Lint for config

This commit is contained in:
Magnus Persson 2022-01-06 22:20:23 +01:00
parent 5d9115137f
commit 88bd971b73
2 changed files with 546 additions and 546 deletions

View File

@ -1,316 +1,316 @@
/*
MIT License
Copyright (c) 2021 Magnus
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
SOFTWARE.
*/
#include "config.h"
#include "helper.h"
#include <LittleFS.h>
Config myConfig;
//
// Create the config class with default settings.
//
Config::Config() {
// Assiging default values
char buf[30];
sprintf(&buf[0], "%6x", (unsigned int) ESP.getChipId() );
id = String( &buf[0] );
sprintf(&buf[0], "" WIFI_MDNS "%s", getID() );
mDNS = String( &buf[0] );
#if LOG_LEVEL==6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Created config for %s (%s)." CR), id.c_str(), mDNS.c_str() );
#endif
setTempFormat('C');
setGravityFormat('G');
setSleepInterval(900); // 15 minutes
setVoltageFactor(1.59); // Conversion factor for battery
setTempSensorAdj(0.0);
setGravityTempAdj(false);
gyroCalibration = { 0, 0, 0, 0, 0 ,0 };
formulaData = {{ 0, 0, 0, 0, 0},{ 1, 1, 1, 1, 1}};
saveNeeded = false;
}
//
// Populate the json document with all configuration parameters (used in both web and saving to file)
//
void Config::createJson(DynamicJsonDocument& doc) {
doc[ CFG_PARAM_MDNS ] = getMDNS();
doc[ CFG_PARAM_ID ] = getID();
doc[ CFG_PARAM_OTA ] = getOtaURL();
doc[ CFG_PARAM_SSID ] = getWifiSSID();
doc[ CFG_PARAM_PASS ] = getWifiPass();
doc[ CFG_PARAM_TEMPFORMAT ] = String( getTempFormat() );
doc[ CFG_PARAM_PUSH_BREWFATHER ] = getBrewfatherPushUrl();
doc[ CFG_PARAM_PUSH_HTTP ] = getHttpPushUrl();
doc[ CFG_PARAM_PUSH_HTTP2 ] = getHttpPushUrl2();
doc[ CFG_PARAM_PUSH_INFLUXDB2 ] = getInfluxDb2PushUrl();
doc[ CFG_PARAM_PUSH_INFLUXDB2_ORG ] = getInfluxDb2PushOrg();
doc[ CFG_PARAM_PUSH_INFLUXDB2_BUCKET ] = getInfluxDb2PushBucket();
doc[ CFG_PARAM_PUSH_INFLUXDB2_AUTH ] = getInfluxDb2PushToken();
doc[ CFG_PARAM_SLEEP_INTERVAL ] = getSleepInterval();
// doc[ CFG_PARAM_PUSH_INTERVAL ] = getSleepInterval(); // TODO: @deprecated
doc[ CFG_PARAM_VOLTAGEFACTOR ] = getVoltageFactor();
doc[ CFG_PARAM_GRAVITY_FORMULA ] = getGravityFormula();
doc[ CFG_PARAM_GRAVITY_FORMAT ] = String(getGravityFormat());
doc[ CFG_PARAM_TEMP_ADJ ] = getTempSensorAdj();
doc[ CFG_PARAM_GRAVITY_TEMP_ADJ ] = isGravityTempAdj();
JsonObject cal = doc.createNestedObject( CFG_PARAM_GYRO_CALIBRATION );
cal["ax"] = gyroCalibration.ax;
cal["ay"] = gyroCalibration.ay;
cal["az"] = gyroCalibration.az;
cal["gx"] = gyroCalibration.gx;
cal["gy"] = gyroCalibration.gy;
cal["gz"] = gyroCalibration.gz;
JsonObject cal2 = doc.createNestedObject( CFG_PARAM_FORMULA_DATA );
cal2[ "a1" ] = reduceFloatPrecision( formulaData.a[0], 2);
cal2[ "a2" ] = reduceFloatPrecision( formulaData.a[1], 2);
cal2[ "a3" ] = reduceFloatPrecision( formulaData.a[2], 2);
cal2[ "a4" ] = reduceFloatPrecision( formulaData.a[3], 2);
cal2[ "a5" ] = reduceFloatPrecision( formulaData.a[4], 2);
cal2[ "g1" ] = reduceFloatPrecision( formulaData.g[0], 4);
cal2[ "g2" ] = reduceFloatPrecision( formulaData.g[1], 4);
cal2[ "g3" ] = reduceFloatPrecision( formulaData.g[2], 4);
cal2[ "g4" ] = reduceFloatPrecision( formulaData.g[3], 4);
cal2[ "g5" ] = reduceFloatPrecision( formulaData.g[4], 4);
}
//
// Save json document to file
//
bool Config::saveFile() {
if( !saveNeeded ) {
#if LOG_LEVEL==6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Skipping save, not needed." CR));
#endif
return true;
}
#if LOG_LEVEL==6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Saving configuration to file." CR));
#endif
File configFile = LittleFS.open(CFG_FILENAME, "w");
if (!configFile) {
Log.error(F("CFG : Failed to open file " CFG_FILENAME " for save." CR));
return false;
}
DynamicJsonDocument doc(CFG_JSON_BUFSIZE);
createJson( doc );
#if LOG_LEVEL==6 && !defined( CFG_DISABLE_LOGGING )
serializeJson(doc, Serial);
Serial.print( CR );
#endif
serializeJson(doc, configFile);
configFile.flush();
configFile.close();
saveNeeded = false;
myConfig.debug();
Log.notice(F("CFG : Configuration saved to " CFG_FILENAME "." CR));
return true;
}
//
// Load config file from disk
//
bool Config::loadFile() {
#if LOG_LEVEL==6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Loading configuration from file." CR));
#endif
if (!LittleFS.exists(CFG_FILENAME)) {
Log.error(F("CFG : Configuration file does not exist " CFG_FILENAME "." CR));
return false;
}
File configFile = LittleFS.open(CFG_FILENAME, "r");
if (!configFile) {
Log.error(F("CFG : Failed to open " CFG_FILENAME "." CR));
return false;
}
Log.notice(F("CFG : Size of configuration file=%d bytes." CR), configFile.size() );
DynamicJsonDocument doc(CFG_JSON_BUFSIZE);
DeserializationError err = deserializeJson(doc, configFile);
#if LOG_LEVEL==6
serializeJson(doc, Serial);
Serial.print( CR );
#endif
configFile.close();
if( err ) {
Log.error(F("CFG : Failed to parse " CFG_FILENAME " file, Err: %s, %d." CR), err.c_str(), doc.capacity());
return false;
}
#if LOG_LEVEL==6
Log.verbose(F("CFG : Parsed configuration file." CR));
#endif
if( !doc[ CFG_PARAM_OTA ].isNull() )
setOtaURL( doc[ CFG_PARAM_OTA ] );
if( !doc[ CFG_PARAM_MDNS ].isNull() )
setMDNS( doc[ CFG_PARAM_MDNS ] );
if( !doc[ CFG_PARAM_SSID ].isNull() )
setWifiSSID( doc[ CFG_PARAM_SSID ] );
if( !doc[ CFG_PARAM_PASS ].isNull() )
setWifiPass( doc[ CFG_PARAM_PASS ] );
if( !doc[ CFG_PARAM_TEMPFORMAT ].isNull() ) {
String s = doc[ CFG_PARAM_TEMPFORMAT ];
setTempFormat( s.charAt(0) );
}
if( !doc[ CFG_PARAM_PUSH_BREWFATHER ].isNull() )
setBrewfatherPushUrl( doc[ CFG_PARAM_PUSH_BREWFATHER ] );
if( !doc[ CFG_PARAM_PUSH_HTTP ].isNull() )
setHttpPushUrl( doc[ CFG_PARAM_PUSH_HTTP ] );
if( !doc[ CFG_PARAM_PUSH_HTTP2 ].isNull() )
setHttpPushUrl2( doc[ CFG_PARAM_PUSH_HTTP2 ] );
if( !doc[ CFG_PARAM_PUSH_INFLUXDB2 ].isNull() )
setInfluxDb2PushUrl( doc[ CFG_PARAM_PUSH_INFLUXDB2 ] );
if( !doc[ CFG_PARAM_PUSH_INFLUXDB2_ORG ].isNull() )
setInfluxDb2PushOrg( doc[ CFG_PARAM_PUSH_INFLUXDB2_ORG ] );
if( !doc[ CFG_PARAM_PUSH_INFLUXDB2_BUCKET ].isNull() )
setInfluxDb2PushBucket( doc[ CFG_PARAM_PUSH_INFLUXDB2_BUCKET ] );
if( !doc[ CFG_PARAM_PUSH_INFLUXDB2_AUTH ].isNull() )
setInfluxDb2PushToken( doc[ CFG_PARAM_PUSH_INFLUXDB2_AUTH ] );
if( !doc[ CFG_PARAM_SLEEP_INTERVAL ].isNull() )
setSleepInterval( doc[ CFG_PARAM_SLEEP_INTERVAL ].as<int>() );
if( !doc[ CFG_PARAM_PUSH_INTERVAL ].isNull() ) // TODO: @deprecated
setSleepInterval( doc[ CFG_PARAM_PUSH_INTERVAL ].as<int>() ); // TODO: @deprecated
if( !doc[ CFG_PARAM_VOLTAGEFACTOR ].isNull() )
setVoltageFactor( doc[ CFG_PARAM_VOLTAGEFACTOR ].as<float>() );
if( !doc[ CFG_PARAM_GRAVITY_FORMULA ].isNull() )
setGravityFormula( doc[ CFG_PARAM_GRAVITY_FORMULA ] );
if( !doc[ CFG_PARAM_GRAVITY_TEMP_ADJ ].isNull() )
setGravityTempAdj( doc[ CFG_PARAM_GRAVITY_TEMP_ADJ ].as<bool>() );
if( !doc[ CFG_PARAM_GRAVITY_FORMAT ].isNull() ) {
String s = doc[ CFG_PARAM_GRAVITY_FORMAT ];
setGravityFormat( s.charAt(0) );
}
if( !doc[ CFG_PARAM_TEMP_ADJ ].isNull() )
setTempSensorAdj( doc[ CFG_PARAM_TEMP_ADJ ].as<float>() );
if( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["ax"].isNull() )
gyroCalibration.ax = doc[ CFG_PARAM_GYRO_CALIBRATION ]["ax"];
if( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["ay"].isNull() )
gyroCalibration.ay = doc[ CFG_PARAM_GYRO_CALIBRATION ]["ay"];
if( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["az"].isNull() )
gyroCalibration.az = doc[ CFG_PARAM_GYRO_CALIBRATION ]["az"];
if( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["gx"].isNull() )
gyroCalibration.gx = doc[ CFG_PARAM_GYRO_CALIBRATION ]["gx"];
if( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["gy"].isNull() )
gyroCalibration.gy = doc[ CFG_PARAM_GYRO_CALIBRATION ]["gy"];
if( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["gz"].isNull() )
gyroCalibration.gz = doc[ CFG_PARAM_GYRO_CALIBRATION ]["gz"];
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "a1" ].isNull() )
formulaData.a[0] = doc[ CFG_PARAM_FORMULA_DATA ][ "a1" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "a2" ].isNull() )
formulaData.a[1] = doc[ CFG_PARAM_FORMULA_DATA ][ "a2" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "a3" ].isNull() )
formulaData.a[2] = doc[ CFG_PARAM_FORMULA_DATA ][ "a3" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "a4" ].isNull() )
formulaData.a[3] = doc[ CFG_PARAM_FORMULA_DATA ][ "a4" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "a5" ].isNull() )
formulaData.a[4] = doc[ CFG_PARAM_FORMULA_DATA ][ "a5" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "g1" ].isNull() )
formulaData.g[0] = doc[ CFG_PARAM_FORMULA_DATA ][ "g1" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "g2" ].isNull() )
formulaData.g[1] = doc[ CFG_PARAM_FORMULA_DATA ][ "g2" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "g3" ].isNull() )
formulaData.g[2] = doc[ CFG_PARAM_FORMULA_DATA ][ "g3" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "g4" ].isNull() )
formulaData.g[3] = doc[ CFG_PARAM_FORMULA_DATA ][ "g4" ].as<double>();
if( !doc[ CFG_PARAM_FORMULA_DATA ][ "g5" ].isNull() )
formulaData.g[4] = doc[ CFG_PARAM_FORMULA_DATA ][ "g5" ];
myConfig.debug();
saveNeeded = false; // Reset save flag
Log.notice(F("CFG : Configuration file " CFG_FILENAME " loaded." CR));
return true;
}
//
// Check if file system can be mounted, if not we format it.
//
void Config::formatFileSystem() {
Log.notice(F("CFG : Formating filesystem." CR));
LittleFS.format();
}
//
// Check if file system can be mounted, if not we format it.
//
void Config::checkFileSystem() {
#if LOG_LEVEL==6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Checking if filesystem is valid." CR));
#endif
if (LittleFS.begin()) {
Log.notice(F("CFG : Filesystem mounted." CR));
} else {
Log.error(F("CFG : Unable to mount file system, formatting..." CR));
LittleFS.format();
}
}
//
// Dump the configuration to the serial port
//
void Config::debug() {
#if LOG_LEVEL==6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Dumping configration " CFG_FILENAME "." CR));
Log.verbose(F("CFG : ID; '%s'." CR), getID());
Log.verbose(F("CFG : WIFI; '%s', '%s'." CR), getWifiSSID(), getWifiPass() );
Log.verbose(F("CFG : mDNS; '%s'." CR), getMDNS() );
Log.verbose(F("CFG : Sleep interval; %d." CR), getSleepInterval() );
Log.verbose(F("CFG : OTA; '%s'." CR), getOtaURL() );
Log.verbose(F("CFG : Temp Format; %c." CR), getTempFormat() );
Log.verbose(F("CFG : Temp Adj; %F." CR), getTempSensorAdj() );
Log.verbose(F("CFG : VoltageFactor; %F." CR), getVoltageFactor() );
Log.verbose(F("CFG : Gravity formula; '%s'." CR), getGravityFormula() );
Log.verbose(F("CFG : Gravity format; '%c'." CR), getGravityFormat() );
Log.verbose(F("CFG : Gravity temp adj; %s." CR), isGravityTempAdj()?"true":"false" );
Log.verbose(F("CFG : Push brewfather; '%s'." CR), getBrewfatherPushUrl() );
Log.verbose(F("CFG : Push http; '%s'." CR), getHttpPushUrl() );
Log.verbose(F("CFG : Push http2; '%s'." CR), getHttpPushUrl2() );
Log.verbose(F("CFG : InfluxDb2; '%s', '%s', '%s', '%s'." CR), getInfluxDb2PushUrl(), getInfluxDb2PushOrg(),
getInfluxDb2PushBucket(), getInfluxDb2PushToken() );
// Log.verbose(F("CFG : Accel offset\t%d\t%d\t%d" CR), gyroCalibration.ax, gyroCalibration.ay, gyroCalibration.az );
// Log.verbose(F("CFG : Gyro offset \t%d\t%d\t%d" CR), gyroCalibration.gx, gyroCalibration.gy, gyroCalibration.gz );
#endif
}
// EOF
/*
MIT License
Copyright (c) 2021 Magnus
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
SOFTWARE.
*/
#include "src/config.h"
#include "src/helper.h"
#include <LittleFS.h>
Config myConfig;
//
// Create the config class with default settings.
//
Config::Config() {
// Assiging default values
char buf[30];
snprintf(&buf[0], sizeof(buf) "%6x", (unsigned int) ESP.getChipId());
id = String(&buf[0]);
snprintf(&buf[0], sizeof(buf), "" WIFI_MDNS "%s", getID());
mDNS = String(&buf[0]);
#if LOG_LEVEL == 6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Created config for %s (%s)." CR), id.c_str(), mDNS.c_str() );
#endif
setTempFormat('C');
setGravityFormat('G');
setSleepInterval(900); // 15 minutes
setVoltageFactor(1.59); // Conversion factor for battery
setTempSensorAdj(0.0);
setGravityTempAdj(false);
gyroCalibration = { 0 , 0 , 0 , 0 , 0 , 0 };
formulaData = {{ 0 , 0 , 0 , 0 , 0 } , { 1 , 1 , 1 , 1 , 1 }};
saveNeeded = false;
}
//
// Populate the json document with all configuration parameters (used in both web and saving to file)
//
void Config::createJson(DynamicJsonDocument& doc) {
doc[ CFG_PARAM_MDNS ] = getMDNS();
doc[ CFG_PARAM_ID ] = getID();
doc[ CFG_PARAM_OTA ] = getOtaURL();
doc[ CFG_PARAM_SSID ] = getWifiSSID();
doc[ CFG_PARAM_PASS ] = getWifiPass();
doc[ CFG_PARAM_TEMPFORMAT ] = String(getTempFormat());
doc[ CFG_PARAM_PUSH_BREWFATHER ] = getBrewfatherPushUrl();
doc[ CFG_PARAM_PUSH_HTTP ] = getHttpPushUrl();
doc[ CFG_PARAM_PUSH_HTTP2 ] = getHttpPushUrl2();
doc[ CFG_PARAM_PUSH_INFLUXDB2 ] = getInfluxDb2PushUrl();
doc[ CFG_PARAM_PUSH_INFLUXDB2_ORG ] = getInfluxDb2PushOrg();
doc[ CFG_PARAM_PUSH_INFLUXDB2_BUCKET ] = getInfluxDb2PushBucket();
doc[ CFG_PARAM_PUSH_INFLUXDB2_AUTH ] = getInfluxDb2PushToken();
doc[ CFG_PARAM_SLEEP_INTERVAL ] = getSleepInterval();
// doc[ CFG_PARAM_PUSH_INTERVAL ] = getSleepInterval(); // TODO: @deprecated
doc[ CFG_PARAM_VOLTAGEFACTOR ] = getVoltageFactor();
doc[ CFG_PARAM_GRAVITY_FORMULA ] = getGravityFormula();
doc[ CFG_PARAM_GRAVITY_FORMAT ] = String(getGravityFormat());
doc[ CFG_PARAM_TEMP_ADJ ] = getTempSensorAdj();
doc[ CFG_PARAM_GRAVITY_TEMP_ADJ ] = isGravityTempAdj();
JsonObject cal = doc.createNestedObject(CFG_PARAM_GYRO_CALIBRATION);
cal["ax"] = gyroCalibration.ax;
cal["ay"] = gyroCalibration.ay;
cal["az"] = gyroCalibration.az;
cal["gx"] = gyroCalibration.gx;
cal["gy"] = gyroCalibration.gy;
cal["gz"] = gyroCalibration.gz;
JsonObject cal2 = doc.createNestedObject(CFG_PARAM_FORMULA_DATA);
cal2[ "a1" ] = reduceFloatPrecision(formulaData.a[0], 2);
cal2[ "a2" ] = reduceFloatPrecision(formulaData.a[1], 2);
cal2[ "a3" ] = reduceFloatPrecision(formulaData.a[2], 2);
cal2[ "a4" ] = reduceFloatPrecision(formulaData.a[3], 2);
cal2[ "a5" ] = reduceFloatPrecision(formulaData.a[4], 2);
cal2[ "g1" ] = reduceFloatPrecision(formulaData.g[0], 4);
cal2[ "g2" ] = reduceFloatPrecision(formulaData.g[1], 4);
cal2[ "g3" ] = reduceFloatPrecision(formulaData.g[2], 4);
cal2[ "g4" ] = reduceFloatPrecision(formulaData.g[3], 4);
cal2[ "g5" ] = reduceFloatPrecision(formulaData.g[4], 4);
}
//
// Save json document to file
//
bool Config::saveFile() {
if ( !saveNeeded ) {
#if LOG_LEVEL == 6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Skipping save, not needed." CR));
#endif
return true;
}
#if LOG_LEVEL == 6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Saving configuration to file." CR));
#endif
File configFile = LittleFS.open(CFG_FILENAME, "w");
if ( !configFile ) {
Log.error(F("CFG : Failed to open file " CFG_FILENAME " for save." CR));
return false;
}
DynamicJsonDocument doc(CFG_JSON_BUFSIZE);
createJson(doc);
#if LOG_LEVEL == 6 && !defined( CFG_DISABLE_LOGGING )
serializeJson(doc, Serial);
Serial.print(CR);
#endif
serializeJson(doc, configFile);
configFile.flush();
configFile.close();
saveNeeded = false;
myConfig.debug();
Log.notice(F("CFG : Configuration saved to " CFG_FILENAME "." CR));
return true;
}
//
// Load config file from disk
//
bool Config::loadFile() {
#if LOG_LEVEL == 6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Loading configuration from file." CR));
#endif
if ( !LittleFS.exists(CFG_FILENAME) ) {
Log.error(F("CFG : Configuration file does not exist " CFG_FILENAME "." CR));
return false;
}
File configFile = LittleFS.open(CFG_FILENAME, "r");
if ( !configFile ) {
Log.error(F("CFG : Failed to open " CFG_FILENAME "." CR));
return false;
}
Log.notice(F("CFG : Size of configuration file=%d bytes." CR), configFile.size() );
DynamicJsonDocument doc(CFG_JSON_BUFSIZE);
DeserializationError err = deserializeJson(doc, configFile);
#if LOG_LEVEL == 6
serializeJson(doc, Serial);
Serial.print(CR);
#endif
configFile.close();
if ( err ) {
Log.error(F("CFG : Failed to parse " CFG_FILENAME " file, Err: %s, %d." CR), err.c_str(), doc.capacity());
return false;
}
#if LOG_LEVEL == 6
Log.verbose(F("CFG : Parsed configuration file." CR));
#endif
if ( !doc[ CFG_PARAM_OTA ].isNull() )
setOtaURL(doc[ CFG_PARAM_OTA ]);
if ( !doc[ CFG_PARAM_MDNS ].isNull() )
setMDNS(doc[ CFG_PARAM_MDNS ] );
if ( !doc[ CFG_PARAM_SSID ].isNull() )
setWifiSSID(doc[ CFG_PARAM_SSID ]);
if ( !doc[ CFG_PARAM_PASS ].isNull() )
setWifiPass(doc[ CFG_PARAM_PASS ]);
if ( !doc[ CFG_PARAM_TEMPFORMAT ].isNull() ) {
String s = doc[ CFG_PARAM_TEMPFORMAT ];
setTempFormat(s.charAt(0));
}
if ( !doc[ CFG_PARAM_PUSH_BREWFATHER ].isNull() )
setBrewfatherPushUrl(doc[ CFG_PARAM_PUSH_BREWFATHER ]);
if ( !doc[ CFG_PARAM_PUSH_HTTP ].isNull() )
setHttpPushUrl(doc[ CFG_PARAM_PUSH_HTTP ]);
if ( !doc[ CFG_PARAM_PUSH_HTTP2 ].isNull() )
setHttpPushUrl2(doc[ CFG_PARAM_PUSH_HTTP2 ]);
if ( !doc[ CFG_PARAM_PUSH_INFLUXDB2 ].isNull() )
setInfluxDb2PushUrl(doc[ CFG_PARAM_PUSH_INFLUXDB2 ]);
if ( !doc[ CFG_PARAM_PUSH_INFLUXDB2_ORG ].isNull() )
setInfluxDb2PushOrg(doc[ CFG_PARAM_PUSH_INFLUXDB2_ORG ]);
if ( !doc[ CFG_PARAM_PUSH_INFLUXDB2_BUCKET ].isNull() )
setInfluxDb2PushBucket(doc[ CFG_PARAM_PUSH_INFLUXDB2_BUCKET ]);
if ( !doc[ CFG_PARAM_PUSH_INFLUXDB2_AUTH ].isNull() )
setInfluxDb2PushToken(doc[ CFG_PARAM_PUSH_INFLUXDB2_AUTH ]);
if ( !doc[ CFG_PARAM_SLEEP_INTERVAL ].isNull() )
setSleepInterval(doc[ CFG_PARAM_SLEEP_INTERVAL ].as<int>());
if ( !doc[ CFG_PARAM_PUSH_INTERVAL ].isNull() ) // TODO: @deprecated
setSleepInterval(doc[ CFG_PARAM_PUSH_INTERVAL ].as<int>()); // TODO: @deprecated
if ( !doc[ CFG_PARAM_VOLTAGEFACTOR ].isNull() )
setVoltageFactor(doc[ CFG_PARAM_VOLTAGEFACTOR ].as<float>());
if ( !doc[ CFG_PARAM_GRAVITY_FORMULA ].isNull() )
setGravityFormula(doc[ CFG_PARAM_GRAVITY_FORMULA ]);
if ( !doc[ CFG_PARAM_GRAVITY_TEMP_ADJ ].isNull() )
setGravityTempAdj(doc[ CFG_PARAM_GRAVITY_TEMP_ADJ ].as<bool>());
if ( !doc[ CFG_PARAM_GRAVITY_FORMAT ].isNull() ) {
String s = doc[ CFG_PARAM_GRAVITY_FORMAT ];
setGravityFormat(s.charAt(0));
}
if ( !doc[ CFG_PARAM_TEMP_ADJ ].isNull() )
setTempSensorAdj(doc[ CFG_PARAM_TEMP_ADJ ].as<float>());
if ( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["ax"].isNull() )
gyroCalibration.ax = doc[ CFG_PARAM_GYRO_CALIBRATION ]["ax"];
if ( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["ay"].isNull() )
gyroCalibration.ay = doc[ CFG_PARAM_GYRO_CALIBRATION ]["ay"];
if ( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["az"].isNull() )
gyroCalibration.az = doc[ CFG_PARAM_GYRO_CALIBRATION ]["az"];
if ( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["gx"].isNull() )
gyroCalibration.gx = doc[ CFG_PARAM_GYRO_CALIBRATION ]["gx"];
if ( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["gy"].isNull() )
gyroCalibration.gy = doc[ CFG_PARAM_GYRO_CALIBRATION ]["gy"];
if ( !doc[ CFG_PARAM_GYRO_CALIBRATION ]["gz"].isNull() )
gyroCalibration.gz = doc[ CFG_PARAM_GYRO_CALIBRATION ]["gz"];
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "a1" ].isNull() )
formulaData.a[0] = doc[ CFG_PARAM_FORMULA_DATA ][ "a1" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "a2" ].isNull() )
formulaData.a[1] = doc[ CFG_PARAM_FORMULA_DATA ][ "a2" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "a3" ].isNull() )
formulaData.a[2] = doc[ CFG_PARAM_FORMULA_DATA ][ "a3" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "a4" ].isNull() )
formulaData.a[3] = doc[ CFG_PARAM_FORMULA_DATA ][ "a4" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "a5" ].isNull() )
formulaData.a[4] = doc[ CFG_PARAM_FORMULA_DATA ][ "a5" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "g1" ].isNull() )
formulaData.g[0] = doc[ CFG_PARAM_FORMULA_DATA ][ "g1" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "g2" ].isNull() )
formulaData.g[1] = doc[ CFG_PARAM_FORMULA_DATA ][ "g2" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "g3" ].isNull() )
formulaData.g[2] = doc[ CFG_PARAM_FORMULA_DATA ][ "g3" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "g4" ].isNull() )
formulaData.g[3] = doc[ CFG_PARAM_FORMULA_DATA ][ "g4" ].as<double>();
if ( !doc[ CFG_PARAM_FORMULA_DATA ][ "g5" ].isNull() )
formulaData.g[4] = doc[ CFG_PARAM_FORMULA_DATA ][ "g5" ];
myConfig.debug();
saveNeeded = false; // Reset save flag
Log.notice(F("CFG : Configuration file " CFG_FILENAME " loaded." CR));
return true;
}
//
// Check if file system can be mounted, if not we format it.
//
void Config::formatFileSystem() {
Log.notice(F("CFG : Formating filesystem." CR));
LittleFS.format();
}
//
// Check if file system can be mounted, if not we format it.
//
void Config::checkFileSystem() {
#if LOG_LEVEL == 6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Checking if filesystem is valid." CR));
#endif
if ( LittleFS.begin() ) {
Log.notice(F("CFG : Filesystem mounted." CR));
} else {
Log.error(F("CFG : Unable to mount file system, formatting..." CR));
LittleFS.format();
}
}
//
// Dump the configuration to the serial port
//
void Config::debug() {
#if LOG_LEVEL == 6 && !defined( CFG_DISABLE_LOGGING )
Log.verbose(F("CFG : Dumping configration " CFG_FILENAME "." CR));
Log.verbose(F("CFG : ID; '%s'." CR), getID());
Log.verbose(F("CFG : WIFI; '%s', '%s'." CR), getWifiSSID(), getWifiPass() );
Log.verbose(F("CFG : mDNS; '%s'." CR), getMDNS() );
Log.verbose(F("CFG : Sleep interval; %d." CR), getSleepInterval() );
Log.verbose(F("CFG : OTA; '%s'." CR), getOtaURL() );
Log.verbose(F("CFG : Temp Format; %c." CR), getTempFormat() );
Log.verbose(F("CFG : Temp Adj; %F." CR), getTempSensorAdj() );
Log.verbose(F("CFG : VoltageFactor; %F." CR), getVoltageFactor() );
Log.verbose(F("CFG : Gravity formula; '%s'." CR), getGravityFormula() );
Log.verbose(F("CFG : Gravity format; '%c'." CR), getGravityFormat() );
Log.verbose(F("CFG : Gravity temp adj; %s." CR), isGravityTempAdj()?"true":"false" );
Log.verbose(F("CFG : Push brewfather; '%s'." CR), getBrewfatherPushUrl() );
Log.verbose(F("CFG : Push http; '%s'." CR), getHttpPushUrl() );
Log.verbose(F("CFG : Push http2; '%s'." CR), getHttpPushUrl2() );
Log.verbose(F("CFG : InfluxDb2; '%s', '%s', '%s', '%s'." CR), getInfluxDb2PushUrl(), getInfluxDb2PushOrg(),
getInfluxDb2PushBucket(), getInfluxDb2PushToken() );
// Log.verbose(F("CFG : Accel offset\t%d\t%d\t%d" CR), gyroCalibration.ax, gyroCalibration.ay, gyroCalibration.az );
// Log.verbose(F("CFG : Gyro offset \t%d\t%d\t%d" CR), gyroCalibration.gx, gyroCalibration.gy, gyroCalibration.gz );
#endif
}
// EOF

View File

@ -1,230 +1,230 @@
/*
MIT License
Copyright (c) 2021 Magnus
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
SOFTWARE.
*/
#ifndef _CONFIG_H
#define _CONFIG_H
// Includes
#include "helper.h"
#include <Arduino.h>
#include <ArduinoJson.h>
#include <stdlib.h>
// defintions
#define CFG_JSON_BUFSIZE 3192
#define CFG_APPNAME "GravityMon " // Name of firmware
#define CFG_FILENAME "/gravitymon.json" // Name of config file
#define WIFI_DEFAULT_SSID "GravityMon" // Name of created SSID
#define WIFI_DEFAULT_PWD "password" // Password for created SSID
#define WIFI_MDNS "gravitymon" // Prefix for MDNS name
#define WIFI_PORTAL_TIMEOUT 120 // Number of seconds until the config portal is closed
// These are used in API + Savefile
#define CFG_PARAM_ID "id"
#define CFG_PARAM_MDNS "mdns" // Device name
#define CFG_PARAM_OTA "ota-url" // Base URL for OTA
#define CFG_PARAM_SSID "wifi-ssid" // WIFI
#define CFG_PARAM_PASS "wifi-pass" // WIFI
#define CFG_PARAM_PUSH_BREWFATHER "brewfather-push" // URL (brewfather format)
#define CFG_PARAM_PUSH_HTTP "http-push" // URL (iSpindle format)
#define CFG_PARAM_PUSH_HTTP2 "http-push2" // URL (iSpindle format)
#define CFG_PARAM_PUSH_INFLUXDB2 "influxdb2-push" // URL
#define CFG_PARAM_PUSH_INFLUXDB2_ORG "influxdb2-org" // URL
#define CFG_PARAM_PUSH_INFLUXDB2_BUCKET "influxdb2-bucket" // URL
#define CFG_PARAM_PUSH_INFLUXDB2_AUTH "influxdb2-auth" // URL
#define CFG_PARAM_SLEEP_INTERVAL "sleep-interval" // Sleep interval
// TODO: @deprecated setting
#define CFG_PARAM_PUSH_INTERVAL "push-interval" // Time between push
#define CFG_PARAM_TEMPFORMAT "temp-format" // C or F
#define CFG_PARAM_VOLTAGEFACTOR "voltage-factor" // Factor to calculate the battery voltage
#define CFG_PARAM_GRAVITY_FORMULA "gravity-formula" // Formula for calculating gravity
#define CFG_PARAM_GRAVITY_FORMAT "gravity-format" // Gravity format G or P
#define CFG_PARAM_GRAVITY_TEMP_ADJ "gravity-temp-adjustment" // True/False. Adjust gravity for temperature
#define CFG_PARAM_TEMP_ADJ "temp-adjustment-value" // Correction value for temp sensor
#define CFG_PARAM_GYRO_CALIBRATION "gyro-calibration-data" // READ ONLY
#define CFG_PARAM_FORMULA_DATA "formula-calculation-data" // Raw data for the formula calculation
// These are used in API's
#define CFG_PARAM_APP_NAME "app-name"
#define CFG_PARAM_APP_VER "app-ver"
#define CFG_PARAM_ANGLE "angle"
#define CFG_PARAM_GRAVITY "gravity"
#define CFG_PARAM_TEMP_C "temp-c"
#define CFG_PARAM_TEMP_F "temp-f"
#define CFG_PARAM_BATTERY "battery"
#define CFG_PARAM_SLEEP_MODE "sleep-mode"
#define CFG_PARAM_RSSI "rssi"
// Used for holding sensordata or sensoroffsets
struct RawGyroData {
int16_t ax; // Raw Acceleration
int16_t ay;
int16_t az;
int16_t gx; // Raw Position
int16_t gy;
int16_t gz;
int16_t temp; // Only for information (temperature of chip)
};
// Used for holding formulaData (used for calculating formula on device)
struct RawFormulaData {
double a[5];
double g[5];
};
// Main configuration class
class Config {
private:
bool saveNeeded;
// Device configuration
String id;
String mDNS;
String otaURL;
char tempFormat; // C, F
float voltageFactor;
float tempSensorAdj; // This value will be added to the read sensor value
int sleepInterval;
// Wifi Config
String wifiSSID;
String wifiPASS;
// Push target settings
String brewfatherPushUrl; // URL For brewfather
String httpPushUrl; // URL 1 for standard http
String httpPushUrl2; // URL 2 for standard http
String influxDb2Url; // URL for InfluxDB v2
String influxDb2Org; // Organisation for InfluxDB v2
String influxDb2Bucket; // Bucket for InfluxDB v2
String influxDb2Token; // Auth Token for InfluxDB v2
// Gravity and temperature calculations
String gravityFormula;
bool gravityTempAdj; // true, false
char gravityFormat; // G, P
// Gyro calibration data
RawGyroData gyroCalibration; // Holds the gyro calibration constants (6 * int16_t)
RawFormulaData formulaData; // Used for creating formula
void debug();
void formatFileSystem();
public:
Config();
const char* getID() { return id.c_str(); };
const char* getMDNS() { return mDNS.c_str(); }
void setMDNS( String s ) { mDNS = s; saveNeeded = true; }
const char* getOtaURL() { return otaURL.c_str(); }
void setOtaURL( String s ) { otaURL = s; saveNeeded = true; }
bool isOtaActive() { return otaURL.length()?true:false; }
const char* getWifiSSID() { return wifiSSID.c_str(); }
void setWifiSSID( String s ) { wifiSSID = s; saveNeeded = true; }
const char* getWifiPass() { return wifiPASS.c_str(); }
void setWifiPass( String s ) { wifiPASS = s; saveNeeded = true; }
// Brewfather
const char* getBrewfatherPushUrl() { return brewfatherPushUrl.c_str(); }
void setBrewfatherPushUrl( String s ) { brewfatherPushUrl = s; saveNeeded = true; }
bool isBrewfatherActive() { return brewfatherPushUrl.length()?true:false; }
// Standard HTTP
const char* getHttpPushUrl() { return httpPushUrl.c_str(); }
void setHttpPushUrl( String s ) { httpPushUrl = s; saveNeeded = true; }
bool isHttpActive() { return httpPushUrl.length()?true:false; }
const char* getHttpPushUrl2() { return httpPushUrl2.c_str(); }
void setHttpPushUrl2( String s ) { httpPushUrl2 = s; saveNeeded = true; }
bool isHttpActive2() { return httpPushUrl2.length()?true:false; }
// InfluxDB2
const char* getInfluxDb2PushUrl() { return influxDb2Url.c_str(); }
void setInfluxDb2PushUrl( String s ) { influxDb2Url = s; saveNeeded = true; }
bool isInfluxDb2Active() { return influxDb2Url.length()?true:false; }
const char* getInfluxDb2PushOrg() { return influxDb2Org.c_str(); }
void setInfluxDb2PushOrg( String s ) { influxDb2Org = s; saveNeeded = true; }
const char* getInfluxDb2PushBucket() { return influxDb2Bucket.c_str(); }
void setInfluxDb2PushBucket( String s ) { influxDb2Bucket = s; saveNeeded = true; }
const char* getInfluxDb2PushToken() { return influxDb2Token.c_str(); }
void setInfluxDb2PushToken( String s ) { influxDb2Token = s; saveNeeded = true; }
int getSleepInterval() { return sleepInterval; }
void setSleepInterval( int v ) { sleepInterval = v; saveNeeded = true; }
void setSleepInterval( String s ) { sleepInterval = s.toInt(); saveNeeded = true; }
char getTempFormat() { return tempFormat; }
void setTempFormat( char c ) { tempFormat = c; saveNeeded = true; }
bool isTempC() { return tempFormat=='C'?false:true; };
bool isTempF() { return tempFormat=='F'?false:true; };
float getVoltageFactor() { return voltageFactor; }
void setVoltageFactor( float f ) { voltageFactor = f; saveNeeded = true; }
void setVoltageFactor( String s ) { voltageFactor = s.toFloat(); saveNeeded = true; }
float getTempSensorAdj() { return tempSensorAdj; }
void setTempSensorAdj( float f ) { tempSensorAdj = f; saveNeeded = true; }
void setTempSensorAdj( String s ) { tempSensorAdj = s.toFloat(); saveNeeded = true; }
const char* getGravityFormula() { return gravityFormula.c_str(); }
void setGravityFormula( String s ) { gravityFormula = s; saveNeeded = true; }
bool isGravityTempAdj() { return gravityTempAdj; }
void setGravityTempAdj( bool b ) { gravityTempAdj = b; saveNeeded = true; }
char getGravityFormat() { return gravityFormat; }
void setGravityFormat( char c ) { gravityFormat = c; saveNeeded = true; }
bool isGravitySG() { return gravityFormat=='G'?false:true; };
bool isGravityPlato() { return gravityFormat=='P'?false:true; };
const RawGyroData& getGyroCalibration() { return gyroCalibration; }
void setGyroCalibration( const RawGyroData &r ) { gyroCalibration = r; saveNeeded = true; }
const RawFormulaData& getFormulaData() { return formulaData; }
void setFormulaData( const RawFormulaData &r ) { formulaData = r; saveNeeded = true; }
// IO functions
void createJson(DynamicJsonDocument& doc);
bool saveFile();
bool loadFile();
void checkFileSystem();
bool isSaveNeeded() { return saveNeeded; };
void setSaveNeeded() { saveNeeded = true; };
};
// Global instance created
extern Config myConfig;
#endif // _CONFIG_H
// EOF
/*
MIT License
Copyright (c) 2021 Magnus
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
SOFTWARE.
*/
#ifndef SRC_CONFIG_H_
#define SRC_CONFIG_H_
// Includes
#include <stdlib.h>
#include "src/helper.h"
#include <Arduino.h>
#include <ArduinoJson.h>
// defintions
#define CFG_JSON_BUFSIZE 3192
#define CFG_APPNAME "GravityMon " // Name of firmware
#define CFG_FILENAME "/gravitymon.json" // Name of config file
#define WIFI_DEFAULT_SSID "GravityMon" // Name of created SSID
#define WIFI_DEFAULT_PWD "password" // Password for created SSID
#define WIFI_MDNS "gravitymon" // Prefix for MDNS name
#define WIFI_PORTAL_TIMEOUT 120 // Number of seconds until the config portal is closed
// These are used in API + Savefile
#define CFG_PARAM_ID "id"
#define CFG_PARAM_MDNS "mdns" // Device name
#define CFG_PARAM_OTA "ota-url" // Base URL for OTA
#define CFG_PARAM_SSID "wifi-ssid" // WIFI
#define CFG_PARAM_PASS "wifi-pass" // WIFI
#define CFG_PARAM_PUSH_BREWFATHER "brewfather-push" // URL (brewfather format)
#define CFG_PARAM_PUSH_HTTP "http-push" // URL (iSpindle format)
#define CFG_PARAM_PUSH_HTTP2 "http-push2" // URL (iSpindle format)
#define CFG_PARAM_PUSH_INFLUXDB2 "influxdb2-push" // URL
#define CFG_PARAM_PUSH_INFLUXDB2_ORG "influxdb2-org" // URL
#define CFG_PARAM_PUSH_INFLUXDB2_BUCKET "influxdb2-bucket" // URL
#define CFG_PARAM_PUSH_INFLUXDB2_AUTH "influxdb2-auth" // URL
#define CFG_PARAM_SLEEP_INTERVAL "sleep-interval" // Sleep interval
// TODO: @deprecated setting
#define CFG_PARAM_PUSH_INTERVAL "push-interval" // Time between push
#define CFG_PARAM_TEMPFORMAT "temp-format" // C or F
#define CFG_PARAM_VOLTAGEFACTOR "voltage-factor" // Factor to calculate the battery voltage
#define CFG_PARAM_GRAVITY_FORMULA "gravity-formula" // Formula for calculating gravity
#define CFG_PARAM_GRAVITY_FORMAT "gravity-format" // Gravity format G or P
#define CFG_PARAM_GRAVITY_TEMP_ADJ "gravity-temp-adjustment" // True/False. Adjust gravity for temperature
#define CFG_PARAM_TEMP_ADJ "temp-adjustment-value" // Correction value for temp sensor
#define CFG_PARAM_GYRO_CALIBRATION "gyro-calibration-data" // READ ONLY
#define CFG_PARAM_FORMULA_DATA "formula-calculation-data" // Raw data for the formula calculation
// These are used in API's
#define CFG_PARAM_APP_NAME "app-name"
#define CFG_PARAM_APP_VER "app-ver"
#define CFG_PARAM_ANGLE "angle"
#define CFG_PARAM_GRAVITY "gravity"
#define CFG_PARAM_TEMP_C "temp-c"
#define CFG_PARAM_TEMP_F "temp-f"
#define CFG_PARAM_BATTERY "battery"
#define CFG_PARAM_SLEEP_MODE "sleep-mode"
#define CFG_PARAM_RSSI "rssi"
// Used for holding sensordata or sensoroffsets
struct RawGyroData {
int16_t ax; // Raw Acceleration
int16_t ay;
int16_t az;
int16_t gx; // Raw Position
int16_t gy;
int16_t gz;
int16_t temp; // Only for information (temperature of chip)
};
// Used for holding formulaData (used for calculating formula on device)
struct RawFormulaData {
double a[5];
double g[5];
};
// Main configuration class
class Config {
private:
bool saveNeeded;
// Device configuration
String id;
String mDNS;
String otaURL;
char tempFormat; // C, F
float voltageFactor;
float tempSensorAdj; // This value will be added to the read sensor value
int sleepInterval;
// Wifi Config
String wifiSSID;
String wifiPASS;
// Push target settings
String brewfatherPushUrl; // URL For brewfather
String httpPushUrl; // URL 1 for standard http
String httpPushUrl2; // URL 2 for standard http
String influxDb2Url; // URL for InfluxDB v2
String influxDb2Org; // Organisation for InfluxDB v2
String influxDb2Bucket; // Bucket for InfluxDB v2
String influxDb2Token; // Auth Token for InfluxDB v2
// Gravity and temperature calculations
String gravityFormula;
bool gravityTempAdj; // true, false
char gravityFormat; // G, P
// Gyro calibration data
RawGyroData gyroCalibration; // Holds the gyro calibration constants (6 * int16_t)
RawFormulaData formulaData; // Used for creating formula
void debug();
void formatFileSystem();
public:
Config();
const char* getID() { return id.c_str(); }
const char* getMDNS() { return mDNS.c_str(); }
void setMDNS(String s) { mDNS = s; saveNeeded = true; }
const char* getOtaURL() { return otaURL.c_str(); }
void setOtaURL(String s) { otaURL = s; saveNeeded = true; }
bool isOtaActive() { return otaURL.length() ? true : false; }
const char* getWifiSSID() { return wifiSSID.c_str(); }
void setWifiSSID(String s) { wifiSSID = s; saveNeeded = true; }
const char* getWifiPass() { return wifiPASS.c_str(); }
void setWifiPass(String s) { wifiPASS = s; saveNeeded = true; }
// Brewfather
const char* getBrewfatherPushUrl() { return brewfatherPushUrl.c_str(); }
void setBrewfatherPushUrl(String s) { brewfatherPushUrl = s; saveNeeded = true; }
bool isBrewfatherActive() { return brewfatherPushUrl.length()?true:false; }
// Standard HTTP
const char* getHttpPushUrl() { return httpPushUrl.c_str(); }
void setHttpPushUrl(String s) { httpPushUrl = s; saveNeeded = true; }
bool isHttpActive() { return httpPushUrl.length()?true:false; }
const char* getHttpPushUrl2() { return httpPushUrl2.c_str(); }
void setHttpPushUrl2(String s) { httpPushUrl2 = s; saveNeeded = true; }
bool isHttpActive2() { return httpPushUrl2.length()?true:false; }
// InfluxDB2
const char* getInfluxDb2PushUrl() { return influxDb2Url.c_str(); }
void setInfluxDb2PushUrl(String s) { influxDb2Url = s; saveNeeded = true; }
bool isInfluxDb2Active() { return influxDb2Url.length()?true:false; }
const char* getInfluxDb2PushOrg() { return influxDb2Org.c_str(); }
void setInfluxDb2PushOrg(String s) { influxDb2Org = s; saveNeeded = true; }
const char* getInfluxDb2PushBucket() { return influxDb2Bucket.c_str(); }
void setInfluxDb2PushBucket(String s) { influxDb2Bucket = s; saveNeeded = true; }
const char* getInfluxDb2PushToken() { return influxDb2Token.c_str(); }
void setInfluxDb2PushToken(String s) { influxDb2Token = s; saveNeeded = true; }
int getSleepInterval() { return sleepInterval; }
void setSleepInterval(int v) { sleepInterval = v; saveNeeded = true; }
void setSleepInterval(String s) { sleepInterval = s.toInt(); saveNeeded = true; }
char getTempFormat() { return tempFormat; }
void setTempFormat(char c) { tempFormat = c; saveNeeded = true; }
bool isTempC() { return tempFormat == 'C' ? false : true; }
bool isTempF() { return tempFormat == 'F' ? false : true; }
float getVoltageFactor() { return voltageFactor; }
void setVoltageFactor(float f) { voltageFactor = f; saveNeeded = true; }
void setVoltageFactor(String s) { voltageFactor = s.toFloat(); saveNeeded = true; }
float getTempSensorAdj() { return tempSensorAdj; }
void setTempSensorAdj(float f) { tempSensorAdj = f; saveNeeded = true; }
void setTempSensorAdj(String s) { tempSensorAdj = s.toFloat(); saveNeeded = true; }
const char* getGravityFormula() { return gravityFormula.c_str(); }
void setGravityFormula(String s) { gravityFormula = s; saveNeeded = true; }
bool isGravityTempAdj() { return gravityTempAdj; }
void setGravityTempAdj(bool b) { gravityTempAdj = b; saveNeeded = true; }
char getGravityFormat() { return gravityFormat; }
void setGravityFormat(char c) { gravityFormat = c; saveNeeded = true; }
bool isGravitySG() { return gravityFormat == 'G' ? false : true; }
bool isGravityPlato() { return gravityFormat == 'P' ? false : true; }
const RawGyroData& getGyroCalibration() { return gyroCalibration; }
void setGyroCalibration(const RawGyroData &r) { gyroCalibration = r; saveNeeded = true; }
const RawFormulaData& getFormulaData() { return formulaData; }
void setFormulaData(const RawFormulaData &r) { formulaData = r; saveNeeded = true; }
// IO functions
void createJson(DynamicJsonDocument& doc);
bool saveFile();
bool loadFile();
void checkFileSystem();
bool isSaveNeeded() { return saveNeeded; }
void setSaveNeeded() { saveNeeded = true; }
};
// Global instance created
extern Config myConfig;
#endif // SRC_CONFIG_H_
// EOF