view src/cs/drivers/drv_app/pwr/pwr_disch.c @ 273:5caa86ee2cfa

enable L1_NEW_AEC in l1_confg.h (bold change) The AEC function implemented in DSP ROM 3606 on the Calypso silicon we work with is the one that corresponds to L1_NEW_AEC; the same holds for DSP 34 and even for DSP 33 with more recent patch versions. However, TI shipped their TCS211 reference fw with L1_NEW_AEC set to 0, thus driving AEC the old way if anyone tried to enable it, either via AT%Nxxxx or via the audio mode facility. As a result, the fw would try to control features which no longer exist in the DSP (long vs short echo and the old echo suppression level bits), while providing no way to tune the 8 new parameter words added to the DSP's NDB page. The only sensible solution is to bite the bullet and enable L1_NEW_AEC in L1 config, with fallout propagating into RiViera Audio Service T_AUDIO_AEC_CFG structure and into /aud/*.cfg binary file format. The latter fallout will be addressed in further code changes.
author Mychaela Falconia <falcon@freecalypso.org>
date Thu, 29 Jul 2021 18:32:40 +0000
parents 4e78acac3d88
children
line wrap: on
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/*******************************************************************************
 *
 * pwr_disch.c
 *
 * Purpose: This file contains functions for battery discharge management.
 *
 * (C) Texas Instruments 2001
 *
 ******************************************************************************/

#include "rv/rv_defined_swe.h"	   // for RVM_PWR_SWE

#ifdef RVM_PWR_SWE

#include "abb/abb.h"
#include "rvm/rvm_use_id_list.h"
#include "pwr/pwr_disch.h"
#include "power/power.h"
#include "spi/spi_task.h"
#include "pwr/pwr_cust.h"
#include "pwr/pwr_messages.h"
#include "spi/spi_env.h"
#include "pwr/pwr_env.h"

/* Define a pointer to the PWR Environment control block.  */
extern T_PWR_ENV_CTRL_BLK *pwr_env_ctrl_blk;




/*******************************************************************************
** Function         pwr_discharge_timer_process
**
** Description      
**
*******************************************************************************/
void pwr_discharge_timer_process(void)
{
   rvf_send_trace("TIMER3", 6, NULL_PARAM, RV_TRACE_LEVEL_DEBUG_LOW, PWR_USE_ID);
   if (SPI_GBL_INFO_PTR->is_gsm_on == TRUE)
   {
      pwr_handle_discharge(); /* battery discharge management */
   } 

}



/*******************************************************************************
** Function         pwr_handle_discharge
**
** Description      Compares the battery voltage with some thresholds and, if a 
**                  threshold is passed, sends event(s) to the upper layer.
**                  Re-start the timer with a value depending on the discharge 
**                  level.
**
*******************************************************************************/
void pwr_handle_discharge(void)
{
   UINT16 timer_value;
   UINT16 status;
   UINT16 bat_madc_voltage, bat_voltage;
   static T_PWR_PERCENT remain_capacity = 100;  /* since this variable is declared as static */
                                                /* it will keep its value from one function call to the other */
   T_PWR_PERCENT current_capacity;
  
   if (SPI_GBL_INFO_PTR->is_adc_on == FALSE) 
   {
      /* Start VBAT channel conversion by writing in the result register */
      ABB_Write_Register_on_page(PAGE0, VBATREG, 0x0000);
      rvf_delay(RVF_MS_TO_TICKS(5));
      bat_madc_voltage = ABB_Read_Register_on_page(PAGE0, VBATREG);
      rvf_send_trace("battery voltage (MADC code) ", 28, bat_madc_voltage, RV_TRACE_LEVEL_DEBUG_LOW, PWR_USE_ID);
   }
   else /* The L1 asks for ADC conversions */
   {
#ifndef _WINDOWS
      bat_madc_voltage = SPI_GBL_INFO_PTR->adc_result[0];
#else
      bat_madc_voltage = ABB_Read_Register_on_page(PAGE0, VBATREG);
#endif
   }

   /* Find the remaining capacity in the battery corresponding to this new voltage */
   bat_voltage = pwr_adc_to_mvolt(bat_madc_voltage);
   rvf_send_trace("battery voltage (mV) ", 21, bat_voltage, RV_TRACE_LEVEL_DEBUG_LOW, PWR_USE_ID);
   current_capacity = pwr_get_capacity_vs_voltage(bat_voltage);
   rvf_send_trace("current capacity (%) ", 21, current_capacity, RV_TRACE_LEVEL_DEBUG_LOW, PWR_USE_ID);

   status = ABB_Read_Status();

   /* Determine if a threshold has been passed */
   if (current_capacity != remain_capacity) 
   {
      /* a new threshold has been passed */
      remain_capacity = current_capacity;

      /* informs the upper layer */
      pwr_send_bat_discharge_event(remain_capacity);

      if (status & CHGPRES)   /* charger plugged */
      {
         if (remain_capacity == CHARGE_START_AGAIN_CAPACITY)
         {
            PWR_Charger_Plug();
         }
      }

      else  /* charger not plugged */
      {
         if(remain_capacity <= pwr_env_ctrl_blk->power_alert.remain_capa_threshold)
         {
            /* informs the upper layer that the battery is low */
            pwr_send_low_bat_event(remain_capacity);
            timer_value = SPI_TIMER3_INTERVAL_BIS; /* 10 s */
         }
         else  
         {
#ifndef _WINDOWS
            timer_value = SPI_TIMER3_INTERVAL; /* 1 minute */
#else
            timer_value = SPI_TIMER3_INTERVAL_BIS; /* 10 s */
#endif
         }

         /* Start timer with a value depending on the remaining capacity in the battery */
         rvf_start_timer (SPI_TIMER3,
                          RVF_MS_TO_TICKS (timer_value),
                          FALSE);
      }
   }

   else /* the capacity has not changed */
   {
#ifndef _WINDOWS
      timer_value = SPI_TIMER3_INTERVAL; /* 1 minute */
#else
      timer_value = SPI_TIMER3_INTERVAL_BIS; /* 10 s */
#endif

      /* Start timer with a value depending on the remaining capacity in the battery */
      rvf_start_timer (SPI_TIMER3,
                       RVF_MS_TO_TICKS (timer_value),
                       FALSE);

   }
}

#endif /* #ifdef RVM_PWR_SWE */