A tailored course, built for your situation
Deeper command of scalable system design patterns
Build with the full framework in mind, anticipate trade-offs before they emerge
The situation this course is for
Who this is for
Software engineer joining a high-scale platform team, expected to contribute quickly on complex distributed systems
Who this is not for
Engineers focused only on frontend UI or isolated component work without engagement in backend architecture decisions
What you walk away with
- Confidence selecting consistency models based on business tolerance, not just defaults
- Clear articulation of trade-offs between sharding strategies before implementation
- Internalized patterns for idempotency, retry logic, and circuit breaking in async workflows
- Faster debugging of distributed failures using mental models of propagation and isolation
- Ability to propose system improvements grounded in first-principles reasoning, not trends
The 12 modules (with all 144 chapters)
- Defining distributed systems
- The role of time and ordering
- State vs. statelessness
- Network unreliability as default
- Failure modes taxonomy
- CAP theorem in practice
- Latency as a constraint
- Observability foundations
- Tracing key decisions
- Designing for partial failure
- Idempotency essentials
- Backpressure mechanisms
- Strong consistency trade-offs
- Eventual consistency patterns
- Causal consistency use cases
- Session guarantees implementation
- Read-your-writes consistency
- Monotonic reads explained
- Consistency in replication
- Quorum-based writes
- Vector clock basics
- Conflict resolution strategies
- Application-level handling
- When consistency fails silently
- Sharding vs. replication
- Hash-based key distribution
- Range sharding pros and cons
- Directory-based lookups
- Rebalancing strategies
- Hotspot prevention
- Cross-shard queries
- Atomicity across shards
- Migrations with zero downtime
- Shard-aware clients
- Monitoring shard health
- Cost implications of sharding
- Leader-follower replication
- Leaderless Dynamo-style
- Write-ahead logs
- Snapshot isolation
- Failure detection
- Failover automation
- Split-brain avoidance
- Log shipping patterns
- Multi-region replication
- Durability guarantees
- Catch-up mechanisms
- Replica lag monitoring
- Idempotency definition
- Request identifiers
- Idempotency keys
- Safe retry conditions
- 幂等性 in HTTP methods
- Non-idempotent actions
- Compensation workflows
- Saga pattern basics
- Two-phase commit
- Distributed locks
- Timeout handling
- Idempotency testing
- Defining failure domains
- Physical vs logical isolation
- Cascading failure paths
- Bulkhead pattern
- Circuit breaker logic
- Rate limiting strategies
- Dependency hardening
- Graceful degradation
- Feature flags as circuit
- Health check design
- Dependency ranking
- Failure injection testing
- Stateless vs stateful
- Local state caching
- Remote state access
- State migration tools
- Consistent hashing
- State replication costs
- Leader-based state updates
- Conflict-free replicated data types
- Operational overhead
- Backup and restore
- Versioning state formats
- Testing state transitions
- Pub-sub fundamentals
- Message durability
- At-least-once delivery
- Exactly-once semantics
- Event sourcing basics
- Consumer offset tracking
- Dead letter queues
- Poison message handling
- Event schema evolution
- Ordering guarantees
- Fan-out patterns
- Backpressure in queues
- ACID in distributed systems
- Two-phase commit
- Three-phase commit
- Saga pattern details
- Compensating transactions
- Choreography vs orchestration
- Temporal consistency
- Distributed locking
- Lease-based coordination
- Consensus algorithms
- ZooKeeper use cases
- Clock synchronization
- Metrics vs logs vs traces
- High-cardinality issues
- Instrumentation principles
- Service level objectives
- Golden signals
- Latency percentile analysis
- Trace context propagation
- Structured logging
- Alerting on SLOs
- Correlation across services
- Debugging with traces
- Observability cost control
- Zero trust principles
- mTLS basics
- Service identity
- Role-based access
- Token propagation
- Secrets management
- Data encryption
- Audit logging
- Rate limiting abuse
- DDoS mitigation
- Secure defaults
- Security in CI/CD
- Designing a payment service
- Building a notification system
- Scaling a recommendation engine
- Multi-region deployment
- Disaster recovery plan
- Cost-aware scaling
- Tech debt management
- Incremental architecture change
- Design review best practices
- Stakeholder alignment
- Postmortem learning
- Pattern documentation
How this maps to your situation
- Joining a high-scale engineering team
- Contributing to backend system design
- Debugging complex distributed issues
- Proposing improvements to existing systems
Before vs. after
What's included with your purchase
- 12 modules with 12 chapters each (144 chapters)
- Downloadable templates and worked examples for every module
- Hand-built implementation playbook delivered alongside course access
- 30-day money-back guarantee
Delivery and format
- Course and learning environment access provisioned within 24 hours of purchase
- Hand-built implementation playbook delivered alongside course access
Format: Text-based modules and chapters in the Art of Service learning environment, plus downloadable templates and worked examples for every chapter, plus the hand-built implementation playbook delivered alongside course access.
Time investment: Approximately 3, 4 hours per module, designed to be completed over 6, 8 weeks with real-world application.
How this compares to the alternatives
Most system design resources focus on interview prep or abstract theory. This course is built for practitioners shipping real systems, emphasizing operational reality, trade-off analysis, and pattern mastery over memorization.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.