use wrapper class for SensorId and overload operators so that it can be used both as number and string

This commit is contained in:
Nicu Hodos 2025-09-30 18:47:29 +02:00
parent 4ea9c83ff9
commit 77422d5f59
8 changed files with 63 additions and 67 deletions

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@ -15,46 +15,40 @@ unordered_map<string, Ha::Switch*> p1Switches;
auto gatewayDevice = &DeviceConfig::create(MAIN_DEVICE_ID).withName("RC Gateway").withManufacturer("Adafruit").withModel("Huzzah Esp8266"); auto gatewayDevice = &DeviceConfig::create(MAIN_DEVICE_ID).withName("RC Gateway").withManufacturer("Adafruit").withModel("Huzzah Esp8266");
Sensor* buildRoomSensor(const char* id) { auto roomSensor = Builder<TemperatureSensor>::instance(TEMP_SENSOR)
DeviceConfig* device = &DeviceConfig::create(id) .asDevice(&DeviceConfig::create(TEMP_SENSOR)
.withName("Servers room") .withName("Servers room")
.withManufacturer("Atmel") .withManufacturer("Atmel")
.withModel("AtTiny85") .withModel("AtTiny85")
.withArea("Basement") .withArea("Basement")
.withParent(gatewayDevice); .withParent(gatewayDevice))
return Builder<TemperatureSensor>::instance(id) .withValueTemplate("{{ value_json.sensor.temperature }}")
.asDevice(device) .addDiagnostic(new VoltageSensor{TEMP_SENSOR, "Battery voltage", "{{ value_json.sensor.diagnostic.voltage }}"})
.withValueTemplate("{{ value_json.sensor.temperature }}") .addDiagnostic(new BatterySensor{TEMP_SENSOR, "Battery level", "{{ ((value_json.sensor.diagnostic.voltage|float-2.5)|round(2)*100/2)|int }}"})
.addDiagnostic(new VoltageSensor{id, "Battery voltage", "{{ value_json.sensor.diagnostic.voltage }}"}) .build();
.addDiagnostic(new BatterySensor{id, "Battery level", "{{ ((value_json.sensor.diagnostic.voltage|float-2.5)|round(2)*100/2)|int }}"})
.build();
}
Sensor* buildTankSensor(const char* id) { auto tankSensor = Builder<Sensor>::instance(new Sensor{ "Level", OIL_SENSOR })
DeviceConfig* device = &DeviceConfig::create(id) .asDevice(&DeviceConfig::create(OIL_SENSOR)
.withName("Oil tank") .withName("Oil tank")
.withManufacturer("Arduino") .withManufacturer("Arduino")
.withModel("Pro Mini") .withModel("Pro Mini")
.withArea("Basement") .withArea("Basement")
.withParent(gatewayDevice); .withParent(gatewayDevice))
return Builder<Sensor>::instance(new Sensor{ "Level", id }) .withUnitMeasure("%")
.asDevice(device) .withSensorStateClass(MEASUREMENT)
.withUnitMeasure("%") .withIcon("mdi:hydraulic-oil-level")
.withValueTemplate("{{ 100 - ((value_json.sensor.value-12)|float*100/120)|round(2) }}")
.addSecondary(
Builder<Sensor>::instance(new Sensor{ "Depth", OIL_SENSOR })
.withDeviceClass("distance")
.withUnitMeasure("cm")
.withSensorStateClass(MEASUREMENT) .withSensorStateClass(MEASUREMENT)
.withIcon("mdi:hydraulic-oil-level") .withValueTemplate("{{ value_json.sensor.value }}")
.withValueTemplate("{{ 100 - ((value_json.sensor.value-12)|float*100/120)|round(2) }}") .build()
.addSecondary( )
Builder<Sensor>::instance(new Sensor{ "Depth", id }) .addDiagnostic(new VoltageSensor{OIL_SENSOR, "Battery voltage", "{{ value_json.sensor.diagnostic.voltage }}"})
.withDeviceClass("distance") .addDiagnostic(new BatterySensor{OIL_SENSOR, "Battery level", "{{ ((value_json.sensor.diagnostic.voltage|float-4.0)|round(2)*100/2.4)|int }}"})
.withUnitMeasure("cm") .build();
.withSensorStateClass(MEASUREMENT)
.withValueTemplate("{{ value_json.sensor.value }}")
.build()
)
.addDiagnostic(new VoltageSensor{id, "Battery voltage", "{{ value_json.sensor.diagnostic.voltage }}"})
.addDiagnostic(new BatterySensor{id, "Battery level", "{{ ((value_json.sensor.diagnostic.voltage|float-4.0)|round(2)*100/2.4)|int }}"})
.build();
}
struct PollinSwitch : Switch { struct PollinSwitch : Switch {
constexpr static const char* man = "Pollin"; constexpr static const char* man = "Pollin";
@ -143,8 +137,3 @@ Command* commands[] = {
new PollinSwitch{"00011", 4, "homebox"}, new PollinSwitch{"00011", 4, "homebox"},
new PollinSwitch{"11111", 4, "Train", "Playroom"} new PollinSwitch{"11111", 4, "Train", "Playroom"}
}; };
Sensor* sensors[] = {
buildRoomSensor("4"),
buildTankSensor("7")
};

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@ -6,9 +6,7 @@ class ContactSensor: public TinySensor {
SensorType sensorType = CONTACT; SensorType sensorType = CONTACT;
public: public:
ContactSensor(short id) : ContactSensor(SensorId id) : TinySensor(id) {}
TinySensor(id) {
}
void sendStateAndVoltage(bool state) { void sendStateAndVoltage(bool state) {
sendInfo(ID(id) | VCC(readVcc()) | STATE(!state) | TYPE(sensorType)); sendInfo(ID(id) | VCC(readVcc()) | STATE(!state) | TYPE(sensorType));

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@ -6,9 +6,7 @@ class GenericSensor : public TinySensor {
SensorType sensorType = GENERIC; SensorType sensorType = GENERIC;
public: public:
GenericSensor(short id) : GenericSensor(SensorId id) : TinySensor(id) {}
TinySensor(id) {
}
void sendValueAndVoltage(int value) { void sendValueAndVoltage(int value) {
sendInfo(ID(id) | VCC(readVcc()) | VALUE(value) | TYPE(sensorType)); sendInfo(ID(id) | VCC(readVcc()) | VALUE(value) | TYPE(sensorType));

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@ -6,9 +6,7 @@ class HumiditySensor : public TinySensor {
SensorType sensorType = HUMIDITY; SensorType sensorType = HUMIDITY;
public: public:
HumiditySensor(short id) : HumiditySensor(SensorId id) : TinySensor(id) {}
TinySensor(id) {
}
void sendHumidityAndVoltage(int humidity) { void sendHumidityAndVoltage(int humidity) {
sendInfo(ID(id) | VCC(readVcc()) | HUMIDITY(humidity) | TYPE(sensorType)); sendInfo(ID(id) | VCC(readVcc()) | HUMIDITY(humidity) | TYPE(sensorType));

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@ -6,9 +6,7 @@ class TemperatureSensor : public TinySensor {
SensorType sensorType = TEMPERATURE; SensorType sensorType = TEMPERATURE;
public: public:
TemperatureSensor(short id) : TemperatureSensor(SensorId id) : TinySensor(id) {}
TinySensor(id) {
}
void sendTempAndVoltage(int temp) { void sendTempAndVoltage(int temp) {
sendInfo(ID(id) | VCC(readVcc()) | TEMP(temp) | TYPE(sensorType)); sendInfo(ID(id) | VCC(readVcc()) | TEMP(temp) | TYPE(sensorType));

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@ -28,13 +28,28 @@ enum SensorType : unsigned short {
CONTACT = 7 CONTACT = 7
}; };
enum SensorId : unsigned short { class SensorId {
WINDOW1 = 1, uint8_t value = 0;
WINDOW2 = 2, char strValue[4];
WATER_SENSOR = 3,
TEMP_SENSOR = 4, public:
LIGHT_SENSOR = 5, SensorId(uint8_t id) {
MOVEMENT_SENSOR = 6, value = id;
OIL_SENSOR = 7, snprintf(strValue, 4, "%d", value);
PRESENCE_SENSOR = 8 }
};
operator uint8_t() {
return value;
}
operator const char*() {
return strValue;
}
}
WINDOW1(1),
WINDOW2(2),
WATER_SENSOR(3),
TEMP_SENSOR(4),
LIGHT_SENSOR(5),
MOVEMENT_SENSOR(6),
OIL_SENSOR(7);

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@ -7,7 +7,7 @@ using TinySwitch::sendInfo;
class TinySensor { class TinySensor {
protected: protected:
short id; uint8_t id;
long readVcc() { long readVcc() {
// Read 1.1V reference against AVcc // Read 1.1V reference against AVcc
@ -33,7 +33,7 @@ protected:
} }
public: public:
TinySensor(short id) { TinySensor(SensorId id) {
this->id = id; this->id = id;
} }
}; };

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@ -62,21 +62,21 @@ void test_overflow_voltage(void) {
void test_temp_sensor(void) { void test_temp_sensor(void) {
StaticJsonDocument<200> jsonDoc; StaticJsonDocument<200> jsonDoc;
unsigned long value = ID(SensorId::TEMP_SENSOR) | TEMP(210) | TYPE(SensorType::TEMPERATURE); unsigned long value = ID(TEMP_SENSOR) | TEMP(210) | TYPE(SensorType::TEMPERATURE);
TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc)); TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc));
JsonObject sensor = jsonDoc["sensor"]; JsonObject sensor = jsonDoc["sensor"];
TEST_ASSERT_EQUAL(SensorId::TEMP_SENSOR, sensor["id"]); TEST_ASSERT_EQUAL(TEMP_SENSOR, sensor["id"]);
TEST_ASSERT_EQUAL(21, sensor["temperature"]); TEST_ASSERT_EQUAL(21, sensor["temperature"]);
} }
void test_temp_sensor_with_voltage(void) { void test_temp_sensor_with_voltage(void) {
StaticJsonDocument<200> jsonDoc; StaticJsonDocument<200> jsonDoc;
unsigned long value = ID(SensorId::TEMP_SENSOR) | TEMP(320) | TYPE(SensorType::TEMPERATURE) | VCC(2847L); unsigned long value = ID(TEMP_SENSOR) | TEMP(320) | TYPE(SensorType::TEMPERATURE) | VCC(2847L);
TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc)); TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc));
JsonObject sensor = jsonDoc["sensor"]; JsonObject sensor = jsonDoc["sensor"];
TEST_ASSERT_EQUAL(SensorId::TEMP_SENSOR, sensor["id"]); TEST_ASSERT_EQUAL(TEMP_SENSOR, sensor["id"]);
TEST_ASSERT_EQUAL(32, sensor["temperature"]); TEST_ASSERT_EQUAL(32, sensor["temperature"]);
JsonObject diagnostic = sensor["diagnostic"]; JsonObject diagnostic = sensor["diagnostic"];
@ -85,21 +85,21 @@ void test_temp_sensor_with_voltage(void) {
void test_oil_sensor(void) { void test_oil_sensor(void) {
StaticJsonDocument<200> jsonDoc; StaticJsonDocument<200> jsonDoc;
unsigned long value = ID(SensorId::OIL_SENSOR) | VALUE(150) | TYPE(SensorType::GENERIC); unsigned long value = ID(OIL_SENSOR) | VALUE(150) | TYPE(SensorType::GENERIC);
TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc)); TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc));
JsonObject sensor = jsonDoc["sensor"]; JsonObject sensor = jsonDoc["sensor"];
TEST_ASSERT_EQUAL(SensorId::OIL_SENSOR, sensor["id"]); TEST_ASSERT_EQUAL(OIL_SENSOR, sensor["id"]);
TEST_ASSERT_EQUAL(150, sensor["value"]); TEST_ASSERT_EQUAL(150, sensor["value"]);
} }
void test_oil_sensor_with_voltage(void) { void test_oil_sensor_with_voltage(void) {
StaticJsonDocument<200> jsonDoc; StaticJsonDocument<200> jsonDoc;
unsigned long value = ID(SensorId::OIL_SENSOR) | TEMP(200) | TYPE(SensorType::GENERIC) | VCC(2847L); unsigned long value = ID(OIL_SENSOR) | TEMP(200) | TYPE(SensorType::GENERIC) | VCC(2847L);
TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc)); TEST_ASSERT_EQUAL(true, buildSensorJson(value, jsonDoc));
JsonObject sensor = jsonDoc["sensor"]; JsonObject sensor = jsonDoc["sensor"];
TEST_ASSERT_EQUAL(SensorId::OIL_SENSOR, sensor["id"]); TEST_ASSERT_EQUAL(OIL_SENSOR, sensor["id"]);
TEST_ASSERT_EQUAL(200, sensor["value"]); TEST_ASSERT_EQUAL(200, sensor["value"]);
JsonObject diagnostic = sensor["diagnostic"]; JsonObject diagnostic = sensor["diagnostic"];