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Code Issues Projects Releases Packages Wiki Activity Actions 7

Added support for havells_solar sensor (#1988)

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Co-authored-by: Oxan van Leeuwen <oxan@oxanvanleeuwen.nl>
Co-authored-by: Jesse Hills <3060199+jesserockz@users.noreply.github.com>
This commit is contained in:
Sourabh Jaiswal 2021-07-14 06:35:51 +05:30 committed by GitHub
parent b632344596
commit 04c3a43c17
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6 changed files with 623 additions and 0 deletions
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@ -47,6 +47,7 @@ esphome/components/fingerprint_grow/* @OnFreund @loongyh
esphome/components/globals/* @esphome/core
esphome/components/gpio/* @esphome/core
esphome/components/gps/* @coogle
esphome/components/havells_solar/* @sourabhjaiswal
esphome/components/homeassistant/* @OttoWinter
esphome/components/i2c/* @esphome/core
esphome/components/improv/* @jesserockz

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esphome/components/havells_solar/__init__.py Normal file
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esphome/components/havells_solar/havells_solar.cpp Normal file
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#include "havells_solar.h"
#include "havells_solar_registers.h"
#include "esphome/core/log.h"
namespace esphome {
namespace havells_solar {
static const char *const TAG = "havells_solar";
static const uint8_t MODBUS_CMD_READ_IN_REGISTERS = 0x03;
static const uint8_t MODBUS_REGISTER_COUNT = 48; // 48 x 16-bit registers
void HavellsSolar::on_modbus_data(const std::vector<uint8_t> &data) {
if (data.size() < MODBUS_REGISTER_COUNT * 2) {
ESP_LOGW(TAG, "Invalid size for HavellsSolar!");
return;
}
/* Usage: returns the float value of 1 register read by modbus
Arg1: Register address * number of bytes per register
Arg2: Multiplier for final register value
*/
auto havells_solar_get_2_registers = [&](size_t i, float unit) -> float {
uint32_t temp = encode_uint32(data[i], data[i + 1], data[i + 2], data[i + 3]);
return temp * unit;
};
/* Usage: returns the float value of 2 registers read by modbus
Arg1: Register address * number of bytes per register
Arg2: Multiplier for final register value
*/
auto havells_solar_get_1_register = [&](size_t i, float unit) -> float {
uint16_t temp = encode_uint16(data[i], data[i + 1]);
return temp * unit;
};
for (uint8_t i = 0; i < 3; i++) {
auto phase = this->phases_[i];
if (!phase.setup)
continue;
float voltage = havells_solar_get_1_register(HAVELLS_PHASE_1_VOLTAGE * 2 + (i * 4), ONE_DEC_UNIT);
float current = havells_solar_get_1_register(HAVELLS_PHASE_1_CURRENT * 2 + (i * 4), TWO_DEC_UNIT);
if (phase.voltage_sensor_ != nullptr)
phase.voltage_sensor_->publish_state(voltage);
if (phase.current_sensor_ != nullptr)
phase.current_sensor_->publish_state(current);
}
for (uint8_t i = 0; i < 2; i++) {
auto pv = this->pvs_[i];
if (!pv.setup)
continue;
float voltage = havells_solar_get_1_register(HAVELLS_PV_1_VOLTAGE * 2 + (i * 4), ONE_DEC_UNIT);
float current = havells_solar_get_1_register(HAVELLS_PV_1_CURRENT * 2 + (i * 4), TWO_DEC_UNIT);
float active_power = havells_solar_get_1_register(HAVELLS_PV_1_POWER * 2 + (i * 2), MULTIPLY_TEN_UNIT);
float voltage_sampled_by_secondary_cpu =
havells_solar_get_1_register(HAVELLS_PV1_VOLTAGE_SAMPLED_BY_SECONDARY_CPU * 2 + (i * 2), ONE_DEC_UNIT);
float insulation_of_p_to_ground =
havells_solar_get_1_register(HAVELLS_PV1_INSULATION_OF_P_TO_GROUND * 2 + (i * 2), NO_DEC_UNIT);
if (pv.voltage_sensor_ != nullptr)
pv.voltage_sensor_->publish_state(voltage);
if (pv.current_sensor_ != nullptr)
pv.current_sensor_->publish_state(current);
if (pv.active_power_sensor_ != nullptr)
pv.active_power_sensor_->publish_state(active_power);
if (pv.voltage_sampled_by_secondary_cpu_sensor_ != nullptr)
pv.voltage_sampled_by_secondary_cpu_sensor_->publish_state(voltage_sampled_by_secondary_cpu);
if (pv.insulation_of_p_to_ground_sensor_ != nullptr)
pv.insulation_of_p_to_ground_sensor_->publish_state(insulation_of_p_to_ground);
}
float frequency = havells_solar_get_1_register(HAVELLS_GRID_FREQUENCY * 2, TWO_DEC_UNIT);
float active_power = havells_solar_get_1_register(HAVELLS_SYSTEM_ACTIVE_POWER * 2, MULTIPLY_TEN_UNIT);
float reactive_power = havells_solar_get_1_register(HAVELLS_SYSTEM_REACTIVE_POWER * 2, TWO_DEC_UNIT);
float today_production = havells_solar_get_1_register(HAVELLS_TODAY_PRODUCTION * 2, TWO_DEC_UNIT);
float total_energy_production = havells_solar_get_2_registers(HAVELLS_TOTAL_ENERGY_PRODUCTION * 2, NO_DEC_UNIT);
float total_generation_time = havells_solar_get_2_registers(HAVELLS_TOTAL_GENERATION_TIME * 2, NO_DEC_UNIT);
float today_generation_time = havells_solar_get_1_register(HAVELLS_TODAY_GENERATION_TIME * 2, NO_DEC_UNIT);
float inverter_module_temp = havells_solar_get_1_register(HAVELLS_INVERTER_MODULE_TEMP * 2, NO_DEC_UNIT);
float inverter_inner_temp = havells_solar_get_1_register(HAVELLS_INVERTER_INNER_TEMP * 2, NO_DEC_UNIT);
float inverter_bus_voltage = havells_solar_get_1_register(HAVELLS_INVERTER_BUS_VOLTAGE * 2, NO_DEC_UNIT);
float insulation_pv_n_to_ground = havells_solar_get_1_register(HAVELLS_INSULATION_OF_PV_N_TO_GROUND * 2, NO_DEC_UNIT);
float gfci_value = havells_solar_get_1_register(HAVELLS_GFCI_VALUE * 2, NO_DEC_UNIT);
float dci_of_r = havells_solar_get_1_register(HAVELLS_DCI_OF_R * 2, NO_DEC_UNIT);
float dci_of_s = havells_solar_get_1_register(HAVELLS_DCI_OF_S * 2, NO_DEC_UNIT);
float dci_of_t = havells_solar_get_1_register(HAVELLS_DCI_OF_T * 2, NO_DEC_UNIT);
if (this->frequency_sensor_ != nullptr)
this->frequency_sensor_->publish_state(frequency);
if (this->active_power_sensor_ != nullptr)
this->active_power_sensor_->publish_state(active_power);
if (this->reactive_power_sensor_ != nullptr)
this->reactive_power_sensor_->publish_state(reactive_power);
if (this->today_production_sensor_ != nullptr)
this->today_production_sensor_->publish_state(today_production);
if (this->total_energy_production_sensor_ != nullptr)
this->total_energy_production_sensor_->publish_state(total_energy_production);
if (this->total_generation_time_sensor_ != nullptr)
this->total_generation_time_sensor_->publish_state(total_generation_time);
if (this->today_generation_time_sensor_ != nullptr)
this->today_generation_time_sensor_->publish_state(today_generation_time);
if (this->inverter_module_temp_sensor_ != nullptr)
this->inverter_module_temp_sensor_->publish_state(inverter_module_temp);
if (this->inverter_inner_temp_sensor_ != nullptr)
this->inverter_inner_temp_sensor_->publish_state(inverter_inner_temp);
if (this->inverter_bus_voltage_sensor_ != nullptr)
this->inverter_bus_voltage_sensor_->publish_state(inverter_bus_voltage);
if (this->insulation_pv_n_to_ground_sensor_ != nullptr)
this->insulation_pv_n_to_ground_sensor_->publish_state(insulation_pv_n_to_ground);
if (this->gfci_value_sensor_ != nullptr)
this->gfci_value_sensor_->publish_state(gfci_value);
if (this->dci_of_r_sensor_ != nullptr)
this->dci_of_r_sensor_->publish_state(dci_of_r);
if (this->dci_of_s_sensor_ != nullptr)
this->dci_of_s_sensor_->publish_state(dci_of_s);
if (this->dci_of_t_sensor_ != nullptr)
this->dci_of_t_sensor_->publish_state(dci_of_t);
}
void HavellsSolar::update() { this->send(MODBUS_CMD_READ_IN_REGISTERS, 0, MODBUS_REGISTER_COUNT); }
void HavellsSolar::dump_config() {
ESP_LOGCONFIG(TAG, "HAVELLS Solar:");
ESP_LOGCONFIG(TAG, " Address: 0x%02X", this->address_);
for (uint8_t i = 0; i < 3; i++) {
auto phase = this->phases_[i];
if (!phase.setup)
continue;
ESP_LOGCONFIG(TAG, " Phase %c", i + 'A');
LOG_SENSOR(" ", "Voltage", phase.voltage_sensor_);
LOG_SENSOR(" ", "Current", phase.current_sensor_);
}
for (uint8_t i = 0; i < 2; i++) {
auto pv = this->pvs_[i];
if (!pv.setup)
continue;
ESP_LOGCONFIG(TAG, " PV %d", i + 1);
LOG_SENSOR(" ", "Voltage", pv.voltage_sensor_);
LOG_SENSOR(" ", "Current", pv.current_sensor_);
LOG_SENSOR(" ", "Active Power", pv.active_power_sensor_);
LOG_SENSOR(" ", "Voltage Sampled By Secondary CPU", pv.voltage_sampled_by_secondary_cpu_sensor_);
LOG_SENSOR(" ", "Insulation Of PV+ To Ground", pv.insulation_of_p_to_ground_sensor_);
}
LOG_SENSOR(" ", "Frequency", this->frequency_sensor_);
LOG_SENSOR(" ", "Active Power", this->active_power_sensor_);
LOG_SENSOR(" ", "Reactive Power", this->reactive_power_sensor_);
LOG_SENSOR(" ", "Today Generation", this->today_production_sensor_);
LOG_SENSOR(" ", "Total Generation", this->total_energy_production_sensor_);
LOG_SENSOR(" ", "Total Generation Time", this->total_generation_time_sensor_);
LOG_SENSOR(" ", "Today Generation Time", this->today_generation_time_sensor_);
LOG_SENSOR(" ", "Inverter Module Temp", this->inverter_module_temp_sensor_);
LOG_SENSOR(" ", "Inverter Inner Temp", this->inverter_inner_temp_sensor_);
LOG_SENSOR(" ", "Inverter Bus Voltage", this->inverter_bus_voltage_sensor_);
LOG_SENSOR(" ", "Insulation Of PV- To Ground", this->insulation_pv_n_to_ground_sensor_);
LOG_SENSOR(" ", "GFCI Value", this->gfci_value_sensor_);
LOG_SENSOR(" ", "DCI Of R", this->dci_of_r_sensor_);
LOG_SENSOR(" ", "DCI Of S", this->dci_of_s_sensor_);
LOG_SENSOR(" ", "DCI Of T", this->dci_of_t_sensor_);
}
} // namespace havells_solar
} // namespace esphome

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esphome/components/havells_solar/havells_solar.h Normal file
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#pragma once
#include "esphome/core/component.h"
#include "esphome/components/sensor/sensor.h"
#include "esphome/components/modbus/modbus.h"
namespace esphome {
namespace havells_solar {
class HavellsSolar : public PollingComponent, public modbus::ModbusDevice {
public:
void set_voltage_sensor(uint8_t phase, sensor::Sensor *voltage_sensor) {
this->phases_[phase].setup = true;
this->phases_[phase].voltage_sensor_ = voltage_sensor;
}
void set_current_sensor(uint8_t phase, sensor::Sensor *current_sensor) {
this->phases_[phase].setup = true;
this->phases_[phase].current_sensor_ = current_sensor;
}
void set_voltage_sensor_pv(uint8_t pv, sensor::Sensor *voltage_sensor) {
this->pvs_[pv].setup = true;
this->pvs_[pv].voltage_sensor_ = voltage_sensor;
}
void set_current_sensor_pv(uint8_t pv, sensor::Sensor *current_sensor) {
this->pvs_[pv].setup = true;
this->pvs_[pv].current_sensor_ = current_sensor;
}
void set_active_power_sensor_pv(uint8_t pv, sensor::Sensor *active_power_sensor) {
this->pvs_[pv].setup = true;
this->pvs_[pv].active_power_sensor_ = active_power_sensor;
}
void set_voltage_sampled_by_secondary_cpu_sensor_pv(uint8_t pv,
sensor::Sensor *voltage_sampled_by_secondary_cpu_sensor) {
this->pvs_[pv].setup = true;
this->pvs_[pv].voltage_sampled_by_secondary_cpu_sensor_ = voltage_sampled_by_secondary_cpu_sensor;
}
void set_insulation_of_p_to_ground_sensor_pv(uint8_t pv, sensor::Sensor *insulation_of_p_to_ground_sensor) {
this->pvs_[pv].setup = true;
this->pvs_[pv].insulation_of_p_to_ground_sensor_ = insulation_of_p_to_ground_sensor;
}
void set_frequency_sensor(sensor::Sensor *frequency_sensor) { this->frequency_sensor_ = frequency_sensor; }
void set_active_power_sensor(sensor::Sensor *active_power_sensor) {
this->active_power_sensor_ = active_power_sensor;
}
void set_reactive_power_sensor(sensor::Sensor *reactive_power_sensor) {
this->reactive_power_sensor_ = reactive_power_sensor;
}
void set_today_production_sensor(sensor::Sensor *today_production_sensor) {
this->today_production_sensor_ = today_production_sensor;
}
void set_total_energy_production_sensor(sensor::Sensor *total_energy_production_sensor) {
this->total_energy_production_sensor_ = total_energy_production_sensor;
}
void set_total_generation_time_sensor(sensor::Sensor *total_generation_time_sensor) {
this->total_generation_time_sensor_ = total_generation_time_sensor;
}
void set_today_generation_time_sensor(sensor::Sensor *today_generation_time_sensor) {
this->today_generation_time_sensor_ = today_generation_time_sensor;
}
void set_inverter_module_temp_sensor(sensor::Sensor *inverter_module_temp_sensor) {
this->inverter_module_temp_sensor_ = inverter_module_temp_sensor;
}
void set_inverter_inner_temp_sensor(sensor::Sensor *inverter_inner_temp_sensor) {
this->inverter_inner_temp_sensor_ = inverter_inner_temp_sensor;
}
void set_inverter_bus_voltage_sensor(sensor::Sensor *inverter_bus_voltage_sensor) {
this->inverter_bus_voltage_sensor_ = inverter_bus_voltage_sensor;
}
void set_insulation_pv_n_to_ground_sensor(sensor::Sensor *insulation_pv_n_to_ground_sensor) {
this->insulation_pv_n_to_ground_sensor_ = insulation_pv_n_to_ground_sensor;
}
void set_gfci_value_sensor(sensor::Sensor *gfci_value_sensor) { this->gfci_value_sensor_ = gfci_value_sensor; }
void set_dci_of_r_sensor(sensor::Sensor *dci_of_r_sensor) { this->dci_of_r_sensor_ = dci_of_r_sensor; }
void set_dci_of_s_sensor(sensor::Sensor *dci_of_s_sensor) { this->dci_of_s_sensor_ = dci_of_s_sensor; }
void set_dci_of_t_sensor(sensor::Sensor *dci_of_t_sensor) { this->dci_of_t_sensor_ = dci_of_t_sensor; }
void update() override;
void on_modbus_data(const std::vector<uint8_t> &data) override;
void dump_config() override;
protected:
struct HAVELLSPhase {
bool setup{false};
sensor::Sensor *voltage_sensor_{nullptr};
sensor::Sensor *current_sensor_{nullptr};
} phases_[3];
struct HAVELLSPV {
bool setup{false};
sensor::Sensor *voltage_sensor_{nullptr};
sensor::Sensor *current_sensor_{nullptr};
sensor::Sensor *active_power_sensor_{nullptr};
sensor::Sensor *voltage_sampled_by_secondary_cpu_sensor_{nullptr};
sensor::Sensor *insulation_of_p_to_ground_sensor_{nullptr};
} pvs_[2];
sensor::Sensor *frequency_sensor_{nullptr};
sensor::Sensor *active_power_sensor_{nullptr};
sensor::Sensor *reactive_power_sensor_{nullptr};
sensor::Sensor *today_production_sensor_{nullptr};
sensor::Sensor *total_energy_production_sensor_{nullptr};
sensor::Sensor *total_generation_time_sensor_{nullptr};
sensor::Sensor *today_generation_time_sensor_{nullptr};
sensor::Sensor *inverter_module_temp_sensor_{nullptr};
sensor::Sensor *inverter_inner_temp_sensor_{nullptr};
sensor::Sensor *inverter_bus_voltage_sensor_{nullptr};
sensor::Sensor *insulation_pv_n_to_ground_sensor_{nullptr};
sensor::Sensor *gfci_value_sensor_{nullptr};
sensor::Sensor *dci_of_r_sensor_{nullptr};
sensor::Sensor *dci_of_s_sensor_{nullptr};
sensor::Sensor *dci_of_t_sensor_{nullptr};
};
} // namespace havells_solar
} // namespace esphome

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esphome/components/havells_solar/havells_solar_registers.h Normal file
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#pragma once
namespace esphome {
namespace havells_solar {
static const float TWO_DEC_UNIT = 0.01;
static const float ONE_DEC_UNIT = 0.1;
static const float NO_DEC_UNIT = 1;
static const float MULTIPLY_TEN_UNIT = 10;
/* PV Input Message */
static const uint16_t HAVELLS_PV_1_VOLTAGE = 0x0006;
static const uint16_t HAVELLS_PV_1_CURRENT = 0x0007;
static const uint16_t HAVELLS_PV_2_VOLTAGE = 0x0008;
static const uint16_t HAVELLS_PV_2_CURRENT = 0x0009;
static const uint16_t HAVELLS_PV_1_POWER = 0x000A;
static const uint16_t HAVELLS_PV_2_POWER = 0x000B;
/* Output Grid Message */
static const uint16_t HAVELLS_SYSTEM_ACTIVE_POWER = 0x000C;
static const uint16_t HAVELLS_SYSTEM_REACTIVE_POWER = 0x000D;
static const uint16_t HAVELLS_GRID_FREQUENCY = 0x000E;
static const uint16_t HAVELLS_PHASE_1_VOLTAGE = 0x000F;
static const uint16_t HAVELLS_PHASE_1_CURRENT = 0x0010;
static const uint16_t HAVELLS_PHASE_2_VOLTAGE = 0x0011;
static const uint16_t HAVELLS_PHASE_2_CURRENT = 0x0012;
static const uint16_t HAVELLS_PHASE_3_VOLTAGE = 0x0013;
static const uint16_t HAVELLS_PHASE_3_CURRENT = 0x0014;
/* Inverter Generation message */
static const uint16_t HAVELLS_TOTAL_ENERGY_PRODUCTION = 0x0015;
static const uint16_t HAVELLS_TOTAL_GENERATION_TIME = 0x0017;
static const uint16_t HAVELLS_TODAY_PRODUCTION = 0x0019;
static const uint16_t HAVELLS_TODAY_GENERATION_TIME = 0x001A;
/* Inverter inner message */
static const uint16_t HAVELLS_INVERTER_MODULE_TEMP = 0x001B;
static const uint16_t HAVELLS_INVERTER_INNER_TEMP = 0x001C;
static const uint16_t HAVELLS_INVERTER_BUS_VOLTAGE = 0x001D;
static const uint16_t HAVELLS_PV1_VOLTAGE_SAMPLED_BY_SECONDARY_CPU = 0x001E;
static const uint16_t HAVELLS_PV2_VOLTAGE_SAMPLED_BY_SECONDARY_CPU = 0x001F;
static const uint16_t HAVELLS_PV1_INSULATION_OF_P_TO_GROUND = 0x0024;
static const uint16_t HAVELLS_PV2_INSULATION_OF_P_TO_GROUND = 0x0025;
static const uint16_t HAVELLS_INSULATION_OF_PV_N_TO_GROUND = 0x0026;
static const uint16_t HAVELLS_GFCI_VALUE = 0x002A;
static const uint16_t HAVELLS_DCI_OF_R = 0x002B;
static const uint16_t HAVELLS_DCI_OF_S = 0x002C;
static const uint16_t HAVELLS_DCI_OF_T = 0x002D;
} // namespace havells_solar
} // namespace esphome

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import esphome.codegen as cg
import esphome.config_validation as cv
from esphome.components import sensor, modbus
from esphome.const import (
CONF_ACTIVE_POWER,
CONF_CURRENT,
CONF_FREQUENCY,
CONF_ID,
CONF_REACTIVE_POWER,
CONF_VOLTAGE,
DEVICE_CLASS_CURRENT,
DEVICE_CLASS_EMPTY,
DEVICE_CLASS_ENERGY,
DEVICE_CLASS_POWER,
DEVICE_CLASS_VOLTAGE,
ICON_CURRENT_AC,
ICON_EMPTY,
STATE_CLASS_MEASUREMENT,
STATE_CLASS_NONE,
UNIT_AMPERE,
UNIT_DEGREES,
UNIT_HERTZ,
UNIT_MINUTE,
UNIT_VOLT,
UNIT_VOLT_AMPS_REACTIVE,
UNIT_WATT,
)
CONF_PHASE_A = "phase_a"
CONF_PHASE_B = "phase_b"
CONF_PHASE_C = "phase_c"
CONF_ENERGY_PRODUCTION_DAY = "energy_production_day"
CONF_TOTAL_ENERGY_PRODUCTION = "total_energy_production"
CONF_TOTAL_GENERATION_TIME = "total_generation_time"
CONF_TODAY_GENERATION_TIME = "today_generation_time"
CONF_PV1 = "pv1"
CONF_PV2 = "pv2"
UNIT_KILOWATT_HOURS = "kWh"
UNIT_HOURS = "h"
UNIT_KOHM = "kΩ"
UNIT_MILLIAMPERE = "mA"
CONF_INVERTER_MODULE_TEMP = "inverter_module_temp"
CONF_INVERTER_INNER_TEMP = "inverter_inner_temp"
CONF_INVERTER_BUS_VOLTAGE = "inverter_bus_voltage"
CONF_VOLTAGE_SAMPLED_BY_SECONDARY_CPU = "voltage_sampled_by_secondary_cpu"
CONF_INSULATION_OF_P_TO_GROUND = "insulation_of_p_to_ground"
CONF_INSULATION_OF_PV_N_TO_GROUND = "insulation_of_pv_n_to_ground"
CONF_GFCI_VALUE = "gfci_value"
CONF_DCI_OF_R = "dci_of_r"
CONF_DCI_OF_S = "dci_of_s"
CONF_DCI_OF_T = "dci_of_t"
AUTO_LOAD = ["modbus"]
CODEOWNERS = ["@sourabhjaiswal"]
havells_solar_ns = cg.esphome_ns.namespace("havells_solar")
HavellsSolar = havells_solar_ns.class_(
"HavellsSolar", cg.PollingComponent, modbus.ModbusDevice
)
PHASE_SENSORS = {
CONF_VOLTAGE: sensor.sensor_schema(UNIT_VOLT, ICON_EMPTY, 2, DEVICE_CLASS_VOLTAGE),
CONF_CURRENT: sensor.sensor_schema(
UNIT_AMPERE, ICON_EMPTY, 2, DEVICE_CLASS_CURRENT, STATE_CLASS_MEASUREMENT
),
}
PV_SENSORS = {
CONF_VOLTAGE: sensor.sensor_schema(UNIT_VOLT, ICON_EMPTY, 2, DEVICE_CLASS_VOLTAGE),
CONF_CURRENT: sensor.sensor_schema(
UNIT_AMPERE, ICON_EMPTY, 2, DEVICE_CLASS_CURRENT, STATE_CLASS_MEASUREMENT
),
CONF_ACTIVE_POWER: sensor.sensor_schema(
UNIT_WATT, ICON_EMPTY, 0, DEVICE_CLASS_POWER, STATE_CLASS_MEASUREMENT
),
CONF_VOLTAGE_SAMPLED_BY_SECONDARY_CPU: sensor.sensor_schema(
UNIT_VOLT, ICON_EMPTY, 0, DEVICE_CLASS_POWER, STATE_CLASS_MEASUREMENT
),
CONF_INSULATION_OF_P_TO_GROUND: sensor.sensor_schema(
UNIT_KOHM, ICON_EMPTY, 0, DEVICE_CLASS_POWER, STATE_CLASS_MEASUREMENT
),
}
PHASE_SCHEMA = cv.Schema(
{cv.Optional(sensor): schema for sensor, schema in PHASE_SENSORS.items()}
)
PV_SCHEMA = cv.Schema(
{cv.Optional(sensor): schema for sensor, schema in PV_SENSORS.items()}
)
CONFIG_SCHEMA = (
cv.Schema(
{
cv.GenerateID(): cv.declare_id(HavellsSolar),
cv.Optional(CONF_PHASE_A): PHASE_SCHEMA,
cv.Optional(CONF_PHASE_B): PHASE_SCHEMA,
cv.Optional(CONF_PHASE_C): PHASE_SCHEMA,
cv.Optional(CONF_PV1): PV_SCHEMA,
cv.Optional(CONF_PV2): PV_SCHEMA,
cv.Optional(CONF_FREQUENCY): sensor.sensor_schema(
UNIT_HERTZ,
ICON_CURRENT_AC,
2,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_ACTIVE_POWER): sensor.sensor_schema(
UNIT_WATT, ICON_EMPTY, 0, DEVICE_CLASS_POWER, STATE_CLASS_MEASUREMENT
),
cv.Optional(CONF_REACTIVE_POWER): sensor.sensor_schema(
UNIT_VOLT_AMPS_REACTIVE,
ICON_EMPTY,
2,
DEVICE_CLASS_POWER,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_ENERGY_PRODUCTION_DAY): sensor.sensor_schema(
UNIT_KILOWATT_HOURS,
ICON_EMPTY,
2,
DEVICE_CLASS_ENERGY,
STATE_CLASS_NONE,
),
cv.Optional(CONF_TOTAL_ENERGY_PRODUCTION): sensor.sensor_schema(
UNIT_KILOWATT_HOURS,
ICON_EMPTY,
0,
DEVICE_CLASS_ENERGY,
STATE_CLASS_NONE,
),
cv.Optional(CONF_TOTAL_GENERATION_TIME): sensor.sensor_schema(
UNIT_HOURS,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_NONE,
),
cv.Optional(CONF_TODAY_GENERATION_TIME): sensor.sensor_schema(
UNIT_MINUTE,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_NONE,
),
cv.Optional(CONF_INVERTER_MODULE_TEMP): sensor.sensor_schema(
UNIT_DEGREES,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_INVERTER_INNER_TEMP): sensor.sensor_schema(
UNIT_DEGREES,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_INVERTER_BUS_VOLTAGE): sensor.sensor_schema(
UNIT_VOLT,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_INSULATION_OF_PV_N_TO_GROUND): sensor.sensor_schema(
UNIT_KOHM,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_GFCI_VALUE): sensor.sensor_schema(
UNIT_MILLIAMPERE,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_DCI_OF_R): sensor.sensor_schema(
UNIT_MILLIAMPERE,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_DCI_OF_S): sensor.sensor_schema(
UNIT_MILLIAMPERE,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
cv.Optional(CONF_DCI_OF_T): sensor.sensor_schema(
UNIT_MILLIAMPERE,
ICON_EMPTY,
0,
DEVICE_CLASS_EMPTY,
STATE_CLASS_MEASUREMENT,
),
}
)
.extend(cv.polling_component_schema("10s"))
.extend(modbus.modbus_device_schema(0x01))
)
async def to_code(config):
var = cg.new_Pvariable(config[CONF_ID])
await cg.register_component(var, config)
await modbus.register_modbus_device(var, config)
if CONF_FREQUENCY in config:
sens = await sensor.new_sensor(config[CONF_FREQUENCY])
cg.add(var.set_frequency_sensor(sens))
if CONF_ACTIVE_POWER in config:
sens = await sensor.new_sensor(config[CONF_ACTIVE_POWER])
cg.add(var.set_active_power_sensor(sens))
if CONF_REACTIVE_POWER in config:
sens = await sensor.new_sensor(config[CONF_REACTIVE_POWER])
cg.add(var.set_reactive_power_sensor(sens))
if CONF_ENERGY_PRODUCTION_DAY in config:
sens = await sensor.new_sensor(config[CONF_ENERGY_PRODUCTION_DAY])
cg.add(var.set_today_production_sensor(sens))
if CONF_TOTAL_ENERGY_PRODUCTION in config:
sens = await sensor.new_sensor(config[CONF_TOTAL_ENERGY_PRODUCTION])
cg.add(var.set_total_energy_production_sensor(sens))
if CONF_TOTAL_GENERATION_TIME in config:
sens = await sensor.new_sensor(config[CONF_TOTAL_GENERATION_TIME])
cg.add(var.set_total_generation_time_sensor(sens))
if CONF_TODAY_GENERATION_TIME in config:
sens = await sensor.new_sensor(config[CONF_TODAY_GENERATION_TIME])
cg.add(var.set_today_generation_time_sensor(sens))
if CONF_INVERTER_MODULE_TEMP in config:
sens = await sensor.new_sensor(config[CONF_INVERTER_MODULE_TEMP])
cg.add(var.set_inverter_module_temp_sensor(sens))
if CONF_INVERTER_INNER_TEMP in config:
sens = await sensor.new_sensor(config[CONF_INVERTER_INNER_TEMP])
cg.add(var.set_inverter_inner_temp_sensor(sens))
if CONF_INVERTER_BUS_VOLTAGE in config:
sens = await sensor.new_sensor(config[CONF_INVERTER_BUS_VOLTAGE])
cg.add(var.set_inverter_bus_voltage_sensor(sens))
if CONF_INSULATION_OF_PV_N_TO_GROUND in config:
sens = await sensor.new_sensor(config[CONF_INSULATION_OF_PV_N_TO_GROUND])
cg.add(var.set_insulation_pv_n_to_ground_sensor(sens))
if CONF_GFCI_VALUE in config:
sens = await sensor.new_sensor(config[CONF_GFCI_VALUE])
cg.add(var.set_gfci_value_sensor(sens))
if CONF_DCI_OF_R in config:
sens = await sensor.new_sensor(config[CONF_DCI_OF_R])
cg.add(var.set_dci_of_r_sensor(sens))
if CONF_DCI_OF_S in config:
sens = await sensor.new_sensor(config[CONF_DCI_OF_S])
cg.add(var.set_dci_of_s_sensor(sens))
if CONF_DCI_OF_T in config:
sens = await sensor.new_sensor(config[CONF_DCI_OF_T])
cg.add(var.set_dci_of_t_sensor(sens))
for i, phase in enumerate([CONF_PHASE_A, CONF_PHASE_B, CONF_PHASE_C]):
if phase not in config:
continue
phase_config = config[phase]
for sensor_type in PHASE_SENSORS:
if sensor_type in phase_config:
sens = await sensor.new_sensor(phase_config[sensor_type])
cg.add(getattr(var, f"set_{sensor_type}_sensor")(i, sens))
for i, pv in enumerate([CONF_PV1, CONF_PV2]):
if pv not in config:
continue
pv_config = config[pv]
for sensor_type in pv_config:
if sensor_type in pv_config:
sens = await sensor.new_sensor(pv_config[sensor_type])
cg.add(getattr(var, f"set_{sensor_type}_sensor_pv")(i, sens))