🔷 🏗️ Advanced Architectures - TuskLang for C# - "Architectural Mastery"
🏗️ Advanced Architectures - TuskLang for C# - "Architectural Mastery"
Master complex TuskLang architectures - From microservices to event-driven, from CQRS to hexagonal!
Advanced architectures require sophisticated patterns and designs. Learn how to build complex TuskLang systems using modern architectural patterns that scale, maintain, and evolve.
🎯 Architecture Philosophy
"We Don't Bow to Any King"
- Scalable design - Architectures that scale with demand - Maintainable code - Clean, understandable, and evolvable - Testable systems - Architectures that support comprehensive testing - Resilient patterns - Systems that handle failures gracefully - Performance optimized - Architectures designed for performanceWhy Advanced Architectures Matter?
- System complexity - Handle complex business requirements - Team scalability - Support multiple development teams - Technology evolution - Adapt to changing technologies - Business growth - Scale with business growth - Operational efficiency - Efficient operations and maintenance🏢 Hexagonal Architecture
Hexagonal Architecture Service
// HexagonalArchitectureService.cs
using TuskLang;
using TuskLang.Architecture;public class HexagonalArchitectureService
{
private readonly TuskLang _parser;
private readonly IApplicationCore _applicationCore;
private readonly ILogger<HexagonalArchitectureService> _logger;
public HexagonalArchitectureService(
IApplicationCore applicationCore,
ILogger<HexagonalArchitectureService> logger)
{
_parser = new TuskLang();
_applicationCore = applicationCore;
_logger = logger;
// Configure parser for hexagonal architecture
_parser.SetArchitectureProvider(new HexagonalArchitectureProvider(_applicationCore));
}
public async Task<ArchitectureReport> BuildHexagonalArchitectureAsync(string filePath)
{
var report = new ArchitectureReport
{
FilePath = filePath,
ArchitectureType = "Hexagonal",
StartedAt = DateTime.UtcNow
};
try
{
// Parse configuration
var config = _parser.ParseFile(filePath);
// Build application core
await BuildApplicationCoreAsync(config, report);
// Build adapters
await BuildAdaptersAsync(config, report);
// Configure ports
await ConfigurePortsAsync(config, report);
// Validate architecture
await ValidateArchitectureAsync(config, report);
report.CompletedAt = DateTime.UtcNow;
report.Duration = report.CompletedAt - report.StartedAt;
report.Success = true;
_logger.LogInformation("Hexagonal architecture built successfully in {Duration}", report.Duration);
return report;
}
catch (Exception ex)
{
report.Errors.Add($"Hexagonal architecture failed: {ex.Message}");
report.Success = false;
_logger.LogError(ex, "Hexagonal architecture failed");
throw;
}
}
private async Task BuildApplicationCoreAsync(Dictionary<string, object> config, ArchitectureReport report)
{
var coreStep = new ArchitectureStep
{
Name = "Build Application Core",
StartedAt = DateTime.UtcNow
};
try
{
// Build domain entities
await BuildDomainEntitiesAsync(config, report);
// Build use cases
await BuildUseCasesAsync(config, report);
// Build domain services
await BuildDomainServicesAsync(config, report);
coreStep.CompletedAt = DateTime.UtcNow;
coreStep.Duration = coreStep.CompletedAt - coreStep.StartedAt;
coreStep.Success = true;
report.Steps.Add(coreStep);
}
catch (Exception ex)
{
coreStep.CompletedAt = DateTime.UtcNow;
coreStep.Duration = coreStep.CompletedAt - coreStep.StartedAt;
coreStep.Success = false;
coreStep.Error = ex.Message;
report.Steps.Add(coreStep);
report.Errors.Add($"Application core build failed: {ex.Message}");
throw;
}
}
private async Task BuildAdaptersAsync(Dictionary<string, object> config, ArchitectureReport report)
{
var adaptersStep = new ArchitectureStep
{
Name = "Build Adapters",
StartedAt = DateTime.UtcNow
};
try
{
// Build primary adapters (driving)
await BuildPrimaryAdaptersAsync(config, report);
// Build secondary adapters (driven)
await BuildSecondaryAdaptersAsync(config, report);
adaptersStep.CompletedAt = DateTime.UtcNow;
adaptersStep.Duration = adaptersStep.CompletedAt - adaptersStep.StartedAt;
adaptersStep.Success = true;
report.Steps.Add(adaptersStep);
}
catch (Exception ex)
{
adaptersStep.CompletedAt = DateTime.UtcNow;
adaptersStep.Duration = adaptersStep.CompletedAt - adaptersStep.StartedAt;
adaptersStep.Success = false;
adaptersStep.Error = ex.Message;
report.Steps.Add(adaptersStep);
report.Errors.Add($"Adapters build failed: {ex.Message}");
throw;
}
}
private async Task ConfigurePortsAsync(Dictionary<string, object> config, ArchitectureReport report)
{
var portsStep = new ArchitectureStep
{
Name = "Configure Ports",
StartedAt = DateTime.UtcNow
};
try
{
// Configure input ports
await ConfigureInputPortsAsync(config, report);
// Configure output ports
await ConfigureOutputPortsAsync(config, report);
portsStep.CompletedAt = DateTime.UtcNow;
portsStep.Duration = portsStep.CompletedAt - portsStep.StartedAt;
portsStep.Success = true;
report.Steps.Add(portsStep);
}
catch (Exception ex)
{
portsStep.CompletedAt = DateTime.UtcNow;
portsStep.Duration = portsStep.CompletedAt - portsStep.StartedAt;
portsStep.Success = false;
portsStep.Error = ex.Message;
report.Steps.Add(portsStep);
report.Errors.Add($"Ports configuration failed: {ex.Message}");
throw;
}
}
private async Task ValidateArchitectureAsync(Dictionary<string, object> config, ArchitectureReport report)
{
var validationStep = new ArchitectureStep
{
Name = "Validate Architecture",
StartedAt = DateTime.UtcNow
};
try
{
// Validate dependency direction
await ValidateDependencyDirectionAsync(config, report);
// Validate port contracts
await ValidatePortContractsAsync(config, report);
// Validate adapter implementations
await ValidateAdapterImplementationsAsync(config, report);
validationStep.CompletedAt = DateTime.UtcNow;
validationStep.Duration = validationStep.CompletedAt - validationStep.StartedAt;
validationStep.Success = true;
report.Steps.Add(validationStep);
}
catch (Exception ex)
{
validationStep.CompletedAt = DateTime.UtcNow;
validationStep.Duration = validationStep.CompletedAt - validationStep.StartedAt;
validationStep.Success = false;
validationStep.Error = ex.Message;
report.Steps.Add(validationStep);
report.Errors.Add($"Architecture validation failed: {ex.Message}");
throw;
}
}
// Implementation methods would go here...
private async Task BuildDomainEntitiesAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task BuildUseCasesAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task BuildDomainServicesAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task BuildPrimaryAdaptersAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task BuildSecondaryAdaptersAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task ConfigureInputPortsAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task ConfigureOutputPortsAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task ValidateDependencyDirectionAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task ValidatePortContractsAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
private async Task ValidateAdapterImplementationsAsync(Dictionary<string, object> config, ArchitectureReport report) => await Task.CompletedTask;
}
public class ArchitectureReport
{
public string FilePath { get; set; } = string.Empty;
public string ArchitectureType { get; set; } = string.Empty;
public DateTime StartedAt { get; set; }
public DateTime? CompletedAt { get; set; }
public TimeSpan Duration => CompletedAt?.Subtract(StartedAt) ?? TimeSpan.Zero;
public List<ArchitectureStep> Steps { get; set; } = new List<ArchitectureStep>();
public List<string> Errors { get; set; } = new List<string>();
public bool Success { get; set; }
}
public class ArchitectureStep
{
public string Name { get; set; } = string.Empty;
public DateTime StartedAt { get; set; }
public DateTime? CompletedAt { get; set; }
public TimeSpan Duration => CompletedAt?.Subtract(StartedAt) ?? TimeSpan.Zero;
public bool Success { get; set; }
public string? Error { get; set; }
}
Hexagonal Architecture TSK Configuration
hexagonal-architecture.tsk - Hexagonal architecture configuration
$architecture_type: "hexagonal"
$domain_name: @env("DOMAIN_NAME", "ecommerce")[architecture]
type: $architecture_type
domain: $domain_name
pattern: "ports_and_adapters"
[application_core]
Application core configuration
domain_entities {
user: true
order: true
product: true
payment: true
}use_cases {
create_user: true
place_order: true
process_payment: true
manage_inventory: true
}
domain_services {
user_service: true
order_service: true
payment_service: true
inventory_service: true
}
[ports]
Ports configuration
input_ports {
user_management: true
order_management: true
payment_processing: true
inventory_management: true
}output_ports {
user_repository: true
order_repository: true
payment_gateway: true
inventory_repository: true
}
[adapters]
Adapters configuration
primary_adapters {
rest_api: true
grpc_api: true
cli: true
web_ui: true
}secondary_adapters {
postgresql_repository: true
redis_cache: true
stripe_payment: true
email_service: true
}
[dependencies]
Dependency configuration
dependency_direction: "inward"
core_independent: true
adapters_dependent: true
🎯 Architecture Best Practices
1. Hexagonal Architecture
- ✅ Domain isolation - Keep domain logic isolated - ✅ Port contracts - Define clear port contracts - ✅ Adapter implementations - Implement adapters for external concerns - ✅ Dependency direction - Dependencies point inward2. Microservices Architecture
- ✅ Service boundaries - Clear service boundaries - ✅ Service independence - Independent deployment and scaling - ✅ API contracts - Well-defined API contracts - ✅ Data isolation - Each service owns its data3. Event-Driven Architecture
- ✅ Loose coupling - Services communicate via events - ✅ Event sourcing - Store events as source of truth - ✅ CQRS - Separate read and write models - ✅ Event replay - Ability to replay events4. CQRS Architecture
- ✅ Command separation - Separate commands from queries - ✅ Read models - Optimized read models - ✅ Write models - Optimized write models - ✅ Event sourcing - Use events for state changes🎉 You're Ready!
You've mastered advanced TuskLang architectures! You can now:
- ✅ Build hexagonal systems - Clean architecture patterns - ✅ Design microservices - Distributed system design - ✅ Implement event-driven - Event-driven architecture - ✅ Apply CQRS - Command Query Responsibility Segregation - ✅ Scale architectures - Scalable system design - ✅ Maintain systems - Maintainable architecture patterns
🔥 What's Next?
Ready for performance optimization? Explore:
1. Performance Optimization - Enterprise performance 2. Monitoring and Observability - Advanced monitoring 3. Testing Strategies - Comprehensive testing
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"We don't bow to any king" - Your architectural mastery, your system design excellence, your architectural innovation.
Build advanced architectures with confidence! 🏗️