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Lesson 24: Observability for Data Platform

Data observability: pipeline monitoring, data freshness, volume anomalies. SLA tracking. Incident response for data issues. Monte Carlo patterns.

🏗️ Architecture — Lesson 24 Lesson 24: Observability for Data Platform

Data Platform & Analytics Architecture

Part 7: Production & Case Studies

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Lesson 24: Observability for Data Platform

Introduction

Data observability: pipeline monitoring, data freshness, volume anomalies. SLA tracking. Incident response for data issues. Monte Carlo patterns.


1. Data observability: pipeline monitoring, data freshness, volume anomalies

1.1 Basic concepts

Data observability: pipeline monitoring, data freshness, volume anomalies are one of the most important topics in this field. Understanding the core concepts will help you design the right system from the beginning.

Key Concepts:
├── Concept 1: Nền tảng lý thuyết
├── Concept 2: Áp dụng thực tế
├── Concept 3: Best practices
└── Concept 4: Anti-patterns cần tránh

1.2 Why is it important?

AspectNot applicableCorrect application
PerformanceBottlenecks, high latencyOptimized, scalable
ReliabilitySingle point of failureFault-tolerant
MaintainabilityTechnical debt accumulatedClean architecture
SecurityVulnerableDefense in depth

2. SLA tracking

2.1 General architecture

┌─────────────────────────────────────────────────────┐
│                  SYSTEM ARCHITECTURE                 │
│                                                      │
│  ┌──────────┐  ┌──────────┐  ┌──────────────────┐  │
│  │  Client   │  │  API     │  │  Core Service    │  │
│  │  Layer    │──│  Gateway │──│  Layer           │  │
│  └──────────┘  └──────────┘  └──────────────────┘  │
│                                      │               │
│                               ┌──────▼──────┐       │
│                               │  Data Layer │       │
│                               └─────────────┘       │
└─────────────────────────────────────────────────────┘

2.2 Component Design

Each component in the system needs to be designed with the following principles:

  • Single Responsibility: Each component only takes on one responsibility
  • Loose Coupling: Minimize dependencies between components
  • High Cohesion: Related elements are in the same component
  • Interface Segregation: Clear, separate API

3. Incident response for data issues

3.1 Design Patterns applied

Applied Patterns:
├── Strategy Pattern: Cho phép thay đổi algorithm at runtime
├── Observer Pattern: Event notification mechanism
├── Repository Pattern: Data access abstraction
└── Factory Pattern: Object creation flexibility

3.2 Code Example

// Example implementation
public interface Service {
    Result process(Request request);
    boolean supports(RequestType type);
}

@Component
public class CoreService implements Service {

    @Override
    public Result process(Request request) {
        // Validate input
        validator.validate(request);

        // Execute business logic
        var result = businessLogic.execute(request);

        // Publish domain event
        eventBus.publish(new ProcessedEvent(result));

        return result;
    }
}

4. Monte Carlo patterns.

4.1 Monitoring & Observability

Observability Stack:
├── Metrics: Prometheus + Grafana
├── Logging: ELK / Loki
├── Tracing: OpenTelemetry + Jaeger
└── Alerting: PagerDuty

4.2 Performance Optimization

MetricsTargetStrategy
Latency p99< 100msCaching, async processing
Throughput> 10K RPSHorizontal scaling
Availability99.99%Multi-region, failover
Error rate< 0.01%Circuit breaker, retry

Summary

In this lesson, we learned about Observability for Data Platform. Key takeaways:

  • Understand core concepts and how to apply
  • Design architecture in accordance with requirements
  • Implementation patterns and best practices
  • Production considerations: monitoring, performance, security

Next article: We will continue with the next topic in the series.