What advantage do neural networks hold over plain token counting?
- They memorise every exact sequence in the training text
- They learn patterns that cover unseen sentences
- They skip training data entirely
Where does the supervision signal for next-token guessing come from?
- The text itself, which shows what comes next
- Human labels attached to every training sentence
- A teacher correcting each guess live
Low held-out loss guarantees that the model's answers are true.
Circle one: True False
Where does the free-supervision advantage stop?
- At user intent, which text patterns do not encode
- At rare tokens, which need extra human counting to learn
- At long books, which exceed memory
A model trained only to guess next tokens handles new grammar well. Why?
- Grammar rules were labelled by hand before training began
- The test sentences sat inside the training set
- Good compression of text keeps grammatical patterns
Two models post the same low held-out loss, but one answers users far better. What best explains the split?
- The worse model must have trained on far less text than the better one
- Loss measures guessing skill, while user fit needs something extra
- Loss values below a threshold stop meaning anything
A critic says next-token training cannot yield any task ability at all. Which fact answers them?
- One objective over enough text forces grammar, facts, and rough task sense along the way
- Models memorise every training sentence word for word, which is where task ability comes from
- Human labellers secretly grade each position
A team claims their model follows instructions because pretraining loss is low. What is the flaw?
- Loss is computed too slowly to matter
- Pretraining text never contains any instruction-style passages
- Low loss rewards likely tokens, not obedience to intent