Migration Planning with nOps Discovery
Overview
Migration Planning is a sophisticated capability within nOps Discovery that transforms raw workload analysis into a comprehensive, actionable migration strategy. Going beyond traditional assessment tools, nOps provides a dynamic, AI-driven migration planning system that balances business requirements, technical constraints, and risk tolerance to create optimal migration waves and landing zone architectures.
Network Dependency Mapping
Graph-Based Dependency Analysis
nOps Discovery employs advanced graph theory to model your entire IT estate as an interconnected network:
- Complete Topology Visualization: All workloads represented as nodes with connections as edges
- Connection Frequency Analysis: Edge weights determined by communication frequency and volume
- Protocol and Port Mapping: Detailed analysis of communication methods and security requirements
- Latency Requirements: Identification of latency-sensitive connections between workloads
Identifying Network Patterns
Our graph analysis identifies critical network patterns that inform migration strategy:
- Hyper-Connectors: Services with an unusually high number of connections that represent critical infrastructure
- Natural Separation Points: Logical boundaries where applications can be segmented with minimal disruption
- Communication Clusters: Groups of services with heavy internal communication but limited external dependencies
- Service Hierarchies: Parent-child relationships and dependency chains
Dependency Visualization
Migration planners can interact with dependency maps through:
- Dynamic Visualization: Interactive dependency graphs that can be filtered and explored
- Hierarchy Views: Parent-child relationships between services
- Heat Maps: Visual representation of connection frequency and criticality
- Scenario Modeling: What-if analysis of separating different components
AI-Driven Risk Assessment
Configurable Risk Tolerance
nOps Discovery's AI engine allows organizations to define their risk tolerance on a sliding scale:
- Conservative (20%): Prioritizes stability and minimal disruption over migration speed
- Balanced (50%): Moderate approach balancing risk and migration velocity
- Aggressive (80%): Accelerated migration accepting higher potential for minor disruptions
Risk Modeling Factors
Our AI analyzes multiple dimensions to calculate migration risk:
- Service Criticality: Importance of workloads to business operations
- Dependency Complexity: Number and nature of inter-service dependencies
- Historical Stability: Past performance and stability metrics of services
- Data Consistency Requirements: Transactional and data integrity needs
- User Impact Assessment: Potential impact on end-users during migration
Risk Mitigation Strategies
Based on your risk tolerance settings, the system recommends specific risk mitigation approaches:
- Extended Testing Periods: Longer testing cycles for critical workloads
- Parallel Running: Maintaining source and target environments concurrently during transition
- Rollback Plans: Detailed rollback procedures for each migration step
- Cutover Windows: Optimal timing for service transitions based on usage patterns
- Incremental Migration: Breaking complex workloads into smaller, safer migration components
Interactive Migration Planning
nOps Discovery provides both conversational and form-based interfaces for migration planning, ensuring both flexibility and structure:
Conversational Interface
The AI-powered conversational interface allows migration teams to:
- Ask Natural Language Questions: "What are the highest risk components in wave 2?"
- Provide Context: "Our payment processing system has a 99.99% uptime requirement"
- Request Alternatives: "Show me a more conservative approach for the database tier"
- Explain Reasoning: "Why was this application placed in wave 3?"
- Simulate Scenarios: "What would happen if we moved the authentication service first?"
Form-Based Configuration
Structured forms enable precise control over migration parameters:
- Application Prioritization: Adjust the relative importance of different applications
- Wave Construction Criteria: Define the criteria for grouping applications into waves
- Testing Requirements: Specify testing depth for different application types
- Timeline Constraints: Set time-based constraints on migration activities
- Resource Allocation: Define available resources for migration activities
Key Customization Options
The migration plan can be customized across several dimensions:
Modernization Aggressiveness
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Container Adoption Level: Adjust the threshold for recommending containerization
- Conservative: Only COTS applications with official container support
- Moderate: Well-suited custom applications and supported COTS
- Aggressive: Most stateless applications with high confidence scores
-
Container Platform Preference:
- EKS-First: Prefer Amazon EKS for most containerized applications
- Fargate-First: Prefer AWS Fargate for simplified management
- Balanced: Let nOps recommend the optimal platform for each workload
-
Serverless Adoption Level: Control criteria for recommending serverless architecture
- Minimal: Consider only the most obvious serverless candidates
- Balanced: Recommend serverless for suitable workloads with high confidence
- Maximal: Aggressively identify serverless opportunities
Contextual Requirements
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Regulatory Compliance: Specify regulatory frameworks affecting workloads
- PCI-DSS, HIPAA, GDPR, FedRAMP, etc.
- Data residency requirements
- Audit and logging requirements
-
Security Requirements: Define security controls for workloads
- Encryption standards
- Network isolation requirements
- Authentication mechanisms
-
SLA/SLO Requirements: Specify performance and availability needs
- Uptime requirements
- Performance thresholds
- Recovery time objectives (RTO)
- Recovery point objectives (RPO)
Business Continuity Planning
- Disaster Recovery Tiers: Assign DR classifications to applications
- Critical: Zero/near-zero downtime tolerance
- Important: Brief downtime acceptable
- Standard: Default recovery approach
- Backup Strategy: Define backup requirements
- Frequency and retention periods
- Storage requirements
- Testing procedures
Infrastructure Optimization
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Single Points of Failure: Identification and remediation strategies
- Auto-detected SPOFs with remediation recommendations
- Impact assessment of potential failures
- Redundancy recommendations
-
Unused Services: Options for handling potentially dead services
- Confirmation workflow for service decommissioning
- Monitoring period before decommissioning
- Archival requirements for data retention
Service Modernization
-
Technology Replacement: Options for modernizing outdated components
- Licensed to open-source alternatives
- Legacy to cloud-native replacements
- End-of-life software replacement recommendations
-
Architecture Evolution: Recommendations for architectural improvements
- Monolith to microservices opportunities
- RDBMS to NoSQL conversion candidates
- Stateful to stateless transformation
-
Microservice Conversion Approach:
- Comprehensive: Full monolith decomposition with domain-driven design
- Incremental: Strangler fig pattern with gradual extraction
- Tactical: Extract only high-value components while preserving core monolith
Landing Zone Generation
nOps Discovery's migration planning process culminates in the automatic generation of infrastructure-as-code for your AWS landing zone through our Infrastructure as Code Generation capability:
Data-Driven Infrastructure Design
The landing zone code is generated based on actual workload data:
- Telemetry-Based Sizing: Resources sized according to actual utilization metrics
- Dependency-Aware Architecture: Infrastructure components arranged to support application dependencies
- Right-Sized Security: Security controls tailored to observed traffic patterns
- Cost-Optimized Resources: Resource selection based on utilization patterns and business requirements
Collaborative Infrastructure Development
The generated code is designed for team collaboration:
- Version Control Integration: Seamless integration with Git-based workflows
- Evolutionary Design: Progressive refinement as more telemetry data is collected
- Team Collaboration Features: Supports multi-team infrastructure development
- Change Management: Detailed tracking and documentation of infrastructure evolution
For complete details on the Infrastructure as Code Generation capability, see the dedicated documentation.
Migration Wave Planning
The culmination of all analysis is a comprehensive migration wave plan, powered by our Move Group Generation capability:
Intelligent Wave Construction
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Dependency-Aware Grouping: Applications organized based on:
- Network dependency analysis using graph theory
- Identification of hyper-connectors and natural separation points
- Business criticality and operational constraints
- Configurable risk tolerance settings (20%-80%)
-
Optimized Migration Sequence: Scientifically determined ordering
- Minimized business disruption
- Efficient resource utilization
- Balance of technical and business priorities
For complete details on the advanced algorithms and visualization capabilities, see the Move Group Generation documentation.
Detailed Wave Documentation
Each migration wave includes comprehensive documentation:
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Preparation Checklist: Pre-migration requirements
- Infrastructure readiness
- Testing environment setup
- Team training needs
-
Execution Plan: Step-by-step migration procedures
- Component-level instructions
- Automation opportunities
- Manual intervention points
-
Testing Strategy: Comprehensive validation approach
- Functional testing requirements
- Performance validation
- Integration testing
- Business acceptance criteria
-
Rollback Procedures: Detailed contingency plans
- Trigger conditions for rollback
- Step-by-step rollback instructions
- Recovery time estimates
How to Access Migration Planning
- Complete the Workload Analysis process
- Navigate to "Discovery" → "Migration Planning" in your nOps dashboard
- Adjust your risk tolerance using the slider (20%-80%)
- Use the conversational or form interface to refine migration parameters
- Review the generated migration waves and landing zone design
- Export or commit the Terraform/OpenTofu code to your repository