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AI-200 study guide: build and test an AI backend

Use a small Python backend project to connect AI-200 topics: containers, vector data, integration, security, monitoring and troubleshooting.

Last updated: September 9, 2026

Prepared with AI assistance by Pass-IT. Vendor sources support exam facts; the exercises and study recommendations are ours.

Use the objectives to frame a project

AI-200 covers backend AI development across the lifecycle, including Python, SDKs, containers, messaging, vector data, security, and monitoring. The official study guide assigns 20–25% to containers, 25–30% to AI data management, 20–25% to integration, and 20–25% to security, monitoring, and troubleshooting. These weights describe the scope; they do not predict question counts.

A useful study approach is to connect those areas in one small project. The following design is an original learning exercise, not a complete cloud tutorial or a substitute for every objective.

Build a document-processing worker

Use these inputs: a queue message containing a document ID and tenant identifier, an authorized document, a document belonging to another tenant, and a malformed message. Derive the tenant identity from authenticated context and the permissions granted to that identity, and verify it server-side. Do not trust the tenant identifier merely because it appears in the message.

Design a Python worker that receives the message, verifies server-side that its tenant identifier matches the authorized context and that document access is permitted, retrieves the authorized document, and stores embeddings with tenant metadata. Package the worker in a container so you can explain its dependencies and runtime configuration. Use the queue to separate document submission from processing. Choose an appropriate SDK for service calls, and explain what configuration it needs.

Next, query the vector data within the authorized tenant’s scope. Enforce metadata filters server-side using the verified tenant identity and check access permissions; metadata alone does not provide access control. Store secrets outside the source code and describe how the worker obtains them.

The expected result is that retrieval returns the authorized document and excludes the other tenant’s document. A malformed message should be isolated in a dead-letter queue and leave a trace you can inspect.

Test the boundaries, then map the gaps

Run separate failure checks. Search for content unique to the other tenant: it must not appear. Tamper with the message’s tenant identifier to name the other tenant: verify that the server rejects the mismatch and grants no access to that tenant’s documents. Submit the malformed message: verify its isolation and trace. Inspect the source for embedded secrets. If a check fails, identify the responsible component before changing the design.

Map your notes to the four areas: container packaging; embeddings and metadata; queue and SDK integration; access controls, tracing, and troubleshooting. Explain why each component exists and what would break without it.

Finally, compare the project with individual guide objectives and list what remains unpractised. Inspect relevant practice and explanations in the catalogue to explore those gaps.

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