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/*
* Copyright (C) 2011-2017 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include "healthd_mode_charger.h"
#include <dirent.h>
#include <errno.h>
#include <fcntl.h>
#include <inttypes.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <sys/epoll.h>
#include <sys/stat.h>
#include <sys/types.h>
#include <sys/un.h>
#include <time.h>
#include <unistd.h>
#include <optional>
#include <android-base/file.h>
#include <android-base/logging.h>
#include <android-base/macros.h>
#include <android-base/strings.h>
#include <linux/netlink.h>
#include <sys/socket.h>
#include <cutils/android_get_control_file.h>
#include <cutils/klog.h>
#include <cutils/misc.h>
#include <cutils/properties.h>
#include <cutils/uevent.h>
#include <sys/reboot.h>
#include <suspend/autosuspend.h>
#include "AnimationParser.h"
#include "charger.sysprop.h"
#include "charger_utils.h"
#include "healthd_draw.h"
#include <android/hardware/health/2.0/IHealthInfoCallback.h>
#include <health/utils.h>
#include <health2impl/HalHealthLoop.h>
#include <health2impl/Health.h>
#include <healthd/healthd.h>
using std::string_literals::operator""s;
using namespace android;
using android::hardware::Return;
using android::hardware::health::GetHealthServiceOrDefault;
using android::hardware::health::HealthLoop;
using android::hardware::health::V1_0::BatteryStatus;
using android::hardware::health::V2_0::Result;
using android::hardware::health::V2_1::IHealth;
using IHealth_2_0 = android::hardware::health::V2_0::IHealth;
using HealthInfo_1_0 = android::hardware::health::V1_0::HealthInfo;
using HealthInfo_2_1 = android::hardware::health::V2_1::HealthInfo;
// main healthd loop
extern int healthd_main(void);
// minui globals
char* locale;
#ifndef max
#define max(a, b) ((a) > (b) ? (a) : (b))
#endif
#ifndef min
#define min(a, b) ((a) < (b) ? (a) : (b))
#endif
#define ARRAY_SIZE(x) (sizeof(x) / sizeof((x)[0]))
#define MSEC_PER_SEC (1000LL)
#define NSEC_PER_MSEC (1000000LL)
#define BATTERY_UNKNOWN_TIME (2 * MSEC_PER_SEC)
#define POWER_ON_KEY_TIME (2 * MSEC_PER_SEC)
#define UNPLUGGED_SHUTDOWN_TIME (10 * MSEC_PER_SEC)
#define UNPLUGGED_DISPLAY_TIME (3 * MSEC_PER_SEC)
#define MAX_BATT_LEVEL_WAIT_TIME (3 * MSEC_PER_SEC)
#define UNPLUGGED_SHUTDOWN_TIME_PROP "ro.product.charger.unplugged_shutdown_time"
#define LAST_KMSG_MAX_SZ (32 * 1024)
#define LOGE(x...) KLOG_ERROR("charger", x);
#define LOGW(x...) KLOG_WARNING("charger", x);
#define LOGV(x...) KLOG_DEBUG("charger", x);
namespace android {
// Legacy animation resources are loaded from this directory.
static constexpr const char* legacy_animation_root = "/res/images/";
// Built-in animation resources are loaded from this directory.
static constexpr const char* system_animation_root = "/system/etc/res/images/";
// Resources in /product/etc/res overrides resources in /res and /system/etc/res.
// If the device is using the Generic System Image (GSI), resources may exist in
// both paths.
static constexpr const char* product_animation_desc_path =
"/product/etc/res/values/charger/animation.txt";
static constexpr const char* product_animation_root = "/product/etc/res/images/";
static constexpr const char* animation_desc_path = "/res/values/charger/animation.txt";
static const animation BASE_ANIMATION = {
.text_clock =
{
.pos_x = 0,
.pos_y = 0,
.color_r = 255,
.color_g = 255,
.color_b = 255,
.color_a = 255,
.font = nullptr,
},
.text_percent =
{
.pos_x = 0,
.pos_y = 0,
.color_r = 255,
.color_g = 255,
.color_b = 255,
.color_a = 255,
},
.run = false,
.frames = nullptr,
.cur_frame = 0,
.num_frames = 0,
.first_frame_repeats = 2,
.cur_cycle = 0,
.num_cycles = 3,
.cur_level = 0,
.cur_status = BATTERY_STATUS_UNKNOWN,
};
void Charger::InitDefaultAnimationFrames() {
owned_frames_ = {
{
.disp_time = 750,
.min_level = 0,
.max_level = 19,
.surface = NULL,
},
{
.disp_time = 750,
.min_level = 0,
.max_level = 39,
.surface = NULL,
},
{
.disp_time = 750,
.min_level = 0,
.max_level = 59,
.surface = NULL,
},
{
.disp_time = 750,
.min_level = 0,
.max_level = 79,
.surface = NULL,
},
{
.disp_time = 750,
.min_level = 80,
.max_level = 95,
.surface = NULL,
},
{
.disp_time = 750,
.min_level = 0,
.max_level = 100,
.surface = NULL,
},
};
}
Charger::Charger(const sp<IHealth>& service)
: HalHealthLoop("charger", service), batt_anim_(BASE_ANIMATION) {}
Charger::~Charger() {}
/* current time in milliseconds */
static int64_t curr_time_ms() {
timespec tm;
clock_gettime(CLOCK_MONOTONIC, &tm);
return tm.tv_sec * MSEC_PER_SEC + (tm.tv_nsec / NSEC_PER_MSEC);
}
#define MAX_KLOG_WRITE_BUF_SZ 256
static void dump_last_kmsg(void) {
std::string buf;
char* ptr;
size_t len;
LOGW("\n");
LOGW("*************** LAST KMSG ***************\n");
LOGW("\n");
const char* kmsg[] = {
// clang-format off
"/sys/fs/pstore/console-ramoops-0",
"/sys/fs/pstore/console-ramoops",
"/proc/last_kmsg",
// clang-format on
};
for (size_t i = 0; i < arraysize(kmsg) && buf.empty(); ++i) {
auto fd = android_get_control_file(kmsg[i]);
if (fd >= 0) {
android::base::ReadFdToString(fd, &buf);
} else {
android::base::ReadFileToString(kmsg[i], &buf);
}
}
if (buf.empty()) {
LOGW("last_kmsg not found. Cold reset?\n");
goto out;
}
len = min(buf.size(), LAST_KMSG_MAX_SZ);
ptr = &buf[buf.size() - len];
while (len > 0) {
size_t cnt = min(len, MAX_KLOG_WRITE_BUF_SZ);
char yoink;
char* nl;
nl = (char*)memrchr(ptr, '\n', cnt - 1);
if (nl) cnt = nl - ptr + 1;
yoink = ptr[cnt];
ptr[cnt] = '\0';
klog_write(6, "<4>%s", ptr);
ptr[cnt] = yoink;
len -= cnt;
ptr += cnt;
}
out:
LOGW("\n");
LOGW("************* END LAST KMSG *************\n");
LOGW("\n");
}
static int request_suspend(bool enable) {
if (!android::sysprop::ChargerProperties::enable_suspend().value_or(false)) {
return 0;
}
if (enable)
return autosuspend_enable();
else
return autosuspend_disable();
}
static void kick_animation(animation* anim) {
anim->run = true;
}
static void reset_animation(animation* anim) {
anim->cur_cycle = 0;
anim->cur_frame = 0;
anim->run = false;
}
void Charger::UpdateScreenState(int64_t now) {
int disp_time;
if (!batt_anim_.run || now < next_screen_transition_) return;
// If battery level is not ready, keep checking in the defined time
if (health_info_.batteryLevel == 0 && health_info_.batteryStatus == BatteryStatus::UNKNOWN) {
if (wait_batt_level_timestamp_ == 0) {
// Set max delay time and skip drawing screen
wait_batt_level_timestamp_ = now + MAX_BATT_LEVEL_WAIT_TIME;
LOGV("[%" PRId64 "] wait for battery capacity ready\n", now);
return;
} else if (now <= wait_batt_level_timestamp_) {
// Do nothing, keep waiting
return;
}
// If timeout and battery level is still not ready, draw unknown battery
}
if (healthd_draw_ == nullptr) {
std::optional<bool> out_screen_on;
service()->shouldKeepScreenOn([&](Result res, bool screen_on) {
if (res == Result::SUCCESS) {
*out_screen_on = screen_on;
}
});
if (out_screen_on.has_value()) {
if (!*out_screen_on) {
LOGV("[%" PRId64 "] leave screen off\n", now);
batt_anim_.run = false;
next_screen_transition_ = -1;
if (charger_online()) request_suspend(true);
return;
}
}
healthd_draw_.reset(new HealthdDraw(&batt_anim_));
if (android::sysprop::ChargerProperties::disable_init_blank().value_or(false)) {
healthd_draw_->blank_screen(true);
screen_blanked_ = true;
}
}
/* animation is over, blank screen and leave */
if (batt_anim_.num_cycles > 0 && batt_anim_.cur_cycle == batt_anim_.num_cycles) {
reset_animation(&batt_anim_);
next_screen_transition_ = -1;
healthd_draw_->blank_screen(true);
screen_blanked_ = true;
LOGV("[%" PRId64 "] animation done\n", now);
if (charger_online()) request_suspend(true);
return;
}
disp_time = batt_anim_.frames[batt_anim_.cur_frame].disp_time;
if (screen_blanked_) {
healthd_draw_->blank_screen(false);
screen_blanked_ = false;
}
/* animation starting, set up the animation */
if (batt_anim_.cur_frame == 0) {
LOGV("[%" PRId64 "] animation starting\n", now);
batt_anim_.cur_level = health_info_.batteryLevel;
batt_anim_.cur_status = (int)health_info_.batteryStatus;
if (health_info_.batteryLevel >= 0 && batt_anim_.num_frames != 0) {
/* find first frame given current battery level */
for (int i = 0; i < batt_anim_.num_frames; i++) {
if (batt_anim_.cur_level >= batt_anim_.frames[i].min_level &&
batt_anim_.cur_level <= batt_anim_.frames[i].max_level) {
batt_anim_.cur_frame = i;
break;
}
}
if (charger_online()) {
// repeat the first frame first_frame_repeats times
disp_time = batt_anim_.frames[batt_anim_.cur_frame].disp_time *
batt_anim_.first_frame_repeats;
} else {
disp_time = UNPLUGGED_DISPLAY_TIME / batt_anim_.num_cycles;
}
LOGV("cur_frame=%d disp_time=%d\n", batt_anim_.cur_frame, disp_time);
}
}
/* draw the new frame (@ cur_frame) */
healthd_draw_->redraw_screen(&batt_anim_, surf_unknown_);
/* if we don't have anim frames, we only have one image, so just bump
* the cycle counter and exit
*/
if (batt_anim_.num_frames == 0 || batt_anim_.cur_level < 0) {
LOGW("[%" PRId64 "] animation missing or unknown battery status\n", now);
next_screen_transition_ = now + BATTERY_UNKNOWN_TIME;
batt_anim_.cur_cycle++;
return;
}
/* schedule next screen transition */
next_screen_transition_ = curr_time_ms() + disp_time;
/* advance frame cntr to the next valid frame only if we are charging
* if necessary, advance cycle cntr, and reset frame cntr
*/
if (charger_online()) {
batt_anim_.cur_frame++;
while (batt_anim_.cur_frame < batt_anim_.num_frames &&
(batt_anim_.cur_level < batt_anim_.frames[batt_anim_.cur_frame].min_level ||
batt_anim_.cur_level > batt_anim_.frames[batt_anim_.cur_frame].max_level)) {
batt_anim_.cur_frame++;
}
if (batt_anim_.cur_frame >= batt_anim_.num_frames) {
batt_anim_.cur_cycle++;
batt_anim_.cur_frame = 0;
/* don't reset the cycle counter, since we use that as a signal
* in a test above to check if animation is over
*/
}
} else {
/* Stop animating if we're not charging.
* If we stop it immediately instead of going through this loop, then
* the animation would stop somewhere in the middle.
*/
batt_anim_.cur_frame = 0;
batt_anim_.cur_cycle++;
}
}
int Charger::SetKeyCallback(int code, int value) {
int64_t now = curr_time_ms();
int down = !!value;
if (code > KEY_MAX) return -1;
/* ignore events that don't modify our state */
if (keys_[code].down == down) return 0;
/* only record the down even timestamp, as the amount
* of time the key spent not being pressed is not useful */
if (down) keys_[code].timestamp = now;
keys_[code].down = down;
keys_[code].pending = true;
if (down) {
LOGV("[%" PRId64 "] key[%d] down\n", now, code);
} else {
int64_t duration = now - keys_[code].timestamp;
int64_t secs = duration / 1000;
int64_t msecs = duration - secs * 1000;
LOGV("[%" PRId64 "] key[%d] up (was down for %" PRId64 ".%" PRId64 "sec)\n", now, code,
secs, msecs);
}
return 0;
}
void Charger::UpdateInputState(input_event* ev) {
if (ev->type != EV_KEY) return;
SetKeyCallback(ev->code, ev->value);
}
void Charger::SetNextKeyCheck(key_state* key, int64_t timeout) {
int64_t then = key->timestamp + timeout;
if (next_key_check_ == -1 || then < next_key_check_) next_key_check_ = then;
}
void Charger::ProcessKey(int code, int64_t now) {
key_state* key = &keys_[code];
if (code == KEY_POWER) {
if (key->down) {
int64_t reboot_timeout = key->timestamp + POWER_ON_KEY_TIME;
if (now >= reboot_timeout) {
/* We do not currently support booting from charger mode on
all devices. Check the property and continue booting or reboot
accordingly. */
if (property_get_bool("ro.enable_boot_charger_mode", false)) {
LOGW("[%" PRId64 "] booting from charger mode\n", now);
property_set("sys.boot_from_charger_mode", "1");
} else {
if (batt_anim_.cur_level >= boot_min_cap_) {
LOGW("[%" PRId64 "] rebooting\n", now);
reboot(RB_AUTOBOOT);
} else {
LOGV("[%" PRId64
"] ignore power-button press, battery level "
"less than minimum\n",
now);
}
}
} else {
/* if the key is pressed but timeout hasn't expired,
* make sure we wake up at the right-ish time to check
*/
SetNextKeyCheck(key, POWER_ON_KEY_TIME);
/* Turn on the display and kick animation on power-key press
* rather than on key release
*/
kick_animation(&batt_anim_);
request_suspend(false);
}
} else {
/* if the power key got released, force screen state cycle */
if (key->pending) {
kick_animation(&batt_anim_);
request_suspend(false);
}
}
}
key->pending = false;
}
void Charger::HandleInputState(int64_t now) {
ProcessKey(KEY_POWER, now);
if (next_key_check_ != -1 && now > next_key_check_) next_key_check_ = -1;
}
void Charger::HandlePowerSupplyState(int64_t now) {
int timer_shutdown = UNPLUGGED_SHUTDOWN_TIME;
if (!have_battery_state_) return;
if (!charger_online()) {
request_suspend(false);
if (next_pwr_check_ == -1) {
/* Last cycle would have stopped at the extreme top of battery-icon
* Need to show the correct level corresponding to capacity.
*
* Reset next_screen_transition_ to update screen immediately.
* Reset & kick animation to show complete animation cycles
* when charger disconnected.
*/
timer_shutdown =
property_get_int32(UNPLUGGED_SHUTDOWN_TIME_PROP, UNPLUGGED_SHUTDOWN_TIME);
next_screen_transition_ = now - 1;
reset_animation(&batt_anim_);
kick_animation(&batt_anim_);
next_pwr_check_ = now + timer_shutdown;
LOGW("[%" PRId64 "] device unplugged: shutting down in %" PRId64 " (@ %" PRId64 ")\n",
now, (int64_t)timer_shutdown, next_pwr_check_);
} else if (now >= next_pwr_check_) {
LOGW("[%" PRId64 "] shutting down\n", now);
reboot(RB_POWER_OFF);
} else {
/* otherwise we already have a shutdown timer scheduled */
}
} else {
/* online supply present, reset shutdown timer if set */
if (next_pwr_check_ != -1) {
/* Reset next_screen_transition_ to update screen immediately.
* Reset & kick animation to show complete animation cycles
* when charger connected again.
*/
request_suspend(false);
next_screen_transition_ = now - 1;
reset_animation(&batt_anim_);
kick_animation(&batt_anim_);
LOGW("[%" PRId64 "] device plugged in: shutdown cancelled\n", now);
}
next_pwr_check_ = -1;
}
}
void Charger::Heartbeat() {
// charger* charger = &charger_state;
int64_t now = curr_time_ms();
HandleInputState(now);
HandlePowerSupplyState(now);
/* do screen update last in case any of the above want to start
* screen transitions (animations, etc)
*/
UpdateScreenState(now);
}
void Charger::OnHealthInfoChanged(const HealthInfo_2_1& health_info) {
set_charger_online(health_info);
if (!have_battery_state_) {
have_battery_state_ = true;
next_screen_transition_ = curr_time_ms() - 1;
request_suspend(false);
reset_animation(&batt_anim_);
kick_animation(&batt_anim_);
}
health_info_ = health_info.legacy.legacy;
AdjustWakealarmPeriods(charger_online());
}
int Charger::PrepareToWait(void) {
int64_t now = curr_time_ms();
int64_t next_event = INT64_MAX;
int64_t timeout;
LOGV("[%" PRId64 "] next screen: %" PRId64 " next key: %" PRId64 " next pwr: %" PRId64 "\n",
now, next_screen_transition_, next_key_check_, next_pwr_check_);
if (next_screen_transition_ != -1) next_event = next_screen_transition_;
if (next_key_check_ != -1 && next_key_check_ < next_event) next_event = next_key_check_;
if (next_pwr_check_ != -1 && next_pwr_check_ < next_event) next_event = next_pwr_check_;
if (next_event != -1 && next_event != INT64_MAX)
timeout = max(0, next_event - now);
else
timeout = -1;
return (int)timeout;
}
int Charger::InputCallback(int fd, unsigned int epevents) {
input_event ev;
int ret;
ret = ev_get_input(fd, epevents, &ev);
if (ret) return -1;
UpdateInputState(&ev);
return 0;
}
static void charger_event_handler(HealthLoop* /*charger_loop*/, uint32_t /*epevents*/) {
int ret;
ret = ev_wait(-1);
if (!ret) ev_dispatch();
}
void Charger::InitAnimation() {
bool parse_success;
std::string content;
if (base::ReadFileToString(product_animation_desc_path, &content)) {
parse_success = parse_animation_desc(content, &batt_anim_);
batt_anim_.set_resource_root(product_animation_root);
} else if (base::ReadFileToString(animation_desc_path, &content)) {
parse_success = parse_animation_desc(content, &batt_anim_);
// Fallback resources always exist in system_animation_root. On legacy devices with an old
// ramdisk image, resources may be overridden under root. For example,
// /res/images/charger/battery_fail.png may not be the same as
// system/core/healthd/images/battery_fail.png in the source tree, but is a device-specific
// image. Hence, load from /res, and fall back to /system/etc/res.
batt_anim_.set_resource_root(legacy_animation_root, system_animation_root);
} else {
LOGW("Could not open animation description at %s\n", animation_desc_path);
parse_success = false;
}
if (!parse_success) {
LOGW("Could not parse animation description. Using default animation.\n");
batt_anim_ = BASE_ANIMATION;
batt_anim_.animation_file.assign(system_animation_root + "charger/battery_scale.png"s);
InitDefaultAnimationFrames();
batt_anim_.frames = owned_frames_.data();
batt_anim_.num_frames = owned_frames_.size();
}
if (batt_anim_.fail_file.empty()) {
batt_anim_.fail_file.assign(system_animation_root + "charger/battery_fail.png"s);
}
LOGV("Animation Description:\n");
LOGV(" animation: %d %d '%s' (%d)\n", batt_anim_.num_cycles, batt_anim_.first_frame_repeats,
batt_anim_.animation_file.c_str(), batt_anim_.num_frames);
LOGV(" fail_file: '%s'\n", batt_anim_.fail_file.c_str());
LOGV(" clock: %d %d %d %d %d %d '%s'\n", batt_anim_.text_clock.pos_x,
batt_anim_.text_clock.pos_y, batt_anim_.text_clock.color_r, batt_anim_.text_clock.color_g,
batt_anim_.text_clock.color_b, batt_anim_.text_clock.color_a,
batt_anim_.text_clock.font_file.c_str());
LOGV(" percent: %d %d %d %d %d %d '%s'\n", batt_anim_.text_percent.pos_x,
batt_anim_.text_percent.pos_y, batt_anim_.text_percent.color_r,
batt_anim_.text_percent.color_g, batt_anim_.text_percent.color_b,
batt_anim_.text_percent.color_a, batt_anim_.text_percent.font_file.c_str());
for (int i = 0; i < batt_anim_.num_frames; i++) {
LOGV(" frame %.2d: %d %d %d\n", i, batt_anim_.frames[i].disp_time,
batt_anim_.frames[i].min_level, batt_anim_.frames[i].max_level);
}
}
void Charger::Init(struct healthd_config* config) {
int ret;
int i;
int epollfd;
dump_last_kmsg();
LOGW("--------------- STARTING CHARGER MODE ---------------\n");
ret = ev_init(
std::bind(&Charger::InputCallback, this, std::placeholders::_1, std::placeholders::_2));
if (!ret) {
epollfd = ev_get_epollfd();
RegisterEvent(epollfd, &charger_event_handler, EVENT_WAKEUP_FD);
}
InitAnimation();
ret = CreateDisplaySurface(batt_anim_.fail_file, &surf_unknown_);
if (ret < 0) {
LOGE("Cannot load custom battery_fail image. Reverting to built in: %d\n", ret);
ret = CreateDisplaySurface((system_animation_root + "charger/battery_fail.png"s).c_str(),
&surf_unknown_);
if (ret < 0) {
LOGE("Cannot load built in battery_fail image\n");
surf_unknown_ = NULL;
}
}
GRSurface** scale_frames;
int scale_count;
int scale_fps; // Not in use (charger/battery_scale doesn't have FPS text
// chunk). We are using hard-coded frame.disp_time instead.
ret = CreateMultiDisplaySurface(batt_anim_.animation_file, &scale_count, &scale_fps,
&scale_frames);
if (ret < 0) {
LOGE("Cannot load battery_scale image\n");
batt_anim_.num_frames = 0;
batt_anim_.num_cycles = 1;
} else if (scale_count != batt_anim_.num_frames) {
LOGE("battery_scale image has unexpected frame count (%d, expected %d)\n", scale_count,
batt_anim_.num_frames);
batt_anim_.num_frames = 0;
batt_anim_.num_cycles = 1;
} else {
for (i = 0; i < batt_anim_.num_frames; i++) {
batt_anim_.frames[i].surface = scale_frames[i];
}
}
ev_sync_key_state(std::bind(&Charger::SetKeyCallback, this, std::placeholders::_1,
std::placeholders::_2));
next_screen_transition_ = -1;
next_key_check_ = -1;
next_pwr_check_ = -1;
wait_batt_level_timestamp_ = 0;
// Retrieve healthd_config from the existing health HAL.
HalHealthLoop::Init(config);
boot_min_cap_ = config->boot_min_cap;
}
int Charger::CreateDisplaySurface(const std::string& name, GRSurface** surface) {
return res_create_display_surface(name.c_str(), surface);
}
int Charger::CreateMultiDisplaySurface(const std::string& name, int* frames, int* fps,
GRSurface*** surface) {
return res_create_multi_display_surface(name.c_str(), frames, fps, surface);
}
void set_resource_root_for(const std::string& root, const std::string& backup_root,
std::string* value) {
if (value->empty()) {
return;
}
std::string new_value = root + *value + ".png";
// If |backup_root| is provided, additionally check whether the file under |root| is
// accessible or not. If not accessible, fallback to file under |backup_root|.
if (!backup_root.empty() && access(new_value.data(), F_OK) == -1) {
new_value = backup_root + *value + ".png";
}
*value = new_value;
}
void animation::set_resource_root(const std::string& root, const std::string& backup_root) {
CHECK(android::base::StartsWith(root, "/") && android::base::EndsWith(root, "/"))
<< "animation root " << root << " must start and end with /";
CHECK(backup_root.empty() || (android::base::StartsWith(backup_root, "/") &&
android::base::EndsWith(backup_root, "/")))
<< "animation backup root " << backup_root << " must start and end with /";
set_resource_root_for(root, backup_root, &animation_file);
set_resource_root_for(root, backup_root, &fail_file);
set_resource_root_for(root, backup_root, &text_clock.font_file);
set_resource_root_for(root, backup_root, &text_percent.font_file);
}
} // namespace android
int healthd_charger_main(int argc, char** argv) {
int ch;
while ((ch = getopt(argc, argv, "cr")) != -1) {
switch (ch) {
case 'c':
// -c is now a noop
break;
case 'r':
// -r is now a noop
break;
case '?':
default:
LOGE("Unrecognized charger option: %c\n", optopt);
exit(1);
}
}
Charger charger(GetHealthServiceOrDefault());
return charger.StartLoop();
}