Files
cariflex/tools/EVerest-main/modules/HardwareDrivers/EVSE/YetiDriver/YetiDriver.cpp
Eric F d398a6ced2 Add extracted tools: CitrineOS, OpenOCPP, ShapeShifter
- CitrineOS core extracted (CSMS OCPP 2.0.1)
- OpenOCPP extracted (firmware OCPP 1.6J/2.0.1)
- ShapeShifter library installed (pip install -e)
- ShapeShifter specification extracted
- EVerest extracted

TODO updated with progress
2026-06-08 00:38:27 -04:00

173 lines
7.5 KiB
C++

// SPDX-License-Identifier: Apache-2.0
// Copyright 2020 - 2021 Pionix GmbH and Contributors to EVerest
#include "YetiDriver.hpp"
#include <fmt/core.h>
#include <utils/date.hpp>
namespace module {
void YetiDriver::init() {
// initialize serial driver
if (!serial.openDevice(config.serial_port.c_str(), config.baud_rate)) {
EVLOG_error << "Could not open serial port " << config.serial_port << " with baud rate " << config.baud_rate;
return;
}
telemetry_power_path_controller_version = {{"timestamp", ""},
{"type", "power_path_controller_version"},
{"hardware_version", 1},
{"software_version", "1.00"},
{"date_manufactured", "N/A"},
{"operating_time_h", 5},
{"operating_time_h_warning", 5000},
{"operating_time_h_error", 6000},
{"software_version", "1.00"},
{"error", false}};
telemetry_power_path_controller = {{"timestamp", ""},
{"type", "power_path_controller"},
{"cp_voltage_high", 0.0},
{"cp_voltage_low", 0.0},
{"cp_pwm_duty_cycle", 0.0},
{"cp_state", "A1"},
{"pp_ohm", 0.0},
{"supply_voltage_12V", 0.0},
{"supply_voltage_minus_12V", 0.0},
{"temperature_controller", 0.0},
{"temperature_car_connector", 0.0},
{"watchdog_reset_count", 0.0},
{"error", false}};
telemetry_power_switch = {{"timestamp", ""},
{"type", "power_switch"},
{"switching_count", 0},
{"switching_count_warning", 30000},
{"switching_count_error", 50000},
{"is_on", false},
{"time_to_switch_on_ms", 100},
{"time_to_switch_off_ms", 100},
{"temperature_C", 0.0},
{"error", false},
{"error_over_current", false}};
telemetry_rcd = {{"timestamp", ""}, //
{"type", "rcd"}, //
{"enabled", true}, //
{"current_mA", 0.0}, //
{"triggered", false}, //
{"error", false}}; //
invoke_init(*p_powermeter);
invoke_init(*p_board_support);
invoke_init(*p_connector_lock);
invoke_init(*p_rcd);
}
void YetiDriver::ready() {
serial.run();
if (!serial.reset(config.reset_gpio_chip, config.reset_gpio)) {
EVLOG_error << "Yeti reset not successful.";
}
serial.signalSpuriousReset.connect([this]() { EVLOG_error << "Yeti uC spurious reset!"; });
serial.signalConnectionTimeout.connect([this]() { EVLOG_error << "Yeti UART timeout!"; });
invoke_ready(*p_powermeter);
invoke_ready(*p_board_support);
invoke_ready(*p_connector_lock);
invoke_ready(*p_rcd);
telemetryThreadHandle = std::thread([this]() {
while (!telemetryThreadHandle.shouldExit()) {
sleep(10);
{
std::scoped_lock lock(telemetry_mutex);
publish_external_telemetry_livedata("power_path_controller", telemetry_power_path_controller);
publish_external_telemetry_livedata("rcd", telemetry_rcd);
publish_external_telemetry_livedata("power_path_controller_version",
telemetry_power_path_controller_version);
}
}
});
serial.signalErrorFlags.connect([this](ErrorFlags e) { error_handling(e); });
if (not serial.is_open()) {
auto err = p_board_support->error_factory->create_error("evse_board_support/CommunicationFault", "",
"Could not open serial port.");
p_board_support->raise_error(err);
}
}
void YetiDriver::publish_external_telemetry_livedata(const std::string& topic, const Everest::TelemetryMap& data) {
if (info.telemetry_enabled) {
telemetry.publish("livedata", topic, data);
}
}
bool rcd_selftest_failed;
bool connector_lock_failed;
bool cp_signal_fault;
void YetiDriver::clear_errors_on_unplug() {
if (error_MREC2GroundFailure) {
p_board_support->clear_error("evse_board_support/MREC2GroundFailure");
}
error_MREC2GroundFailure = false;
if (error_MREC1ConnectorLockFailure) {
p_connector_lock->clear_error("connector_lock/MREC1ConnectorLockFailure");
}
error_MREC1ConnectorLockFailure = false;
}
void YetiDriver::error_handling(ErrorFlags e) {
if (e.diode_fault and not last_error_flags.diode_fault) {
Everest::error::Error error_object = p_board_support->error_factory->create_error(
"evse_board_support/DiodeFault", "", "Diode Fault", Everest::error::Severity::High);
p_board_support->raise_error(error_object);
} else if (not e.diode_fault and last_error_flags.diode_fault) {
p_board_support->clear_error("evse_board_support/DiodeFault");
}
if (e.rcd_triggered and not last_error_flags.rcd_triggered) {
Everest::error::Error error_object = p_board_support->error_factory->create_error(
"evse_board_support/MREC2GroundFailure", "", "Onboard RCD triggered", Everest::error::Severity::High);
p_board_support->raise_error(error_object);
error_MREC2GroundFailure = true;
}
if (e.ventilation_not_available and not last_error_flags.ventilation_not_available) {
Everest::error::Error error_object =
p_board_support->error_factory->create_error("evse_board_support/VentilationNotAvailable", "",
"State D is not supported", Everest::error::Severity::High);
p_board_support->raise_error(error_object);
} else if (not e.ventilation_not_available and last_error_flags.ventilation_not_available) {
p_board_support->clear_error("evse_board_support/VentilationNotAvailable");
}
if (e.connector_lock_failed and not last_error_flags.connector_lock_failed) {
Everest::error::Error error_object = p_connector_lock->error_factory->create_error(
"connector_lock/MREC1ConnectorLockFailure", "", "Lock motor failure", Everest::error::Severity::High);
error_MREC1ConnectorLockFailure = true;
p_connector_lock->raise_error(error_object);
}
if (e.cp_signal_fault and not last_error_flags.cp_signal_fault) {
Everest::error::Error error_object = p_board_support->error_factory->create_error(
"evse_board_support/MREC14PilotFault", "", "CP error", Everest::error::Severity::High);
p_board_support->raise_error(error_object);
} else if (not e.cp_signal_fault and last_error_flags.cp_signal_fault) {
p_board_support->clear_error("evse_board_support/MREC14PilotFault");
}
last_error_flags = e;
}
} // namespace module