DATA PLATFORM & ARCHITECTURE / CAPABILITY 01

Enterprise Data Architecture

“Make architecture decisions that connect enterprise data to business outcomes.”

Enterprise Data Architecture is more than a diagram of databases and pipelines. It defines how business domains, operational systems, data products, analytical workloads, security controls and delivery teams fit together. DataAIAdvisor assesses current-state complexity and designs pragmatic target architectures that improve reliability, reuse, governance and changeability without overengineering.

Executive Decision Framework

What Decisions We Help You Make

Q1

Where should data be integrated, mastered, transformed and consumed?

Q2

Which architectural capabilities should be centralized versus domain-owned?

Q3

Do we modernize, retain, decouple or retire existing systems?

Q4

What is the minimum viable target architecture for the next 12–24 months?

When This Matters

Operational Signals & Architectural Friction

Duplicate extracts and conflicting customer/product definitions across departments.

New use cases require bespoke pipelines and repeated point-to-point integration.

No clear system-of-record, ownership, retention or access boundaries.

Architecture decisions are driven by vendor features rather than workload requirements.

Advisory Scope & Workstreams

What We Examine / Advisory Scope

Workstream 01

Business capability & information domain mapping

Identify value streams, critical business entities (customer, account, contract, transaction), systems of record and decision consumers; separate operational master data from analytical representations.

Workstream 02

Current-state architecture & dependency discovery

Inventory applications, EDW/data marts, object stores, data flows, batch windows, SLAs, technology debt, interfaces, failure domains and cross-system dependencies.

Workstream 03

Target architecture principles & patterns

Evaluate data layering (raw/curated/serving where justified), domain contracts, integration patterns, semantic/data-product access and boundaries between operational and analytical workloads.

Workstream 04

Non-functional architecture & SLO baselines

Capture workload-specific SLOs, availability, data freshness, consistency, recovery, scalability, residency, security and auditability; document exceptions.

Workstream 05

Architecture governance & decision records (ADRs)

Document decision rights, architecture principles, options, rationale, trade-offs and accepted risks in auditable Architecture Decision Records (ADRs).

Workstream 06

Transition architecture & sequencing

Create intermediate states that coexist with legacy systems, map prerequisites, avoid duplicate truths and identify retire/decommission triggers.

Technical Architecture & Decision Blueprint
1. Operational Systems & Business Domains

Core OLTP, ERP, CRM, Third-Party APIs & IoT

  • Core Banking / Billing
  • ERP / CRM Systems
  • Partner Feeds & Events
2. Ingestion & Data Movement

Log CDC, Scheduled Batch & Event Streams

  • Log-Based CDC (WAL/Redo)
  • Micro-Batch & Scheduled ETL
  • Decoupled Buffer & Queues
3. Trusted & Curated Data Layer

Object Storage, Open Table Formats & EDW

  • Raw Ingestion (Open Storage)
  • Curated Domain Entities
  • High-Performance Serving Marts
4. Consumption & Data Products

Executive BI, ML Models & Operational APIs

  • Executive BI & Dashboards
  • Feature Stores & AI Models
  • Operational Reverse ETL
Cross-Cutting Governance & Control Plane:
IAM & KMS SecurityData Contracts & SchemasLineage & ObservabilitySLO & Data Quality

* Conceptual reference architecture — avoids universal mandatory layering; adapted pragmatically to actual workload requirements.

Engagement Methodology

How We Approach It

A rigorous five-stage architectural method linking business domain realities to sustainable target platforms.

Stage 01

Discover

Gather architecture inventory, stakeholder concerns, critical entities, workload and SLA baselines.

Stage 02

Diagnose

Map bottlenecks, fragile couplings, duplicated capabilities, governance and NFR gaps; distinguish evidence from assumptions.

Stage 03

Compare

Evaluate 2–3 viable patterns against business fit, operational skills, risks, performance and TCO.

Stage 04

Design

Produce conceptual/logical architecture, responsibility boundaries, data flows, NFR decisions and ADRs.

Stage 05

Sequence

Define transition stages, owners, acceptance checkpoints and stop/go gates.

Illustrative Decision ScenarioAnonymized composite scenario — Not an actual client case study

Coexistence Architecture for Growing Analytics Workloads

Context: A finance organization has a functioning EDW, independent data marts and growing needs for customer analytics and AI.

Options Considered:
Option A: Full Lakehouse ReplacementReplace all legacy EDW and data mart assets with a new lakehouse platform immediately.
Option B: Retain EDW & Narrow ExpansionKeep current EDW exactly as-is and extend with narrowly scoped, standalone cloud services.
Option C: Pragmatic Coexistence ArchitectureDesign a coexistence architecture with shared trusted entities, retained core reporting, and selectively modernized exploratory workloads.
Evaluation Criteria:
Business outcome delivery
Domain system-of-record integrity
Data latency & batch SLA headroom
Operational team maturity
Security & regulatory compliance
Current platform performance & 3-year TCO
Conditional Guidance:

Prefer Option B or C where the EDW meets critical regulatory SLAs and bottlenecks can be isolated. Choose broader replacement only when measured platform constraints and business value justify the significant cutover overhead.

Key Risk & Trade-off:

Coexistence introduces the operational risk of multiple competing copies of core business entities during transition if domain ownership boundaries are not strictly enforced.

* Illustrative scenario reflecting anonymized enterprise architecture engagements.

Tangible Deliverables

Typical Deliverables

1

Current-State Architecture & Dependency Map

Comprehensive catalog of systems, interfaces, data movement flows, and workload/SLA inventory.

2

Target Architecture Blueprint

Conceptual, logical, and deployment views specifying data layering, compute tiers, and design patterns.

3

Domain & Data Flow Map

System-of-record boundaries, domain ownership matrices, and integration/consumption contracts.

4

Architecture Principles & ADR Catalog

Documented decision records, evaluation criteria, accepted trade-offs, and unresolved architecture issues.

5

Transition Architecture & Sequencing Roadmap

Phased intermediate states, prerequisite gates, and explicit decommission criteria.

6

NFR & Architecture Risk Register

Documented workload SLOs, security, resilience, capacity limits, and cross-system dependency risks.

Outcomes & Success Indicators

Measurable architectural lead time, duplication control, and operational predictability.

  • Architecture decision lead time from problem identification to signed ADR.
  • Reduction in duplicate pipelines and redundant data extracts across business units.
  • Percentage coverage of critical business entities with assigned domain owners.
  • Frequency of change-failure or rework triggered by upstream architectural changes.
  • Percentage of critical analytical workloads with documented SLOs and ADRs.
  • Workload-specific TCO trajectory normalized against business data volume.

Success indicators represent governance targets and operational metrics, not guaranteed outcomes.

Prerequisites & Boundaries

Clear professional limitations and anti-patterns to avoid architectural failure.

  • Do not equate an architecture blueprint with an implemented, functioning production system.
  • Resist unnecessary data layers, forced domain decomposition, or 'Data Mesh by label' without organizational readiness.
  • Avoid assuming universal real-time streaming; batch remains the most robust and cost-effective choice for many workloads.
  • Privacy, data residency, and sector-specific regulatory boundaries must always be independently audited in local legal context.
Explicit professional boundaries protecting client decision independence.
Frequently Asked Questions

Questions We Frequently Hear

Q1.Does every enterprise need a lakehouse?

No. Architecture decisions should follow workload economics, query patterns, governance expectations, and team operational readiness—not industry trends.

Q2.Is enterprise data architecture solely an IT responsibility?

No. Business domain owners must define entity semantics, criticality, and consumption needs, while engineering teams design and operate the technical platforms.

Q3.What evidence is needed to begin an architecture diagnostic?

An application and data source inventory, critical executive reporting catalogs, documented batch SLAs, recent incident and infrastructure cost baselines, and current system topology diagrams.

Related Capabilities & Solutions

Vendor-Neutral Architecture Sparring

Turn architecture uncertainty into a clear decision.

Bring us the workload, platform constraint or investment question. We can help structure the options, evidence, risks and next steps—without starting from a preferred vendor or tool.