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T_TXPCL_RFMD3159.cpp：源码内容
							/*****************************************************************************
*  Copyright Statement:
*  --------------------
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*****************************************************************************/
/*****************************************************************************
 *
 * Filename:
 * ---------
 *   T_TXPCL_RFMD3159.cpp
 *
 * Project:
 * --------
 *   Maui META APP
 *
 * Description:
 * ------------
 *  RFMD 3159 TX PCL source
 *
 * Author:
 * -------
 *  Andy Ueng (mtk00490)
 *
 *============================================================================
 *             HISTORY
 * Below this line, this part is controlled by PVCS VM. DO NOT MODIFY!!
 *------------------------------------------------------------------------------
 * $Revision$
 * $Modtime$
 * $Log$
 *
 *------------------------------------------------------------------------------
 * Upper this line, this part is controlled by PVCS VM. DO NOT MODIFY!!
 *============================================================================
****************************************************************************/
#include <assert.h>
#include <math.h>
#pragma hdrstop
#ifndef _T_META_FACTORY_CALIBRATION_H_
#include "T_META_factory_calibration.H"
#endif
#ifndef _CAL_COMMON_H_
#include "cal_common.h"
#endif
#ifndef _APCCAL_COMMON_H_
#include "apccal_common.h"
#endif
#ifndef  _RF_APC_H_
#include "rf_apc.h"
#endif
// callback
#ifndef _META_FACTORY_RF_CB_H_
#include "meta_factory_rf_cb.h"
#endif
#ifndef _META_FACTORY_NVRAM_CB_H_
#include "meta_factory_nvram_cb.h"
#endif
// form
#ifndef _META_FACTORY_H_
#include "META_Factory.h"
#endif
// equipment
#ifndef _AGECOMMON_H_
#include "AgeCommon.h"
#endif
#ifndef  _AGE_MISC_H_
#include "age_misc.h"
#endif
// misc
#ifndef  _FT_UTILS_H_
#include "ft_utils.h"
#endif
#ifndef  _BAND_UTILS_H_
#include "band_utils.h"
#endif
#ifndef  _TIME_UTILS_H_
#include "time_utils.h"
#endif
//----------------------------------------------------------------------------
extern CRFAPC*  MF_rf_apc_ptr;
extern CRFAPC8PSK*  MF_rf_apc_8psk_ptr;
extern RfNbtx_Req *MF_rf_tx_level_req;
extern bool MF_rf_tx_level_cnf;
extern bool  is_suspend_cal; // in T_META_factory_calibration.cpp
//==============================================================================
bool __fastcall T_META_factory_calibration::TXPCLCal_EvalDac_RFMD3159_FixedPaBias(void)
{
    AnsiString   as_epsk_tx_pcl;
    AnsiString   as_epsk_tx_4cal_pcl;
    AnsiString   as_epsk_wanted_p;
    AnsiString   as_epsk_correction;
    AnsiString   as_epsk_sub_tx_pcl;
    AnsiString   as_epsk_sub_tx_4cal_pcl;
    AnsiString   as_epsk_sub_wanted_p;
    AnsiString   as_epsk_sub_correction;
    unsigned short i_EPSK_PCL_Cal[MAX_SUPPORT_BAND_NUM][RF_TX_LEVEL_4_CAL_COUNT];
    double  slope_epsk1[MAX_SUPPORT_BAND_NUM]; // DAC/dBm
    double  slope_epsk2[MAX_SUPPORT_BAND_NUM]; // DAC/dBm
    unsigned short offset_epsk[MAX_SUPPORT_BAND_NUM]; // DAC/dB
    log->Add( "n" +DateToStr(Date()) +  " " + CurrentTimeStr() +
                  " =================== Evaluate PCL DAC value begin =================== "
                );
    RF_GetITC_PCL  s_itc_pcl;
    META_RESULT MetaResult = META_QueryITC_PCL_r(m_pCal->i_MainMETAHandle, 1000, &s_itc_pcl);
    if (META_SUCCESS != MetaResult)
    {
        CalErrorHandler(WM_MF_RF_QUERY_ITC_PCL_FAIL);
        log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                              " FAIL: Target > query modulator switch PCL"
                        );
        return false;
    }
    unsigned short us_high_band_itc_pcl = (s_itc_pcl.pcl & 0xFFFF0000) >> 16;
    unsigned short us_low_band_itc_pcl  = (s_itc_pcl.pcl & 0x0000FFFF);
    unsigned short us_itc_pcl;
    log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                              " Target > High band ITC PCL = " + IntToStr(us_high_band_itc_pcl) +
                              ", Low band ITC PCL = " + IntToStr(us_low_band_itc_pcl)
                        );
    short s_ARFCN;
    E_BANDSEL band_index;
    FrequencyBand eFreqBand = FrequencyBand850;
    while (eFreqBand < FrequencyBandCount)
    {
        switch (eFreqBand)
        {
            case FrequencyBand850:
            {
                if (! IsFreqBankSupported(m_asFreqBank, eFreqBand))
                {
                    eFreqBand++;
                    continue;
                }
                band_index          = BANDSEL_GSM850;
                as_epsk_tx_4cal_pcl = m_as_gsm850_epsk_tx_4cal_pcl;
                as_epsk_tx_pcl      = m_as_gsm850_epsk_tx_pcl;
                as_epsk_wanted_p    = m_as_gsm850_epsk_wanted_p;
                as_epsk_correction  = m_as_gsm850_epsk_correction;
                us_itc_pcl          = us_low_band_itc_pcl;
            }
            break;
            case FrequencyBand900:
            {
                if (! IsFreqBankSupported(m_asFreqBank, eFreqBand))
                {
                    eFreqBand++;
                    continue;
                }
                band_index          = BANDSEL_GSM900;
                as_epsk_tx_4cal_pcl = m_as_gsm900_epsk_tx_4cal_pcl;
                as_epsk_tx_pcl      = m_as_gsm900_epsk_tx_pcl;
                as_epsk_wanted_p    = m_as_gsm900_epsk_wanted_p;
                as_epsk_correction  = m_as_gsm900_epsk_correction;
                us_itc_pcl          = us_low_band_itc_pcl;
            }
            break;
            case FrequencyBand1800:
            {
                if (! IsFreqBankSupported(  m_asFreqBank, eFreqBand))
                {
                    eFreqBand++;
                    continue;
                }
                band_index          = BANDSEL_DCS1800;
                as_epsk_tx_4cal_pcl = m_as_dcs1800_epsk_tx_4cal_pcl;
                as_epsk_tx_pcl      = m_as_dcs1800_epsk_tx_pcl;
                as_epsk_wanted_p    = m_as_dcs1800_epsk_wanted_p;
                as_epsk_correction  = m_as_dcs1800_epsk_correction;
                us_itc_pcl          = us_high_band_itc_pcl;
            }
            break;
            case FrequencyBand1900:
            {
                if (! IsFreqBankSupported(  m_asFreqBank, eFreqBand))
                {
                    eFreqBand++;
                    continue;
                }
                band_index          = BANDSEL_PCS1900;
                as_epsk_tx_4cal_pcl = m_as_pcs1900_epsk_tx_4cal_pcl;
                as_epsk_tx_pcl      = m_as_pcs1900_epsk_tx_pcl;
                as_epsk_wanted_p    = m_as_pcs1900_epsk_wanted_p;
                as_epsk_correction  = m_as_pcs1900_epsk_correction;
                us_itc_pcl          = us_high_band_itc_pcl;
            }
            break;
            default:
                assert(false);
            break;
        } // switch
        log->Add( DateToStr(Date()) +  " " + CurrentTimeStr() + " " +
                              BandIdx_To_String(band_index)
                        );
        for (int i=0; i<RF_TX_LEVEL_4_CAL_COUNT; i++)
        {
            // EPSK
                if (! getAnsiStrSubItem( as_epsk_tx_4cal_pcl, i+1, DEFAULT_SEP_CHAR, as_epsk_sub_tx_4cal_pcl) )
                {
                    CalErrorHandler(WM_MF_CFG_READ_FAIL);
                    log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                              " FAIL: Read config file fail(epsk_sub_tx_3cal_pcl)."
                        );
                    return false;
                }
                i_EPSK_PCL_Cal[band_index][i] = as_epsk_sub_tx_4cal_pcl.ToInt();
        }
        slope_epsk1[band_index] = (m_usPCLDacValue_EPSK[band_index][3]-m_usPCLDacValue_EPSK[band_index][2])/(m_dPCL_dBm_EPSK[band_index][3]-m_dPCL_dBm_EPSK[band_index][2]);
        slope_epsk2[band_index] = (m_usPCLDacValue_EPSK[band_index][1]-m_usPCLDacValue_EPSK[band_index][0])/(m_dPCL_dBm_EPSK[band_index][1]-m_dPCL_dBm_EPSK[band_index][0]);
        offset_epsk[band_index] = m_usPCLDacValue_EPSK[band_index][1]-(m_usPCLDacValue_EPSK[band_index][2]-(m_dPCL_dBm_EPSK[band_index][2]-m_dPCL_dBm_EPSK[band_index][1])*slope_epsk1[band_index]);
        log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                 " slope_epsk1 = " + Double_To_AnsiString(slope_epsk1[band_index]) + " (DAC/dBm)" +
                 ", slope_epsk2 = " + Double_To_AnsiString(slope_epsk2[band_index]) + " (DAC/dBm)" +
                 ", offset_epsk = " + IntToStr(offset_epsk[band_index])
                            );
        // Evaluate DAC except highest and lowest PCL
            for(int i=0; i<RF_RAMP_TABLE_TX_LEVEL_COUNT; i++)
            {
                if (i==RF_RAMP_TABLE_TX_LEVEL_COUNT-1 &&
                    (eFreqBand==FrequencyBand850 || eFreqBand==FrequencyBand900 )
                   )
                {
                    break;
                }
                unsigned short us_pcl;
                double d_wanted_p;
                double d_correction_p;
                // EPSK
                if (! getAnsiStrSubItem(as_epsk_tx_pcl, i+1, DEFAULT_SEP_CHAR, as_epsk_sub_tx_pcl))
                {
                    CalErrorHandler(WM_MF_CFG_READ_FAIL);
                    log->Add( DateToStr(Date()) +  " " + CurrentTimeStr() +
                              " FAIL: Read config file fail(epsk_sub_tx_pcl)."
                        );
                    return false;
                }
                us_pcl = as_epsk_sub_tx_pcl.ToInt();
                // EPSK
                if (! getAnsiStrSubItem( as_epsk_wanted_p, i+1, DEFAULT_SEP_CHAR, as_epsk_sub_wanted_p) )
                {
                    CalErrorHandler(WM_MF_CFG_READ_FAIL);
                    log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                              " FAIL: Read config file fail(epsk_sub_wanted_p)."
                            );
                    return false;
                }
                d_wanted_p = atof(as_epsk_sub_wanted_p.c_str());
                // EPSK
                if (! getAnsiStrSubItem( as_epsk_correction, i+1, DEFAULT_SEP_CHAR, as_epsk_sub_correction) )
                {
                    CalErrorHandler(WM_MF_CFG_READ_FAIL);
                    log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                              " FAIL: Read config file fail(as_epsk_sub_correction)."
                            );
                    return false;
                }
                d_correction_p = atof(as_epsk_sub_correction.c_str());
                // EPSK
                if (as_epsk_sub_tx_pcl.ToInt() != i_EPSK_PCL_Cal[band_index][PCL_LOW_INDEX] &&
                    as_epsk_sub_tx_pcl.ToInt() != i_EPSK_PCL_Cal[band_index][PCL_MID_INDEX] &&
                    as_epsk_sub_tx_pcl.ToInt() != i_EPSK_PCL_Cal[band_index][PCL_HIGH_INDEX] &&
                    as_epsk_sub_tx_pcl.ToInt() != i_EPSK_PCL_Cal[band_index][PCL_HIGH_INDEX+1]
                   )
                {
                    if (us_pcl <= us_itc_pcl)
                    {
                        m_usPCLDacValue_ideal_EPSK[band_index][i] = m_usPCLDacValue_EPSK[band_index][3] - (m_dPCL_dBm_EPSK[band_index][3] - (d_wanted_p + d_correction_p)) * slope_epsk1[band_index];
                    }
                    else if (us_pcl == us_itc_pcl+1)
                    {
                        m_usPCLDacValue_ideal_EPSK[band_index][i] = m_usPCLDacValue_EPSK[band_index][3] - (m_dPCL_dBm_EPSK[band_index][3] - (d_wanted_p + d_correction_p)) * slope_epsk1[band_index] + offset_epsk[band_index];
                    }
                    else
                    {
                        m_usPCLDacValue_ideal_EPSK[band_index][i] = m_usPCLDacValue_EPSK[band_index][1] - (m_dPCL_dBm_EPSK[band_index][1] - (d_wanted_p + d_correction_p)) * slope_epsk2[band_index];
                    }
                    MF_rf_apc_8psk_ptr->Set_ApcProfilePower( band_index, i, m_usPCLDacValue_ideal_EPSK[band_index][i] );
                    log->Add( DateToStr(Date()) +  " " + CurrentTimeStr() +
                          // "                         " +
                           " m_usPCLDacValue_ideal_EPSK[" + IntToStr(band_index) + "][" + IntToStr(i) + "] = " +
                             Double_To_AnsiString(m_usPCLDacValue_ideal_EPSK[band_index][i]) + "n"
                        );
                }
            }
        // EPSK
            MF_rf_apc_8psk_ptr->ConfirmCallback = ::ccb_write_apc_to_nvram;
            MF_rf_apc_8psk_ptr->REQ_Write_APC_To_NVRAM_Single_Band_Start(m_pCal->ui_rf_id, band_index);
            log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                      " Write to NVRAM band_index = " + IntToStr(band_index)
                    );
            RestartTimerCal(WM_MF_NVRAM_LEVEL_RAMP_WRITE_FAIL);
            CHECK_TERMINATE_BY_USER
            SUSPEND_CAL_THREAD
            E_METAAPP_RESULT_T state = MF_rf_apc_8psk_ptr->Get_ConfirmState();
            if (state != METAAPP_SUCCESS)
            {
                if (METAAPP_NVRAM_LID_VER_NOT_SUPPORT == state)
                {
                    CalErrorHandler(WM_MF_NVRAM_EF_L1_EPSK_RAMPTABLE_xxx_LID_VERNO_FAIL);
                    log->Add(DateToStr(Date()) +  " " + CurrentTimeStr() +
                                              " FAIL : NVRAM_EF_L1_EPSK_RAMPTABLE_xxx_LID version is not support, please update META to latest version. "
                                              );
                }
                else
                {
                    CalErrorHandler(WM_MF_NVRAM_LEVEL_RAMP_WRITE_FAIL);
                    log->Add( DateToStr(Date()) +  " " + CurrentTimeStr() +
                                      " FAIL: Target< write EPSK APC to NVRAM "
                                    );
                }
                return false;
            }
            WriteEpskAPCCalResultToFile(as_ID+".cal",Application->ExeName, m_pCal->b_CalResultPath, FreqBand_To_BandIdx(eFreqBand) );
        
        eFreqBand++;
    } // while
    frmFatcory->DisableAllCalTimer();
    log->Add( DateToStr(Date()) +  " " + CurrentTimeStr() +
                 " ===================== Evaluate other PCL DAC value end =========== n "
                );
    return true;
}

						