Assume that we have a large corpus of text. The vocabulary constructed from the text contains
10000 words. Of these, 100 words occurred only once in the entire corpus of text. The parameters
of the embedding layer and the output layer of the model are shared. Suppose we create a batch
of 256 samples (each sample is a sentence from the corpus). None of these samples contains any
of the 100 rare words. Suppose we pre-train the model for one iteration using the batch of
samples, then:
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it is certain that the embeddings of none of these 100 rare words will get
updated.
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there is a chance that the embeddings of all or some of these 100 rare words
will get updated
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the embeddings of all these 100 rare words will defintely get updated
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None of these
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Suppose we use a pre-trained model for text generation with the given prompt “I am going to”.
Which of the following decoding strategies can be used such that the pre-trained model generates
same text completion each time it is executed
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Beam search with beam size 4
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Greedy approach
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Top-K with k = 2
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None of these
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Assume that we have 12 sufficiently large supervised NLP datasets for different tasks like
sentiment classification, textual entailment, language understanding and so on. Suppose we take
all the samples (dropping labels) from these datasets to train the GPT model using the CLM
objective.Then which of the following transfer learning approaches is (are) appropriate to transfer
the knowledge to any of these 12 downstream tasks?
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Zero shot learning
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Few-shot learning
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Full Fine-tuning
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None of the given approaches are appropriate as the model has already been
trained using samples from all the 12 datasets
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What is the order of the language modeling pipeline?
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First, the model, which handles text and returns raw predictions.The tokenizer
then makes sense of these predictions and converts them back to text when needed.
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First, the tokenizer, which handles text and returns IDs. The model handles
these IDs and outputs a prediction, which can be some text.
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The tokenizer handles text and returns IDs. The model handles these IDs and
outputs a prediction. The tokenizer can then be used once again to convert these predictions back
to some text.
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None of these
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Consider following statment and mark if it is true or false:
Repeating examples in the pre-training datasets are completely harmless for downstream
performance.
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TRUE
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FALSE
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What is the time complexity of the computing attention matrix A with strided local attention
(parameterized by c) and batch size of one? The symbols have the usual meaning.
Which pair will be merged in the very first merge? Say the pair is (‘a’,‘b’), then enter **“ab”** (without
quotes and white spaces). If there is a tie between two or more candidates, pick the one that
occurs first in the original vocabulary.
**NOTE:** Enter the exact answer without any space in the beginning or at the end.
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How many entries of unnormalized attention matrix QK\(^{T}\) will be calculated with strided attention
mechanism with c = 5. The sequence length is T = 32
A published solution is not available for this question yet.