High-Level Architecture
Dataspine is built as a cloud-native, event-driven platform that provides real-time data processing capabilities with strong consistency guarantees. This document describes the overall architecture and how the various components work together.
Architecture Overview
Core Components
1. Ingestion Layer
The ingestion layer is responsible for capturing data from external systems in real-time.
Change Data Capture (CDC)
- Purpose: Capture database changes in real-time
- Supported Databases: PostgreSQL, MySQL, MongoDB, SQL Server
- Technology: Debezium-based CDC with custom optimizations
- Guarantees: Exactly-once delivery, ordered processing
Connectors
- Purpose: Integrate with various data sources and systems
- Types: Database, API, File, Message Queue, Custom
- Features: Schema inference, error handling, backpressure management
Schema Registry
- Purpose: Manage schema evolution and compatibility
- Features: Backward/forward compatibility, schema validation, versioning
- Storage: Distributed schema store with ACID properties
2. Processing Layer
The heart of Dataspine's real-time processing capabilities.
Stream Processor
- Technology: Custom Rust-based stream processing engine
- Features:
- Sub-millisecond latency
- Exactly-once semantics
- Automatic parallelization
- Fault tolerance and recovery
State Store
- Purpose: Manage stateful transformations and aggregations
- Technology: RocksDB with custom optimizations
- Features:
- ACID transactions
- Point-in-time recovery
- Distributed state management
Transformations
- Languages: Rust (native), SQL, Python
- Patterns: Map, Filter, Join, Aggregate, Window operations
- Optimization: Automatic query optimization and vectorization
3. Storage Layer
Durable storage for events, metadata, and operational data.
Event Store
- Purpose: Immutable log of all events and transformations
- Technology: Apache Kafka with custom retention policies
- Features:
- Infinite retention options
- Time-travel queries
- Event replay capabilities
Metadata Store
- Purpose: Store configuration, schemas, and operational metadata
- Technology: PostgreSQL with high availability setup
- Data: Data product definitions, lineage, access policies
Cache Layer
- Purpose: High-performance caching for frequently accessed data
- Technology: Redis Cluster with intelligent cache warming
- Features: Automatic invalidation, distributed caching
4. API Layer
Unified access to data products through multiple protocols.
Auto-Generated APIs
Every data product automatically exposes:
# API endpoints automatically created
/api/v1/{data-product}/ # REST API
/graphql/{data-product}/ # GraphQL endpoint
/grpc/{data-product}/ # gRPC service
/stream/{data-product}/ # WebSocket streaming
Protocol Support
- REST: Full CRUD operations with pagination and filtering
- GraphQL: Flexible queries with real-time subscriptions
- gRPC: High-performance binary protocol for service-to-service
- WebSockets: Real-time streaming to web applications
5. Control Plane
Management and operational capabilities.
Deployment Engine
- Features: Blue-green deployments, canary releases, rollback
- Integration: Kubernetes-native with Helm charts
- Automation: GitOps workflows, CI/CD integration
Monitoring & Observability
- Metrics: Prometheus-compatible metrics collection
- Tracing: Distributed tracing with OpenTelemetry
- Logging: Structured logging with correlation IDs
- Dashboards: Grafana-based operational dashboards
Governance
- Access Control: Fine-grained RBAC with OpenFGA
- Data Classification: Automatic PII detection and tagging
- Audit: Complete audit trails for all operations
- Compliance: GDPR, CCPA, and other regulatory compliance
Data Flow Architecture
Real-time Data Flow
Batch Integration Flow
Scalability and Performance
Horizontal Scaling
Stream Processing
- Auto-scaling: Based on data volume and latency requirements
- Partitioning: Automatic data partitioning for parallel processing
- Load Balancing: Intelligent load distribution across processors
Storage Scaling
- Event Store: Automatic partition rebalancing
- State Store: Distributed state management with consistent hashing
- Cache Layer: Elastic cache scaling based on hit rates
Performance Characteristics
| Component | Latency | Throughput | Availability |
|---|---|---|---|
| CDC Ingestion | < 10ms | 1M events/sec | 99.99% |
| Stream Processing | < 1ms | 10M events/sec | 99.99% |
| API Queries | < 5ms | 100K req/sec | 99.95% |
| Event Store | < 1ms | 1M writes/sec | 99.99% |
Security Architecture
Defense in Depth
Security Features
Authentication & Authorization
- SSO Integration: SAML, OIDC, Active Directory
- Fine-grained RBAC: Resource and action-level permissions
- API Keys: Service-to-service authentication
- Zero Trust: All communications verified and encrypted
Data Protection
- Encryption: AES-256 at rest, TLS 1.3 in transit
- Key Management: Hardware Security Modules (HSM)
- Data Masking: Dynamic masking based on user roles
- Pseudonymization: Consistent tokenization for analytics
Deployment Architecture
Multi-Region Deployment
Infrastructure Components
Kubernetes Native
- Orchestration: Kubernetes 1.24+
- Service Mesh: Istio for traffic management
- Ingress: NGINX with automatic SSL/TLS
- Storage: Persistent volumes with automatic backup
Cloud Provider Integration
- AWS: EKS, RDS, ElastiCache, S3
- Azure: AKS, PostgreSQL, Redis, Blob Storage
- GCP: GKE, Cloud SQL, Memorystore, Cloud Storage
High Availability & Disaster Recovery
Availability Guarantees
Service Level Objectives (SLOs)
- Platform Availability: 99.99% uptime
- API Latency: P99 < 100ms
- Data Freshness: < 1 second for real-time data
- Recovery Time: < 5 minutes for any component failure
Fault Tolerance
- Automatic Failover: Immediate failover to healthy instances
- Circuit Breakers: Prevent cascade failures
- Graceful Degradation: Continue operating with reduced functionality
- Self-Healing: Automatic recovery from transient failures
Disaster Recovery
Backup Strategy
- Continuous Replication: Real-time data replication to secondary regions
- Point-in-Time Recovery: Restore to any point in the last 30 days
- Configuration Backup: All configurations stored in version control
- Cross-Region Recovery: Automatic failover to backup regions
Next Steps
To dive deeper into specific aspects of the architecture:
- What is Dataspine? — product context
- Spine language — how data products are declared
- Data product lifecycle — design through iteration
- Dataspine CLI — check, compile, and related commands
Deployment, security, and low-level platform internals are covered by internal documentation where applicable.