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fix: add newline
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@@ -25,7 +25,7 @@ Tabular, univariate or low-dimensional data, which has interpretable features, i
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That’s the kind of data we used to in classic machine learning algorithms.
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We already have some tricks and techniques for detecting errors in such datasets.
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For instance, we can calculate some statistics and compare one with another.
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In general, we know how to treat such results.
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In general, we know how to treat such results.
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But currently, solving a problem involving texts or images you will probably stick with deep learning models and most likely obtain better results.
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Neural networks produce features on their own, and it is much more difficult to make any assumptions about their meaning and desired distribution.
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@@ -91,6 +91,7 @@ To mitigate this issue, you can perform a diversity search.
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Diversity search is a method for finding the most distinctive examples in the data.
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As similarity search, it also operates on embeddings and measure the distances between them.
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But diversity search is an iterative process.
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For example, similarity search can calculate the distances between the embeddings one time and then just fetch any number of the nearest (or the furthest) embeddings you want.
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Diversity search, in turn, requires calculating the distances on each step to determine the next point.
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The process of finding 3 most distinct points can be described as:
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