Welcome!

The shift from monolithic language models to compound AI systems — systems with multiple interacting components including LLMs, retrievers, tools, and optimizers — represents a fundamental change in how AI applications are built for people. This course teaches students how to engineer agentic systems: the full spectrum from simple LLM pipelines to compound AI systems to autonomous agents. Students will learn to pick what types of problems to focus on, decompose problems, select appropriate components, collect and curate data, build evaluations, and reason about the design tradeoffs that arise when building these systems in practice.

Students first build core components (RAG, tool use, agent loops) from scratch, then learn how frameworks like DSPy abstract these patterns. Through two fully applied homework assignments and a quarter-long project, students gain hands-on experience building, optimizing, and evaluating agentic systems.

For more information about coursework, office hours, and logistics, please refer to the Logistics page. You can also view course dates on the Google Calendar.

Class Schedule

Note: the schedule is tentative and subject to change. Classes meet Mondays and Wednesdays, 1:30–2:50 p.m., in Skilling Auditorium. Lecture materials will be linked here as they are released.

WeekDateLectureCourse Material
1 Wed Sep 23 Foundations & Landscape Introduction — What Are Agentic Systems? Course logistics, a brief history of agents, and the anatomy of an agent: LLM core, reasoning, memory, tools, and environment. Compound AI systems and workflows vs. agents, plus the key challenges of reliability, training, safety, and evaluation. Slides Readings:
2 Mon Sep 28 LLMs for Builders Language model internals for agent builders: decoding strategies, transformer attention (including linear and hybrid) and context length, the pretraining-to-post-training pipeline, inference and test-time scaling, structured I/O and constrained decoding, and context engineering. Slides Readings:
2 Wed Sep 30 Building Blocks Retrieval-Augmented Generation (RAG) Why retrieval helps, then the RAG pipeline end to end: indexing (chunking, contextual retrieval, RAPTOR, HNSW), retrievers from BM25 and DPR to hybrid search, reranking, and ColBERT, agentic RAG (Self-RAG, Search-R1), and common failure modes. Plus a course project overview. Slides Readings:
3 Mon Oct 5 Tool Use & Function Calling Why LLMs need tools and how they learn to use them: Toolformer, scaling to thousands of APIs with Gorilla and ToolLLM, standard interfaces from REST to function calling to MCP, evaluating tool use with BFCL, ToolBench, and τ-bench, and common failure modes. Slides Readings:
3 Wed Oct 7 Frameworks & Agent Design Frameworks & Orchestration The data, system, and evals pillars of agent engineering, with live demos of DSPy (signatures, modules, optimizers) and LangGraph (state, nodes, edges). A tour of open-source agent harnesses (mini-SWE-agent, OpenHands, Pi), durable orchestration with Temporal, observability tooling, and best practices. Slides Code Readings:
4 Mon Oct 12 Agent Design Patterns & Scaffolds Workflows vs. agents and the design patterns for each: five composable workflow patterns, reasoning and acting patterns (ReAct, Reflexion, CodeAct, ReWOO), and context-management patterns (event logs, compaction, observation masking, context isolation). Case study of the Pi harness. Slides Readings:
Additional readings
4 Wed Oct 14 Memory & Multi-Agent Systems Agent Memory Architectures Why agents need memory and the four types (working, episodic, semantic, procedural). Four architecture patterns: skill libraries, tiered hierarchies like MemGPT, reflective consolidation, and memory maintenance. Memory benchmarks and open problems in forgetting, privacy, and over-personalization. Slides Readings:
5 Mon Oct 19 Multi-Agent Systems When to use single vs. multi-agent systems and how to build them: orchestration patterns (orchestrator, swarm, hybrid), communication through handoffs, message boards, and the A2A protocol, and coordination infrastructure (task ledgers, shared memory, worktree isolation). Why multi-agent systems fail. Slides Readings:
5 Wed Oct 21 Optimization Optimization When optimization pays off and how to do it: context optimization (bootstrapped few-shot, MIPROv2, OPRO, TextGrad, GEPA), weight optimization (SFT on agent rollouts, RL with PPO and GRPO, on-policy distillation), agents as optimizers (Darwin Gödel Machine, autoresearch), and when to optimize prompts vs. weights. Slides Readings:
6 Mon Oct 26 📺 Guest Lecture: Terminal-Bench Ryan Marten, Alex Shaw Ryan Marten and Alex Shaw (Laude Institute), co-creators of Terminal-Bench, on benchmarking how well AI agents accomplish real-world tasks in a terminal environment. Slides Readings:
6 Wed Oct 28 Data for Agentic Systems What Data Do Agents Need? Traces, demonstrations, and feedback, data for optimization vs. evaluation, data flywheels, synthetic data generation, and collecting data from human-agent interaction. Slides Readings:
Additional readings
7 Mon Nov 2 Data Selection & Quality Finding maximally informative data, filtering and selection strategies, tiny-but-targeted benchmarks, annotation practices, quality assessment, and building datasets from agent traces. Readings:
Additional readings
7 Wed Nov 4 Evaluation for Agentic Systems Evaluation Fundamentals & Benchmark Design Why evals are hard, the 4-tuple framework (request, environment, stopping criteria, scorer), designing each component, properties of good benchmarks, realistic scaffolding, and reliability dimensions. Readings:
Additional readings
8 Mon Nov 9 📺 Fireside Chat with Andrew Ng Andrew Ng A fireside chat with Andrew Ng, hosted by Diyi Yang. Professor Ng is the founder of DeepLearning.AI, co-founder of Coursera, founding lead of Google Brain, and a Professor of Computer Science at Stanford.
8 Wed Nov 11 LLM-as-Judge & Evaluation Infrastructure The three grader types, designing judge prompts, known biases, pairwise vs. pointwise evaluation, non-determinism metrics (pass@k vs. pass^k), harness design, and Anthropic's 8-step roadmap. Readings:
Additional readings
9 Mon Nov 16 📺 Guest Lecture: SWE-bench Carlos Jimenez, Alexander Wettig Carlos Jimenez and Alexander Wettig (Anthropic), creators of SWE-bench, on the evolution and future of evaluations for coding capabilities and beyond. Readings:
9 Wed Nov 18 Safety Agent Safety & Guardrails Privacy risks of tool access, prompt injection (including indirect injection), red-teaming, sandboxing and permission models, output guardrails, liability considerations, responsible deployment, and human-in-the-loop patterns. Readings:
Additional readings
10 Mon Nov 23 No Class — Thanksgiving Recess
10 Wed Nov 25 No Class — Thanksgiving Recess
11 Mon Nov 30 Coding Agents & Proactive Agents Coding & Software Agents How coding agents work end to end: the SWE-agent, Claude Code, and OpenHands architectures, scaffolds as design decisions, SWE-bench and the 4-tuple framework in practice, and the future of software development with agents. Readings:
Additional readings
11 Wed Dec 2 Proactive Agents From reactive to proactive agents: General User Models (GUM), Next Action Prediction, open-source proactive personal agents, privacy and trust implications, and when agents should initiate vs. wait (mixed initiative). Readings:
Additional readings
— Finals Week (Dec 7–11) Open Problems & Final Demos Final Project Demo Day Held during the end-quarter examination period. Exact time and location TBA.

Deadlines

All times are Pacific. Deadlines are subject to change; any changes will be announced in class and posted here.

WeekDeadlineDateTime
3HW1 ReleasedMon Oct 5—
3Project Proposal DueFri Oct 911:59 p.m.
6HW2 ReleasedMon Oct 26—
6HW1 DueFri Oct 3011:59 p.m.
7Midpoint Demo Video DueWed Nov 411:59 p.m.
7Midway Report DueFri Nov 611:59 p.m.
8Paper Video Due (10–15 min)Fri Nov 1311:59 p.m.
9HW2 DueFri Nov 2011:59 p.m.
11Paper Video Peer Reviews Due (2 videos)Mon Nov 3011:59 p.m.
FinalsFinal Report Due & Final System DemoDec 7–11TBA

Sponsors

We are grateful to our sponsors for their generous support of CS 329Z.