FreeCalypso > hg > fc-magnetite
view src/cs/drivers/drv_app/pwr/pwr_disch.c @ 685:3fb7384e820d
tpudrv12.h: FCDEV3B goes back to being itself
A while back we had the idea of a FreeCalypso modem family whereby our
current fcdev3b target would some day morph into fcmodem, with multiple
FC modem family products, potentially either triband or quadband, being
firmware-compatible with each other and with our original FCDEV3B. But
in light of the discovery of Tango modules that earlier idea is now being
withdrawn: instead the already existing Tango hw is being adopted into
our FreeCalypso family.
Tango cannot be firmware-compatible with triband OM/FCDEV3B targets
because the original quadband RFFE on Tango modules is wired in TI's
original Leonardo arrangement. Because this Leonardo/Tango way is now
becoming the official FreeCalypso way of driving quadband RFFEs thanks
to the adoption of Tango into our FC family, our earlier idea of
extending FIC's triband RFFE control signals with TSPACT5 no longer makes
much sense - we will probably never produce any new hardware with that
once-proposed arrangement. Therefore, that triband-or-quadband FCFAM
provision is being removed from the code base, and FCDEV3B goes back to
being treated the same way as CONFIG_TARGET_GTAMODEM for RFFE control
purposes.
author | Mychaela Falconia <falcon@freecalypso.org> |
---|---|
date | Thu, 24 Sep 2020 21:03:08 +0000 |
parents | c93a236e0d50 |
children |
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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 */