Disconnected AI estates
Different teams build similar gateways, vector stores, prompt layers and monitoring stacks with no common ownership or reuse model.
DataConsultant designs AI platform architecture that connects business workloads with models and agents, enterprise data and knowledge, retrieval, integration, security, evaluation, observability and accountable operations. The objective is a target architecture your teams can implement, govern and evolve without turning every AI use case into a separate technical estate.
Architecture depth, platforms, timeline and commercial terms are confirmed after reviewing workloads, the current technology estate, control requirements, stakeholder decisions and expected deliverables.
Final architecture depends on the client’s workloads, data, cloud and platform estate, security boundaries, jurisdiction, operational model and approved technology choices.
Enterprise AI usually becomes harder to govern when individual teams choose their own model access, retrieval patterns, secrets, logging, evaluation and deployment practices. Architecture creates a common decision framework before that fragmentation becomes expensive to reverse.
Different teams build similar gateways, vector stores, prompt layers and monitoring stacks with no common ownership or reuse model.
RAG sources, enterprise data, embeddings and conversation context can cross security or retention boundaries if flows are not designed explicitly.
Teams may use different authentication, network, secrets, logging, rate-limit and third-party review patterns for similar AI workloads.
Production decisions are difficult when quality, safety, grounding, latency, failures and user outcomes cannot be compared consistently.
A proof of concept may work manually but lack release controls, fallbacks, observability, scaling, support ownership and incident paths.
Model calls, retrieval, storage, compute and agent tool activity can create variable cost that is difficult to attribute without architectural telemetry.
The engagement converts a collection of pilots, products and platform choices into a governed target state with explicit interfaces, control points and ownership.
Map the shared architecture decisions before teams hard-code incompatible security, model, retrieval and operations patterns.
Scope is configured around the decisions your organisation needs to make. The following capability areas can be combined into a focused architecture review or a broader target-state design.
Use-case classes, users, throughput, latency, availability, data sensitivity, human oversight, residency and recovery expectations.
Model access, routing, quotas, agent runtime, tool permissions, context handling, fallbacks and lifecycle separation.
Source onboarding, chunking and indexing boundaries, retrieval, metadata, lineage, grounding, caching and knowledge freshness.
APIs, events, enterprise applications, MCP-compatible or other tool interfaces, policy enforcement and transaction boundaries.
Authentication, workload identity, least privilege, private connectivity, key and secret management, tenant and environment isolation.
Quality and safety evaluation, risk-tiered gates, human review, red-team inputs, evidence capture and release decision criteria.
Traces, logs, metrics, token and request economics, service health, fallbacks, rate limits, incident paths and capacity assumptions.
Environment strategy, CI/CD, change controls, architecture governance, platform ownership, support boundaries and knowledge transfer.
A technically elegant component diagram is not enough. The target state must make sense for the applications using it, the platform teams operating it and the governance functions accountable for risk.
User journeys, business processes, agent autonomy, tool access, latency, availability, human decisions and measurable outcome criteria.
Models, gateways, RAG, data products, integration, runtime, deployment, observability, scalability, reuse and cost architecture.
Identity, privacy, third parties, evaluation, policy enforcement, audit evidence, incident response, ownership and jurisdictional needs.
This reference view helps structure architecture workshops. It is intentionally platform-neutral; final components are selected only after requirements, existing investments and operating constraints are understood.
The service connects observable current-state evidence with explicit decision criteria, architecture choices and a delivery roadmap so teams can understand why a pattern was selected.
Use cases, diagrams, platforms, model access, data flows, policies, integration, cost and operating constraints.
Functional needs, non-functional requirements, trust boundaries, risk, scalability, portability and supportability.
Reference architecture, interfaces, control points, patterns, trade-offs and architecture decision records.
Sequenced foundations, pilot migrations, dependencies, owners, assurance gates and implementation work packages.
Use workload evidence and decision criteria to challenge model, cloud, agent, RAG and control choices before they become difficult to change.
Deliverables are adapted to the decisions in scope. The goal is to provide implementation-ready artefacts rather than an abstract technology vision.
Existing AI, data, integration, security and operations patterns mapped against target requirements.
Use cases grouped by model, data, latency, autonomy, risk, integration, evaluation and availability needs.
Layered component view with system boundaries, reusable services, flows and environment assumptions.
Identity, network, data protection, logging, human oversight, policy enforcement and evidence points.
Knowledge ingestion, retrieval, metadata, grounding, freshness, access and evaluation design where required.
Quality, safety, latency, traces, logs, service signals, cost attribution and release-gate requirements.
Key options, trade-offs, constraints, dependencies and rationale captured for governance and future change.
Foundations, pilot migrations, integration, control enablement, ownership and assurance gates sequenced for delivery.
Platform coverage is determined by the client estate and approved technology choices. The service evaluates how relevant services fit the architecture instead of assuming a single vendor is the answer.
| Architecture area | Examples considered | Decision focus | Typical control questions |
|---|---|---|---|
| Managed AI platforms | Microsoft Foundry, Amazon Bedrock, Google Vertex AI, Databricks AI capabilities, Snowflake Cortex AI where relevant | Workload fit, regional availability, integration, operations, scalability, portability and cost visibility | Identity, network boundaries, model access, telemetry, data handling and administrative ownership |
| Model access | Managed model catalogues, approved external APIs, private or self-hosted model endpoints | Routing, fallback, performance, model lifecycle, quotas and application decoupling | Provider risk, secrets, logging, data use, rate limits, change management and approval paths |
| Agents & tools | Agent runtimes, function/tool calling, APIs, workflow services, approved MCP-compatible interfaces | Autonomy boundaries, state, tool permissions, transaction control and human escalation | Least privilege, action approval, tool allow-lists, audit trail, replay and failure containment |
| RAG & knowledge | Search, vector services, document stores, data platforms, metadata and ingestion services | Grounding quality, access boundaries, freshness, retrieval latency, source traceability and reuse | Source permissions, retention, sensitive data, citation, indexing controls and content lifecycle |
| Engineering & operations | CI/CD, registries, evaluation tooling, tracing, logs, metrics, secrets and incident platforms | Repeatable release, environment promotion, evidence, reliability, troubleshooting and cost attribution | Separation of duties, release gates, retention, alert ownership, rollback and operational handover |
Architecture should make risk controls enforceable in the technical flow and assign clear ownership for evidence, exceptions and incidents.
The sequence can be compressed for a focused review or expanded for a multi-platform enterprise design, but key decisions remain evidence-led and traceable.
Confirm workloads, sponsors, decisions, boundaries, evidence and architecture depth.
Map pilots, platforms, data, integrations, controls, cost signals and ownership.
Define functional, non-functional, security, risk, data and operational criteria.
Create target layers, flows, trust boundaries, patterns and platform options.
Test trade-offs with architecture, security, data, platform and workload owners.
Sequence shared foundations, migrations, controls, pilots and assurance gates.
Deliver decision records, responsibilities, backlog and knowledge transfer.
Sequence shared platform foundations, workload migrations, control enablement and assurance gates with named responsibilities.
A target architecture is most valuable when the organisation needs cross-cutting technical decisions. A narrow implementation problem or a business-priority problem may require a different engagement.
No fixed DataConsultant fee is published for this service. A reliable quote is provided after the architecture boundary, workshops, evidence, platform options and deliverables are understood.
Pricing is scope-led rather than based on a generic architecture package. This avoids presenting a small single-workload review and a multi-cloud enterprise target-state design as equivalent engagements.
Request an AI Architecture QuoteShare the decisions you need to make and the architecture evidence you already have; DataConsultant can define the right engagement boundary.
The service is designed around practical decision support rather than unsupported platform claims or generic technology diagrams.
Architecture decisions are tied to workload classes and measurable operating requirements, not technology novelty.
Identity, privacy, security, evaluation, evidence and human oversight are treated as technical architecture requirements.
Existing investments and current platform capabilities are considered while keeping decision criteria requirements-led.
Target-state design extends through observability, incidents, cost visibility, environment promotion and operating ownership.
These services address closely related decisions without turning this page into a generic service catalogue.
Answers to common scoping, platform, governance, deliverable and commercial questions.
AI platform architecture is the target technical and operating design that connects AI applications and agents with models, enterprise data and knowledge, retrieval, tool integration, identity, security, evaluation, observability, deployment pipelines and accountable operations. It defines how these components should work together for the organisation’s workloads and constraints rather than treating each AI proof of concept as an isolated build.
The service can include workload and non-functional requirement discovery, current-state platform review, data and knowledge-flow analysis, model and agent access patterns, RAG and integration architecture, identity and network boundaries, security and privacy controls, evaluation and observability design, deployment and release patterns, platform decision criteria, target reference architecture, decision records and a phased implementation roadmap. Final scope is agreed during discovery.
Common triggers include multiple disconnected AI pilots, different teams buying model access independently, uncertainty about RAG or agent patterns, inconsistent security controls, rapidly rising inference or platform cost, a move from prototypes to production, multi-cloud or hybrid constraints, or a need to standardise how AI workloads are evaluated, deployed, monitored and governed.
The engagement is requirements-led. Existing and preferred technologies can be assessed, but architecture decisions should be based on workload fit, security, integration, governance, operational ownership, portability, cost visibility and implementation constraints. Vendor-specific recommendations are made only where the scope requires them.
Depending on the client estate, the assessment can consider managed AI platforms such as Microsoft Foundry, Amazon Bedrock, Google Vertex AI, Databricks AI capabilities and Snowflake Cortex AI, as well as approved model APIs, private or self-hosted model endpoints, vector and search services, API gateways, event platforms, data platforms, identity services, secrets management, observability, evaluation and CI/CD tooling. Availability and fit are validated for the relevant region and workload.
The architecture can define model access and routing, prompt and context handling, retrieval and grounding, knowledge ingestion, tool and API access, agent orchestration, conversation state, human approval points, evaluation, safety checks, tracing, logging, rate limits, fallbacks and lifecycle controls. The exact pattern depends on the business process and risk profile.
The design can address identity and least-privilege access, network boundaries, secrets, data classification, prompt and response handling, logging, retention, model and third-party risk, evaluation, human oversight, incident and rollback paths, and evidence requirements. Frameworks such as NIST AI RMF and ISO/IEC 42001 can inform governance where relevant, but the service does not by itself certify compliance or replace legal, regulatory or specialist assurance advice.
Typical deliverables can include a current-state architecture and gap assessment, workload profile matrix, target reference architecture, component and integration diagrams, model and agent access patterns, data and RAG flows, security and control architecture, evaluation and observability blueprint, architecture decision records, platform option criteria, operating responsibilities, risk and dependency register, and a phased implementation roadmap.
Yes. A focused review can test an existing reference architecture, cloud or platform proposal, systems-integrator design, RAG pattern or agent architecture against business requirements, non-functional requirements, security boundaries, data dependencies, evaluation needs, operability, cost drivers and implementation risks. The review scope and evidence required are agreed before work starts.
Implementation is not automatically included in an architecture engagement. DataConsultant can separately scope implementation support, architecture assurance, platform configuration, integration, data engineering, RAG enablement, governance setup, testing, observability, knowledge transfer or managed operations. Responsibilities and acceptance criteria should be agreed before implementation begins.
A reliable duration is confirmed after scoping. Timing depends on the number and complexity of workloads, existing platforms and cloud environments, stakeholder availability, security and regulatory review, data and integration dependencies, the depth of platform comparison required, evidence quality and whether detailed implementation planning is included.
DataConsultant does not publish a fixed fee for this AI Platform Architecture service. Pricing is scope-led and confirmed through a Request a Quote process after the workloads, environments, stakeholder groups, architecture depth, platform options, security and governance requirements, workshops, deliverables, review cycles and implementation-assurance needs are understood.
Useful inputs include priority AI use cases, current proofs of concept, cloud and platform inventories, architecture diagrams, data and knowledge sources, API and integration maps, identity and network patterns, security and privacy policies, risk or audit findings, model-provider arrangements, expected volumes and latency needs, cost information, deployment processes and access to accountable business and technology stakeholders.
Describe the workloads, platform questions and constraints you need to resolve. The initial discussion can focus on the architecture boundary, available evidence, stakeholders and the deliverables required to move forward.
Provide enough context for the team to understand the decision you are trying to make.