device cleanup part 1

This commit is contained in:
Ken Van Hoeylandt 2026-07-26 23:57:25 +02:00
parent 03a6285328
commit d39dd4f1f6
15 changed files with 150 additions and 95 deletions

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@ -1,5 +1,6 @@
#include "tab5_headphone_detect.h" #include "tab5_headphone_detect.h"
#include <tactility/error.h>
#include <tactility/device.h> #include <tactility/device.h>
#include <tactility/drivers/gpio.h> #include <tactility/drivers/gpio.h>
#include <tactility/drivers/gpio_controller.h> #include <tactility/drivers/gpio_controller.h>
@ -10,7 +11,7 @@
#include <atomic> #include <atomic>
#define TAG "Tab5" constexpr auto* TAG = "Tab5";
// PI4IOE5V6408-0 (0x43) bit 1 // PI4IOE5V6408-0 (0x43) bit 1
constexpr auto GPIO_EXP0_PIN_SPEAKER_ENABLE = 1; constexpr auto GPIO_EXP0_PIN_SPEAKER_ENABLE = 1;
@ -28,8 +29,9 @@ static std::atomic hp_detect_initialized { false };
static void headphone_detect_callback(TimerHandle_t /*timer*/) { static void headphone_detect_callback(TimerHandle_t /*timer*/) {
Device* cached = io_expander0_cached.load(std::memory_order_acquire); Device* cached = io_expander0_cached.load(std::memory_order_acquire);
if (!cached) { if (!cached) {
cached = device_find_by_name("io_expander0"); if (device_get_by_name("io_expander0", &cached) == ERROR_NONE) {
io_expander0_cached.store(cached, std::memory_order_release); io_expander0_cached.store(cached, std::memory_order_release);
}
} }
auto* io_expander0 = cached; auto* io_expander0 = cached;
if (!io_expander0) { if (!io_expander0) {
@ -106,5 +108,10 @@ void tab5_headphone_detect_stop() {
// Always clear the handle — stale non-null handle is worse than a resource leak, as it would // Always clear the handle — stale non-null handle is worse than a resource leak, as it would
// cause tab5_headphone_detect_start() to silently skip re-creating the timer. // cause tab5_headphone_detect_start() to silently skip re-creating the timer.
hp_detect_timer = nullptr; hp_detect_timer = nullptr;
io_expander0_cached.store(nullptr, std::memory_order_release);
Device* cached = io_expander0_cached.load(std::memory_order_acquire);
if (cached) {
io_expander0_cached.store(nullptr, std::memory_order_release);
device_put(cached);
}
} }

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@ -76,8 +76,7 @@ lv_indev_t* init() {
return g_indev; return g_indev;
} }
g_device = device_find_first_active_by_type(&TDECK_TRACKBALL_TYPE); if (device_get_first_active_by_type(&TDECK_TRACKBALL_TYPE, &g_device) != ERROR_NONE) {
if (g_device == nullptr) {
LOG_E(TAG, "tdeck_trackball kernel device not found or not started"); LOG_E(TAG, "tdeck_trackball kernel device not found or not started");
return nullptr; return nullptr;
} }
@ -129,6 +128,8 @@ void deinit() {
lv_indev_delete(g_indev); lv_indev_delete(g_indev);
g_indev = nullptr; g_indev = nullptr;
device_put(g_device);
g_device = nullptr; g_device = nullptr;
g_mode = Mode::Encoder; g_mode = Mode::Encoder;

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@ -30,13 +30,18 @@ static void onBtToggled(bool requestOn) {
} }
static void onScanToggled(bool enabled) { static void onScanToggled(bool enabled) {
Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE); Device* dev;
if (!dev) return; if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) != ERROR_NONE) {
return;
}
if (enabled) { if (enabled) {
bluetooth_scan_start(dev); bluetooth_scan_start(dev);
} else { } else {
bluetooth_scan_stop(dev); bluetooth_scan_stop(dev);
} }
device_put(dev);
} }
static void onConnectPeer(const std::array<uint8_t, 6>& addr, int profileId) { static void onConnectPeer(const std::array<uint8_t, 6>& addr, int profileId) {
@ -115,8 +120,8 @@ void BtManage::onBtEvent(const struct BtEvent& event) {
case BT_EVENT_RADIO_STATE_CHANGED: case BT_EVENT_RADIO_STATE_CHANGED:
if (event.radio_state == BT_RADIO_STATE_ON) { if (event.radio_state == BT_RADIO_STATE_ON) {
getState().updatePairedPeers(); getState().updatePairedPeers();
Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE); Device* dev;
if (dev && !bluetooth_is_scanning(dev)) { if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE && !bluetooth_is_scanning(dev)) {
bluetooth_scan_start(dev); bluetooth_scan_start(dev);
} }
} }
@ -144,7 +149,9 @@ void BtManage::onShow(AppContext& app, lv_obj_t* parent) {
// Initialise state and view before subscribing to avoid incoming events // Initialise state and view before subscribing to avoid incoming events
// racing with state initialisation. // racing with state initialisation.
state.setRadioState(bluetooth::getRadioState()); state.setRadioState(bluetooth::getRadioState());
Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE); Device* dev;
device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev);
state.setScanning(dev ? bluetooth_is_scanning(dev) : false); state.setScanning(dev ? bluetooth_is_scanning(dev) : false);
state.updateScanResults(); state.updateScanResults();
state.updatePairedPeers(); state.updatePairedPeers();
@ -155,6 +162,10 @@ void BtManage::onShow(AppContext& app, lv_obj_t* parent) {
view.update(); view.update();
unlock(); unlock();
if (btDevice) {
device_put(btDevice);
}
btDevice = dev; btDevice = dev;
if (btDevice) { if (btDevice) {
bluetooth_add_event_callback(btDevice, this, onKernelBtEvent); bluetooth_add_event_callback(btDevice, this, onKernelBtEvent);
@ -175,6 +186,7 @@ void BtManage::onHide(AppContext& app) {
lock(); lock();
if (btDevice) { if (btDevice) {
bluetooth_remove_event_callback(btDevice, onKernelBtEvent); bluetooth_remove_event_callback(btDevice, onKernelBtEvent);
device_put(btDevice);
btDevice = nullptr; btDevice = nullptr;
} }
isViewEnabled = false; isViewEnabled = false;

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@ -46,8 +46,10 @@ static void onEnableOnBootParentClicked(lv_event_t* event) {
static void onScanButtonClicked(lv_event_t* event) { static void onScanButtonClicked(lv_event_t* event) {
auto bt = std::static_pointer_cast<BtManage>(getCurrentApp()); auto bt = std::static_pointer_cast<BtManage>(getCurrentApp());
Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE); Device* dev;
device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev);
bool scanning = dev ? bluetooth_is_scanning(dev) : false; bool scanning = dev ? bluetooth_is_scanning(dev) : false;
device_put(dev);
bt->getBindings().onScanToggled(!scanning); bt->getBindings().onScanToggled(!scanning);
} }

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@ -126,8 +126,12 @@ public:
} }
void onShow(AppContext& app, lv_obj_t* parent) override { void onShow(AppContext& app, lv_obj_t* parent) override {
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { {
bluetooth_add_event_callback(dev, this, onKernelBtEvent); Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_add_event_callback(dev, this, onKernelBtEvent);
device_put(dev);
}
} }
// Load stored settings (name, autoConnect) // Load stored settings (name, autoConnect)
@ -194,8 +198,10 @@ public:
} }
void onHide(AppContext& app) override { void onHide(AppContext& app) override {
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_remove_event_callback(dev, onKernelBtEvent); bluetooth_remove_event_callback(dev, onKernelBtEvent);
device_put(dev);
} }
viewEnabled = false; viewEnabled = false;
} }

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@ -436,12 +436,16 @@ void View::onEjectPressed() {
std::string mount_path = state->getSelectedChildPath(); std::string mount_path = state->getSelectedChildPath();
LOG_I(TAG, "Ejecting %s", mount_path.c_str()); LOG_I(TAG, "Ejecting %s", mount_path.c_str());
struct Device* msc_dev = device_find_first_active_by_type(&USB_HOST_MSC_TYPE); Device* msc_dev;
if (!msc_dev || !usb_msc_eject(msc_dev, mount_path.c_str())) { if (device_get_first_active_by_type(&USB_HOST_MSC_TYPE, &msc_dev) != ERROR_NONE || !usb_msc_eject(msc_dev, mount_path.c_str())) {
LOG_W(TAG, "usb_msc_eject: %s not found", mount_path.c_str()); LOG_W(TAG, "usb_msc_eject: %s not found", mount_path.c_str());
alertdialog::start("Eject failed", "Could not eject \"" + file::getLastPathSegment(mount_path) + "\"."); alertdialog::start("Eject failed", "Could not eject \"" + file::getLastPathSegment(mount_path) + "\".");
} }
if (msc_dev) {
device_put(msc_dev);
}
onNavigate(); onNavigate();
state->setEntriesForPath(state->getCurrentPath()); state->setEntriesForPath(state->getCurrentPath());
update(); update();

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@ -28,9 +28,10 @@ static uint32_t timeoutMsToIndex(uint32_t ms) {
static void applyKeyboardBacklight(bool enabled, uint8_t brightness) { static void applyKeyboardBacklight(bool enabled, uint8_t brightness) {
// TODO: Get keyboard backlight from (optional) keyboard child device // TODO: Get keyboard backlight from (optional) keyboard child device
Device* backlight = device_find_by_name("keyboard_backlight"); Device* backlight;
if (backlight != nullptr) { if (device_get_by_name("keyboard_backlight", &backlight) == ERROR_NONE) {
backlight_set_brightness(backlight, enabled ? brightness : 0); backlight_set_brightness(backlight, enabled ? brightness : 0);
device_put(backlight);
} }
} }

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@ -124,8 +124,10 @@ static void bt_event_bridge(Device*, void* /*context*/, BtEvent event) {
} }
if (has_hid_host_auto) { if (has_hid_host_auto) {
LOG_I(TAG, "HID host auto-connect peer found — starting scan"); LOG_I(TAG, "HID host auto-connect peer found — starting scan");
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_scan_start(dev); bluetooth_scan_start(dev);
device_put(dev);
} }
} else if (has_hid_device_auto) { } else if (has_hid_device_auto) {
LOG_I(TAG, "HID device auto-start (bonded peer found)"); LOG_I(TAG, "HID device auto-start (bonded peer found)");
@ -231,10 +233,12 @@ static void bt_event_bridge(Device*, void* /*context*/, BtEvent event) {
} }
} }
if (has_auto) { if (has_auto) {
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
if (!bluetooth_is_scanning(dev)) { if (!bluetooth_is_scanning(dev)) {
bluetooth_scan_start(dev); bluetooth_scan_start(dev);
} }
device_put(dev);
} }
} }
}); });
@ -337,10 +341,19 @@ const char* radioStateToString(RadioState state) {
} }
RadioState getRadioState() { RadioState getRadioState() {
Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE);
if (dev == nullptr) return RadioState::Off;
BtRadioState state = BT_RADIO_STATE_OFF; BtRadioState state = BT_RADIO_STATE_OFF;
bluetooth_get_radio_state(dev, &state);
// Scoped to safeguard dev usage
{
Device* dev;
device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev);
if (dev == nullptr) {
return RadioState::Off;
}
bluetooth_get_radio_state(dev, &state);
device_put(dev);
}
switch (state) { switch (state) {
case BT_RADIO_STATE_OFF: return RadioState::Off; case BT_RADIO_STATE_OFF: return RadioState::Off;
case BT_RADIO_STATE_ON_PENDING: return RadioState::OnPending; case BT_RADIO_STATE_ON_PENDING: return RadioState::OnPending;
@ -405,9 +418,10 @@ void pair(const std::array<uint8_t, 6>& /*addr*/) {
} }
void unpair(const std::array<uint8_t, 6>& addr) { void unpair(const std::array<uint8_t, 6>& addr) {
Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE); Device* dev;
if (dev != nullptr) { if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_unpair(dev, addr.data()); bluetooth_unpair(dev, addr.data());
device_put(dev);
} }
settings::remove(settings::addrToHex(addr)); settings::remove(settings::addrToHex(addr));
} }
@ -442,9 +456,11 @@ void disconnect(const std::array<uint8_t, 6>& addr, int profileId) {
bluetooth_hid_device_stop(dev); bluetooth_hid_device_stop(dev);
} }
} else { } else {
Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE); Device* dev;
if (dev == nullptr) return; if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_disconnect(dev, addr.data(), (BtProfileId)profileId); bluetooth_disconnect(dev, addr.data(), (BtProfileId)profileId);
device_put(dev);
}
} }
} }

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@ -499,12 +499,14 @@ static void hidHostSubscribeNext(HidHostCtx& ctx) {
} }
device.name = name; device.name = name;
settings::save(device); settings::save(device);
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
BtEvent e = {}; BtEvent e = {};
e.type = BT_EVENT_PROFILE_STATE_CHANGED; e.type = BT_EVENT_PROFILE_STATE_CHANGED;
e.profile_state.state = BT_PROFILE_STATE_CONNECTED; e.profile_state.state = BT_PROFILE_STATE_CONNECTED;
e.profile_state.profile = BT_PROFILE_HID_HOST; e.profile_state.profile = BT_PROFILE_HID_HOST;
bluetooth_fire_event(dev, e); bluetooth_fire_event(dev, e);
device_put(dev);
} }
}); });
return; return;
@ -659,13 +661,15 @@ static int hidHostGapCb(struct ble_gap_event* event, void* /*arg*/) {
} else { } else {
LOG_W(TAG, "Connect failed status=%d", event->connect.status); LOG_W(TAG, "Connect failed status=%d", event->connect.status);
hid_host_ctx.reset(); hid_host_ctx.reset();
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_set_hid_host_active(dev, false); bluetooth_set_hid_host_active(dev, false);
struct BtEvent e = {}; BtEvent e = {};
e.type = BT_EVENT_PROFILE_STATE_CHANGED; e.type = BT_EVENT_PROFILE_STATE_CHANGED;
e.profile_state.state = BT_PROFILE_STATE_IDLE; e.profile_state.state = BT_PROFILE_STATE_IDLE;
e.profile_state.profile = BT_PROFILE_HID_HOST; e.profile_state.profile = BT_PROFILE_HID_HOST;
bluetooth_fire_event(dev, e); bluetooth_fire_event(dev, e);
device_put(dev);
} }
} }
break; break;
@ -684,13 +688,15 @@ static int hidHostGapCb(struct ble_gap_event* event, void* /*arg*/) {
hid_host_mouse_btn.store(false); hid_host_mouse_btn.store(false);
hid_host_mouse_active.store(false); hid_host_mouse_active.store(false);
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_set_hid_host_active(dev, false); bluetooth_set_hid_host_active(dev, false);
struct BtEvent e = {}; struct BtEvent e = {};
e.type = BT_EVENT_PROFILE_STATE_CHANGED; e.type = BT_EVENT_PROFILE_STATE_CHANGED;
e.profile_state.state = BT_PROFILE_STATE_IDLE; e.profile_state.state = BT_PROFILE_STATE_IDLE;
e.profile_state.profile = BT_PROFILE_HID_HOST; e.profile_state.profile = BT_PROFILE_HID_HOST;
bluetooth_fire_event(dev, e); bluetooth_fire_event(dev, e);
device_put(dev);
} }
getMainDispatcher().dispatch([saved_kb, saved_mouse, saved_cursor, saved_queue] { getMainDispatcher().dispatch([saved_kb, saved_mouse, saved_cursor, saved_queue] {
@ -792,7 +798,13 @@ void hidHostConnect(const std::array<uint8_t, 6>& addr) {
} }
// Notify driver that a HID host central connection is starting. // Notify driver that a HID host central connection is starting.
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) bluetooth_set_hid_host_active(dev, true); {
Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_set_hid_host_active(dev, true);
device_put(dev);
}
}
// Look up the addr_type from the cached scan results. // Look up the addr_type from the cached scan results.
ble_addr_t ble_addr = {}; ble_addr_t ble_addr = {};
@ -812,7 +824,8 @@ void hidHostConnect(const std::array<uint8_t, 6>& addr) {
if (rc != 0) { if (rc != 0) {
LOG_W(TAG, "ble_gap_connect failed rc=%d", rc); LOG_W(TAG, "ble_gap_connect failed rc=%d", rc);
hid_host_ctx.reset(); hid_host_ctx.reset();
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
bluetooth_set_hid_host_active(dev, false); bluetooth_set_hid_host_active(dev, false);
// Fire IDLE so bt_event_bridge can start a new scan and retry. // Fire IDLE so bt_event_bridge can start a new scan and retry.
BtEvent e = {}; BtEvent e = {};
@ -820,6 +833,7 @@ void hidHostConnect(const std::array<uint8_t, 6>& addr) {
e.profile_state.state = BT_PROFILE_STATE_IDLE; e.profile_state.state = BT_PROFILE_STATE_IDLE;
e.profile_state.profile = BT_PROFILE_HID_HOST; e.profile_state.profile = BT_PROFILE_HID_HOST;
bluetooth_fire_event(dev, e); bluetooth_fire_event(dev, e);
device_put(dev);
} }
} else { } else {
LOG_I(TAG, "Connecting..."); LOG_I(TAG, "Connecting...");
@ -866,11 +880,13 @@ void autoConnectHidHost() {
auto peers = settings::loadAll(); auto peers = settings::loadAll();
for (const auto& peer : peers) { for (const auto& peer : peers) {
if (peer.autoConnect && peer.profileId == BT_PROFILE_HID_HOST) { if (peer.autoConnect && peer.profileId == BT_PROFILE_HID_HOST) {
if (Device* dev = device_find_first_active_by_type(&BLUETOOTH_TYPE)) { Device* dev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &dev) == ERROR_NONE) {
if (!bluetooth_is_scanning(dev)) { if (!bluetooth_is_scanning(dev)) {
LOG_I(TAG, "Auto-connect HID host: device not in scan, retrying scan"); LOG_I(TAG, "Auto-connect HID host: device not in scan, retrying scan");
bluetooth_scan_start(dev); bluetooth_scan_start(dev);
} }
device_put(dev);
} }
break; break;
} }

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@ -181,8 +181,11 @@ static void usbHidInputTask(void* arg) {
UsbHidEvent hid_evt; UsbHidEvent hid_evt;
if (xQueueReceive(ctx->hid_queue, &hid_evt, pdMS_TO_TICKS(100)) != pdTRUE) { if (xQueueReceive(ctx->hid_queue, &hid_evt, pdMS_TO_TICKS(100)) != pdTRUE) {
if (!ctx->subscribed) { if (!ctx->subscribed) {
struct Device* hid_dev = device_find_first_active_by_type(&USB_HOST_HID_TYPE); Device* hid_dev;
if (hid_dev) ctx->subscribed = usb_host_hid_subscribe(hid_dev, ctx->hid_queue); if (device_get_first_active_by_type(&USB_HOST_HID_TYPE, &hid_dev) == ERROR_NONE) {
ctx->subscribed = usb_host_hid_subscribe(hid_dev, ctx->hid_queue);
}
device_put(hid_dev);
} }
continue; continue;
} }
@ -303,8 +306,11 @@ void startUsbHidInput() {
return; return;
} }
struct Device* hid_dev = device_find_first_active_by_type(&USB_HOST_HID_TYPE); Device* hid_dev;
if (hid_dev) ctx->subscribed = usb_host_hid_subscribe(hid_dev, ctx->hid_queue); if (device_get_first_active_by_type(&USB_HOST_HID_TYPE, &hid_dev) == ERROR_NONE) {
ctx->subscribed = usb_host_hid_subscribe(hid_dev, ctx->hid_queue);
device_put(hid_dev);
}
ctx->running = true; ctx->running = true;
if (xTaskCreate(usbHidInputTask, "usb_hid_inp", TASK_STACK, ctx, TASK_PRIORITY, &ctx->task) != pdPASS) { if (xTaskCreate(usbHidInputTask, "usb_hid_inp", TASK_STACK, ctx, TASK_PRIORITY, &ctx->task) != pdPASS) {
@ -348,8 +354,11 @@ void stopUsbHidInput() {
ctx->task = nullptr; ctx->task = nullptr;
if (ctx->subscribed) { if (ctx->subscribed) {
struct Device* hid_dev = device_find_first_active_by_type(&USB_HOST_HID_TYPE); Device* hid_dev;
if (hid_dev) usb_host_hid_unsubscribe(hid_dev, ctx->hid_queue); if (device_get_first_active_by_type(&USB_HOST_HID_TYPE, &hid_dev) == ERROR_NONE) {
usb_host_hid_unsubscribe(hid_dev, ctx->hid_queue);
device_put(hid_dev);
}
} }
vQueueDelete(ctx->hid_queue); vQueueDelete(ctx->hid_queue);
vQueueDelete(ctx->key_queue); vQueueDelete(ctx->key_queue);

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@ -19,7 +19,7 @@ constexpr auto* TAG = "RtcTime";
Device* RtcTimeService::findRtcDevice() { Device* RtcTimeService::findRtcDevice() {
if (!rtcDevice) { if (!rtcDevice) {
rtcDevice = device_find_first_active_by_type(&RTC_TYPE); device_get_first_active_by_type(&RTC_TYPE, &rtcDevice);
} }
return rtcDevice; return rtcDevice;
} }
@ -130,6 +130,11 @@ void RtcTimeService::onStop(ServiceContext& serviceContext) {
kernel::unsubscribeSystemEvent(timeEventSubscription); kernel::unsubscribeSystemEvent(timeEventSubscription);
timeEventSubscription = 0; timeEventSubscription = 0;
} }
if (rtcDevice) {
device_put(rtcDevice);
rtcDevice = nullptr;
}
} }
extern const ServiceManifest manifest = { extern const ServiceManifest manifest = {

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@ -167,8 +167,18 @@ class StatusbarService final : public Service {
void updateBluetoothIcon() { void updateBluetoothIcon() {
auto radio_state = bluetooth::getRadioState(); auto radio_state = bluetooth::getRadioState();
Device* btdev = device_find_first_active_by_type(&BLUETOOTH_TYPE); bool scanning;
bool scanning = btdev ? bluetooth_is_scanning(btdev) : false;
{
Device* btdev;
if (device_get_first_active_by_type(&BLUETOOTH_TYPE, &btdev) == ERROR_NONE) {
scanning = bluetooth_is_scanning(btdev);
device_put(btdev);
} else {
scanning = false;
}
}
Device* serial_dev = bluetooth_serial_get_device(); Device* serial_dev = bluetooth_serial_get_device();
Device* midi_dev = bluetooth_midi_get_device(); Device* midi_dev = bluetooth_midi_get_device();
bool connected = (serial_dev && bluetooth_serial_is_connected(serial_dev)) || bool connected = (serial_dev && bluetooth_serial_is_connected(serial_dev)) ||
@ -213,10 +223,20 @@ class StatusbarService final : public Service {
} }
void updateUsbIcon() { void updateUsbIcon() {
Device* hid_dev = device_find_first_active_by_type(&USB_HOST_HID_TYPE); bool connected;
Device* midi_dev = device_find_first_active_by_type(&USB_HOST_MIDI_TYPE); {
bool connected = (hid_dev && usb_host_hid_is_connected(hid_dev)) || Device* hid_dev;
(midi_dev && usb_midi_is_connected(midi_dev)); device_get_first_active_by_type(&USB_HOST_HID_TYPE, &hid_dev);
Device* midi_dev;
device_get_first_active_by_type(&USB_HOST_MIDI_TYPE, &midi_dev);
connected = (hid_dev && usb_host_hid_is_connected(hid_dev)) ||
(midi_dev && usb_midi_is_connected(midi_dev));
device_put(hid_dev);
device_put(midi_dev);
}
if (!connected) { if (!connected) {
// MSC: scan filesystems for any mounted /usb* path // MSC: scan filesystems for any mounted /usb* path
file_system_for_each(&connected, [](struct FileSystem* fs, void* ctx) -> bool { file_system_for_each(&connected, [](struct FileSystem* fs, void* ctx) -> bool {

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@ -333,22 +333,6 @@ void device_for_each_of_type(const struct DeviceType* type, void* callback_conte
*/ */
bool device_exists_of_type(const struct DeviceType* type) ; bool device_exists_of_type(const struct DeviceType* type) ;
/**
* Find a device by its name.
*
* @param[in] name non-null device name to look up
* @return the device pointer if found, or NULL if not found
*/
struct Device* device_find_by_name(const char* name) __attribute__((deprecated("Use device_get_by_name() and device_put()")));
/**
* Find the first started device of the given type.
*
* @param[in] type non-null device type pointer
* @return the first started device of the given type, or NULL if none found
*/
struct Device* device_find_first_active_by_type(const struct DeviceType* type) __attribute__((deprecated("Use device_get_first_active_by_type() and device_put()")));
/** /**
* Find the first device of the given type. * Find the first device of the given type.
* *
@ -366,13 +350,11 @@ struct Device* device_find_first_by_type(const struct DeviceType* type) __attrib
struct Device* device_find_first_by_compatible(const char* compatible) __attribute__((deprecated("Use device_get_first_by_compatible() and device_put()"))); struct Device* device_find_first_by_compatible(const char* compatible) __attribute__((deprecated("Use device_get_first_by_compatible() and device_put()")));
/** /**
* Find a device by name and atomically take a reference on it (equivalent to a device_find_by_name() * Find a device by name and atomically take a reference on it.
* immediately followed by a successful device_get(), but race-free: the lookup and the reference * immediately followed by a successful device_get(), but race-free: the lookup and the reference
* are taken under the same lock, so a device that gets torn down concurrently either isn't found * are taken under the same lock, so a device that gets torn down concurrently either isn't found
* or is safely referenced - there is no gap where a caller could be handed a pointer that's about * or is safely referenced - there is no gap where a caller could be handed a pointer that's about
* to become invalid). Prefer this over device_find_by_name() + device_get() for any device that * to become invalid).
* might be dynamically constructed/destructed at runtime (e.g. a hot-pluggable child device),
* rather than a static devicetree-defined one.
* *
* @param[in] name non-null device name to look up * @param[in] name non-null device name to look up
* @param[out] out_device receives the found device on success; untouched on failure * @param[out] out_device receives the found device on success; untouched on failure

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@ -466,31 +466,6 @@ bool device_exists_of_type(const DeviceType* type) {
return found; return found;
} }
Device* device_find_by_name(const char* name) {
Device* found = nullptr;
ledger_lock();
for (auto* device : ledger.devices) {
if (device->name != nullptr && std::strcmp(device->name, name) == 0) {
found = device;
break;
}
}
ledger_unlock();
return found;
}
Device* device_find_first_active_by_type(const DeviceType* type) {
Device* found = nullptr;
device_for_each_of_type(type, &found, [](Device* dev, void* ctx) -> bool {
if (device_is_ready(dev)) {
*static_cast<Device**>(ctx) = dev;
return false;
}
return true;
});
return found;
}
Device* device_find_first_by_type(const DeviceType* type) { Device* device_find_first_by_type(const DeviceType* type) {
Device* found = nullptr; Device* found = nullptr;
device_for_each_of_type(type, &found, [](Device* dev, void* ctx) -> bool { device_for_each_of_type(type, &found, [](Device* dev, void* ctx) -> bool {

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@ -81,7 +81,6 @@ const struct ModuleSymbol KERNEL_SYMBOLS[] = {
DEFINE_MODULE_SYMBOL(device_for_each_child), DEFINE_MODULE_SYMBOL(device_for_each_child),
DEFINE_MODULE_SYMBOL(device_for_each_of_type), DEFINE_MODULE_SYMBOL(device_for_each_of_type),
DEFINE_MODULE_SYMBOL(device_exists_of_type), DEFINE_MODULE_SYMBOL(device_exists_of_type),
DEFINE_MODULE_SYMBOL(device_find_by_name),
DEFINE_MODULE_SYMBOL(device_find_first_active_by_type), DEFINE_MODULE_SYMBOL(device_find_first_active_by_type),
DEFINE_MODULE_SYMBOL(device_find_first_by_type), DEFINE_MODULE_SYMBOL(device_find_first_by_type),
DEFINE_MODULE_SYMBOL(device_find_first_by_compatible), DEFINE_MODULE_SYMBOL(device_find_first_by_compatible),