/*****************************************************************************
*  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")
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*  AN "AS-IS" BASIS ONLY. MEDIATEK EXPRESSLY DISCLAIMS ANY AND ALL WARRANTIES,
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*  THE RULES OF THE INTERNATIONAL CHAMBER OF COMMERCE (ICC).
*
*****************************************************************************/
/*******************************************************************************
*  Modification Notice:
*  --------------------------
*  This software is modified by MediaTek Inc. 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) 2001
*
*******************************************************************************/

/*******************************************************************************
 * Filename:
 * ---------
 *   ft_msg_l1rf.h
 *
 * Project:
 * --------
 *   MAUI
 *
 * Description:
 * ------------
 *   Messages definition of L1RF category of FT Library
 *
 * Author:
 * -------
 * -------
 *
 *==============================================================================
 *              HISTORY
 * Below this line, this part is controlled by PVCS VM. DO NOT MODIFY!!
 *------------------------------------------------------------------------------
 * removed!
 * removed!
 * removed!
 *
 * removed!
 * removed!
 * removed!
 *
 * removed!
 * removed!
 * removed!
 *
 * removed!
 * removed!
 * removed!
 *
 * removed!
 * removed!
 * removed!
 *
 *
 *------------------------------------------------------------------------------
 * Upper this line, this part is controlled by PVCS VM. DO NOT MODIFY!!
 *==============================================================================
 *******************************************************************************/

#ifndef __FT_MSG_L1RF_H__
#define __FT_MSG_L1RF_H__
#include "ft_msg_common.h"
#include "l1d_cid.h"
#include "mph_types.h"
#include "l1tst_public.h"
#include "m12190.h"
/*******************************************************************************
*
*  Data structures used in Message Definition
*
*******************************************************************************/
typedef enum
{
     FT_RF_PWR_STATE_UNKNOWN = -1,
     FT_RF_PWR_STATE_ON,
     FT_RF_PWR_STATE_OFF,
}ft_rf_power_state_enum;


typedef enum
{
    RF_TEST_CMD_PM = 0
    ,RF_TEST_CMD_AFC
    ,RF_TEST_CMD_NB_TX
    ,RF_TEST_CMD_CONTINUOUS_RX
    ,RF_TEST_CMD_CONTINUOUS_TX
    ,RF_TEST_CMD_SET_BB_TX_CFG
    ,RF_TEST_CMD_BAND_SEL
    ,RF_TEST_CMD_STOP
    ,RF_TEST_CMD_MULTISLOT_TX
    ,RF_TEST_CMD_SET_RAMPAPCLVL
    ,RF_TEST_CMD_SET_AFCDACVALUE
    ,RF_TEST_CMD_SET_BBTXCFG2
    ,RF_TEST_CMD_GET_BBTXCFG2
    ,RF_TEST_CMD_SET_CRYSTAL_CFG
    ,RF_TEST_CMD_BBTX_AUTOCAL
    ,RF_TEST_CMD_QUERY_MS_CAPABILITY
    ,RF_TEST_CMD_SET_RAMPTABLE
    ,RF_TEST_CMD_SET_AFC_SINWAVE_DETECTION
    ,RF_TEST_CMD_MULTISLOT_TX_EX
    ,RF_TEST_CMD_EPSK_SET_RAMPAPCLVL
    ,RF_TEST_CMD_GET_RFID
    ,RF_TEST_CMD_SET_IMMEDIATE_BSI
    ,RF_TEST_CMD_GET_IMMEDIATE_BSI
    ,RF_TEST_CMD_SET_SPECIALCOEF
    ,RF_TEST_CMD_CONTINUOUS_TX_EX
    ,RF_TEST_CMD_SET_BBTXCFG3
    ,RF_TEST_CMD_GET_BBTXCFG3
    ,RF_TEST_CMD_IF_TWO_APC_DC_OFFSET_SUPPORT
    ,RF_TEST_CMD_CONTINUOUS_TX_EX2
    ,RF_TEST_CMD_QUERY_MS_CAPABILITY_EX
    ,RF_TEST_CMD_GET_AFCDACVALUE_AT_RTX_OFFSET_CAL
    ,RF_TEST_CMD_SET_BBTXCFG4
    ,RF_TEST_CMD_GET_BBTXCFG4
    ,RF_TEST_CMD_SET_BBTXCFG5
    ,RF_TEST_CMD_GET_BBTXCFG5
    ,RF_TEST_CMD_CALIBRATE_32K
    ,RF_TEST_CMD_QUERY_MS_CAPABILITY_EX2
    ,RF_TEST_CMD_START_FDT_DL
    ,RF_TEST_CMD_START_FDT_UL
    ,RF_TEST_CMD_EPSK_SET_RAMPTABLE
    ,RF_TEST_CMD_GET_AFC_DAC_OFFSET
    ,RF_TEST_CMD_SET_AFC_DAC_OFFSET
    ,RF_TEST_CMD_SET_BBTXCFG6
  ,RF_TEST_CMD_GET_BBTXCFG6
    ,RF_TEST_CMD_GET_FDT_RESULT
    ,RF_TEST_CMD_START_FDT_DL_NOT_WAIT_RESULT
    ,RF_TEST_CMD_NSFT_CHANGE_SETTING
    ,RF_TEST_CMD_NSFT_START
    ,RF_TEST_CMD_NSFT_STOP
    ,RF_TEST_CMD_NSFT_CHANGE_POWER
    ,RF_TEST_CMD_NSFT_START_EPSK_TX
    ,RF_TEST_CMD_OE_PATTERN_READY
    ,RF_TEST_CMD_POWER_ON
    ,RF_TEST_CMD_POWER_OFF
    ,RF_TEST_CMD_QUERY_POWER_STATE_IN_FT
    ,RF_TEST_CMD_AFC_TYPE_QUERY_READY
    ,RF_TEST_CMD_SET_TX_POWER_ROLLBACK_GMSK
    ,RF_TEST_CMD_SET_TX_POWER_ROLLBACK_EPSK
    ,RF_TEST_CMD_SET_TX_POWER_ROLLBACK_TABLE_GMSK
    ,RF_TEST_CMD_SET_TX_POWER_ROLLBACK_TABLE_EPSK
    ,RF_TEST_CMD_GET_SPECIALCOEF
    ,RF_TEST_CMD_NSFT_CONFIG_SBER
    ,RF_TEST_CMD_NSFT_GET_SBER
    ,RF_TEST_CMD_NSFT_START_RXLEV
    ,RF_TEST_CMD_NSFT_GET_RXLEV
    ,RF_TEST_CMD_NSFT_GET_RXQUAL
    ,RF_TEST_CMD_IF_PM
    ,RF_TEST_CMD_GET_TXPC_PD_VALUE_BY_PCL_GMSK
    ,RF_TEST_CMD_GET_TXPC_PD_VALUE_BY_PCL_EPSK
    ,RF_TEST_CMD_GET_TXPC_PD_VALUE_GMSK
    ,RF_TEST_CMD_GET_TXPC_PD_VALUE_EPSK
    ,RF_TEST_CMD_GET_TXPC_SUBBAND_GMSK
    ,RF_TEST_CMD_GET_TXPC_SUBBAND_EPSK
    ,RF_TEST_CMD_GET_TXPC_TEMPERATURE
    ,RF_TEST_CMD_QUERY_MS_CAPABILITY_EX3
    /* [LPM CAL] */
    ,RF_TEST_CMD_SET_DCXO_POWER_MODE
    ,RF_TEST_CMD_START_FDT_DL_NOT_WAIT_RESULT_EX
    ,RF_TEST_CMD_GET_FDT_RESULT_EX
    ,RF_TEST_CMD_SET_EDGE_TX_OCT_PA_SPECIAL_COEF
    ,RF_TEST_CMD_TXPC_CL_RESET_PD_DATA   /**< \brief reset TX power control close loop pd value */
    ,RF_TEST_CMD_START_FDT_DL_BIG
    ,RF_TEST_CMD_START_FDT_UL_BIG
    ,RF_TEST_CMD_GET_FDT_RESULT_BIG
    ,RF_TEST_CMD_START_FDT_DL_NOT_WAIT_RESULT_BIG
    ,RF_TEST_CMD_START_FDT_DL_NOT_WAIT_RESULT_EX_BIG
    ,RF_TEST_CMD_GET_FDT_RESULT_EX_BIG    
    ,RF_TEST_CMD_END
} RfTestCmdType;

typedef enum {
    MS_GSM = 0
    ,MS_GPRS
    ,MS_EGPRS_RX_ONLY
    ,MS_EGPRS_FULL_FUNCTION
} MS_CAPABILITY_E;

typedef struct
{
  ARFCN               arfcn;
  kal_int8            sampleNoPerFrame;
  /* Resoultion can be up to RSSI_RESOLUTION_BITS bits*/
  Gain                gain;
  kal_int16           frames;
} RfTestCmdPm;

typedef struct
{
   ARFCN              arfcn;
   kal_int16          dacValue;
   /* Resoultion can be up to RSSI_RESOLUTION_BITS bits*/
   Gain               gain;
   kal_int16          testNumber;
} RfTestCmdAfc;

typedef struct
{
   ARFCN           arfcn;
   BSIC          bsic;
   kal_int8      bitmask;
   Power           txPowerLev;
   kal_int16       frames;
   kal_int16     dacValue;
   APCTxPattern  burstTypeNB;
} RfTestCmdNbTx;

typedef struct
{
   ARFCN           arfcn;
   /* Resoultion can be up to RSSI_RESOLUTION_BITS bits*/
   Gain          gain;
   kal_bool      onOff;
} RfTestCmdContRx;

typedef struct
{
   ARFCN            arfcn;
   ContTxPattern  pattern;
   kal_bool       onOff;
} RfTestCmdContTx;

typedef struct {
   kal_int8         TxTrimI;
   kal_int8         TxTrimQ;
   kal_int8         TxOffsetI;
   kal_int8         TxOffsetQ;
} RfTestCmdSetBBTXCfg;

typedef struct {
   kal_int8         TxTrimI;
   kal_int8         TxTrimQ;
   kal_int8         TxOffsetI;
   kal_int8         TxOffsetQ;
   kal_int8         TxCalbias;
   kal_int8         TxIQSwap;
   kal_int8         TxCMV;
   kal_int8         TxGain;
   kal_int8         TxCalrcsel;
} RfTestCmdSetBBTXCfg2;

typedef struct {
    ARFCN           arfcn;
    BSIC            bsic;
    kal_int8        timeSlotmask;
    Power           powerLev[4];
    CodingScheme    cs[4];
    TimingAdvance   ta;
    kal_int32       frames;
    kal_int16       dacValue;
} RfTestCmdMultiSlotTX;

typedef struct {
    kal_int32       rf_band;
    kal_int32       power_level;
    kal_int32       apc_dac;
} RfTestCmdSetRampApcLevel;

typedef struct {
    kal_int16       dacValue;
} RfTestCmdSetAfcDacValue;

typedef struct {
    kal_int32       cap_id;
} RfTestCmdSetCrystalCfg;

typedef struct {
    kal_int32       rf_band;
} RfTestCmdSetRampTable;

typedef struct {
    kal_bool        is_sinwave;
} RfTestCmdSetAfcSinWave;

typedef struct {
    kal_uint32      bsi_data;
} RfTestCmdSetBSI;

typedef struct {
    kal_uint32      bsi_addr;
} RfTestCmdGetBSI;

typedef struct {
   kal_int8         TxTrimI;
   kal_int8         TxTrimQ;
   kal_int8         TxOffsetI;
   kal_int8         TxOffsetQ;
   kal_int8         TxCalbias;
   kal_int8         TxIQSwap;
   kal_int8         TxCMV;
   kal_int8         TxGain;
   kal_int8         TxCalrcsel;
   kal_int8         TxPhasesel;
} RfTestCmdSetBBTXCfg3;

typedef struct
{
    kal_int8    TxTrimI;
    kal_int8    TxTrimQ;
    kal_int8      TxOffsetI;
    kal_int8      TxOffsetQ;
    kal_int8      TxCalbias;
    kal_int8      TxIQSwap;
    kal_int8      TxCMV;
    kal_int8      TxGain;
    kal_int8      TxCalrcsel;
    kal_int8      TxPhasesel;
    kal_int8    TxCoarseI;
    kal_int8    TxCoarseQ;

}RfTestCmdSetBBTXCfg4;

typedef struct {
    ARFCN           arfcn;
    BSIC            bsic;
    kal_int8        timeSlotmask;
    Power           powerLev[4];
    CodingScheme    cs[4];
    TimingAdvance   ta;
    kal_int32       frames;
    kal_int16       dacValue;
    APCTxPattern    pattern;
    kal_uint16      pattern_data;
} RfTestCmdMultiSlotTXEx;

typedef struct {
    ARFCN           arfcn;
    ContTxPattern   pattern;
    kal_uint16      pattern_data;
    kal_bool        onOff;
    kal_uint16      modtype;
} RfTestCmdContTxEx;

typedef struct {
    ARFCN           arfcn;
    ContTxPattern   pattern;
    kal_uint16      pattern_data;
    kal_bool        onOff;
    kal_uint16      modtype;
    Power           powerLev;
} RfTestCmdContTxEx2;

typedef struct{
    FrequencyBand   band;
    ARFCN           BCH_ARFCN;
    ARFCN           TCH_ARFCN;
    Gain                BCH_gain;
    Gain                TCH_gain;
    TSC             tsc;
    TimeSlot            TCH_slot;
    Power           tx_power_level;
    kal_bool            is_EPSK_tx;
      CodingScheme        epsk_cs;
}RfTestCmdNSFTParam;

typedef struct{
    Power tx_power_level;
}RfTestCmdNSFTPowerChangeParam;
// ***************************************** //
// FDT Calibration
// ***************************************** //
#define FT_MAX_STEP_CNT 50
#define FT_MAX_STEP_EX_CNT 100

typedef struct
{
   FrequencyBand     band;
   ARFCN             arfcn;
   kal_int16         dac_value[33];
   Gain              gain;
   kal_int16         repeat_cnt; // repetitive test counts (frames) for each AFC DAC value
   kal_bool          capid_cal;  // capid calibration ctrl
   kal_bool          linear_cal; // 33 stages calibration ctrl
   //kal_int8        capid_min;  // min value for capid range when capid_cal is True; capid when capid_cal is False
   //kal_int8        capid_max;  // max value for capid range
   kal_int32         capid_min;  // min value for capid range when capid_cal is True; capid when capid_cal is False
   kal_int32         capid_max;  // max value for capid range
} RFTestCmdDSSAfc;

typedef struct
{
   FrequencyBand     band;
   ARFCN             arfcn;
   Gain              gain[6];    // gain for rx slot 0/1/2/3/4/5
   kal_int16         repeat_cnt; // repetitive test counts (frames) for each ARFCN value
 //kal_int16         dac_value;  // Use InitDacValue from AFC calibration when dacValue = 0 (or -1)
} RFTestCmdDSSPL;

typedef struct
{
   kal_bool          afc_cal;
   kal_bool          pl_cal;      // Control whether Path loss calibration is needed or not
   kal_int8          sync_sb_num; // the SB frame numbers needed for sync process before path loss calibration
   kal_int16         power;       // the power level expected to measure from test set
   RFTestCmdDSSAfc   AfcDSS;
   kal_int8          step_cnt;
   RFTestCmdDSSPL    PathLossDSS[FT_MAX_STEP_CNT-2];
} RFTestCmdDTS;

typedef struct
{
   kal_bool                     afc_cal;
   kal_bool                     pl_cal;
   kal_int8                     sync_sb_num;
   kal_int16                    power;
   RFTestCmdDSSAfc              AfcDSS;
   kal_int8                     step_cnt;
   RFTestCmdDSSPL               PathLossDSS[FT_MAX_STEP_EX_CNT-2];
}RFTestCmdDTSBig;

/* [LPM CAL] */
typedef struct
{
   kal_bool          afc_cal;
   kal_bool          pl_cal;      // Control whether Path loss calibration is needed or not
   kal_int8          sync_sb_num; // the SB frame numbers needed for sync process before path loss calibration
   kal_int16         power;       // the power level expected to measure from test set
   RFTestCmdDSSAfc   AfcDSS;
   kal_int8          step_cnt;
   RFTestCmdDSSPL    PathLossDSS[FT_MAX_STEP_CNT-2];
   kal_int16         lpm_sb_num;
} RFTestCmdDTS_Ex;

typedef struct
{
    kal_bool                     afc_cal;
    kal_bool                     pl_cal;
    kal_int8                     sync_sb_num;
    kal_int16                    power;
    RFTestCmdDSSAfc              AfcDSS;
    kal_int8                     step_cnt;
    RFTestCmdDSSPL               PathLossDSS[FT_MAX_STEP_EX_CNT-2];
    kal_int16                    lpm_sb_num;
}RFTestCmdDTS_Big_Ex;

typedef struct
{
   FrequencyBand     band;
   ARFCN             arfcn;
   kal_int8          timeslot_per_frame;
   kal_int8          apc_dac_pcl_sel;               // 1: apc_dac, 0: apc_pcl
   kal_int16         apc_dac_pcl_value[4];
   //kal_uint8         pa_vbias_val;
   kal_uint8                pa_vbias_val[4];
   kal_uint8                is_low_pcl[4];

   CodingScheme      cs[4];
   kal_int32         repeat_cnt;
   kal_int16         afc_dac_value;
   kal_int8          tsc;
   APCTxPattern      pattern;
   kal_uint16        pattern_data;
} RfTestCmdUSSApc;

typedef struct
{
 //kal_bool          pa_vbias_cal; // Control whether PA need to calibrate different Vbias value when APC DAC is used
   kal_int8          step_cnt;
   kal_int16         high_apc_dcoffset[FrequencyBandCount];
 //  kal_int32         lowest_power[FrequencyBandCount];
   RfTestCmdUSSApc   ApcUSS[FT_MAX_STEP_CNT];
}RfTestCmdUTS;

typedef struct
{

   kal_int8                 step_cnt;
   kal_int16                high_apc_dcoffset[FrequencyBandCount];
   RfTestCmdUSSApc          ApcUSS[FT_MAX_STEP_EX_CNT];
}RfTestCmdUTSBig;

typedef struct
{
    //kal_int32   rf_band;
    kal_int16  afc_offset[FrequencyBandCount];

}RF_SET_AFC_DAC_OFFSET_REQ_T;

typedef struct
{
    kal_int32  band;
    sTX_POWER_ROLLBACK PowerRollbackTable;
}RfTestCmdSetPowerRollbackTable;

/**
 * The RfTestCmdIrPm is used for IRR w coeffiecient calibration
 * The command is analogous to RfTestCmdPm, except the m_IfFlag
 */
typedef struct
{
    /// power scan input parameter
    RfTestCmdPm   m_Pm;
    /// if_flag for the power scan (to override the if setting in power scan, the original interface is not changed)
    kal_int8      m_IfFlag;
}RfTestCmdIrPm;

typedef struct
{
    FrequencyBand band;
    Power pcl;
}RfTestCmdTXPC;
// ***************************************** //

typedef union
{
  RfTestCmdPm         pm;
  RfTestCmdAfc        afc;
  RfTestCmdNbTx       nbTx;
  RfTestCmdContRx     contRx;
  RfTestCmdContTx     contTx;
  RfTestCmdSetBBTXCfg setBBTXCfg;
  kal_bool            selectPCS1900;
  kal_int8            dummy;
  RfTestCmdMultiSlotTX  msTx;
  RfTestCmdSetRampApcLevel  setRampApcLevel;
  RfTestCmdSetAfcDacValue   setAfcDacValue;
  RfTestCmdSetBBTXCfg2      BBTxCfg2;
  RfTestCmdSetCrystalCfg    setCrystalCfg;
  RfTestCmdSetRampTable     setRampTable;
  RfTestCmdSetAfcSinWave    setAfcSinWave;
  RfTestCmdSetBSI           SetBSI;
  RfTestCmdGetBSI           GetBSI;
  RfTestCmdSetBBTXCfg3      BBTxCfg3;
  RfTestCmdMultiSlotTXEx    msTxEx;
  RfTestCmdContTxEx         contTxEx;
  RfTestCmdContTxEx2        contTxEx2;
  RfTestCmdSetBBTXCfg4   BBTxCfg4;
  RF_SET_AFC_DAC_OFFSET_REQ_T     set_afc_offset_req;
  RfTestCmdNSFTParam        NSFT_start;
  RfTestCmdNSFTPowerChangeParam  NSFT_change_power;
  RfTestCmdSetPowerRollbackTable      PowerRollbackTable;
  kal_uint32                m_u4NSFTSBERTestCount;
  /// for L1TST_ReportRXQual input
  kal_uint16                m_u2NSFTRxQualBerDecile;
  /// for SOC2 IRR W PM
  RfTestCmdIrPm             m_IrPm;
  RfTestCmdTXPC         txpc_req;
  /// for L1TST_TXPC_CL_GetSubband input
  kal_uint8                 band;
  /* [LPM CAL] */
  /// for DCXO FPM/LPM control (1 FPM, 0 LPM)
  kal_uint8                 dcxoMode;
} RfTestCmdParam;


/* ---------------------------------- */
typedef struct
{
   /* Resoultion can be up to RSSI_RESOLUTION_BITS bits*/
   kal_int32            power;
   /* Resoultion can be up to RSSI_RESOLUTION_BITS*2 bits*/
   kal_int32            deviation;
   /* Resoultion can be up to RSSI_RESOLUTION_BITS bits*/
   Gain                 usedGain;
   kal_int32            ok;
   kal_int32            iOffset;
   kal_int32            qOffset;
   kal_int32            validSamples;
} RfTestResultPm;

typedef struct
{
   kal_int16              fcb_ok_number;
   kal_int32              freqOffset;
   kal_int32              deviation;
   kal_int32              ok;
} RfTestResultAfc;

typedef struct {
    kal_bool                ok;
    RfTestCmdSetBBTXCfg2    bbtx_cfg;
} RfTestResultGetBBTXCfg2;

typedef struct {
    kal_uint32      GSM400;
    kal_uint32      GSM850;
    kal_uint32      GSM900;
    kal_uint32      DCS1800;
    kal_uint32      PCS1900;
} RfTestResultBandSupport;

typedef struct {
    kal_bool                    ok;
    MS_CAPABILITY_E             capability;
    RfTestResultBandSupport     band_support;
} RfTestResultMsCapability;
/*
#define MS_CAPABILITY_GSM           0x00000001
#define MS_CAPABILITY_GPRS          0x00000002
#define MS_CAPABILITY_EDGE_RX       0x00000004
#define MS_CAPABILITY_EDGE_8PSK_TX  0x00000008
#define MS_CAPABILITY_8PM           0x00000010

#define MS_BAND_SUPPORT_GSM400      0x00000001
#define MS_BAND_SUPPORT_GSM850      0x00000002
#define MS_BAND_SUPPORT_GSM900      0x00000004
#define MS_BAND_SUPPORT_DCS1800     0x00000008
#define MS_BAND_SUPPORT_PCS1900     0x00000010
*/

typedef struct
{
    kal_uint32      capability;
    kal_uint32      band_support;
}RfResultMsCapabilityEx;

typedef struct {
    kal_bool        ok;
    kal_uint32      capability;
    kal_uint32      band_support;
} RfTestResultMsCapabilityEx;

typedef struct {
    kal_bool                ok;
    kal_uint32              id;
} RfTestResultGetRFID;

typedef struct {
    kal_bool        ok;
    kal_uint32      bsi_data;
} RfTestResultGetBSI;

typedef struct {
    kal_bool                ok;
    RfTestCmdSetBBTXCfg3    bbtx_cfg;
} RfTestResultGetBBTXCfg3;

typedef struct
{
    kal_bool              ok;
    RfTestCmdSetBBTXCfg4    bbtx_cfg;
}RfTestResultGetBBTXCfg4;

typedef struct {
    kal_bool        ok;
    kal_int16       dacValue;
} RfGetAfcDacValueAtRTXOffsetCal;

typedef struct
{
    kal_bool        ok;
    kal_int32      calibra_result_32k;
}RfTestResult32kCalibration;

// ****************************** //
// FDT Calibration
// ****************************** //
typedef struct
{
   kal_int32         power[FT_MAX_STEP_CNT-2];
   kal_int16         valid_sample[FT_MAX_STEP_CNT-2];
   kal_bool          ok;
} RfTestResultDSSPL;

typedef struct
{
   kal_int32         power[FT_MAX_STEP_EX_CNT-2];
   kal_int16         valid_sample[FT_MAX_STEP_EX_CNT-2];
   kal_bool          ok;
} RfTestResultDSSPLBig;

typedef struct
{
   kal_int32         freq_offset[33];   // only valid when 33 stage calibration is ON
   kal_int32         deviation[33];     // only valid when 33 stage calibration is ON
   kal_int16         fcb_ok_number[33];
   //kal_int8        capid;             // only valid when capid calibration is ON
   kal_int32         capid;             // only valid when capid calibration is ON
   kal_int16         init_dac_value;    // only valid when 33 stage calibration is OFF
   kal_int32         slope;             // only valid when 33 stage calibration is OFF
   kal_bool          ok;
} RfTestResultDSSAfc;
/* [LPM CAL] */
typedef struct
{
    kal_int32 cload_freq_offset;
    kal_bool  ok;
    kal_bool  is_perform_cal;
} RfTestResultDSSLpm;
#if  IS_FHC_SUPPORT == 1
typedef struct
{
     kal_int32              path_loss_cnt;
   kal_int32              freq_offset;
   kal_int32              capid_freq_offset_min;
   kal_int32              capid_freq_offset[FHC_MAX_CAPID_SEARCH_NUM];      // 16
   kal_int32              capid_search_order[FHC_MAX_CAPID_SEARCH_NUM];     // 16
   kal_int32              capid;
   kal_int32              capid_high;
   kal_int32              capid_low;
   kal_int32              capid_best;
   kal_int16              afc_dac;
   kal_int16              arfcn;
   kal_int16              capid_cnt;
   kal_int16              repeat_index;
   kal_int8               state;
   kal_int8               capid_index;
   kal_int8               capid_okay_cnt;
   kal_int8               afc_dac_index;
   kal_int8               sb_okay_cnt;
   kal_uint8              sb_fail_cnt;
   kal_uint8              fb_fail_cnt;
   kal_bool               pl_started;
   kal_bool               pre_capid_cal_ok[FHC_PRE_CAPID_SEARCH_NUM];   // FHC_PRE_CAPID_SEARCH_NUM
}RfTestResultDtsmInfo;
#else
typedef struct
{
     kal_int32              path_loss_cnt;
       kal_int32              freq_offset;
       kal_int32              capid_freq_offset_min;
       kal_int32              capid_freq_offset[16];        //FHC_MAX_CAPID_SEARCH_NUM
       kal_int32              capid_search_order[16];       //FHC_MAX_CAPID_SEARCH_NUM
       kal_int32              capid;
       kal_int32              capid_high;
       kal_int32              capid_low;
       kal_int32              capid_best;
       kal_int16              afc_dac;
       kal_int16              arfcn;
       kal_int16              capid_cnt;
       kal_int16              repeat_index;
       kal_int8               state;
       kal_int8               capid_index;
       kal_int8               capid_okay_cnt;
       kal_int8               afc_dac_index;
       kal_int8               sb_okay_cnt;
       kal_uint8              sb_fail_cnt;
       kal_uint8              fb_fail_cnt;
       kal_bool               pl_started;
       kal_bool               pre_capid_cal_ok[9];  // FHC_PRE_CAPID_SEARCH_NUM
}RfTestResultDtsmInfo;
#endif

typedef enum  {
    DTS_RESULT_READY = 0,       // DTS results is ready to get back
    DTS_RESULT_NOT_READY,       // DTS result is still in progress and not ready to get back
    DTS_RESULT_NOT_REQUESTED,   // Haven't called the META_Rf_StartFdtDL() in advance.
    DTS_FATAL_ERROR
}RF_DTS_GET_RESULT_STATUS;
typedef struct
{
   RfTestResultDSSPL              PLResult;
   RfTestResultDSSAfc             AfcResult;
   RfTestResultDtsmInfo           m_rDtsmInfo;  // for L1 debug use, will print in META Tool's test report.
} RfTestResultDTS;

typedef struct
{
   RfTestResultDSSPLBig           PLResult;
   RfTestResultDSSAfc             AfcResult;
   RfTestResultDtsmInfo           m_rDtsmInfo;  // for L1 debug use, will print in META Tool's test report.
} RfTestResultDTSBig;


/* [LPM CAL] */
typedef struct
{
   RfTestResultDSSPL              PLResult;
   RfTestResultDSSAfc             AfcResult;
   RfTestResultDtsmInfo           m_rDtsmInfo;
   /* crystal low power mode calibration result (for 32k removal) */
   RfTestResultDSSLpm             LpmResult;
} RfTestResultDTS_Ex;

typedef struct
{
   RfTestResultDSSPLBig           PLResult;
   RfTestResultDSSAfc             AfcResult;
   RfTestResultDtsmInfo           m_rDtsmInfo;
   /* crystal low power mode calibration result (for 32k removal) */
   RfTestResultDSSLpm             LpmResult;
} RfTestResultDTS_Big_Ex;

typedef struct
{
     kal_int16        afc_offset[FrequencyBandCount];
     kal_bool                  ok;
}RfGetAfcOffsetResult;

typedef struct
{
    kal_uint32        m_u4NSFTSBER;
    kal_uint32        m_u4NSFTSBERCurrentCount;
}RfNSFTSBERResult;
// local
typedef struct
{
    kal_bool         ok;
    kal_uint16       m_u2PDValue;
}RfTestResultPDValue;

// peer
typedef struct
{
    kal_uint16       data[16];
} RfTestResultTXPCPD;

typedef struct
{
    kal_uint16       data[8];
} RfTestResultTXPCPDTemp;


typedef struct
{
    /// calibrated flag
    kal_int8               is_calibrated;
    /// closed-loop target value by PCL
    RfTestResultTXPCPD     adc[FrequencyBandCount];
    /// temperature compensation interval
    kal_int16              temperature;
    /// closed-loop target value by temperature compensation
    RfTestResultTXPCPDTemp temp[FrequencyBandCount];
}RfTestResultTXPCAllPD;
// ****************************** //

typedef union
{
   RfTestResultPm         pm;
   RfTestResultAfc        afc;
   kal_bool               ok;
   RfTestResultGetBBTXCfg2  BBTxCfg2;
   RfTestResultMsCapability     ms_capability;
   RfTestResultGetRFID          rfid;
   RfTestResultGetBSI           GetBSI;
   RfTestResultGetBBTXCfg3      BBTxCfg3;
   RfTestResultMsCapabilityEx   ms_capability_ex;
   RfGetAfcDacValueAtRTXOffsetCal   GetAfcDacValueAtRTXOffsetCal;
   RfTestResultGetBBTXCfg4    BBTxCfg4;
   RfTestResult32kCalibration   calibration_32k;
   RfGetAfcOffsetResult         afc_result;

   RF_DTS_GET_RESULT_STATUS      dts_get_result_status;

   kal_int8                      m_i1RfPwrState_FT;
   RfNSFTSBERResult              m_rNSFTSBER;
   /// L1TST_ReportRXLEV output
   kal_uint16                    m_u2NSFTRxLevel;
   /// L1TST_ReportRXQual output
   kal_uint8                     m_u1NSFTRxQual;
   RfTestResultPDValue           txpc_cnf;
   /// L1TST_TXPC_CL_GetSubband output
   kal_uint16                    m_txpc_subband_compensation[11];
   /// L1TST_TXPC_GetTemperature output: RF_TEST_CMD_GET_TXPC_TEMPERATURE
   kal_uint16                    temperature;
} RfTestResultParam;

/*******************************************************************************
*
*  Message structures defined for L1TST Interface
*
*******************************************************************************/
typedef struct
{
  FT_H              header;
  RfTestCmdType     type;
  RfTestCmdParam    param;
} ft_rf_test_req_T;

typedef struct
{
  FT_H               header;
  RfTestCmdType      type;
  RfTestResultParam  param;
} ft_rf_test_cnf_T;


#endif // #ifndef __FT_MSG_L1RF_H__