Enterprise AI · Solution Architecture

AI Solution Architect Course for Enterprise AI Architecture

The AI Solution Architect Course at School of Core AI focuses on turning business requirements into an AI solution that an organization can adopt and operate. Compare AI and non-AI options, connect data and enterprise systems, and justify platform, security, governance and cost decisions.

For engineers, technical leads and architects who need to explain what should be built, why it is worth building and how it will work within the organization.

Enterprise integrationGovernance and economicsArchitecture reviews

Who Should Take the AI Solution Architect Course?

This course suits senior software engineers, AI and ML engineers, technical leads, cloud architects, solution architects and technical consultants. Engineering managers may also find it useful when their work includes architecture and platform decisions.

You should be comfortable discussing software architecture, APIs, data systems, deployment and security boundaries. Some experience with AI applications is useful. The course is not a first introduction to programming or a substitute for implementation experience.

ScopeAI System DesignAI Solution Architecture
Main questionHow should the production system behave?Which solution should the organization choose and operate?
Main decisionsServices, state, capacity, inference and failure handling.Capabilities, integration, platform, risk, economics and rollout.
Main evidenceWorkload estimates, system diagrams and engineering trade-offs.Solution options, target architecture, cost model and adoption plan.

The roles overlap. Solution architecture still needs sound system design; it also considers the organization, existing estate, vendors and adoption constraints that shape a credible recommendation.

Need stronger production system design first?

If your main gap is distributed systems, RAG and agent architecture, inference or reliability, explore the AI System Design Course . Relevant experience can provide the same foundation; completing that course is not mandatory. If you need broader experience building and deploying AI applications, start with the AI Engineering Course .

AI Solution Architect Course Syllabus

The syllabus moves from a business problem to a solution recommendation, then tests that recommendation against integration, risk, operating cost and delivery constraints.

01AI Opportunity Discovery and Business Outcomes

  • ·Map the current workflow, business capabilities, stakeholders and decision points before proposing AI.
  • ·Compare conventional software, search, rules, analytics, ML and generative AI against the actual problem.
  • ·Define measurable outcomes, adoption constraints and the cost of an incorrect decision or action.

Design output: An opportunity brief explaining whether AI is justified and how value would be measured.

02Requirements and Quality Attributes

  • ·Translate stakeholder expectations into functional requirements and measurable non-functional requirements (NFRs).
  • ·Define latency, throughput, availability, privacy, security, accessibility and recovery expectations.
  • ·Resolve competing requirements, including data residency, auditability, operating cost and delivery time.

Design output: A requirements and acceptance matrix with assumptions, priorities and accountable owners.

03Enterprise Context and Target Architecture

  • ·Map the current application, data, identity, network and integration landscape.
  • ·Define solution boundaries and a target state that fits the existing estate.
  • ·Identify gaps, dependencies and transition stages without turning enterprise architecture into a notation exercise.

Design output: Current-state and target-state diagrams, with the changes needed to move between them.

04AI Architecture Decisions

  • ·Compare retrieval, model adaptation and tool use by the capability each adds. RAG and fine-tuning may be used together.
  • ·Choose workflow or agent behavior, then test whether multiple agents solve a specific coordination need.
  • ·Compare hosted and self-hosted models, managed services and custom platforms using constraints rather than a preferred stack.

Design output: A decision matrix and architecture decision records (ADRs) that make alternatives and rejected options explicit.

05Enterprise Data Architecture and Governance

  • ·Map structured and unstructured data, ownership, contracts and access boundaries.
  • ·Compare batch, incremental and streaming integration using freshness and operational requirements.
  • ·Define lineage, quality, retention, deletion, residency and reference-data responsibilities across the solution.

Design output: A data-flow and governance map showing who owns the data and where access and lifecycle rules apply.

06Generative AI and RAG Solution Architecture

  • ·Design enterprise knowledge workflows with ingestion, retrieval, reranking, model access and answer evaluation.
  • ·Connect identity and document permissions to retrieval, caching and evidence shown to the user.
  • ·Define quality acceptance, human review and fallback behavior alongside prompt and configuration management.

Design output: A knowledge-solution design with clear ownership for relevance, access, freshness and answer quality.

For implementation depth in RAG, model adaptation and evaluation, explore the Generative AI Course .

07Agentic Enterprise Architecture

  • ·Place agents inside business workflows with explicit boundaries between recommendations, approvals and execution.
  • ·Define tool identities, permissions, state, memory, durable execution and audit records across enterprise integrations.
  • ·Evaluate MCP-based integration, agent coordination and shared runtime controls without assuming that a protocol supplies authorization or reliable execution by itself.

Design output: An agent operating design showing permitted actions, approval ownership, execution limits and recovery responsibilities.

For hands-on orchestration, tool controls and stateful agents, explore the Agentic AI Course .

08Cloud, Platform and Enterprise Integration

  • ·Compare AWS, Azure and Google Cloud through model access, custom deployment, enterprise identity, networking, data integration and operational ownership.
  • ·Map patterns to representative services, including Amazon Bedrock, Amazon SageMaker AI and Microsoft Foundry. Compare capabilities and constraints; do not assume that similarly positioned services are interchangeable.
  • ·Evaluate managed APIs, containers, Kubernetes, hybrid connections, event integration and API gateways where the requirements justify them.

Design output: A platform recommendation with integration boundaries, constraints and a credible operating model. The work focuses on architecture choices rather than console walkthroughs for every cloud.

For deeper ML lifecycle workflows, explore the MLOps Course . For LLM releases, serving and operating workflows, explore the LLMOps Course .

09AI Security, Governance and Risk

  • ·Threat-model prompt injection, data exposure, unsafe tool actions, poisoned content and vendor dependencies.
  • ·Connect each material risk to controls, owners, test evidence and escalation paths. Combine least privilege, isolation, validation and human oversight.
  • ·Define AI inventory, release approval, audit evidence and ongoing review. Treat legal and regulatory requirements as inputs requiring qualified interpretation.

Design output: A risk register and control map that shows what is prevented, detected, reviewed and still unresolved.

10AI Economics, FinOps and Build-versus-Buy

  • ·Estimate model usage, hosting, search, storage, network, licensing, observability and support costs.
  • ·Include integration effort, evaluation, human review, redundancy and ongoing engineering work in total cost of ownership (TCO).
  • ·Compare cost per accepted outcome, not just token price or nominal request cost. Test sensitivity to traffic, retry rates, review effort and utilization.

Design output: A build-versus-buy recommendation with a cost model, comparison horizon and assumptions that can be updated.

11Architecture Communication and Decision Records

  • ·Use system-context, component, sequence, data-flow and deployment diagrams to answer specific stakeholder questions.
  • ·Document quality attributes, alternatives, risks and decisions in a form that engineers can implement and reviewers can challenge.
  • ·Present a technical proposal and an executive summary without losing important constraints in either version.

Design output: An architecture pack that connects business outcomes to technical choices and unresolved decisions.

12Architecture Review, Rollout and Ownership

  • ·Review the solution against its requirements, quality evidence, security controls, cost assumptions and delivery dependencies.
  • ·Define a pilot, rollout gates, acceptance criteria, rollback triggers and a path for adoption.
  • ·Assign ownership for models, data, prompts, tools, evaluation, incidents and changes after launch.

Design output: A phased delivery and operating plan that explains how the organization will adopt, monitor and revise the solution.

AI Solution Architecture Case Studies

These are hypothetical enterprise scenarios. They are architecture exercises, not claims about SCAI customer deployments or business results.

Enterprise Knowledge Across Different Access Boundaries

Business requirement
Employees need answers across HR, support and engineering content without exposing restricted material.
Options
Extend the existing enterprise search platform, use a managed knowledge service or build a custom retrieval application.
Decisions to defend
Data ownership, identity integration, permission enforcement, freshness, evaluation and which parts are worth building internally.
Risk and economics
Connectors, support work and authorization changes may dominate the effort even when model usage is inexpensive.
Review evidence
A target architecture, permission and deletion tests, an evaluation plan and a cost comparison for the stated workload.

Customer Service with Limited Automation

Business requirement
Improve support handling while keeping sensitive actions under appropriate human control.
Options
Agent assistance, a constrained workflow or an agent that can initiate approved business actions.
Decisions to defend
Which actions are permitted, how identity reaches downstream systems, when approval is required and how failed or disputed actions are recovered.
Risk and economics
Compare cost per resolved case, escalation effort, error handling and the integration cost of the existing support platform.
Review evidence
An action-permission matrix, workflow design, audit plan and staged rollout criteria.

A Coding Assistant for Private Repositories

Business requirement
Help engineering teams work with private code while respecting repository access, review and software supply-chain controls.
Options
An existing coding-assistant product, a managed enterprise platform or a custom solution for a narrow internal workflow.
Decisions to defend
Context access, model and vendor policy, tool execution, generated-code review and the boundary between suggestions and changes.
Risk and economics
Balance licensing and integration effort against support ownership, developer adoption and exposure of code or secrets.
Review evidence
A build-versus-buy matrix, data-flow diagram, tool policy and a pilot evaluation based on agreed engineering outcomes.

Document Intelligence with an Auditable Review Path

Business requirement
Extract information from business documents and route uncertain results to the people responsible for review.
Options
A specialist document service, a model-based extraction pipeline or a hybrid workflow with conventional parsing and human checks.
Decisions to defend
Data residency, evidence retention, validation, exception handling and integration with the system of record.
Risk and economics
Include manual review, correction, reprocessing and retention costs rather than comparing extraction API prices alone.
Review evidence
A target design, control map, review workflow and cost model tied to accepted records.

Architecture Decisions You Learn to Defend

A useful recommendation includes the alternatives, the deciding constraints and the evidence that could change the decision.

DecisionWhat should determine the choice?Evidence to bring to review
AI or conventional softwareTask ambiguity, error cost, predictability and measurable value.A baseline and evaluation of the actual task.
Retrieval, fine-tuning or bothWhether the gap concerns current knowledge, access to evidence or task behavior.Retrieval and model evaluations against representative data.
Workflow or agentHow much variation the task needs and which actions can be safely delegated.Action boundaries, recovery tests and task outcomes.
Hosted or self-hosted modelPrivacy, licensing, quality, workload, utilization and operating capacity.A quality comparison, load assumptions and a full operating-cost model.
Managed service or custom platformIntegration fit, control requirements, support ownership and delivery effort.A capability gap analysis and costed operating responsibilities.
Single cloud, hybrid or multiple cloudsExisting systems, residency, resilience and specific portability needs.A deployment and data-flow design including failure and egress costs.

A lower token price can still produce a more expensive solution if retries, human review and operating work increase. Likewise, extra agents or another cloud can add coordination and failure modes without improving the outcome. The recommendation needs to show what the added complexity buys.

Architecture Reviews and Enterprise Capstone

The capstone starts with an ambiguous enterprise requirement. Your task is to produce a recommendation that the business can assess and an engineering team can act on.

What Your Architecture Pack Contains

  • ·Business problem, stakeholder needs and measurable success criteria.
  • ·Functional requirements, NFRs and the decision to use AI or a conventional alternative.
  • ·Current-state context, solution alternatives and target architecture.
  • ·Application, data, AI, integration, deployment and security views.
  • ·A risk register, governance controls and assigned operating responsibilities.
  • ·Build-versus-buy analysis and TCO assumptions, including human work.
  • ·A pilot, phased rollout, acceptance criteria and rollback triggers.
  • ·ADRs, a technical proposal and an executive architecture summary.

What the Review Examines

You defend the recommendation and revise it when the evidence does not support an assumption. The goal is an explainable solution decision, supported by architecture and delivery evidence.

Review areaQuestion your design must answer
Business fitWhat outcome is worth the investment, and how will it be measured?
Technical fitHow does the design satisfy the requirements and fit the existing estate?
Risk and controlWho can access data or take action, and what happens when a control fails?
EconomicsWhich assumptions determine cost, and what changes the recommendation?
Delivery and ownershipHow will the solution be introduced, supported and changed after launch?

Fees, Schedule and Course Completion

Request the current course details to confirm the fee, schedule, delivery format, assessment requirements and certificate availability before you enrol.

AI Solution Architect Course FAQs

What does an AI solution architect do?

An AI solution architect connects business requirements to a technical solution that an organization can deliver and operate. The work includes deciding where AI is useful, how data and enterprise systems connect, which platforms fit, and how security, cost and ownership affect the design.

Who is this course designed for?

It is designed for experienced engineers, technical leads, architects and technical consultants who need to make cross-system decisions. You should be comfortable with software architecture, APIs, data, deployment and security boundaries. Some AI application experience makes the architecture discussions more useful.

Do I have to complete AI System Design first?

No. Relevant production system-design experience can provide the foundation. If you still need depth in distributed systems, RAG and agent architecture, inference or reliability, AI System Design is the more useful starting point. The courses address different gaps rather than a compulsory sequence.

Does the syllabus cover generative AI and agentic AI?

Yes. It covers enterprise RAG and knowledge systems, model decisions, agent boundaries, tool permissions, execution state and human approval. The focus is on composing and operating a solution within an organization. Detailed implementation belongs in the relevant specialization courses.

Does it cover AWS, Azure and Google Cloud?

Yes, as architecture options. You compare platform capabilities, data and identity integration, deployment choices and operating responsibilities. The work focuses on architecture decisions rather than console walkthroughs for every cloud.

Will I work on cost, governance and rollout?

Yes. You build a cost model that includes platform usage, licensing, engineering, support and human review. You also map risks to controls and owners, then define a pilot, rollout gates, acceptance criteria and recovery responsibilities.

Is this an AI architect certification course?

The syllabus develops AI solution-architecture skills. It is not an AWS, Microsoft or Google Cloud certification syllabus. Ask for the current course details to confirm whether a School of Core AI completion certificate is included and which assessments it requires.

What will I submit for the capstone?

You submit a solution recommendation with requirements, alternatives, architecture views, security and governance controls, a cost model and a delivery plan. You also prepare a technical proposal and executive summary, then explain and revise the decisions during architecture review.

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Discuss Your AI Architecture Learning Goals

Share the systems you have worked on and the architecture responsibilities you want to take on. Ask for the current syllabus, joining details and help choosing between system design and solution architecture.

Request the current course details to confirm the fee, schedule, delivery format, assessment requirements and certificate availability before you enrol.

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