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T_TXPCL_common.cpp：源码内容

/*****************************************************************************
* Copyright Statement:
* --------------------
* This software is protected by Copyright and the information contained
* herein is confidential. The software may not be copied and the information
* contained herein may not be used or disclosed except with the written
* permission of MediaTek Inc. (C) 2005
*
* BY OPENING THIS FILE, BUYER HEREBY UNEQUIVOCALLY ACKNOWLEDGES AND AGREES
* THAT THE SOFTWARE/FIRMWARE AND ITS DOCUMENTATIONS ("MEDIATEK SOFTWARE")
* RECEIVED FROM MEDIATEK AND/OR ITS REPRESENTATIVES ARE PROVIDED TO BUYER ON
* AN "AS-IS" BASIS ONLY. MEDIATEK EXPRESSLY DISCLAIMS ANY AND ALL WARRANTIES,
* EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE IMPLIED WARRANTIES OF
* MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE OR NONINFRINGEMENT.
* NEITHER DOES MEDIATEK PROVIDE ANY WARRANTY WHATSOEVER WITH RESPECT TO THE
* SOFTWARE OF ANY THIRD PARTY WHICH MAY BE USED BY, INCORPORATED IN, OR
* SUPPLIED WITH THE MEDIATEK SOFTWARE, AND BUYER AGREES TO LOOK ONLY TO SUCH
* THIRD PARTY FOR ANY WARRANTY CLAIM RELATING THERETO. MEDIATEK SHALL ALSO
* NOT BE RESPONSIBLE FOR ANY MEDIATEK SOFTWARE RELEASES MADE TO BUYER'S
* SPECIFICATION OR TO CONFORM TO A PARTICULAR STANDARD OR OPEN FORUM.
*
* BUYER'S SOLE AND EXCLUSIVE REMEDY AND MEDIATEK'S ENTIRE AND CUMULATIVE
* LIABILITY WITH RESPECT TO THE MEDIATEK SOFTWARE RELEASED HEREUNDER WILL BE,
* AT MEDIATEK'S OPTION, TO REVISE OR REPLACE THE MEDIATEK SOFTWARE AT ISSUE,
* OR REFUND ANY SOFTWARE LICENSE FEES OR SERVICE CHARGE PAID BY BUYER TO
* MEDIATEK FOR SUCH MEDIATEK SOFTWARE AT ISSUE.
*
* THE TRANSACTION CONTEMPLATED HEREUNDER SHALL BE CONSTRUED IN ACCORDANCE
* WITH THE LAWS OF THE STATE OF CALIFORNIA, USA, EXCLUDING ITS CONFLICT OF
* LAWS PRINCIPLES. ANY DISPUTES, CONTROVERSIES OR CLAIMS ARISING THEREOF AND
* RELATED THERETO SHALL BE SETTLED BY ARBITRATION IN SAN FRANCISCO, CA, UNDER
* THE RULES OF THE INTERNATIONAL CHAMBER OF COMMERCE (ICC).
*
*****************************************************************************/
/*****************************************************************************
*
* Filename:
* ---------
* T_TXPCL_common.cpp
*
* Project:
* --------
* Maui META APP
*
* Description:
* ------------
* TX PCL calibration common 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 _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 _AGE1968A_H_
#include "age1968a.h"
#endif
// misc
#ifndef _FT_UTILS_H_
#include "ft_utils.h"
#endif
#ifndef _BAND_UTILS_H_
#include "band_utils.h"
#endif
#ifndef _GSM_UTILS_H_
#include "gsm_utils.h"
#endif
#ifndef _TIME_UTILS_H_
#include "time_utils.h"
#endif
//----------------------------------------------------------------------------
// equipment
extern CMU_VAR cmu;
extern CRFAPC* MF_rf_apc_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_2cal(void)
{
int FIRST_PCL=0;
AnsiString as_tx_pcl;
AnsiString as_tx_2cal_pcl;
AnsiString as_sub_tx_2cal_pcl;
AnsiString as_max_p;
AnsiString as_wanted_p;
AnsiString as_min_p;
AnsiString as_c;
AnsiString as_sub_tx_pcl;
AnsiString as_sub_max_p;
AnsiString as_sub_wanted_p;
AnsiString as_sub_min_p;
AnsiString as_sub_c;
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ============ GMSK TX power control level calibration begin ============ n "
);
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
if( ! m_rct_ctrl.RCT_operatingMode( m_pRct, OPERATING_MODE_GSM_BCH_TCH ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_OPERATION_MODE_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < Operation mode = GSM BCH+TCH"
);
return false;
}
}
else
{
if( ! m_rct_ctrl.RCT_operatingMode( m_pRct, OPERATING_MODE_GPRS_BCH_PDTCH) )
{
CalErrorHandler( WM_MF_AGE8960_SET_OPERATION_MODE_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < Operation mode = GPRS BCH+PDTCH"
);
return false;
}
}
short s_ARFCN;
FrequencyBand eFreqBand = FrequencyBand850;
i_N_TX = 2000; // TX frames
//---------------------------------------------------------------------------
while (eFreqBand < FrequencyBandCount)
{
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
switch (eFreqBand)
{
case FrequencyBand850:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = GSM850_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_GSM850;
i_TX_level_count = RF_TX_LEVEL_2_CAL_COUNT;
as_tx_2cal_pcl = m_as_gsm850_tx_2cal_pcl;
as_tx_pcl = m_as_gsm850_tx_pcl;
as_max_p = m_as_gsm850_max_p;
as_wanted_p = m_as_gsm850_wanted_p;
as_min_p = m_as_gsm850_min_p;
as_c = m_as_gsm850_c;
}
break;
case FrequencyBand900:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = GSM900_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_GSM;
i_TX_level_count = RF_TX_LEVEL_2_CAL_COUNT;
as_tx_2cal_pcl = m_as_gsm900_tx_2cal_pcl;
as_tx_pcl = m_as_gsm900_tx_pcl;
as_max_p = m_as_gsm900_max_p;
as_wanted_p = m_as_gsm900_wanted_p;
as_min_p = m_as_gsm900_min_p;
as_c = m_as_gsm900_c;
}
break;
case FrequencyBand1800:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = DCS1800_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_DCS;
i_TX_level_count = RF_TX_LEVEL_2_CAL_COUNT;
as_tx_2cal_pcl = m_as_dcs1800_tx_2cal_pcl;
as_tx_pcl = m_as_dcs1800_tx_pcl;
as_max_p = m_as_dcs1800_max_p;
as_wanted_p = m_as_dcs1800_wanted_p;
as_min_p = m_as_dcs1800_min_p;
as_c = m_as_dcs1800_c;
}
break;
case FrequencyBand1900:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = PCS1900_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_PCS;
i_TX_level_count = RF_TX_LEVEL_2_CAL_COUNT;
as_tx_2cal_pcl = m_as_pcs1900_tx_2cal_pcl;
as_tx_pcl = m_as_pcs1900_tx_pcl;
as_max_p = m_as_pcs1900_max_p;
as_wanted_p = m_as_pcs1900_wanted_p;
as_min_p = m_as_pcs1900_min_p;
as_c = m_as_pcs1900_c;
}
break;
default:
{
assert(false);
}
break;
} // switch
E_BANDSEL band_index = FreqBand_To_BandIdx(eFreqBand);
int vi_Band = FreqBand_To_AgeBand(eFreqBand);
if (this->Terminated)
{
this->OnTerminate = neByUser;
return false;
}
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++"
);
if (!MF_rf_apc_ptr->ApcSectionExist(m_pCal->as_IniFile.c_str(), band_index))
{
CalErrorHandler(WM_MF_RF_TX_LEVEL_INI_FAIL);
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL :"+
" APC section is not in initial file: " + FreqBand_To_Str(eFreqBand)
);
return false;
}
if (IsFreqBankSupported( m_asFreqBank, eFreqBand))
{
if(eFreqBand == FrequencyBand1900)
{
if(META_Rf_SelectFrequencyBand1900_r( m_pCal->i_MainMETAHandle, 1, MF_SelectBand_cnf_cb, &MF_SelectBand_token, NULL) != META_SUCCESS)
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: target < set Band1900 flag = 1"
);
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" target < set Band1900 flag = 1"
);
}
else
{
if(META_Rf_SelectFrequencyBand1900_r( m_pCal->i_MainMETAHandle, 0, MF_SelectBand_cnf_cb, &MF_SelectBand_token, NULL) != META_SUCCESS)
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: target < set Band1900 flag = 0"
);
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" target < set Band1900 flag = 0"
);
}
is_suspend_cal = true;
this->Suspend();
is_suspend_cal = false;
}
if( ! m_rct_ctrl.RCT_cellBand( m_pRct, vi_Band ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_BAND_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < Band = " + ViBand_To_Str( vi_Band )
);
return false;
}
Sleep( 100 ); // wait Agilent 8960 cell band setup ready!
// if Agilent 8960 not read, target will get error power!
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < Band = " + ViBand_To_Str( vi_Band )
);
short bch_arfcn = ::Get_SeperateChannel( vi_Band, s_ARFCN );
if( ! m_rct_ctrl.RCT_BCHARFCN( m_pRct, bch_arfcn) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TCH_ARFCN_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < BCH ARFCN = " + IntToStr( bch_arfcn )
);
return false;
}
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
if( ! m_rct_ctrl.RCT_TCHARFCN( m_pRct, s_ARFCN ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TCH_ARFCN_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < TCH ARFCN = " + IntToStr( s_ARFCN )
);
return false;
}
}
else
{
if( ! m_rct_ctrl.RCT_PDTCHARFCN( m_pRct, s_ARFCN ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TCH_ARFCN_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < PDTCH ARFCN = " + IntToStr( s_ARFCN )
);
return false;
}
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < TCH ARFCN = " + IntToStr( s_ARFCN )
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < PDTCH ARFCN = " + IntToStr( s_ARFCN )
);
}
// ----------------------- set Agilent 8960 < TSC -------------------------
if( ! m_rct_ctrl.RCT_ConfigTSC( m_pRct, m_cTSC ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TSC_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
"FAIL: " + m_pRct->as_RCT + " < set TSC fail."
);
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < TSC = " + IntToStr( m_cTSC)
);
// log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
// " TimerCal->Enabled 8= " + IntToStr((int)frmFatcory->TimerCal->Enabled)
// );
RestartTimerCal( WM_MF_AGE8960_CONFIG_TX_POWER_FAIL );
if (!m_rct_ctrl.RCT_Config_ExpectedTxPower(m_pRct, true, 0))
{
RestartTimerCal(WM_MF_AGE8960_CONFIG_TX_POWER_FAIL);
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : " + m_pRct->as_RCT + " < config expected TX power to auto fail"
);
return false;
}
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
if( ! m_rct_ctrl.RCT_confTXPower( m_pRct ) )
{
CalErrorHandler( WM_MF_AGE8960_CONFIG_TX_POWER_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " + m_pRct->as_RCT + " < config TX power ."
);
return false;
}
}
else
{
if( ! m_rct_ctrl.RCT_confMultiSlotTxPower( m_pRct, AGE1960_TX_POWER_MEASURE_COUNT, MOD_GMSK ) )
{
CalErrorHandler( WM_MF_AGE8960_CONFIG_TX_POWER_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " + m_pRct->as_RCT + " < config TX power 1."
);
return false;
}
}
if( ! m_rct_ctrl.RCT_TXPowerContOff( m_pRct ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TX_POWER_CONT_OFF_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " + m_pRct->as_RCT + " < set TX power continuous OFF "
);
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
// calibration from high power to low power
// index from big to little.
// PCL string in config file from right to left.
int iRealRecursiveTimes = 0;
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
for ( int N=0; N<i_TX_level_count; N++) // DCS,PCS:16~1 or GSM:15~1
{
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ------------------------------------------------------------------ "
);
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" N = " + N
);
if (! getAnsiStrSubItem( as_tx_2cal_pcl, N+1, DEFAULT_SEP_CHAR, as_sub_tx_2cal_pcl) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_tx_cal_pcl)."
);
return false;
}
for( iRealRecursiveTimes=0; iRealRecursiveTimes<i_TXlevelRecusiveTimes;
iRealRecursiveTimes++) // marked by Andy Ueng for no iteration test
{
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" RecursiveTimes = " + IntToStr(iRealRecursiveTimes)
);
if( 0 == iRealRecursiveTimes )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
// " band_index = " + IntToStr(band_index) + "," +
// " power_index = " + IntToStr(FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()) + "," +
" MF_rf_apc_ptr->ApcProfile[" + IntToStr(band_index) + "].rampData.power[" +
IntToStr(FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()) + "] = " +
// IntToStr(MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()])
IntToStr(MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() ) )
);
// not support GSM400
// m_usPCLDacValue[band_index][N] = MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()];
m_usPCLDacValue[band_index][N] = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
// " band_index = " + IntToStr(band_index) + "," +
// " N = " + IntToStr(N) + "," +
" m_usPCLDacValue[" +IntToStr(band_index) + "][" + IntToStr(N) + "] = " +
IntToStr(m_usPCLDacValue[band_index][N])
);
}
// index start from 1
if (! getAnsiStrSubItem( as_tx_pcl, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_tx_pcl) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_tx_cal_pcl 2)."
);
return false;
}
if (! getAnsiStrSubItem( as_max_p, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_max_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_max_p)."
);
return false;
}
if (! getAnsiStrSubItem( as_min_p, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_min_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_min_p)."
);
return false;
}
if (! getAnsiStrSubItem( as_wanted_p, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_wanted_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_wanted_p)."
);
return false;
}
if (! getAnsiStrSubItem( as_c, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_c) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(c)."
);
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
if( ! m_rct_ctrl.RCT_MSTXLevel( m_pRct, as_sub_tx_pcl.ToInt()) )
{
CalErrorHandler( WM_MF_AGE8960_SET_MS_TX_LEVEL_FAIL );
if ( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : Agilent 8960< MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : cmu200 > MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
if ( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" Agilent 8960< MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" CMU200 < MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
RestartTimerCal( WM_MF_RF_STOP_FAIL );
if (!MF_rf_stop.REQ_Start())
{
CalErrorHandler( WM_MF_RF_STOP_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Target < stop RF fail."
);
return false;
}
MF_rf_tx_level_req->arfcn = s_ARFCN;
MF_rf_tx_level_req->bsic = m_cTSC;
MF_rf_tx_level_req->power = as_sub_tx_pcl.ToInt();
MF_rf_tx_level_req->frames = i_N_TX;
MF_rf_tx_level_req->dacValue = m_sDefault_value;
MF_rf_tx_level_req->burstTypeNB = NB_TX_RANDOM_WITH_TSC; // NB burst
if ( META_Rf_NB_TX_r( m_pCal->i_MainMETAHandle,
MF_rf_tx_level_req,
MF_rf_tx_level_cb,
&MF_rf_tx_level_token,
NULL
) != META_SUCCESS)
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : Target< ARFCN = " + IntToStr( s_ARFCN ) +
", TSC = " + IntToStr( m_cTSC ) +
", power = " + as_sub_tx_pcl +
", frames = " + IntToStr(i_N_TX) +
", dac value = " + IntToStr( m_sDefault_value )
);
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
#endif
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
#ifdef _MYDEBUG_
":" + AnsiString( ms ) +
#endif
" Target< TX: ARFCN = " + IntToStr( s_ARFCN ) +
", TSC = " + IntToStr( m_cTSC ) +
", power = " + as_sub_tx_pcl +
", frames = " + IntToStr(i_N_TX) +
", dac value = " + IntToStr( m_sDefault_value )
);
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " before suspend " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" TimerCal->Enabled 7= " + IntToStr((int)frmFatcory->TimerCal->Enabled)
);
RestartTimerCal( WM_MF_RF_TX_LEVEL_FAIL );
is_suspend_cal = true;
this->Suspend();
is_suspend_cal = false;
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " after resume " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
if( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
if (! MF_rf_tx_level_cnf )
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : ! MF_rf_tx_level_cnf"
);
return false;
}
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " before read TX power Q " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
RestartTimerCal( WM_MF_AGE8960_READ_TX_POWER_FAIL );
if( ! m_rct_ctrl.RCT_ReadTxPower( m_pRct, m_virTX ) )
{
CalErrorHandler( WM_MF_AGE8960_READ_TX_POWER_FAIL );
if ( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : Agilent 8960< read TX power 1."
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : CMU 200< read TX power 1."
);
}
return false;
}
frmFatcory->DisableAllCalTimer();
m_dPCL_dBm[band_index][N] = m_virTX ;
m_dPCL_power[band_index][N] = pow(10.0, m_dPCL_dBm[band_index][N]/10.0)/1000.0;
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " after read TX power Q " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
if ( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" Agilent 8960< read TX power = "+ Double_To_AnsiString( m_virTX )
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" CMU 200< read TX power = "+ Double_To_AnsiString( m_virTX )
);
}
signed short ss1;
double d1;
if (iRealRecursiveTimes != i_TXlevelRecusiveTimes-1) //iteration
{
if ( m_virTX > (atof(as_sub_wanted_p.c_str())+ m_dAPC_Delta) ||
m_virTX < (atof(as_sub_wanted_p.c_str())- m_dAPC_Delta))
{
d1 = atof(as_sub_c.c_str()) * (atof(as_sub_wanted_p.c_str()) - m_virTX );
// modified by Andy Ueng for always increment 1
// ss1 = (signed short) (d1>0) ? floor(d1+0.5): ceil(d1-0.5); // to round up or down
ss1 = (signed short) (d1>0) ? floor(d1+1.0): ceil(d1-1.0);
unsigned short us_org_apc_dac = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() );
unsigned short us_new_apc_dac;
if ((us_org_apc_dac + ss1) <= MIN_APC_DAC )
{
us_new_apc_dac = 1;
//MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt(), 1 );
}
else if ((us_org_apc_dac + ss1) > MAX_APC_DAC)
{
us_new_apc_dac = MAX_APC_DAC;
//MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt(), MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() )+ss1 );
}
else
{
us_new_apc_dac = us_org_apc_dac + ss1;
}
MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt(), us_new_apc_dac );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" power_index = " + IntToStr(FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()) + "," +
" MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[power_index] = " + IntToStr(us_new_apc_dac )
);
// m_usPCLDacValue[band_index][N] = MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()];
m_usPCLDacValue[band_index][N] = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
//" band_index = " + IntToStr(band_index) + "," +
//" N = " + IntToStr(N) + "," +
" m_usPCLDacValue[" + IntToStr(band_index) +"][" + IntToStr(N) +"] = " +
IntToStr(m_usPCLDacValue[band_index][N])
);
// log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
// // " MF_rf_apc_ptr->ApcDcOffset[band_index] = " + IntToStr(MF_rf_apc_ptr->ApcDcOffset[band_index])
// " MF_rf_apc_ptr->HighApcDcOffset[band_index] = " + IntToStr(MF_rf_apc_ptr->Get_HighApcDcOffset(band_index))
// );
//m_dV_set[band_index][N] = (MF_rf_apc_ptr->ApcDcOffset[band_index] + m_usPCLDacValue[band_index][N]) / 1024.0 * 2.8 * 15.0 / 25.0; // added by Andy Ueng
//log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
// " band_index = " + IntToStr(band_index) + "," +
// " N = " + IntToStr(N) + "," +
// " m_dV_set[band_index][N] = " + Double_To_AnsiString(m_dV_set[band_index][N])
// );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" new S = "+
// AnsiString( MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()] )
AnsiString( MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() ) )
);
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" delta s = "+
AnsiString( ss1 )
);
MF_rf_apc_ptr->ConfirmCallback = ccb_set_apc_level;
// MF_rf_apc_ptr->Req_Rf_SetRampApcLevel(eFreqBand, as_sub_tx_2cal_pcl.ToInt(), MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()]);
MF_rf_apc_ptr->Req_Rf_SetRampApcLevel(eFreqBand, as_sub_tx_2cal_pcl.ToInt(), MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() ));
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
RestartTimerCal( WM_MF_SET_APC_DAC_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" TimerCal->Enabled 9= " + IntToStr((int)frmFatcory->TimerCal->Enabled)
);
is_suspend_cal = true;
this->Suspend();
is_suspend_cal = false;
E_METAAPP_RESULT_T state = MF_rf_apc_ptr->Get_ConfirmState();
if (state != METAAPP_SUCCESS)
{
if (METAAPP_NVRAM_LID_VER_NOT_SUPPORT == state)
{
CalErrorHandler(WM_MF_NVRAM_EF_L1_RAMPTABLE_xxx_LID_VERNO_FAIL);
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : NVRAM_EF_L1_RAMPTABLE_xxx_LID version is not support, please update META to latest version. "
);
}
else
{
CalErrorHandler(WM_MF_SET_APC_DAC_FAIL);
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Target< set APC level fail. PCL = "+ as_sub_tx_2cal_pcl +
" APC DAC = " + IntToStr(MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() )) + "n"
);
return false;
}
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" Target< set APC level ok. PCL = "+ as_sub_tx_2cal_pcl + "," +
" APC DAC = " + IntToStr(MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt() )) + "n"
);
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" delta s = 0 "
);
break; // for iRealRecursiveTimes
}
} // if no iteration
else if( iRealRecursiveTimes == i_TXlevelRecusiveTimes-1 )
{
double d_max_p = atof(as_sub_max_p.c_str());
double d_min_p = atof(as_sub_min_p.c_str());
if ( m_virTX > d_max_p || m_virTX < d_min_p )
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_CHECK_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT+ " > read TX power = "+ Double_To_AnsiString( m_virTX ) +
" ( Out of Range ), min TX power = " + Double_To_AnsiString( d_min_p ) + ", max TX power = " + Double_To_AnsiString( d_max_p )
);
return false;
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT+ " > read TX power = "+ Double_To_AnsiString( m_virTX ) +
" ( Pass ), min TX power = " + Double_To_AnsiString( d_min_p ) + ", max TX power = " + Double_To_AnsiString( d_max_p )
);
}
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
} // for iRealRecursiveTimes
} // for N
} // single slot
else // multi-slot
{
unsigned int ui_tx_2cal_pcl[RF_TX_LEVEL_2_CAL_COUNT];
double d_max_p[RF_TX_LEVEL_2_CAL_COUNT];
double d_min_p[RF_TX_LEVEL_2_CAL_COUNT];
double d_wanted_p[RF_TX_LEVEL_2_CAL_COUNT];
S_MULTISLOT_BURST_POWER virTX_p;
unsigned int ui_c[RF_TX_LEVEL_2_CAL_COUNT];
unsigned short us_apc_dac[RF_TX_LEVEL_2_CAL_COUNT];
for( int N=0; N<i_TX_level_count; N++) // DCS,PCS:16~1 or GSM:15~1
{
if (! getAnsiStrSubItem( as_tx_2cal_pcl, N+1, DEFAULT_SEP_CHAR, as_sub_tx_2cal_pcl) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_tx_cal_pcl)."
);
return false;
}
ui_tx_2cal_pcl[N] = as_sub_tx_2cal_pcl.ToInt();
if (! getAnsiStrSubItem( as_max_p, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_max_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_max_p)."
);
return false;
}
d_max_p[N] = atof(as_sub_max_p.c_str());
if (! getAnsiStrSubItem( as_min_p, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_min_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_min_p)."
);
return false;
}
d_min_p[N] = atof(as_sub_min_p.c_str());
if (! getAnsiStrSubItem( as_wanted_p, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_wanted_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_wanted_p)."
);
return false;
}
d_wanted_p[N] = atof(as_sub_wanted_p.c_str());
if (! getAnsiStrSubItem( as_c, FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_c) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(c)."
);
return false;
}
ui_c[N] = as_sub_c.ToInt();
} // for(N)
for( iRealRecursiveTimes=0; iRealRecursiveTimes<i_TXlevelRecusiveTimes;
iRealRecursiveTimes++) // marked by Andy Ueng for no iteration test
{
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" RecursiveTimes = " + IntToStr(iRealRecursiveTimes)
);
if( 0 == iRealRecursiveTimes )
{
m_usPCLDacValue[band_index][0] = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[0] );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" m_usPCLDacValue[" +IntToStr(band_index) + "][" + IntToStr(0) + "] = " +
IntToStr(m_usPCLDacValue[band_index][0])
);
}
RestartTimerCal( WM_MF_RF_STOP_FAIL );
if (!MF_rf_stop.REQ_Start())
{
CalErrorHandler( WM_MF_RF_STOP_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Target < stop RF fail."
);
return false;
}
int pcl[4];
CodingScheme cs[4];
cs[0] = CodingSchemeMCS5;
cs[1] = CodingSchemeMCS5;
pcl[0] = ui_tx_2cal_pcl[0];
pcl[1] = ui_tx_2cal_pcl[1];
S_MULTI_SLOT_TX_T multi_slot_tx;
multi_slot_tx.b_MultiSlotTXExSupport = m_pCal->b_MultiSlotTxExSupport;
multi_slot_tx.e_bandsel = band_index;
multi_slot_tx.req.arfcn = s_ARFCN;
multi_slot_tx.req.bsic = m_cTSC;
multi_slot_tx.req.timeSlotmask = 0x03;
for (int i=0; i<4; i++)
{
multi_slot_tx.req.powerLev[i] = pcl[i];
multi_slot_tx.req.cs[i] = cs[i];
}
multi_slot_tx.req.ta = 0;
multi_slot_tx.req.frames = -99;
multi_slot_tx.req.dacValue = m_sDefault_value;
multi_slot_tx.req.pattern = NB_TX_RANDOM_WITH_TSC;
multi_slot_tx.req.pattern_data = 0;
RF_MULTI_SLOT_TX_Obj.ConfirmCallback = ::ConfirmCallback_MultiSlotTX;
RF_MULTI_SLOT_TX_Obj.REQ_Start(multi_slot_tx);
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
RestartTimerCal( WM_MF_RF_TX_LEVEL_FAIL );
SUSPEND_CAL_THREAD
if( RF_MULTI_SLOT_TX_Obj.Get_ConfirmState() != METAAPP_SUCCESS )
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Target < multislot TX fail."
);
return false;
}
if( ! m_rct_ctrl.RCT_readMultiSlotAverageTxPower( m_pRct, &virTX_p ) )
{
CalErrorHandler( WM_MF_AGE8960_READ_TX_POWER_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " + m_pRct->as_RCT + " < read multislot TX power ."
);
return false;
}
frmFatcory->DisableAllCalTimer();
for ( int N=0; N<i_TX_level_count; N++) // DCS,PCS:16~1 or GSM:15~1
{
m_dPCL_dBm[band_index][N] = virTX_p.d_burstpower[N] ;
m_dPCL_power[band_index][N] = pow(10.0, m_dPCL_dBm[band_index][N]/10.0)/1000.0;
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < read slot " + IntToStr(N) + " TX power = " + Double_To_AnsiString( virTX_p.d_burstpower[N] )
);
signed short ss1;
double d1;
if (iRealRecursiveTimes != i_TXlevelRecusiveTimes-1) //iteration
{
if ( virTX_p.d_burstpower[N] > (d_wanted_p[N]+ m_dAPC_Delta) ||
virTX_p.d_burstpower[N] < (d_wanted_p[N]- m_dAPC_Delta))
{
d1 = ui_c[N] * ( d_wanted_p[N] - virTX_p.d_burstpower[N] );
ss1 = (signed short) (d1>0) ? floor(d1+1.0): ceil(d1-1.0);
unsigned short us_org_apc_dac = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N] );
unsigned short us_new_apc_dac;
if ( (us_org_apc_dac + ss1) <= 0 )
{
us_new_apc_dac = 1;
//MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N], 1 );
}
else if ( (us_org_apc_dac + ss1) > MAX_APC_DAC )
{
us_new_apc_dac = MAX_APC_DAC;
//MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N], MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N] )+ss1 );
}
else
{
us_new_apc_dac = us_org_apc_dac + ss1;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" power_index = " + IntToStr(FIRST_PCL-as_sub_tx_2cal_pcl.ToInt()) + "," +
" MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[power_index] = " + IntToStr( us_new_apc_dac )
);
m_usPCLDacValue[band_index][N] = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N] );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" m_usPCLDacValue[" + IntToStr(band_index) +"][" + IntToStr(N) +"] = " +
IntToStr(m_usPCLDacValue[band_index][N])
);
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" new S = "+
AnsiString( MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N] ) )
);
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" delta s = "+
AnsiString( ss1 )
);
MF_rf_apc_ptr->ConfirmCallback = ccb_set_apc_level;
MF_rf_apc_ptr->Req_Rf_SetRampApcLevel(eFreqBand, ui_tx_2cal_pcl[N], MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N] ));
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
RestartTimerCal( WM_MF_SET_APC_DAC_FAIL );
// log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
// " TimerCal->Enabled 9= " + IntToStr((int)frmFatcory->TimerCal->Enabled)
// );
is_suspend_cal = true;
this->Suspend();
is_suspend_cal = false;
E_METAAPP_RESULT_T state = MF_rf_apc_ptr->Get_ConfirmState();
if (state != METAAPP_SUCCESS)
{
if (METAAPP_NVRAM_LID_VER_NOT_SUPPORT == state)
{
CalErrorHandler(WM_MF_NVRAM_EF_L1_RAMPTABLE_xxx_LID_VERNO_FAIL);
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : NVRAM_EF_L1_RAMPTABLE_xxx_LID version is not support, please update META to latest version. "
);
}
else
{
CalErrorHandler( WM_MF_SET_APC_DAC_FAIL );
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Target< set APC level fail. PCL = "+ as_sub_tx_2cal_pcl +
" APC DAC = " + IntToStr(MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N] )) + "n"
);
}
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" Target< set APC level ok. PCL = "+ as_sub_tx_2cal_pcl + "," +
" APC DAC = " + IntToStr(MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-ui_tx_2cal_pcl[N] )) + "n"
);
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" delta s = 0 "
);
break; // for iRealRecursiveTimes
}
} // if no iteration
else if( iRealRecursiveTimes == i_TXlevelRecusiveTimes-1 )
{
if( virTX_p.d_burstpower[N] > d_max_p[N] || virTX_p.d_burstpower[N] < d_min_p[N] )
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_CHECK_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " > read TX power = "+ Double_To_AnsiString( virTX_p.d_burstpower[N] ) +
" ( Out of Range ), min TX power = " + Double_To_AnsiString( d_min_p[N] ) + ", max TX power = " + Double_To_AnsiString( d_max_p[N] )
);
return false;
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " > read TX power = "+ Double_To_AnsiString( virTX_p.d_burstpower[N] ) +
" ( Pass ), min TX power = " + Double_To_AnsiString( d_min_p[N] ) + ", max TX power = " + Double_To_AnsiString( d_max_p[N] )
);
}
}
} // for(N)
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
} // for(iRealRecursiveTimes)
} // multi-slot
eFreqBand++;
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
} // while
// Sleep( i_N_TX*4.615);
if( ! m_rct_ctrl.RCT_TXPowerContOff( m_pRct ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TX_POWER_CONT_OFF_FAIL );
if ( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : Agilent 8960< set continuous TX power OFF "
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : cmu200 < set continuous TX power OFF "
);
}
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ============= TX power control level calibration end ============= n "
);
RestartTimerCal(WM_MF_RF_TX_LEVEL_FAIL);
if (!MF_rf_stop.REQ_Start())
{
CalErrorHandler( WM_MF_RF_STOP_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Target < stop RF fail."
);
return false;
}
frmFatcory->DisableAllCalTimer();
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ============= GMSK TX power control level calibration end ============= n "
);
if( m_asAPC_Check.AnsiCompareIC("yes") != 0 )
{
PostMessage(
ctrl.hPostMsgDestHandle,
WM_MF_RF_TX_LEVEL_CALIBRATION_DONE_NO_CHECK,
0,
0
);
frmFatcory->DisableAllCalTimer();
log->Add( "n" + DateToStr(Date()) + " "+ CurrentTimeStr() +
" TX PCL calibration done (without TX PCL check procedure)! n"
);
}
return true;
}
//=========================================================================
bool __fastcall T_META_factory_calibration::TXPCLCal_3cal(void)
{
AnsiString as_tx_pcl;
AnsiString as_tx_cal_pcl;
AnsiString as_max_p;
AnsiString as_wanted_p;
AnsiString as_min_p;
AnsiString as_c;
AnsiString as_sub_tx_pcl;
AnsiString as_sub_tx_cal_pcl;
AnsiString as_sub_max_p;
AnsiString as_sub_wanted_p;
AnsiString as_sub_min_p;
AnsiString as_sub_c;
int FIRST_PCL=0;
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ============ GMSK TX power control level calibration begin ============ n "
);
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
if( ! m_rct_ctrl.RCT_operatingMode( m_pRct, OPERATING_MODE_GSM_BCH_TCH ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_OPERATION_MODE_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < Operation mode = GSM BCH+TCH"
);
return false;
}
}
else
{
if( ! m_rct_ctrl.RCT_operatingMode( m_pRct, OPERATING_MODE_GPRS_BCH_PDTCH) )
{
CalErrorHandler( WM_MF_AGE8960_SET_OPERATION_MODE_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < Operation mode = GPRS BCH+PDTCH"
);
return false;
}
}
short s_ARFCN;
FrequencyBand eFreqBand = FrequencyBand850;
i_N_TX = -99; // TX frames
//---------------------------------------------------------------------------
while (eFreqBand < FrequencyBandCount)
{
switch (eFreqBand)
{
case FrequencyBand850:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = GSM850_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_GSM850;
i_TX_level_count = RF_TX_LEVEL_3_CAL_COUNT;
as_tx_cal_pcl = m_as_gsm850_tx_cal_pcl;
as_tx_pcl = m_as_gsm850_tx_pcl;
as_max_p = m_as_gsm850_max_p;
as_wanted_p = m_as_gsm850_wanted_p;
as_min_p = m_as_gsm850_min_p;
as_c = m_as_gsm850_c;
}
break;
case FrequencyBand900:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = GSM900_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_GSM;
i_TX_level_count = RF_TX_LEVEL_3_CAL_COUNT;
as_tx_cal_pcl = m_as_gsm900_tx_cal_pcl;
as_tx_pcl = m_as_gsm900_tx_pcl;
as_max_p = m_as_gsm900_max_p;
as_wanted_p = m_as_gsm900_wanted_p;
as_min_p = m_as_gsm900_min_p;
as_c = m_as_gsm900_c;
}
break;
case FrequencyBand1800:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = DCS1800_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_DCS;
i_TX_level_count = RF_TX_LEVEL_3_CAL_COUNT;
as_tx_cal_pcl = m_as_dcs1800_tx_cal_pcl;
as_tx_pcl = m_as_dcs1800_tx_pcl;
as_max_p = m_as_dcs1800_max_p;
as_wanted_p = m_as_dcs1800_wanted_p;
as_min_p = m_as_dcs1800_min_p;
as_c = m_as_dcs1800_c;
}
break;
case FrequencyBand1900:
{
if (!IsFreqBankSupported(m_asFreqBank, eFreqBand))
{
eFreqBand++;
continue;
}
FIRST_PCL = PCS1900_FIRST_PCL;
s_ARFCN = m_sARFCN_C0_PCS;
i_TX_level_count = RF_TX_LEVEL_3_CAL_COUNT;
as_tx_cal_pcl = m_as_pcs1900_tx_cal_pcl;
as_tx_pcl = m_as_pcs1900_tx_pcl;
as_max_p = m_as_pcs1900_max_p;
as_wanted_p = m_as_pcs1900_wanted_p;
as_min_p = m_as_pcs1900_min_p;
as_c = m_as_pcs1900_c;
}
break;
default:
{
assert(false);
}
break;
} // switch
E_BANDSEL band_index = FreqBand_To_BandIdx(eFreqBand);
int vi_Band = FreqBand_To_AgeBand(eFreqBand);
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++"
);
if (!MF_rf_apc_ptr->ApcSectionExist(m_pCal->as_IniFile.c_str(), band_index))
{
CalErrorHandler(WM_MF_RF_TX_LEVEL_INI_FAIL);
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL :"+
" APC section is not in initial file: " + FreqBand_To_Str(eFreqBand)
);
return false;
}
if (IsFreqBankSupported( m_asFreqBank, eFreqBand))
{
if( FrequencyBand1900 == eFreqBand )
{
if(META_Rf_SelectFrequencyBand1900_r( m_pCal->i_MainMETAHandle, 1, MF_SelectBand_cnf_cb, &MF_SelectBand_token, NULL) != META_SUCCESS)
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: target < target < set Band1900 flag = 1"
);
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" target < set Band1900 flag = 1"
);
}
else
{
if(META_Rf_SelectFrequencyBand1900_r( m_pCal->i_MainMETAHandle, 0, MF_SelectBand_cnf_cb, &MF_SelectBand_token, NULL) != META_SUCCESS)
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: target < set Band1900 flag = 0"
);
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" target < set Band1900 flag = 0"
);
}
is_suspend_cal = true;
this->Suspend();
is_suspend_cal = false;
}
if( ! m_rct_ctrl.RCT_cellBand( m_pRct, vi_Band ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_BAND_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " +
m_pRct->as_RCT + " < Band = " + ViBand_To_Str( vi_Band )
);
return false;
}
#ifdef _MYDEBUG_
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" Sleep 100 " + AnsiString(__FILE__)
);
#endif
Sleep( 100 ); // wait Agilent 8960 cell band setup ready!
// if Agilent 8960 not read, target will get error power!
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < Band = " + ViBand_To_Str( vi_Band )
);
short bch_arfcn = ::Get_SeperateChannel( vi_Band, s_ARFCN );
if( ! m_rct_ctrl.RCT_BCHARFCN( m_pRct, bch_arfcn) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TCH_ARFCN_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " +
m_pRct->as_RCT + " < BCH ARFCN = " + IntToStr( bch_arfcn )
);
return false;
}
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
if( ! m_rct_ctrl.RCT_TCHARFCN( m_pRct, s_ARFCN ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TCH_ARFCN_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < TCH ARFCN = " + IntToStr( s_ARFCN )
);
return false;
}
}
else
{
if( ! m_rct_ctrl.RCT_PDTCHARFCN( m_pRct, s_ARFCN ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TCH_ARFCN_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: "+
m_pRct->as_RCT + " < PDTCH ARFCN = " + IntToStr( s_ARFCN )
);
return false;
}
}
if( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < TCH ARFCN = " + IntToStr( s_ARFCN )
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < PDTCH ARFCN = " + IntToStr( s_ARFCN )
);
}
if( ! m_rct_ctrl.RCT_ConfigTSC( m_pRct, m_cTSC ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TSC_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
"FAIL: " + m_pRct->as_RCT + " < set TSC fail."
);
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() + " " +
m_pRct->as_RCT + " < TSC = " + IntToStr( m_cTSC)
);
// log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
// " TimerCal->Enabled 8= " + IntToStr((int)frmFatcory->TimerCal->Enabled)
// );
RestartTimerCal( WM_MF_AGE8960_CONFIG_TX_POWER_FAIL );
if (!m_rct_ctrl.RCT_Config_ExpectedTxPower(m_pRct, true, 0))
{
RestartTimerCal(WM_MF_AGE8960_CONFIG_TX_POWER_FAIL);
log->Add(DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : " + m_pRct->as_RCT + " < config expected TX power to auto fail"
);
return false;
}
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
if( ! m_rct_ctrl.RCT_confTXPower( m_pRct ) )
{
CalErrorHandler( WM_MF_AGE8960_CONFIG_TX_POWER_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " + m_pRct->as_RCT + " < config TX power 1."
);
return false;
}
}
else
{
if( ! m_rct_ctrl.RCT_confMultiSlotTxPower( m_pRct, AGE1960_TX_POWER_MEASURE_COUNT, MOD_GMSK ) )
{
CalErrorHandler( WM_MF_AGE8960_CONFIG_TX_POWER_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " + m_pRct->as_RCT + " < config TX power 1."
);
return false;
}
}
if( ! m_rct_ctrl.RCT_TXPowerContOff( m_pRct ) )
{
CalErrorHandler( WM_MF_AGE8960_SET_TX_POWER_CONT_OFF_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: " + m_pRct->as_RCT + " < set TX power continuous OFF "
);
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
// calibration from high power to low power
// index from big to little.
// PCL string in config file from right to left.
int iRealRecursiveTimes = 0;
if( TX_SLOT_SINGLE == m_pCal->e_tx_slot )
{
for ( int N=0; N<i_TX_level_count; N++) // DCS,PCS:16~1 or GSM:15~1
{
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" ------------------------------------------------------------------ "
);
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" N = " + N
);
if (! getAnsiStrSubItem( as_tx_cal_pcl, N+1, DEFAULT_SEP_CHAR, as_sub_tx_cal_pcl) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_tx_cal_pcl)."
);
return false;
}
for( iRealRecursiveTimes=0; iRealRecursiveTimes<i_TXlevelRecusiveTimes;
iRealRecursiveTimes++) // marked by Andy Ueng for no iteration test
{
log->Add( "n" + DateToStr(Date()) + " " + CurrentTimeStr() +
" RecursiveTimes = " + IntToStr(iRealRecursiveTimes)
);
if( 0 == iRealRecursiveTimes )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" power_index = " + IntToStr(FIRST_PCL-as_sub_tx_cal_pcl.ToInt()) + "," +
" MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[power_index] = " + IntToStr(MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt() ))
);
m_usPCLDacValue[band_index][N] = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt() );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" N = " + IntToStr(N) + "," +
" m_usPCLDacValue[band_index][N] = " + IntToStr(m_usPCLDacValue[band_index][N])
);
if( ! MF_rf_apc_ptr->Get_RealApcDcOffset( m_pCal->b_TADOSupport, band_index, as_sub_tx_cal_pcl.ToInt(), m_iApcDcOffset ) )
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Get APC DC offset " +
" TADO support = " + IntToStr( m_pCal->b_TADOSupport ) +
" eFreqBand = " + IntToStr( eFreqBand ) +
" pcl = " + as_sub_tx_cal_pcl
);
return false;
}
m_dV_set[band_index][N] = (m_iApcDcOffset + m_usPCLDacValue[band_index][N]) / 1024.0 * 2.8 * 15.0 / 25.0;
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" N = " + IntToStr(N) + "," +
" m_dV_set[band_index][N] = " + Double_To_AnsiString(m_dV_set[band_index][N])
);
}
// index start from 1
if (! getAnsiStrSubItem( as_tx_pcl, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_tx_pcl) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_tx_cal_pcl 2)."
);
return false;
}
if (! getAnsiStrSubItem( as_max_p, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_max_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_max_p)."
);
return false;
}
if (! getAnsiStrSubItem( as_min_p, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_min_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_min_p)."
);
return false;
}
if(! getAnsiStrSubItem( as_wanted_p, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_wanted_p) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(sub_wanted_p)."
);
return false;
}
if(! getAnsiStrSubItem( as_c, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()+1, DEFAULT_SEP_CHAR, as_sub_c) )
{
CalErrorHandler( WM_MF_CFG_READ_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Read config file fail(c)."
);
return false;
}
if( ! m_rct_ctrl.RCT_MSTXLevel( m_pRct, as_sub_tx_pcl.ToInt()) )
{
CalErrorHandler( WM_MF_AGE8960_SET_MS_TX_LEVEL_FAIL );
if ( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : Agilent 8960< MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : cmu200 > MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
return false;
}
if( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" Agilent 8960< MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" CMU200 < MS TX level = " + IntToStr( as_sub_tx_pcl.ToInt())
);
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
RestartTimerCal( WM_MF_RF_TX_LEVEL_FAIL );
if (!MF_rf_stop.REQ_Start())
{
CalErrorHandler( WM_MF_RF_STOP_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Target < stop RF fail."
);
return false;
}
MF_rf_tx_level_req->arfcn = s_ARFCN;
MF_rf_tx_level_req->bsic = m_cTSC;
MF_rf_tx_level_req->power = as_sub_tx_pcl.ToInt();
MF_rf_tx_level_req->frames = i_N_TX;
MF_rf_tx_level_req->dacValue = m_sDefault_value;
MF_rf_tx_level_req->burstTypeNB = NB_TX_RANDOM_WITH_TSC; // NB burst
if ( META_Rf_NB_TX_r( m_pCal->i_MainMETAHandle,
MF_rf_tx_level_req,
MF_rf_tx_level_cb,
&MF_rf_tx_level_token,
NULL
) != META_SUCCESS)
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : Target< ARFCN = " + IntToStr( s_ARFCN ) +
", TSC = " + IntToStr( m_cTSC ) +
", power = " + as_sub_tx_pcl +
", frames = " + IntToStr(i_N_TX) +
", dac value = " + IntToStr( m_sDefault_value )
);
return false;
}
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
#endif
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
#ifdef _MYDEBUG_
":" + AnsiString( ms ) +
#endif
" Target< TX: ARFCN = " + IntToStr( s_ARFCN ) +
", TSC = " + IntToStr( m_cTSC ) +
", power = " + as_sub_tx_pcl +
", frames = " + IntToStr(i_N_TX) +
", dac value = " + IntToStr( m_sDefault_value )
);
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " before suspend " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" TimerCal->Enabled 7= " + IntToStr((int)frmFatcory->TimerCal->Enabled)
);
RestartTimerCal( WM_MF_RF_TX_LEVEL_FAIL );
is_suspend_cal = true;
this->Suspend();
is_suspend_cal = false;
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " after resume " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
if (! MF_rf_tx_level_cnf )
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : ! MF_rf_tx_level_cnf"
);
return false;
}
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " before read TX power Q " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
RestartTimerCal( WM_MF_AGE8960_READ_TX_POWER_FAIL );
if( ! m_rct_ctrl.RCT_ReadTxPower( m_pRct, m_virTX ) )
{
CalErrorHandler( WM_MF_AGE8960_READ_TX_POWER_FAIL );
if ( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : Agilent 8960< read TX power 1."
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL : CMU 200< read TX power 1."
);
}
return false;
}
frmFatcory->DisableAllCalTimer();
m_dPCL_dBm[band_index][N] = m_virTX ;
m_dPCL_power[band_index][N] = pow(10.0, m_dPCL_dBm[band_index][N]/10.0)/1000.0;
#ifdef _MYDEBUG_
TDateTime::CurrentTime().DecodeTime(&hr, &min, &sec, &ms );
log->Add( " after read TX power Q " + DateToStr(Date()) + " " + CurrentTimeStr() +
":" + AnsiString( ms )
);
#endif
if( frmFatcory->rbAgilent8960->Checked )
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" Agilent 8960< read TX power = "+ Double_To_AnsiString( m_virTX )
);
}
else
{
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" CMU 200< read TX power = "+ Double_To_AnsiString( m_virTX )
);
}
if( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
signed short ss1;
double d1;
if (iRealRecursiveTimes != i_TXlevelRecusiveTimes-1) //iteration
{
if ( m_virTX > (atof(as_sub_wanted_p.c_str())+ m_dAPC_Delta) ||
m_virTX < (atof(as_sub_wanted_p.c_str())- m_dAPC_Delta))
{
d1 = atof(as_sub_c.c_str()) * (atof(as_sub_wanted_p.c_str()) - m_virTX );
// modified by Andy Ueng for always increment 1
// ss1 = (signed short) (d1>0) ? floor(d1+0.5): ceil(d1-0.5); // to round up or down
ss1 = (signed short) (d1>0) ? floor(d1+1.0): ceil(d1-1.0);
if ((MF_rf_apc_ptr->Get_ApcProfilePower(band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()) + ss1) <= 0 )
{
MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt(), 1 );
}
else if ((MF_rf_apc_ptr->Get_ApcProfilePower(band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt() ) + ss1) > MAX_APC_DAC)
{
MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt(), MAX_APC_DAC);
}
else
{
MF_rf_apc_ptr->Set_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt(), MF_rf_apc_ptr->Get_ApcProfilePower(band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()) + ss1 );
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" power_index = " + IntToStr(FIRST_PCL-as_sub_tx_cal_pcl.ToInt()) + "," +
" MF_rf_apc_ptr->ApcProfile[band_index].rampData.power[power_index] = " + IntToStr(MF_rf_apc_ptr->Get_ApcProfilePower(band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt()))
);
m_usPCLDacValue[band_index][N] = MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt() );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" N = " + IntToStr(N) + "," +
" m_usPCLDacValue[band_index][N] = " + IntToStr(m_usPCLDacValue[band_index][N])
);
if( ! MF_rf_apc_ptr->Get_RealApcDcOffset( m_pCal->b_TADOSupport, band_index, as_sub_tx_cal_pcl.ToInt(), m_iApcDcOffset ) )
{
CalErrorHandler( WM_MF_RF_TX_LEVEL_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" FAIL: Get APC DC offset " +
" TADO support = " + IntToStr( m_pCal->b_TADOSupport ) +
" eFreqBand = " + IntToStr( eFreqBand ) +
" pcl = " + as_sub_tx_cal_pcl
);
return false;
}
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" MF_rf_apc_ptr->ApcDcOffset[band_index] = " + IntToStr(m_iApcDcOffset)
);
m_dV_set[band_index][N] = (m_iApcDcOffset + m_usPCLDacValue[band_index][N]) / 1024.0 * 2.8 * 15.0 / 25.0;
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" band_index = " + IntToStr(band_index) + "," +
" N = " + IntToStr(N) + "," +
" m_dV_set[band_index][N] = " + Double_To_AnsiString(m_dV_set[band_index][N])
);
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" new S = "+
IntToStr( MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt() ) )
);
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" delta s = "+
AnsiString( ss1 )
);
MF_rf_apc_ptr->ConfirmCallback = ::ccb_set_apc_level;
MF_rf_apc_ptr->Req_Rf_SetRampApcLevel(eFreqBand, as_sub_tx_cal_pcl.ToInt(), MF_rf_apc_ptr->Get_ApcProfilePower( band_index, FIRST_PCL-as_sub_tx_cal_pcl.ToInt() ) );
if ( this->Terminated )
{
this->OnTerminate = neByUser;
return false;
}
RestartTimerCal( WM_MF_SET_APC_DAC_FAIL );
log->Add( DateToStr(Date()) + " " + CurrentTimeStr() +
" TimerCal->Enabled 9= " + IntToStr((int)frmFatcory->TimerCal->Enabled)
);
is_suspend_cal = true;
this->Suspend();
is_suspend_cal = false;
E_METAAPP_RESULT_T state = MF_rf_apc_ptr->Get_ConfirmState();
if (state != METAAPP_SUCCESS)
{
if (METAAPP_NVRAM_LID_VER_NOT_SUPPORT == state)
{