Developer learning path

Design and Operate Production-Ready AI Systems

Learn system design, AI infrastructure, LLMOps, agent orchestration, monitoring, evaluation, and deployment through guided labs and real-world scenarios.
AI Ops command center showing system architecture, agent workflow, observability, latency, and cost panels

10

learning tracks

System design, agents, RAG, prompts, and ops

8

hands-on labs

Architect, build, evaluate, and deploy scenarios

1

production workflow

Design → Improve with monitoring and iteration

What is Agentic Systems & AI Ops?

A structured learning path for developers who want to build production AI systems.

Move beyond basic AI usage and understand how real AI products are designed, deployed, monitored, and scaled. The path emphasizes production readiness, reliability, and real-world AI engineering.

Production AI learning path

Learn the operating model behind real AI products.

This path connects prompt design, retrieval, agents, deployment, observability, and evaluation into one practical system design workflow.

Production readiness

Learn to design for latency, failure modes, rollback, and safe launch conditions from the start.

Reliability and control

Use guardrails, tests, and fallback flows so AI systems stay usable when outputs drift.

Operational visibility

Instrument traces, metrics, logs, and cost signals before a system reaches production traffic.

Prompt pipeline console showing prompt versions, diff viewer, prompt registry, and rollout controls
Prompt pipeline snapshot
prompt_v2.3 -> retrieval -> tool call -> eval gate
changes tracked: version, tests, rollout, rollback
production rule: ship only when the scorecard passes
Core learning tracks

Ten tracks that cover the full production AI stack.

Each track teaches the concepts, architecture choices, and operational habits developers need when AI moves from prototype to product.

AI System Design

Define service boundaries, latency budgets, failure modes, data flow, and operating constraints before launch.

Architecture first

LLM Application Architecture

Compose prompts, retrieval, context packing, structured outputs, and API integrations into one resilient app.

App reliability

Agent Architecture

Plan tool use, memory, routing, role separation, and safety checks so agents act predictably.

Tool orchestration

RAG Infrastructure

Design chunking, indexing, retrieval, reranking, and answer grounding for production usage.

Grounded answers

Vector Databases

Choose embeddings, schema, filters, and search tuning that keep semantic retrieval fast and relevant.

Semantic search

Prompt Pipelines

Version prompts, track diffs, and coordinate templates, tests, and rollout rules across products.

Prompt control

LLMOps & MLOps

Connect datasets, models, deployments, experiments, and release hygiene into one operating pipeline.

Release safety

Observability & Monitoring

Track traces, logs, metrics, alerts, and red flags before incidents become outages or costly regressions.

Live telemetry

Evaluation & Guardrails

Write test cases, automate scoring rubrics, detect drift, and place policy checks around model behavior.

Quality gates

Deployment & Scaling

Ship with CI/CD, autoscaling, caching, fallback flows, and cost controls that hold up under load.

Production scale
Hands-on system design labs

Build the architectures people actually run.

Every lab includes a scenario, implementation steps, a scoring rubric, and the failure paths needed to make the lesson feel production-real.
01

Design a production chatbot architecture

Sketch the full stack, from user input and prompt routing to retrieval, responses, logs, and fallback handling.

Architecture
02

Build a RAG pipeline with vector search

Chunk documents, build embeddings, index knowledge, and tune retrieval quality for grounded answers.

RAG build
03

Create an agent workflow with tools and APIs

Route tasks through planner, tools, memory, and execution steps while keeping behavior safe and observable.

Agent orchestration
04

Add logging, tracing, and monitoring to an AI app

Instrument the system so latency, failures, prompt quality, and tool calls are visible in production.

Observability
05

Evaluate LLM responses with test cases

Build test suites that check grounding, correctness, policy adherence, and regression risk.

Evaluation
06

Design fallback flows for unreliable AI outputs

Add retries, safe responses, human review paths, and degraded modes for high-risk output failures.

Guardrails
07

Optimize AI system latency and cost

Trim prompt size, cache outputs, tune models, and rebalance retrieval to hit latency and budget targets.

Performance
08

Deploy an AI service with CI/CD

Ship with tests, environment controls, versioned releases, and a repeatable deployment workflow.

Release
Production AI workflow

A step-by-step path from idea to continuous improvement.

The learning loop is simple to explain and hard to fake: design, build, connect data, orchestrate agents, evaluate, deploy, monitor, and improve.
01

Design

Map service boundaries, dependencies, risk areas, and operating goals before any code ships.

02

Build

Implement prompt layers, tool integrations, retrieval, and application logic in a clean stack.

03

Connect Data

Wire documents, embeddings, vector indexes, and live data sources into the system.

04

Orchestrate Agents

Route tasks through planner, tools, memory, and approval steps with predictable behavior.

05

Evaluate

Run regression tests, scoring rubrics, and scenario checks before every rollout.

06

Deploy

Release through CI/CD, guarded versions, and environment-aware rollout controls.

07

Monitor

Watch latency, traces, token usage, errors, and cost in live production traffic.

08

Improve

Use findings to refine prompts, architecture, fallback flows, and operational policies.

Real-world AI architecture patterns

Learn the patterns that appear again and again in production AI systems.

The architecture language here is practical: the learner should be able to explain the shape of the system, the tradeoffs, and the reasons each component exists.
Architecture pattern board showing RAG, multi-agent workflows, tool calling, human-in-the-loop, event-driven workflows, observability, and evaluation pipelines
Assessments and readiness

Prove readiness with quizzes, challenges, and system design evidence.

The path should not only teach concepts. It should produce a clear readiness model that shows what the learner can do, where they struggle, and what to practice next.
Observability and readiness dashboard showing score rings, trace waterfall, prompt quality signals, and cost panels

7

assessment modes

Quizzes, challenges, debugging, and case studies

AI

generated reports

Summaries of strengths, gaps, and next actions

Live

readiness scoring

Scores update after every lab or submission

Assessment stack

  • Quizzes that check core concepts and decision logic
  • Architecture challenges that test tradeoffs and system boundaries
  • Debugging tasks that surface reliability and failure handling
  • System design case studies that connect components end to end
  • Project submissions that prove implementation quality
  • AI-generated reports that summarize strengths and gaps
  • Readiness scoring that updates after every attempt
For developers, teams, and companies

One path that helps learners and engineering orgs alike.

The learning path works as individual upskilling, interview preparation, team training, and a shared operating model for production AI work.

Developers

Build the habits behind production-ready AI products, not just demos or prompt experiments.

Outcome

Ready to ship and support AI systems

Students

Use the path to prepare for AI engineering roles with portfolio-ready work and clear review loops.

Outcome

Interview-ready architecture stories

Companies

Train teams on LLMOps, reliability, observability, and a shared production AI operating model.

Outcome

Standardized AI delivery playbooks

Engineering teams

Align design reviews, rollouts, monitoring, and guardrails across squads and product lines.

Outcome

Safer launches and easier maintenance

Start the path

Move from AI prototypes to reliable production systems.

Build the habits, architecture patterns, and operational discipline that turn AI experiments into systems teams can trust.