Machine Learning Foundations
A decision-centered introduction to supervised learning: frame prediction problems, trace how models learn, compare model biases, evaluate generalization honestly, and diagnose what to improve next.
TRACKS
A decision-centered introduction to supervised learning: frame prediction problems, trace how models learn, compare model biases, evaluate generalization honestly, and diagnose what to improve next.
How neural networks build representations, receive credit through gradients, train reliably, encode architectural bias, transfer knowledge, and cross the boundary into inference systems.
Transformer-era language modeling concepts, architectures, and capability framing.
Training data, distributed pretraining, post-training, alignment loops, inference optimization, and production serving for large language models.
Evidence-grounded LLM product architecture: RAG pipelines, agent-facing context, evaluation slices, observability, cost, safety boundaries, and production release judgment.
Multimodal encoders, contrastive learning, grounding, and vision-language model design.
Synthetic data, verifiers, process supervision, reasoning traces, and frontier post-training loops.
Tool schemas, planners, sandboxes, browser agents, orchestration loops, and runtime failure handling.
Design memory, context assembly, and planning state for long-lived LLM agents that must preserve evidence, recover work, and act under operational constraints.
Latent dynamics, predictive state, imagination-based planning, and model-based agent architectures.
Diffusion models, latent media generation, controllability, and evaluation across image, audio, and video systems.
Guardrails, policy enforcement, action filtering, runtime controls, and the trust boundaries needed around agentic systems.
Offline evals, task suites, judge systems, reliability trade-offs, and the measurement discipline required to compare LLM behavior honestly.
Coordination protocols, role assignment, negotiation, and the design patterns for systems composed of multiple autonomous agents.
Tool selection, environment feedback, learned interaction policies, and the mechanisms that let agents improve through action.
Interventions, counterfactual thinking, uplift, and the use of causal structure to support better decisions than prediction alone.
Bias-variance trade-offs, sample complexity, optimization behavior, and the theory that explains why learning succeeds or fails.
Draft track for feature platforms, training pipelines, experiment systems, model deployment, and inference operations.
Latent-variable models, priors, posterior reasoning, and the probabilistic view of learning under uncertainty.
Value functions, policy learning, exploration, planning, and the algorithms for acting under delayed feedback.
Embeddings, contrastive objectives, pretext tasks, and the training recipes that build reusable latent structure from raw data.
Sensors, actuators, frames, control loops, perception, planning, safety, and simulation-to-reality gaps in embodied systems.
Operational discipline for machine learning: datasets, training pipelines, evaluation, deployment, monitoring, drift, lineage, and rollback.
Read AI research with discipline: claims, baselines, ablations, datasets, benchmarks, limitations, replication, and implementation judgment.
Design reliable work with AI assistants and agents: delegation, context, review, tool boundaries, memory, failure recovery, and human judgment.