FreeCalypso > hg > fc-tourmaline
view src/cs/layer1/include/l1_time.h @ 287:3dee79757ae4
UI fw: load handheld audio mode on boot
We have now reached the point where use of audio mode config files
should be considered mandatory. In ACI usage we can tell users that
they need to perform an AT@AUL of some appropriate audio mode, but
in UI-enabled fw we really need to have the firmware load audio modes
on its own, so that correct audio config gets established when the
handset or development board runs on its own, without a connected host
computer.
Once have FC Venus with both main and headset audio channels and
headset plug insertion detection, our fw will need to automatically
load the handheld mode or the headset mode depending on the plug
insertion state. For now we load only the handheld mode, which has
been tuned for FC-HDS4 on FC Luna.
| author | Mychaela Falconia <falcon@freecalypso.org> |
|---|---|
| date | Sat, 13 Nov 2021 03:20:57 +0000 |
| parents | 4e78acac3d88 |
| children |
line wrap: on
line source
/************* Revision Controle System Header ************* * GSM Layer 1 software * L1_TIME.H * * Filename l1_time.h * Copyright 2003 (C) Texas Instruments * ************* Revision Controle System Header *************/ // ********************************************************************* // * * // * This file contains only RF independant defines. * // * * // ********************************************************************* // Remarks: // -------- // PRG_TX is RF dependant, it is therefore provided within // "l1_rf#.h". // ************************************************************************** // // measurements // ------------ // // | +-----+ // | | PW | // -------------------|--------+ +-------------- // clk=offset | | // (frame int.) >|-----|<-PW_BURST_DURATION // | | | // | SYNTH_SETUP_TIME | | // |<--------------------------|< | // | | | // | | // >|--------|<-PROVISION_TIME // // // Normal Burst reception // ---------------------- // // | +---------+ // | | RX WIN | // ---------------------|--------+ +---------- // clk=offset | | // (frame int.) >|---------|<-NB_BURST_DURATION_DL // | | | // | SYNTH_SETUP_TIME | | // |<--------------------------|< | // | | | // | | // >|--------|<-PROVISION_TIME // // // Normal Burst transmission // ------------------------- // // . // +---------+ // | TX WIN | // --------------------------+ +---------- // . | // clk=offset | // . | // . |<--STOP_TX_** // | SYNTH_SETUP_TIME . // |<---------------------->.<--START_TX // | . // // // // Frequency Burst search in Dedicated TCH // --------------------------------------- // // . +-----------(...)-------------+ // . | FB search in TCH | // -------------------.--------+ +-------------- // . | | // (FB26_ANCHORING_TIME)| | // . | | // SYNTH_SETUP_TIME | | // |<------------------------->| |<-STOP_RX_FB26 // . | // . |<-START_RX_FB26 // . | // . | // >.--------|<-PROVISION_TIME // // // ************************************************************************** #define D_NSUBB_IDLE 296L // Nb of 48 samples window for FBNEW task. #if (CODE_VERSION==SIMULATION) #define D_NSUBB_DEDIC 31L // Nb of 48 samples window for FB26 task. #else #if (DSP == 33) || (DSP == 34) || (DSP == 35) || (DSP == 32) || (DSP == 36) #define D_NSUBB_DEDIC 30L // Nb of 48 samples window for FB26 task. #else #define D_NSUBB_DEDIC 31L // Nb of 48 samples window for FB26 task. #endif #endif #define IMM ( 5000L ) // Immediate command for TPU. #define TN_WIDTH ( 625L ) #define BP_DURATION TN_WIDTH #define TAIL_WIDTH ( 3L * 4L ) // = 12 #define EXTENDED_TAIL_WIDTH ( 8L * 4L ) #define TPU_CLOCK_RANGE ( 5000L ) #define SWITCH_TIME ( TPU_CLOCK_RANGE - EPSILON_SYNC ) // = 4990, time for offset change. #define PROVISION_TIME ( 66L ) #define EPSILON_SYNC ( 10L ) // synchro change: max TOA shift=8qbits, 2qbits TPU scenario exec. #define EPSILON_OFFS ( 2L ) // offset change: 2qbits for TPU scenario exec. #define EPSILON_MEAS ( 20L ) // margin kept between RX and PW meas or between PW meas #define SERV_OFFS_REST_LOAD ( 1L ) // 1qbit TPU scen exec. for serv. cell offset restore #define TPU_SLEEP_LOAD ( 2L ) // 2qbit TPU scen exec. for TPU sleep #if (CODE_VERSION==SIMULATION) #define DL_ABB_DELAY ( 32L ) // RX ABB filter delay #else #define DL_ABB_DELAY ( 32L + 4L) // RX ABB filter delay #endif // DMA threshold used for sample acquisition by the DSP #if (CODE_VERSION==SIMULATION) #define RX_DMA_THRES ( 1L ) #else #if (CHIPSET == 4) || (CHIPSET == 7) || (CHIPSET == 8) || (CHIPSET == 10) || (CHIPSET == 11) #define RX_DMA_THRES ( 2L ) #else #define RX_DMA_THRES ( 1L ) #endif #endif // BDLENA durations are calculated for a DMA threshold of 1 // For a DMA threshold > 1 additional I/Q samples have to be acquired // An increase of BDLENA length by 2qbit is sufficient to acquire one additional I/Q sample // (ABB always outputs pairs of I/Q samples) #define RX_DMA_DELAY (RX_DMA_THRES - 1) * 2 #if (CODE_VERSION==SIMULATION) #define TULSET_DURATION ( 16L ) // Uplink power on setup time #define BULRUDEL_DURATION ( 2L ) #if ((ANLG_FAM == 1) || (ANLG_FAM == 2) || (ANLG_FAM == 3)) // 16 qbits are added because the Calibration time is reduced of 4 GSM bit // due to a slow APC ramp of OMEGA (Cf. START_TX_NB) #define UL_VEGA_DELAY ( TULSET_DURATION + BULRUDEL_DURATION +16L ) // = 18qbits, TX Vega delay #endif #endif #define SB_MARGIN ( 23L * 4L ) // = 92 #define NB_MARGIN ( 3L * 4L ) // = 12 #define TA_MAX ( 63L * 4L ) // = 252 #define SB_BURST_DURATION ( TAIL_WIDTH + ( 142L * 4L) ) // = 580, required for Demodulation #define NB_BURST_DURATION_DL ( TAIL_WIDTH + ( 142L * 4L) ) // = 580, required for Demodulation #define PW_BURST_DURATION ( 64L * 4L ) // = 256 #define RA_BURST_DURATION ( EXTENDED_TAIL_WIDTH + TAIL_WIDTH + ( 77L * 4L ) ) // = 352 = 88*4 #define NB_BURST_DURATION_UL ( 2*TAIL_WIDTH + ( 142L * 4L) ) // = 592 = 148 * 4 // PRG_TX has become a variable and will be substracted directly in the code #define TIME_OFFSET_TX ( PROVISION_TIME + (3L * TN_WIDTH)) // = 1902, Offset difference for TX with TA=0. //================================ // Definitions used by TPU drivers //================================ // BENA durations... //------------------ #define SB_ACQUIS_DURATION ( SB_MARGIN + SB_BURST_DURATION + SB_MARGIN + DL_ABB_DELAY + RX_DMA_DELAY ) // = 796 + DMA delay #define NB_ACQUIS_DURATION ( NB_MARGIN + NB_BURST_DURATION_DL + NB_MARGIN + DL_ABB_DELAY + RX_DMA_DELAY ) // = 636 + DMA delay #define PW_ACQUIS_DURATION ( PW_BURST_DURATION + DL_ABB_DELAY + RX_DMA_DELAY ) // = 288 + DMA delay #define FB_ACQUIS_DURATION ( ( D_NSUBB_IDLE * 48L * 4L ) + ( 48L * 4L ) + DL_ABB_DELAY + RX_DMA_DELAY ) // = 57056 + DMA delay #define FB26_ACQUIS_DURATION ( ( D_NSUBB_DEDIC * 48L * 4L ) + DL_ABB_DELAY + RX_DMA_DELAY) // = 5984 + DMA delay #define START_RX_FB ( PROVISION_TIME ) // = 66 #define START_RX_SB ( PROVISION_TIME ) // = 66 #define START_RX_SNB ( PROVISION_TIME ) // = 66 #define START_RX_PW_1 ( PROVISION_TIME ) // = 66 #define START_RX_FB26 ( PROVISION_TIME ) // = 66 #define START_TX_NB ( 0L ) #define START_TX_RA ( 0L ) #define STOP_RX_FB ( (PROVISION_TIME + FB_ACQUIS_DURATION) % TPU_CLOCK_RANGE ) // = 2122 #define STOP_RX_SB ( (START_RX_SB + SB_ACQUIS_DURATION) % TPU_CLOCK_RANGE ) // = 862 #define STOP_RX_SNB ( (START_RX_SNB + NB_ACQUIS_DURATION) % TPU_CLOCK_RANGE ) // = 702 #define STOP_RX_PW_1 ( (START_RX_PW_1 + PW_ACQUIS_DURATION) % TPU_CLOCK_RANGE ) // = 354 #define STOP_RX_FB26 ( (START_RX_FB26 + FB26_ACQUIS_DURATION) % TPU_CLOCK_RANGE ) // = 4314 //================================ // Definitions used for GPRS //================================ #if L1_GPRS #ifdef L1P_DRIVE_C // Window positions for RX normal burst reception durations const UWORD16 RX_DOWN_TABLE[8] = { PROVISION_TIME + NB_ACQUIS_DURATION, //special case: only 1 RX, 151 IQ samples PROVISION_TIME + 2*BP_DURATION + DL_ABB_DELAY, // 2 * 156.25 samples PROVISION_TIME + 3*BP_DURATION + DL_ABB_DELAY, // 3 * 156.25 samples PROVISION_TIME + 4*BP_DURATION + DL_ABB_DELAY, // 4 * 156.25 samples PROVISION_TIME + 5*BP_DURATION + DL_ABB_DELAY, // 5 * 156.25 samples PROVISION_TIME + 6*BP_DURATION + DL_ABB_DELAY, // 6 * 156.25 samples PROVISION_TIME + 7*BP_DURATION + DL_ABB_DELAY, // 7 * 156.25 samples PROVISION_TIME + 8*BP_DURATION + DL_ABB_DELAY // 8 * 156.25 samples }; // Window positions for TX normal burst and PRACH transmission const UWORD16 TX_TABLE[8] = { 0, BP_DURATION, 2*BP_DURATION, 3*BP_DURATION, 4*BP_DURATION, 5*BP_DURATION, 6*BP_DURATION, 7*BP_DURATION }; #else extern UWORD16 RX_DOWN_TABLE[8]; extern UWORD16 TX_TABLE[8]; #endif #endif //=============================================== // New Definitions for new WIN-ID implementation //=============================================== #define BP_SPLIT_PW2 5 #define BP_SPLIT 32 #define FRAME_SPLIT 8*BP_SPLIT // Load for TPU activity according to frame split #define PWR_LOAD 1 + PW_ACQUIS_DURATION / (BP_DURATION/BP_SPLIT) #define RX_LOAD 1 + NB_ACQUIS_DURATION / (BP_DURATION/BP_SPLIT) #if L1_GPRS #ifdef L1P_DRIVE_C // RX split load in case of multislot const UWORD16 RX_SPLIT_TABLE[8] = { 1 + (NB_ACQUIS_DURATION ) / (BP_DURATION/BP_SPLIT), 1 + (2*BP_DURATION + DL_ABB_DELAY) / (BP_DURATION/BP_SPLIT), 1 + (3*BP_DURATION + DL_ABB_DELAY) / (BP_DURATION/BP_SPLIT), 1 + (4*BP_DURATION + DL_ABB_DELAY) / (BP_DURATION/BP_SPLIT), 1 + (5*BP_DURATION + DL_ABB_DELAY) / (BP_DURATION/BP_SPLIT), 1 + (6*BP_DURATION + DL_ABB_DELAY) / (BP_DURATION/BP_SPLIT), 1 + (7*BP_DURATION + DL_ABB_DELAY) / (BP_DURATION/BP_SPLIT), 1 + (8*BP_DURATION + DL_ABB_DELAY) / (BP_DURATION/BP_SPLIT) }; #else extern UWORD16 RX_SPLIT_TABLE[8]; #endif #endif