7 Commits

4 changed files with 119 additions and 95 deletions

View File

@@ -304,7 +304,7 @@ fun HomeScreen(
pulseType = pulseType,
handPieceType = handPiece.type,
type = LaserStatusType.REPETITION,
angle = if (pulseType == 0 || repetitionList.size < 2) 0f else repetitionAngle,
angle = if (pulseType == 0 || repetitionList.isEmpty()) 0f else repetitionAngle,
onChange = { angle ->
if (handPiece.type == 0) {
Toast.makeText(
@@ -315,7 +315,7 @@ fun HomeScreen(
return@LaserControlView
}
if (pulseType == 0 || repetitionList.size < 2) {
if (pulseType == 0 || repetitionList.isEmpty()) {
//Toast.makeText(context, "Single pulse type (0 Hz)", Toast.LENGTH_SHORT).show()
} else {
mainViewModel.onChangeRepetition(angle)
@@ -332,7 +332,7 @@ fun HomeScreen(
return@LaserControlView
}
if (pulseType == 0 || repetitionList.size < 2) {
if (pulseType == 0 || repetitionList.isEmpty()) {
//Toast.makeText(context, "Single pulse type (0 Hz)", Toast.LENGTH_SHORT).show()
} else {
//mainViewModel.onClickRepetition(state)

View File

@@ -780,21 +780,25 @@ fun PresetLoadPopup(
.noRippleClickable(onClick = {
Timber.d("onClick - Preset Load")
val selectedPreset =
presetViewModel.getPreset(selectedPresetIndex)
val priority =
selectedPreset?.priority ?: 0
val selectedPreset = presetViewModel.getPreset(selectedPresetIndex)
if (selectedPreset == null) {
Timber.w("onClick - Preset Load: selectedPreset is null. index=$selectedPresetIndex")
return@noRippleClickable
}
val priority = selectedPreset.priority
Timber.d("onClick - Preset Load ($priority)")
// if (priority > 0) { // TODO : 검증 필요
if (priority > 0) {
mainViewModel.setSelectedPresetIndex( priority )
mainViewModel.applyPreset(priority)
} else {
// 우선순위가 NONE인 경우, 인덱스 설정 X
mainViewModel.setSelectedPresetIndex(0)
mainViewModel.applyPreset(selectedPreset)
}
presetViewModel.clearPreset()
onClick.invoke(false)
// } else {
// Timber.d("SKIP - Preset Load ($priority)")
// }
})
.size(40.px.dp)
.background(Color.Transparent)

View File

@@ -134,6 +134,7 @@ import kotlinx.coroutines.joinAll
import kotlinx.coroutines.launch
import kotlinx.coroutines.withContext
import timber.log.Timber
import kotlin.math.abs
import javax.inject.Inject
import kotlin.experimental.or
import kotlin.time.Duration.Companion.milliseconds
@@ -1105,7 +1106,7 @@ class MainViewModel @Inject constructor(
CMD.LASER_STATUS -> {
val l = packet.data.toLaserStatus()
setLaserStatus(l.copy())
// on receuve laser on (or interval) increase count and save to pref.
// on receive laser on (or interval) increase count and save to pref.
// Laser On 패킷만 counting 하도록 변경 (2개 패킷 모두 수신 됨)
if (_laserStatus.value.laserStatus == LASER_STATUS.LASER_ON /* || l.laserStatus == LASER_STATUS.INTERVAL */) {
playBeepSound()
@@ -1184,58 +1185,19 @@ class MainViewModel @Inject constructor(
setEnergyControl(EnergyControl(0x03, 0x00))
setEnergyMeasured(EnergyMeasured(0x04, 0x00, 0x00))
// hand piece 별 count 증가
when (h.type) {
1 -> { // hp 5x5
setLifeTime(
_lifeTime.value.copy(
hp5x5 = _lifeTime.value.hp5x5 + 1
)
)
saveLifeTimeToPreference()
Timber.d("_lifeTime (hp5x5): ${_lifeTime}")
}
2 -> {
setLifeTime(
_lifeTime.value.copy(
hp7x7 = _lifeTime.value.hp7x7 + 1
)
)
saveLifeTimeToPreference()
Timber.d("_lifeTime (hp7x7): ${_lifeTime}")
}
3 -> {
setLifeTime(
_lifeTime.value.copy(
hp10x10 = _lifeTime.value.hp10x10 + 1
)
)
saveLifeTimeToPreference()
Timber.d("_lifeTime (hp10x10): ${_lifeTime}")
}
4 -> {
setLifeTime(
_lifeTime.value.copy(
hp12x12 = _lifeTime.value.hp12x12 + 1
)
)
saveLifeTimeToPreference()
Timber.d("_lifeTime (hp12x12): ${_lifeTime}")
}
5 -> {
setLifeTime(
_lifeTime.value.copy(
hp3x15 = _lifeTime.value.hp3x15 + 1
)
)
saveLifeTimeToPreference()
Timber.d("_lifeTime (hp3x15): ${_lifeTime}")
}
val connectedHandPieceLifeTime = when (h.type) {
1 -> lifeTime.value.hp5x5
2 -> lifeTime.value.hp7x7
3 -> lifeTime.value.hp10x10
4 -> lifeTime.value.hp12x12
5 -> lifeTime.value.hp3x15
else -> {
Timber.d("unknwon hand piece type: ${h.type}")
Timber.d("Unknown Hand-piece type: ${h.type}")
return@launch
}
}
Timber.d("HAND_PIECE lifetime: type=${h.type}, value=${connectedHandPieceLifeTime}, hpCount=${hpCount.value}")
// hand piece가 변경 시점 에서, pref 테이블 값을 -> energyTable 로 로딩
loadFluenceTable(handPiece.value.type)
@@ -2081,28 +2043,58 @@ class MainViewModel @Inject constructor(
Timber.d("preset: ${preset}")
val newPreset = if (preset == null) {
val defaultPulseWidth = PulseDurations.first()
Preset(
handPieceType = handPiece.value.type,
priority = priority,
fluence = energyTable.value.getKey2ListForKey1(0.5f).first(),
fluence = energyTable.value.getKey2ListForKey1(defaultPulseWidth).firstOrNull() ?: 0f,
repetition = repetitionList.value.first(),
pulseWidth = PulseDurations.first(),
pulseWidth = defaultPulseWidth,
)
} else {
preset
}
applyPreset(newPreset)
}
val fluenceList = energyTable.value.getKey2ListForKey1(newPreset.pulseWidth)
fun applyPreset(preset: Preset) {
val newPreset = preset.copy()
val pulseStep = PulseDurations.indexOf(newPreset.pulseWidth).takeIf {it != -1} ?: 0
val fluenceStep = fluenceList.indexOf(newPreset.fluence).takeIf {it != -1} ?: 0
val repetitionStep = repetitionList.value.indexOf(newPreset.repetition).takeIf {it != -1} ?: 0
val resolvedPulseWidth = PulseDurations[pulseStep]
// 프리셋의 pulseWidth 기준으로 실제 사용 가능한 fluence 목록을 먼저 동기화한다.
val newFluenceList = energyTable.value.getKey2ListForKey1(resolvedPulseWidth)
if (newFluenceList != fluenceList.value) {
setFluenceList(newFluenceList)
}
// 프리셋 fluence가 정확히 없을 수 있으므로, 가장 가까운 값으로 보정한다.
val resolvedFluence = newFluenceList.minByOrNull { abs(it - newPreset.fluence) }
?: newFluenceList.firstOrNull()
?: 0f
val fluenceStep = newFluenceList.indexOf(resolvedFluence).takeIf { it != -1 } ?: 0
// 보정된 (pulseWidth, fluence) 조합으로 repetition 테이블을 다시 계산한다.
val hzType = hzTable.value.getValue(resolvedPulseWidth, resolvedFluence)
val newRepetitionList = RepetitionsByColorKey[hzType] ?: RepetitionsByColorKey[KEY_YELLOW]!!
if (newRepetitionList != repetitionList.value) {
setRepetitionList(newRepetitionList)
}
val repetitionStep = newRepetitionList.indexOf(newPreset.repetition).takeIf { it != -1 } ?: 0
Timber.d("pulseStep: ${pulseStep} fluenceStep: ${fluenceStep} repetitionStep: ${repetitionStep}")
val pulseAngle = pulseStep.stepToDegree(totalSteps = PulseDurations.size)
val fluenceAngle = fluenceStep.stepToDegree(totalSteps = fluenceList.size)
val repetitionAngle = repetitionStep.stepToDegree(totalSteps = repetitionList.value.size)
val fluenceAngle = if (newFluenceList.isNotEmpty()) {
fluenceStep.stepToDegree(totalSteps = newFluenceList.size)
} else {
0f
}
val repetitionAngle = repetitionIndexToAngle(
index = repetitionStep,
totalSteps = newRepetitionList.size,
)
Timber.d("pulseStep: ${pulseStep} fluenceStep: ${fluenceStep} repetitionStep: ${repetitionStep}")
@@ -2132,30 +2124,35 @@ class MainViewModel @Inject constructor(
setFluenceList(newFluenceList)
}
// 2-1. Resolve and apply fluence by value (not by old angle/index).
val resolvedFluence = newFluenceList.minByOrNull { abs(it - newFluence) } ?: 0f
val resolvedFluenceIndex = newFluenceList.indexOf(resolvedFluence).takeIf { it >= 0 } ?: 0
if (newFluenceList.isNotEmpty()) {
setFluenceAngle(resolvedFluenceIndex.stepToDegree(totalSteps = newFluenceList.size))
}
// 3. Safely Update Repetition List (Prevents NullPointerException)
val newHzType = hzTable.value.getValue(newPulseDuration, newFluence)
val newHzType = hzTable.value.getValue(newPulseDuration, resolvedFluence)
val newRepetitionList = RepetitionsByColorKey[newHzType] ?: RepetitionsByColorKey[KEY_YELLOW]!!
if (newRepetitionList != repetitionList.value) {
setRepetitionList(newRepetitionList)
}
// Smartly preserve Repetition Angle
// 4. Check if the old repetition value exists in the new list.
val oldRepetitionIndex = if (currentRepetitionValue != null) {
newRepetitionList.indexOf(currentRepetitionValue)
} else {
-1
}
// 4. Resolve and apply repetition by value (not by old angle/index).
val targetRepetition = currentRepetitionValue ?: 0f
val resolvedRepetition = newRepetitionList.minByOrNull { abs(it - targetRepetition) } ?: 0f
val resolvedRepetitionIndex = newRepetitionList.indexOf(resolvedRepetition).takeIf { it >= 0 } ?: 0
if (oldRepetitionIndex != -1) {
// If the old value exists, set the slider to that position.
val preservedAngle = oldRepetitionIndex.stepToDegree(totalSteps = newRepetitionList.size)
setRepetitionAngle(preservedAngle)
Timber.d("Repetition value $currentRepetitionValue preserved at new angle $preservedAngle.")
if (newRepetitionList.isNotEmpty()) {
val resolvedRepetitionAngle = repetitionIndexToAngle(
index = resolvedRepetitionIndex,
totalSteps = newRepetitionList.size,
)
setRepetitionAngle(resolvedRepetitionAngle)
Timber.d("Resolved repetition by value: old=$currentRepetitionValue, new=$resolvedRepetition, angle=$resolvedRepetitionAngle")
} else {
// If it doesn't exist, THEN reset the slider to the beginning.
setRepetitionAngle(0f)
Timber.d("Repetition value $currentRepetitionValue not supported in new list. Resetting angle.")
Timber.d("Repetition list is empty. Resetting repetition angle to 0f.")
}
// 5. Conditionally reset the fluence angle slider if needed
@@ -2168,7 +2165,7 @@ class MainViewModel @Inject constructor(
// 6. Any change invalidates the current preset selection.
setSelectedPresetIndex(0)
Timber.d("Updated Laser Parameters: pulse=$newPulseDuration, fluence=$newFluence -> newRepListSize=${newRepetitionList.size}")
Timber.d("Updated Laser Parameters: pulse=$newPulseDuration, fluence=$resolvedFluence -> newRepListSize=${newRepetitionList.size}")
}
/**
@@ -2188,13 +2185,16 @@ class MainViewModel @Inject constructor(
setPulseAngle(newPulseStep.stepToDegree(totalSteps = PulseDurations.size))
val newPulseDuration = PulseDurations[newPulseStep]
// When pulse duration changes via slider, we use the first available fluence for the new list.
val firstFluence = energyTable.value.getKey2ListForKey1(newPulseDuration).firstOrNull() ?: 0f
// Keep the current fluence value when pulse duration changes via slider.
val currentFluenceStep = fluenceAngle.value.degreeToStep(totalSteps = fluenceList.value.size)
val currentFluence = fluenceList.value.getOrNull(currentFluenceStep)
?: energyTable.value.getKey2ListForKey1(newPulseDuration).firstOrNull()
?: 0f
// Call the centralized helper, resetting the fluence slider.
// Call the centralized helper using the preserved fluence value.
updateLaserParameters(
newPulseDuration = newPulseDuration,
newFluence = firstFluence,
newFluence = currentFluence,
)
}
@@ -2206,12 +2206,17 @@ class MainViewModel @Inject constructor(
setPulseAngle(newStep.stepToDegree(totalSteps = PulseDurations.size))
val newPulseDuration = PulseDurations[newStep]
val firstFluence = energyTable.value.getKey2ListForKey1(newPulseDuration).firstOrNull() ?: 0f
// Keep the current fluence value when pulse duration changes via slider.
val currentFluenceStep = fluenceAngle.value.degreeToStep(totalSteps = fluenceList.value.size)
val currentFluence = fluenceList.value.getOrNull(currentFluenceStep)
?: energyTable.value.getKey2ListForKey1(newPulseDuration).firstOrNull()
?: 0f
// Call the centralized helper, resetting the fluence slider.
updateLaserParameters(
newPulseDuration = newPulseDuration,
newFluence = firstFluence,
newFluence = currentFluence,
)
}
}
@@ -2254,8 +2259,12 @@ class MainViewModel @Inject constructor(
fun onChangeRepetition(angle: Float) {
// This logic is simple and has no complex dependencies, so it can remain as is.
if (angle != repetitionAngle.value) {
setRepetitionAngle(angle)
val normalizedAngle = repetitionIndexToAngle(
index = angle.degreeToStep(totalSteps = repetitionList.value.size),
totalSteps = repetitionList.value.size,
)
if (normalizedAngle != repetitionAngle.value) {
setRepetitionAngle(normalizedAngle)
}
setSelectedPresetIndex(0)
}
@@ -2266,12 +2275,23 @@ class MainViewModel @Inject constructor(
val newStep = if (state == UpDownState.Up) currentStep + 1 else currentStep - 1
if (newStep in repetitionList.value.indices) {
val newRepetitionAngle = newStep.stepToDegree(totalSteps = repetitionList.value.size)
val newRepetitionAngle = repetitionIndexToAngle(
index = newStep,
totalSteps = repetitionList.value.size,
)
setRepetitionAngle(newRepetitionAngle)
setSelectedPresetIndex(0)
}
}
private fun repetitionIndexToAngle(index: Int, totalSteps: Int): Float {
return when {
totalSteps <= 0 -> 0f
totalSteps == 1 -> 270f
else -> index.stepToDegree(totalSteps = totalSteps)
}
}
/**
* Perform all heavy I/O in a single background block.
* This prevents the "Skipped frames" caused by 30+ sequential bridge calls