Files
DexcomBluetoothUploader/lib/nightscout/com/eveningoutpost/dexdrip/Models/Calibration.java
2020-07-18 21:44:27 -04:00

1415 lines
58 KiB
Java

package com.eveningoutpost.dexdrip.Models;
import android.content.Context;
import android.content.SharedPreferences;
import android.preference.PreferenceManager;
import android.provider.BaseColumns;
import android.support.annotation.NonNull;
import android.widget.Toast;
import com.activeandroid.ActiveAndroid;
import com.activeandroid.Model;
import com.activeandroid.annotation.Column;
import com.activeandroid.annotation.Table;
import com.activeandroid.query.Select;
import com.eveningoutpost.dexdrip.GcmActivity;
import com.eveningoutpost.dexdrip.Home;
import com.eveningoutpost.dexdrip.ImportedLibraries.dexcom.records.CalRecord;
import com.eveningoutpost.dexdrip.ImportedLibraries.dexcom.records.CalSubrecord;
import com.eveningoutpost.dexdrip.Models.UserError.Log;
import com.eveningoutpost.dexdrip.Services.Ob1G5CollectionService;
import com.eveningoutpost.dexdrip.UtilityModels.BgSendQueue;
import com.eveningoutpost.dexdrip.UtilityModels.CalibrationSendQueue;
import com.eveningoutpost.dexdrip.UtilityModels.CollectionServiceStarter;
import com.eveningoutpost.dexdrip.UtilityModels.Constants;
import com.eveningoutpost.dexdrip.UtilityModels.Notifications;
import com.eveningoutpost.dexdrip.UtilityModels.Pref;
import com.eveningoutpost.dexdrip.calibrations.CalibrationAbstract;
import com.eveningoutpost.dexdrip.calibrations.NativeCalibrationPipe;
import com.eveningoutpost.dexdrip.calibrations.PluggableCalibration;
import com.eveningoutpost.dexdrip.utils.DexCollectionType;
import com.eveningoutpost.dexdrip.xdrip;
import com.google.gson.Gson;
import com.google.gson.GsonBuilder;
import com.google.gson.annotations.Expose;
import com.google.gson.internal.bind.DateTypeAdapter;
import java.util.ArrayList;
import java.util.Date;
import java.util.List;
import java.util.UUID;
import static com.eveningoutpost.dexdrip.Models.BgReading.isDataSuitableForDoubleCalibration;
import static com.eveningoutpost.dexdrip.calibrations.PluggableCalibration.newFingerStickData;
class DexParameters extends SlopeParameters {
DexParameters() {
LOW_SLOPE_1 = 0.75;
LOW_SLOPE_2 = 0.70;
HIGH_SLOPE_1 = 1.5;
HIGH_SLOPE_2 = 1.6;
DEFAULT_LOW_SLOPE_LOW = 0.75;
DEFAULT_LOW_SLOPE_HIGH = 0.70;
DEFAULT_SLOPE = 1;
DEFAULT_HIGH_SLOPE_HIGH = 1.5;
DEFAULT_HIGH_SLOPE_LOW = 1.4;
}
}
class DexOldSchoolParameters extends SlopeParameters {
/*
Previous defaults up until 20th March 2017
*/
DexOldSchoolParameters() {
LOW_SLOPE_1 = 0.95;
LOW_SLOPE_2 = 0.85;
HIGH_SLOPE_1 = 1.3;
HIGH_SLOPE_2 = 1.4;
DEFAULT_LOW_SLOPE_LOW = 1.08;
DEFAULT_LOW_SLOPE_HIGH = 1.15;
DEFAULT_SLOPE = 1;
DEFAULT_HIGH_SLOPE_HIGH = 1.3;
DEFAULT_HIGH_SLOPE_LOW = 1.2;
}
}
class DexParametersAdrian extends SlopeParameters {
/*
* Other default vlaues and thresholds that can be only activated in settings, when in engineering mode.
* promoted to be the regular defaults 20th March 2017
* */
DexParametersAdrian() {
LOW_SLOPE_1 = 0.75;
LOW_SLOPE_2 = 0.70;
HIGH_SLOPE_1 = 1.3;
HIGH_SLOPE_2 = 1.4;
DEFAULT_LOW_SLOPE_LOW = 0.75;
DEFAULT_LOW_SLOPE_HIGH = 0.70;
DEFAULT_SLOPE = 1;
DEFAULT_HIGH_SLOPE_HIGH = 1.3;
DEFAULT_HIGH_SLOPE_LOW = 1.2;
}
}
class LiParameters extends SlopeParameters {
LiParameters() {
LOW_SLOPE_1 = 1;
LOW_SLOPE_2 = 1;
HIGH_SLOPE_1 = 1;
HIGH_SLOPE_2 = 1;
DEFAULT_LOW_SLOPE_LOW = 1;
DEFAULT_LOW_SLOPE_HIGH = 1;
DEFAULT_SLOPE = 1;
DEFAULT_HIGH_SLOPE_HIGH = 1;
DEFAULT_HIGH_SLOPE_LOW = 1;
}
}
/* Alternate Li Parameters which don't use a fixed slope */
class LiParametersNonFixed extends SlopeParameters {
LiParametersNonFixed() {
LOW_SLOPE_1 = 0.55;
LOW_SLOPE_2 = 0.50;
HIGH_SLOPE_1 = 1.5;
HIGH_SLOPE_2 = 1.6;
DEFAULT_LOW_SLOPE_LOW = 0.55;
DEFAULT_LOW_SLOPE_HIGH = 0.50;
DEFAULT_SLOPE = 1;
DEFAULT_HIGH_SLOPE_HIGH = 1.5;
DEFAULT_HIGH_SLOPE_LOW = 1.4;
}
}
class Li2AppParameters extends SlopeParameters {
Li2AppParameters() {
LOW_SLOPE_1 = 1;
LOW_SLOPE_2 = 1;
HIGH_SLOPE_1 = 1;
HIGH_SLOPE_2 = 1;
DEFAULT_LOW_SLOPE_LOW = 1;
DEFAULT_LOW_SLOPE_HIGH = 1;
DEFAULT_SLOPE = 1;
DEFAULT_HIGH_SLOPE_HIGH = 1;
DEFAULT_HIGH_SLOPE_LOW = 1;
}
@Override
public double restrictIntercept(double intercept) {
return Math.min(Math.max(intercept, -40), 20);
}
}
class TestParameters extends SlopeParameters {
TestParameters() {
LOW_SLOPE_1 = 0.85; //0.95
LOW_SLOPE_2 = 0.80; //0.85
HIGH_SLOPE_1 = 1.3;
HIGH_SLOPE_2 = 1.4;
DEFAULT_LOW_SLOPE_LOW = 0.9; //1.08
DEFAULT_LOW_SLOPE_HIGH = 0.95; //1.15
DEFAULT_SLOPE = 1;
DEFAULT_HIGH_SLOPE_HIGH = 1.3;
DEFAULT_HIGH_SLOPE_LOW = 1.2;
}
}
/**
* Created by Emma Black on 10/29/14.
*/
@Table(name = "Calibration", id = BaseColumns._ID)
public class Calibration extends Model {
private final static String TAG = Calibration.class.getSimpleName();
private final static double note_only_marker = 0.000001d;
@Expose
@Column(name = "timestamp", index = true)
public long timestamp;
@Expose
@Column(name = "sensor_age_at_time_of_estimation")
public double sensor_age_at_time_of_estimation;
@Column(name = "sensor", index = true)
public Sensor sensor;
@Expose
@Column(name = "bg")
public double bg;
@Expose
@Column(name = "raw_value")
public double raw_value;
//
// @Expose
// @Column(name = "filtered_value")
// public double filtered_value;
@Expose
@Column(name = "adjusted_raw_value")
public double adjusted_raw_value;
@Expose
@Column(name = "sensor_confidence")
public double sensor_confidence;
@Expose
@Column(name = "slope_confidence")
public double slope_confidence;
@Expose
@Column(name = "raw_timestamp")
public long raw_timestamp;
@Expose
@Column(name = "slope")
public double slope;
@Expose
@Column(name = "intercept")
public double intercept;
@Expose
@Column(name = "distance_from_estimate")
public double distance_from_estimate;
@Expose
@Column(name = "estimate_raw_at_time_of_calibration")
public double estimate_raw_at_time_of_calibration;
@Expose
@Column(name = "estimate_bg_at_time_of_calibration")
public double estimate_bg_at_time_of_calibration;
@Expose
@Column(name = "uuid", index = true)
public String uuid;
@Expose
@Column(name = "sensor_uuid", index = true)
public String sensor_uuid;
@Expose
@Column(name = "possible_bad")
public Boolean possible_bad;
@Expose
@Column(name = "check_in")
public boolean check_in;
@Expose
@Column(name = "first_decay")
public double first_decay;
@Expose
@Column(name = "second_decay")
public double second_decay;
@Expose
@Column(name = "first_slope")
public double first_slope;
@Expose
@Column(name = "second_slope")
public double second_slope;
@Expose
@Column(name = "first_intercept")
public double first_intercept;
@Expose
@Column(name = "second_intercept")
public double second_intercept;
@Expose
@Column(name = "first_scale")
public double first_scale;
@Expose
@Column(name = "second_scale")
public double second_scale;
public static void initialCalibration(double bg1, double bg2, Context context) {
SharedPreferences prefs = PreferenceManager.getDefaultSharedPreferences(context);
String unit = prefs.getString("units", "mgdl");
if (unit.compareTo("mgdl") != 0) {
bg1 = bg1 * Constants.MMOLL_TO_MGDL;
bg2 = bg2 * Constants.MMOLL_TO_MGDL;
}
JoH.clearCache();
final Calibration higherCalibration = new Calibration();
final Calibration lowerCalibration = new Calibration();
final Sensor sensor = Sensor.currentSensor();
final List<BgReading> bgReadings = BgReading.latest_by_size(3);
// don't allow initial calibration if data would be stale (but still use data for native mode)
if ((bgReadings == null) || (bgReadings.size() != 3) || !isDataSuitableForDoubleCalibration() ){
if (Ob1G5CollectionService.usingNativeMode()) {
JoH.static_toast_long("Sending Blood Tests to Transmitter"); // TODO extract string
BloodTest.create(JoH.tsl() - (Constants.SECOND_IN_MS * 30), bg1, "Initial Calibration");
BloodTest.create(JoH.tsl(), bg2, "Initial Calibration");
if (!Pref.getBooleanDefaultFalse("bluetooth_meter_for_calibrations_auto")) {
// blood tests above don't automatically become part of calibration pipe if this setting is unset so do here
NativeCalibrationPipe.addCalibration((int) bg1, JoH.tsl() - (Constants.SECOND_IN_MS * 30));
NativeCalibrationPipe.addCalibration((int) bg2, JoH.tsl());
}
} else {
UserError.Log.wtf(TAG, "Did not find 3 readings for initial calibration - aborting");
JoH.static_toast_long("Not enough recent sensor data! - cancelling!");
}
return;
}
BgReading bgReading1 = bgReadings.get(0);
BgReading bgReading2 = bgReadings.get(1);
if (!SensorSanity.isRawValueSane(bgReading1.raw_data) || (!SensorSanity.isRawValueSane(bgReading2.raw_data))) {
final String msg = "Sensor raw data is outside sane range! Cannot calibrate: " + bgReading1.raw_data + " " + bgReading2.raw_data;
UserError.Log.wtf(TAG, msg);
JoH.static_toast_long(msg);
return;
}
clear_all_existing_calibrations();
BgReading highBgReading;
BgReading lowBgReading;
double higher_bg = Math.max(bg1, bg2);
double lower_bg = Math.min(bg1, bg2);
// TODO This should be reworked in the future as it doesn't really make sense
if (bgReading1.raw_data > bgReading2.raw_data) {
highBgReading = bgReading1;
lowBgReading = bgReading2;
} else {
highBgReading = bgReading2;
lowBgReading = bgReading1;
}
higherCalibration.bg = higher_bg;
higherCalibration.slope = 1;
higherCalibration.intercept = higher_bg;
higherCalibration.sensor = sensor;
higherCalibration.estimate_raw_at_time_of_calibration = highBgReading.age_adjusted_raw_value;
higherCalibration.adjusted_raw_value = highBgReading.age_adjusted_raw_value;
higherCalibration.raw_value = highBgReading.raw_data;
higherCalibration.raw_timestamp = highBgReading.timestamp;
higherCalibration.save();
highBgReading.calculated_value = higher_bg;
highBgReading.calibration_flag = true;
highBgReading.calibration = higherCalibration;
highBgReading.save();
higherCalibration.save();
lowerCalibration.bg = lower_bg;
lowerCalibration.slope = 1;
lowerCalibration.intercept = lower_bg;
lowerCalibration.sensor = sensor;
lowerCalibration.estimate_raw_at_time_of_calibration = lowBgReading.age_adjusted_raw_value;
lowerCalibration.adjusted_raw_value = lowBgReading.age_adjusted_raw_value;
lowerCalibration.raw_value = lowBgReading.raw_data;
lowerCalibration.raw_timestamp = lowBgReading.timestamp;
lowerCalibration.save();
lowBgReading.calculated_value = lower_bg;
lowBgReading.calibration_flag = true;
lowBgReading.calibration = lowerCalibration;
lowBgReading.save();
lowerCalibration.save();
JoH.clearCache();
highBgReading.find_new_curve();
highBgReading.find_new_raw_curve();
lowBgReading.find_new_curve();
lowBgReading.find_new_raw_curve();
JoH.clearCache();
NativeCalibrationPipe.addCalibration((int) bg1, JoH.tsl() - (Constants.SECOND_IN_MS * 30));
NativeCalibrationPipe.addCalibration((int) bg2, JoH.tsl());
final List<Calibration> calibrations = new ArrayList<Calibration>();
calibrations.add(lowerCalibration);
calibrations.add(higherCalibration);
for (Calibration calibration : calibrations) {
calibration.timestamp = new Date().getTime();
calibration.sensor_uuid = sensor.uuid;
calibration.slope_confidence = .5;
calibration.distance_from_estimate = 0;
calibration.check_in = false;
calibration.sensor_confidence = ((-0.0018 * calibration.bg * calibration.bg) + (0.6657 * calibration.bg) + 36.7505) / 100;
calibration.sensor_age_at_time_of_estimation = calibration.timestamp - sensor.started_at;
calibration.uuid = UUID.randomUUID().toString();
calibration.save();
JoH.clearCache();
calculate_w_l_s();
newFingerStickData();
CalibrationSendQueue.addToQueue(calibration, context);
}
JoH.clearCache();
if (!Ob1G5CollectionService.usingNativeMode()) {
adjustRecentBgReadings(5);
}
CalibrationRequest.createOffset(lowerCalibration.bg, 35);
Notifications.staticUpdateNotification();
}
//Create Calibration Checkin Dexcom Bluetooth Share
public static void create(CalRecord[] calRecords, long addativeOffset, Context context) {
create(calRecords, context, false, addativeOffset);
}
public static void create(CalRecord[] calRecords, Context context) {
create(calRecords, context, false, 0);
}
// Bluetooth Share
public static void create(CalRecord[] calRecords, Context context, boolean override, long addativeOffset) {
//TODO: Change calibration.last and other queries to order calibrations by timestamp rather than ID
Log.i("CALIBRATION-CHECK-IN: ", "Creating Calibration Record");
Sensor sensor = Sensor.currentSensor();
CalRecord firstCalRecord = calRecords[0];
CalRecord secondCalRecord = calRecords[0];
// CalRecord secondCalRecord = calRecords[calRecords.length - 1];
//TODO: Figgure out how the ratio between the two is determined
double calSlope = ((secondCalRecord.getScale() / secondCalRecord.getSlope()) + (3 * firstCalRecord.getScale() / firstCalRecord.getSlope())) * 250;
double calIntercept = (((secondCalRecord.getScale() * secondCalRecord.getIntercept()) / secondCalRecord.getSlope()) + ((3 * firstCalRecord.getScale() * firstCalRecord.getIntercept()) / firstCalRecord.getSlope())) / -4;
if (sensor != null) {
for (int i = 0; i < firstCalRecord.getCalSubrecords().length - 1; i++) {
if (((firstCalRecord.getCalSubrecords()[i] != null && Calibration.is_new(firstCalRecord.getCalSubrecords()[i], addativeOffset))) || (i == 0 && override)) {
CalSubrecord calSubrecord = firstCalRecord.getCalSubrecords()[i];
Calibration calibration = new Calibration();
calibration.bg = calSubrecord.getCalBGL();
calibration.timestamp = calSubrecord.getDateEntered().getTime() + addativeOffset;
calibration.raw_timestamp = calibration.timestamp;
if (calibration.timestamp > new Date().getTime()) {
Log.d(TAG, "ERROR - Calibration timestamp is from the future, wont save!");
return;
}
calibration.raw_value = calSubrecord.getCalRaw() / 1000;
calibration.slope = calSlope;
calibration.intercept = calIntercept;
calibration.sensor_confidence = ((-0.0018 * calibration.bg * calibration.bg) + (0.6657 * calibration.bg) + 36.7505) / 100;
if (calibration.sensor_confidence <= 0) {
calibration.sensor_confidence = 0;
}
calibration.slope_confidence = 0.8; //TODO: query backwards to find this value near the timestamp
calibration.estimate_raw_at_time_of_calibration = calSubrecord.getCalRaw() / 1000;
calibration.sensor = sensor;
calibration.sensor_age_at_time_of_estimation = calibration.timestamp - sensor.started_at;
calibration.uuid = UUID.randomUUID().toString();
calibration.sensor_uuid = sensor.uuid;
calibration.check_in = true;
calibration.first_decay = firstCalRecord.getDecay();
calibration.second_decay = secondCalRecord.getDecay();
calibration.first_slope = firstCalRecord.getSlope();
calibration.second_slope = secondCalRecord.getSlope();
calibration.first_scale = firstCalRecord.getScale();
calibration.second_scale = secondCalRecord.getScale();
calibration.first_intercept = firstCalRecord.getIntercept();
calibration.second_intercept = secondCalRecord.getIntercept();
calibration.save();
CalibrationSendQueue.addToQueue(calibration, context);
Calibration.requestCalibrationIfRangeTooNarrow();
newFingerStickData();
}
}
if (firstCalRecord.getCalSubrecords()[0] != null && firstCalRecord.getCalSubrecords()[2] == null) {
if (Calibration.latest(2).size() == 1) {
Calibration.create(calRecords, context, true, 0);
}
}
Notifications.start();
}
}
public static boolean is_new(CalSubrecord calSubrecord, long addativeOffset) {
Sensor sensor = Sensor.currentSensor();
Calibration calibration = new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("timestamp <= ?", calSubrecord.getDateEntered().getTime() + addativeOffset + (1000 * 60 * 2))
.orderBy("timestamp desc")
.executeSingle();
if (calibration != null && Math.abs(calibration.timestamp - (calSubrecord.getDateEntered().getTime() + addativeOffset)) < (4 * 60 * 1000)) {
Log.d("CAL CHECK IN ", "Already have that calibration!");
return false;
} else {
Log.d("CAL CHECK IN ", "Looks like a new calibration!");
return true;
}
}
public static Calibration getForTimestamp(double timestamp) {
Sensor sensor = Sensor.currentSensor();
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.where("timestamp < ?", timestamp)
.orderBy("timestamp desc")
.executeSingle();
}
public static Calibration getByTimestamp(double timestamp) {//KS
Sensor sensor = Sensor.currentSensor();
if(sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("timestamp = ?", timestamp)
.executeSingle();
}
public static Double getConvertedBg(double bg) {
final String unit = Pref.getString("units", "mgdl");
if (unit.compareTo("mgdl") != 0) {
bg = bg * Constants.MMOLL_TO_MGDL;
}
if ((bg < 40) || (bg > 400)) {
return null;
}
return bg;
}
// without timeoffset
public static Calibration create(double bg, Context context) {
return create(bg, 0, context);
}
public static Calibration create(double bg, long timeoffset, Context context) {
return create(bg, timeoffset, context, false, 0);
}
// regular calibration
public static Calibration create(double bg, long timeoffset, Context context, boolean note_only, long estimatedInterstitialLagSeconds) {
final SharedPreferences prefs = PreferenceManager.getDefaultSharedPreferences(context);
final String unit = prefs.getString("units", "mgdl");
final boolean adjustPast = prefs.getBoolean("rewrite_history", true);
final Double result = getConvertedBg(bg);
if (result == null) {
Log.wtf(TAG, "Invalid out of range calibration glucose mg/dl value of: " + bg);
JoH.static_toast_long("Calibration out of range: " + bg + " mg/dl");
return null;
}
bg = result; // unbox result
if (!note_only) CalibrationRequest.clearAll();
final Calibration calibration = new Calibration();
Sensor sensor = Sensor.currentSensor();
boolean is_follower = prefs.getString("dex_collection_method", "").equals("Follower");
if ((sensor == null)
&& (is_follower)) {
Sensor.create(Math.round(JoH.ts())); // no sensor? no problem, create virtual one for follower
sensor = Sensor.currentSensor();
}
if (sensor != null) {
BgReading bgReading = null;
if (timeoffset == 0) {
bgReading = BgReading.last(is_follower);
} else {
// get closest bg reading we can find with a cut off at 15 minutes max time
bgReading = BgReading.getForPreciseTimestamp(new Date().getTime() - ((timeoffset - estimatedInterstitialLagSeconds) * 1000 ), (15 * 60 * 1000));
}
if (bgReading != null) {
if (SensorSanity.isRawValueSane(bgReading.raw_data, DexCollectionType.getDexCollectionType(), true)) {
calibration.sensor = sensor;
calibration.bg = bg;
calibration.check_in = false;
calibration.timestamp = new Date().getTime() - (timeoffset * 1000); // potential historical bg readings
calibration.raw_value = bgReading.raw_data;
calibration.adjusted_raw_value = bgReading.age_adjusted_raw_value;
calibration.sensor_uuid = sensor.uuid;
calibration.slope_confidence = Math.min(Math.max(((4 - Math.abs((bgReading.calculated_value_slope) * 60000)) / 4), 0), 1);
double estimated_raw_bg = BgReading.estimated_raw_bg(new Date().getTime());
calibration.raw_timestamp = bgReading.timestamp;
if (Math.abs(estimated_raw_bg - bgReading.age_adjusted_raw_value) > 20) {
calibration.estimate_raw_at_time_of_calibration = bgReading.age_adjusted_raw_value;
} else {
calibration.estimate_raw_at_time_of_calibration = estimated_raw_bg;
}
calibration.distance_from_estimate = Math.abs(calibration.bg - bgReading.calculated_value);
if (!note_only) {
calibration.sensor_confidence = Math.max(((-0.0018 * bg * bg) + (0.6657 * bg) + 36.7505) / 100, 0);
} else {
calibration.sensor_confidence = 0; // exclude from calibrations but show on graph
calibration.slope_confidence = note_only_marker; // this is a bit ugly
calibration.slope = 0;
calibration.intercept = 0;
}
calibration.sensor_age_at_time_of_estimation = calibration.timestamp - sensor.started_at;
calibration.uuid = UUID.randomUUID().toString();
if (!SensorSanity.isRawValueSane(calibration.estimate_raw_at_time_of_calibration, true)) {
JoH.static_toast_long("Estimated raw value out of range - cannot calibrate");
return null;
}
calibration.save();
if (!note_only) {
bgReading.calibration = calibration;
bgReading.calibration_flag = true;
bgReading.save();
}
if ((!is_follower) && (!note_only)) {
BgSendQueue.handleNewBgReading(bgReading, "update", context);
// TODO probably should add a more fine grained prefs option in future
calculate_w_l_s(prefs.getBoolean("infrequent_calibration", false));
CalibrationSendQueue.addToQueue(calibration, context);
BgReading.pushBgReadingSyncToWatch(bgReading, false);
if (!Ob1G5CollectionService.usingNativeMode()) {
adjustRecentBgReadings(adjustPast ? 30 : 2);
}
Notifications.start();
Calibration.requestCalibrationIfRangeTooNarrow();
newFingerStickData();
} else {
Log.d(TAG, "Follower mode or note so not processing calibration deeply");
}
} else {
final String msg = "Sensor data fails sanity test - Cannot Calibrate! raw:" + bgReading.raw_data;
UserError.Log.e(TAG, msg);
JoH.static_toast_long(msg);
}
} else {
// we couldn't get a reading close enough to the calibration timestamp
if (!is_follower) {
JoH.static_toast(context, "No close enough reading for Calib (15 min)", Toast.LENGTH_LONG);
}
}
} else {
Log.d("CALIBRATION", "No sensor, cant save!");
}
return Calibration.last();
}
public static List<Calibration> allForSensorInLastFiveDays() {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.where("timestamp > ?", (new Date().getTime() - (60000 * 60 * 24 * 5)))
.orderBy("timestamp desc")
.execute();
}
private synchronized static void calculate_w_l_s() {
calculate_w_l_s(false);
}
private synchronized static void calculate_w_l_s(boolean extended) {
if (Sensor.isActive()) {
double l = 0;
double m = 0;
double n = 0;
double p = 0;
double q = 0;
double w;
final SlopeParameters sParams = getSlopeParameters();
ActiveAndroid.clearCache();
List<Calibration> calibrations = allForSensorInLastFourDays(); //5 days was a bit much, dropped this to 4
if (calibrations == null) {
Log.e(TAG, "Somehow ended up with null calibration list!");
Home.toaststatic("Somehow ended up with null calibration list!");
return;
}
// less than 5 calibrations in last 4 days? cast the net wider if in extended mode
final int ccount = calibrations.size();
if ((ccount < 5) && extended) {
ActiveAndroid.clearCache();
calibrations = allForSensorLimited(5);
if (calibrations.size() > ccount) {
Home.toaststaticnext("Calibrated using data beyond last 4 days");
}
}
ActiveAndroid.clearCache();
if (calibrations.size() <= 1) {
final Calibration calibration = Calibration.last();
ActiveAndroid.clearCache();
calibration.slope = 1;
calibration.intercept = sParams.restrictIntercept(calibration.bg - (calibration.raw_value * calibration.slope));
calibration.save();
CalibrationRequest.createOffset(calibration.bg, 25);
newFingerStickData();
} else {
for (Calibration calibration : calibrations) {
w = calibration.calculateWeight();
l += (w);
m += (w * calibration.estimate_raw_at_time_of_calibration);
n += (w * calibration.estimate_raw_at_time_of_calibration * calibration.estimate_raw_at_time_of_calibration);
p += (w * calibration.bg);
q += (w * calibration.estimate_raw_at_time_of_calibration * calibration.bg);
}
final Calibration last_calibration = Calibration.last();
if (last_calibration != null) {
ActiveAndroid.clearCache();
w = (last_calibration.calculateWeight() * (calibrations.size() * 0.14));
l += (w);
m += (w * last_calibration.estimate_raw_at_time_of_calibration);
n += (w * last_calibration.estimate_raw_at_time_of_calibration * last_calibration.estimate_raw_at_time_of_calibration);
p += (w * last_calibration.bg);
q += (w * last_calibration.estimate_raw_at_time_of_calibration * last_calibration.bg);
}
double d = (l * n) - (m * m);
final Calibration calibration = Calibration.last();
ActiveAndroid.clearCache();
calibration.intercept = sParams.restrictIntercept(((n * p) - (m * q)) / d);
calibration.slope = ((l * q) - (m * p)) / d;
Log.d(TAG, "Calibration slope debug: slope:" + calibration.slope + " q:" + q + " m:" + m + " p:" + p + " d:" + d);
if ((calibrations.size() == 2 && calibration.slope < sParams.getLowSlope1()) || (calibration.slope < sParams.getLowSlope2())) { // I have not seen a case where a value below 7.5 proved to be accurate but we should keep an eye on this
Log.d(TAG, "calibration.slope 1 : " + calibration.slope);
calibration.slope = calibration.slopeOOBHandler(0);
Log.d(TAG, "calibration.slope 2 : " + calibration.slope);
if (calibrations.size() > 2) {
calibration.possible_bad = true;
}
calibration.intercept = sParams.restrictIntercept(calibration.bg - (calibration.estimate_raw_at_time_of_calibration * calibration.slope));
CalibrationRequest.createOffset(calibration.bg, 25);
}
if ((calibrations.size() == 2 && calibration.slope > sParams.getHighSlope1()) || (calibration.slope > sParams.getHighSlope2())) {
Log.d(TAG, "calibration.slope 3 : " + calibration.slope);
calibration.slope = calibration.slopeOOBHandler(1);
Log.d(TAG, "calibration.slope 4 : " + calibration.slope);
if (calibrations.size() > 2) {
calibration.possible_bad = true;
}
calibration.intercept = sParams.restrictIntercept(calibration.bg - (calibration.estimate_raw_at_time_of_calibration * calibration.slope));
CalibrationRequest.createOffset(calibration.bg, 25);
}
Log.d(TAG, "Calculated Calibration Slope: " + calibration.slope);
Log.d(TAG, "Calculated Calibration intercept: " + calibration.intercept);
// sanity check result
if (Double.isInfinite(calibration.slope)
||(Double.isNaN(calibration.slope))
||(Double.isInfinite(calibration.intercept))
||(Double.isNaN(calibration.intercept))) {
calibration.sensor_confidence = 0;
calibration.slope_confidence = 0;
Home.toaststaticnext("Got invalid impossible slope calibration!");
calibration.save(); // Save nulled record, lastValid should protect from bad calibrations
newFingerStickData();
}
if ((calibration.slope == 0) && (calibration.intercept == 0)) {
calibration.sensor_confidence = 0;
calibration.slope_confidence = 0;
Home.toaststaticnext("Got invalid zero slope calibration!");
calibration.save(); // Save nulled record, lastValid should protect from bad calibrations
newFingerStickData();
} else if (calibration.intercept > CalibrationAbstract.getHighestSaneIntercept()) {
/*
calibration.sensor_confidence = 0;
calibration.slope_confidence = 0;
final String msg = "Got invalid non-sane intercept calibration! ";
Home.toaststaticnext(msg);
UserError.Log.wtf(TAG, msg + calibration.toS());
*/
// Just log the error but store the calibration so we can use it in a plugin situation. lastValid() will filter it from calculations.
UserError.Log.e(TAG, "Got invalid intercept value in xDrip classic algorithm: " + calibration.intercept);
calibration.save(); // save record, lastValid should protect from bad calibrations
newFingerStickData();
} else {
calibration.save();
newFingerStickData();
}
}
} else {
Log.d(TAG, "NO Current active sensor found!!");
}
}
@NonNull
private static SlopeParameters getSlopeParameters() {
if (CollectionServiceStarter.isLibre2App((Context)null)) {
return new Li2AppParameters();
}
if (CollectionServiceStarter.isLimitter()) {
if (Pref.getBooleanDefaultFalse("use_non_fixed_li_parameters")) {
return new LiParametersNonFixed();
} else {
return new LiParameters();
}
}
// open question about parameters used with LibreAlarm
if (Pref.getBooleanDefaultFalse("engineering_mode") && Pref.getBooleanDefaultFalse("old_school_calibration_mode")) {
JoH.static_toast_long("Using old pre-2017 calibration mode!");
return new DexOldSchoolParameters();
}
return new DexParameters();
}
// here be dragons.. at time of writing estimate_bg_at_time_of_calibration is never written to and the possible_bad logic below looks backwards but
// will never fire because the bg_at_time_of_calibration is not set.
private double slopeOOBHandler(int status) {
final SlopeParameters sParams = getSlopeParameters();
// If the last slope was reasonable and reasonably close, use that, otherwise use a slope that may be a little steep, but its best to play it safe when uncertain
final List<Calibration> calibrations = Calibration.latest(3);
final Calibration thisCalibration = calibrations.get(0);
if (status == 0) {
if (calibrations.size() == 3) {
if ((Math.abs(thisCalibration.bg - thisCalibration.estimate_bg_at_time_of_calibration) < 30)
&& (calibrations.get(1).slope != 0)
&& (calibrations.get(1).possible_bad != null && calibrations.get(1).possible_bad == true)) {
return calibrations.get(1).slope;
} else {
return Math.max(((-0.048) * (thisCalibration.sensor_age_at_time_of_estimation / (60000 * 60 * 24))) + 1.1, sParams.getDefaultLowSlopeLow());
}
} else if (calibrations.size() == 2) {
return Math.max(((-0.048) * (thisCalibration.sensor_age_at_time_of_estimation / (60000 * 60 * 24))) + 1.1, sParams.getDefaultLowSlopeHigh());
}
return sParams.getDefaultSlope();
} else {
if (calibrations.size() == 3) {
if ((Math.abs(thisCalibration.bg - thisCalibration.estimate_bg_at_time_of_calibration) < 30)
&& (calibrations.get(1).slope != 0)
&& (calibrations.get(1).possible_bad != null && calibrations.get(1).possible_bad == true)) {
return calibrations.get(1).slope;
} else {
return sParams.getDefaultHighSlopeHigh();
}
} else if (calibrations.size() == 2) {
return sParams.getDefaulHighSlopeLow();
}
}
return sParams.getDefaultSlope();
}
private static List<Calibration> calibrations_for_sensor(Sensor sensor) {
return new Select()
.from(Calibration.class)
.where("Sensor = ?", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.orderBy("timestamp desc")
.execute();
}
private double calculateWeight() {
double firstTimeStarted = Calibration.first().sensor_age_at_time_of_estimation;
double lastTimeStarted = Calibration.last().sensor_age_at_time_of_estimation;
double time_percentage = Math.min(((sensor_age_at_time_of_estimation - firstTimeStarted) / (lastTimeStarted - firstTimeStarted)) / (.85), 1);
time_percentage = (time_percentage + .01);
Log.i(TAG, "CALIBRATIONS TIME PERCENTAGE WEIGHT: " + time_percentage);
return Math.max((((((slope_confidence + sensor_confidence) * (time_percentage))) / 2) * 100), 1);
}
public static void adjustRecentBgReadings(int adjustCount) {
//TODO: add some handling around calibration overrides as they come out looking a bit funky
final List<Calibration> calibrations = Calibration.latest(3);
if (calibrations == null) {
Log.wtf(TAG, "Calibrations is null in adjustRecentBgReadings");
return;
}
final List<BgReading> bgReadings = BgReading.latestUnCalculated(adjustCount);
if (bgReadings == null) {
Log.wtf(TAG, "bgReadings is null in adjustRecentBgReadings");
return;
}
// ongoing calibration
if (calibrations.size() >= 3) {
final int denom = bgReadings.size();
//Calibration latestCalibration = calibrations.get(0);
try {
final Calibration latestCalibration = Calibration.lastValid();
int i = 0;
for (BgReading bgReading : bgReadings) {
if (bgReading.calibration != null) {
final double oldYValue = bgReading.calculated_value;
final double newYvalue = (bgReading.age_adjusted_raw_value * latestCalibration.slope) + latestCalibration.intercept;
final double new_calculated_value = ((newYvalue * (denom - i)) + (oldYValue * (i))) / denom;
// if filtered == raw then rewrite them both because this would not happen if filtered data was from real source
if (bgReading.filtered_calculated_value == bgReading.calculated_value) {
bgReading.filtered_calculated_value = new_calculated_value;
}
bgReading.calculated_value = new_calculated_value;
bgReading.save();
BgReading.pushBgReadingSyncToWatch(bgReading, false);
i += 1;
} else {
Log.d(TAG, "History Rewrite: Ignoring BgReading without calibration from: " + JoH.dateTimeText(bgReading.timestamp));
}
}
} catch (NullPointerException e) {
Log.wtf(TAG, "Null pointer in AdjustRecentReadings >=3: " + e);
}
// initial calibration
} else if (calibrations.size() == 2) {
//Calibration latestCalibration = calibrations.get(0);
try {
final Calibration latestCalibration = Calibration.lastValid();
for (BgReading bgReading : bgReadings) {
final double newYvalue = (bgReading.age_adjusted_raw_value * latestCalibration.slope) + latestCalibration.intercept;
if (bgReading.filtered_calculated_value == bgReading.calculated_value) {
bgReading.filtered_calculated_value = newYvalue;
}
bgReading.calculated_value = newYvalue;
BgReading.updateCalculatedValueToWithinMinMax(bgReading);
bgReading.save();
BgReading.pushBgReadingSyncToWatch(bgReading, false);
}
} catch (NullPointerException e) {
Log.wtf(TAG, "Null pointer in AdjustRecentReadings ==2: " + e);
}
}
try {
// TODO this method call is probably only needed when we are called for initial calibration, it should probably be moved
bgReadings.get(0).find_new_raw_curve();
bgReadings.get(0).find_new_curve();
BgReading.pushBgReadingSyncToWatch(bgReadings.get(0), false);
} catch (NullPointerException e) {
Log.wtf(TAG, "Got null pointer exception in adjustRecentBgReadings");
}
}
public void rawValueOverride(double rawValue, Context context) {
estimate_raw_at_time_of_calibration = rawValue;
save();
calculate_w_l_s();
CalibrationSendQueue.addToQueue(this, context);
}
public static void requestCalibrationIfRangeTooNarrow() {
double max = Calibration.max_recent();
double min = Calibration.min_recent();
if ((max - min) < 55) {
double avg = ((min + max) / 2);
double dist = max - avg;
CalibrationRequest.createOffset(avg, dist + 20);
}
}
public static void clear_all_existing_calibrations() {
CalibrationRequest.clearAll();
List<Calibration> pastCalibrations = Calibration.allForSensor();
if (pastCalibrations != null) {
for (Calibration calibration : pastCalibrations) {
calibration.slope_confidence = 0;
calibration.sensor_confidence = 0;
calibration.save();
newFingerStickData();
}
}
}
public static long msSinceLastCalibration() {
final Calibration calibration = lastValid();
if (calibration == null) return 86400000000L;
return JoH.msSince(calibration.timestamp);
}
public static void clearLastCalibration() {
CalibrationRequest.clearAll();
Log.d(TAG, "Trying to clear last calibration");
Calibration calibration = Calibration.last();
if (calibration != null) {
calibration.invalidate();
CalibrationSendQueue.addToQueue(calibration, xdrip.getAppContext());
newFingerStickData();
}
}
public static void clearCalibrationByUUID(String uuid) {
final Calibration calibration = Calibration.byuuid(uuid);
if (calibration != null) {
CalibrationRequest.clearAll();
Log.d(TAG, "Trying to clear last calibration: " + uuid);
calibration.invalidate();
CalibrationSendQueue.addToQueue(calibration, xdrip.getAppContext());
newFingerStickData();
} else {
Log.d(TAG,"Could not find calibration to clear: "+uuid);
}
}
public String toS() {
Gson gson = new GsonBuilder()
.excludeFieldsWithoutExposeAnnotation()
.registerTypeAdapter(Date.class, new DateTypeAdapter())
.serializeSpecialFloatingPointValues()
.create();
return gson.toJson(this);
}
public static Calibration byid(long id) {
return new Select()
.from(Calibration.class)
.where("_ID = ?", id)
.executeSingle();
}
public static Calibration byuuid(String uuid) {
if (uuid == null) return null;
return new Select()
.from(Calibration.class)
.where("uuid = ?", uuid)
.orderBy("_ID desc")
.executeSingle();
}
public static void clear_byuuid(String uuid, boolean from_interactive) {
if (uuid == null) return;
Calibration calibration = byuuid(uuid);
if (calibration != null) {
calibration.invalidate();
CalibrationSendQueue.addToQueue(calibration, xdrip.getAppContext());
newFingerStickData();
if (from_interactive) {
GcmActivity.clearLastCalibration(uuid);
}
}
}
public static void upsertFromMaster(Calibration jsonCalibration) {
if (jsonCalibration == null) {
Log.wtf(TAG,"Got null calibration from json");
return;
}
try {
Sensor sensor = Sensor.getByUuid(jsonCalibration.sensor_uuid);
if (sensor == null) {
Log.e(TAG, "No sensor found, ignoring cailbration " + jsonCalibration.sensor_uuid);
return;
}
Calibration existingCalibration = byuuid(jsonCalibration.uuid);
if (existingCalibration == null) {
Log.d(TAG, "saving new calibration record. sensor uuid =" + jsonCalibration.sensor_uuid + " calibration uuid = " + jsonCalibration.uuid);
jsonCalibration.sensor = sensor;
jsonCalibration.save();
} else {
Log.d(TAG, "updating existing calibration record: " + jsonCalibration.uuid);
existingCalibration.sensor = sensor;
existingCalibration.timestamp = jsonCalibration.timestamp;
existingCalibration.sensor_age_at_time_of_estimation = jsonCalibration.sensor_age_at_time_of_estimation;
existingCalibration.bg = jsonCalibration.bg;
existingCalibration.raw_value = jsonCalibration.raw_value;
existingCalibration.adjusted_raw_value = jsonCalibration.adjusted_raw_value;
existingCalibration.sensor_confidence = jsonCalibration.sensor_confidence;
existingCalibration.slope_confidence = jsonCalibration.slope_confidence;
existingCalibration.raw_timestamp = jsonCalibration.raw_timestamp;
existingCalibration.slope = jsonCalibration.slope;
existingCalibration.intercept = jsonCalibration.intercept;
existingCalibration.distance_from_estimate = jsonCalibration.distance_from_estimate;
existingCalibration.estimate_raw_at_time_of_calibration = jsonCalibration.estimate_raw_at_time_of_calibration;
existingCalibration.estimate_bg_at_time_of_calibration = jsonCalibration.estimate_bg_at_time_of_calibration;
existingCalibration.uuid = jsonCalibration.uuid;
existingCalibration.sensor_uuid = jsonCalibration.sensor_uuid;
existingCalibration.possible_bad = jsonCalibration.possible_bad;
existingCalibration.check_in = jsonCalibration.check_in;
existingCalibration.first_decay = jsonCalibration.first_decay;
existingCalibration.second_decay = jsonCalibration.second_decay;
existingCalibration.first_slope = jsonCalibration.first_slope;
existingCalibration.second_slope = jsonCalibration.second_slope;
existingCalibration.first_intercept = jsonCalibration.first_intercept;
existingCalibration.second_intercept = jsonCalibration.second_intercept;
existingCalibration.first_scale = jsonCalibration.first_scale;
existingCalibration.second_scale = jsonCalibration.second_scale;
existingCalibration.save();
}
} catch (Exception e) {
Log.e(TAG, "Could not save Calibration: " + e.toString());
}
}
//COMMON SCOPES!
public static Calibration last() {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.orderBy("timestamp desc")
.executeSingle();
}
public static Calibration lastValid() {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.where("slope != 0")
.where("intercept <= ?", CalibrationAbstract.getHighestSaneIntercept())
.orderBy("timestamp desc")
.executeSingle();
}
public static Calibration first() {
Sensor sensor = Sensor.currentSensor();
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.orderBy("timestamp asc")
.executeSingle();
}
public static double max_recent() {
Sensor sensor = Sensor.currentSensor();
Calibration calibration = new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.where("timestamp > ?", (new Date().getTime() - (60000 * 60 * 24 * 4)))
.orderBy("bg desc")
.executeSingle();
if (calibration != null) {
return calibration.bg;
} else {
return 120;
}
}
public static double min_recent() {
Sensor sensor = Sensor.currentSensor();
Calibration calibration = new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.where("timestamp > ?", (new Date().getTime() - (60000 * 60 * 24 * 4)))
.orderBy("bg asc")
.executeSingle();
if (calibration != null) {
return calibration.bg;
} else {
return 100;
}
}
public static List<Calibration> latest(int number) {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.orderBy("timestamp desc")
.limit(number)
.execute();
}
// TODO calls to this method are used for UI features as to whether calibration is needed
// TODO this might need to updated to ignore invalid intercepts depending on plugin configuration etc
public static List<Calibration> latestValid(int number) {
return latestValid(number, JoH.tsl() + Constants.HOUR_IN_MS);
}
public static List<Calibration> latestValid(int number, long until) {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
// we don't filter invalid intercepts here as they will be filtered in the plugin itself
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.where("slope != 0")
.where("timestamp <= ?", until)
.orderBy("timestamp desc")
.limit(number)
.execute();
}
public static List<Calibration> latestForGraph(int number, long startTime) {
return latestForGraph(number, startTime, (long)JoH.ts());
}
public static List<Calibration> latestForGraph(int number, long startTime, long endTime) {
return new Select()
.from(Calibration.class)
.where("timestamp >= " + Math.max(startTime, 0))
.where("timestamp <= " + endTime)
.where("(slope != 0 or slope_confidence = ?)", note_only_marker)
.orderBy("timestamp desc")
.limit(number)
.execute();
}
public static List<Calibration> latestForGraphSensor(int number, long startTime, long endTime) {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("timestamp >= " + Math.max(startTime, 0))
.where("timestamp <= " + endTime)
.where("(slope != 0 or slope_confidence = ?)", note_only_marker)
.orderBy("timestamp desc")
.limit(number)
.execute();
}
public static List<Calibration> allForSensor() {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.orderBy("timestamp desc")
.execute();
}
public static List<Calibration> allForSensorInLastFourDays() {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.where("timestamp > ?", (new Date().getTime() - (60000 * 60 * 24 * 4)))
.orderBy("timestamp desc")
.execute();
}
public static List<Calibration> allForSensorLimited(int limit) {
Sensor sensor = Sensor.currentSensor();
if (sensor == null) {
return null;
}
return new Select()
.from(Calibration.class)
.where("Sensor = ? ", sensor.getId())
.where("slope_confidence != 0")
.where("sensor_confidence != 0")
.orderBy("timestamp desc")
.limit(limit)
.execute();
}
public static List<Calibration> getCalibrationsForSensor(Sensor sensor, int limit) {
return new Select()
.from(Calibration.class)
.where("sensor_uuid = ? ", sensor.uuid)
.orderBy("timestamp desc")
.limit(limit)
.execute();
}
public static List<Calibration> futureCalibrations() {
double timestamp = new Date().getTime();
return new Select()
.from(Calibration.class)
.where("timestamp > " + timestamp)
.orderBy("timestamp desc")
.execute();
}
public boolean isNote() {
Calibration calibration = this;
if ((calibration.slope == 0)
&& (calibration.slope_confidence == note_only_marker)
&& (calibration.sensor_confidence == 0)
&& (calibration.intercept == 0)) {
return true;
} else {
return false;
}
}
public boolean isValid() {
Calibration calibration = this;
if ((calibration.slope_confidence != 0)
&& (calibration.sensor_confidence != 0)
&& (calibration.slope != 0)
&& (calibration.intercept != 0)) {
return true;
} else {
return false;
}
}
public void invalidate() {
this.slope_confidence = 0;
this.sensor_confidence = 0;
this.slope = 0;
this.intercept = 0;
save();
PluggableCalibration.invalidateAllCaches();
}
public static synchronized void invalidateAllForSensor() {
final List<Calibration> cals = allForSensorLimited(9999999);
if (cals != null) {
for (Calibration cal : cals) {
cal.invalidate();
}
}
JoH.clearCache();
String msg = "Deleted all calibrations for sensor";
Log.ueh(TAG, msg);
JoH.static_toast_long(msg);
}
}
abstract class SlopeParameters {
protected double LOW_SLOPE_1;
protected double LOW_SLOPE_2;
protected double HIGH_SLOPE_1;
protected double HIGH_SLOPE_2;
protected double DEFAULT_LOW_SLOPE_LOW;
protected double DEFAULT_LOW_SLOPE_HIGH;
protected int DEFAULT_SLOPE;
protected double DEFAULT_HIGH_SLOPE_HIGH;
protected double DEFAULT_HIGH_SLOPE_LOW;
public double getLowSlope1() {
return LOW_SLOPE_1;
}
public double getLowSlope2() {
return LOW_SLOPE_2;
}
public double getHighSlope1() {
return HIGH_SLOPE_1;
}
public double getHighSlope2() {
return HIGH_SLOPE_2;
}
public double getDefaultLowSlopeLow() {
return DEFAULT_LOW_SLOPE_LOW;
}
public double getDefaultLowSlopeHigh() {
return DEFAULT_LOW_SLOPE_HIGH;
}
public int getDefaultSlope() {
return DEFAULT_SLOPE;
}
public double getDefaultHighSlopeHigh() {
return DEFAULT_HIGH_SLOPE_HIGH;
}
public double getDefaulHighSlopeLow() {
return DEFAULT_HIGH_SLOPE_LOW;
}
public double restrictIntercept(double intercept) { return intercept; }
}