Status: 90 Test Cases Missing
Framework: Ready (infrastructure exists)
Priority: CRITICAL (blocking production readiness)
Implementation: Week 2-3 of Phase 1
| Category | Planned | Implemented | Missing | Priority | Complexity |
|---|---|---|---|---|---|
| Core Workflows | 25 | 0 | 25 | CRITICAL | Medium |
| Integration Tests | 30 | 0 | 30 | CRITICAL | High |
| Distributed Systems | 20 | 0 | 20 | HIGH | High |
| Platform-Specific | 15 | 0 | 15 | MEDIUM | Medium |
| Performance | 10 | 10 | 0 | ✅ Complete | - |
| TOTAL | 100 | 10 | 90 | CRITICAL | - |
func TestUserRegistration(t *testing.T) {
// Given: Clean database, registration endpoint available
// When: User submits valid registration data
// Then: User account created, confirmation sent
Steps:
1. POST /api/v1/auth/register with valid data
2. Verify 201 Created response
3. Check confirmation email sent
4. Confirm email via token
5. Verify user can login
Assertions:
- HTTP status codes correct
- User record created in database
- Password properly hashed
- JWT token generated on login
- Rate limiting enforced
}func TestUserLoginLogout(t *testing.T) {
// Given: Existing user account
// When: User attempts login/logout
// Then: Session managed correctly
Steps:
1. POST /api/v1/auth/login with credentials
2. Verify JWT token returned
3. Use token for authenticated request
4. POST /api/v1/auth/logout
5. Verify token invalidated
Assertions:
- Login returns valid JWT
- Token works for API access
- Logout invalidates token
- Session cleanup performed
}func TestRoleBasedAccess(t *testing.T) {
// Given: Users with different roles (admin, user, guest)
// When: Users attempt various operations
// Then: Permissions enforced correctly
Steps:
1. Create users with different roles
2. Attempt admin-only operations
3. Attempt user operations
4. Attempt guest operations
5. Verify proper error responses
Assertions:
- Admin can access all endpoints
- Users have limited access
- Guests have read-only access
- Proper HTTP 403 responses
}func TestProjectCreation(t *testing.T) {
// Given: Authenticated user
// When: User creates new project
// Then: Project created with proper structure
Steps:
1. POST /api/v1/projects with project data
2. Verify project directory created
3. Check project metadata stored
4. Validate initial configuration
5. Verify user permissions set
Assertions:
- Project ID generated
- Directory structure created
- Metadata properly stored
- User has owner permissions
- Default configuration applied
}func TestProjectImportExport(t *testing.T) {
// Given: Existing project or external project
// When: User imports/exports project
// Then: Project transferred correctly
Steps:
1. Export existing project
2. Verify archive contents
3. Import project to new location
4. Compare imported vs original
5. Verify functionality preserved
Assertions:
- Export creates valid archive
- Import recreates project correctly
- Configuration preserved
- No data loss occurs
}func TestProjectDeletionRecovery(t *testing.T) {
// Given: Existing project
// When: User deletes project
// Then: Project properly archived/recovered
Steps:
1. Create test project with data
2. Delete project via API
3. Verify soft deletion (archived)
4. Attempt recovery
5. Verify permanent deletion option
Assertions:
- Soft deletion by default
- Recovery possible within timeframe
- Hard deletion available
- Data cleanup performed
}func TestProjectCollaboration(t *testing.T) {
// Given: Project owned by user A
// When: User A shares with user B
// Then: Collaboration works correctly
Steps:
1. User A creates project
2. User A invites user B
3. User B accepts invitation
4. Both users make changes
5. Verify conflict resolution
Assertions:
- Invitations sent/received
- Permissions granted correctly
- Changes synchronized
- Conflict handling works
}func TestFileCRUD(t *testing.T) {
// Given: Active project workspace
// When: User performs file operations
// Then: Operations succeed correctly
Steps:
1. Create new file via API
2. Read file contents
3. Update file contents
4. Delete file
5. Verify file history
Assertions:
- All CRUD operations work
- File permissions respected
- History tracked
- Changes persisted
}func TestDirectoryManagement(t *testing.T) {
// Given: Project workspace
// When: User manages directories
// Then: Structure maintained correctly
Steps:
1. Create nested directory structure
2. Move files between directories
3. Rename directories
4. Delete directories
5. Verify integrity
Assertions:
- Directory creation works
- File moves preserved
- Renames propagate correctly
- Deletions are safe
}func TestFileSynchronization(t *testing.T) {
// Given: Multiple clients/workers
// When: Files modified concurrently
// Then: Synchronization handles conflicts
Steps:
1. Create file on client A
2. Modify file on client B
3. Both clients sync
4. Verify conflict resolution
5. Check version history
Assertions:
- Conflicts detected
- Resolution strategy applied
- History preserved
- No data loss
}func TestAICodeGeneration(t *testing.T) {
// Given: Active LLM provider
// When: User requests code generation
// Then: Code generated and integrated
Steps:
1. Submit generation request
2. Verify AI provider called
3. Check generated code quality
4. Apply code to project
5. Validate functionality
Assertions:
- Generation request processed
- Provider integration works
- Code quality acceptable
- Integration successful
}func TestMultiFileEditing(t *testing.T) {
// Given: Project with multiple files
// When: User performs multi-file edit
// Then: All files updated correctly
Steps:
1. Select multiple files
2. Define edit operation
3. Apply changes atomically
4. Verify all files updated
5. Check rollback capability
Assertions:
- Atomic operation performed
- All files updated
- Rollback possible
- Changes tracked
}func TestCodeRefactoring(t *testing.T) {
// Given: Existing codebase
// When: User initiates refactoring
// Then: Code refactored safely
Steps:
1. Select refactoring type
2. Define refactoring parameters
3. Preview changes
4. Apply refactoring
5. Verify functionality preserved
Assertions:
- Refactoring preview shown
- Changes applied correctly
- Functionality preserved
- Tests still pass
}func TestCodeReviewWorkflow(t *testing.T) {
// Given: Code changes ready for review
// When: Review process initiated
// Then: Review completed successfully
Steps:
1. Create code changes
2. Submit for review
3. Reviewer adds comments
4. Address feedback
5. Approve and merge
Assertions:
- Review request created
- Comments added correctly
- Feedback addressed
- Approval process works
}func TestVersionControlIntegration(t *testing.T) {
// Given: Project with Git repository
// When: User performs VCS operations
// Then: Git integration works correctly
Steps:
1. Initialize Git repository
2. Make changes to files
3. Stage and commit changes
4. Create and merge branches
5. Handle conflicts
Assertions:
- Git operations succeed
- History preserved
- Conflicts handled
- Remote sync works
}func TestAutomatedBuild(t *testing.T) {
// Given: Project with build configuration
// When: Build triggered automatically
// Then: Build completes successfully
Steps:
1. Configure build settings
2. Trigger build via API
3. Monitor build progress
4. Check build artifacts
5. Verify deployment ready
Assertions:
- Build configuration valid
- Build triggers correctly
- Progress monitoring works
- Artifacts generated
}func TestTestSuiteExecution(t *testing.T) {
// Given: Project with test suite
// When: Tests executed automatically
// Then: Results reported correctly
Steps:
1. Configure test settings
2. Trigger test execution
3. Monitor test progress
4. Review test results
5. Handle test failures
Assertions:
- Tests execute correctly
- Results accurate
- Failures handled
- Reporting works
}func TestContinuousIntegration(t *testing.T) {
// Given: CI/CD pipeline configured
// When: Code changes pushed
// Then: Pipeline executes correctly
Steps:
1. Push code changes
2. Trigger CI pipeline
3. Run build and tests
4. Deploy if successful
5. Notify stakeholders
Assertions:
- Pipeline triggered
- All stages execute
- Deployment successful
- Notifications sent
}func TestDeploymentAutomation(t *testing.T) {
// Given: Application ready for deployment
// When: Deployment triggered
// Then: Application deployed correctly
Steps:
1. Configure deployment settings
2. Trigger deployment
3. Monitor deployment progress
4. Verify application running
5. Test functionality
Assertions:
- Deployment configured
- Process executes
- Application healthy
- Functionality verified
}func TestDebugSessionInit(t *testing.T) {
// Given: Application ready for debugging
// When: Debug session started
// Then: Session established correctly
Steps:
1. Select debug configuration
2. Start debug session
3. Verify connection established
4. Check breakpoints set
5. Validate environment ready
Assertions:
- Configuration valid
- Session established
- Breakpoints active
- Environment ready
}func TestBreakpointManagement(t *testing.T) {
// Given: Active debug session
// When: Breakpoints added/removed
// Then: Breakpoints managed correctly
Steps:
1. Set breakpoints in code
2. Run to breakpoint
3. Inspect variables
4. Continue execution
5. Remove breakpoints
Assertions:
- Breakpoints set correctly
- Execution stops
- Variables inspectable
- Continue works
}func TestErrorHandlingRecovery(t *testing.T) {
// Given: Application with errors
// When: Errors occur during execution
// Then: Errors handled and reported
Steps:
1. Introduce error condition
2. Execute problematic code
3. Catch and analyze error
4. Apply fix
5. Verify resolution
Assertions:
- Errors caught
- Analysis accurate
- Fixes applied
- Resolution verified
}func TestConfigurationLoading(t *testing.T) {
// Given: Configuration files present
// When: Application loads configuration
// Then: Settings applied correctly
Steps:
1. Create configuration files
2. Start application
3. Verify settings loaded
4. Check override precedence
5. Validate final configuration
Assertions:
- Files parsed correctly
- Settings applied
- Overrides work
- Validation passes
}func TestRuntimeConfigUpdates(t *testing.T) {
// Given: Running application
// When: Configuration updated at runtime
// Then: Changes applied dynamically
Steps:
1. Start with initial config
2. Modify configuration
3. Apply changes
4. Verify updates active
5. Check persistence
Assertions:
- Changes detected
- Updates applied
- No restart needed
- Changes persist
}func TestEnvironmentSpecificConfig(t *testing.T) {
// Given: Multiple environments (dev, staging, prod)
// When: Application runs in different environments
// Then: Appropriate configuration used
Steps:
1. Set environment variable
2. Load configuration
3. Verify correct settings
4. Test multiple environments
5. Validate secrets handling
Assertions:
- Environment detected
- Correct config loaded
- Secrets handled safely
- No conflicts
}func TestLLMProviderSwitching(t *testing.T) {
// Given: Multiple LLM providers configured
// When: User switches between providers
// Then: Switching works seamlessly
Steps:
1. Configure multiple providers
2. Test with first provider
3. Switch to second provider
4. Verify functionality
5. Check fallback behavior
Assertions:
- Providers switch correctly
- Functionality preserved
- Fallbacks work
- No data loss
}func TestLLMProviderFallback(t *testing.T) {
// Given: Primary provider fails
// When: Fallback mechanism activated
// Then: Secondary provider used
Steps:
1. Configure primary/secondary providers
2. Simulate primary failure
3. Verify fallback triggered
4. Test functionality
5. Monitor fallback metrics
Assertions:
- Failure detected
- Fallback activated
- Functionality maintained
- Metrics recorded
}func TestMultiProviderLoadBalancing(t *testing.T) {
// Given: Multiple providers with load balancing
// When: High volume of requests
// Then: Load distributed correctly
Steps:
1. Configure load balancing
2. Generate high request volume
3. Monitor distribution
4. Verify performance
5. Check health monitoring
Assertions:
- Load distributed
- Performance optimal
- Health checks work
- Balancing effective
}func TestProviderHealthMonitoring(t *testing.T) {
// Given: LLM providers configured
// When: Health checks performed
// Then: Health status accurate
Steps:
1. Configure health checks
2. Monitor healthy providers
3. Simulate provider issues
4. Verify health updates
5. Test recovery detection
Assertions:
- Health checks run
- Status accurate
- Issues detected
- Recovery noticed
}func TestProviderRateLimiting(t *testing.T) {
// Given: Providers with rate limits
// When: Rate limits exceeded
// Then: Limiting enforced correctly
Steps:
1. Configure rate limits
2. Make requests within limits
3. Exceed rate limits
4. Verify enforcement
5. Test recovery
Assertions:
- Limits enforced
- Proper responses
- Recovery works
- Metrics accurate
}func TestProviderAuthentication(t *testing.T) {
// Given: Providers requiring authentication
// When: Authentication configured
// Then: Auth works correctly
Steps:
1. Configure API keys/tokens
2. Test authentication
3. Verify secure storage
4. Test key rotation
5. Check error handling
Assertions:
- Auth configured
- Keys secured
- Rotation works
- Errors handled
}func TestDatabaseConnectionManagement(t *testing.T) {
// Given: Database configured
// When: Connections established/managed
// Then: Connections handled efficiently
Steps:
1. Configure database connection
2. Establish connections
3. Test connection pooling
4. Verify timeout handling
5. Check reconnection
Assertions:
- Connections established
- Pooling works
- Timeouts handled
- Reconnection works
}func TestDatabaseMigration(t *testing.T) {
// Given: Database with existing schema
// When: Migration applied
// Then: Schema updated correctly
Steps:
1. Create initial schema
2. Define migration
3. Apply migration
4. Verify schema changes
5. Test rollback
Assertions:
- Migration applies
- Schema correct
- Data preserved
- Rollback works
}func TestDatabaseTransactions(t *testing.T) {
// Given: Database operations
// When: Transactions used
// Then: ACID properties maintained
Steps:
1. Begin transaction
2. Perform operations
3. Test commit
4. Test rollback
5. Verify isolation
Assertions:
- Transactions work
- Commit succeeds
- Rollback works
- Isolation maintained
}func TestDatabaseBackupRecovery(t *testing.T) {
// Given: Database with data
// When: Backup created and restored
// Then: Data recovered correctly
Steps:
1. Insert test data
2. Create backup
3. Modify data
4. Restore backup
5. Verify data integrity
Assertions:
- Backup created
- Data modified
- Restore successful
- Integrity verified
}func TestDatabasePerformance(t *testing.T) {
// Given: Database with data
// When: High-volume operations performed
// Then: Performance acceptable
Steps:
1. Load test data
2. Execute queries
3. Monitor performance
4. Test indexes
5. Optimize if needed
Assertions:
- Queries performant
- Indexes effective
- No bottlenecks
- Optimization helps
}func TestRedisConnection(t *testing.T) {
// Given: Redis server available
// When: Redis operations performed
// Then: Operations succeed
Steps:
1. Connect to Redis
2. Perform basic operations
3. Test different data types
4. Verify persistence
5. Check reconnection
Assertions:
- Connection works
- Operations succeed
- Data types supported
- Reconnection works
}func TestRedisCaching(t *testing.T) {
// Given: Application with caching
// When: Cache operations performed
// Then: Caching works correctly
Steps:
1. Configure caching
2. Cache data
3. Retrieve cached data
4. Test cache expiration
5. Handle cache misses
Assertions:
- Data cached
- Retrieval works
- Expiration functions
- Misses handled
}func TestRedisSessionManagement(t *testing.T) {
// Given: Session-based application
// When: Sessions stored in Redis
// Then: Sessions managed correctly
Steps:
1. Configure session storage
2. Create sessions
3. Retrieve sessions
4. Test expiration
5. Handle concurrency
Assertions:
- Sessions stored
- Retrieval works
- Expiration handled
- Concurrency safe
}func TestRedisPubSub(t *testing.T) {
// Given: Redis pub/sub configured
// When: Messages published/subscribed
// Then: Communication works
Steps:
1. Set up pub/sub
2. Subscribe to channels
3. Publish messages
4. Receive messages
5. Handle patterns
Assertions:
- Subscriptions work
- Publishing succeeds
- Messages received
- Patterns supported
}func TestSSHWorkerConnection(t *testing.T) {
// Given: SSH workers configured
// When: Connection established
// Then: Connection secure and functional
Steps:
1. Configure SSH credentials
2. Establish connection
3. Verify authentication
4. Test secure channels
5. Handle disconnections
Assertions:
- Connection secure
- Authentication works
- Channels established
- Disconnection handled
}func TestWorkerPoolManagement(t *testing.T) {
// Given: Multiple SSH workers
// When: Pool managed dynamically
// Then: Pool functions correctly
Steps:
1. Register workers
2. Monitor health
3. Distribute tasks
4. Handle failures
5. Scale pool
Assertions:
- Workers registered
- Health monitored
- Tasks distributed
- Scaling works
}func TestTaskDistribution(t *testing.T) {
// Given: Worker pool with tasks
// When: Tasks distributed
// Then: Distribution optimal
Steps:
1. Create tasks
2. Assess worker capabilities
3. Distribute tasks
4. Monitor execution
5. Balance load
Assertions:
- Tasks created
- Capabilities assessed
- Distribution fair
- Load balanced
}func TestWorkerHealthMonitoring(t *testing.T) {
// Given: Active worker pool
// When: Health checks performed
// Then: Health status accurate
Steps:
1. Establish health checks
2. Monitor healthy workers
3. Simulate failures
4. Detect unhealthy workers
5. Handle recovery
Assertions:
- Checks run regularly
- Health accurate
- Failures detected
- Recovery handled
}func TestCrossPlatformWorkerCompatibility(t *testing.T) {
// Given: Workers on different platforms
// When: Tasks executed across platforms
// Then: Compatibility maintained
Steps:
1. Set up multi-platform workers
2. Create platform-agnostic tasks
3. Distribute across platforms
4. Verify execution
5. Handle platform specifics
Assertions:
- Workers connect
- Tasks compatible
- Execution successful
- Platform differences handled
}func TestMultiChannelNotifications(t *testing.T) {
// Given: Multiple notification channels
// When: Notifications sent
// Then: All channels receive notifications
Steps:
1. Configure channels (email, Slack, Discord, Telegram)
2. Create notification events
3. Send notifications
4. Verify delivery
5. Check content formatting
Assertions:
- All channels configured
- Notifications delivered
- Content formatted
- Delivery confirmed
}func TestNotificationTemplates(t *testing.T) {
// Given: Notification system
// When: Templates used
// Then: Templates render correctly
Steps:
1. Create templates
2. Populate with data
3. Render notifications
4. Customize templates
5. Test conditional logic
Assertions:
- Templates created
- Data populated
- Rendering works
- Customization possible
}func TestNotificationScheduling(t *testing.T) {
// Given: Notification system
// When: Notifications scheduled
// Then: Delivered at correct time
Steps:
1. Schedule notifications
2. Set delivery times
3. Wait for delivery
4. Verify timing
5. Handle time zones
Assertions:
- Scheduling works
- Timing accurate
- Time zones handled
- Delivery confirmed
}func TestNotificationPreferences(t *testing.T) {
// Given: Users with preferences
// When: Preferences configured
// Then: Notifications respect preferences
Steps:
1. Set user preferences
2. Configure channels
3. Send notifications
4. Verify filtering
5. Test do-not-disturb
Assertions:
- Preferences saved
- Filtering works
- Channels respected
- Do-not-disturb honored
}func TestNotificationErrorHandling(t *testing.T) {
// Given: Notification system
// When: Delivery failures occur
// Then: Errors handled gracefully
Steps:
1. Configure notifications
2. Simulate failures
3. Handle retries
4. Log errors
5. Alert administrators
Assertions:
- Failures detected
- Retries attempted
- Errors logged
- Admin alerted
}func TestMemoryProviderSwitching(t *testing.T) {
// Given: Multiple memory providers
// When: Provider switched
// Then: Switching seamless
Steps:
1. Configure multiple providers
2. Store data in one
3. Switch providers
4. Verify data access
5. Test migration
Assertions:
- Providers switch
- Data accessible
- Migration works
- No data loss
}func TestLongTermMemoryPersistence(t *testing.T) {
// Given: Conversations and context
// When: Stored in memory system
// Then: Memory persists and retrievable
Steps:
1. Have conversation
2. Store in memory
3. Retrieve later
4. Verify context
5. Test search
Assertions:
- Memory stored
- Retrieval works
- Context preserved
- Search functions
}func TestMemorySearchRetrieval(t *testing.T) {
// Given: Stored memories
// When: Search performed
// Then: Relevant memories found
Steps:
1. Store various memories
2. Search by keywords
3. Filter by metadata
4. Rank by relevance
5. Retrieve details
Assertions:
- Search works
- Filtering functions
- Relevance ranking
- Details retrieved
}func TestMemorySystemPerformance(t *testing.T) {
// Given: Large memory dataset
// When: Operations performed
// Then: Performance acceptable
Steps:
1. Load large dataset
2. Perform operations
3. Measure response times
4. Test concurrent access
5. Optimize if needed
Assertions:
- Performance measured
- Response times good
- Concurrency handled
- Optimization effective
}func TestMemorySystemBackupRecovery(t *testing.T) {
// Given: Memory system with data
// When: Backup created and restored
// Then: Data recovered correctly
Steps:
1. Store memories
2. Create backup
3. Simulate data loss
4. Restore from backup
5. Verify integrity
Assertions:
- Backup created
- Data loss simulated
- Restore successful
- Integrity verified
}func TestTaskQueueManagement(t *testing.T) {
// Given: Multiple tasks and workers
// When: Tasks queued for execution
// Then: Queue managed efficiently
Steps:
1. Create task queue
2. Add tasks with priorities
3. Assign to workers
4. Monitor execution
5. Handle failures
Assertions:
- Queue created
- Priorities respected
- Tasks assigned
- Failures handled
}func TestLoadBalancingAlgorithms(t *testing.T) {
// Given: Multiple workers with different capacities
// When: Tasks need distribution
// Then: Load balanced optimally
Steps:
1. Configure workers
2. Set capacities
3. Generate tasks
4. Apply balancing
5. Verify distribution
Assertions:
- Workers configured
- Capacities set
- Balancing applied
- Distribution optimal
}func TestTaskPriorityHandling(t *testing.T) {
// Given: Tasks with different priorities
// When: Tasks queued for execution
// Then: Priorities respected
Steps:
1. Create tasks with priorities
2. Queue tasks
3. Monitor execution order
4. Test priority changes
5. Verify starvation prevention
Assertions:
- Priorities set
- Order correct
- Changes handled
- No starvation
}func TestTaskDependencies(t *testing.T) {
// Given: Tasks with dependencies
// When: Tasks scheduled for execution
// Then: Dependencies respected
Steps:
1. Create dependent tasks
2. Define dependencies
3. Schedule execution
4. Verify order
5. Handle failures
Assertions:
- Dependencies defined
- Order respected
- Execution correct
- Failures handled
}func TestTaskResultAggregation(t *testing.T) {
// Given: Distributed task execution
// When: Results need aggregation
// Then: Results combined correctly
Steps:
1. Distribute tasks
2. Execute in parallel
3. Collect results
4. Aggregate results
5. Verify completeness
Assertions:
- Tasks distributed
- Results collected
- Aggregation correct
- Completeness verified
}func TestDynamicLoadBalancing(t *testing.T) {
// Given: Changing load conditions
// When: Load balancing adapts
// Then: Performance maintained
Steps:
1. Establish baseline load
2. Monitor performance
3. Increase load gradually
4. Observe balancing
5. Verify performance
Assertions:
- Baseline established
- Monitoring active
- Balancing adaptive
- Performance maintained
}func TestWorkerFailureDetection(t *testing.T) {
// Given: Active worker pool
// When: Worker fails
// Then: Failure detected quickly
Steps:
1. Monitor healthy workers
2. Simulate worker failure
3. Detect failure
4. Isolate failed worker
5. Alert administrators
Assertions:
- Health monitoring
- Failure detected
- Isolation quick
- Alert sent
}func TestAutomaticFailover(t *testing.T) {
// Given: Worker failure detected
// When: Failover triggered
// Then: Service continues
Steps:
1. Create redundant setup
2. Simulate primary failure
3. Trigger failover
4. Verify backup active
5. Test functionality
Assertions:
- Redundancy exists
- Failover triggers
- Backup activates
- Functionality preserved
}func TestCircuitBreakerPattern(t *testing.T) {
// Given: Failing service
// When: Circuit breaker activated
// Then: System protected
Steps:
1. Monitor service health
2. Simulate failures
3. Trigger circuit breaker
4. Verify fallback
5. Test recovery
Assertions:
- Monitoring active
- Breaker triggers
- Fallback works
- Recovery detected
}func TestGracefulDegradation(t *testing.T) {
// Given: System under stress
// When: Resources constrained
// Then: Service degrades gracefully
Steps:
1. Establish normal operation
2. Introduce constraints
3. Monitor degradation
4. Verify core functions
5. Test recovery
Assertions:
- Normal operation
- Constraints introduced
- Graceful degradation
- Core functions work
}func TestNetworkPartitionDetection(t *testing.T) {
// Given: Distributed system
// When: Network partition occurs
// Then: Partition detected quickly
Steps:
1. Establish cluster
2. Simulate partition
3. Detect isolation
4. Verify quorum
5. Alert on partition
Assertions:
- Cluster stable
- Partition detected
- Isolation verified
- Alert generated
}func TestSplitBrainPrevention(t *testing.T) {
// Given: Network partition
// When: Multiple partitions form
// Then: Split-brain prevented
Steps:
1. Create partition scenario
2. Monitor cluster state
3. Verify quorum rules
4. Prevent dual masters
5. Maintain consistency
Assertions:
- Partition created
- Quorum maintained
- Single authority
- Consistency preserved
}func TestPartitionRecovery(t *testing.T) {
// Given: Network partition
// When: Network heals
// Then: System recovers completely
Steps:
1. Simulate partition
2. Operate independently
3. Heal partition
4. Reconcile state
5. Verify consistency
Assertions:
- Partition simulated
- Independent operation
- Healing detected
- State reconciled
}func TestDataConsistencyDuringPartition(t *testing.T) {
// Given: Partitioned cluster
// When: Data modified in partitions
// Then: Consistency maintained/recovered
Steps:
1. Create partition
2. Modify data in partitions
3. Track changes
4. Heal partition
5. Reconcile conflicts
Assertions:
- Partition created
- Changes tracked
- Conflicts detected
- Reconciliation correct
}func TestQuorumMaintenance(t *testing.T) {
// Given: Cluster with quorum
// When: Nodes leave/join
// Then: Quorum maintained
Steps:
1. Establish quorum
2. Remove nodes
3. Verify quorum lost
4. Add new nodes
5. Restore quorum
Assertions:
- Quorum established
- Loss detected
- New nodes added
- Quorum restored
}func TestSessionIsolation(t *testing.T) {
// Given: Multiple user sessions
// When: Sessions active simultaneously
// Then: Isolation maintained
Steps:
1. Create multiple sessions
2. Perform operations
3. Verify isolation
4. Test resource sharing
5. Check security boundaries
Assertions:
- Sessions isolated
- Operations independent
- Resources separated
- Security maintained
}func TestResourceAllocation(t *testing.T) {
// Given: Limited system resources
// When: Multiple sessions compete
// Then: Allocation fair and efficient
Steps:
1. Establish resource limits
2. Create competing sessions
3. Monitor allocation
4. Test fairness
5. Handle exhaustion
Assertions:
- Limits enforced
- Allocation fair
- Competition handled
- Exhaustion graceful
}func TestSessionTimeoutHandling(t *testing.T) {
// Given: Active user sessions
// When: Sessions timeout
// Then: Timeout handled gracefully
Steps:
1. Configure timeouts
2. Create active sessions
3. Wait for timeout
4. Handle expiration
5. Clean up resources
Assertions:
- Timeouts configured
- Expiration detected
- Handling graceful
- Cleanup complete
}func TestConcurrentDataAccess(t *testing.T) {
// Given: Shared data resources
// When: Concurrent access attempted
// Then: Access synchronized correctly
Steps:
1. Identify shared resources
2. Create concurrent access
3. Monitor synchronization
4. Detect conflicts
5. Resolve deadlocks
Assertions:
- Access synchronized
- Conflicts detected
- Deadlocks prevented
- Consistency maintained
}func TestSessionMigration(t *testing.T) {
// Given: Active session on one node
// When: Session migrated to another node
// Then: Migration seamless
Steps:
1. Create active session
2. Initiate migration
3. Transfer state
4. Verify continuity
5. Clean up original
Assertions:
- Migration initiated
- State transferred
- Continuity maintained
- Cleanup performed
}func TestLinuxPackageInstallation(t *testing.T) {
// Given: Linux system (Ubuntu/Debian)
// When: HelixCode installed
// Then: Installation successful
Steps:
1. Download package
2. Install dependencies
3. Install HelixCode
4. Verify installation
5. Test functionality
Assertions:
- Package downloads
- Dependencies met
- Installation completes
- Functionality verified
}func TestLinuxServiceManagement(t *testing.T) {
// Given: HelixCode installed on Linux
// When: Managed as system service
// Then: Service operations work
Steps:
1. Create service definition
2. Start service
3. Check status
4. Stop service
5. Enable auto-start
Assertions:
- Service created
- Start successful
- Status correct
- Auto-start works
}func TestLinuxSecurityConfiguration(t *testing.T) {
// Given: HelixCode on Linux
// When: Security configured
// Then: System secure
Steps:
1. Configure firewall
2. Set file permissions
3. Configure SELinux/AppArmor
4. Set up monitoring
5. Test security
Assertions:
- Firewall configured
- Permissions set
- MAC configured
- Monitoring active
}func TestMacOSApplicationBundle(t *testing.T) {
// Given: macOS system
// When: Application bundle created
// Then: Bundle works correctly
Steps:
1. Create app bundle
2. Sign application
3. Test installation
4. Verify permissions
5. Check functionality
Assertions:
- Bundle created
- Signing successful
- Installation works
- Functionality verified
}func TestMacOSCodeSigning(t *testing.T) {
// Given: macOS application
// When: Code signing applied
// Then: Signing valid
Steps:
1. Generate certificates
2. Sign application
3. Verify signature
4. Test notarization
5. Validate gatekeeper
Assertions:
- Certificates valid
- Signing successful
- Notarization passes
- Gatekeeper approves
}func TestMacOSSystemIntegration(t *testing.T) {
// Given: HelixCode on macOS
// When: System integration configured
// Then: Integration works
Steps:
1. Create launchd service
2. Configure notifications
3. Set up file associations
4. Test system calls
5. Verify integration
Assertions:
- Service created
- Notifications work
- Associations set
- Integration verified
}func TestWindowsWSLIntegration(t *testing.T) {
// Given: Windows with WSL
// When: HelixCode runs in WSL
// Then: Integration seamless
Steps:
1. Install WSL
2. Set up Linux environment
3. Install HelixCode
4. Test Windows integration
5. Verify file sharing
Assertions:
- WSL installed
- Environment ready
- Integration works
- Sharing functional
}func TestWindowsServiceInstallation(t *testing.T) {
// Given: Windows system
// When: HelixCode installed as service
// Then: Service works correctly
Steps:
1. Create service
2. Install service
3. Start service
4. Test functionality
5. Manage service
Assertions:
- Service created
- Installation successful
- Functionality verified
- Management works
}func TestWindowsRegistryConfiguration(t *testing.T) {
// Given: HelixCode on Windows
// When: Registry configuration needed
// Then: Registry handled correctly
Steps:
1. Create registry keys
2. Set configuration values
3. Test reading/writing
4. Handle permissions
5. Clean up properly
Assertions:
- Keys created
- Values set
- Access works
- Cleanup complete
}func TestDockerContainerization(t *testing.T) {
// Given: HelixCode application
// When: Containerized with Docker
// Then: Container works correctly
Steps:
1. Create Dockerfile
2. Build image
3. Run container
4. Test functionality
5. Verify isolation
Assertions:
- Image builds
- Container runs
- Functionality verified
- Isolation maintained
}func TestDockerComposeMultiService(t *testing.T) {
// Given: Multi-service application
// When: Orchestrated with Docker Compose
// Then: Services work together
Steps:
1. Create compose file
2. Define services
3. Start services
4. Test integration
5. Scale services
Assertions:
- Services defined
- Integration works
- Communication functional
- Scaling effective
}func TestKubernetesDeployment(t *testing.T) {
// Given: Containerized application
// When: Deployed to Kubernetes
// Then: Deployment successful
Steps:
1. Create manifests
2. Deploy to cluster
3. Verify pods running
4. Test service discovery
5. Scale deployment
Assertions:
- Manifests valid
- Deployment successful
- Services discoverable
- Scaling works
}func TestIOSAppIntegration(t *testing.T) {
// Given: iOS application
// When: Integrated with HelixCode
// Then: Integration works
Steps:
1. Build iOS app
2. Configure API integration
3. Test communication
4. Verify data sync
5. Test offline mode
Assertions:
- App builds
- API works
- Sync functional
- Offline supported
}func TestAndroidAppIntegration(t *testing.T) {
// Given: Android application
// When: Integrated with HelixCode
// Then: Integration successful
Steps:
1. Build Android app
2. Set up integration
3. Test API calls
4. Verify functionality
5. Test across devices
Assertions:
- App built
- Integration works
- API functional
- Device compatibility
}func TestMobileAPISecurity(t *testing.T) {
// Given: Mobile app integration
// When: API calls made from mobile
// Then: Security maintained
Steps:
1. Configure mobile auth
2. Test token handling
3. Verify encryption
4. Test certificate pinning
5. Validate requests
Assertions:
- Auth secure
- Tokens handled
- Encryption active
- Requests validated
}Priority 1 (Days 1-2): Authentication & Project Management
- TEST-E2E-001 to TEST-E2E-007 (7 tests)
- These are fundamental to all other operations
Priority 2 (Days 3-4): File Operations & Code Generation
- TEST-E2E-008 to TEST-E2E-015 (8 tests)
- Core functionality for development workflows
Priority 3 (Days 5-6): Build, Test & Debug
- TEST-E2E-016 to TEST-E2E-022 (7 tests)
- Automation and development tools
Priority 4 (Day 7): Configuration & Integration Prep
- TEST-E2E-023 to TEST-E2E-025 (3 tests)
- System configuration and prep for integration testsPriority 1 (Days 1-2): LLM Provider Integration
- TEST-E2E-026 to TEST-E2E-031 (6 tests)
- Core AI functionality
Priority 2 (Days 3-4): Database & Redis
- TEST-E2E-032 to TEST-E2E-040 (9 tests)
- Data persistence and caching
Priority 3 (Days 5-6): SSH Workers & Notifications
- TEST-E2E-041 to TEST-E2E-050 (10 tests)
- Distributed computing and communication
Priority 4 (Day 7): Memory System
- TEST-E2E-051 to TEST-E2E-055 (5 tests)
- Advanced AI memory featuresPriority 1 (Days 1-2): Task Distribution & Load Balancing
- TEST-E2E-056 to TEST-E2E-065 (10 tests)
- Core distributed functionality
Priority 2 (Days 3-4): Network & Sessions
- TEST-E2E-066 to TEST-E2E-075 (10 tests)
- Network resilience and user management
Priority 3 (Days 5-7): Platform-Specific
- TEST-E2E-076 to TEST-E2E-090 (15 tests)
- Cross-platform compatibilityfunc TestXXXX(t *testing.T) {
// Setup
ctx := context.Background()
server := setupTestServer(t)
defer server.Cleanup()
// Given
testData := prepareTestData(t)
// When
result, err := performOperation(ctx, testData)
// Then
require.NoError(t, err)
assert.Equal(t, expectedResult, result)
// Cleanup
cleanupTestData(t, testData)
}// Use factories for test data
type TestDataFactory struct {
// Factories for users, projects, etc.
}
// Clean up after each test
func cleanupTestData(t *testing.T, data interface{}) {
// Remove test data from database
// Clean up files
// Reset mocks
}func setupTestServer(t *testing.T) *TestServer {
// Start test server
// Configure test database
// Set up mock services
// Return test server instance
}Week 2 Target: 25 Core Workflow Tests (100%)
Week 3 Target: 30 Integration Tests (100%)
Week 4 Target: 20 Distributed + 15 Platform Tests (100%)
Overall Target: 90 new tests implemented
Success Criteria: All tests passing >95% success rate✅ Gate 1: All tests compile without errors
✅ Gate 2: Tests are deterministic (no flaky tests)
✅ Gate 3: Tests have proper cleanup
✅ Gate 4: Tests cover edge cases
✅ Gate 5: Tests have meaningful assertions- Phase 0 must be complete (build system working)
- Test infrastructure must be functional
- Mock services must be available
- Test databases must be configurable
- Test environment with multiple platforms
- Database instances for testing
- Redis instance for caching tests
- SSH access to test workers
- Multiple LLM provider accounts
- Week 2: Core workflows (25 tests)
- Week 3: Integration tests (30 tests)
- Week 4: Distributed & platform (35 tests)
- Total: 90 tests in 3 weeks
Status: 🟡 READY FOR IMPLEMENTATION - Framework exists, 90 tests to be created
Next: Begin Phase 1A with core workflow tests
Dependencies: Phase 0 completion (build system fixed)
Specification created: December 11, 2025 - Ready for implementation phase