What is physical data architecture?
Physical data architecture is the implementation-level design for how data will be stored, processed, moved, secured, recovered, observed and served on specific infrastructure and platform services. It translates logical structures and target-state principles into concrete decisions such as storage layout, schemas, partitions, indexes or clustering, compute placement, integration endpoints, security zones, resilience patterns and operational controls.
How is physical data architecture different from logical data architecture?
Logical data architecture describes information structures, relationships, domains and flows without committing to a particular physical implementation. Physical data architecture maps those requirements to real platforms, storage engines, schemas, file or table layouts, compute services, network and integration paths, access controls, backup and recovery arrangements, and operational constraints.
Is physical data architecture the same as physical data modelling?
No. Physical data modelling is an important component, but the architecture is broader. A physical model may define tables, columns, keys, indexes and related implementation structures for a database. Physical data architecture also considers platform placement, processing patterns, workload isolation, integration, security, resilience, observability, lifecycle, deployment and operational ownership across the wider data estate.
When should an organisation commission a physical data architecture review?
Common triggers include a new warehouse or lakehouse build, cloud migration, database modernisation, major workload growth, recurring performance or cost problems, resilience concerns, platform consolidation, integration redesign, regulatory or security requirements, or a target-state architecture that now needs implementation-level decisions.
What can be included in DataConsultant’s physical data architecture service?
Scope can include workload and non-functional requirements, current physical estate review, storage and compute design, physical schema and layout decisions, partitioning or clustering strategy, integration and data-movement design, security and access zones, backup and recovery requirements, observability, performance and cost considerations, deployment patterns, decision records, implementation standards and transition guidance. Final scope is agreed during discovery.
What deliverables can we expect?
Typical outputs can include a physical architecture blueprint, platform and component map, workload placement matrix, physical schema or storage design, data-flow and interface views, non-functional requirement matrix, security and resilience control map, architecture decision records, implementation standards, performance and capacity assumptions, migration dependencies, validation criteria and a handover pack.
Can the service cover cloud, on-premises and hybrid environments?
Yes. The engagement can consider cloud, on-premises, hybrid and multi-platform environments where relevant. Recommendations are based on workload fit, current investments, security and residency constraints, integration needs, operating skills, resilience objectives, commercial constraints and the approved enterprise architecture direction.
How are security, privacy and resilience handled?
The physical design can translate requirements into implementation controls such as identity and access boundaries, encryption and key-management considerations, network or security zones, masking or tokenisation needs, logging, lineage, retention, backup, recovery, replication and evidence requirements. The service does not replace legal advice, formal certification, penetration testing or statutory audit unless separately commissioned through appropriately qualified parties.
Does physical data architecture include performance and cost optimisation?
Performance and cost are normally treated as design constraints rather than afterthoughts. Scope can consider access patterns, concurrency, latency, data volume and growth, partitioning, clustering or indexing, compute sizing principles, workload isolation, caching, data retention, tiering, data movement and observability. Actual savings or performance improvements cannot be guaranteed before implementation and measurement.
Can DataConsultant support implementation after the architecture is approved?
Yes. Implementation support can be scoped separately for solution-design assurance, engineering handoff, migration planning, build reviews, performance validation, control implementation, test criteria, operational readiness, documentation and knowledge transfer. Responsibilities and acceptance criteria should be agreed before delivery begins.
How long does a physical data architecture engagement take?
The timeline is confirmed after scoping. It depends on the number of platforms and environments, workload diversity, data volumes and velocity, stakeholder access, evidence quality, target-state maturity, security and resilience requirements, implementation depth, review cycles and whether migration or build assurance is included.
How is physical data architecture pricing determined?
DataConsultant does not publish a fixed fee for this service. Pricing is scope-led and depends on the number of platforms and workloads, current-state complexity, data volumes, integration paths, non-functional requirements, security and resilience needs, required deliverables, workshops, implementation support and documentation depth. Public India market examples can help with early budgeting, but they are not DataConsultant prices; a scoped proposal confirms the actual commercial terms.
What information should we prepare before the engagement?
Useful inputs include the target-state or logical architecture, current platform and database inventory, schemas and data models, data-flow diagrams, workload profiles, service expectations, volume and growth information, performance baselines, incidents, cloud or infrastructure constraints, security classifications, access requirements, backup and recovery objectives, cost information, migration plans and access to accountable architects, engineers, security and operations stakeholders.