quiz bu lëkkale ak tegtal · Diggante Niveau
Perplexity ak laajte ci wàllu làkk
Xoolaat royuwaay-token mëna, entropi cross, ligne yu wuute, tokenization buñ mëna méngale, BLEU, àppu kalite, palanteer yu am kontekst, ak xeetu maskeer.
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Under the same autoregressive text-scoring setup, what does lower perplexity indicate?
Xoolaatal laaj bu nekk8 laaj
Sooy def quiz bi, tontu yi ak leeral yi dañuy feeñ.
- Under the same autoregressive text-scoring setup, what does lower perplexity indicate?
- Lower average negative log-likelihood for the reference tokens
- A guarantee of more factually correct generated answers
- A guarantee of a larger parameter count
- A requirement that every top-choice prediction be correct
- Using natural-log negative log-likelihood, how is autoregressive perplexity computed from its average?
- By multiplying the parameter count by the context length
- By subtracting the average from the number of attention heads
- By taking the average learning rate
- By exponentiating the average negative log-likelihood
- Benn model dafay joxe probabilite bu méngoo ci vocabulaire bu 10,000 baat te kenn duko jàng. Luy jaaxleem?
- 1
- 10000
- 0
- 100
- Why do tokenizer and corpus settings matter when directly comparing per-token perplexity values?
- Perplexity ignores every scored reference token
- All corpora necessarily produce the same likelihood
- They change the units or reference data over which probabilities are averaged
- Only model parameter count determines the score
- Which translation-reference metric uses modified n-gram precision and a brevity penalty?
- Perplexity
- Jumtukaayu pixel kaare moyen
- lim parametru model bi
- BLEU
- Lan mooy tax gëstukat yi baña jaaxle ci àtte kalite àdduna dëgg?
- Perplexity dafay natt li ñuy wax ci baat bi ci topp, du natt ndax génne gi amna njariñ, dëgg, wala am njariñ
- Perplexity seer na lool ngir xayma
- Perplexity mënul xayma ci done yuñ bind
- Perplexity du dox ludul ci diiru tegtal, du ci diiru tàggat
- When scoring a long text with a fixed-context model, what can a sliding-window procedure provide that disjoint chunks lose near boundaries?
- A new vocabulary learned automatically at every boundary
- A guarantee that generated answers are factually correct
- More preceding context for the scored target tokens
- A requirement to count each overlapping target repeatedly
- Why is conventional left-to-right perplexity not directly the same score for a BERT-style masked language model?
- BERT has no learned parameters
- The masked model does not directly define the same autoregressive sequence factorization
- Every masked-token probability is necessarily zero
- Perplexity is defined only for image pixels