view src/g23m-aci/uart/uart_rts.c @ 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 fa8dc04885d8
children
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/*
+-----------------------------------------------------------------------------
|  Project :
|  Modul   :
+-----------------------------------------------------------------------------
|  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 UART and implements all
|             functions to handle the incoming process internal signals as
|             described in the SDL-documentation (RT-statemachine)
+-----------------------------------------------------------------------------
*/

#ifndef UART_RTS_C
#define UART_RTS_C
#endif /* !UART_RTS_C */

#define ENTITY_UART

/*==== INCLUDES =============================================================*/

#ifdef _SIMULATION_
#include <stdio.h>
#endif

#ifdef WIN32
#include "nucleus.h"
#endif /* WIN32 */
#include "typedefs.h"   /* to get Condat data types */
#include "vsi.h"        /* to get a lot of macros */
#include "macdef.h"     /* to get a lot of macros */
#include "custom.h"
#include "gsm.h"        /* to get a lot of macros */
#include "cnf_uart.h"   /* to get cnf-definitions */
#include "mon_uart.h"   /* to get mon-definitions */
#include "prim.h"       /* to get the definitions of used SAP and directions */
#ifdef DTILIB
#include "dti.h"        /* to get dti lib */
#endif /* DTILIB */
#include "pei.h"        /* to get PEI interface */
#ifdef FF_MULTI_PORT
#include "gsi.h"        /* to get definitions of serial driver */
#else /* FF_MULTI_PORT */
#ifdef _TARGET_
#include "uart/serialswitch.h"
#include "uart/traceswitch.h"
#else /* _TARGET_ */
#include "serial_dat.h" /* to get definitions of serial driver */
#endif /* _TARGET_ */
#endif /* FF_MULTI_PORT */
#include "uart.h"       /* to get the global entity definitions */

/*==== CONST ================================================================*/

/*==== LOCAL VARS ===========================================================*/

/*==== PRIVATE FUNCTIONS ====================================================*/

/*==== PUBLIC FUNCTIONS =====================================================*/



/*
+------------------------------------------------------------------------------
| Function    : sig_ker_rt_parameters_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_KER_RT_PARAMETERS_REQ
|               This signal sets new start values for the three multiplexer
|               timers:
|               T1 - acknowledgement timer (in units of 10 ms)
|               T2 - response timer for multiplexer control channel
|                    (in units of 10 ms)
|               T3 - wake-up response timer (in seconds)
|
| Parameters  : t1 - new start value of timer T1
|               t2 - new start value of timer T2
|               t3 - new start value of timer T3
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_ker_rt_parameters_req (UBYTE t1, UBYTE t2, UBYTE t3)
{
  TRACE_ISIG( "sig_ker_rt_parameters_req" );

  /*
   * set set new start values of timers
   */
  uart_data->rt.t1 = (T_TIME)t1 * 10;
  uart_data->rt.t2 = (T_TIME)t2 * 10;
  uart_data->rt.t3 = (T_TIME)t3 * 1000;
} /* sig_ker_rt_parameters_req() */



/*
+------------------------------------------------------------------------------
| Function    : sig_ker_rt_start_t1_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_KER_RT_START_T1_REQ
|               which is used to (re-)start the timer t1
|
| Parameters  : none
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_ker_rt_start_t1_req ()
{
  TRACE_ISIG( "sig_ker_rt_start_t1_req" );

  if(TIMER_START(UART_handle, uart_data->timer_t1_index, uart_data->rt.t1 ) NEQ VSI_OK)
  {
    TRACE_ERROR_P1("VSI entity: Can't start timer t1, uart_rts.c(%d)", __LINE__);
  }

  uart_data->rt.state_t1 = UART_RT_STARTED;

} /* sig_ker_rt_start_t1_req() */



/*
+------------------------------------------------------------------------------
| Function    : sig_ker_rt_start_t2_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_KER_RT_START_T2_REQ
|               which is used to (re-)start the timer t2
|
| Parameters  : none
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_ker_rt_start_t2_req ()
{
  TRACE_ISIG( "sig_ker_rt_start_t2_req" );


  if(TIMER_START(UART_handle, uart_data->timer_t2_index, uart_data->rt.t2 ) NEQ VSI_OK)
  {
    TRACE_ERROR_P1("VSI entity: Can't start timer t2, uart_rts.c(%d)", __LINE__);
  }

  uart_data->rt.state_t2 = UART_RT_STARTED;

} /* sig_ker_rt_start_t2_req() */



/*
+------------------------------------------------------------------------------
| Function    : sig_ker_rt_start_t3_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_KER_RT_START_T3_REQ
|               which is used to (re-)start the timer t3
|
| Parameters  : none
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_ker_rt_start_t3_req ()
{
  TRACE_ISIG( "sig_ker_rt_start_t3_req" );


  if(TIMER_START(UART_handle, uart_data->timer_t3_index, uart_data->rt.t3 ) NEQ VSI_OK)
  {
    TRACE_ERROR_P1("VSI entity: Can't start timer t3, uart_rts.c(%d)", __LINE__);
  }

  uart_data->rt.state_t3 = UART_RT_STARTED;

} /* sig_ker_rt_start_t3_req() */


/*
+------------------------------------------------------------------------------
| Function    : sig_dtx_rt_start_tesd_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_DTX_RT_START_TESD_REQ
|               which is used to start the timer tesd
|
| Parameters  : tesd_value  - startvalue of TESD
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_dtx_rt_start_tesd_req (T_TIME tesd_value)
{
  TRACE_ISIG( "sig_dtx_rt_start_tesd_req" );
  /*
   * store lowest value
   */
  if (tesd_value < uart_data->rt.tesd)
  {
#ifdef _SIMULATION_
    TRACE_EVENT_P1("ESD: New start value uart_data->rt.tesd: %d", tesd_value);
#endif /* _SIMULATION_ */
    uart_data->rt.tesd = tesd_value;
  }
  /*
   * 1. This is the "first" call to sig_dtx_rt_start_tesd_req:
   *    state is UART_RT_STOPPED
   * 2. Called from sig_ker_dtx_timeout_tesd_req:
   *    state is still UART_RT_STARTED (is reset to UART_RT_STOPPED when none
   *    of the DLCs wants to restart TESD)
   */
  if (uart_data->rt.state_tesd EQ UART_RT_STOPPED)
  {
#ifdef _SIMULATION_
    TRACE_EVENT_P1("ESD: Start timer TESD( %d )", uart_data->rt.tesd);
#endif /* _SIMULATION_ */

    if(TIMER_START (UART_handle, uart_data->timer_tesd_index, uart_data->rt.tesd ) NEQ VSI_OK)
    {
      TRACE_ERROR_P1("VSI entity: Can't start timer, uart_rts.c(%d)", __LINE__);
    }
    uart_data->rt.state_tesd = UART_RT_STARTED;
  }
#ifdef _SIMULATION_
  else
  {
    TRACE_EVENT("ESD: Timer TESD will be started later !");
  }
#endif /* _SIMULATION_ */
} /* sig_dtx_rt_start_tesd_req() */


/*
+------------------------------------------------------------------------------
| Function    : sig_ker_rt_stop_t1_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_KER_RT_STOP_T1_REQ
|
| Parameters  : none
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_ker_rt_stop_t1_req ()
{
  TRACE_ISIG( "sig_ker_rt_stop_t1_req" );

  if( uart_data->rt.state_t1 EQ UART_RT_STARTED )
  {
    if(TIMER_STOP(UART_handle, uart_data->timer_t1_index ) NEQ VSI_OK)
    {
      TRACE_ERROR_P1("VSI entity: Can't stop timer t1, uartrts.c(%d)", __LINE__);
    }
  }

  uart_data->rt.state_t1 = UART_RT_STOPPED;
} /* sig_ker_rt_stop_t1_req() */



/*
+------------------------------------------------------------------------------
| Function    : sig_ker_rt_stop_t2_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_KER_RT_STOP_T2_REQ
|
| Parameters  : none
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_ker_rt_stop_t2_req ()
{
  TRACE_ISIG( "sig_ker_rt_stop_t2_req" );

  if( uart_data->rt.state_t2 EQ UART_RT_STARTED )
  {
    if(TIMER_STOP(UART_handle, uart_data->timer_t2_index ) NEQ VSI_OK)
    {
      TRACE_ERROR_P1("VSI entity: Can't stop timer t2, uart_rts.c(%d)",__LINE__);
    }
  }

  uart_data->rt.state_t2 = UART_RT_STOPPED;
} /* sig_ker_rt_stop_t2_req() */



/*
+------------------------------------------------------------------------------
| Function    : sig_ker_rt_stop_t3_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_KER_RT_STOP_T3_REQ
|
| Parameters  : none
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_ker_rt_stop_t3_req ()
{
  TRACE_ISIG( "sig_ker_rt_stop_t3_req" );

  if( uart_data->rt.state_t3 EQ UART_RT_STARTED )
  {
    if(TIMER_STOP(UART_handle, uart_data->timer_t3_index ) NEQ VSI_OK)
    {
      TRACE_ERROR_P1("VSI entity: Can't stop timer t3, uart_rts.c(%d)", __LINE__);
    }
  }

  uart_data->rt.state_t3 = UART_RT_STOPPED;
} /* sig_ker_rt_stop_t3_req() */


/*
+------------------------------------------------------------------------------
| Function    : sig_dtx_rt_stop_tesd_req
+------------------------------------------------------------------------------
| Description : Handles the internal signal SIG_DTX_RT_STOP_TESD_REQ
|
| Parameters  : none
|
+------------------------------------------------------------------------------
*/
GLOBAL void sig_dtx_rt_stop_tesd_req ()
{
  TRACE_ISIG( "sig_dtx_rt_stop_tesd_req" );

  if( uart_data->rt.state_tesd EQ UART_RT_STARTED )
  {
    if(TIMER_STOP(UART_handle, uart_data->timer_tesd_index ) NEQ VSI_OK)
    {
      TRACE_ERROR_P1("VSI entity: Can't stop timer, uart_rts.c(%d)", __LINE__);
    }
}

  uart_data->rt.state_tesd = UART_RT_STOPPED;
} /* sig_dtx_rt_stop_tesd_req() */