FreeCalypso > hg > freecalypso-sw
view gsm-fw/L1/tpudrv/tpudrv61.c @ 992:a7b0b426f9ca
target-utils: boot ROM UART autodetection revamped
The new implementation should work with both the familiar Calypso C035
boot ROM version found in our regular targets as well as the older
Calypso F741979B version found on the vintage D-Sample board.
| author | Mychaela Falconia <falcon@ivan.Harhan.ORG> |
|---|---|
| date | Wed, 30 Dec 2015 21:28:41 +0000 |
| parents | 660e83f13cab |
| children |
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/****************** Revision Controle System Header *********************** * GSM Layer 1 software * Copyright (c) Texas Instruments 1998 * * Filename tpudrv61.c * Version 1.0 * Date May 27th, 2005 * ****************** Revision Controle System Header ***********************/ #define TPUDRV61_C #include "rf.cfg" #include "drp_api.h" #include "l1_macro.h" #include "l1_confg.h" #include "l1_const.h" #include "l1_types.h" #if TESTMODE #include "l1tm_defty.h" #endif #if (AUDIO_TASK == 1) #include "l1audio_const.h" #include "l1audio_cust.h" #include "l1audio_defty.h" #endif #if (L1_GTT == 1) #include "l1gtt_const.h" #include "l1gtt_defty.h" #endif #if (L1_MP3 == 1) #include "l1mp3_defty.h" #endif #if (L1_MIDI == 1) #include "l1midi_defty.h" #endif #if (L1_AAC == 1) #include "l1aac_defty.h" #endif #include "l1_defty.h" #include "l1_time.h" #include "l1_ctl.h" #include "tpudrv.h" #include "tpudrv61.h" #include "l1_rf61.h" #include "mem.h" #include "armio.h" #include "clkm.h" #if (L1_RF_KBD_FIX == 1) #include "l1_varex.h" #endif extern const UWORD8 drp_ref_sw[] ; extern T_DRP_REGS_STR *drp_regs; extern T_DRP_SRM_API* drp_srm_api; // Global variables extern T_L1_CONFIG l1_config; extern UWORD16 AGC_TABLE[]; extern UWORD16 *TP_Ptr; #if (L1_FF_MULTIBAND == 1) extern const WORD8 rf_subband2band[RF_NB_SUBBANDS]; #endif static WORD8 rf_index; // index into rf_path[] #if( L1_TPU_DEV == 1) WORD16 rf_rx_tpu_timings[NB_TPU_TIMINGS] = { // - RX up: // The times below are offsets to when the 1st bit is at antenna // Burst data comes here (PROVISION_TIME - 203 - DLT_4B - rdt ), // TRF_R1 Set RX Synth channel //l1dmacro_adc_read_rx() called here requires ~ 16 tpuinst (PROVISION_TIME - 197 - DLT_4B - rdt ), // TRF_R2 Select the AGC & LNA gains (PROVISION_TIME - 190 - DLT_4B - rdt ) , // TRF_R3 RX_ON (PROVISION_TIME - 39 - DLT_1 - rdt ), // TRF_R4 Set RF switch for RX in selected band (PROVISION_TIME - 19 - DLT_1), // TRF_R5 Enable RX_START ( -20 - DLT_4B ), // TRF_R6 Disable RX Start and RF switch // TRF_R6 not use, warning timing TRF_R6 > TRF_R7 ( 2 - DLT_4B), // TRF_R7 Power down RF (idle script) #if (L1_MADC_ON == 1) (PROVISION_TIME - 170 - DLT_4B - rdt ), // for doing MADC #else 0, #endif 0, 0, 0, 0,0,0,0,0,0,0,0,0, 0, 0,0,0,0,0,0,0,0,0, 0,0 }; WORD16 rf_tx_tpu_timings[NB_TPU_TIMINGS] = { // - TX up: // The times below are offsets to when TXSTART goes high //burst data comes here ( - 255 - DLT_4B - tdt ), // TRF_T1 Set TX synth ( - 235 - DLT_4B - tdt ), // TRF_T2 Power ON TX ( - 225 - DLT_1 ), // TRF_T3 ( - 100 - DLT_1 ), // TRF_T4 ( - 30 - DLT_1 ), // TRF_T5 ( 0 - DLT_1 ), // TRF_T6 ( 8 - DLT_1 ), // TRF_T7 ( 16 - DLT_1 ), // TRF_T8 // - TX timings --- // - TX down: // The times below are offsets to when TXSTART goes down ( - 40 - DLT_1 ), // TRF_T9 ADC read ( 0 - DLT_1 ), // TRF_T10 Disable APC ( 16 - DLT_1 ) , // TRF_T11 Disable PA ( 20 - DLT_1 ) , // TRF_T12 Disable TXSTART ( 30 - DLT_4B ) , // TRF_T13 Power off Locosto 0, 0, 0, 0, 0,0,0, 0, 0,0,0,0,0,0,0,0,0, 0,0 }; //Flexi ABB DELAYS WORD16 rf_flexi_abb_delays[NB_ABB_DELAYS] = { //Note: 0th element is not mapped to anything should be always 0 0, 20, (45L), 12, 0 , 0 , 0 , 12, 5, 6, 1L, (63L + 4L), (DL_DELAY_RF + UL_DELAY_2RF + (GUARD_BITS*4) + UL_DELAY_1RF + UL_ABB_DELAY), 2L, 20L, 10L, 20, 6, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0 }; #endif //TPU_DEVEL // Internal function prototypes void l1dmacro_rx_down (WORD32 t); #if (L1_FF_MULTIBAND == 0) SYS_UWORD16 Convert_l1_radio_freq(SYS_UWORD16 radio_freq); WORD32 rf_init(WORD32 t); // External function prototypes UWORD8 Cust_is_band_high(UWORD16 radio_freq); #endif extern T_RF_BAND rf_band[]; extern T_RF rf; /**************************************************************************/ /**************************************************************************/ /* DEFINITION OF MACROS FOR CHIPS SERIAL PROGRAMMATION */ /**************************************************************************/ /**************************************************************************/ /*------------------------------------------*/ /* Is arfcn in the DCS band (512-885) ? */ /*------------------------------------------*/ #define IS_HIGH_BAND(arfcn) (((arfcn >= 512) && (arfcn <= 885)) ? 1 : 0) /*------------------------------------------*/ /* Send a value to LoCosto */ /*------------------------------------------*/ #define MOVE_REG_TSP_TO_RF(data, addr)\ {\ *TP_Ptr++ = TPU_MOVE(OCP_DATA_MSB, ((data)>>8) & 0x00FF); \ *TP_Ptr++ = TPU_MOVE(OCP_DATA_LSB, (data) & 0x00FF); \ *TP_Ptr++ = TPU_MOVE(OCP_ADDRESS_MSB, ((addr)>>8) & 0x00FF); \ *TP_Ptr++ = TPU_MOVE(OCP_ADDRESS_LSB, (addr) & 0x00FF); \ *TP_Ptr++ = TPU_MOVE(OCP_ADDRESS_START, 0x0001); \ } /* RFTime environment */ #if defined (HOST_TEST) #include "hostmacros.h" #endif /*------------------------------------------*/ /* Trace arfcn for conversion debug */ /*------------------------------------------*/ #ifdef ARFCN_DEBUG // ----Debug information : record all arfcn programmed into synthesizer! #define MAX_ARFCN_TRACE 4096 // enough for 5 sessions of 124+374 SYS_UWORD16 arfcn_trace[MAX_ARFCN_TRACE]; static UWORD32 arfcn_trace_index = 0; void trace_arfcn(SYS_UWORD16 arfcn) { arfcn_trace[arfcn_trace_index++] = arfcn; // Wrap to beginning if (arfcn_trace_index == MAX_ARFCN_TRACE) arfcn_trace_index = 0; } #endif /**************************************************************************/ /**************************************************************************/ /* DEFINITION OF HARWARE DEPENDANT CONSTANTS */ /**************************************************************************/ /**************************************************************************/ /**************************************************************************/ /**************************************************************************/ /* INTERNAL FUNCTIONS OF TPUDRV14.C */ /* EFFECTIVE DOWNLOADING THROUGH TSP */ /**************************************************************************/ /**************************************************************************/ // rx & tx typedef struct tx_rx_s { UWORD16 farfcn0; WORD8 ou; } T_TX_RX; struct synth_s { // common UWORD16 arfcn0; UWORD16 limit; T_TX_RX tx_rx[2]; }; struct rf_path_s { UWORD8 rx_up; UWORD8 rx_down; UWORD8 tx_up; UWORD8 tx_down; struct synth_s *synth; }; const struct synth_s synth_900[] = { { 0, 124, {{ 890, 1}, { 935, 2}}},// gsm 0 - 124 {974, 1023, {{ 880, 1}, { 925, 2}}},// egsm 975 - 1023 }; const struct synth_s synth_1800[] = { {511, 885, {{1710, 1}, {1805, 1}}}, // dcs 512 - 885 }; const struct synth_s synth_1900[] = { {511, 810, {{1850, 1}, {1930, 1}}}, // pcs 512 - 810; }; const struct synth_s synth_850[] = { {127, 192, {{ 824, 2}, { 869, 2}}}, // gsm850 128 - 251 //low {127, 251, {{ 824, 1}, { 869, 2}}}, // gsm850 128 - 251 //high }; #if RF_BAND_SYSTEM_INDEX == RF_QUADBAND struct rf_path_s rf_path[] = { //same index used as for band_config[] - 1 { RU_900, RD_900, TU_900, TD_900, (struct synth_s *)synth_900 }, //EGSM { RU_1800, RD_1800, TU_1800, TD_1800, (struct synth_s *)synth_1800}, //DCS { RU_1900, RD_1900, TU_1900, TD_1900, (struct synth_s *)synth_1900}, //PCS { RU_850, RD_850, TU_850, TD_850, (struct synth_s *)synth_850 }, //GSM850 }; #endif #if RF_BAND_SYSTEM_INDEX == RF_EU_TRIBAND struct rf_path_s rf_path[] = { //same index used as for band_config[] - 1 { RU_850, RD_850, TU_900, TD_900, (struct synth_s *)synth_900 }, //EGSM { RU_1800, RD_1800, TU_1800, TD_1800, (struct synth_s *)synth_1800}, //DCS { RU_1900, RD_1900, TU_1900, TD_1900, (struct synth_s *)synth_1900}, //PCS { RU_850, RD_850, TU_850, TD_850, (struct synth_s *)synth_850 }, //GSM850 }; #endif #if RF_BAND_SYSTEM_INDEX == RF_US_DUALBAND struct rf_path_s rf_path[] = { //same index used as for band_config[] - 1 { RU_900, RD_900, TU_900, TD_900, (struct synth_s *)synth_900 }, //EGSM { RU_1800, RD_1800, TU_1800, TD_1800, (struct synth_s *)synth_1800}, //DCS { RU_1800, RD_1800, TU_1900, TD_1900, (struct synth_s *)synth_1900}, //PCS { RU_850, RD_850, TU_850, TD_850, (struct synth_s *)synth_850 }, //GSM850 }; #endif #if RF_BAND_SYSTEM_INDEX == RF_PCS1900_900_DUALBAND struct rf_path_s rf_path[] = { //same index used as for band_config[] - 1 { RU_850, RD_850, TU_900, TD_900, (struct synth_s *)synth_900 }, //EGSM { RU_1800, RD_1800, TU_1800, TD_1800, (struct synth_s *)synth_1800}, //DCS { RU_1800, RD_1800, TU_1900, TD_1900, (struct synth_s *)synth_1900}, //PCS { RU_850, RD_850, TU_850, TD_850, (struct synth_s *)synth_850 }, //GSM850 }; #endif UWORD32 calc_rf_freq(UWORD16 arfcn, UWORD8 downlink) { UWORD32 farfcn; struct synth_s *s; s = rf_path[rf_index].synth; while(s->limit < arfcn) s++; // Convert the ARFCN to the channel frequency (times 5 to avoid the decimal value) farfcn = 5*s->tx_rx[downlink].farfcn0 + (arfcn - s->arfcn0); // LoCosto DLO carrier frequency is programmed in 100kHz increments. // Therefore RF_FREQ = (channel frequency * 10) = (farfcn * 2) return ( 2*farfcn ); } #if (L1_FF_MULTIBAND == 0) /*------------------------------------------*/ /* Convert_l1_radio_freq */ /*------------------------------------------*/ /* conversion of l1 radio_freq to */ /* real channel number */ /*------------------------------------------*/ SYS_UWORD16 Convert_l1_radio_freq(SYS_UWORD16 radio_freq) { switch(l1_config.std.id) { case GSM: case DCS1800: case PCS1900: case GSM850: return (radio_freq); //omaps00090550 break; case DUAL: { if (radio_freq < l1_config.std.first_radio_freq_band2) // GSM band... return(radio_freq); else // DCS band... return (radio_freq - l1_config.std.first_radio_freq_band2 + 512); } //omaps00090550 break; case DUALEXT: { if (radio_freq < l1_config.std.first_radio_freq_band2) // E-GSM band... { if(radio_freq <= 124) // GSM part... return(radio_freq); if(radio_freq < 174) // Extended part... return (radio_freq - 125 + 975); else // Extended part, special case of ARFCN=0 return(0); } else { // DCS band... return (radio_freq - l1_config.std.first_radio_freq_band2 + 512); } } // break; case GSM_E: { if(radio_freq <= 124) // GSM part... return(radio_freq); else if(radio_freq < 174) // Extended part... return (radio_freq - 125 + 975); else // Extended part, special case of ARFCN=0 return(0); } //omaps00090550 break; case DUAL_US: { if (radio_freq < l1_config.std.first_radio_freq_band2) { return(radio_freq - l1_config.std.first_radio_freq + 128); } else { // PCS band... return (radio_freq - l1_config.std.first_radio_freq_band2 + 512); } } // break; default: // should never occur. return(radio_freq); } // end of switch } #else static const UWORD8 rf_band_idx_to_locosto_idx[] = { #if (GSM900_SUPPORTED == 1) 0, #endif #if (GSM850_SUPPORTED == 1) 3, #endif #if (DCS1800_SUPPORTED == 1) 1, #endif #if (PCS1900_SUPPORTED == 1) 2 #endif }; SYS_UWORD16 Convert_l1_radio_freq(SYS_UWORD16 radio_freq) { UWORD8 band_index; return(rf_convert_l1freq_to_arfcn_rfband(rf_convert_rffreq_to_l1freq(radio_freq), &band_index)); } #endif /*------------------------------------------*/ /* rf_init */ /*------------------------------------------*/ /* Initialization routine for PLL */ /* Effective downloading through TSP */ /*------------------------------------------*/ WORD32 rf_init(WORD32 t) { //UWORD16 temp=(UWORD16)( ((UWORD32)(&drp_srm_api->control.retiming))&0xFFFF) ; // enable control of retiming MOVE_REG_TSP_TO_RF(RETIM_DISABLE, ((UWORD16)( ((UWORD32)(&drp_srm_api->control.retiming))&0xFFFF))); // Power ON the regulators by sending REG_ON script MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_REG_ON), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))))); return(t); } #if (L1_FF_MULTIBAND == 0) UWORD8 arfcn_to_rf_index(SYS_UWORD16 arfcn) { UWORD8 index; extern const T_STD_CONFIG std_config[]; index = std_config[l1_config.std.id].band[0]; if ((std_config[l1_config.std.id].band[1] != BAND_NONE) && IS_HIGH_BAND(arfcn)) index = std_config[l1_config.std.id].band[1]; return (index - 1); } #endif /*------------------------------------------*/ /* rf_program */ /*------------------------------------------*/ /* Programs the RF synthesizer */ /* called each frame */ /* downloads NA counter value */ /* t = start time in the current frame */ /*------------------------------------------*/ //change 2 UWORD8 UWORD32 rf_program(UWORD32 t, SYS_UWORD16 radio_freq, UWORD32 rx) { UWORD32 rfdiv; SYS_UWORD16 arfcn; #ifdef ARFCN_DEBUG trace_arfcn(arfcn); #endif #if (L1_FF_MULTIBAND == 0) arfcn = Convert_l1_radio_freq(radio_freq); rf_index = arfcn_to_rf_index(arfcn); if (rf_index == 4) { rf_index = 0; } #else { UWORD8 rf_band_index; // rf_index = rf_band_idx_to_locosto_idx[rf_convert_l1freq_to_rf_band_idx(radio_freq)]; arfcn=rf_convert_rffreq_to_l1freq_rfband(radio_freq, &rf_band_index); rf_index = rf_band_idx_to_locosto_idx[rf_subband2band[rf_band_index]]; arfcn=rf_convert_l1freq_to_arfcn_rfband(arfcn, &rf_band_index); } #endif rfdiv = calc_rf_freq(arfcn, rx); MOVE_REG_TSP_TO_RF(rfdiv,((UWORD16)( ((UWORD32)(&drp_regs->RF_FREQL))&0xFFFF))); return(t); } /*------------------------------------------*/ /* rf_init_light */ /*------------------------------------------*/ /* Initialization routine for PLL */ /* Effective downloading through TSP */ /*------------------------------------------*/ WORD32 rf_init_light(WORD32 t) { // initialization for change of multi-band configuration dependent on STD return(t); } /**************************************************************************/ /**************************************************************************/ /* EXTERNAL FUNCTIONS CALLED BY LAYER1 */ /* COMMON TO L1 and TOOLKIT */ /**************************************************************************/ /**************************************************************************/ void l1dmacro_afc (SYS_UWORD16 afc_value, UWORD8 win_id) { MOVE_REG_TSP_TO_RF(afc_value, ((UWORD16)( ((UWORD32)(&drp_srm_api->inout.afc.input.mem_xtal))&0xFFFF))); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_AFC), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); } #define L1_NEW_ROC_ENABLE_FLAG (1) #if (L1_NEW_ROC_ENABLE_FLAG == 1) /*------------------------------------------*/ /* cust_get_if_dco_ctl_algo */ /*------------------------------------------*/ /* Defines which IF and DCO */ /* algorythms are used */ /* */ /* */ /*------------------------------------------*/ /* NOTE: In the below code * At high power levels, IF_100KHZ_DSP-> DRP->LIF_100KHZ and DSP->DCO_IF_100KHZ/DCO_IF_0_100KHZ * low power levels IF_120KHZ_DSP-> DRP->LIF_120KHZ + HPF filter and DSP->DCO_NONE/DCO_IF_0KHZ */ void cust_get_if_dco_ctl_algo(UWORD16 *dco_algo_ctl, UWORD8 *if_ctrl, UWORD8 input_level_flag, UWORD8 input_level, UWORD16 radio_freq, UWORD8 if_threshold) { #if (L1_FF_MULTIBAND == 0) SYS_UWORD16 arfcn; #else UWORD16 rffreq; #endif if ((!input_level_flag) || (input_level < if_threshold)) { *if_ctrl = IF_100KHZ_DSP; *dco_algo_ctl = DCO_IF_100KHZ; } else { *if_ctrl = IF_120KHZ_DSP; *dco_algo_ctl = DCO_NONE; } #if (L1_FF_MULTIBAND == 0) arfcn = Convert_l1_radio_freq(radio_freq); switch(l1_config.std.id) { case GSM: case GSM_E: { if ((arfcn == 5) || (arfcn == 70)) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } break; } case DCS1800: { if ((arfcn == 521) || (arfcn == 586) || (arfcn == 651) || (arfcn == 716) ||(arfcn == 781) || (arfcn == 846)) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } break; } case PCS1900: { if ((arfcn == 546) || (arfcn == 611) ||(arfcn == 676) || (arfcn == 741) ||(arfcn == 806) ) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } break; } case GSM850: { if ((arfcn == 137) || (arfcn == 202)) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } break; } case DUAL: case DUALEXT: { if (radio_freq < l1_config.std.first_radio_freq_band2) { // GSM band... if ((arfcn == 5) ||(arfcn == 70)) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } } else // DCS band... { if ((arfcn == 521) || (arfcn == 586) || (arfcn == 651) || (arfcn == 716) ||(arfcn == 781) || (arfcn == 846)) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } } break; } case DUAL_US: { if (radio_freq < l1_config.std.first_radio_freq_band2) { // GSM 850 if ((arfcn == 137) || (arfcn == 202)) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } } else { // PCS band... if ((arfcn == 546) || (arfcn == 611) ||(arfcn == 676) || (arfcn == 741) ||(arfcn == 806) ) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } } break; } default: break;// should never occur. } // end of switch #else //#if (L1_FF_MULTIBAND == 0) //rffreq = rf_convert_l1freq_to_rffreq(radio_freq); rffreq=radio_freq; // The argument passed to this function is the radio_freq and not l1_freq if( #if (GSM850_SUPPORTED == 1) (137 == rffreq)||(202 == rffreq) || #endif #if (GSM900_SUPPORTED == 1) (5 == rffreq)||(70 == rffreq) || #endif #if (DCS1800_SUPPORTED == 1) (521 == rffreq)||(586 == rffreq) ||(651 == rffreq)||(716 == rffreq) ||(781 == rffreq)||(846 == rffreq) || #endif #if (PCS1900_SUPPORTED == 1) (546+512 == rffreq) ||(611+512 == rffreq)||(676+512 == rffreq) ||(741+512 == rffreq)||(806+512 == rffreq) || #endif 0) { if (*if_ctrl == IF_100KHZ_DSP) *dco_algo_ctl = DCO_IF_0KHZ_100KHZ; else *dco_algo_ctl = DCO_IF_0KHZ; } #endif // if (L1_FF_MULTIBAND == 0) } #else /*------------------------------------------*/ /* cust_get_if_dco_ctl_algo */ /*------------------------------------------*/ /* Defines which IF and DCO */ /* algorythms are used */ /* */ /* */ /*------------------------------------------*/ /* NOTE: Below is the Old DCO algorithm in which ROC compensation was not enabled on DSP side * To use this algorithm we need an appropriate DRP script which functions as below. * IF_100KHZ_DSP-> DRP-ZIF and DSP-DCO_ZIF * IF_120KHZ_DSP-> DRP_LIF_120KHZ + HPF filter and DSP-DCO_ZIF/DCO_NONE */ void cust_get_if_dco_ctl_algo(UWORD16 *dco_algo_ctl, UWORD8 *if_ctrl, UWORD8 input_level_flag, UWORD8 input_level, UWORD16 radio_freq, UWORD8 if_threshold) { #if (L1_FF_MULTIBAND == 0) SYS_UWORD16 arfcn; #else UWORD16 rffreq; #endif if ((!input_level_flag) | (input_level < if_threshold)) { *if_ctrl = IF_100KHZ_DSP; *dco_algo_ctl = DCO_IF_0KHZ; } else{ *if_ctrl = IF_120KHZ_DSP; //*dco_algo_ctl = DCO_IF_100KHZ; *dco_algo_ctl = DCO_NONE; #if (L1_FF_MULTIBAND == 0) arfcn = Convert_l1_radio_freq(radio_freq); switch(l1_config.std.id) { case GSM: case GSM_E: if ((arfcn == 5) |(arfcn == 70)) *dco_algo_ctl = DCO_IF_0KHZ; break; case DCS1800: if ((arfcn == 521) | (arfcn == 586) | (arfcn == 651) | (arfcn == 716) |(arfcn == 781) | (arfcn == 846)) *dco_algo_ctl = DCO_IF_0KHZ; break; case PCS1900: if ((arfcn == 546) | (arfcn == 611) |(arfcn == 676) | (arfcn == 741) |(arfcn == 806) ) *dco_algo_ctl = DCO_IF_0KHZ; break; case GSM850: if ((arfcn == 137) | (arfcn == 202)) *dco_algo_ctl = DCO_IF_0KHZ; break; case DUAL: case DUALEXT: { if (radio_freq < l1_config.std.first_radio_freq_band2) { // GSM band... if ((arfcn == 5) |(arfcn == 70)) *dco_algo_ctl = DCO_IF_0KHZ; } else // DCS band... { if ((arfcn == 521) | (arfcn == 586) | (arfcn == 651) | (arfcn == 716) |(arfcn == 781) | (arfcn == 846)) *dco_algo_ctl = DCO_IF_0KHZ; } } break; case DUAL_US: { if (radio_freq < l1_config.std.first_radio_freq_band2) { // GSM 850 if ((arfcn == 137) | (arfcn == 202)) *dco_algo_ctl = DCO_IF_0KHZ; } else { // PCS band... if ((arfcn == 546) | (arfcn == 611) |(arfcn == 676) | (arfcn == 741) |(arfcn == 806) ) *dco_algo_ctl = DCO_IF_0KHZ; } } break; default: break;// should never occur. } // end of switch #else rffreq = rf_convert_l1freq_to_rffreq(radio_freq); if( #if (GSM850_SUPPORTED == 1) (137 == rffreq)||(202 == rffreq) || #endif #if (GSM900_SUPPORTED == 1) (5 == rffreq)||(70 == rffreq) || #endif #if (DCS1800_SUPPORTED == 1) (521 == rffreq)||(586 == rffreq) ||(651 == rffreq)||(716 == rffreq) ||(781 == rffreq)||(846 == rffreq) || #endif #if (PCS1900_SUPPORTED == 1) (546+512 == rffreq) ||(611+512 == rffreq)||(676+512 == rffreq) ||(741+512 == rffreq)||(806+512 == rffreq) || #endif 0) { *dco_algo_ctl = DCO_IF_0KHZ; } #endif } } #endif /*------------------------------------------*/ /* agc */ /*------------------------------------------*/ /* Program a gain into IF amp */ /* agc_value : gain in dB */ /* */ /* additional parameter for LNA setting */ /*------------------------------------------*/ void l1dmacro_agc(SYS_UWORD16 radio_freq, WORD8 gain, UWORD8 lna_off, UWORD8 if_ctl) { signed int index; WORD16 afe; UWORD16 corner_freq = SCF_270KHZ ; //Corner frequency given in kHz UWORD16 gain_comp = GAIN_COMP_ENABLE; //gain compensation scheme UWORD16 if_setting; UWORD16 lna_setting; UWORD16 arfcn ; index = gain; // below is inserted to prevent wraparound of gain index in testmode if (index >= AGC_TABLE_SIZE) index = AGC_TABLE_SIZE-1; if (index <= MIN_AGC_INDEX) index = MIN_AGC_INDEX; if(lna_off) afe = AFE_LOW_GAIN; else afe = AFE_HIGH_GAIN; if(if_ctl == IF_120KHZ_DSP) if_setting = IF_120KHZ_DRP; else if_setting = IF_100KHZ_DRP; #if (L1_FF_MULTIBAND == 0) //LNA Changes arfcn = Convert_l1_radio_freq(radio_freq); //band_system_index = (UWORD16) convert_arfcn_to_band(arfcn); lna_setting = (UWORD16) drp_generate_dbbif_setting_arfcn( (UWORD16) RF_BAND_SYSTEM_INDEX, arfcn); //End LNA #else #if 0 rf_band_idx = rf_convert_l1freq_to_rf_band_idx(radio_freq); switch(rf_band_idx) { #if(GSM850_SUPPORTED) case RF_GSM850: drp_band_index = 0; break; #endif #if(DCS1800_SUPPORTED) case RF_DCS1800: drp_band_index = 2; break; #endif #if(PCS1900_SUPPORTED) case RF_PCS1900: drp_band_index = 3; break; #endif default: drp_band_index = 1; break; } #endif // if 0 lna_setting = (UWORD16) drp_generate_dbbif_setting_arfcn( (UWORD16) RF_BAND_SYSTEM_INDEX, radio_freq); #endif //if_setting = IF_100KHZ_DRP; // r2: implement the register rx_in for setting the configuration of the RX path *TP_Ptr++ = TPU_AT(TRF_R2); MOVE_REG_TSP_TO_RF(( (lna_setting <<8) | (corner_freq<<7) | (afe<<6) | (AGC_TABLE[index]<<2) | (gain_comp<<1) | (if_setting)), ((UWORD16)( ((UWORD32)(&drp_srm_api->inout.rx.rxon_input))&0xFFFF))); } /*------------------------------------------*/ /* l1dmacro_rx_synth */ /*------------------------------------------*/ /* programs RF synth for recceive */ /*------------------------------------------*/ void l1dmacro_rx_synth(SYS_UWORD16 radio_freq) { UWORD32 t; // Important: always use rx_synth_start_time for first TPU_AT // Never remove below 2 lines!!! t = l1_config.params.rx_synth_start_time; *TP_Ptr++ = TPU_FAT (t); t = rf_program(t, radio_freq, 1); // direction is set to 1 for Rx } /*------------------------------------------*/ /* l1dmacro_tx_synth */ /*------------------------------------------*/ /* programs RF synth for transmit */ /* programs OPLL for transmit */ /*------------------------------------------*/ void l1dmacro_tx_synth(SYS_UWORD16 radio_freq) { UWORD32 t; // Important: always use tx_synth_start_time for first TPU_AT // Never remove below 2 lines!!! t = l1_config.params.tx_synth_start_time; *TP_Ptr++ = TPU_FAT (t); t = rf_program(t, radio_freq, 0); // direction set to 0 for Tx } /*------------------------------------------*/ /* l1dmacro_rx_up */ /*------------------------------------------*/ /* Open window for normal burst reception */ /*------------------------------------------*/ #if (L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 0) void l1dmacro_rx_up (UWORD8 csf_filter_choice, UWORD8 kbd_config #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { UWORD8 kbd_tspact_config =0; if (kbd_config == KBD_DISABLED) kbd_tspact_config = KBD_DIS_TSPACT; // r3: power ON RX *TP_Ptr++ = TPU_AT(TRF_R3); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_RX_ON), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))))); // r3_1: disable keyboard *TP_Ptr++ = TPU_AT(TRF_R3_1); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config); // r4: enable TXM in Rx mode *TP_Ptr++ = TPU_AT(TRF_R4); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].rx_up); // Program CSF filter appropriately if(csf_filter_choice == L1_SAIC_HARDWARE_FILTER) { MOVE_REG_TSP_TO_RF(CSF_CWL_HARDWARE_FILTER_64TAP, (UWORD16)(&drp_regs->CSF_CWL)); } else { MOVE_REG_TSP_TO_RF(CSF_CWL_PROGRAMMABLE_FILTER_64TAP, (UWORD16)(&drp_regs->CSF_CWL)); } // r5: enable RX_START #if (L1_SAIC != 0)//Because for 0/2 interpolation, SAIC needs 1 additional symbol compared to legacy modem. #if (NEW_SNR_THRESHOLD==1) if(saic_flag_rx_up==1) { #endif #if (ONE_THIRD_INTRPOL == 1) *TP_Ptr++ = TPU_AT(TRF_R5-5); #else *TP_Ptr++ = TPU_AT(TRF_R5-4); #endif #if (NEW_SNR_THRESHOLD==1) } else { *TP_Ptr++ = TPU_AT(TRF_R5); } #endif #else *TP_Ptr++ = TPU_AT(TRF_R5); #endif *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | RX_START); } #endif #if (L1_MADC_ON == 1) void l1dmacro_rx_up(UWORD8 adc_active, UWORD8 csf_filter_choice, UWORD8 kbd_config #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { UWORD8 kbd_tspact_config =0; if (kbd_config == KBD_DISABLED) kbd_tspact_config = KBD_DIS_TSPACT; // r3: power ON RX *TP_Ptr++ = TPU_AT(TRF_R3); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_RX_ON), (UWORD32)(&drp_regs->SCRIPT_STARTL)); if (adc_active == ACTIVE) { *TP_Ptr++ = TPU_AT(TRF_R8); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U,START_ADC|TXM_SLEEP); *TP_Ptr++ = TPU_WAIT (2); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U,TXM_SLEEP); } // r3_1: disable keyboard *TP_Ptr++ = TPU_AT(TRF_R3_1); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config); // r4: enable TXM in Rx mode *TP_Ptr++ = TPU_AT(TRF_R4); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].rx_up); // Program CSF filter appropriately if(csf_filter_choice == L1_SAIC_HARDWARE_FILTER) { MOVE_REG_TSP_TO_RF(CSF_CWL_HARDWARE_FILTER_64TAP, (UWORD32)(&drp_regs->CSF_CWL)); } else { MOVE_REG_TSP_TO_RF(CSF_CWL_PROGRAMMABLE_FILTER_64TAP, (UWORD32)(&drp_regs->CSF_CWL)); } // r5: enable RX_START // Remember that between TRF_R5 and TRF_R4 there should be a buffer of around 4 qbits #if (L1_SAIC != 0)//Because for 0/2 interpolation, SAIC needs 1 additional symbol compared to legacy modem. #if (NEW_SNR_THRESHOLD==1) if(saic_flag_rx_up==1) { #endif #if (ONE_THIRD_INTRPOL == 1) *TP_Ptr++ = TPU_AT(TRF_R5-5); #else *TP_Ptr++ = TPU_AT(TRF_R5-4); #endif #if (NEW_SNR_THRESHOLD==1) } else { *TP_Ptr++ = TPU_AT(TRF_R5); } #endif #else *TP_Ptr++ = TPU_AT(TRF_R5); #endif *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | RX_START); } #endif #endif /* (L1_RF_KBD_FIX == 1) */ #if (L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 0) void l1dmacro_rx_up (UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { // r3: power ON RX *TP_Ptr++ = TPU_AT(TRF_R3); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_RX_ON), (UWORD16)(&drp_regs->SCRIPT_STARTL)); // r4: enable TXM in Rx mode *TP_Ptr++ = TPU_AT(TRF_R4); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].rx_up); // Program CSF filter appropriately if(csf_filter_choice == L1_SAIC_HARDWARE_FILTER) { MOVE_REG_TSP_TO_RF(CSF_CWL_HARDWARE_FILTER_64TAP, (UWORD16)(&drp_regs->CSF_CWL)); } else { MOVE_REG_TSP_TO_RF(CSF_CWL_PROGRAMMABLE_FILTER_64TAP, (UWORD16)(&drp_regs->CSF_CWL)); } // r5: enable RX_START #if (L1_SAIC != 0)//Because for 0/2 interpolation, SAIC needs 1 additional symbol compared to legacy modem. #if (NEW_SNR_THRESHOLD==1) if(saic_flag_rx_up==1) { #endif #if (ONE_THIRD_INTRPOL == 1) *TP_Ptr++ = TPU_AT(TRF_R5-5); #else *TP_Ptr++ = TPU_AT(TRF_R5-4); #endif #if (NEW_SNR_THRESHOLD==1) } else { *TP_Ptr++ = TPU_AT(TRF_R5); } #endif #else *TP_Ptr++ = TPU_AT(TRF_R5); #endif *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, RX_START); } #endif #if (L1_MADC_ON == 1) void l1dmacro_rx_up(UWORD8 adc_active, UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { // r3: power ON RX *TP_Ptr++ = TPU_AT(TRF_R3); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_RX_ON), (UWORD16)(&drp_regs->SCRIPT_STARTL)); if (adc_active == ACTIVE) { *TP_Ptr++ = TPU_AT(TRF_R8); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U,START_ADC); *TP_Ptr++ = TPU_WAIT (2); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U,0); } // r4: enable TXM in Rx mode *TP_Ptr++ = TPU_AT(TRF_R4); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].rx_up); // Program CSF filter appropriately if(csf_filter_choice == L1_SAIC_HARDWARE_FILTER) { MOVE_REG_TSP_TO_RF(CSF_CWL_HARDWARE_FILTER_64TAP, (UWORD16)(&drp_regs->CSF_CWL)); } else { MOVE_REG_TSP_TO_RF(CSF_CWL_PROGRAMMABLE_FILTER_64TAP, (UWORD16)(&drp_regs->CSF_CWL)); } // r5: enable RX_START #if (L1_SAIC != 0)//Because for 0/2 interpolation, SAIC needs 1 additional symbol compared to legacy modem. #if (NEW_SNR_THRESHOLD==1) if(saic_flag_rx_up==1) { #endif #if (ONE_THIRD_INTRPOL == 1) *TP_Ptr++ = TPU_AT(TRF_R5-5); #else *TP_Ptr++ = TPU_AT(TRF_R5-4); #endif #if (NEW_SNR_THRESHOLD==1) } else { *TP_Ptr++ = TPU_AT(TRF_R5); } #endif #else *TP_Ptr++ = TPU_AT(TRF_R5); #endif *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, RX_START); } #endif #endif /* (L1_RF_KBD_FIX == 0) */ /*------------------------------------------*/ /* l1pdmacro_rx_down */ /*------------------------------------------*/ /* Close window for normal burst reception */ /*------------------------------------------*/ void l1dmacro_rx_down (WORD32 t) { //r6: Disable ROC script *TP_Ptr++ = TPU_FAT(t + TRF_R6); MOVE_REG_TSP_TO_RF((DRP_ROC), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); //r7: Disable Rx_Start & Disable RF switch & send Idle script *TP_Ptr++ = TPU_FAT(t + TRF_R7); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].rx_down); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, 0); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_IDLE),((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); } /*------------------------------------------*/ /* l1dmacro_tx_up */ /*------------------------------------------*/ /* Open transmission window for normal burst*/ /*------------------------------------------*/ #if (L1_RF_KBD_FIX == 1) void l1dmacro_tx_up (UWORD8 kbd_config) { UWORD8 kbd_tspact_config =0; if (kbd_config == KBD_DISABLED) kbd_tspact_config = KBD_DIS_TSPACT; // t2: Power ON TX *TP_Ptr++ = TPU_AT(TRF_T2); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_TX_ON), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); // t3: put the TXM in RX mode *TP_Ptr++ = TPU_AT(TRF_T3); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].tx_down); // t3_1: disable keyboard *TP_Ptr++ = TPU_AT(TRF_T3_1); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config); // t4: enable the APC LDO *TP_Ptr++ = TPU_AT(TRF_T4); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN); // t5: enable the APC module *TP_Ptr++ = TPU_AT(TRF_T5); //SG *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN); // t6: enable TX start and enable of Vramp //SG*TP_Ptr++ = TPU_AT(TRF_T6); //SG *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN | TX_START | START_APC); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | TX_START ); *TP_Ptr++ = TPU_AT(TRF_T6); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN | TX_START ); *TP_Ptr++ = TPU_AT(TRF_T7); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN | TX_START | START_APC); // t7: enable TX start and enable of Vramp - Internal mode //*TP_Ptr++ = TPU_AT(TRF_T7); //*TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN | TX_START | START_APC ); // t7: enable TX start and enable of Vramp //*TP_Ptr++ = TPU_AT(TRF_T7+4); //*TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN | TX_START ); // t8: enable the TXEN of the TXM *TP_Ptr++ = TPU_AT(TRF_T8); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].tx_up); } #endif /*(L1_RF_KBD_FIX == 1)*/ #if (L1_RF_KBD_FIX == 0) void l1dmacro_tx_up (void) { // t2: Power ON TX *TP_Ptr++ = TPU_AT(TRF_T2); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_TX_ON),((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); // t3: put the TXM in RX mode *TP_Ptr++ = TPU_AT(TRF_T3); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].tx_down); // t4: enable the APC LDO *TP_Ptr++ = TPU_AT(TRF_T4); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN); // t5: enable the APC module *TP_Ptr++ = TPU_AT(TRF_T5); //SG *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN); // t6: enable TX start and enable of Vramp //SG*TP_Ptr++ = TPU_AT(TRF_T6); //SG *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN | TX_START | START_APC); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | TX_START ); *TP_Ptr++ = TPU_AT(TRF_T6); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN | TX_START ); *TP_Ptr++ = TPU_AT(TRF_T7); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN | TX_START | START_APC); // t7: enable TX start and enable of Vramp - Internal mode //*TP_Ptr++ = TPU_AT(TRF_T7); //*TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN | TX_START | START_APC ); // t7: enable TX start and enable of Vramp //*TP_Ptr++ = TPU_AT(TRF_T7+4); //*TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, LDO_EN | APC_EN | TX_START ); // t8: enable the TXEN of the TXM *TP_Ptr++ = TPU_AT(TRF_T8); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].tx_up); } #endif /* (L1_RF_KBD_FIX == 0)*/ /*-------------------------------------------*/ /* l1dmacro_tx_down */ /*-------------------------------------------*/ /* Close transmission window for normal burst*/ /*-------------------------------------------*/ #if (L1_RF_KBD_FIX == 1) void l1dmacro_tx_down (WORD32 t, BOOL tx_flag, UWORD8 adc_active, UWORD8 kbd_config) { UWORD8 kbd_tspact_config =0; if (kbd_config == KBD_DISABLED) kbd_tspact_config = KBD_DIS_TSPACT; if (adc_active == ACTIVE) { // 36qbits = (10qbits for TPU programming) + (26qbits duration to convert the first ADC channel (= Battery)) if ((t)<(TRF_T8+2-TRF_T9)) //Done to enable RACH Burst Support { l1dmacro_adc_read_tx (TRF_T8+10, rf_path[rf_index].tx_up); } else { l1dmacro_adc_read_tx (t + TRF_T9, rf_path[rf_index].tx_up); } } // t10: disable APC *TP_Ptr++ = TPU_FAT (t + TRF_T10); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN | TX_START ); // t11: disable PA *TP_Ptr++ = TPU_FAT (t + TRF_T11); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].tx_down); // disable Tx_Start *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN ); // t12: power off Locosto: IDLE SCRIPT *TP_Ptr++ = TPU_FAT (t + TRF_T12); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_IDLE), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); // t13: Switch off APC *TP_Ptr++ = TPU_FAT (t + TRF_T13); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, 0); } #endif /*(L1_RF_KBD_FIX == 1)*/ #if (L1_RF_KBD_FIX == 0) void l1dmacro_tx_down (WORD32 t, BOOL tx_flag, UWORD8 adc_active) { if (adc_active == ACTIVE) { // 36qbits = (10qbits for TPU programming) + (26qbits duration to convert the first ADC channel (= Battery)) l1dmacro_adc_read_tx (t + TRF_T9, rf_path[rf_index].tx_up); } // t10: disable APC *TP_Ptr++ = TPU_FAT (t + TRF_T10); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN | TX_START ); // t11: disable PA *TP_Ptr++ = TPU_FAT (t + TRF_T11); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, rf_path[rf_index].tx_down); // disable Tx_Start *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, kbd_tspact_config | LDO_EN | APC_EN ); // t12: power off Locosto: IDLE SCRIPT *TP_Ptr++ = TPU_FAT (t + TRF_T12); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_IDLE), (UWORD16)(&drp_regs->SCRIPT_STARTL)); // t13: Switch off APC *TP_Ptr++ = TPU_FAT (t + TRF_T13); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, 0); } #endif/*(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_rx_nb * * Receive Normal burst */ #if (L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 1) void l1dmacro_rx_nb (SYS_UWORD16 radio_freq, UWORD8 adc_active, UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up(adc_active, csf_filter_choice, L1_KBD_DIS_RX_NB #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); l1dmacro_rx_down (STOP_RX_SNB); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_NB * (-TRF_R3_1 + STOP_RX_SNB - TRF_R7); } #else void l1dmacro_rx_nb (SYS_UWORD16 radio_freq,UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up(csf_filter_choice, L1_KBD_DIS_RX_NB #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); l1dmacro_rx_down (STOP_RX_SNB); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_NB * (-TRF_R3_1 + STOP_RX_SNB - TRF_R7); } #endif #endif /*(L1_RF_KBD_FIX == 1)*/ #if (L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 1) void l1dmacro_rx_nb (SYS_UWORD16 radio_freq, UWORD8 adc_active, UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up(adc_active, csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); l1dmacro_rx_down (STOP_RX_SNB); } #else void l1dmacro_rx_nb (SYS_UWORD16 radio_freq,UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up(csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); l1dmacro_rx_down (STOP_RX_SNB); } #endif #endif/*(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_rx_sb * Receive Synchro burst */ #if (L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 1) void l1dmacro_rx_sb (SYS_UWORD16 radio_freq,UWORD8 adc_active) { l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_SB #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_SB); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_SB * (-TRF_R3_1 + STOP_RX_SB - TRF_R7); } #else void l1dmacro_rx_sb (SYS_UWORD16 radio_freq) { l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_SB #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_SB); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_SB * (-TRF_R3_1 + STOP_RX_SB - TRF_R7); } #endif #endif/*(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 1) void l1dmacro_rx_sb (SYS_UWORD16 radio_freq,UWORD8 adc_active) { l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_SB); } #else void l1dmacro_rx_sb (SYS_UWORD16 radio_freq) { l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_SB); } #endif #endif/*(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_rx_ms * * Receive Power Measurement window */ #if(L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 1) void l1dmacro_rx_ms (SYS_UWORD16 radio_freq,UWORD8 adc_active) { l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_MS #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_PW_1); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_MS * (-TRF_R3_1 + STOP_RX_PW_1 - TRF_R7); } #else void l1dmacro_rx_ms (SYS_UWORD16 radio_freq) { l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_MS #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_PW_1); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_MS * (-TRF_R3_1 + STOP_RX_PW_1 - TRF_R7); } #endif #endif/*(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 1) void l1dmacro_rx_ms (SYS_UWORD16 radio_freq,UWORD8 adc_active) { l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_PW_1); } #else void l1dmacro_rx_ms (SYS_UWORD16 radio_freq) { l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1dmacro_rx_down (STOP_RX_PW_1); } #endif #endif/*(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_rx_fb * * Receive Frequency burst */ #if(L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 1) void l1dmacro_rx_fb (SYS_UWORD16 radio_freq,UWORD8 adc_active) #else void l1dmacro_rx_fb (SYS_UWORD16 radio_freq) #endif { #if (L1_MADC_ON == 1) l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_FB #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); #else l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_FB #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); #endif l1s.total_kbd_on_time = 5000; *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); l1dmacro_rx_down (STOP_RX_FB); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_FB * (STOP_RX_FB - TRF_R7); } #endif/*(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 1) void l1dmacro_rx_fb (SYS_UWORD16 radio_freq,UWORD8 adc_active) #else void l1dmacro_rx_fb (SYS_UWORD16 radio_freq) #endif { #if (L1_MADC_ON == 1) l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); #else l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); #endif *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); *TP_Ptr++ = TPU_AT(0); l1dmacro_rx_down (STOP_RX_FB); } #endif/*(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_rx_fb26 * * Receive Frequency burst for TCH. */ #if(L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 1) void l1dmacro_rx_fb26 (SYS_UWORD16 radio_freq,UWORD8 adc_active) { l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_FB26 #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1s.total_kbd_on_time = 5000; *TP_Ptr++ = TPU_AT(0); l1dmacro_rx_down (STOP_RX_FB26); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_FB26 * (STOP_RX_FB26 - TRF_R7); } #else void l1dmacro_rx_fb26 (SYS_UWORD16 radio_freq) { l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_FB26 #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); l1s.total_kbd_on_time = 5000; *TP_Ptr++ = TPU_AT(0); l1dmacro_rx_down (STOP_RX_FB26); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_RX_FB26 * (STOP_RX_FB26 - TRF_R7); } #endif #endif/*(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 1) void l1dmacro_rx_fb26 (SYS_UWORD16 radio_freq,UWORD8 adc_active) { l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); *TP_Ptr++ = TPU_AT(0); l1dmacro_rx_down (STOP_RX_FB26); } #else void l1dmacro_rx_fb26 (SYS_UWORD16 radio_freq) { l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); *TP_Ptr++ = TPU_AT(0); l1dmacro_rx_down (STOP_RX_FB26); } #endif #endif/*(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_tx_nb * * Transmit Normal burst */ #if(L1_RF_KBD_FIX == 1) void l1dmacro_tx_nb (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 adc_active) { l1dmacro_tx_up (L1_KBD_DIS_TX_NB); l1dmacro_tx_down (l1_config.params.tx_nb_duration, FALSE, adc_active, L1_KBD_DIS_TX_NB); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_TX_NB * (-TRF_T3_1 + l1_config.params.tx_nb_duration + TRF_T12); } #endif/*#if(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) void l1dmacro_tx_nb (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 adc_active) { l1dmacro_tx_up (); l1dmacro_tx_down (l1_config.params.tx_nb_duration, FALSE, adc_active); } #endif/*#if(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_tx_ra * * Transmit Random Access burst */ #if(L1_RF_KBD_FIX == 1) void l1dmacro_tx_ra (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 adc_active) { l1dmacro_tx_up (L1_KBD_DIS_TX_RA); l1dmacro_tx_down (l1_config.params.tx_ra_duration, FALSE, adc_active, L1_KBD_DIS_TX_RA); l1s.total_kbd_on_time = l1s.total_kbd_on_time - L1_KBD_DIS_TX_RA * (-TRF_T3_1 + l1_config.params.tx_ra_duration + TRF_T12); } #endif /*#if(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) void l1dmacro_tx_ra (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 adc_active) { l1dmacro_tx_up (); l1dmacro_tx_down (l1_config.params.tx_ra_duration, FALSE, adc_active); } #endif/*#if(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_rx_cont * * Receive continuously */ #if(L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 1) void l1dmacro_rx_cont (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 adc_active, UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up (adc_active, csf_filter_choice, KBD_DISABLED #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); } #else void l1dmacro_rx_cont (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up (csf_filter_choice,KBD_DISABLED #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); } #endif #endif/*#if(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 1) void l1dmacro_rx_cont (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 adc_active, UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up (adc_active, csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); } #else void l1dmacro_rx_cont (SYS_UWORD16 radio_freq, UWORD8 txpwr, UWORD8 csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , UWORD8 saic_flag_rx_up #endif ) { l1dmacro_rx_up (csf_filter_choice #if(NEW_SNR_THRESHOLD==1) , saic_flag_rx_up #endif ); } #endif #endif/*#if(L1_RF_KBD_FIX == 0)*/ /* * l1dmacro_tx_cont * * Transmit continuously */ #if(L1_RF_KBD_FIX == 1) void l1dmacro_tx_cont (SYS_UWORD16 radio_freq, UWORD8 txpwr) { l1dmacro_tx_up (KBD_DISABLED); } #endif/*#if(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) void l1dmacro_tx_cont (SYS_UWORD16 radio_freq, UWORD8 txpwr) { l1dmacro_tx_up (); } #endif/*#if(L1_RF_KBD_FIX == 0)*/ /* * l1d_macro_stop_cont * * Stop continuous Tx or Rx */ #if(L1_RF_KBD_FIX == 1) void l1dmacro_stop_cont (void) { if (l1_config.tmode.rf_params.down_up == TMODE_DOWNLINK) l1dmacro_rx_down(STOP_RX_SNB); else l1dmacro_tx_down(l1_config.params.tx_nb_duration, FALSE, 0, KBD_DISABLED); } #endif/*#if(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) void l1dmacro_stop_cont (void) { if (l1_config.tmode.rf_params.down_up == TMODE_DOWNLINK) l1dmacro_rx_down(STOP_RX_SNB); else l1dmacro_tx_down(l1_config.params.tx_nb_duration, FALSE, 0); } #endif/* */ /*------------------------------------------*/ /* l1dmacro_reset_hw */ /*------------------------------------------*/ /* Reset and set OFFSET register */ /*------------------------------------------*/ void l1dmacro_reset_hw(UWORD32 servingCellOffset) { TPU_Reset(1); // reset TPU only, no TSP reset TPU_Reset(0); TP_Ptr = (UWORD16 *) TPU_RAM; *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, TXM_SLEEP); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_L, TXM_SLEEP); MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_IDLE),((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); *TP_Ptr++ = TPU_OFFSET(servingCellOffset); } // l1dmacro_RF_sleep // Program RF for BIG or DEEP sleep void l1dmacro_RF_sleep (void) { // sending REG_OFF script MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_REG_OFF), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, TXM_SLEEP); //Shutdown FEM *TP_Ptr++ = TPU_SLEEP; TP_Ptr = (SYS_UWORD16 *) TPU_RAM; TP_Enable(1); TPU_wait_idle(); } // l1dmacro_RF_wakeup //* wakeup RF from BIG or DEEP sleep void l1dmacro_RF_wakeup (void) { // sending REG_ON script MOVE_REG_TSP_TO_RF(START_SCRIPT(DRP_REG_ON), ((UWORD16)( ((UWORD32)(&drp_regs->SCRIPT_STARTL))&0xFFFF))); *TP_Ptr++ = TPU_SLEEP; TP_Ptr = (SYS_UWORD16 *) TPU_RAM; TP_Enable(1); TPU_wait_idle(); } // l1dmacro_init_hw // Reset VEGA, then remove reset // Init RF/IF synthesizers void l1dmacro_init_hw(void) { WORD32 t = 100; // start time for actions TP_Reset(1); // reset TPU and TSP // GSM 1.5 : TPU clock enable is in TPU //--------------------------------------- TPU_ClkEnable(1); // TPU CLOCK ON TP_Reset(0); TP_Ptr = (UWORD16 *) TPU_RAM; // Set FEM to inactive state before turning ON the RF Board // At this point the RF regulators are still OFF. Thus the // FEM command is not inverted yet => Must use the FEM "SLEEP programming" // TPU_SLEEP l1dmacro_idle(); *TP_Ptr++ = TPU_AT(t); *TP_Ptr++ = TPU_SYNC(0); //Check Initialisation or Reset for TPU2OCP *TP_Ptr++ = TPU_MOVE(REG_SPI_ACT_U, TXM_SLEEP); t = 1000; // arbitrary start time t = rf_init(t); // Initialize RF Board *TP_Ptr++ = TPU_AT(t); // TPU_SLEEP l1dmacro_idle(); return; } /*------------------------------------------*/ /* l1dmacro_init_hw_light */ /*------------------------------------------*/ /* Reset VEGA, then remove reset */ /* Init RF/IF synthesizers */ /*------------------------------------------*/ void l1dmacro_init_hw_light(void) { UWORD32 t = 100; // start time for actions // TP_Ptr = (SYS_UWORD16 *) TPU_RAM; // *TP_Ptr++ = TPU_AT(t); // t = 1000; // arbitrary start time // t = rf_init_light(t); // Initialize RF Board // *TP_Ptr++ = TPU_AT(t); // l1dmacro_idle(); // return; } //BHO added /* * l1dmacro_rx_fbsb * * Receive Frequency burst */ #if ((REL99 == 1) && (FF_BHO == 1)) #if(L1_RF_KBD_FIX == 1) #if (L1_MADC_ON == 1) void l1dmacro_rx_fbsb (SYS_UWORD16 radio_freq, UWORD8 adc_active) #else void l1dmacro_rx_fbsb (SYS_UWORD16 radio_freq) #endif { #if (L1_MADC_ON == 1) l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_FB #if(NEW_SNR_THRESHOLD==1) , SAIC_OFF #endif ); #else l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER, L1_KBD_DIS_RX_FB); #endif // same as rx_fb *TP_Ptr++ = TPU_AT(0); // 1 *TP_Ptr++ = TPU_AT(0); // 2 *TP_Ptr++ = TPU_AT(0); // 3 *TP_Ptr++ = TPU_AT(0); // 4 *TP_Ptr++ = TPU_AT(0); // 5 *TP_Ptr++ = TPU_AT(0); // 6 *TP_Ptr++ = TPU_AT(0); // 7 *TP_Ptr++ = TPU_AT(0); // 8 *TP_Ptr++ = TPU_AT(0); // 9 *TP_Ptr++ = TPU_AT(0); // 10 *TP_Ptr++ = TPU_AT(0); // 11 // one more for SB *TP_Ptr++ = TPU_AT(0); // 12 l1dmacro_rx_down (STOP_RX_FBSB); } #endif/*(L1_RF_KBD_FIX == 1)*/ #if(L1_RF_KBD_FIX == 0) #if (L1_MADC_ON == 1) void l1dmacro_rx_fbsb (SYS_UWORD16 radio_freq, UWORD8 adc_active) #else void l1dmacro_rx_fbsb (SYS_UWORD16 radio_freq) #endif { #if (L1_MADC_ON == 1) l1dmacro_rx_up(adc_active, L1_SAIC_HARDWARE_FILTER); #else l1dmacro_rx_up(L1_SAIC_HARDWARE_FILTER); #endif // same as rx_fb *TP_Ptr++ = TPU_AT(0); // 1 *TP_Ptr++ = TPU_AT(0); // 2 *TP_Ptr++ = TPU_AT(0); // 3 *TP_Ptr++ = TPU_AT(0); // 4 *TP_Ptr++ = TPU_AT(0); // 5 *TP_Ptr++ = TPU_AT(0); // 6 *TP_Ptr++ = TPU_AT(0); // 7 *TP_Ptr++ = TPU_AT(0); // 8 *TP_Ptr++ = TPU_AT(0); // 9 *TP_Ptr++ = TPU_AT(0); // 10 *TP_Ptr++ = TPU_AT(0); // 11 // one more for SB *TP_Ptr++ = TPU_AT(0); // 12 l1dmacro_rx_down (STOP_RX_FBSB); } #endif/*(L1_RF_KBD_FIX == 0)*/ #endif // #if ((REL99 == 1) && (FF_BHO == 1)) ////BHO