Course outline▾
Week 1 · The Foundations
- Day 1Demystifying AI — From Buzzword to Business Logic
- Day 2How Machines Actually Learn — Supervised, Unsupervised and Reinforcement Learning
- Day 3Inside Neural Networks — The Engine of Modern Deep Learning
- Day 4The AI Project Lifecycle — From Raw Data to Production Deployment
- Day 5The Math Behind the Magic — Why Linear Algebra and Probability Matter
- Day 6Data Preprocessing — Cleaning the Messy Reality of Enterprise Data
- Day 7Measuring Success — Understanding Accuracy, Precision, Recall and F1 Scores
Week 2 · Applied AI & APIs
- Day 8Introduction to LLMs & The Modern AI API Landscape
- Day 9Advanced Prompt Engineering — Few-Shot, Chain-of-Thought and Structured JSON
- Day 10Tokenization, Context Windows and Cost Optimization
- Day 11Embeddings and Vector Representations — How Machines Map Meaning
- Day 12Vector Databases — Storing and Searching Enterprise Knowledge
- Day 13Retrieval-Augmented Generation (RAG) — Chatting with Proprietary Documents
- Day 14RAG Evaluation and Hallucination Guardrails
Week 3 · Infrastructure & Hosting
- Day 15Introduction to AI Infrastructure — Hardware, Runtimes and Compute
- Day 16Local Model Execution — Running Open-Weight LLMs Securely with Ollama and vLLM
- Day 17Containerizing AI Workloads — Production Dockerfiles for Python APIs
- Day 18Docker Compose for Multi-Container AI Stacks
- Day 19Kubernetes for AI 101 — Pods, Deployments and Services for Model Serving
- Day 20Persistent Storage in Kubernetes — Managing State, Weights and Vector Indices
- Day 21High-Performance Networking — Ingress and Egress for AI Clusters
Week 4 · Enterprise Workflows
- Day 22Autonomous Agents — From Passive LLMs to Goal-Driven Execution
- Day 23Tool Use and Function Calling — Connecting LLMs to APIs, Databases and Shells
- Day 24Multi-Agent Orchestration — Supervisor, Worker and Evaluator Patterns
- Day 25Automated CI/CD: Automating the Software Lifecycle for AI ModelsComing soon · 2026-10-25 · 7 PM IST
- Day 26Zero-Trust Security for AI: Sandboxing Ephemeral Execution & Model EgressComing soon · 2026-10-26 · 7 PM IST
- Day 27Observability & Tracing for Agentic Systems (Telemetry, Logs, and Metrics)Coming soon · 2026-10-27 · 7 PM IST
- Day 28Human-in-the-Loop Architecture: Machine Second, Human First in PracticeComing soon · 2026-10-28 · 7 PM IST
- Day 29Managing Technical Debt, Drift, and Model Governance in Enterprise ITComing soon · 2026-10-29 · 7 PM IST
- Day 30The 10-Year Horizon: Architecting IT Strategy for the AI-Native EnterpriseComing soon · 2026-10-30 · 7 PM IST
Day 24: Multi-Agent Orchestration — Supervisor, Worker and Evaluator Patterns
2026-10-24 · 7 min read
As a workflow grows, handing one agent every tool and a long list of responsibilities makes it worse. The prompt gets crowded, the model picks the wrong tool and the context window fills up. The fix is the one human organisations use: divide the work among specialists who collaborate.
In plain terms: A hospital does not give one doctor every job. A coordinator sends each patient to the right specialist, and a second doctor reviews the plan before treatment begins.
Three patterns
- Worker (specialisation). A small agent with a narrow scope and its own limited tools. A log-parser worker can only read logs. A database worker has a read-only SQL connection. A tight scope improves accuracy and limits damage.
- Supervisor (routing and delegation). The coordinator. It reads a high-level request, splits it into sub-tasks, hands them to the right workers and combines the results into one answer.
- Evaluator (validation and guardrails). An independent agent that reviews worker output against policy, accuracy rules and business logic before anything is committed or shown to the user. Keeping it separate matters, because a worker checking its own work tends to approve it.
State and orchestration
Coordinating several agents calls for a real state machine. Frameworks such as LangGraph (Python) and Mastra (TypeScript) model the system as a directed graph.
- Nodes are agents, tool executions or human-approval checkpoints.
- Edges are routing rules based on what earlier nodes returned.
- Durable state records progress after each step (a checkpoint), so if a pod crashes mid-run the workflow resumes from the last confirmed node instead of starting over.
Here is the pattern without any framework, so the idea is clear. The ask_* functions stand in for model calls with different system prompts and tools, and a framework adds the graph, retries and persistent checkpoints for you.
def run_workflow(request: str, state: dict) -> str:
# Supervisor splits the request into sub-tasks (cached in state so a restart skips done work)
state.setdefault("plan", ask_supervisor(request)) # e.g. ["parse_logs", "check_db"]
for task in state["plan"]:
if task in state.setdefault("results", {}):
continue # resume: this step already finished
worker = WORKERS[task] # each worker has its own narrow tools
state["results"][task] = worker(request)
save_checkpoint(state) # durable state after every step
draft = ask_supervisor_combine(state["results"])
verdict = ask_evaluator(draft, policy=POLICY) # independent quality gate
if verdict != "approved":
return "Held for human review" # an approval node in a real graph
return draft
Structuring agents as modular teams mirrors high-performing engineering organisations: clear roles, small scopes and a reviewer, which is what makes complex tasks dependable.
Coming Up Next
Day 25: Automated CI/CD: automating the software lifecycle for AI models.
#MultiAgentSystems #LangGraph #SystemDesign #AgenticAI #SoftwareEngineering