LoRA (Low-Rank Adaptation) in AI
A new section for Fine-Tuning Techniques is created to hold the LoRA document, and the LLM Architecture section is de-duplicated.
A new section for Fine-Tuning Techniques is created to hold the LoRA document, and the LLM Architecture section is de-duplicated.
Explains function calling (tool use) in LLMs: how models emit structured requests to invoke external functions, the request-execute-return loop, provider support, and practical reliability notes.
Explains speculative decoding, which pairs a small draft model with a large target model to accelerate LLM inference without changing outputs.
Explains sparse Mixture-of-Experts (MoE) architecture with conditional computation, router/gate mechanisms, load balancing, and trade-offs vs. dense models.
Explains autoregressive image generation as sequential visual-token prediction using Transformer-style next-token modeling.
Explains diffusion models as generative AI systems that learn to create data by reversing a noising process.
Distinguishes RLVR as training-time weight updates from inference-time agent verification loops.
Explains the four-stage modern LLM training pipeline from pre-training through verifiable-reward RL.
Explains that RL in LLMs is a training/alignment stage, not inference, with pipeline context.
Teen-friendly explainer of reinforcement learning agents, rewards, exploration, delayed rewards, and applications.
Explains scripted coding-LLM training with teacher traces, synthetic bugs, tests, SFT, and verifiable RL.
Explains prefix caching for reusing attention KV computations to speed up shared-prefix AI inference.
Explains AI world models as internal predictive representations for planning across RL, LLMs, and robotics.
Field guide to LLM jailbreaking attack surfaces, threat modeling, defenses, and responsible disclosure.
Defines the Turing test as a text-only behavioral test of machine intelligence through human-like conversation.
Paper summary of AdapTime, an adaptive planner for temporal reasoning in LLMs.
Explains QAT for training neural networks to retain accuracy under low-precision quantization.
Classifies multimodal, vision, and image-generation models by their input/output modalities.
Principles for designing AI harnesses: context, tools, verification, autonomy, observability, and composition.
Harness pattern that forces verification before accepting fluent AI outputs as correct.