Targeted deep learning: Framework, methods, and applications
Deep learning systems are typically designed to perform for a wide range of test inputs. For
example, deep learning systems in autonomous cars are supposed to deal with traffic
situations for which they were not specifically trained. In general, the ability to cope with a
broad spectrum of unseen test inputs is called generalization. Generalization is definitely
important in applications where the possible test inputs are known but plentiful or simply
unknown, but there are also cases where the possible inputs are few and unlabeled but …
example, deep learning systems in autonomous cars are supposed to deal with traffic
situations for which they were not specifically trained. In general, the ability to cope with a
broad spectrum of unseen test inputs is called generalization. Generalization is definitely
important in applications where the possible test inputs are known but plentiful or simply
unknown, but there are also cases where the possible inputs are few and unlabeled but …
Deep learning systems are typically designed to perform for a wide range of test inputs. For example, deep learning systems in autonomous cars are supposed to deal with traffic situations for which they were not specifically trained. In general, the ability to cope with a broad spectrum of unseen test inputs is called generalization. Generalization is definitely important in applications where the possible test inputs are known but plentiful or simply unknown, but there are also cases where the possible inputs are few and unlabeled but known beforehand. For example, medicine is currently interested in targeting treatments to individual patients; the number of patients at any given time is usually small (typically one), their diagnoses/responses are still unknown, but their general characteristics (such as genome information, protein levels in the blood, and so forth) are known before the treatment. We propose to call deep learning in such applications In this paper, we introduce a framework for targeted deep learning, and we devise and test an approach for adapting standard pipelines to the requirements of targeted deep learning. The approach is very general yet easy to use: It can be implemented as a simple data‐preprocessing step. We demonstrate on a variety of real‐world data that our approach can indeed render standard deep learning faster and more accurate when the test inputs are known beforehand.
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