {
String record = entry.getString("data");
if (record != null) {
BloodTest data = gson.fromJson(record, BloodTest.class);
BloodTest exists = BloodTest.byUUID(data.uuid);
if (exists != null) {
Log.d(TAG, "syncBloodTestData save existing BloodTest for uuid=" + data.uuid + " timestamp=" + data.timestamp + " timeString=" + JoH.dateTimeText(data.timestamp) + " mgdl=" + data.mgdl + " state=" + data.state);
if (exists.mgdl != data.mgdl || exists.state != data.state || exists.timestamp != data.timestamp) {
// state indicates if deleted
changed = true;
}
exists.mgdl = data.mgdl;
exists.created_timestamp = data.created_timestamp;
exists.source = data.source;
exists.state = data.state;
exists.timestamp = data.timestamp;
exists.save();
} else {
changed = true;
data.save();
Log.d(TAG, "syncBloodTestData create new BloodTest for uuid=" + data.uuid + " timestamp=" + data.timestamp + " timeString=" + JoH.dateTimeText(data.timestamp) + " mgdl=" + data.mgdl + " state=" + data.state);
}
}
}
}
if (changed) {
showTreatments(context, "bts");
}
}
}
use of com.eveningoutpost.dexdrip.Models.BloodTest in project xDrip-plus by jamorham.
the class BloodTestTable method getData.
private void getData() {
UserError.Log.d(TAG, "getData");
// 3 days
final long startTime = new Date().getTime() - (60000 * 60 * 24 * 3);
final List<BloodTest> latest = BloodTest.latestForGraph(60, startTime);
ListAdapter adapter = new thisAdapter(this, latest);
this.setListAdapter(adapter);
String msg = "";
int size = 0;
if (latest != null)
size = latest.size();
if (size == 0) {
msg = getResources().getString(R.string.notify_table_size, "BloodTest", size);
JoH.static_toast(xdrip.getAppContext(), msg, Toast.LENGTH_SHORT);
}
}
use of com.eveningoutpost.dexdrip.Models.BloodTest in project xDrip-plus by jamorham.
the class BgGraphBuilder method addBgReadingValues.
private synchronized void addBgReadingValues(final boolean simple) {
if (readings_lock.isLocked()) {
Log.d(TAG, "BgReadings lock is currently held");
}
readings_lock.lock();
try {
if (plugin_adjusted) {
Log.i(TAG, "Reloading as Plugin modified data: " + JoH.backTrace(1) + " size:" + bgReadings.size());
bgReadings.clear();
bgReadings.addAll(BgReading.latestForGraph(loaded_numValues, loaded_start, loaded_end));
} else {
// Log.d(TAG, "not adjusted");
}
filteredValues.clear();
rawInterpretedValues.clear();
iobValues.clear();
activityValues.clear();
cobValues.clear();
predictedBgValues.clear();
polyBgValues.clear();
noisePolyBgValues.clear();
annotationValues.clear();
treatmentValues.clear();
highValues.clear();
lowValues.clear();
inRangeValues.clear();
calibrationValues.clear();
bloodTestValues.clear();
pluginValues.clear();
final double bgScale = bgScale();
final double now = JoH.ts();
// most recent bgreading timestamp we have
long highest_bgreading_timestamp = -1;
// 10 minutes // TODO MAKE PREFERENCE?
double trend_start_working = now - (1000 * 60 * 12);
if (bgReadings.size() > 0) {
highest_bgreading_timestamp = bgReadings.get(0).timestamp;
final double ms_since_last_reading = now - highest_bgreading_timestamp;
if (ms_since_last_reading < 500000) {
// push back start of trend calc window
trend_start_working -= ms_since_last_reading;
Log.d(TAG, "Pushed back trend start by: " + JoH.qs(ms_since_last_reading / 1000) + " secs - last reading: " + JoH.dateTimeText(highest_bgreading_timestamp));
}
}
final double trendstart = trend_start_working;
// 20 minutes // TODO MAKE PREFERENCE
final double noise_trendstart = now - (1000 * 60 * 20);
double oldest_noise_timestamp = now;
double newest_noise_timestamp = 0;
TrendLine[] polys = new TrendLine[5];
polys[0] = new PolyTrendLine(1);
// polys[1] = new PolyTrendLine(2);
polys[1] = new Forecast.LogTrendLine();
polys[2] = new Forecast.ExpTrendLine();
polys[3] = new Forecast.PowerTrendLine();
TrendLine poly = null;
final List<Double> polyxList = new ArrayList<>();
final List<Double> polyyList = new ArrayList<>();
final List<Double> noise_polyxList = new ArrayList<>();
final List<Double> noise_polyyList = new ArrayList<>();
// 8 hours
final double avg1start = now - (1000 * 60 * 60 * 8);
// 8 hours
final double momentum_illustration_start = now - (1000 * 60 * 60 * 2);
avg1startfuzzed = avg1start / FUZZER;
avg1value = 0;
avg1counter = 0;
avg2value = 0;
avg2counter = 0;
double last_calibration = 0;
double last_bloodtest = 0;
if (doMgdl) {
Profile.scale_factor = Constants.MMOLL_TO_MGDL;
} else {
Profile.scale_factor = 1;
}
final long close_to_side_time = (long) (end_time * FUZZER) - (Constants.MINUTE_IN_MS * 10);
// enumerate calibrations
try {
for (Calibration calibration : calibrations) {
if (calibration.timestamp < (start_time * FUZZER))
break;
if (calibration.slope_confidence != 0) {
final long adjusted_timestamp = (calibration.timestamp + (AddCalibration.estimatedInterstitialLagSeconds * 1000));
final PointValueExtended this_point = new PointValueExtended((float) (adjusted_timestamp / FUZZER), (float) unitized(calibration.bg));
if (adjusted_timestamp >= close_to_side_time) {
predictivehours = Math.max(predictivehours, 1);
}
this_point.real_timestamp = calibration.timestamp;
calibrationValues.add(this_point);
if (calibration.timestamp > last_calibration) {
last_calibration = calibration.timestamp;
}
}
}
} catch (Exception e) {
Log.e(TAG, "Exception doing calibration values in bggraphbuilder: " + e.toString());
}
// enumerate blood tests
try {
for (BloodTest bloodtest : bloodtests) {
final long adjusted_timestamp = (bloodtest.timestamp + (AddCalibration.estimatedInterstitialLagSeconds * 1000));
final PointValueExtended this_point = new PointValueExtended((float) (adjusted_timestamp / FUZZER), (float) unitized(bloodtest.mgdl));
this_point.type = PointValueExtended.BloodTest;
this_point.uuid = bloodtest.uuid;
this_point.real_timestamp = bloodtest.timestamp;
// exclude any which have been used for calibration
boolean matches = false;
for (PointValue calibration_point : calibrationValues) {
if ((Math.abs(calibration_point.getX() - this_point.getX())) <= ((AddCalibration.estimatedInterstitialLagSeconds * 1000) / FUZZER) && (calibration_point.getY() == calibration_point.getY())) {
matches = true;
break;
}
}
if (!matches)
bloodTestValues.add(this_point);
if (bloodtest.timestamp > last_bloodtest) {
last_bloodtest = bloodtest.timestamp;
}
if (adjusted_timestamp >= close_to_side_time) {
predictivehours = Math.max(predictivehours, 1);
}
}
} catch (Exception e) {
Log.e(TAG, "Exception doing calibration values in bggraphbuilder: " + e.toString());
}
final boolean has_filtered = DexCollectionType.hasFiltered();
final boolean predict_use_momentum = prefs.getBoolean("predict_use_momentum", true);
final boolean show_moment_working_line = prefs.getBoolean("show_momentum_working_line", false);
final boolean interpret_raw = prefs.getBoolean("interpret_raw", false);
final boolean show_filtered = prefs.getBoolean("show_filtered_curve", false) && has_filtered;
final boolean predict_lows = prefs.getBoolean("predict_lows", true);
final boolean show_plugin = prefs.getBoolean("plugin_plot_on_graph", false);
final boolean glucose_from_plugin = prefs.getBoolean("display_glucose_from_plugin", false);
if ((Home.get_follower()) && (bgReadings.size() < 3)) {
GcmActivity.requestBGsync();
}
final CalibrationAbstract plugin = (show_plugin) ? PluggableCalibration.getCalibrationPluginFromPreferences() : null;
CalibrationAbstract.CalibrationData cd = (plugin != null) ? plugin.getCalibrationData() : null;
int cdposition = 0;
if ((glucose_from_plugin) && (cd != null)) {
// plugin will be adjusting data
plugin_adjusted = true;
}
for (final BgReading bgReading : bgReadings) {
if ((cd != null) && (calibrations.size() > 0)) {
while ((bgReading.timestamp < calibrations.get(cdposition).timestamp) || (calibrations.get(cdposition).slope == 0)) {
Log.d(TAG, "BG reading earlier than calibration at index: " + cdposition + " " + JoH.dateTimeText(bgReading.timestamp) + " cal: " + JoH.dateTimeText(calibrations.get(cdposition).timestamp));
if (cdposition < calibrations.size() - 1) {
cdposition++;
// cd = (plugin != null) ? plugin.getCalibrationData(calibrations.get(cdposition).timestamp) : null;
final CalibrationAbstract.CalibrationData oldcd = cd;
cd = plugin.getCalibrationData(calibrations.get(cdposition).timestamp);
if (cd == null) {
Log.d(TAG, "cd went to null during adjustment - likely graph spans multiple sensors");
cd = oldcd;
}
Log.d(TAG, "Now using calibration from: " + JoH.dateTimeText(calibrations.get(cdposition).timestamp) + " slope: " + cd.slope + " intercept: " + cd.intercept);
} else {
Log.d(TAG, "No more calibrations to choose from");
break;
}
}
}
// swap main and plugin plot if display glucose is from plugin
if ((glucose_from_plugin) && (cd != null)) {
pluginValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(bgReading.calculated_value)));
// recalculate from plugin - beware floating / cached references!
bgReading.calculated_value = plugin.getGlucoseFromBgReading(bgReading, cd);
bgReading.filtered_calculated_value = plugin.getGlucoseFromFilteredBgReading(bgReading, cd);
}
if ((show_filtered) && (bgReading.filtered_calculated_value > 0) && (bgReading.filtered_calculated_value != bgReading.calculated_value)) {
filteredValues.add(new PointValue((float) ((bgReading.timestamp - timeshift) / FUZZER), (float) unitized(bgReading.filtered_calculated_value)));
}
if ((interpret_raw && (bgReading.raw_calculated > 0))) {
rawInterpretedValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(bgReading.raw_calculated)));
}
if ((!glucose_from_plugin) && (plugin != null) && (cd != null)) {
pluginValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(plugin.getGlucoseFromBgReading(bgReading, cd))));
}
if (bgReading.calculated_value >= 400) {
highValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(400)));
} else if (unitized(bgReading.calculated_value) >= highMark) {
highValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(bgReading.calculated_value)));
} else if (unitized(bgReading.calculated_value) >= lowMark) {
inRangeValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(bgReading.calculated_value)));
} else if (bgReading.calculated_value >= 40) {
lowValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(bgReading.calculated_value)));
} else if (bgReading.calculated_value > 13) {
lowValues.add(new PointValue((float) (bgReading.timestamp / FUZZER), (float) unitized(40)));
}
avg2counter++;
avg2value += bgReading.calculated_value;
if (bgReading.timestamp > avg1start) {
avg1counter++;
avg1value += bgReading.calculated_value;
}
// noise calculator
if ((!simple || (noise_processed_till_timestamp < highest_bgreading_timestamp)) && (bgReading.timestamp > noise_trendstart) && (bgReading.timestamp > last_calibration)) {
if (has_filtered && (bgReading.filtered_calculated_value > 0) && (bgReading.filtered_calculated_value != bgReading.calculated_value)) {
final double shifted_timestamp = bgReading.timestamp - timeshift;
if (shifted_timestamp > last_calibration) {
if (shifted_timestamp < oldest_noise_timestamp)
oldest_noise_timestamp = shifted_timestamp;
noise_polyxList.add(shifted_timestamp);
noise_polyyList.add((bgReading.filtered_calculated_value));
if (d)
Log.d(TAG, "flt noise poly Added: " + noise_polyxList.size() + " " + JoH.qs(noise_polyxList.get(noise_polyxList.size() - 1)) + " / " + JoH.qs(noise_polyyList.get(noise_polyyList.size() - 1), 2));
}
}
if (bgReading.calculated_value > 0) {
if (bgReading.timestamp < oldest_noise_timestamp)
oldest_noise_timestamp = bgReading.timestamp;
if (bgReading.timestamp > newest_noise_timestamp) {
newest_noise_timestamp = bgReading.timestamp;
original_value = bgReading.calculated_value;
}
noise_polyxList.add((double) bgReading.timestamp);
noise_polyyList.add((bgReading.calculated_value));
if (d)
Log.d(TAG, "raw noise poly Added: " + noise_polyxList.size() + " " + JoH.qs(noise_polyxList.get(noise_polyxList.size() - 1)) + " / " + JoH.qs(noise_polyyList.get(noise_polyyList.size() - 1), 2));
}
}
// momentum trend
if (!simple && (bgReading.timestamp > trendstart) && (bgReading.timestamp > last_calibration)) {
if (has_filtered && (bgReading.filtered_calculated_value > 0) && (bgReading.filtered_calculated_value != bgReading.calculated_value)) {
polyxList.add((double) bgReading.timestamp - timeshift);
polyyList.add(unitized(bgReading.filtered_calculated_value));
}
if (bgReading.calculated_value > 0) {
polyxList.add((double) bgReading.timestamp);
polyyList.add(unitized(bgReading.calculated_value));
}
if (d)
Log.d(TAG, "poly Added: " + JoH.qs(polyxList.get(polyxList.size() - 1)) + " / " + JoH.qs(polyyList.get(polyyList.size() - 1), 2));
}
}
if (avg1counter > 0) {
avg1value = avg1value / avg1counter;
}
if (avg2counter > 0) {
avg2value = avg2value / avg2counter;
}
// always calculate noise if needed
if (noise_processed_till_timestamp < highest_bgreading_timestamp) {
// noise evaluate
Log.d(TAG, "Noise: Processing new data for noise: " + JoH.dateTimeText(noise_processed_till_timestamp) + " vs now: " + JoH.dateTimeText(highest_bgreading_timestamp));
try {
if (d)
Log.d(TAG, "noise Poly list size: " + noise_polyxList.size());
// TODO Impossible to satisfy noise evaluation size with only raw data do we want it with raw only??
if (noise_polyxList.size() > 5) {
noisePoly = new PolyTrendLine(2);
final double[] noise_polyys = PolyTrendLine.toPrimitiveFromList(noise_polyyList);
final double[] noise_polyxs = PolyTrendLine.toPrimitiveFromList(noise_polyxList);
noisePoly.setValues(noise_polyys, noise_polyxs);
last_noise = noisePoly.errorVarience();
if (newest_noise_timestamp > oldest_noise_timestamp) {
best_bg_estimate = noisePoly.predict(newest_noise_timestamp);
last_bg_estimate = noisePoly.predict(newest_noise_timestamp - DEXCOM_PERIOD);
} else {
best_bg_estimate = -99;
last_bg_estimate = -99;
}
Log.i(TAG, "Noise: Poly Error Varience: " + JoH.qs(last_noise, 5));
} else {
Log.i(TAG, "Noise: Not enough data to get sensible noise value");
noisePoly = null;
last_noise = -9999;
best_bg_estimate = -9999;
last_bg_estimate = -9999;
}
// store that we have processed up to this timestamp
noise_processed_till_timestamp = highest_bgreading_timestamp;
} catch (Exception e) {
Log.e(TAG, " Error with noise poly trend: " + e.toString());
}
} else {
Log.d(TAG, "Noise Cached noise timestamp: " + JoH.dateTimeText(noise_processed_till_timestamp));
}
if (!simple) {
// momentum
try {
if (d)
Log.d(TAG, "moment Poly list size: " + polyxList.size());
if (polyxList.size() > 1) {
final double[] polyys = PolyTrendLine.toPrimitiveFromList(polyyList);
final double[] polyxs = PolyTrendLine.toPrimitiveFromList(polyxList);
// set and evaluate poly curve models and select first best
double min_errors = 9999999;
for (TrendLine this_poly : polys) {
if (this_poly != null) {
if (poly == null)
poly = this_poly;
this_poly.setValues(polyys, polyxs);
if (this_poly.errorVarience() < min_errors) {
min_errors = this_poly.errorVarience();
poly = this_poly;
// if (d) Log.d(TAG, "set forecast best model to: " + poly.getClass().getSimpleName() + " with varience of: " + JoH.qs(poly.errorVarience(),14));
}
}
}
if (d)
Log.i(TAG, "set forecast best model to: " + poly.getClass().getSimpleName() + " with varience of: " + JoH.qs(poly.errorVarience(), 4));
} else {
if (d)
Log.i(TAG, "Not enough data for forecast model");
}
} catch (Exception e) {
Log.e(TAG, " Error with poly trend: " + e.toString());
}
try {
// show trend for whole bg reading area
if ((show_moment_working_line) && (poly != null)) {
for (BgReading bgReading : bgReadings) {
// only show working curve for last x hours to a
if (bgReading.timestamp > momentum_illustration_start) {
double polyPredicty = poly.predict(bgReading.timestamp);
// if (d) Log.d(TAG, "Poly predict: "+JoH.qs(polyPredict)+" @ "+JoH.qs(iob.timestamp));
if ((polyPredicty < highMark) && (polyPredicty > 0)) {
PointValue zv = new PointValue((float) (bgReading.timestamp / FUZZER), (float) polyPredicty);
polyBgValues.add(zv);
}
}
}
}
} catch (Exception e) {
Log.e(TAG, "Error creating back trend: " + e.toString());
}
// low estimator
// work backwards to see whether we think a low is estimated
low_occurs_at = -1;
try {
if ((predict_lows) && (prediction_enabled) && (poly != null)) {
final double offset = ActivityRecognizedService.raise_limit_due_to_vehicle_mode() ? unitized(ActivityRecognizedService.getVehicle_mode_adjust_mgdl()) : 0;
final double plow_now = JoH.ts();
// max look-ahead
double plow_timestamp = plow_now + (1000 * 60 * 99);
double polyPredicty = poly.predict(plow_timestamp);
Log.d(TAG, "Low predictor at max lookahead is: " + JoH.qs(polyPredicty));
// store that we have processed up to this timestamp
low_occurs_at_processed_till_timestamp = highest_bgreading_timestamp;
if (polyPredicty <= (lowMark + offset)) {
low_occurs_at = plow_timestamp;
final double lowMarkIndicator = (lowMark - (lowMark / 4));
// if (d) Log.d(TAG, "Poly predict: "+JoH.qs(polyPredict)+" @ "+JoH.qsz(iob.timestamp));
while (plow_timestamp > plow_now) {
plow_timestamp = plow_timestamp - FUZZER;
polyPredicty = poly.predict(plow_timestamp);
if (polyPredicty > (lowMark + offset)) {
PointValue zv = new PointValue((float) (plow_timestamp / FUZZER), (float) polyPredicty);
polyBgValues.add(zv);
} else {
low_occurs_at = plow_timestamp;
if (polyPredicty > lowMarkIndicator) {
polyBgValues.add(new PointValue((float) (plow_timestamp / FUZZER), (float) polyPredicty));
}
}
}
Log.i(TAG, "LOW PREDICTED AT: " + JoH.dateTimeText((long) low_occurs_at));
predictivehours = Math.max(predictivehours, (int) ((low_occurs_at - plow_now) / (60 * 60 * 1000)) + 1);
}
}
} catch (NullPointerException e) {
// Log.d(TAG,"Error with low prediction trend: "+e.toString());
}
final boolean show_noise_working_line;
if (last_noise > NOISE_TRIGGER || (last_noise > BgGraphBuilder.NOISE_TRIGGER_ULTRASENSITIVE && Pref.getBooleanDefaultFalse("engineering_mode") && Pref.getBooleanDefaultFalse("bg_compensate_noise_ultrasensitive"))) {
show_noise_working_line = true;
} else {
show_noise_working_line = prefs.getBoolean("show_noise_workings", false);
}
// noise debug
try {
// overlay noise curve
if ((show_noise_working_line) && (prediction_enabled) && (noisePoly != null)) {
for (BgReading bgReading : bgReadings) {
// only show working curve for last x hours to a
if ((bgReading.timestamp > oldest_noise_timestamp) && (bgReading.timestamp > last_calibration)) {
double polyPredicty = unitized(noisePoly.predict(bgReading.timestamp));
if (d)
Log.d(TAG, "noise Poly predict: " + JoH.qs(polyPredicty) + " @ " + JoH.qs(bgReading.timestamp));
if ((polyPredicty < highMark) && (polyPredicty > 0)) {
PointValue zv = new PointValue((float) (bgReading.timestamp / FUZZER), (float) polyPredicty);
noisePolyBgValues.add(zv);
}
}
}
}
} catch (Exception e) {
Log.e(TAG, "Error creating noise working trend: " + e.toString());
}
try {
// display treatment blobs and annotations
for (Treatments treatment : treatments) {
double height = 6 * bgScale;
if (treatment.insulin > 0)
// some scaling needed I think
height = treatment.insulin;
if (height > highMark)
height = highMark;
if (height < lowMark)
height = lowMark;
final PointValueExtended pv = new PointValueExtended((float) (treatment.timestamp / FUZZER), (float) height);
String mylabel = "";
if (treatment.insulin > 0) {
if (mylabel.length() > 0)
mylabel = mylabel + System.getProperty("line.separator");
mylabel = mylabel + (JoH.qs(treatment.insulin, 2) + "u").replace(".0u", "u");
}
if (treatment.carbs > 0) {
if (mylabel.length() > 0)
mylabel = mylabel + System.getProperty("line.separator");
mylabel = mylabel + (JoH.qs(treatment.carbs, 1) + "g").replace(".0g", "g");
}
// standard label
pv.setLabel(mylabel);
// Log.d(TAG, "watchkeypad pv.mylabel: " + mylabel);
if ((treatment.notes != null) && (treatment.notes.length() > 0)) {
pv.note = treatment.notes;
// Log.d(TAG, "watchkeypad pv.note: " + pv.note + " mylabel: " + mylabel);
try {
final Pattern p = Pattern.compile(".*?pos:([0-9.]+).*");
final Matcher m = p.matcher(treatment.enteredBy);
if (m.matches()) {
pv.set(pv.getX(), (float) JoH.tolerantParseDouble(m.group(1)));
}
} catch (Exception e) {
Log.d(TAG, "Exception matching position: " + e);
}
} else {
pv.note = treatment.getBestShortText();
}
if (treatmentValues.size() > 0) {
// not sure if this >1 is right really - needs a review
PointValue lastpv = treatmentValues.get(treatmentValues.size() - 1);
if (Math.abs(lastpv.getX() - pv.getX()) < ((10 * 60 * 1000) / FUZZER)) {
// merge label with previous - Intelligent parsing and additions go here
if (d)
Log.d(TAG, "Merge treatment difference: " + Float.toString(lastpv.getX() - pv.getX()));
String lastlabel = String.valueOf(lastpv.getLabelAsChars());
if (lastlabel.length() > 0) {
lastpv.setLabel(lastlabel + "+" + mylabel);
pv.setLabel("");
}
}
}
// hover
treatmentValues.add(pv);
if (d)
Log.d(TAG, "Treatment total record: " + Double.toString(height) + " " + " timestamp: " + Long.toString(treatment.timestamp));
}
} catch (Exception e) {
Log.e(TAG, "Exception doing treatment values in bggraphbuilder: " + e.toString());
}
try {
// we need to check we actually have sufficient data for this
double predictedbg = -1000;
BgReading mylastbg = bgReadings.get(0);
double lasttimestamp = 0;
// this can be optimised to oncreate and onchange
// TODO handle this better now we use profile time blocks
Profile.reloadPreferencesIfNeeded(prefs);
try {
if (mylastbg != null) {
if (doMgdl) {
predictedbg = mylastbg.calculated_value;
} else {
predictedbg = mylastbg.calculated_value_mmol();
}
// if (d) Log.d(TAG, "Starting prediction with bg of: " + JoH.qs(predictedbg));
lasttimestamp = mylastbg.timestamp / FUZZER;
if (d)
Log.d(TAG, "Starting prediction with bg of: " + JoH.qs(predictedbg) + " secs ago: " + (JoH.ts() - mylastbg.timestamp) / 1000);
} else {
Log.i(TAG, "COULD NOT GET LAST BG READING FOR PREDICTION!!!");
}
} catch (Exception e) {
// could not get a bg reading
}
final double iobscale = 1 * bgScale;
final double cobscale = 0.2 * bgScale;
final double initial_predicted_bg = predictedbg;
final double relaxed_predicted_bg_limit = initial_predicted_bg * 1.20;
final double cob_insulin_max_draw_value = highMark * 1.20;
// final List<Iob> iobinfo_old = Treatments.ioBForGraph(numValues, (start_time * FUZZER));
// for test
final List<Iob> iobinfo = (simulation_enabled) ? Treatments.ioBForGraph_new(NUM_VALUES, (start_time * FUZZER)) : null;
// initial value in case there are no iob records
long fuzzed_timestamp = (long) end_time;
if (d)
Log.d(TAG, "Internal date timestamp: " + android.text.format.DateFormat.format("yyyy-MM-dd HH:mm:ss", new java.util.Date()));
if (d)
Log.d(TAG, "initial Fuzzed end timestamp: " + android.text.format.DateFormat.format("yyyy-MM-dd HH:mm:ss", fuzzed_timestamp * FUZZER));
if (d)
Log.d(TAG, "initial Fuzzed start timestamp: " + android.text.format.DateFormat.format("yyyy-MM-dd HH:mm:ss", (long) start_time * FUZZER));
if ((iobinfo != null) && (prediction_enabled) && (simulation_enabled)) {
double predict_weight = 0.1;
boolean iob_shown_already = false;
for (Iob iob : iobinfo) {
// double activity = iob.activity;
if ((iob.iob > 0) || (iob.cob > 0) || (iob.jActivity > 0) || (iob.jCarbImpact > 0)) {
fuzzed_timestamp = iob.timestamp / FUZZER;
if (d)
Log.d(TAG, "iob timestamp: " + iob.timestamp);
if (iob.iob > Profile.minimum_shown_iob) {
double height = iob.iob * iobscale;
if (height > cob_insulin_max_draw_value)
height = cob_insulin_max_draw_value;
PointValue pv = new PointValue((float) fuzzed_timestamp, (float) height);
iobValues.add(pv);
// currently scaled by profile
double activityheight = iob.jActivity * 3;
if (activityheight > cob_insulin_max_draw_value)
activityheight = cob_insulin_max_draw_value;
PointValue av = new PointValue((float) fuzzed_timestamp, (float) activityheight);
activityValues.add(av);
}
if (iob.cob > 0) {
double height = iob.cob * cobscale;
if (height > cob_insulin_max_draw_value)
height = cob_insulin_max_draw_value;
PointValue pv = new PointValue((float) fuzzed_timestamp, (float) height);
if (d)
Log.d(TAG, "Cob total record: " + JoH.qs(height) + " " + JoH.qs(iob.cob) + " " + Float.toString(pv.getY()) + " @ timestamp: " + Long.toString(iob.timestamp));
// warning should not be hardcoded
cobValues.add(pv);
}
// do we actually need to calculate this within the loop - can we use only the last datum?
if (fuzzed_timestamp > (lasttimestamp)) {
double polyPredict = 0;
if (poly != null) {
try {
polyPredict = poly.predict(iob.timestamp);
if (d)
Log.d(TAG, "Poly predict: " + JoH.qs(polyPredict) + " @ " + JoH.dateTimeText(iob.timestamp));
if (show_moment_working_line) {
if (((polyPredict < highMark) || (polyPredict < initial_predicted_bg)) && (polyPredict > 0)) {
PointValue zv = new PointValue((float) fuzzed_timestamp, (float) polyPredict);
polyBgValues.add(zv);
}
}
} catch (Exception e) {
Log.e(TAG, "Got exception with poly predict: " + e.toString());
}
}
if (d)
Log.d(TAG, "Processing prediction: before: " + JoH.qs(predictedbg) + " activity: " + JoH.qs(iob.jActivity) + " jcarbimpact: " + JoH.qs(iob.jCarbImpact));
// lower bg by current insulin activity
predictedbg -= iob.jActivity;
predictedbg += iob.jCarbImpact;
double predictedbg_final = predictedbg;
// add momentum characteristics if we have them
final boolean momentum_smoothing = true;
if ((predict_use_momentum) && (polyPredict > 0)) {
predictedbg_final = ((predictedbg * predict_weight) + polyPredict) / (predict_weight + 1);
if (momentum_smoothing)
predictedbg = predictedbg_final;
if (d)
Log.d(TAG, "forecast predict_weight: " + JoH.qs(predict_weight));
}
// from 0-infinity - // TODO account for step!!!
predict_weight = predict_weight * 2.5;
// we should pull in actual graph upper and lower limits here
if (((predictedbg_final < cob_insulin_max_draw_value) || (predictedbg_final < relaxed_predicted_bg_limit)) && (predictedbg_final > 0)) {
PointValue zv = new PointValue((float) fuzzed_timestamp, (float) predictedbg_final);
predictedBgValues.add(zv);
}
}
if (fuzzed_timestamp > end_time) {
// round up to nearest future hour - timestamps in minutes here
predictivehours = (int) (((fuzzed_timestamp - end_time) * FUZZER) / (1000 * 60 * 60)) + 1;
if (d)
Log.d(TAG, "Predictive hours updated to: " + predictivehours);
} else {
// KS Log.d(TAG, "IOB DEBUG: " + (fuzzed_timestamp - end_time) + " " + iob.iob);
if (!iob_shown_already && (Math.abs(fuzzed_timestamp - end_time) < 5) && (iob.iob > 0)) {
iob_shown_already = true;
// show current iob
// double position = 12.4 * bgScale; // this is for mmol - needs generic for mg/dl
// if (Math.abs(predictedbg - position) < (2 * bgScale)) {
// position = 7.0 * bgScale;
// }
// PointValue iv = new PointValue((float) fuzzed_timestamp, (float) position);
DecimalFormat df = new DecimalFormat("#");
df.setMaximumFractionDigits(2);
df.setMinimumIntegerDigits(1);
// iv.setLabel("IoB: " + df.format(iob.iob));
Home.updateStatusLine("iob", df.format(iob.iob));
// annotationValues.add(iv); // needs to be different value list so we can make annotation nicer
}
}
}
}
if (d)
Log.i(TAG, "Size of iob: " + Integer.toString(iobinfo.size()) + " Predictive hours: " + Integer.toString(predictivehours) + " Predicted end game change: " + JoH.qs(predictedbg - mylastbg.calculated_value_mmol()) + " Start bg: " + JoH.qs(mylastbg.calculated_value_mmol()) + " Predicted: " + JoH.qs(predictedbg));
// calculate bolus or carb adjustment - these should have granularity for injection / pump and thresholds
} else {
if (d)
Log.i(TAG, "iobinfo was null");
}
double[] evaluation;
if (prediction_enabled && simulation_enabled) {
// if (doMgdl) {
// These routines need to understand how the profile is defined to use native instead of scaled
evaluation = Profile.evaluateEndGameMmol(predictedbg, lasttimestamp * FUZZER, end_time * FUZZER);
// } else {
// evaluation = Profile.evaluateEndGameMmol(predictedbg, lasttimestamp * FUZZER, end_time * FUZZER);
// }
String bwp_update = "";
keyStore.putL("bwp_last_insulin_timestamp", -1);
if (d)
Log.i(TAG, "Predictive BWP: Current prediction: " + JoH.qs(predictedbg) + " / carbs: " + JoH.qs(evaluation[0]) + " insulin: " + JoH.qs(evaluation[1]));
if (!BgReading.isDataStale()) {
if (((low_occurs_at < 1) || Pref.getBooleanDefaultFalse("always_show_bwp")) && (Pref.getBooleanDefaultFalse("show_bwp"))) {
if (evaluation[0] > Profile.minimum_carb_recommendation) {
// PointValue iv = new PointValue((float) fuzzed_timestamp, (float) (10 * bgScale));
// iv.setLabel("+Carbs: " + JoH.qs(evaluation[0], 0));
bwp_update = "\u224F" + " Carbs: " + JoH.qs(evaluation[0], 0);
// annotationValues.add(iv); // needs to be different value list so we can make annotation nicer
} else if (evaluation[1] > Profile.minimum_insulin_recommendation) {
// PointValue iv = new PointValue((float) fuzzed_timestamp, (float) (11 * bgScale));
// iv.setLabel("+Insulin: " + JoH.qs(evaluation[1], 1));
keyStore.putS("bwp_last_insulin", JoH.qs(evaluation[1], 1) + ((low_occurs_at > 0) ? ("!") : ""));
keyStore.putL("bwp_last_insulin_timestamp", JoH.tsl());
// warning symbol
bwp_update = "\u224F" + " Insulin: " + JoH.qs(evaluation[1], 1) + ((low_occurs_at > 0) ? (" " + "\u26A0") : "");
// annotationValues.add(iv); // needs to be different value list so we can make annotation nicer
}
}
}
// always send so we can blank if needed
Home.updateStatusLine("bwp", bwp_update);
}
} catch (Exception e) {
Log.e(TAG, "Exception doing iob values in bggraphbuilder: " + e.toString());
}
}
// if !simple
} finally {
readings_lock.unlock();
}
}
use of com.eveningoutpost.dexdrip.Models.BloodTest in project xDrip-plus by jamorham.
the class WatchUpdaterService method sendWearBloodTestData.
public static boolean sendWearBloodTestData(Integer count, long startTime, List<BloodTest> list) {
// DataMap
try {
if (googleApiClient != null && !googleApiClient.isConnected() && !googleApiClient.isConnecting()) {
googleApiClient.connect();
}
if (googleApiClient != null) {
BloodTest last = list != null && list.size() > 0 ? list.get(0) : BloodTest.last();
if (last != null) {
Log.d(TAG, "sendWearBloodTestData last.timestamp:" + JoH.dateTimeText(last.timestamp));
} else {
Log.d(TAG, "sendWearBloodTestData no BloodTest exist");
return true;
}
List<BloodTest> graph;
if (list != null)
graph = list;
else if (startTime == 0)
graph = BloodTest.last(count);
else
graph = BloodTest.latestForGraph(count, startTime);
if (!graph.isEmpty()) {
Log.d(TAG, "sendWearBloodTestData graph size=" + graph.size());
final ArrayList<DataMap> dataMaps = new ArrayList<>(graph.size());
DataMap entries = dataMap(last);
for (BloodTest data : graph) {
dataMaps.add(dataMap(data));
}
Log.d(TAG, "sendWearBloodTestData entries=" + entries);
// MOST IMPORTANT LINE FOR TIMESTAMP
entries.putLong("time", new Date().getTime());
entries.putDataMapArrayList("entries", dataMaps);
new SendToDataLayerThread(WEARABLE_BLOODTEST_DATA_PATH, googleApiClient).executeOnExecutor(xdrip.executor, entries);
} else
Log.d(TAG, "sendWearBloodTestData BloodTest count = 0");
} else {
Log.e(TAG, "sendWearBloodTestData No connection to wearable available for send BloodTest!");
return false;
}
} catch (NullPointerException e) {
Log.e(TAG, "Nullpointer exception in sendWearBloodTestData: " + e);
return false;
}
return true;
}
use of com.eveningoutpost.dexdrip.Models.BloodTest in project xDrip-plus by jamorham.
the class Home method processIncomingBundle.
private void processIncomingBundle(Bundle bundle) {
Log.d(TAG, "Processing incoming bundle");
if (bundle != null) {
String receivedText = bundle.getString(WatchUpdaterService.WEARABLE_VOICE_PAYLOAD);
if (receivedText != null) {
voiceRecognitionText.setText(receivedText);
voiceRecognitionText.setVisibility(View.VISIBLE);
last_speech_time = JoH.ts();
naturalLanguageRecognition(receivedText);
}
if (bundle.getString(WatchUpdaterService.WEARABLE_APPROVE_TREATMENT) != null || watchkeypad)
processAndApproveTreatment();
else if (bundle.getString(WatchUpdaterService.WEARABLE_CANCEL_TREATMENT) != null)
cancelTreatment();
else if (bundle.getString(Home.START_SPEECH_RECOGNITION) != null)
promptSpeechInput();
else if (bundle.getString(Home.START_TEXT_RECOGNITION) != null)
promptTextInput_old();
else if (bundle.getString(Home.CREATE_TREATMENT_NOTE) != null) {
try {
showNoteTextInputDialog(null, Long.parseLong(bundle.getString(Home.CREATE_TREATMENT_NOTE)), JoH.tolerantParseDouble(bundle.getString(Home.CREATE_TREATMENT_NOTE + "2")));
} catch (NullPointerException e) {
Log.d(TAG, "Got null point exception during CREATE_TREATMENT_NOTE Intent");
} catch (NumberFormatException e) {
JoH.static_toast_long("Number error: " + e);
}
} else if (bundle.getString(Home.HOME_FULL_WAKEUP) != null) {
if (!JoH.isScreenOn()) {
final int timeout = 60000;
final PowerManager.WakeLock wl = JoH.getWakeLock("full-wakeup", timeout + 1000);
keepScreenOn();
final Timer t = new Timer();
t.schedule(new TimerTask() {
@Override
public void run() {
dontKeepScreenOn();
JoH.releaseWakeLock(wl);
finish();
}
}, timeout);
} else {
Log.d(TAG, "Screen is already on so not turning on");
}
} else if (bundle.getString(Home.GCM_RESOLUTION_ACTIVITY) != null) {
GcmActivity.checkPlayServices(this, this);
} else if (bundle.getString(Home.SNOOZE_CONFIRM_DIALOG) != null) {
GcmActivity.sendSnoozeToRemoteWithConfirm(this);
} else if (bundle.getString(Home.SHOW_NOTIFICATION) != null) {
final Intent notificationIntent = new Intent(this, Home.class);
final int notification_id = bundle.getInt("notification_id");
if ((notification_id == SENSOR_READY_ID) && (!Sensor.isActive() || BgReading.last() != null)) {
Log.e(TAG, "Sensor not in warm up period when notification due to fire");
return;
}
final PendingIntent pendingIntent = PendingIntent.getActivity(this, 0, notificationIntent, PendingIntent.FLAG_UPDATE_CURRENT);
JoH.showNotification(bundle.getString(SHOW_NOTIFICATION), bundle.getString("notification_body"), pendingIntent, notification_id, true, true, true);
} else if (bundle.getString(Home.BLUETOOTH_METER_CALIBRATION) != null) {
try {
processFingerStickCalibration(JoH.tolerantParseDouble(bundle.getString(Home.BLUETOOTH_METER_CALIBRATION)), JoH.tolerantParseDouble(bundle.getString(Home.BLUETOOTH_METER_CALIBRATION + "2")), bundle.getString(Home.BLUETOOTH_METER_CALIBRATION + "3") != null && bundle.getString(Home.BLUETOOTH_METER_CALIBRATION + "3").equals("auto"));
} catch (NumberFormatException e) {
JoH.static_toast_long("Number error: " + e);
}
} else if (bundle.getString(Home.ACTIVITY_SHOWCASE_INFO) != null) {
showcasemenu(SHOWCASE_MOTION_DETECTION);
} else if (bundle.getString("choice-intent") != null) {
CompatibleApps.showChoiceDialog(this, bundle.getParcelable("choice-intentx"));
} else if (bundle.getString("numberIconTest") != null) {
JoH.show_ok_dialog(this, "Prepare to test!", "After you click OK, look for a number icon in the notification area.\nIf you see 123 then the test has succeeded.\n\nOn some phones this test will crash the phone.\n\nAfter 30 seconds we will shut off the notification. If your phone does not recover after this then hold the power button to reboot it.", new Runnable() {
@Override
public void run() {
JoH.static_toast_long("Running test with number: 123");
NumberGraphic.testNotification("123");
}
});
} else if (bundle.getString(Home.BLOOD_TEST_ACTION) != null) {
Log.d(TAG, "BLOOD_TEST_ACTION");
final AlertDialog.Builder builder = new AlertDialog.Builder(this);
builder.setTitle("Blood Test Action");
builder.setMessage("What would you like to do?");
final String bt_uuid = bundle.getString(Home.BLOOD_TEST_ACTION + "2");
if (bt_uuid != null) {
final BloodTest bt = BloodTest.byUUID(bt_uuid);
if (bt != null) {
builder.setNeutralButton("Nothing", new DialogInterface.OnClickListener() {
public void onClick(DialogInterface dialog, int which) {
dialog.dismiss();
}
});
builder.setPositiveButton("Calibrate", new DialogInterface.OnClickListener() {
public void onClick(DialogInterface dialog, int which) {
dialog.dismiss();
final long time_since = JoH.msSince(bt.timestamp);
Home.startHomeWithExtra(xdrip.getAppContext(), Home.BLUETOOTH_METER_CALIBRATION, BgGraphBuilder.unitized_string_static(bt.mgdl), Long.toString(time_since));
bt.addState(BloodTest.STATE_CALIBRATION);
GcmActivity.syncBloodTests();
}
});
builder.setNegativeButton("Delete", new DialogInterface.OnClickListener() {
@Override
public void onClick(DialogInterface dialog, int which) {
dialog.dismiss();
final AlertDialog.Builder builder = new AlertDialog.Builder(mActivity);
builder.setTitle("Confirm Delete");
builder.setMessage("Are you sure you want to delete this Blood Test result?");
builder.setPositiveButton("Yes, Delete", new DialogInterface.OnClickListener() {
public void onClick(DialogInterface dialog, int which) {
dialog.dismiss();
bt.removeState(BloodTest.STATE_VALID);
GcmActivity.syncBloodTests();
if (Home.get_show_wear_treatments())
BloodTest.pushBloodTestSyncToWatch(bt, false);
staticRefreshBGCharts();
JoH.static_toast_short("Deleted!");
}
});
builder.setNegativeButton("No", new DialogInterface.OnClickListener() {
public void onClick(DialogInterface dialog, int which) {
dialog.dismiss();
}
});
final AlertDialog alert = builder.create();
alert.show();
}
});
final AlertDialog alert = builder.create();
alert.show();
} else {
JoH.static_toast_long("Could not find blood test data!! " + bt_uuid);
}
}
}
}
}
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