Systems-first AI engineering
The engineering track treats model calls as production runtime architecture: routing, latency budgets, schema contracts, telemetry, and safe tool orchestration.
AI Learning Study / Master Curriculum
A master curriculum for the latest AI paradigms: high-performance inference, MCP-enabled agents, multimodal retrieval, mobile integration, product strategy, design workflows, marketing systems, and responsible adoption.
Curriculum architecture
The platform now indexes 32 in-depth modules across 5 tracks, with roughly 194+ hours of guided study. Every module carries prerequisites, outcomes, artifacts, key concepts, and a deep technical narrative that can scale into full lessons.
The engineering track treats model calls as production runtime architecture: routing, latency budgets, schema contracts, telemetry, and safe tool orchestration.
Every module is built around three-part deep dives, concrete artifacts, and decision frameworks that help learners reason beyond copied code.
Five persona tracks share the same rigor while changing the vocabulary, artifacts, and evidence expected from engineers, product leaders, designers, marketers, and foundation learners.
Every example is shown as production-grade reference code with line numbers, language badges, and one-click copy — ready to lift straight into your own editor.
Track command center
Each persona track uses the same editorial system but changes the content density, evidence model, and learning outcomes. The transition is animated so the curriculum feels like a single instrument, not separate pages stitched together.
Systems, agents, retrieval, infrastructure
A master-level engineering track for building AI systems that are observable, secure, latency-aware, multimodal, and ready for production traffic.
Staff engineers, platform teams, AI application engineers, and technical founders
Module 01
Modern AI products rarely depend on a single model call. They operate as runtime systems that classify intent, assemble context, choose models by latency and capability, enforce schemas, and recover gracefully when a provider or tool fails. This module reframes LLM integration as distributed systems design rather than prompt decoration.
Module 02
High-scale AI systems fail when teams treat inference as an opaque API call. Real production work requires understanding prefill versus decode latency, token throughput, context-window growth, KV-cache reuse, batching, speculative decoding, streaming, and how prompt shape directly affects both cost and responsiveness.
Module 03
Reliable AI products turn language into typed decisions. This module covers structured generation with JSON schemas, constrained decoding, function calling, validation loops, repair strategies, and the difference between a model suggesting an action and a workflow engine committing that action.
Module 04
Retrieval-augmented generation has moved beyond text chunks and vector search. Modern systems need to retrieve from PDFs, diagrams, tables, screenshots, transcripts, product analytics, video frames, and image-heavy documentation while preserving provenance and layout-sensitive meaning.
Complete module index
The homepage exposes the full curriculum as crawlable navigation. Each module page adds its own metadata, Course JSON-LD, long-form summary, prerequisites, outcomes, artifacts, and a code reference.
Systems, agents, retrieval, infrastructure
A master-level engineering track for building AI systems that are observable, secure, latency-aware, multimodal, and ready for production traffic.
Strategy, economics, evaluation, governance
A rigorous product track for deciding what AI should do, how it should be evaluated, and whether the economics support a durable business.
Interfaces for uncertainty, creation, and trust
A design track for crafting AI interfaces that feel editorial, legible, responsive, and honest about system uncertainty.
Brand systems, answer engines, campaigns, measurement
A modern marketing track for using AI to build defensible brand systems, measurable campaigns, and content that survives search disruption.
Mental models, prompting, verification, personal systems
A rigorous but approachable foundation for understanding what modern AI can do, where it fails, and how to use it responsibly in everyday work.
Code example
Technical examples are rendered like premium IDE references: clean highlighting, line numbers, and one-click copy so you can lift real implementation patterns straight into your project.
1type RetrievalBudget = {2 maxContextTokens: number;3 evidenceTypes: Array<'text' | 'table' | 'image' | 'transcript'>;4 requireCitations: boolean;5};6 7export function assembleContext(budget: RetrievalBudget) {8 return {9 retriever: 'hybrid-vector-lexical',10 reranker: budget.evidenceTypes.includes('image')11 ? 'multimodal-late-interaction'12 : 'cross-encoder-reranker',13 compression: budget.maxContextTokens < 12000 ? 'citation-aware-summary' : 'source-packing',14 answerPolicy: budget.requireCitations ? 'grounded-only' : 'draft-with-uncertainty',15 };16}Version 2026.05-editorial-tech-phase-1
Software engineers can begin with runtime architecture. Product, design, marketing, and foundation learners can jump into their own role-specific path without losing technical legitimacy.