view src/cs/drivers/drv_app/fchg/bsim_etm_cmd.c @ 275:79cfefc1e2b4

audio mode load: gracefully handle mode files of wrong AEC version Unfortunately our change of enabling L1_NEW_AEC (which is necessary in order to bring our Calypso ARM fw into match with the underlying DSP reality) brings along a change in the audio mode file binary format and file size - all those new tunable AEC parameters do need to be stored somewhere, after all. But we already have existing mode files in the old format, and setting AEC config to garbage when loading old audio modes (which is what would happen without the present change) is not an appealing proposition. The solution implemented in the present change is as follows: the audio mode loading code checks the file size, and if it differs from the active version of T_AUDIO_MODE, the T_AUDIO_AEC_CFG structure is cleared - set to the default (disabled AEC) for the compiled type of AEC. We got lucky in that this varying T_AUDIO_AEC_CFG structure sits at the end of T_AUDIO_MODE!
author Mychaela Falconia <falcon@freecalypso.org>
date Fri, 30 Jul 2021 02:55:48 +0000
parents aec644728174
children
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/*
 * In this module we are going to implement our handling of
 * ETM_BSIM command packets sent from a development host.
 */

#include "fchg/fchg_env.h"
#include "fchg/fchg_func_i.h"
#include "fchg/bsim_func_i.h"
#include "fchg/bsim_etm_cmd.h"
#include "rv/rv_general.h"
#include "rvf/rvf_api.h"
#include "rvm/rvm_use_id_list.h"
#include "etm/etm.h"
#include "etm/etm_api.h"

static void bsim_cmd_query(T_ETM_PKT *resp)
{
	etm_pkt_put8(resp, pwr_ctrl->state);
	etm_pkt_put8(resp,
	pwr_ctrl->batt.percent_thresh[pwr_ctrl->curr_disch_thresh].remain_capa);
	etm_pkt_put8(resp, pwr_ctrl->bsim.start_enable);
	resp->status = BSIM_STAT_OK;
}

static void bsim_cmd_discharge(T_ETM_PKT *resp, UINT8 set_percent)
{
	UINT16 i;

	switch (pwr_ctrl->state) {
	case FCHG_STATE_NO_EXT_PWR:
	case FCHG_STATE_PWR_PLUG_TIMER:
	case FCHG_STATE_READY_TO_CHARGE:
	case FCHG_STATE_READY_TO_RECHARGE:
	case FCHG_STATE_RECHARGE_TIMER:
	case FCHG_STATE_NO_CHARGING:
		break;
	default:
		resp->status = BSIM_ERR_WRONG_STATE;
		return;
	}
	for (i = 0; i < pwr_ctrl->nb_percent_thresh; i++) {
		if (pwr_ctrl->batt.percent_thresh[i].remain_capa ==
		    set_percent)
			break;
	}
	if (i >= pwr_ctrl->nb_percent_thresh) {
		resp->status = BSIM_ERR_INV_PERCENT;
		return;
	}
	if (i <= pwr_ctrl->curr_disch_thresh) {
		resp->status = BSIM_ERR_INV_DISCHARGE;
		return;
	}
	pwr_ctrl->curr_disch_thresh = i;
	if (pwr_ctrl->event_handler)
		pwr_ctrl->event_handler(FCHG_EVENT_DISCHARGE);
	resp->status = BSIM_STAT_OK;
}

static void bsim_cmd_chg_start(T_ETM_PKT *resp)
{
	switch (pwr_ctrl->state) {
	case FCHG_STATE_READY_TO_CHARGE:
	case FCHG_STATE_READY_TO_RECHARGE:
		break;
	default:
		resp->status = BSIM_ERR_WRONG_STATE;
		return;
	}
	rvf_send_trace("BSIM: simulated charging start", 30, NULL_PARAM,
			RV_TRACE_LEVEL_DEBUG_MEDIUM, FCHG_USE_ID);
	pwr_ctrl->state = FCHG_STATE_I2V_CAL_1;
	resp->status = BSIM_STAT_OK;
}

static void bsim_cmd_chg_ci2cv(T_ETM_PKT *resp)
{
	if (pwr_ctrl->state != FCHG_STATE_CI_CHARGING) {
		resp->status = BSIM_ERR_WRONG_STATE;
		return;
	}
	rvf_send_trace("BSIM: simulated charging CI->CV", 31, NULL_PARAM,
			RV_TRACE_LEVEL_DEBUG_MEDIUM, FCHG_USE_ID);
	pwr_ctrl->state = FCHG_STATE_CV_CHARGING;
	resp->status = BSIM_STAT_OK;
}

static void bsim_cmd_chg_complete(T_ETM_PKT *resp)
{
	if (pwr_ctrl->state != FCHG_STATE_CV_CHARGING) {
		resp->status = BSIM_ERR_WRONG_STATE;
		return;
	}
	rvf_send_trace("BSIM: simulated charging complete", 33, NULL_PARAM,
			RV_TRACE_LEVEL_DEBUG_MEDIUM, FCHG_USE_ID);
	pwr_init_discharge();
	pwr_ctrl->state = FCHG_STATE_READY_TO_RECHARGE;
	if (pwr_ctrl->event_handler)
		pwr_ctrl->event_handler(FCHG_EVENT_CHARGING_COMPLETE);
	resp->status = BSIM_STAT_OK;
}

static void bsim_cmd_set_ichg(T_ETM_PKT *resp, UINT16 ichg)
{
	pwr_ctrl->ci_ichg = ichg;
	pwr_ctrl->ichg_average = ichg;
	resp->status = BSIM_STAT_OK;
}

static void bsim_cmd_start_enable(T_ETM_PKT *resp, UINT8 setting)
{
	pwr_ctrl->bsim.start_enable = setting;
	resp->status = BSIM_STAT_OK;
}

void bsim_process_etm(T_ETM_DATA_READY *msg)
{
	T_ETM_PKT *resp;
	uint8 fid;

	resp = (T_ETM_PKT *) etm_malloc(sizeof(T_ETM_PKT));
	if (!resp) {
		rvf_send_trace(
		    "Unable to respond to ETM_BSIM: etm_malloc() failed", 50,
			NULL_PARAM, RV_TRACE_LEVEL_ERROR, FCHG_USE_ID);
		return;
	}
	/* init response packet */
	resp->mid = ETM_BSIM;
	resp->size = 0;
	resp->index = 0;
	/* start processing command */
	fid = msg->data[0];
	etm_pkt_put8(resp, fid);
	/* command dispatch */
	switch (fid) {
	case BSIM_CMD_QUERY:
		bsim_cmd_query(resp);
		break;
	case BSIM_CMD_DISCHARGE:
		bsim_cmd_discharge(resp, etm_get8(msg->data + 1));
		break;
	case BSIM_CMD_CHG_START:
		bsim_cmd_chg_start(resp);
		break;
	case BSIM_CMD_CHG_CI2CV:
		bsim_cmd_chg_ci2cv(resp);
		break;
	case BSIM_CMD_CHG_COMPLETE:
		bsim_cmd_chg_complete(resp);
		break;
	case BSIM_CMD_SET_ICHG:
		bsim_cmd_set_ichg(resp, etm_get16(msg->data + 1));
		break;
	case BSIM_CMD_START_ENABLE:
		bsim_cmd_start_enable(resp, etm_get8(msg->data + 1));
		break;
	default:
		resp->status = BSIM_ERR_BAD_CMD;
	}
	etm_pkt_send(resp);
	etm_free(resp);
}