← 🧠 Foundations of LLMs & GenAINEXT IN FOUNDATIONS OF LLMS & GENAIInference-Time Compute and Reasoning Models→
Core
Scaling Laws
Scaling laws say model loss falls predictably as a power law in parameters, data, and compute, which is why bigger models trained on more data reliably get better. The Chinchilla result showed that for a fixed compute budget you should scale parameters and training tokens together (roughly equally), meaning prior large models were under-trained. This reshaped how compute is allocated and why smaller, data-heavy models are competitive. Applied-AI interviews probe it because it underlies model-selection and the data-vs-size economics.
a free account unlocks the core curriculum tier · no card
RELATED CONCEPTS
PRACTICE THIS IN REAL QUESTIONS
LLM & GenAI FundamentalsWhat are neural scaling laws and the Chinchilla compute-optimal result?→LLM & GenAI FundamentalsHow do you choose the data mixture for pretraining an LLM, and what does domain reweighting buy you?→System Design for AI in ProductionDesign a text-to-SQL feature: let users ask questions in natural language over a real database.→LLM & GenAI FundamentalsWhat is instruction tuning, and how does it differ from pretraining and alignment?→Machine Learning & Data ScienceWhat is transfer learning, and how do you decide whether to freeze, fine-tune, or use feature extraction?→System Design for AI in ProductionDesign a fraud-detection system that uses LLMs (beyond a classic ML classifier).→
COMPANIES THAT ASSUME THIS
