FreeCalypso > hg > fc-tourmaline
view src/g23m-gprs/sndcp/sndcp_suf.c @ 51:04aaa5622fa7
disable deep sleep when Iota LEDB is on
TI's Iota chip docs say that CLK13M must be running in order for
LEDB to work, and practical experience on Mot C139 which uses
Iota LEDB for its keypad backlight concurs: if Calypso enters
deep sleep while the keypad backlight is turned on, the light
flickers visibly as the chipset goes into and out of deep sleep.
TI's original L1 sleep manager code had logic to disable deep sleep
when LT_Status() returns nonzero, but that function only works
for B-Sample and C-Sample LT, always returns 0 on BOARD 41 - no
check of Iota LEDB status anywhere. Change this code for our
current hardware: disable deep sleep when Iota LEDB has been
turned on through LLS.
author | Mychaela Falconia <falcon@freecalypso.org> |
---|---|
date | Mon, 19 Oct 2020 05:11:29 +0000 |
parents | fa8dc04885d8 |
children |
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/* +----------------------------------------------------------------------------- | Project : GPRS (8441) | Modul : sndcp_suf.c +----------------------------------------------------------------------------- | 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 is part of the entity SNDCP and implements all | procedures and functions as described in the | SDL-documentation (SU-statemachine) +----------------------------------------------------------------------------- */ /*---- HISTORY --------------------------------------------------------------*/ #define ENTITY_SNDCP /*==== INCLUDES =============================================================*/ #include "typedefs.h" /* to get Condat data types */ #include "vsi.h" /* to get a lot of macros */ #include "macdef.h" #include "prim.h" /* to get the definitions of used SAP and directions */ #include "dti.h" #include "sndcp.h" /* to get the global entity definitions */ #include "sndcp_f.h" /* to get the functions to access the global arrays*/ #include "sndcp_nus.h" /* to get signals to service nu */ #include "sndcp_cias.h" /* to get signals to service cia */ /*==== CONST ================================================================*/ /*==== LOCAL VARS ===========================================================*/ /*==== PRIVATE FUNCTIONS ====================================================*/ /*==== PUBLIC FUNCTIONS =====================================================*/ #ifdef _SNDCP_DTI_2_ /* +------------------------------------------------------------------------------ | Function : su_get_nsapi +------------------------------------------------------------------------------ | Description : finde the affected nsapi in sn-PDU. | | Parameters : ll_unitdata_req* | Returns : the nsapi | +------------------------------------------------------------------------------ */ GLOBAL U8 su_get_nsapi (T_LL_UNITDESC_REQ* ll_unitdesc_req) { T_desc3* desc3 = NULL; U8 * sndcp_header = NULL; /* Get the descriptor describing the memory area with the sndcp header */ desc3 = (T_desc3*)ll_unitdesc_req->desc_list3.first; sndcp_header = (U8*)desc3->buffer; TRACE_FUNCTION( "su_get_nsapi" ); return (*(sndcp_header + ENCODE_OFFSET_BYTE)) & 0xf; } /* sua_get_nsapi() */ #else /* _SNDCP_DTI_2_ */ /* +------------------------------------------------------------------------------ | Function : su_get_nsapi +------------------------------------------------------------------------------ | Description : finde the affected nsapi in sn-PDU. | | Parameters : ll_unitdata_req* | Returns : the nsapi | +------------------------------------------------------------------------------ */ GLOBAL UBYTE su_get_nsapi (T_LL_UNITDATA_REQ* ll_unitdata_req) { USHORT octet_offset = (ll_unitdata_req->sdu.o_buf) >> 3; TRACE_FUNCTION( "su_get_nsapi" ); return ll_unitdata_req->sdu.buf[octet_offset] & 0xf; } /* su_get_nsapi() */ #endif /* _SNDCP_DTI_2_ */ /* +------------------------------------------------------------------------------ | Function : su_init +------------------------------------------------------------------------------ | Description : The function su_init() .... | | Parameters : | +------------------------------------------------------------------------------ */ GLOBAL void su_init (void) { TRACE_FUNCTION( "su_init" ); /* * Not initialized: * Members of sn_unitdata_q are not set to NULL. * Members of npdu_number_q are not set to 0. * Members of ll_unitdata_q are not set to NULL. */ sndcp_data->su = & sndcp_data->su_base[0]; INIT_STATE(SU_0, SU_LLC_NOT_RECEPTIVE); #ifdef SNDCP_2to1 sndcp_data->su->sapi = PS_SAPI_3; #else sndcp_data->su->sapi = LL_SAPI_3; #endif /*SNDCP_2to1*/ sndcp_data->su = & sndcp_data->su_base[1]; INIT_STATE(SU_1, SU_LLC_NOT_RECEPTIVE); #ifdef SNDCP_2to1 sndcp_data->su->sapi = PS_SAPI_5; #else sndcp_data->su->sapi = LL_SAPI_5; #endif /*SNDCP_2to1*/ sndcp_data->su = & sndcp_data->su_base[2]; INIT_STATE(SU_2, SU_LLC_NOT_RECEPTIVE); #ifdef SNDCP_2to1 sndcp_data->su->sapi = PS_SAPI_9; #else sndcp_data->su->sapi = LL_SAPI_9; #endif /*SNDCP_2to1*/ sndcp_data->su = & sndcp_data->su_base[3]; INIT_STATE(SU_3, SU_LLC_NOT_RECEPTIVE); #ifdef SNDCP_2to1 sndcp_data->su->sapi = PS_SAPI_11; #else sndcp_data->su->sapi = LL_SAPI_11; #endif /*SNDCP_2to1*/ { UBYTE sapi_index = 0; for (sapi_index = 0; sapi_index < SNDCP_NUMBER_OF_SAPIS; sapi_index++) { sndcp_data->su = & sndcp_data->su_base[sapi_index]; sndcp_data->su->n201_u = N201_U_DEFAULT; sndcp_data->su->sn_unitdata_q_read = 0; sndcp_data->su->sn_unitdata_q_write = 0; #ifdef _SNDCP_DTI_2_ sndcp_data->su->ll_unitdesc_q_read = 0; sndcp_data->su->ll_unitdesc_q_write = 0; #else /* _SNDCP_DTI_2_ */ sndcp_data->su->ll_unitdata_q_read = 0; sndcp_data->su->ll_unitdata_q_write = 0; #endif /* _SNDCP_DTI_2_ */ sndcp_data->su->cia_state = CIA_IDLE; } } } /* su_init() */ /* +------------------------------------------------------------------------------ | Function : su_next_sn_unitdata_req +------------------------------------------------------------------------------ | Description : If queue with sn_unitdata_req is | not empty, send SIG_SU_CIA_DATA_REQ with next prim from sn_unitdata_req queue | | Parameters : sapi | Pre : cia_state == CIA_IDLE | +------------------------------------------------------------------------------ */ GLOBAL void su_next_sn_unitdata_req (UBYTE sapi) { TRACE_FUNCTION( "su_next_sn_unitdata_req" ); if (sndcp_data->su->sn_unitdata_q_write != sndcp_data->su->sn_unitdata_q_read) { /* * Get sn_unitdata_req from queue. */ T_SN_UNITDATA_REQ* sn_unitdata_req = sndcp_data->su->sn_unitdata_q[sndcp_data->su->sn_unitdata_q_read]; /* * Get npdu_number from queue. */ USHORT npdu_num = sndcp_data->su->npdu_number_q[sndcp_data->su->sn_unitdata_q_read]; UBYTE nsapi = sn_unitdata_req->nsapi; sndcp_data->su->sn_unitdata_q[sndcp_data->su->sn_unitdata_q_read] = NULL; sndcp_data->su->sn_unitdata_q_read = (sndcp_data->su->sn_unitdata_q_read + 1 ) % SN_UNITDATA_Q_LEN; /* * Cia is now busy. Send data. */ sndcp_data->su->cia_state = CIA_BUSY; sig_su_cia_cia_comp_req(sn_unitdata_req, npdu_num, nsapi, sapi); } else if (sndcp_data->su->cia_state == CIA_IDLE) { UBYTE nsapi = 0; for (nsapi = 0; nsapi < SNDCP_NUMBER_OF_NSAPIS; nsapi++) { UBYTE used_sapi = 0; BOOL used = FALSE; sndcp_is_nsapi_used(nsapi, &used); if (used) { sndcp_get_nsapi_sapi(nsapi, &used_sapi); if (used_sapi == sapi) { sig_su_nu_ready_ind(nsapi); } } } } } /* su_next_sn_unitdata_req() */