Guide-linked quiz · Medium Level
FastText Subword Embeddings Quiz
Explore FastText's character n-grams, hashed feature buckets, out-of-vocabulary support, morphology, and fast supervised text classification.
Question 1 of 8
How does FastText represent a single word?
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Answers and explanations appear as you take the quiz.
- How does FastText represent a single word?
- As a bag of character n-grams summed together
- As one indivisible token only
- As its definition from a dictionary
- As a random vector
- What major limitation of Word2Vec and GloVe does FastText overcome?
- They run too fast
- They cannot create vectors for out-of-vocabulary words
- They ignore punctuation
- They only work in English
- For the word "where" with 3-character n-grams, which is a valid n-gram (with boundary markers)?
- <where>only
- xyz
- whe
- the
- Which underlying training objective does FastText's embedding model build on?
- GloVe matrix factorization
- Sentence-level translation
- Image classification loss
- Skip-Gram with negative sampling
- Why is FastText especially useful for languages like Finnish or Turkish?
- They are morphologically rich with many inflected word forms that share subwords
- They have very few words
- They use no spaces
- They have no rare words
- Which separate method did Sennrich and colleagues describe for representing rare words in neural machine translation?
- Byte-pair encoding as subword units
- FastText’s hashed character n-gram bucket table
- A full-word-only vocabulary that discards rare tokens
- GloVe’s global co-occurrence matrix
- How does FastText store learnable features for its character n-grams?
- It stores every complete sentence as a separate vector
- It assigns each n-gram a pixel grid in a convolutional decoder
- It hashes n-grams into a fixed-size bucket table with learned vectors
- It replaces all subword features with a hand-written dictionary
- What can fastText's supervised mode do efficiently with its bag-of-features model?
- Estimate the 3D shape of an object from a single image
- Generate new audio waveforms from a spectrogram
- Compute a global word-word co-occurrence matrix only
- Classify text for tasks such as language identification or tagging
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