CSC2220 Artificial Intelligence
A field guide to artificial intelligence.
A high-signal course map from ML and deep learning to LLM training, inference, agents, harness engineering, RL environments, recursive self-improvement, and world models, with the original papers, projects, and videos kept in one navigable atlas.
The course guide
Follow the capability shift, not just the buzzword.
Each chapter keeps the original source material and gives you a clear path through what changed, why it mattered, and what to open next. The timeline is the spine; start anywhere.
Classic ML turns data into reliable decisions.
Deep learning learns features instead of hand-crafting them.
LLMs and multimodal models make language and media into interfaces.
Agents, tools, skills, and harnesses turn one-shot output into workflows.
World models point toward planning over imagined futures.
What's inside
One atlas, every primary source in reach.
Every claim on this page links out to the original paper, official documentation, talk, or product page. Use the counts below as a map of the territory.
AI history
A better timeline, with stronger sources and less hand-wavy storytelling
Instead of one giant paragraph, the history is split into milestone states. Click across the timeline to see the capability shift, why it mattered, and which papers, official pages, or talks best represent the moment.
Era
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What changed
Why it matters
Frontier systems
Where the site gets current: OpenClaw, Recursive, Seedance, Happy Oyster, harnesses, and world models
These are not one category. Some are products, some are operating layers, and some are research bets. Together they show the shift from plain chat toward richer media, longer-running systems, recursive improvement loops, and more world-like interaction.
Topic
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Interpretation
Why now
LLM lifecycle
From pre-training to post-training to inference, the model is also an infrastructure product.
A modern LLM is not just one training run. It moves through a factory: internet-scale data and distributed compute create a base model, post-training turns it into a usable assistant, and inference infrastructure makes every token fast, cheap, observable, and reliable enough for real users.
Stage
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Infra does the hard part
If this layer is weak
GPU memory, networking, parallelism, checkpointing, and fault recovery decide how quickly experiments become models.
Labels, reward models, verifiers, RL rollouts, safety evals, and agent environments turn raw models into behavior.
Schedulers, batching, KV cache reuse, quantization, and observability determine latency, cost, and reliability.
SGLang and RadixArk show that inference infrastructure is now a startup and open-source frontier, not a hidden backend detail.
Neo labs
The neo-lab wave is splitting on what the next AI bottleneck really is
Recursive and Sakana are betting on AI improving AI. Thinking Machines Lab is betting on understandable, customizable, collaborative AI systems. Reflection, Cursor, Codex, and Claude Code push on coding agents. E2B, Browserbase, Daytona, Modal, Blaxel, and CoreWeave show that the next bottleneck is also the environment layer: safe sandboxes, browsers, filesystems, RL rollouts, and evaluation harnesses where agents can act, fail, recover, and be measured. World Labs leans into spatial intelligence, FutureHouse into AI scientists, Physical Intelligence into embodiment, and SSI into a safety-first path.
Curated library
A living shelf of papers, talks, official docs, and frontier projects
Filter by how you want to learn. The goal is not quantity. It is a tighter, more credible shortlist that students can actually use.
Watch
See the ideas, not just the labels
Some of the biggest shifts in AI are much easier to grasp visually than in prose. This layer pulls together explainers, talks, and demos that make the abstractions legible.
Future
The next stack may look less like a chatbot and more like a simulator, scientist, and robot.
The strongest future branch in this story is no longer just “bigger LLMs.” It is the convergence of world models, AI scientists, and embodied systems that reason over consequences before acting in text, software, labs, or the physical world.
World Labs argues that renderers, simulators, and planners are collapsing into one stack.
This is one of the clearest product-level cases for why world models may become the bridge from generative media to genuine spatial reasoning and simulation.
FutureHouse suggests AI scientists may become a practical vertical before general AGI arrives.
Scientific agents already combine literature search, synthesis, tools, and experimental planning into workflow systems that look more like junior research teams than chatbots.
Physical Intelligence shows what changes when AI must act in the physical world, not just describe it.
Embodied systems force models to handle state, memory, causality, and consequences under real action pressure. That is why robotics may be one of the hardest and most revealing world-model tests.