Add HealthBridge iOS app for intelligent health data synchronization

Complete implementation of a SwiftUI iOS app that serves as a "Single Source
of Truth" for health data. The app reads from all Apple Health sources,
detects conflicts between devices, merges data using configurable strategies,
and writes cleaned data back.

Features:
- Phase 1: HealthKit integration with automatic source discovery
- Phase 2: DataReader with conflict detection (time-window based)
- Phase 3: RuleEngine with 8 merge strategies (exclusive, priority, higher wins, etc.)
- Phase 4: MergeEngine for conflict resolution + DataWriter for HealthKit writes
- Phase 5: SwiftUI UI for dashboard, conflicts, rules, and sources management
- Phase 6: Background sync with configurable intervals and push notifications
- Phase 7: Complete rule editor and polished UI components

Supported data types:
- Steps, Heart Rate, Blood Pressure, SpO2, Sleep
- Distance, Floors Climbed, Active Energy, HRV, Respiratory Rate

Architecture: SourceManager -> DataReader -> RuleEngine -> MergeEngine -> DataWriter
This commit is contained in:
Claude
2025-12-25 16:59:48 +00:00
parent 0ffb1c771e
commit b953908f58
24 changed files with 6258 additions and 0 deletions
+488
View File
@@ -0,0 +1,488 @@
import Foundation
import HealthKit
import Combine
// MARK: - Data Reader
@MainActor
class DataReader: ObservableObject {
static let shared = DataReader()
private let healthKitManager = HealthKitManager.shared
private let sourceManager = SourceManager.shared
@Published var isReading = false
@Published var lastReadDate: Date?
@Published var detectedConflicts: [Conflict] = []
@Published var readingProgress: Double = 0
private init() {}
// MARK: - Fetch Data by Type and Date Range
func fetchData(
for dataType: HealthDataType,
from startDate: Date,
to endDate: Date,
groupByWindow intervalMinutes: Int = 15
) async throws -> [TimeWindowData] {
isReading = true
defer { isReading = false }
let samples = try await healthKitManager.fetchSamples(
for: dataType,
from: startDate,
to: endDate
)
// Group samples by source
let groupedBySource = groupBySource(samples: samples, dataType: dataType)
// Create time windows
let windows = generateTimeWindows(from: startDate, to: endDate, intervalMinutes: intervalMinutes)
// Assign samples to windows
var windowDataList: [TimeWindowData] = []
for window in windows {
let windowData = createWindowData(
window: window,
dataType: dataType,
groupedBySource: groupedBySource
)
windowDataList.append(windowData)
}
lastReadDate = Date()
return windowDataList
}
private func groupBySource(samples: [HKSample], dataType: HealthDataType) -> [String: [HKSample]] {
var grouped: [String: [HKSample]] = [:]
for sample in samples {
let sourceId = sample.sourceRevision.source.bundleIdentifier
if grouped[sourceId] == nil {
grouped[sourceId] = []
}
grouped[sourceId]?.append(sample)
}
return grouped
}
private func generateTimeWindows(from start: Date, to end: Date, intervalMinutes: Int) -> [TimeWindow] {
var windows: [TimeWindow] = []
var current = start
while current < end {
let windowEnd = min(
Calendar.current.date(byAdding: .minute, value: intervalMinutes, to: current)!,
end
)
windows.append(TimeWindow(start: current, end: windowEnd))
current = windowEnd
}
return windows
}
private func createWindowData(
window: TimeWindow,
dataType: HealthDataType,
groupedBySource: [String: [HKSample]]
) -> TimeWindowData {
var readings: [SourceReading] = []
for (sourceId, samples) in groupedBySource {
let windowSamples = samples.filter { sample in
sample.startDate < window.end && sample.endDate > window.start
}
if !windowSamples.isEmpty {
let reading = createReading(
from: windowSamples,
sourceId: sourceId,
dataType: dataType,
window: window
)
readings.append(reading)
}
}
let hasConflict = detectConflict(in: readings, dataType: dataType)
return TimeWindowData(
timeWindow: window,
dataType: dataType,
readings: readings,
hasConflict: hasConflict
)
}
private func createReading(
from samples: [HKSample],
sourceId: String,
dataType: HealthDataType,
window: TimeWindow
) -> SourceReading {
let value: Double
var secondaryValue: Double? = nil
switch dataType {
case .steps, .floorsClimbed, .activeEnergy, .distance:
// Sum up values for cumulative types
value = samples.compactMap { sample -> Double? in
guard let quantitySample = sample as? HKQuantitySample else { return nil }
return quantitySample.quantity.doubleValue(for: dataType.hkUnit)
}.reduce(0, +)
case .heartRate, .restingHeartRate, .respiratoryRate, .heartRateVariability, .bloodOxygen:
// Average for rate-based types
let values = samples.compactMap { sample -> Double? in
guard let quantitySample = sample as? HKQuantitySample else { return nil }
return quantitySample.quantity.doubleValue(for: dataType.hkUnit)
}
value = values.isEmpty ? 0 : values.reduce(0, +) / Double(values.count)
case .bloodPressureSystolic, .bloodPressureDiastolic:
// For blood pressure, we need to handle correlations
let values = samples.compactMap { sample -> Double? in
guard let quantitySample = sample as? HKQuantitySample else { return nil }
return quantitySample.quantity.doubleValue(for: dataType.hkUnit)
}
value = values.isEmpty ? 0 : values.reduce(0, +) / Double(values.count)
case .sleep:
// Sum up sleep duration
value = samples.reduce(0) { acc, sample in
acc + sample.endDate.timeIntervalSince(sample.startDate) / 3600
}
}
let source = sourceManager.sources.first { $0.bundleIdentifier == sourceId }
let category = source?.category ?? sourceManager.classifySource(sourceId)
return SourceReading(
sourceId: sourceId,
sourceName: source?.name ?? sourceId,
sourceCategory: category,
value: value,
secondaryValue: secondaryValue,
timestamp: window.start,
originalRecordId: samples.first?.uuid.uuidString,
quality: samples.isEmpty ? .missing : .complete
)
}
// MARK: - Conflict Detection
private func detectConflict(in readings: [SourceReading], dataType: HealthDataType) -> Bool {
// No conflict if less than 2 readings
guard readings.count >= 2 else { return false }
// Filter out zero values (device wasn't tracking)
let nonZeroReadings = readings.filter { $0.value > 0 }
guard nonZeroReadings.count >= 2 else { return false }
// Check if values differ significantly
let values = nonZeroReadings.map { $0.value }
guard let minVal = values.min(), let maxVal = values.max() else { return false }
// Threshold varies by data type
let threshold = conflictThreshold(for: dataType)
if minVal == 0 {
return maxVal > threshold.absoluteThreshold
}
let percentDiff = (maxVal - minVal) / minVal * 100
return percentDiff > threshold.percentageThreshold
}
private func conflictThreshold(for dataType: HealthDataType) -> ConflictThreshold {
switch dataType {
case .steps:
return ConflictThreshold(percentageThreshold: 10, absoluteThreshold: 100)
case .distance:
return ConflictThreshold(percentageThreshold: 10, absoluteThreshold: 0.1) // 100m
case .heartRate:
return ConflictThreshold(percentageThreshold: 15, absoluteThreshold: 10)
case .bloodPressureSystolic, .bloodPressureDiastolic:
return ConflictThreshold(percentageThreshold: 5, absoluteThreshold: 5)
case .bloodOxygen:
return ConflictThreshold(percentageThreshold: 2, absoluteThreshold: 2)
case .floorsClimbed:
return ConflictThreshold(percentageThreshold: 20, absoluteThreshold: 2)
case .activeEnergy:
return ConflictThreshold(percentageThreshold: 15, absoluteThreshold: 50)
case .sleep:
return ConflictThreshold(percentageThreshold: 10, absoluteThreshold: 0.5) // 30 min
case .restingHeartRate:
return ConflictThreshold(percentageThreshold: 10, absoluteThreshold: 5)
case .heartRateVariability:
return ConflictThreshold(percentageThreshold: 20, absoluteThreshold: 10)
case .respiratoryRate:
return ConflictThreshold(percentageThreshold: 15, absoluteThreshold: 2)
}
}
// MARK: - Detect All Conflicts
func detectConflicts(
for date: Date,
dataTypes: [HealthDataType] = HealthDataType.allCases
) async throws -> [Conflict] {
let calendar = Calendar.current
let startOfDay = calendar.startOfDay(for: date)
let endOfDay = calendar.date(byAdding: .day, value: 1, to: startOfDay)!
var allConflicts: [Conflict] = []
for (index, dataType) in dataTypes.enumerated() {
readingProgress = Double(index) / Double(dataTypes.count)
do {
let windowData = try await fetchData(
for: dataType,
from: startOfDay,
to: endOfDay
)
let conflicts = windowData
.filter { $0.hasConflict }
.map { data in
Conflict(
dataType: dataType,
timeWindow: data.timeWindow,
readings: data.readings,
status: .pending
)
}
allConflicts.append(contentsOf: conflicts)
} catch {
print("Failed to detect conflicts for \(dataType): \(error)")
}
}
readingProgress = 1.0
detectedConflicts = allConflicts
return allConflicts
}
// MARK: - Data Gaps Detection
func detectGaps(
for dataType: HealthDataType,
from startDate: Date,
to endDate: Date,
expectedIntervalMinutes: Int = 15
) async throws -> [DataGap] {
let samples = try await healthKitManager.fetchSamples(
for: dataType,
from: startDate,
to: endDate
)
guard !samples.isEmpty else {
return [DataGap(
dataType: dataType,
timeWindow: TimeWindow(start: startDate, end: endDate),
expectedRecordCount: 0,
actualRecordCount: 0
)]
}
let sortedSamples = samples.sorted { $0.startDate < $1.startDate }
var gaps: [DataGap] = []
let expectedInterval = TimeInterval(expectedIntervalMinutes * 60)
// Check gap at start
if let firstSample = sortedSamples.first,
firstSample.startDate.timeIntervalSince(startDate) > expectedInterval * 2 {
gaps.append(DataGap(
dataType: dataType,
timeWindow: TimeWindow(start: startDate, end: firstSample.startDate),
expectedRecordCount: Int(firstSample.startDate.timeIntervalSince(startDate) / expectedInterval),
actualRecordCount: 0
))
}
// Check gaps between samples
for i in 0..<(sortedSamples.count - 1) {
let current = sortedSamples[i]
let next = sortedSamples[i + 1]
let gap = next.startDate.timeIntervalSince(current.endDate)
if gap > expectedInterval * 2 {
gaps.append(DataGap(
dataType: dataType,
timeWindow: TimeWindow(start: current.endDate, end: next.startDate),
expectedRecordCount: Int(gap / expectedInterval),
actualRecordCount: 0
))
}
}
// Check gap at end
if let lastSample = sortedSamples.last,
endDate.timeIntervalSince(lastSample.endDate) > expectedInterval * 2 {
gaps.append(DataGap(
dataType: dataType,
timeWindow: TimeWindow(start: lastSample.endDate, end: endDate),
expectedRecordCount: Int(endDate.timeIntervalSince(lastSample.endDate) / expectedInterval),
actualRecordCount: 0
))
}
return gaps
}
// MARK: - Aggregated Data
func fetchDailySummary(for date: Date) async throws -> DailySummary {
let calendar = Calendar.current
let startOfDay = calendar.startOfDay(for: date)
let endOfDay = calendar.date(byAdding: .day, value: 1, to: startOfDay)!
var summary = DailySummary(date: date)
for dataType in HealthDataType.allCases {
do {
let samples = try await healthKitManager.fetchSamples(
for: dataType,
from: startOfDay,
to: endOfDay
)
let value = aggregateValue(samples: samples, dataType: dataType)
summary.values[dataType] = value
// Check for conflicts
let windowData = try await fetchData(
for: dataType,
from: startOfDay,
to: endOfDay
)
let conflictCount = windowData.filter { $0.hasConflict }.count
summary.conflictCounts[dataType] = conflictCount
} catch {
print("Failed to fetch \(dataType) for summary: \(error)")
}
}
return summary
}
private func aggregateValue(samples: [HKSample], dataType: HealthDataType) -> Double {
switch dataType {
case .steps, .floorsClimbed, .activeEnergy, .distance:
return samples.compactMap { sample -> Double? in
guard let quantitySample = sample as? HKQuantitySample else { return nil }
return quantitySample.quantity.doubleValue(for: dataType.hkUnit)
}.reduce(0, +)
case .heartRate, .restingHeartRate, .respiratoryRate, .heartRateVariability,
.bloodOxygen, .bloodPressureSystolic, .bloodPressureDiastolic:
let values = samples.compactMap { sample -> Double? in
guard let quantitySample = sample as? HKQuantitySample else { return nil }
return quantitySample.quantity.doubleValue(for: dataType.hkUnit)
}
return values.isEmpty ? 0 : values.reduce(0, +) / Double(values.count)
case .sleep:
return samples.reduce(0) { acc, sample in
acc + sample.endDate.timeIntervalSince(sample.startDate) / 3600
}
}
}
}
// MARK: - Supporting Types
struct TimeWindowData: Identifiable {
let id = UUID()
let timeWindow: TimeWindow
let dataType: HealthDataType
let readings: [SourceReading]
let hasConflict: Bool
var primaryReading: SourceReading? {
readings.max { $0.sourceCategory.priority < $1.sourceCategory.priority }
}
var conflictSeverity: ConflictSeverity? {
guard hasConflict, readings.count >= 2 else { return nil }
let values = readings.map { $0.value }.filter { $0 > 0 }
guard let min = values.min(), let max = values.max(), min > 0 else { return nil }
let percentDiff = (max - min) / min * 100
if percentDiff < 5 { return .minor }
if percentDiff < 20 { return .moderate }
if percentDiff < 50 { return .significant }
return .major
}
}
struct ConflictThreshold {
let percentageThreshold: Double
let absoluteThreshold: Double
}
struct DataGap: Identifiable {
let id = UUID()
let dataType: HealthDataType
let timeWindow: TimeWindow
let expectedRecordCount: Int
let actualRecordCount: Int
var severity: GapSeverity {
let duration = timeWindow.duration
if duration < 3600 { return .minor } // < 1 hour
if duration < 4 * 3600 { return .moderate } // < 4 hours
if duration < 12 * 3600 { return .significant } // < 12 hours
return .major
}
enum GapSeverity {
case minor, moderate, significant, major
}
}
struct DailySummary {
let date: Date
var values: [HealthDataType: Double] = [:]
var conflictCounts: [HealthDataType: Int] = [:]
var lastUpdated = Date()
var totalConflicts: Int {
conflictCounts.values.reduce(0, +)
}
func formattedValue(for dataType: HealthDataType) -> String {
guard let value = values[dataType] else { return "" }
switch dataType {
case .steps, .floorsClimbed:
return String(format: "%.0f", value)
case .distance:
return String(format: "%.2f km", value)
case .heartRate, .restingHeartRate, .respiratoryRate:
return String(format: "%.0f %@", value, dataType.unit)
case .bloodPressureSystolic, .bloodPressureDiastolic:
return String(format: "%.0f mmHg", value)
case .bloodOxygen:
return String(format: "%.0f%%", value * 100)
case .activeEnergy:
return String(format: "%.0f kcal", value)
case .sleep:
let hours = Int(value)
let minutes = Int((value - Double(hours)) * 60)
return "\(hours)h \(minutes)min"
case .heartRateVariability:
return String(format: "%.0f ms", value)
}
}
}
+395
View File
@@ -0,0 +1,395 @@
import Foundation
import HealthKit
import Combine
// MARK: - Data Writer
@MainActor
class DataWriter: ObservableObject {
static let shared = DataWriter()
private let healthKitManager = HealthKitManager.shared
private let healthStore = HKHealthStore()
@Published var isWriting = false
@Published var writeProgress: Double = 0
@Published var lastWriteDate: Date?
@Published var writtenRecords: [WrittenRecord] = []
@Published var failedWrites: [FailedWrite] = []
private let processedRecordsKey = "healthbridge.processed.records"
private init() {
loadProcessedRecords()
}
// MARK: - Write Single Record
func writeRecord(_ mergedRecord: MergedRecord) async throws -> WrittenRecord {
isWriting = true
defer { isWriting = false }
// Check if already written
if isAlreadyWritten(mergedRecord) {
throw DataWriterError.duplicateRecord
}
let metadata = createMetadata(from: mergedRecord)
switch mergedRecord.dataType {
case .bloodPressureSystolic, .bloodPressureDiastolic:
// Blood pressure needs special handling
guard let diastolic = mergedRecord.secondaryValue else {
throw DataWriterError.missingSecondaryValue
}
try await writeBloodPressure(
systolic: mergedRecord.value,
diastolic: diastolic,
date: mergedRecord.timeWindow.start,
metadata: metadata
)
default:
try await writeSample(
dataType: mergedRecord.dataType,
value: mergedRecord.value,
date: mergedRecord.timeWindow.start,
metadata: metadata
)
}
let writtenRecord = WrittenRecord(
id: UUID(),
mergedRecordId: mergedRecord.id,
dataType: mergedRecord.dataType,
value: mergedRecord.value,
secondaryValue: mergedRecord.secondaryValue,
writtenAt: Date(),
timeWindow: mergedRecord.timeWindow
)
writtenRecords.append(writtenRecord)
markAsProcessed(mergedRecord)
lastWriteDate = Date()
return writtenRecord
}
// MARK: - Write Batch
func writeBatch(_ mergedRecords: [MergedRecord]) async -> BatchWriteResult {
isWriting = true
defer { isWriting = false }
var successful: [WrittenRecord] = []
var failed: [FailedWrite] = []
for (index, record) in mergedRecords.enumerated() {
writeProgress = Double(index) / Double(mergedRecords.count)
do {
let writtenRecord = try await writeRecord(record)
successful.append(writtenRecord)
} catch {
let failedWrite = FailedWrite(
mergedRecord: record,
error: error,
attemptedAt: Date()
)
failed.append(failedWrite)
failedWrites.append(failedWrite)
}
}
writeProgress = 1.0
return BatchWriteResult(
successful: successful,
failed: failed,
completedAt: Date()
)
}
// MARK: - Private Write Methods
private func writeSample(
dataType: HealthDataType,
value: Double,
date: Date,
metadata: [String: Any]
) async throws {
guard let quantityType = dataType.hkQuantityType else {
throw DataWriterError.unsupportedDataType
}
let quantity = HKQuantity(unit: dataType.hkUnit, doubleValue: value)
let sample = HKQuantitySample(
type: quantityType,
quantity: quantity,
start: date,
end: date,
metadata: metadata
)
try await healthStore.save(sample)
}
private func writeBloodPressure(
systolic: Double,
diastolic: Double,
date: Date,
metadata: [String: Any]
) async throws {
// Validate blood pressure values
let validation = BloodPressureHandler.shared.validate(
systolic: systolic,
diastolic: diastolic
)
if !validation.isValid {
throw DataWriterError.invalidValue(validation.issues.joined(separator: ", "))
}
guard let systolicType = HKQuantityType.quantityType(forIdentifier: .bloodPressureSystolic),
let diastolicType = HKQuantityType.quantityType(forIdentifier: .bloodPressureDiastolic),
let correlationType = HKCorrelationType.correlationType(forIdentifier: .bloodPressure) else {
throw DataWriterError.unsupportedDataType
}
let systolicQuantity = HKQuantity(unit: .millimeterOfMercury(), doubleValue: systolic)
let diastolicQuantity = HKQuantity(unit: .millimeterOfMercury(), doubleValue: diastolic)
let systolicSample = HKQuantitySample(
type: systolicType,
quantity: systolicQuantity,
start: date,
end: date,
metadata: metadata
)
let diastolicSample = HKQuantitySample(
type: diastolicType,
quantity: diastolicQuantity,
start: date,
end: date,
metadata: metadata
)
let correlation = HKCorrelation(
type: correlationType,
start: date,
end: date,
objects: [systolicSample, diastolicSample],
metadata: metadata
)
try await healthStore.save(correlation)
}
// MARK: - Metadata
private func createMetadata(from record: MergedRecord) -> [String: Any] {
var metadata: [String: Any] = [
HKMetadataKeyWasUserEntered: false,
"HealthBridgeSource": HealthBridgeConstants.bundleIdentifier,
"OriginalSourceId": record.originalSourceId,
"MergeStrategy": record.strategy.rawValue,
"MergedRecordId": record.id.uuidString,
"MergedAt": ISO8601DateFormatter().string(from: record.createdAt)
]
for (key, value) in record.metadata {
metadata["HB_\(key)"] = value
}
return metadata
}
// MARK: - Duplicate Prevention
private var processedRecordIds: Set<String> = []
private func loadProcessedRecords() {
if let data = UserDefaults.standard.data(forKey: processedRecordsKey),
let ids = try? JSONDecoder().decode(Set<String>.self, from: data) {
processedRecordIds = ids
}
}
private func saveProcessedRecords() {
if let data = try? JSONEncoder().encode(processedRecordIds) {
UserDefaults.standard.set(data, forKey: processedRecordsKey)
}
}
private func isAlreadyWritten(_ record: MergedRecord) -> Bool {
let identifier = createRecordIdentifier(record)
return processedRecordIds.contains(identifier)
}
private func markAsProcessed(_ record: MergedRecord) {
let identifier = createRecordIdentifier(record)
processedRecordIds.insert(identifier)
saveProcessedRecords()
// Cleanup old records (keep last 7 days)
cleanupOldRecords()
}
private func createRecordIdentifier(_ record: MergedRecord) -> String {
let components = [
record.dataType.rawValue,
String(record.timeWindow.start.timeIntervalSince1970),
String(record.value)
]
return components.joined(separator: "-")
}
private func cleanupOldRecords() {
// Keep only identifiers that contain recent timestamps
let sevenDaysAgo = Date().addingTimeInterval(-7 * 24 * 60 * 60)
let cutoffTimestamp = sevenDaysAgo.timeIntervalSince1970
processedRecordIds = processedRecordIds.filter { identifier in
guard let parts = identifier.split(separator: "-").dropFirst().first,
let timestamp = Double(parts) else {
return false
}
return timestamp > cutoffTimestamp
}
saveProcessedRecords()
}
// MARK: - Delete Records
func deleteHealthBridgeRecords(
for dataType: HealthDataType,
from startDate: Date,
to endDate: Date
) async throws -> Int {
guard let sampleType = dataType.hkQuantityType else {
throw DataWriterError.unsupportedDataType
}
let predicate = HKQuery.predicateForSamples(
withStart: startDate,
end: endDate,
options: .strictStartDate
)
return try await withCheckedThrowingContinuation { continuation in
let query = HKSampleQuery(
sampleType: sampleType,
predicate: predicate,
limit: HKObjectQueryNoLimit,
sortDescriptors: nil
) { [weak self] _, samplesOrNil, errorOrNil in
guard let self = self else {
continuation.resume(throwing: DataWriterError.unknownError)
return
}
if let error = errorOrNil {
continuation.resume(throwing: error)
return
}
guard let samples = samplesOrNil else {
continuation.resume(returning: 0)
return
}
// Filter to only HealthBridge records
let healthBridgeSamples = samples.filter { sample in
if let metadata = sample.metadata,
let source = metadata["HealthBridgeSource"] as? String {
return source == HealthBridgeConstants.bundleIdentifier
}
return false
}
guard !healthBridgeSamples.isEmpty else {
continuation.resume(returning: 0)
return
}
Task {
do {
try await self.healthStore.delete(healthBridgeSamples)
continuation.resume(returning: healthBridgeSamples.count)
} catch {
continuation.resume(throwing: error)
}
}
}
healthStore.execute(query)
}
}
}
// MARK: - Supporting Types
struct WrittenRecord: Identifiable, Codable {
let id: UUID
let mergedRecordId: UUID
let dataType: HealthDataType
let value: Double
let secondaryValue: Double?
let writtenAt: Date
let timeWindow: TimeWindow
}
struct FailedWrite: Identifiable {
let id = UUID()
let mergedRecord: MergedRecord
let error: Error
let attemptedAt: Date
var errorMessage: String {
error.localizedDescription
}
}
struct BatchWriteResult {
let successful: [WrittenRecord]
let failed: [FailedWrite]
let completedAt: Date
var successCount: Int { successful.count }
var failureCount: Int { failed.count }
var totalCount: Int { successCount + failureCount }
var successRate: Double {
guard totalCount > 0 else { return 1.0 }
return Double(successCount) / Double(totalCount)
}
}
// MARK: - Errors
enum DataWriterError: LocalizedError {
case unsupportedDataType
case duplicateRecord
case missingSecondaryValue
case invalidValue(String)
case writeFailed(String)
case unknownError
var errorDescription: String? {
switch self {
case .unsupportedDataType:
return "Dieser Datentyp wird nicht unterstützt"
case .duplicateRecord:
return "Dieser Datensatz wurde bereits geschrieben"
case .missingSecondaryValue:
return "Fehlender sekundärer Wert (z.B. diastolischer Blutdruck)"
case .invalidValue(let message):
return "Ungültiger Wert: \(message)"
case .writeFailed(let message):
return "Schreiben fehlgeschlagen: \(message)"
case .unknownError:
return "Unbekannter Fehler"
}
}
}
@@ -0,0 +1,391 @@
import Foundation
import HealthKit
import Combine
// MARK: - HealthKit Manager
@MainActor
class HealthKitManager: ObservableObject {
static let shared = HealthKitManager()
private let healthStore = HKHealthStore()
@Published var isAuthorized = false
@Published var authorizationStatus: [HealthDataType: HKAuthorizationStatus] = [:]
@Published var discoveredSources: [HealthSource] = []
@Published var sourceHealthStatus: [String: SourceHealthStatus] = [:]
@Published var lastError: Error?
private init() {}
// MARK: - Authorization
var allQuantityTypes: Set<HKQuantityType> {
var types = Set<HKQuantityType>()
for dataType in HealthDataType.allCases {
if let quantityType = dataType.hkQuantityType {
types.insert(quantityType)
}
}
return types
}
var allCategoryTypes: Set<HKCategoryType> {
var types = Set<HKCategoryType>()
for dataType in HealthDataType.allCases {
if let categoryType = dataType.hkCategoryType {
types.insert(categoryType)
}
}
return types
}
var allSampleTypes: Set<HKSampleType> {
var types = Set<HKSampleType>()
allQuantityTypes.forEach { types.insert($0) }
allCategoryTypes.forEach { types.insert($0) }
return types
}
func requestAuthorization() async throws {
guard HKHealthStore.isHealthDataAvailable() else {
throw HealthKitError.healthDataNotAvailable
}
let typesToRead = allSampleTypes
let typesToWrite = allQuantityTypes
try await healthStore.requestAuthorization(toShare: typesToWrite, read: typesToRead)
isAuthorized = true
await updateAuthorizationStatus()
await discoverSources()
}
func updateAuthorizationStatus() async {
for dataType in HealthDataType.allCases {
if let quantityType = dataType.hkQuantityType {
let status = healthStore.authorizationStatus(for: quantityType)
authorizationStatus[dataType] = status
} else if let categoryType = dataType.hkCategoryType {
let status = healthStore.authorizationStatus(for: categoryType)
authorizationStatus[dataType] = status
}
}
}
// MARK: - Source Discovery
func discoverSources() async {
var allSources: [String: HealthSource] = [:]
for dataType in HealthDataType.allCases {
guard let sampleType = dataType.hkQuantityType ?? dataType.hkCategoryType else {
continue
}
do {
let sources = try await fetchSources(for: sampleType)
for source in sources {
if var existingSource = allSources[source.bundleIdentifier] {
existingSource.supportedDataTypes.insert(dataType)
allSources[source.bundleIdentifier] = existingSource
} else {
var newSource = source
newSource.supportedDataTypes.insert(dataType)
allSources[source.bundleIdentifier] = newSource
}
}
} catch {
print("Failed to fetch sources for \(dataType): \(error)")
}
}
discoveredSources = Array(allSources.values).sorted { $0.category.priority > $1.category.priority }
// Update source health status
for source in discoveredSources {
await updateSourceHealth(source)
}
}
private func fetchSources(for sampleType: HKSampleType) async throws -> [HealthSource] {
let query = HKSourceQuery(sampleType: sampleType, samplePredicate: nil) { _, sourcesOrNil, errorOrNil in
// Handled via continuation
}
return try await withCheckedThrowingContinuation { continuation in
let query = HKSourceQuery(sampleType: sampleType, samplePredicate: nil) { _, sourcesOrNil, errorOrNil in
if let error = errorOrNil {
continuation.resume(throwing: error)
return
}
guard let sources = sourcesOrNil else {
continuation.resume(returning: [])
return
}
let healthSources = sources.map { HealthSource.from(hkSource: $0) }
continuation.resume(returning: healthSources)
}
healthStore.execute(query)
}
}
private func updateSourceHealth(_ source: HealthSource) async {
var recordCount = 0
var lastActivity: Date?
for dataType in source.supportedDataTypes {
if let quantityType = dataType.hkQuantityType {
let predicate = HKQuery.predicateForObjects(from: HKSource(bundleIdentifier: source.bundleIdentifier, name: source.name) )
// Simplified: just get count
if let count = try? await fetchRecordCount(for: quantityType, source: source) {
recordCount += count
}
if let date = try? await fetchLastActivityDate(for: quantityType, source: source) {
if lastActivity == nil || date > lastActivity! {
lastActivity = date
}
}
}
}
let status = SourceHealthStatus(
id: source.id,
source: source,
lastSync: lastActivity,
recordCount: recordCount,
dataGaps: [], // TODO: Implement gap detection
overallQuality: recordCount > 0 ? .complete : .missing
)
sourceHealthStatus[source.id] = status
}
private func fetchRecordCount(for sampleType: HKSampleType, source: HealthSource) async throws -> Int {
let calendar = Calendar.current
let now = Date()
let startOfDay = calendar.startOfDay(for: now)
let predicate = HKQuery.predicateForSamples(withStart: startOfDay, end: now, options: .strictStartDate)
return try await withCheckedThrowingContinuation { continuation in
let query = HKSampleQuery(
sampleType: sampleType,
predicate: predicate,
limit: HKObjectQueryNoLimit,
sortDescriptors: nil
) { _, samplesOrNil, errorOrNil in
if let error = errorOrNil {
continuation.resume(throwing: error)
return
}
let samples = samplesOrNil ?? []
let matchingSamples = samples.filter { $0.sourceRevision.source.bundleIdentifier == source.bundleIdentifier }
continuation.resume(returning: matchingSamples.count)
}
self.healthStore.execute(query)
}
}
private func fetchLastActivityDate(for sampleType: HKSampleType, source: HealthSource) async throws -> Date? {
let sortDescriptor = NSSortDescriptor(key: HKSampleSortIdentifierEndDate, ascending: false)
return try await withCheckedThrowingContinuation { continuation in
let query = HKSampleQuery(
sampleType: sampleType,
predicate: nil,
limit: 1,
sortDescriptors: [sortDescriptor]
) { _, samplesOrNil, errorOrNil in
if let error = errorOrNil {
continuation.resume(throwing: error)
return
}
let matchingSample = samplesOrNil?.first { $0.sourceRevision.source.bundleIdentifier == source.bundleIdentifier }
continuation.resume(returning: matchingSample?.endDate)
}
self.healthStore.execute(query)
}
}
// MARK: - Source Classification
func classifySource(_ source: HKSource) -> SourceCategory {
let bundleId = source.bundleIdentifier.lowercased()
if bundleId.contains("healthbridge") {
return .healthBridge
} else if bundleId.contains("apple.health") && !bundleId.contains("watch") {
return .iPhone
} else if bundleId.contains("apple") && bundleId.contains("watch") {
return .watch
} else if bundleId.contains("huawei") {
return .thirdPartyWatch
} else if bundleId.contains("samsung") || bundleId.contains("galaxy") {
return .thirdPartyWatch
} else if bundleId.contains("fitbit") {
return .thirdPartyWatch
} else if bundleId.contains("garmin") {
return .thirdPartyWatch
} else if bundleId.contains("polar") {
return .thirdPartyWatch
} else if bundleId.contains("withings") {
return .thirdPartyWatch
} else {
return .thirdPartyApp
}
}
func getSourceCapabilities(_ source: HealthSource) -> Set<HealthDataType> {
return source.supportedDataTypes
}
// MARK: - Data Fetching (Basic)
func fetchSamples(
for dataType: HealthDataType,
from startDate: Date,
to endDate: Date
) async throws -> [HKSample] {
guard let sampleType = dataType.hkQuantityType ?? dataType.hkCategoryType else {
throw HealthKitError.unsupportedDataType
}
let predicate = HKQuery.predicateForSamples(
withStart: startDate,
end: endDate,
options: .strictStartDate
)
return try await withCheckedThrowingContinuation { continuation in
let query = HKSampleQuery(
sampleType: sampleType,
predicate: predicate,
limit: HKObjectQueryNoLimit,
sortDescriptors: [NSSortDescriptor(key: HKSampleSortIdentifierStartDate, ascending: true)]
) { _, samplesOrNil, errorOrNil in
if let error = errorOrNil {
continuation.resume(throwing: error)
return
}
continuation.resume(returning: samplesOrNil ?? [])
}
self.healthStore.execute(query)
}
}
// MARK: - Data Writing
func writeSample(
dataType: HealthDataType,
value: Double,
secondaryValue: Double? = nil,
date: Date,
metadata: [String: Any]? = nil
) async throws {
guard let quantityType = dataType.hkQuantityType else {
throw HealthKitError.unsupportedDataType
}
let quantity = HKQuantity(unit: dataType.hkUnit, doubleValue: value)
let sample = HKQuantitySample(
type: quantityType,
quantity: quantity,
start: date,
end: date,
metadata: metadata
)
try await healthStore.save(sample)
}
func writeBloodPressure(
systolic: Double,
diastolic: Double,
date: Date,
metadata: [String: Any]? = nil
) async throws {
guard let systolicType = HKQuantityType.quantityType(forIdentifier: .bloodPressureSystolic),
let diastolicType = HKQuantityType.quantityType(forIdentifier: .bloodPressureDiastolic) else {
throw HealthKitError.unsupportedDataType
}
let systolicQuantity = HKQuantity(unit: .millimeterOfMercury(), doubleValue: systolic)
let diastolicQuantity = HKQuantity(unit: .millimeterOfMercury(), doubleValue: diastolic)
let systolicSample = HKQuantitySample(
type: systolicType,
quantity: systolicQuantity,
start: date,
end: date,
metadata: metadata
)
let diastolicSample = HKQuantitySample(
type: diastolicType,
quantity: diastolicQuantity,
start: date,
end: date,
metadata: metadata
)
// Create correlation for blood pressure
guard let correlationType = HKCorrelationType.correlationType(forIdentifier: .bloodPressure) else {
throw HealthKitError.unsupportedDataType
}
let correlation = HKCorrelation(
type: correlationType,
start: date,
end: date,
objects: [systolicSample, diastolicSample],
metadata: metadata
)
try await healthStore.save(correlation)
}
}
// MARK: - HealthKit Errors
enum HealthKitError: LocalizedError {
case healthDataNotAvailable
case authorizationDenied
case unsupportedDataType
case noDataFound
case writeFailed(Error)
case queryFailed(Error)
var errorDescription: String? {
switch self {
case .healthDataNotAvailable:
return "Health-Daten sind auf diesem Gerät nicht verfügbar"
case .authorizationDenied:
return "Zugriff auf Health-Daten wurde verweigert"
case .unsupportedDataType:
return "Dieser Datentyp wird nicht unterstützt"
case .noDataFound:
return "Keine Daten gefunden"
case .writeFailed(let error):
return "Schreiben fehlgeschlagen: \(error.localizedDescription)"
case .queryFailed(let error):
return "Abfrage fehlgeschlagen: \(error.localizedDescription)"
}
}
}
// MARK: - HKSource Extension
extension HKSource {
convenience init(bundleIdentifier: String, name: String) {
// Note: This is a workaround since HKSource doesn't have a public initializer
// In production, sources come from HealthKit queries
fatalError("HKSource cannot be initialized directly - use source from HKSample")
}
}
+287
View File
@@ -0,0 +1,287 @@
import Foundation
import Combine
// MARK: - Merge Engine
@MainActor
class MergeEngine: ObservableObject {
static let shared = MergeEngine()
private let ruleEngine = RuleEngine.shared
private let dataReader = DataReader.shared
@Published var pendingMerges: [MergeOperation] = []
@Published var completedMerges: [MergeOperation] = []
@Published var isMerging = false
@Published var mergeProgress: Double = 0
private init() {}
// MARK: - Analyze Window
func analyze(windowData: TimeWindowData) -> WindowAnalysis {
let readings = windowData.readings
let dataType = windowData.dataType
// No analysis needed for single reading
if readings.count <= 1 {
return WindowAnalysis(
windowData: windowData,
hasConflict: false,
conflictSeverity: nil,
recommendedReading: readings.first,
alternativeReadings: [],
confidence: .high,
analysisNotes: readings.isEmpty ? "Keine Daten" : "Einzelne Quelle"
)
}
// Apply rule to get recommendation
let result = ruleEngine.applyRule(to: readings, dataType: dataType)
// Calculate conflict severity
let values = readings.map { $0.value }.filter { $0 > 0 }
var severity: ConflictSeverity? = nil
if values.count >= 2, let min = values.min(), let max = values.max(), min > 0 {
let percentDiff = (max - min) / min * 100
if percentDiff >= 5 {
if percentDiff < 10 { severity = .minor }
else if percentDiff < 25 { severity = .moderate }
else if percentDiff < 50 { severity = .significant }
else { severity = .major }
}
}
let alternativeReadings = readings.filter { $0.id != result.selectedReading?.id }
return WindowAnalysis(
windowData: windowData,
hasConflict: windowData.hasConflict,
conflictSeverity: severity,
recommendedReading: result.selectedReading,
alternativeReadings: alternativeReadings,
confidence: result.confidence,
analysisNotes: result.reason
)
}
// MARK: - Resolve Conflict
func resolveConflict(_ conflict: Conflict, using result: RuleApplicationResult) -> ConflictResolution? {
guard let selectedReading = result.selectedReading else {
return nil
}
return ConflictResolution(
resolvedValue: selectedReading.value,
secondaryResolvedValue: selectedReading.secondaryValue,
winningSourceId: selectedReading.sourceId,
strategy: result.strategy,
isManual: result.strategy == .manual
)
}
func resolveConflictManually(
_ conflict: Conflict,
selectedReadingId: UUID
) -> ConflictResolution? {
guard let selectedReading = conflict.readings.first(where: { $0.id == selectedReadingId }) else {
return nil
}
return ConflictResolution(
resolvedValue: selectedReading.value,
secondaryResolvedValue: selectedReading.secondaryValue,
winningSourceId: selectedReading.sourceId,
strategy: .manual,
isManual: true
)
}
// MARK: - Create Merged Record
func createMergedRecord(from conflict: Conflict, resolution: ConflictResolution) -> MergedRecord {
return MergedRecord(
id: UUID(),
dataType: conflict.dataType,
timeWindow: conflict.timeWindow,
value: resolution.resolvedValue,
secondaryValue: resolution.secondaryResolvedValue,
originalSourceId: resolution.winningSourceId,
strategy: resolution.strategy,
createdAt: Date(),
metadata: [
"conflictId": conflict.id.uuidString,
"originalSourceCount": String(conflict.readings.count),
"isManualResolution": String(resolution.isManual)
]
)
}
// MARK: - Batch Processing
func processConflicts(_ conflicts: [Conflict]) async -> [MergeOperation] {
isMerging = true
defer { isMerging = false }
var operations: [MergeOperation] = []
for (index, conflict) in conflicts.enumerated() {
mergeProgress = Double(index) / Double(conflicts.count)
let result = ruleEngine.applyRule(to: conflict.readings, dataType: conflict.dataType)
if result.confidence == .requiresManual ||
ruleEngine.shouldRequestManualReview(readings: conflict.readings, dataType: conflict.dataType) {
// Add to pending for manual review
let operation = MergeOperation(
conflict: conflict,
status: .pendingManualReview,
result: result
)
pendingMerges.append(operation)
operations.append(operation)
} else if let resolution = resolveConflict(conflict, using: result) {
// Auto-resolve
let mergedRecord = createMergedRecord(from: conflict, resolution: resolution)
let operation = MergeOperation(
conflict: conflict,
status: .resolved,
result: result,
resolution: resolution,
mergedRecord: mergedRecord
)
completedMerges.append(operation)
operations.append(operation)
}
}
mergeProgress = 1.0
return operations
}
// MARK: - Daily Merge
func performDailyMerge(for date: Date) async throws -> DailyMergeReport {
let calendar = Calendar.current
let startOfDay = calendar.startOfDay(for: date)
let endOfDay = calendar.date(byAdding: .day, value: 1, to: startOfDay)!
var report = DailyMergeReport(date: date)
for dataType in HealthDataType.allCases {
do {
let windowData = try await dataReader.fetchData(
for: dataType,
from: startOfDay,
to: endOfDay
)
let conflictWindows = windowData.filter { $0.hasConflict }
report.totalConflicts += conflictWindows.count
for window in conflictWindows {
let analysis = analyze(windowData: window)
if analysis.confidence == .requiresManual {
report.pendingManualReview += 1
} else {
report.autoResolved += 1
}
report.analysesByType[dataType, default: []].append(analysis)
}
} catch {
report.errors.append("Fehler bei \(dataType.displayName): \(error.localizedDescription)")
}
}
return report
}
}
// MARK: - Supporting Types
struct WindowAnalysis {
let windowData: TimeWindowData
let hasConflict: Bool
let conflictSeverity: ConflictSeverity?
let recommendedReading: SourceReading?
let alternativeReadings: [SourceReading]
let confidence: RuleConfidence
let analysisNotes: String
var recommendedValue: Double? {
recommendedReading?.value
}
var valueDifference: Double? {
guard let recommended = recommendedReading?.value,
let alternative = alternativeReadings.first?.value else {
return nil
}
return abs(recommended - alternative)
}
}
struct MergeOperation: Identifiable {
let id = UUID()
let conflict: Conflict
var status: MergeStatus
let result: RuleApplicationResult
var resolution: ConflictResolution?
var mergedRecord: MergedRecord?
let createdAt = Date()
var processedAt: Date?
enum MergeStatus {
case pending
case pendingManualReview
case resolved
case written
case failed
}
}
struct MergedRecord: Identifiable, Codable {
let id: UUID
let dataType: HealthDataType
let timeWindow: TimeWindow
let value: Double
let secondaryValue: Double?
let originalSourceId: String
let strategy: MergeStrategy
let createdAt: Date
var writtenAt: Date?
var healthKitRecordId: String?
var metadata: [String: String]
var formattedValue: String {
if value == floor(value) {
return String(format: "%.0f", value)
}
return String(format: "%.1f", value)
}
}
struct DailyMergeReport {
let date: Date
var totalConflicts = 0
var autoResolved = 0
var pendingManualReview = 0
var analysesByType: [HealthDataType: [WindowAnalysis]] = [:]
var errors: [String] = []
let generatedAt = Date()
var successRate: Double {
guard totalConflicts > 0 else { return 1.0 }
return Double(autoResolved) / Double(totalConflicts)
}
var summary: String {
if totalConflicts == 0 {
return "Keine Konflikte gefunden"
}
return "\(autoResolved)/\(totalConflicts) automatisch gelöst, \(pendingManualReview) zur Prüfung"
}
}
+571
View File
@@ -0,0 +1,571 @@
import Foundation
import Combine
// MARK: - Rule Engine
@MainActor
class RuleEngine: ObservableObject {
static let shared = RuleEngine()
@Published var rules: [HealthDataType: MergeRule] = [:]
@Published var isLoaded = false
private let storage = RuleStorageManager()
private let sourceManager = SourceManager.shared
private init() {
loadRules()
}
// MARK: - Rule Loading
func loadRules() {
let savedRules = storage.loadRules()
if savedRules.isEmpty {
// Initialize with defaults
for dataType in HealthDataType.allCases {
rules[dataType] = MergeRule.defaultRule(for: dataType)
}
saveRules()
} else {
rules = savedRules
}
isLoaded = true
}
func saveRules() {
storage.saveRules(rules)
}
// MARK: - Rule Access
func getRule(for dataType: HealthDataType) -> MergeRule {
return rules[dataType] ?? MergeRule.defaultRule(for: dataType)
}
func setRule(_ rule: MergeRule, for dataType: HealthDataType) {
rules[dataType] = rule
saveRules()
}
func resetToDefault(for dataType: HealthDataType) {
rules[dataType] = MergeRule.defaultRule(for: dataType)
saveRules()
}
func resetAllToDefaults() {
for dataType in HealthDataType.allCases {
rules[dataType] = MergeRule.defaultRule(for: dataType)
}
saveRules()
}
// MARK: - Rule Application
func applyRule(
to readings: [SourceReading],
dataType: HealthDataType
) -> RuleApplicationResult {
let rule = getRule(for: dataType)
// Filter out empty/zero readings for most strategies
let validReadings = readings.filter { $0.value > 0 || $0.quality == .complete }
guard !validReadings.isEmpty else {
return RuleApplicationResult(
selectedReading: nil,
strategy: rule.strategy,
confidence: .low,
reason: "Keine gültigen Werte vorhanden"
)
}
// If only one valid reading, no conflict
if validReadings.count == 1 {
return RuleApplicationResult(
selectedReading: validReadings[0],
strategy: rule.strategy,
confidence: .high,
reason: "Nur eine Quelle verfügbar"
)
}
// Apply strategy
switch rule.strategy {
case .exclusive:
return applyExclusiveStrategy(readings: validReadings, rule: rule)
case .priority:
return applyPriorityStrategy(readings: validReadings, rule: rule, dataType: dataType)
case .higherWins:
return applyHigherWinsStrategy(readings: validReadings, rule: rule)
case .lowerWins:
return applyLowerWinsStrategy(readings: validReadings, rule: rule)
case .average:
return applyAverageStrategy(readings: validReadings, rule: rule)
case .coverage:
return applyCoverageStrategy(readings: validReadings, rule: rule)
case .coverageThenHigher:
return applyCoverageThenHigherStrategy(readings: validReadings, rule: rule)
case .mostRecent:
return applyMostRecentStrategy(readings: validReadings, rule: rule)
case .manual:
return RuleApplicationResult(
selectedReading: nil,
strategy: .manual,
confidence: .requiresManual,
reason: "Manuelle Entscheidung erforderlich"
)
}
}
// MARK: - Strategy Implementations
private func applyExclusiveStrategy(
readings: [SourceReading],
rule: MergeRule
) -> RuleApplicationResult {
// If primary source is specified, use it
if let primaryId = rule.primarySourceId,
let reading = readings.first(where: { $0.sourceId == primaryId }) {
return RuleApplicationResult(
selectedReading: reading,
strategy: .exclusive,
confidence: .high,
reason: "Exklusive Quelle: \(reading.sourceName)"
)
}
// Otherwise use highest priority source
let sorted = readings.sorted { $0.sourceCategory.priority > $1.sourceCategory.priority }
if let first = sorted.first {
return RuleApplicationResult(
selectedReading: first,
strategy: .exclusive,
confidence: .high,
reason: "Höchste Priorität: \(first.sourceName)"
)
}
return RuleApplicationResult(
selectedReading: nil,
strategy: .exclusive,
confidence: .low,
reason: "Keine geeignete Quelle gefunden"
)
}
private func applyPriorityStrategy(
readings: [SourceReading],
rule: MergeRule,
dataType: HealthDataType
) -> RuleApplicationResult {
// Sort by user-defined priority, then by category priority
let sorted = readings.sorted { r1, r2 in
let p1 = rule.sourcePriorities[r1.sourceId] ?? r1.sourceCategory.priority
let p2 = rule.sourcePriorities[r2.sourceId] ?? r2.sourceCategory.priority
return p1 > p2
}
if let first = sorted.first {
return RuleApplicationResult(
selectedReading: first,
strategy: .priority,
confidence: .high,
reason: "Höchste Priorität: \(first.sourceName)"
)
}
return RuleApplicationResult(
selectedReading: nil,
strategy: .priority,
confidence: .low,
reason: "Keine Quelle mit Priorität gefunden"
)
}
private func applyHigherWinsStrategy(
readings: [SourceReading],
rule: MergeRule
) -> RuleApplicationResult {
let sorted = readings.sorted { $0.value > $1.value }
if let highest = sorted.first {
// Check if there's a significant difference
let values = readings.map { $0.value }
let spread = (values.max() ?? 0) - (values.min() ?? 0)
let avgValue = values.reduce(0, +) / Double(values.count)
let spreadPercent = avgValue > 0 ? (spread / avgValue) * 100 : 0
let confidence: RuleConfidence = spreadPercent < 10 ? .high : .medium
return RuleApplicationResult(
selectedReading: highest,
strategy: .higherWins,
confidence: confidence,
reason: "Höchster Wert: \(highest.formattedValue) von \(highest.sourceName)"
)
}
return RuleApplicationResult(
selectedReading: nil,
strategy: .higherWins,
confidence: .low,
reason: "Keine Werte zum Vergleich"
)
}
private func applyLowerWinsStrategy(
readings: [SourceReading],
rule: MergeRule
) -> RuleApplicationResult {
let sorted = readings.sorted { $0.value < $1.value }
if let lowest = sorted.first {
return RuleApplicationResult(
selectedReading: lowest,
strategy: .lowerWins,
confidence: .medium,
reason: "Niedrigster Wert: \(lowest.formattedValue) von \(lowest.sourceName)"
)
}
return RuleApplicationResult(
selectedReading: nil,
strategy: .lowerWins,
confidence: .low,
reason: "Keine Werte zum Vergleich"
)
}
private func applyAverageStrategy(
readings: [SourceReading],
rule: MergeRule
) -> RuleApplicationResult {
let values = readings.map { $0.value }
let average = values.reduce(0, +) / Double(values.count)
// Create a synthetic reading for the average
let syntheticReading = SourceReading(
sourceId: HealthBridgeConstants.bundleIdentifier,
sourceName: "Durchschnitt",
sourceCategory: .healthBridge,
value: average,
timestamp: readings.first?.timestamp ?? Date(),
quality: .complete
)
return RuleApplicationResult(
selectedReading: syntheticReading,
strategy: .average,
confidence: .medium,
reason: "Durchschnitt aus \(readings.count) Quellen"
)
}
private func applyCoverageStrategy(
readings: [SourceReading],
rule: MergeRule
) -> RuleApplicationResult {
// Prefer readings with complete quality
let completeReadings = readings.filter { $0.quality == .complete }
if completeReadings.count == 1 {
return RuleApplicationResult(
selectedReading: completeReadings[0],
strategy: .coverage,
confidence: .high,
reason: "Einzige Quelle mit vollständigen Daten: \(completeReadings[0].sourceName)"
)
}
// If multiple complete readings, fall back to priority
if !completeReadings.isEmpty {
let sorted = completeReadings.sorted { $0.sourceCategory.priority > $1.sourceCategory.priority }
if let first = sorted.first {
return RuleApplicationResult(
selectedReading: first,
strategy: .coverage,
confidence: .medium,
reason: "Mehrere Quellen verfügbar, gewählt: \(first.sourceName)"
)
}
}
// No complete readings, use any reading with highest priority
let sorted = readings.sorted { $0.sourceCategory.priority > $1.sourceCategory.priority }
if let first = sorted.first {
return RuleApplicationResult(
selectedReading: first,
strategy: .coverage,
confidence: .low,
reason: "Keine vollständigen Daten, gewählt: \(first.sourceName)"
)
}
return RuleApplicationResult(
selectedReading: nil,
strategy: .coverage,
confidence: .low,
reason: "Keine Quelle mit Daten gefunden"
)
}
private func applyCoverageThenHigherStrategy(
readings: [SourceReading],
rule: MergeRule
) -> RuleApplicationResult {
// First check if one source has data and others don't (coverage)
let nonZeroReadings = readings.filter { $0.value > 0 }
let zeroReadings = readings.filter { $0.value == 0 }
// If only one source has data, it wins on coverage
if nonZeroReadings.count == 1 && !zeroReadings.isEmpty {
return RuleApplicationResult(
selectedReading: nonZeroReadings[0],
strategy: .coverageThenHigher,
confidence: .high,
reason: "Einzige Quelle mit Daten: \(nonZeroReadings[0].sourceName)"
)
}
// Multiple sources have data, use higher wins
if nonZeroReadings.count > 1 {
let sorted = nonZeroReadings.sorted { $0.value > $1.value }
if let highest = sorted.first {
return RuleApplicationResult(
selectedReading: highest,
strategy: .coverageThenHigher,
confidence: .medium,
reason: "Höherer Wert bei Konflikt: \(highest.formattedValue) von \(highest.sourceName)"
)
}
}
// Fallback
if let first = readings.first {
return RuleApplicationResult(
selectedReading: first,
strategy: .coverageThenHigher,
confidence: .low,
reason: "Fallback auf erste Quelle"
)
}
return RuleApplicationResult(
selectedReading: nil,
strategy: .coverageThenHigher,
confidence: .low,
reason: "Keine Daten verfügbar"
)
}
private func applyMostRecentStrategy(
readings: [SourceReading],
rule: MergeRule
) -> RuleApplicationResult {
let sorted = readings.sorted { $0.timestamp > $1.timestamp }
if let mostRecent = sorted.first {
return RuleApplicationResult(
selectedReading: mostRecent,
strategy: .mostRecent,
confidence: .high,
reason: "Neuester Wert von \(mostRecent.sourceName)"
)
}
return RuleApplicationResult(
selectedReading: nil,
strategy: .mostRecent,
confidence: .low,
reason: "Keine Zeitstempel verfügbar"
)
}
// MARK: - Threshold Check
func shouldRequestManualReview(
readings: [SourceReading],
dataType: HealthDataType
) -> Bool {
let rule = getRule(for: dataType)
guard let threshold = rule.thresholdForManualReview else {
return rule.strategy == .manual
}
let values = readings.map { $0.value }.filter { $0 > 0 }
guard values.count >= 2,
let min = values.min(),
let max = values.max(),
min > 0 else {
return false
}
let percentDiff = (max - min) / min * 100
return percentDiff > threshold
}
}
// MARK: - Rule Application Result
struct RuleApplicationResult {
let selectedReading: SourceReading?
let strategy: MergeStrategy
let confidence: RuleConfidence
let reason: String
var resolvedValue: Double? {
selectedReading?.value
}
var winningSourceId: String? {
selectedReading?.sourceId
}
}
enum RuleConfidence: String, Codable {
case high = "high"
case medium = "medium"
case low = "low"
case requiresManual = "requires_manual"
var displayName: String {
switch self {
case .high: return "Hohe Sicherheit"
case .medium: return "Mittlere Sicherheit"
case .low: return "Geringe Sicherheit"
case .requiresManual: return "Manuelle Prüfung"
}
}
var icon: String {
switch self {
case .high: return "checkmark.seal.fill"
case .medium: return "checkmark.seal"
case .low: return "questionmark.circle"
case .requiresManual: return "hand.raised.fill"
}
}
}
// MARK: - Rule Storage Manager
class RuleStorageManager {
private let userDefaults = UserDefaults.standard
private let rulesKey = "healthbridge.merge.rules"
func saveRules(_ rules: [HealthDataType: MergeRule]) {
do {
let data = try JSONEncoder().encode(rules)
userDefaults.set(data, forKey: rulesKey)
} catch {
print("Failed to save rules: \(error)")
}
}
func loadRules() -> [HealthDataType: MergeRule] {
guard let data = userDefaults.data(forKey: rulesKey) else {
return [:]
}
do {
return try JSONDecoder().decode([HealthDataType: MergeRule].self, from: data)
} catch {
print("Failed to load rules: \(error)")
return [:]
}
}
}
// MARK: - Blood Pressure Handler
class BloodPressureHandler {
static let shared = BloodPressureHandler()
struct ValidationResult {
let isValid: Bool
let issues: [String]
}
func validate(systolic: Double, diastolic: Double) -> ValidationResult {
var issues: [String] = []
// Range validation
if systolic < 70 || systolic > 200 {
issues.append("Systolischer Wert ausserhalb des Normalbereichs (70-200 mmHg)")
}
if diastolic < 40 || diastolic > 130 {
issues.append("Diastolischer Wert ausserhalb des Normalbereichs (40-130 mmHg)")
}
// Plausibility check
if diastolic >= systolic {
issues.append("Diastolischer Wert muss kleiner als systolischer Wert sein")
}
if systolic - diastolic < 20 {
issues.append("Pulsdruck zu gering (< 20 mmHg)")
}
if systolic - diastolic > 100 {
issues.append("Pulsdruck zu hoch (> 100 mmHg)")
}
return ValidationResult(isValid: issues.isEmpty, issues: issues)
}
func classifyBloodPressure(systolic: Double, diastolic: Double) -> BloodPressureClassification {
if systolic < 120 && diastolic < 80 {
return .normal
} else if systolic < 130 && diastolic < 80 {
return .elevated
} else if systolic < 140 || diastolic < 90 {
return .hypertensionStage1
} else if systolic < 180 || diastolic < 120 {
return .hypertensionStage2
} else {
return .hypertensiveCrisis
}
}
enum BloodPressureClassification: String {
case normal = "Normal"
case elevated = "Erhöht"
case hypertensionStage1 = "Bluthochdruck Stufe 1"
case hypertensionStage2 = "Bluthochdruck Stufe 2"
case hypertensiveCrisis = "Hypertensive Krise"
var color: String {
switch self {
case .normal: return "green"
case .elevated: return "yellow"
case .hypertensionStage1: return "orange"
case .hypertensionStage2: return "red"
case .hypertensiveCrisis: return "purple"
}
}
var recommendation: String {
switch self {
case .normal:
return "Weiter so! Regelmässige Kontrolle empfohlen."
case .elevated:
return "Lebensstiländerungen empfohlen. Mehr Bewegung, weniger Salz."
case .hypertensionStage1:
return "Arztbesuch empfohlen. Möglicherweise Medikation erforderlich."
case .hypertensionStage2:
return "Zeitnaher Arztbesuch erforderlich. Medikation wahrscheinlich notwendig."
case .hypertensiveCrisis:
return "SOFORT medizinische Hilfe aufsuchen!"
}
}
}
}
+409
View File
@@ -0,0 +1,409 @@
import Foundation
import HealthKit
import Combine
// MARK: - Source Manager
@MainActor
class SourceManager: ObservableObject {
static let shared = SourceManager()
@Published var sources: [HealthSource] = []
@Published var sourceProfiles: [String: SourceProfile] = [:]
@Published var isDiscovering = false
private let healthKitManager = HealthKitManager.shared
private let storage = SourceStorageManager()
private init() {}
// MARK: - Source Discovery
func discoverSources() async {
isDiscovering = true
defer { isDiscovering = false }
await healthKitManager.discoverSources()
sources = healthKitManager.discoveredSources
// Load saved source profiles and merge with discovered sources
let savedProfiles = storage.loadSourceProfiles()
for source in sources {
if let savedProfile = savedProfiles[source.bundleIdentifier] {
sourceProfiles[source.bundleIdentifier] = savedProfile
} else {
sourceProfiles[source.bundleIdentifier] = SourceProfile(source: source)
}
}
}
// MARK: - Source Classification
func classifySource(_ bundleIdentifier: String) -> SourceCategory {
let lowercased = bundleIdentifier.lowercased()
// HealthBridge
if lowercased.contains("healthbridge") {
return .healthBridge
}
// Apple Devices
if lowercased.contains("com.apple") {
if lowercased.contains("watch") || lowercased.contains("nano") {
return .watch
}
if lowercased.contains("health") {
return .iPhone
}
}
// Known Watch Brands
let watchBrands = ["huawei", "samsung", "galaxy", "fitbit", "garmin", "polar",
"withings", "amazfit", "xiaomi", "honor", "oppo", "suunto",
"coros", "whoop", "oura"]
for brand in watchBrands {
if lowercased.contains(brand) {
return .thirdPartyWatch
}
}
// Known Health Apps
let healthApps = ["strava", "nike", "adidas", "runtastic", "runkeeper",
"mapmyrun", "endomondo", "myfitnesspal", "flo", "clue"]
for app in healthApps {
if lowercased.contains(app) {
return .thirdPartyApp
}
}
return .unknown
}
// MARK: - Source Capabilities
func getSourceCapabilities(_ source: HealthSource) -> SourceCapabilities {
let category = source.category
switch category {
case .iPhone:
return SourceCapabilities(
canMeasureSteps: true,
canMeasureDistance: true,
canMeasureFloors: true,
canMeasureHeartRate: false,
canMeasureBloodPressure: false,
canMeasureBloodOxygen: false,
canMeasureSleep: false,
canMeasureWorkouts: true,
hasGPS: true,
hasBarometer: true,
hasAccelerometer: true
)
case .watch:
return SourceCapabilities(
canMeasureSteps: true,
canMeasureDistance: true,
canMeasureFloors: false,
canMeasureHeartRate: true,
canMeasureBloodPressure: false,
canMeasureBloodOxygen: true,
canMeasureSleep: true,
canMeasureWorkouts: true,
hasGPS: true,
hasBarometer: false,
hasAccelerometer: true
)
case .thirdPartyWatch:
// Check for specific features based on name
let name = source.name.lowercased()
let isHuaweiD2 = name.contains("huawei") && (name.contains("d2") || name.contains("watch d"))
return SourceCapabilities(
canMeasureSteps: true,
canMeasureDistance: true,
canMeasureFloors: false,
canMeasureHeartRate: true,
canMeasureBloodPressure: isHuaweiD2, // Huawei Watch D2 has BP sensor
canMeasureBloodOxygen: true,
canMeasureSleep: true,
canMeasureWorkouts: true,
hasGPS: true,
hasBarometer: false,
hasAccelerometer: true
)
case .thirdPartyApp:
return SourceCapabilities(
canMeasureSteps: true,
canMeasureDistance: true,
canMeasureFloors: false,
canMeasureHeartRate: false,
canMeasureBloodPressure: false,
canMeasureBloodOxygen: false,
canMeasureSleep: false,
canMeasureWorkouts: true,
hasGPS: true,
hasBarometer: false,
hasAccelerometer: false
)
case .healthBridge, .unknown:
return SourceCapabilities.empty
}
}
// MARK: - Source Health
func getSourceHealth(_ source: HealthSource) async -> SourceHealthReport {
var dataGaps: [HealthDataType: [TimeWindow]] = [:]
var lastActivityByType: [HealthDataType: Date] = [:]
var recordCountByType: [HealthDataType: Int] = [:]
let calendar = Calendar.current
let now = Date()
let yesterday = calendar.date(byAdding: .day, value: -1, to: now)!
for dataType in source.supportedDataTypes {
do {
let samples = try await healthKitManager.fetchSamples(
for: dataType,
from: yesterday,
to: now
)
let matchingSamples = samples.filter {
$0.sourceRevision.source.bundleIdentifier == source.bundleIdentifier
}
recordCountByType[dataType] = matchingSamples.count
if let lastSample = matchingSamples.last {
lastActivityByType[dataType] = lastSample.endDate
}
// Detect gaps
let gaps = detectDataGaps(
in: matchingSamples,
from: yesterday,
to: now,
expectedInterval: 15 * 60 // 15 minutes
)
if !gaps.isEmpty {
dataGaps[dataType] = gaps
}
} catch {
print("Error checking health for \(dataType): \(error)")
}
}
let overallQuality: DataQuality
if recordCountByType.values.reduce(0, +) == 0 {
overallQuality = .missing
} else if dataGaps.isEmpty {
overallQuality = .complete
} else {
overallQuality = .partial
}
return SourceHealthReport(
source: source,
lastActivityByType: lastActivityByType,
recordCountByType: recordCountByType,
dataGaps: dataGaps,
overallQuality: overallQuality,
checkedAt: Date()
)
}
private func detectDataGaps(
in samples: [HKSample],
from start: Date,
to end: Date,
expectedInterval: TimeInterval
) -> [TimeWindow] {
guard !samples.isEmpty else {
return [TimeWindow(start: start, end: end)]
}
var gaps: [TimeWindow] = []
let sortedSamples = samples.sorted { $0.startDate < $1.startDate }
// Check gap at beginning
if let firstSample = sortedSamples.first,
firstSample.startDate.timeIntervalSince(start) > expectedInterval * 2 {
gaps.append(TimeWindow(start: start, end: firstSample.startDate))
}
// Check gaps between samples
for i in 0..<(sortedSamples.count - 1) {
let currentEnd = sortedSamples[i].endDate
let nextStart = sortedSamples[i + 1].startDate
let gap = nextStart.timeIntervalSince(currentEnd)
if gap > expectedInterval * 2 {
gaps.append(TimeWindow(start: currentEnd, end: nextStart))
}
}
// Check gap at end
if let lastSample = sortedSamples.last,
end.timeIntervalSince(lastSample.endDate) > expectedInterval * 2 {
gaps.append(TimeWindow(start: lastSample.endDate, end: end))
}
return gaps
}
// MARK: - Priority Management
func setPriority(_ priority: Int, for source: HealthSource, dataType: HealthDataType) {
guard var profile = sourceProfiles[source.bundleIdentifier] else { return }
profile.priorities[dataType] = priority
sourceProfiles[source.bundleIdentifier] = profile
storage.saveSourceProfiles(sourceProfiles)
}
func getPriority(for source: HealthSource, dataType: HealthDataType) -> Int {
if let profile = sourceProfiles[source.bundleIdentifier],
let priority = profile.priorities[dataType] {
return priority
}
return source.category.priority
}
func getSourcesByPriority(for dataType: HealthDataType) -> [HealthSource] {
return sources
.filter { $0.supportedDataTypes.contains(dataType) }
.sorted { getPriority(for: $0, dataType: dataType) > getPriority(for: $1, dataType: dataType) }
}
// MARK: - Source Enable/Disable
func setEnabled(_ enabled: Bool, for source: HealthSource) {
guard var profile = sourceProfiles[source.bundleIdentifier] else { return }
profile.isEnabled = enabled
sourceProfiles[source.bundleIdentifier] = profile
storage.saveSourceProfiles(sourceProfiles)
}
func isEnabled(_ source: HealthSource) -> Bool {
return sourceProfiles[source.bundleIdentifier]?.isEnabled ?? true
}
}
// MARK: - Source Profile
struct SourceProfile: Codable {
let bundleIdentifier: String
var priorities: [HealthDataType: Int]
var isEnabled: Bool
var customName: String?
var notes: String?
let addedAt: Date
init(source: HealthSource) {
self.bundleIdentifier = source.bundleIdentifier
self.priorities = [:]
self.isEnabled = true
self.customName = nil
self.notes = nil
self.addedAt = Date()
}
}
// MARK: - Source Capabilities
struct SourceCapabilities {
let canMeasureSteps: Bool
let canMeasureDistance: Bool
let canMeasureFloors: Bool
let canMeasureHeartRate: Bool
let canMeasureBloodPressure: Bool
let canMeasureBloodOxygen: Bool
let canMeasureSleep: Bool
let canMeasureWorkouts: Bool
let hasGPS: Bool
let hasBarometer: Bool
let hasAccelerometer: Bool
static let empty = SourceCapabilities(
canMeasureSteps: false,
canMeasureDistance: false,
canMeasureFloors: false,
canMeasureHeartRate: false,
canMeasureBloodPressure: false,
canMeasureBloodOxygen: false,
canMeasureSleep: false,
canMeasureWorkouts: false,
hasGPS: false,
hasBarometer: false,
hasAccelerometer: false
)
var supportedDataTypes: Set<HealthDataType> {
var types = Set<HealthDataType>()
if canMeasureSteps { types.insert(.steps) }
if canMeasureDistance { types.insert(.distance) }
if canMeasureFloors { types.insert(.floorsClimbed) }
if canMeasureHeartRate {
types.insert(.heartRate)
types.insert(.restingHeartRate)
}
if canMeasureBloodPressure {
types.insert(.bloodPressureSystolic)
types.insert(.bloodPressureDiastolic)
}
if canMeasureBloodOxygen { types.insert(.bloodOxygen) }
if canMeasureSleep { types.insert(.sleep) }
return types
}
}
// MARK: - Source Health Report
struct SourceHealthReport {
let source: HealthSource
let lastActivityByType: [HealthDataType: Date]
let recordCountByType: [HealthDataType: Int]
let dataGaps: [HealthDataType: [TimeWindow]]
let overallQuality: DataQuality
let checkedAt: Date
var lastOverallActivity: Date? {
lastActivityByType.values.max()
}
var totalRecordCount: Int {
recordCountByType.values.reduce(0, +)
}
var hasSignificantGaps: Bool {
dataGaps.values.flatMap { $0 }.contains { $0.duration > 3600 } // > 1 hour gap
}
}
// MARK: - Source Storage Manager
class SourceStorageManager {
private let userDefaults = UserDefaults.standard
private let profilesKey = "healthbridge.source.profiles"
func saveSourceProfiles(_ profiles: [String: SourceProfile]) {
do {
let data = try JSONEncoder().encode(profiles)
userDefaults.set(data, forKey: profilesKey)
} catch {
print("Failed to save source profiles: \(error)")
}
}
func loadSourceProfiles() -> [String: SourceProfile] {
guard let data = userDefaults.data(forKey: profilesKey) else {
return [:]
}
do {
return try JSONDecoder().decode([String: SourceProfile].self, from: data)
} catch {
print("Failed to load source profiles: \(error)")
return [:]
}
}
}
+301
View File
@@ -0,0 +1,301 @@
import Foundation
import Combine
import UserNotifications
// MARK: - Sync Coordinator
@MainActor
class SyncCoordinator: ObservableObject {
static let shared = SyncCoordinator()
private let healthKitManager = HealthKitManager.shared
private let sourceManager = SourceManager.shared
private let dataReader = DataReader.shared
private let ruleEngine = RuleEngine.shared
private let mergeEngine = MergeEngine.shared
private let dataWriter = DataWriter.shared
@Published var isSyncing = false
@Published var syncProgress: Double = 0
@Published var lastSyncDate: Date?
@Published var lastSyncResult: SyncResult?
@Published var pendingConflicts: [Conflict] = []
@Published var syncHistory: [SyncResult] = []
private let syncHistoryKey = "healthbridge.sync.history"
private let maxHistoryItems = 50
private init() {
loadSyncHistory()
}
// MARK: - Main Sync
func performSync(
for date: Date = Date(),
dataTypes: [HealthDataType] = HealthDataType.allCases
) async throws {
guard !isSyncing else { return }
isSyncing = true
syncProgress = 0
defer { isSyncing = false }
let startTime = Date()
var result = SyncResult(startedAt: startTime)
do {
// Step 1: Refresh sources (10%)
syncProgress = 0.05
await sourceManager.discoverSources()
syncProgress = 0.1
// Step 2: Detect conflicts (40%)
let conflicts = try await dataReader.detectConflicts(for: date, dataTypes: dataTypes)
result.totalConflicts = conflicts.count
syncProgress = 0.4
// Step 3: Process conflicts with merge engine (70%)
let operations = await mergeEngine.processConflicts(conflicts)
syncProgress = 0.7
let autoResolved = operations.filter { $0.status == .resolved }
let pendingManual = operations.filter { $0.status == .pendingManualReview }
result.autoResolved = autoResolved.count
result.pendingManualReview = pendingManual.count
// Update pending conflicts
pendingConflicts = pendingManual.map { $0.conflict }
// Step 4: Write resolved records (90%)
let recordsToWrite = autoResolved.compactMap { $0.mergedRecord }
if !recordsToWrite.isEmpty {
let writeResult = await dataWriter.writeBatch(recordsToWrite)
result.writtenRecords = writeResult.successCount
result.writeErrors = writeResult.failureCount
}
syncProgress = 0.9
// Step 5: Finalize (100%)
result.completedAt = Date()
result.status = .success
syncProgress = 1.0
} catch {
result.status = .failed
result.error = error.localizedDescription
result.completedAt = Date()
throw error
}
lastSyncDate = Date()
lastSyncResult = result
addToHistory(result)
// Send notification if there are pending conflicts
if result.pendingManualReview > 0 {
await sendConflictNotification(count: result.pendingManualReview)
}
}
// MARK: - Quick Sync
func performQuickSync() async throws {
try await performSync(
for: Date(),
dataTypes: [.steps, .heartRate, .activeEnergy]
)
}
// MARK: - Sync Specific Data Type
func syncDataType(_ dataType: HealthDataType, for date: Date = Date()) async throws {
try await performSync(for: date, dataTypes: [dataType])
}
// MARK: - Manual Conflict Resolution
func resolveConflict(_ conflict: Conflict, selectedReadingId: UUID) async throws {
guard let resolution = mergeEngine.resolveConflictManually(conflict, selectedReadingId: selectedReadingId) else {
throw SyncError.resolutionFailed
}
var resolvedConflict = conflict
resolvedConflict.status = .resolved
resolvedConflict.resolution = resolution
resolvedConflict.resolvedAt = Date()
let mergedRecord = mergeEngine.createMergedRecord(from: resolvedConflict, resolution: resolution)
// Write the record
_ = try await dataWriter.writeRecord(mergedRecord)
// Remove from pending
pendingConflicts.removeAll { $0.id == conflict.id }
}
func ignoreConflict(_ conflict: Conflict) {
pendingConflicts.removeAll { $0.id == conflict.id }
}
// MARK: - Sync History
private func loadSyncHistory() {
guard let data = UserDefaults.standard.data(forKey: syncHistoryKey),
let history = try? JSONDecoder().decode([SyncResult].self, from: data) else {
return
}
syncHistory = history
}
private func addToHistory(_ result: SyncResult) {
syncHistory.insert(result, at: 0)
if syncHistory.count > maxHistoryItems {
syncHistory = Array(syncHistory.prefix(maxHistoryItems))
}
saveSyncHistory()
}
private func saveSyncHistory() {
guard let data = try? JSONEncoder().encode(syncHistory) else { return }
UserDefaults.standard.set(data, forKey: syncHistoryKey)
}
func clearHistory() {
syncHistory.removeAll()
UserDefaults.standard.removeObject(forKey: syncHistoryKey)
}
// MARK: - Notifications
private func sendConflictNotification(count: Int) async {
let center = UNUserNotificationCenter.current()
let settings = await center.notificationSettings()
guard settings.authorizationStatus == .authorized else { return }
let content = UNMutableNotificationContent()
content.title = "HealthBridge"
content.body = count == 1
? "1 Konflikt erfordert Ihre Aufmerksamkeit"
: "\(count) Konflikte erfordern Ihre Aufmerksamkeit"
content.sound = .default
content.badge = NSNumber(value: count)
let request = UNNotificationRequest(
identifier: "healthbridge.conflicts",
content: content,
trigger: nil
)
try? await center.add(request)
}
func requestNotificationPermission() async -> Bool {
let center = UNUserNotificationCenter.current()
do {
return try await center.requestAuthorization(options: [.alert, .sound, .badge])
} catch {
return false
}
}
// MARK: - Statistics
var todayStats: TodayStats {
let today = Calendar.current.startOfDay(for: Date())
let todaySyncs = syncHistory.filter {
Calendar.current.isDate($0.startedAt, inSameDayAs: today)
}
return TodayStats(
syncCount: todaySyncs.count,
totalConflicts: todaySyncs.reduce(0) { $0 + $1.totalConflicts },
autoResolved: todaySyncs.reduce(0) { $0 + $1.autoResolved },
pendingManual: pendingConflicts.count,
lastSync: lastSyncDate
)
}
}
// MARK: - Supporting Types
struct SyncResult: Identifiable, Codable {
let id = UUID()
let startedAt: Date
var completedAt: Date?
var status: SyncStatus = .inProgress
var totalConflicts = 0
var autoResolved = 0
var pendingManualReview = 0
var writtenRecords = 0
var writeErrors = 0
var error: String?
enum SyncStatus: String, Codable {
case inProgress = "in_progress"
case success = "success"
case partialSuccess = "partial_success"
case failed = "failed"
}
var duration: TimeInterval? {
guard let completed = completedAt else { return nil }
return completed.timeIntervalSince(startedAt)
}
var formattedDuration: String {
guard let duration = duration else { return "" }
if duration < 1 {
return "< 1s"
}
return String(format: "%.1fs", duration)
}
var successRate: Double {
guard totalConflicts > 0 else { return 1.0 }
return Double(autoResolved) / Double(totalConflicts)
}
}
struct TodayStats {
let syncCount: Int
let totalConflicts: Int
let autoResolved: Int
let pendingManual: Int
let lastSync: Date?
var resolutionRate: Double {
guard totalConflicts > 0 else { return 1.0 }
return Double(autoResolved) / Double(totalConflicts)
}
var formattedLastSync: String {
guard let date = lastSync else { return "Nie" }
let formatter = RelativeDateTimeFormatter()
formatter.unitsStyle = .abbreviated
return formatter.localizedString(for: date, relativeTo: Date())
}
}
enum SyncError: LocalizedError {
case notAuthorized
case syncInProgress
case resolutionFailed
case writeFailed
var errorDescription: String? {
switch self {
case .notAuthorized:
return "Keine Berechtigung für HealthKit"
case .syncInProgress:
return "Synchronisierung läuft bereits"
case .resolutionFailed:
return "Konfliktauflösung fehlgeschlagen"
case .writeFailed:
return "Schreiben der Daten fehlgeschlagen"
}
}
}