#include "ats0002/ats0002.h"
#include "ats0002/21_53_89.h"
#include "ats0002/21_53_88.h"
#include "ats0002/21_50_14.h"

static const heat_exchanger_data_t heat_exchanger_data[] = {
    {"Honeywell Heat Exchanger CMM 21-50-14", heat_exchanger_21_50_14_data, ARRAY_SIZE(heat_exchanger_21_50_14_data)},
    {"Liebherr Reheater CMM 21-53-89", heat_exchanger_21_53_89_data, ARRAY_SIZE(heat_exchanger_21_53_89_data)},
    {"Liebherr Condenser CMM 21-53-88", heat_exchanger_21_53_88_data, ARRAY_SIZE(heat_exchanger_21_53_88_data)}};

int main(void)
{
    setlocale(LC_NUMERIC, "C");
    for (;;)
    {
#ifdef _WIN32
        system("cls");
#else
        system("clear");
#endif
        printf("************************************************************\n"
               "*                                                          *\n"
               "* Heat Exchanger Airflow Pressure Drop Calculation Program *\n"
               "*                                                          *\n"
               "* Developed by @rick_professor                             *\n"
               "* Participation by @cabanleo                               *\n"
               "* Property of Aerotech LLC                                 *\n"
               "*                                                          *\n"
               "************************************************************\n"
               "\n");
        for (uint8_t i = 0; i < ARRAY_SIZE(heat_exchanger_data); ++i)
        {
            printf("%d. %s\n", i + 1, heat_exchanger_data[i].heat_exchanger_description);
        }
        printf("\n");
        uint16_t heat_exchanger_number = 0;
        ASK_CHOICE(heat_exchanger_number, get_heat_exchanger_number, ARRAY_SIZE(heat_exchanger_data));
        printf("\n");
        const heat_exchanger_data_t *he = &heat_exchanger_data[heat_exchanger_number];
        for (uint8_t i = 0; i < he->heat_exchanger_type_data_size; ++i)
        {
            printf("%d. %s\n", i + 1, he->heat_exchanger_type_data[i].part_number_description);
        }
        printf("\n");
        uint16_t part_number = 0;
        ASK_CHOICE(part_number, get_heat_exchanger_part_number, he->heat_exchanger_type_data_size);
        printf("\n");
        const heat_exchanger_type_data_t *hetd = &he->heat_exchanger_type_data[part_number];
        for (uint8_t i = 0; i < hetd->air_passages_data_size; ++i)
        {
            printf("%d. %s\n", i + 1, hetd->air_passages_data[i].air_passage_description);
        }
        printf("\n");
        uint16_t air_passage_number = 0;
        ASK_CHOICE(air_passage_number, get_heat_exchanger_air_passage_number, hetd->air_passages_data_size);
        printf("\n");
        const air_passage_data_t *apd = &hetd->air_passages_data[air_passage_number];
        double airflow = 0.0;
        get_airflow(&airflow, apd);
        EXIT_CHECK(airflow);
        printf("\n");
        double airflow_pressure = 0.0;
        get_airflow_pressure(&airflow_pressure, apd);
        EXIT_CHECK(airflow_pressure);
        printf("\n");
        double barometric_pressure = 0.0;
        double airflow_temperature = 0.0;
        if (apd->recalculated_required == true)
        {
            get_barometric_pressure(&barometric_pressure, apd);
            EXIT_CHECK(barometric_pressure);
            printf("\n");
            get_airflow_temperature(&airflow_temperature, apd);
            EXIT_CHECK(airflow_temperature);
            printf("\n");
        }
        double pressure_drop_limit = 0.0;
        double corrected_airflow_pressure = 0.0;
        get_pressure_drop(&pressure_drop_limit, &airflow, &airflow_pressure, &corrected_airflow_pressure, &barometric_pressure, &airflow_temperature, apd);
        const char *unit = apd->airflow_pressure_unit == KPA ? "KPA" : "PSIG";
        printf("****************** Test summary *******************\n");
        printf("Name: %s\n", he->heat_exchanger_description);
        printf("P/N:  %s\n", he->heat_exchanger_type_data[part_number].part_number_description);
        printf("Side: %s\n", hetd->air_passages_data[air_passage_number].air_passage_description);
        printf("Airflow:                              %0.2f LB/MIN\n", airflow);
        printf("Static inlet pressure:                %0.2f %s\n", airflow_pressure, unit);
        if (apd->recalculated_required == true)
        {
            printf("Barometric pressure:                  %0.2f MBAR\n", barometric_pressure);
            printf("Airflow temperature:                  %0.2f C\n", airflow_temperature);
            printf("Corrected static inlet pressure:      %0.2f %s\n", corrected_airflow_pressure, unit);
        }
        printf("Max allowed pressure drop:            %0.2f %s\n", pressure_drop_limit, unit);
        double test_pressure = apd->recalculated_required == true ? corrected_airflow_pressure : airflow_pressure;
        printf("Test result:                          %s\n", test_pressure <= pressure_drop_limit ? "PASSED" : "FAILED");
        printf("***************************************************\n");
        printf("\n");
        uint16_t command = 0;
        get_user_command(&command);
        EXIT_CHECK(command);
    }
    return 0;
}