// SYSTEM ONLINE

Understand Artificial Intelligence
one term at a time.

A plain-language field guide to how AI actually works — from tokens and weights to inference and transformers. Toggle between Simple and Complex depending on how deep you want to go.

terms defined
categories
depth levels

01 Learning Tracks

New here, or filling gaps? Take a guided, start-to-finish tour — nuts to bolts. Pick your level and step through it like a slideshow.

02 The Glossary

Search any term, or filter by category. Every entry comes in two depths.

03 The Inference Lab

When you talk to an AI, your words make a round trip: tokenization → inference → detokenization. Pick a level of detail below and watch it happen.

Level:

04 Anatomy of a Model

A model is really just layers of simple math, stacked deep. See the big picture — or open it up to the transformer blocks inside.

Level:

05 Mixture of Experts

How a model can be huge but cheap to run: a router sends each token to only a few specialist “experts” instead of the whole network.

Level:

06 Inference Engines

The software that actually runs a model to generate text. Server engines squeeze out maximum throughput for many users; local engines make models easy to run on your own machine. Model format matters — most local tools want GGUF, most servers want safetensors.

Engine Best for Model formats Pros Cons
vLLMserver High-throughput production serving on GPUs Safetensors (HF); GPTQ / AWQ / FP8; limited GGUF Top throughput (PagedAttention + continuous batching); OpenAI-compatible API; broad model support GPU-focused; heavier to set up; overkill for single-user laptops
SGLangserver High-throughput serving with fast structured output Safetensors (HF); GPTQ / AWQ / FP8 Very high throughput (RadixAttention KV reuse); excellent for agents / JSON; OpenAI-compatible Newer; GPU-focused; smaller ecosystem than vLLM
TensorRT-LLMserver Maximum performance on NVIDIA GPUs HF / safetensors compiled into TensorRT engines Fastest on NVIDIA (FP8 / INT4, fused kernels); production-grade NVIDIA-only; complex compile/build step; less flexible
Hugging Face TGIserver Production serving tied to the Hugging Face ecosystem Safetensors (HF); GPTQ / AWQ / EETQ Instant access to HF models; continuous batching; solid tooling GPU-focused; fewer bleeding-edge perf features than vLLM
llama.cpplocal Local / edge inference almost anywhere, CPU or GPU GGUF (native) Runs on nearly any hardware (CPU, Metal, CUDA, ROCm, Vulkan); tiny footprint; huge quant selection Lower multi-user throughput; mostly text; more manual setup
Ollamalocal Dead-simple local models on any OS GGUF (own registry; can import safetensors) One-command install & run; clean local API; cross-platform; built on llama.cpp Less tunable; GGUF-centric; not for large-scale serving
LM StudioGUI Running local models through a friendly desktop app GGUF; MLX (Apple Silicon) No-code GUI + chat; built-in model browser; local OpenAI-compatible server Desktop app (not for headless servers); closed-source
Lemonadelocal Local LLMs on AMD Ryzen AI PCs (CPU / GPU / NPU) GGUF (llama.cpp); ONNX / OGA (Ryzen AI) NPU + iGPU acceleration on Ryzen AI; OpenAI-compatible server; multiple backends Best on AMD hardware; newer, smaller ecosystem
MLX-LMlocal Fast local inference on Apple Silicon Macs MLX (converted from safetensors); some GGUF Optimized for M-series unified memory; supports fine-tuning; open-source Apple Silicon only; smaller model hub than HF

// Engines and formats move fast — check each project's docs for the latest support.

07 About

Clanker University exists to make the vocabulary of AI approachable for everyone — students, professionals, the curious, and the skeptical. No gatekeeping, no assumed PhD. Just clear definitions with a depth dial you control.

Every term comes in two depths — flip any card or diagram between Simple and Complex to match what you need.