FreeCalypso > hg > fc-tourmaline
view src/g23m-gsm/alr3/alr_rach.c @ 221:5bf097aeaad7
LLS: when turning off all LEDs on boot, skip LED-C
Having LLS turn off LED-A and LED-B on boot is normally unnecessary
(they should already be off in Iota), but it is harmless, hence this
logic is kept for robustness. However, having LLS read-modify-write
the BCICTL2 register (to turn off LED-C) creates a potential race
condition with FCHG writes to this register, especially in the case
when baseband switch-on is caused by VCHG and charging is expected
to start right away. Furthermore, control of the charging LED itself
(on those hw targets that have it) is the responsibility of the FCHG
SWE, hence LLS should leave it alone.
author | Mychaela Falconia <falcon@freecalypso.org> |
---|---|
date | Mon, 26 Apr 2021 21:55:13 +0000 |
parents | 3a14ee9a9843 |
children |
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/* +----------------------------------------------------------------------------- | Project : GSM-PS | Modul : ALR_RACH +----------------------------------------------------------------------------- | Copyright 2002 Texas Instruments Berlin, AG | All rights reserved. | | This file is confidential and a trade secret of Texas | Instruments Berlin, AG | The receipt of or possession of this file does not convey | any rights to reproduce or disclose its contents or to | manufacture, use, or sell anything it may describe, in | whole, or in part, without the specific written consent of | Texas Instruments Berlin, AG. +----------------------------------------------------------------------------- | Purpose : This Modul defines the SDL process RACH_Control. +----------------------------------------------------------------------------- */ #ifndef ALR_RACH_C #define ALR_RACH_C #define ENTITY_PL /*==== INCLUDES ===================================================*/ #include <string.h> #include <stdlib.h> #include <ctype.h> #include "typedefs.h" #include "pconst.cdg" #include "mconst.cdg" #include "message.h" #include "ccdapi.h" #include "vsi.h" #include "custom.h" #include "gsm.h" #include "prim.h" #include "cnf_alr.h" #include "mon_alr.h" #include "pei.h" #include "tok.h" #include "pcm.h" #ifdef GPRS #include "alr_gprs.h" #endif #include "alr.h" #include "alr_em.h" /*==== EXPORT =====================================================*/ /*==== PRIVAT =====================================================*/ LOCAL void rach_send_mphc_ra_req (T_MPH_RANDOM_ACCESS_REQ *random_req); /*==== VARIABLES ==================================================*/ #if defined (WIN32) #define TRACING #endif #if defined (TRACING) #define ALR_TRACE_RACH(a) ALR_TRACE(a) #else #define ALR_TRACE_RACH(a) #endif #if defined (TRACING) #define ALR_TRACE_RACH_CLASS(x) TRACE_EVENT_P1 ("class %d",x) #define ALR_TRACE_RACH_POWER(p) TRACE_EVENT_P1 ("configured power = %d", p) #else #define ALR_TRACE_RACH_CLASS(x) #define ALR_TRACE_RACH_POWER(p) #endif /*==== FUNCTIONS ==================================================*/ /* +--------------------------------------------------------------------+ | PROJECT : GSM-PS (6103) MODULE : ALR_RACH | | STATE : code ROUTINE : rach_init | +--------------------------------------------------------------------+ PURPOSE : Initialize RACH Control Process. */ GLOBAL void rach_init (void) { GET_INSTANCE_DATA; alr_data->state[STATE_RA] = RA_NULL; } /* +--------------------------------------------------------------------+ | PROJECT : GSM-PS (6103) MODULE : ALR_RACH | | STATE : code ROUTINE : rach_configure_class | +--------------------------------------------------------------------+ PURPOSE : Process signal rach_configure_class from SDL process Main_Control. */ GLOBAL void rach_configure_class (UBYTE ms_class, UBYTE dcs_class) { GET_INSTANCE_DATA; /* * +1 because of interface difference between RR and TI */ alr_data->rach_data.ms_class = (UBYTE)(ms_class + 1); alr_data->rach_data.dcs_class = (UBYTE)(dcs_class + 1); ALR_TRACE_RACH_CLASS (alr_data->rach_data.ms_class); } /* +--------------------------------------------------------------------+ | PROJECT : GSM-PS (6103) MODULE : ALR_RACH | | STATE : code ROUTINE : rach_configure_power | +--------------------------------------------------------------------+ PURPOSE : Process signal rach_configure_power from SDL process Main_Control. */ GLOBAL void rach_configure_power (UBYTE power) { GET_INSTANCE_DATA; ALR_TRACE_RACH_POWER(power); alr_data->rach_data.max_tx_pwr_ccch = power; } /* +--------------------------------------------------------------------+ | PROJECT : GSM-PS (6103) MODULE : ALR_RACH | | STATE : code ROUTINE : rach_stop | +--------------------------------------------------------------------+ PURPOSE : Process signal rach_stop from SDL process Main_Control. */ GLOBAL void rach_stop (void) { GET_INSTANCE_DATA; switch (GET_STATE (STATE_RA)) { case RA_ACTIVE: ma_rach_stop_ra_req (); /*lint -fallthrough*/ case RA_LISTEN_TO_CCCH: SET_STATE (STATE_RA, RA_NULL); break; default: break; } } /* +--------------------------------------------------------------------+ | PROJECT : GSM-PS (6103) MODULE : ALR_RACH | | STATE : code ROUTINE : rach_random_req | +--------------------------------------------------------------------+ PURPOSE : Process signal rach_random_req from SDL process Main_Control. */ GLOBAL void rach_random_req (T_MPH_RANDOM_ACCESS_REQ *random_req) { GET_INSTANCE_DATA; switch (GET_STATE (STATE_RA)) { case RA_NULL: if (random_req->send_mode.no NEQ 0) { rach_send_mphc_ra_req (random_req); } break; case RA_ACTIVE: if (random_req->send_mode.no EQ 0) { ALR_EM_STOP_CONNECTION_ESTABLISHMENT; SET_STATE (STATE_RA, RA_LISTEN_TO_CCCH); ma_rach_stop_ra_req (); } else { /*stop to be safe */ ma_rach_stop_ra_req (); { rach_send_mphc_ra_req (random_req); } /*PALLOC*/ } /* if */ break; default: break; } } /* +--------------------------------------------------------------------+ | PROJECT : GSM-PS (6103) MODULE : ALR_RACH | | STATE : code ROUTINE : rach_ra_cnf | +--------------------------------------------------------------------+ PURPOSE : Process signal rach_ra_cnf from SDL process Main_Control. */ GLOBAL void rach_ra_cnf (T_MPHC_RA_CON *ra_cnf) { GET_INSTANCE_DATA; UBYTE c_burst = alr_data->rach_data.c_burst-1; /* confirmed index */ switch (GET_STATE (STATE_RA)) { case RA_ACTIVE: { PALLOC (random_cnf, MPH_RANDOM_ACCESS_CNF); ra_cnf->fn %= 42432L; #ifdef GPRS alr_data->rach_data.t1[c_burst] = random_cnf->frame_no.t1= (UBYTE)((ra_cnf->fn / 1326) % 32); alr_data->rach_data.t2[c_burst] = random_cnf->frame_no.t2= (UBYTE)(ra_cnf->fn % 26); alr_data->rach_data.t3[c_burst] = random_cnf->frame_no.t3= (UBYTE)(ra_cnf->fn % 51); #else random_cnf->frame_no.t1= (UBYTE)((ra_cnf->fn / 1326) % 32); random_cnf->frame_no.t2= (UBYTE)(ra_cnf->fn % 26); random_cnf->frame_no.t3= (UBYTE)(ra_cnf->fn % 51); #endif ma_rach_random_cnf (random_cnf); c_burst++; /* next index */ if (c_burst >= alr_data->rach_data.max_bursts) {/* last index ? */ SET_STATE (STATE_RA, RA_LISTEN_TO_CCCH); ma_rach_stop_ra_req (); #if !defined(TNNN_WITH_TIMER) ma_fake_rr_report(); #endif /* !TNNN_WITH_TIMER */ } else { PALLOC (ra_req, MPHC_RA_REQ); /* * power limitation */ ra_req->txpwr = cut_power_value (alr_data->rach_data.max_tx_pwr_ccch, NULL); #ifndef TI_PS_FF_QUAD_BAND_SUPPORT ra_req->powerclass_gsm = alr_data->rach_data.ms_class; ra_req->powerclass_dcs = alr_data->rach_data.dcs_class; #endif /* * Modification: Add 1 to the time of RR !!!! */ ra_req->rand = (UBYTE)(alr_data->rach_data.delta[c_burst]+1); ra_req->channel_request = alr_data->rach_data.channel_request[c_burst]; ma_rach_ra_req (ra_req); alr_data->rach_data.c_burst++; /* the next index */ } break; } default: break; } } /* +--------------------------------------------------------------------+ | PROJECT : GSM-PS (6103) MODULE : ALR_RACH | | STATE : code ROUTINE : cut_power_value | +--------------------------------------------------------------------+ PURPOSE : Cut the nominal maximum output power to the associated power class. (Reference for the tables with the associated power classes, control levels and nominal output power is 3GPP TS 05.05, 4.1) */ GLOBAL UBYTE cut_power_value (UBYTE power, T_MPH_DEDICATED_REQ *mph_dedicated_req) { GET_INSTANCE_DATA; UBYTE new_power = power; UBYTE sc_band; if(mph_dedicated_req == NULL) { sc_band = alr_data->sc_band; } else { if(mph_dedicated_req->ch_type.h) sc_band = get_band(mph_dedicated_req->ch_type.ma[0]); else sc_band = get_band(mph_dedicated_req->ch_type.arfcn); } switch (sc_band) { case BAND_GSM_900: case BAND_E_GSM: case BAND_GSM_850: switch (alr_data->rach_data.ms_class) { case POW_CLASS_1: /* doesn´t exist */ case POW_CLASS_2: /* power class 2, 8W, 39 dBm, level 0..2 */ /* highest level allowed => no cut necessary */ break; case POW_CLASS_3: /* power class 3, 5W, 37 dBm, level 3 */ if (new_power < 3) new_power = 3; break; case POW_CLASS_4: /* power class 4, 2W, 33 dBm, level 5 */ if (new_power < 5) new_power = 5; break; case POW_CLASS_5: /* power class 5, 0.8W, 29 dBm, level 7 */ if (new_power < 7) new_power = 7; break; } break; case BAND_DCS_1800: switch (alr_data->rach_data.dcs_class) { case POW_CLASS_1: /* power class 1, 1W, 30 dBm, level 0 */ if (new_power > 28) new_power = 0; break; case POW_CLASS_2: /* power class 2, 0.25W, 24 dBm, level 3 */ if (!INRANGE (3, new_power, 28)) new_power = 3; break; case POW_CLASS_3: /* power class 3, 4W, 36 dBm , level 29 */ /* highest level allowed => no cut necessary */ break; } break; case BAND_PCS_1900: switch (alr_data->rach_data.dcs_class) { case POW_CLASS_1: /* power class 1, 1W, 30 dBm, level 0 */ if (!INRANGE (0, new_power, 15)) new_power = 0; break; case POW_CLASS_2: /* power class 2, 0.25W, 24 dBm, level 3 */ if (!INRANGE (3, new_power, 15)) new_power = 3; break; default: case POW_CLASS_3: /* power class 3, 2W, 33 dBm , level 30 */ /* highest level allowed => no cut necessary */ break; } break; } return new_power; } /* +--------------------------------------------------------------------+ | PROJECT : MODULE : ALR_RACH | | STATE : code ROUTINE : rach_send_mphc_ra_req | +--------------------------------------------------------------------+ PURPOSE : Function to send the MPHC_RA_REQ primitive. Called from function 'rach_random_req' This function handles: 1) Starts Random Burst Sending. 2) Power limitation. 3) Adds 1 to the time of RR. */ LOCAL void rach_send_mphc_ra_req (T_MPH_RANDOM_ACCESS_REQ *random_req) { GET_INSTANCE_DATA; PALLOC (ra_req, MPHC_RA_REQ); ALR_TRACE_RACH("rach_send_mphc_ra_req"); ALR_EM_START_CONNECTION_ESTABLISHMENT; /* * Start Random Burst Sending */ memcpy (alr_data->rach_data.delta, random_req->send_mode.delta, sizeof (alr_data->rach_data.delta)); memcpy (alr_data->rach_data.channel_request, random_req->send_mode.rach, sizeof (alr_data->rach_data.channel_request)); alr_data->rach_data.max_bursts = random_req->send_mode.no; alr_data->rach_data.c_burst = 0; /* * power limitation */ ra_req->txpwr = cut_power_value (alr_data->rach_data.max_tx_pwr_ccch, NULL); #ifndef TI_PS_FF_QUAD_BAND_SUPPORT ra_req->powerclass_gsm = alr_data->rach_data.ms_class; ra_req->powerclass_dcs = alr_data->rach_data.dcs_class; #endif /* * Modification: Add 1 to the time of RR !!!! */ ra_req->rand = (UBYTE)(alr_data->rach_data.delta[alr_data->rach_data.c_burst]+1); ra_req->channel_request = alr_data->rach_data.channel_request[alr_data->rach_data.c_burst++]; SET_STATE (STATE_RA, RA_ACTIVE); ma_rach_ra_req (ra_req); } #endif