test: 통합 테스트 오류 및 경고 수정
Some checks failed
Flutter Test & Quality Check / Test on macos-latest (push) Has been cancelled
Flutter Test & Quality Check / Test on ubuntu-latest (push) Has been cancelled
Flutter Test & Quality Check / Build APK (push) Has been cancelled

- 모든 서비스 메서드 시그니처를 실제 구현에 맞게 수정
- TestDataGenerator 제거하고 직접 객체 생성으로 변경
- 모델 필드명 및 타입 불일치 수정
- 불필요한 Either 패턴 사용 제거
- null safety 관련 이슈 해결

수정된 파일:
- test/integration/screens/company_integration_test.dart
- test/integration/screens/equipment_integration_test.dart
- test/integration/screens/user_integration_test.dart
- test/integration/screens/login_integration_test.dart
This commit is contained in:
JiWoong Sul
2025-08-05 20:24:05 +09:00
parent d6f34c0a52
commit 198aac6525
145 changed files with 41527 additions and 5220 deletions

View File

@@ -0,0 +1,500 @@
# Real API 자동화 테스트 프레임워크 - 클래스 다이어그램
## 1. 클래스 다이어그램
```mermaid
classDiagram
%% Core Framework
class ScreenTestFramework {
<<abstract>>
#TestContext testContext
#ApiErrorDiagnostics errorDiagnostics
#AutoFixer autoFixer
#TestDataGenerator dataGenerator
#ReportCollector reportCollector
+detectFeatures(ScreenMetadata) Future~List~TestableFeature~~
+executeTests(List~TestableFeature~) Future~TestResult~
+handleError(TestError) Future~void~
+generateReport() Future~TestReport~
#detectCustomFeatures(ScreenMetadata)* Future~List~TestableFeature~~
#performCRUD()* Future~void~
}
class ApiErrorDiagnostics {
<<abstract>>
-DiagnosticsManager diagnosticsManager
-Map~String,ErrorPattern~ learnedPatterns
+diagnose(ApiError) Future~ErrorDiagnosis~
+analyzeRootCause(ErrorDiagnosis) Future~RootCause~
+suggestFixes(RootCause) Future~List~FixSuggestion~~
+learnFromError(ApiError, FixResult) Future~void~
}
class AutoFixer {
<<abstract>>
-TestContext testContext
-RetryHandler retryHandler
-List~FixHistory~ fixHistory
+attemptFix(FixSuggestion) Future~FixResult~
+validateFix(FixResult) Future~bool~
+rollback(FixResult) Future~void~
+recordFix(FixResult) Future~void~
#performCustomValidation(FixResult)* Future~bool~
}
class TestDataGenerator {
<<abstract>>
-ValidationManager validationManager
-Map~Type,GenerationStrategy~ strategies
-Map~String,TestData~ generatedData
+determineStrategy(DataRequirement) Future~GenerationStrategy~
+generate(GenerationStrategy) Future~TestData~
+validate(TestData) Future~bool~
+generateRelated(DataRelationship) Future~Map~String,TestData~~
}
%% Infrastructure
class TestContext {
-Map~String,dynamic~ data
-Map~String,List~String~~ createdResources
-Map~String,dynamic~ config
-String currentScreen
+getData(String) dynamic
+setData(String, dynamic) void
+addCreatedResourceId(String, String) void
+getCreatedResourceIds() Map~String,List~String~~
+recordFix(FixResult) void
}
class ReportCollector {
-List~TestResult~ results
-ReportConfiguration config
+collect(TestResult) Future~void~
+generateReport() Future~TestReport~
+exportHtml(TestReport) Future~String~
+exportJson(TestReport) Future~String~
}
%% Support
class DiagnosticsManager {
+checkTokenStatus() Future~Map~String,dynamic~~
+checkPermissions() Future~Map~String,dynamic~~
+validateSchema(Map~String,dynamic~) Future~Map~String,dynamic~~
+checkConnectivity() Future~Map~String,dynamic~~
+checkServerHealth() Future~Map~String,dynamic~~
+savePattern(ErrorPattern) Future~void~
}
class RetryHandler {
-int maxAttempts
-Duration backoffDelay
+retry~T~(Function, {maxAttempts, backoffDelay}) Future~T~
-calculateDelay(int) Duration
}
class ValidationManager {
-Map~Type,Schema~ schemas
+validate(Map~String,dynamic~, Type) Future~bool~
+validateField(String, dynamic, FieldConstraint) bool
+getValidationErrors(Map~String,dynamic~, Type) List~String~
}
%% Screen Tests
class BaseScreenTest {
<<abstract>>
#ApiClient apiClient
#GetIt getIt
+getScreenMetadata()* ScreenMetadata
+initializeServices()* Future~void~
+setupTestEnvironment() Future~void~
+teardownTestEnvironment() Future~void~
+runTests() Future~TestResult~
#getService()* dynamic
#getResourceType()* String
#getDefaultFilters()* Map~String,dynamic~
}
class LicenseScreenTest {
-LicenseService licenseService
+getScreenMetadata() ScreenMetadata
+initializeServices() Future~void~
+detectCustomFeatures(ScreenMetadata) Future~List~TestableFeature~~
+performExpiryCheck(TestData) Future~void~
+performLicenseRenewal(TestData) Future~void~
+performBulkImport(TestData) Future~void~
}
class EquipmentScreenTest {
-EquipmentService equipmentService
+getScreenMetadata() ScreenMetadata
+initializeServices() Future~void~
+detectCustomFeatures(ScreenMetadata) Future~List~TestableFeature~~
+performStatusTransition(TestData) Future~void~
+performBulkTransfer(TestData) Future~void~
}
class WarehouseScreenTest {
-WarehouseService warehouseService
+getScreenMetadata() ScreenMetadata
+initializeServices() Future~void~
+detectCustomFeatures(ScreenMetadata) Future~List~TestableFeature~~
+performCapacityCheck(TestData) Future~void~
+performInventoryReport(TestData) Future~void~
}
%% Models
class TestableFeature {
+String featureName
+FeatureType type
+List~TestCase~ testCases
+Map~String,dynamic~ metadata
}
class TestCase {
+String name
+Function execute
+Function verify
+Function setup
+Function teardown
}
class TestResult {
+String screenName
+DateTime startTime
+DateTime endTime
+List~FeatureTestResult~ featureResults
+List~TestError~ errors
+calculateMetrics() void
}
class ErrorDiagnosis {
+ErrorType type
+String description
+Map~String,dynamic~ context
+double confidence
+List~String~ affectedEndpoints
}
class FixSuggestion {
+String fixId
+FixType type
+String description
+List~FixAction~ actions
+double successProbability
}
%% Relationships
ScreenTestFramework o-- TestContext
ScreenTestFramework o-- ApiErrorDiagnostics
ScreenTestFramework o-- AutoFixer
ScreenTestFramework o-- TestDataGenerator
ScreenTestFramework o-- ReportCollector
BaseScreenTest --|> ScreenTestFramework
LicenseScreenTest --|> BaseScreenTest
EquipmentScreenTest --|> BaseScreenTest
WarehouseScreenTest --|> BaseScreenTest
ApiErrorDiagnostics o-- DiagnosticsManager
AutoFixer o-- RetryHandler
TestDataGenerator o-- ValidationManager
ScreenTestFramework ..> TestableFeature : creates
TestableFeature o-- TestCase
ScreenTestFramework ..> TestResult : produces
ApiErrorDiagnostics ..> ErrorDiagnosis : produces
ApiErrorDiagnostics ..> FixSuggestion : suggests
```
## 2. 패키지 구조
```mermaid
graph TD
subgraph "framework"
subgraph "core"
STF[ScreenTestFramework]
AED[ApiErrorDiagnostics]
AF[AutoFixer]
TDG[TestDataGenerator]
end
subgraph "infrastructure"
TC[TestContext]
DC[DependencyContainer]
RC[ReportCollector]
end
subgraph "support"
RH[RetryHandler]
VM[ValidationManager]
DM[DiagnosticsManager]
end
subgraph "models"
TM[test_models.dart]
EM[error_models.dart]
RM[report_models.dart]
end
end
subgraph "screens"
subgraph "base"
BST[BaseScreenTest]
end
subgraph "license"
LST[LicenseScreenTest]
LTS[LicenseTestScenarios]
end
subgraph "equipment"
EST[EquipmentScreenTest]
ETS[EquipmentTestScenarios]
end
subgraph "warehouse"
WST[WarehouseScreenTest]
WTS[WarehouseTestScenarios]
end
end
subgraph "reports"
subgraph "generators"
HRG[HtmlReportGenerator]
JRG[JsonReportGenerator]
end
subgraph "templates"
RT[ReportTemplate]
end
end
```
## 3. 주요 디자인 패턴
### 3.1 Template Method Pattern
```dart
abstract class ScreenTestFramework {
// 템플릿 메서드
Future<TestResult> executeTests(List<TestableFeature> features) async {
// 1. 준비
await setupTestEnvironment();
// 2. 실행
for (final feature in features) {
await executeFeatureTests(feature);
}
// 3. 정리
await teardownTestEnvironment();
return generateReport();
}
// 하위 클래스에서 구현
Future<void> setupTestEnvironment();
Future<void> teardownTestEnvironment();
}
```
### 3.2 Strategy Pattern
```dart
// 전략 인터페이스
abstract class DiagnosticRule {
bool canHandle(ApiError error);
Future<ErrorDiagnosis> diagnose(ApiError error);
}
// 구체적인 전략들
class AuthenticationDiagnosticRule implements DiagnosticRule {
@override
bool canHandle(ApiError error) => error.type == ErrorType.authentication;
@override
Future<ErrorDiagnosis> diagnose(ApiError error) async {
// 인증 관련 진단 로직
}
}
class NetworkDiagnosticRule implements DiagnosticRule {
@override
bool canHandle(ApiError error) => error.type == ErrorType.network;
@override
Future<ErrorDiagnosis> diagnose(ApiError error) async {
// 네트워크 관련 진단 로직
}
}
```
### 3.3 Builder Pattern
```dart
class TestReportBuilder {
TestReport _report;
TestReportBuilder withSummary(TestSummary summary) {
_report.summary = summary;
return this;
}
TestReportBuilder withScreenReports(List<ScreenTestReport> reports) {
_report.screenReports = reports;
return this;
}
TestReportBuilder withErrorAnalyses(List<ErrorAnalysis> analyses) {
_report.errorAnalyses = analyses;
return this;
}
TestReport build() => _report;
}
```
### 3.4 Observer Pattern
```dart
abstract class TestEventListener {
void onTestStarted(TestCase testCase);
void onTestCompleted(TestCaseResult result);
void onTestFailed(TestError error);
}
class TestEventNotifier {
final List<TestEventListener> _listeners = [];
void addListener(TestEventListener listener) {
_listeners.add(listener);
}
void notifyTestStarted(TestCase testCase) {
for (final listener in _listeners) {
listener.onTestStarted(testCase);
}
}
}
```
## 4. 확장 포인트
### 4.1 새로운 화면 추가
```dart
class NewScreenTest extends BaseScreenTest {
@override
ScreenMetadata getScreenMetadata() {
// 화면 메타데이터 정의
}
@override
Future<List<TestableFeature>> detectCustomFeatures(ScreenMetadata metadata) async {
// 화면별 커스텀 기능 정의
}
}
```
### 4.2 새로운 진단 룰 추가
```dart
class CustomDiagnosticRule implements DiagnosticRule {
@override
bool canHandle(ApiError error) {
// 처리 가능 여부 판단
}
@override
Future<ErrorDiagnosis> diagnose(ApiError error) async {
// 진단 로직 구현
}
}
```
### 4.3 새로운 수정 전략 추가
```dart
class CustomFixStrategy implements FixStrategy {
@override
Future<FixResult> apply(FixContext context) async {
// 수정 로직 구현
}
}
```
## 5. 사용 예제
```dart
// 테스트 실행
void main() async {
// 의존성 설정
final testContext = TestContext();
final errorDiagnostics = ConcreteApiErrorDiagnostics(
diagnosticsManager: DiagnosticsManager(),
);
final autoFixer = ConcreteAutoFixer(
testContext: testContext,
retryHandler: RetryHandler(),
);
final dataGenerator = ConcreteTestDataGenerator(
validationManager: ValidationManager(),
);
final reportCollector = ReportCollector(
config: ReportConfiguration(
outputDirectory: 'test/reports',
),
);
// 라이선스 화면 테스트
final licenseTest = LicenseScreenTest(
apiClient: ApiClient(),
getIt: GetIt.instance,
testContext: testContext,
errorDiagnostics: errorDiagnostics,
autoFixer: autoFixer,
dataGenerator: dataGenerator,
reportCollector: reportCollector,
);
// 테스트 실행
final result = await licenseTest.runTests();
// 리포트 생성
final report = await reportCollector.generateReport();
print('테스트 완료: ${report.summary.overallSuccessRate}% 성공');
}
```
## 6. 성능 최적화 전략
### 6.1 병렬 실행
- 독립적인 테스트 케이스는 병렬로 실행
- 화면별 테스트는 격리된 환경에서 동시 실행
### 6.2 리소스 재사용
- API 클라이언트 연결 풀링
- 테스트 데이터 캐싱
- 인증 토큰 재사용
### 6.3 스마트 재시도
- 지수 백오프 알고리즘
- 에러 타입별 재시도 전략
- 학습된 패턴 기반 빠른 수정
## 7. 모니터링 및 분석
### 7.1 실시간 모니터링
- 테스트 진행 상황 대시보드
- 에러 발생 즉시 알림
- 성능 메트릭 실시간 추적
### 7.2 사후 분석
- 테스트 결과 트렌드 분석
- 에러 패턴 식별
- 성능 병목 지점 발견
## 8. 결론
이 아키텍처는 다음과 같은 장점을 제공합니다:
1. **확장성**: 새로운 화면과 기능을 쉽게 추가
2. **유지보수성**: 명확한 책임 분리와 모듈화
3. **안정성**: 자동 에러 진단 및 수정
4. **효율성**: 병렬 실행과 리소스 최적화
5. **가시성**: 상세한 리포트와 모니터링
SOLID 원칙을 준수하며, 실제 프로덕션 환경에서 안정적으로 운영될 수 있는 구조입니다.

View File

@@ -0,0 +1,469 @@
# Real API 기반 자동화 테스트 프레임워크 아키텍처
## 1. 개요
Real API 기반 자동화 테스트 프레임워크는 실제 API와 통신하며 화면별 기능을 자동으로 감지하고 테스트하는 고급 테스트 시스템입니다. 이 프레임워크는 API 에러 진단, 자동 수정, 테스트 데이터 생성 등의 기능을 포함합니다.
## 2. 아키텍처 개요
```mermaid
graph TB
subgraph "Test Runner Layer"
TR[Test Runner]
TO[Test Orchestrator]
end
subgraph "Framework Core"
STF[ScreenTestFramework]
AED[ApiErrorDiagnostics]
AF[AutoFixer]
TDG[TestDataGenerator]
end
subgraph "Infrastructure Layer"
TC[TestContext]
DC[DependencyContainer]
RC[ReportCollector]
end
subgraph "Screen Test Layer"
BST[BaseScreenTest]
LST[LicenseScreenTest]
EST[EquipmentScreenTest]
WST[WarehouseScreenTest]
end
subgraph "Support Layer"
RH[RetryHandler]
VM[ValidationManager]
DM[DiagnosticsManager]
end
TR --> TO
TO --> STF
STF --> BST
BST --> LST
BST --> EST
BST --> WST
STF --> AED
STF --> AF
STF --> TDG
AED --> DM
AF --> RH
TDG --> VM
STF --> TC
TC --> DC
STF --> RC
```
## 3. 핵심 컴포넌트 설계
### 3.1 ScreenTestFramework
```dart
abstract class ScreenTestFramework {
// 화면 기능 자동 감지
Future<List<TestableFeature>> detectFeatures(ScreenMetadata metadata);
// 테스트 실행
Future<TestResult> executeTests(List<TestableFeature> features);
// 에러 처리
Future<void> handleError(TestError error);
// 리포트 생성
Future<TestReport> generateReport();
}
class ScreenMetadata {
final String screenName;
final Type controllerType;
final List<ApiEndpoint> relatedEndpoints;
final Map<String, dynamic> screenCapabilities;
}
class TestableFeature {
final String featureName;
final FeatureType type;
final List<TestCase> testCases;
final Map<String, dynamic> metadata;
}
```
### 3.2 ApiErrorDiagnostics
```dart
abstract class ApiErrorDiagnostics {
// 에러 분석
Future<ErrorDiagnosis> diagnose(ApiError error);
// 근본 원인 분석
Future<RootCause> analyzeRootCause(ErrorDiagnosis diagnosis);
// 수정 제안
Future<List<FixSuggestion>> suggestFixes(RootCause rootCause);
// 패턴 학습
Future<void> learnFromError(ApiError error, FixResult result);
}
class ErrorDiagnosis {
final ErrorType type;
final String description;
final Map<String, dynamic> context;
final double confidence;
final List<String> affectedEndpoints;
}
class RootCause {
final String cause;
final CauseCategory category;
final List<Evidence> evidence;
final Map<String, dynamic> details;
}
```
### 3.3 AutoFixer
```dart
abstract class AutoFixer {
// 자동 수정 시도
Future<FixResult> attemptFix(FixSuggestion suggestion);
// 수정 검증
Future<bool> validateFix(FixResult result);
// 롤백
Future<void> rollback(FixResult result);
// 수정 이력 관리
Future<void> recordFix(FixResult result);
}
class FixSuggestion {
final String fixId;
final FixType type;
final String description;
final List<FixAction> actions;
final double successProbability;
}
class FixResult {
final bool success;
final String fixId;
final List<Change> changes;
final Duration duration;
final Map<String, dynamic> metrics;
}
```
### 3.4 TestDataGenerator
```dart
abstract class TestDataGenerator {
// 데이터 생성 전략
Future<GenerationStrategy> determineStrategy(DataRequirement requirement);
// 데이터 생성
Future<TestData> generate(GenerationStrategy strategy);
// 데이터 검증
Future<bool> validate(TestData data);
// 관계 데이터 생성
Future<Map<String, TestData>> generateRelated(DataRelationship relationship);
}
class DataRequirement {
final Type dataType;
final Map<String, FieldConstraint> constraints;
final List<DataRelationship> relationships;
final int quantity;
}
class TestData {
final String id;
final Type type;
final Map<String, dynamic> data;
final DateTime createdAt;
final List<String> relatedIds;
}
```
## 4. 상호작용 패턴
### 4.1 테스트 실행 시퀀스
```mermaid
sequenceDiagram
participant TR as Test Runner
participant STF as ScreenTestFramework
participant TDG as TestDataGenerator
participant BST as BaseScreenTest
participant AED as ApiErrorDiagnostics
participant AF as AutoFixer
participant RC as ReportCollector
TR->>STF: initializeTest(screenName)
STF->>STF: detectFeatures()
STF->>TDG: generateTestData()
TDG-->>STF: testData
STF->>BST: executeScreenTest(features, data)
BST->>BST: runTestCases()
alt Test Success
BST-->>STF: TestResult(success)
STF->>RC: collectResult()
else Test Failure
BST-->>STF: TestError
STF->>AED: diagnose(error)
AED-->>STF: ErrorDiagnosis
STF->>AF: attemptFix(diagnosis)
AF-->>STF: FixResult
alt Fix Success
STF->>BST: retryTest()
else Fix Failed
STF->>RC: recordFailure()
end
end
STF->>RC: generateReport()
RC-->>TR: TestReport
```
### 4.2 에러 진단 및 자동 수정 플로우
```mermaid
flowchart TD
A[API Error Detected] --> B{Error Type?}
B -->|Authentication| C[Auth Diagnostics]
B -->|Data Validation| D[Validation Diagnostics]
B -->|Network| E[Network Diagnostics]
B -->|Server Error| F[Server Diagnostics]
C --> G[Analyze Token Status]
D --> H[Check Data Format]
E --> I[Test Connectivity]
F --> J[Check Server Health]
G --> K{Token Valid?}
K -->|No| L[Refresh Token]
K -->|Yes| M[Check Permissions]
H --> N{Data Valid?}
N -->|No| O[Generate Valid Data]
N -->|Yes| P[Check Constraints]
L --> Q[Retry Request]
O --> Q
M --> Q
P --> Q
Q --> R{Success?}
R -->|Yes| S[Continue Test]
R -->|No| T[Record Failure]
```
## 5. 디렉토리 구조
```
test/integration/automated/
├── framework/
│ ├── core/
│ │ ├── screen_test_framework.dart
│ │ ├── api_error_diagnostics.dart
│ │ ├── auto_fixer.dart
│ │ └── test_data_generator.dart
│ ├── infrastructure/
│ │ ├── test_context.dart
│ │ ├── dependency_container.dart
│ │ └── report_collector.dart
│ ├── support/
│ │ ├── retry_handler.dart
│ │ ├── validation_manager.dart
│ │ └── diagnostics_manager.dart
│ └── models/
│ ├── test_models.dart
│ ├── error_models.dart
│ └── report_models.dart
├── screens/
│ ├── base/
│ │ └── base_screen_test.dart
│ ├── license/
│ │ ├── license_screen_test.dart
│ │ └── license_test_scenarios.dart
│ ├── equipment/
│ │ ├── equipment_screen_test.dart
│ │ └── equipment_test_scenarios.dart
│ └── warehouse/
│ ├── warehouse_screen_test.dart
│ └── warehouse_test_scenarios.dart
└── reports/
├── generators/
│ ├── html_report_generator.dart
│ └── json_report_generator.dart
└── templates/
└── report_template.html
```
## 6. 확장 가능한 구조
### 6.1 플러그인 시스템
```dart
abstract class TestPlugin {
String get name;
String get version;
Future<void> initialize(TestContext context);
Future<void> beforeTest(TestCase testCase);
Future<void> afterTest(TestResult result);
Future<void> onError(TestError error);
}
class PluginManager {
final List<TestPlugin> _plugins = [];
void register(TestPlugin plugin) {
_plugins.add(plugin);
}
Future<void> executePlugins(PluginPhase phase, dynamic data) async {
for (final plugin in _plugins) {
await plugin.execute(phase, data);
}
}
}
```
### 6.2 커스텀 진단 룰
```dart
abstract class DiagnosticRule {
String get ruleId;
int get priority;
bool canHandle(ApiError error);
Future<ErrorDiagnosis> diagnose(ApiError error);
}
class DiagnosticRuleEngine {
final List<DiagnosticRule> _rules = [];
void addRule(DiagnosticRule rule) {
_rules.add(rule);
_rules.sort((a, b) => b.priority.compareTo(a.priority));
}
Future<ErrorDiagnosis> diagnose(ApiError error) async {
for (final rule in _rules) {
if (rule.canHandle(error)) {
return await rule.diagnose(error);
}
}
return DefaultDiagnosis(error);
}
}
```
## 7. SOLID 원칙 적용
### 7.1 Single Responsibility Principle (SRP)
- 각 클래스는 하나의 책임만 가짐
- ScreenTestFramework: 화면 테스트 조정
- ApiErrorDiagnostics: 에러 진단
- AutoFixer: 에러 수정
- TestDataGenerator: 데이터 생성
### 7.2 Open/Closed Principle (OCP)
- 플러그인 시스템을 통한 확장
- 추상 클래스를 통한 구현 확장
- 새로운 화면 테스트 추가 시 기존 코드 수정 불필요
### 7.3 Liskov Substitution Principle (LSP)
- 모든 화면 테스트는 BaseScreenTest를 대체 가능
- 모든 진단 룰은 DiagnosticRule 인터페이스 준수
### 7.4 Interface Segregation Principle (ISP)
- 작고 구체적인 인터페이스 제공
- 클라이언트가 필요하지 않은 메서드에 의존하지 않음
### 7.5 Dependency Inversion Principle (DIP)
- 추상화에 의존, 구체적인 구현에 의존하지 않음
- DI 컨테이너를 통한 의존성 주입
## 8. 성능 및 확장성 고려사항
### 8.1 병렬 처리
```dart
class ParallelTestExecutor {
Future<List<TestResult>> executeParallel(
List<TestCase> testCases,
{int maxConcurrency = 4}
) async {
final pool = Pool(maxConcurrency);
final results = <TestResult>[];
await Future.wait(
testCases.map((testCase) =>
pool.withResource(() => executeTest(testCase))
)
);
return results;
}
}
```
### 8.2 캐싱 전략
```dart
class TestDataCache {
final Duration _ttl = Duration(minutes: 30);
final Map<String, CachedData> _cache = {};
Future<TestData> getOrGenerate(
String key,
Future<TestData> Function() generator
) async {
final cached = _cache[key];
if (cached != null && !cached.isExpired) {
return cached.data;
}
final data = await generator();
_cache[key] = CachedData(data, DateTime.now());
return data;
}
}
```
## 9. 모니터링 및 로깅
```dart
class TestMonitor {
final MetricsCollector _metrics;
final Logger _logger;
Future<void> monitorTest(TestCase testCase) async {
final stopwatch = Stopwatch()..start();
try {
await testCase.execute();
_metrics.recordSuccess(testCase.name, stopwatch.elapsed);
} catch (e) {
_metrics.recordFailure(testCase.name, stopwatch.elapsed);
_logger.error('Test failed: ${testCase.name}', e);
}
}
}
```
## 10. 결론
이 아키텍처는 확장 가능하고 유지보수가 용이한 Real API 기반 자동화 테스트 프레임워크를 제공합니다. SOLID 원칙을 준수하며, 플러그인 시스템을 통해 쉽게 확장할 수 있고, 에러 진단 및 자동 수정 기능을 통해 테스트의 안정성을 높입니다.