Deep Learning for EEG Seizure Detection in Preterm Infants
- URL: http://arxiv.org/abs/2106.00611v1
- Date: Fri, 28 May 2021 14:03:56 GMT
- Title: Deep Learning for EEG Seizure Detection in Preterm Infants
- Authors: Alison OShea, Rehan Ahmed, Gordon Lightbody, Sean Mathieson, Elena
Pavlidis, Rhodri Lloyd, Francesco Pisani, Willian Marnane, Geraldine Boylan,
Andriy Temko
- Abstract summary: This paper explores novel deep learning (DL) architectures for the task of neonatal seizure detection in preterm infants.
It is shown that the accuracy of a validated term-trained EEG seizure detection algorithm, when tested on preterm infants falls well short of the performance achieved for full-term infants.
- Score: 1.3002050979054345
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: EEG is the gold standard for seizure detection in the newborn infant, but EEG
interpretation in the preterm group is particularly challenging; trained
experts are scarce and the task of interpreting EEG in real-time is arduous.
Preterm infants are reported to have a higher incidence of seizures compared to
term infants. Preterm EEG morphology differs from that of term infants, which
implies that seizure detection algorithms trained on term EEG may not be
appropriate. The task of developing preterm specific algorithms becomes
extra-challenging given the limited amount of annotated preterm EEG data
available. This paper explores novel deep learning (DL) architectures for the
task of neonatal seizure detection in preterm infants. The study tests and
compares several approaches to address the problem: training on data from
full-term infants; training on data from preterm infants; training on
age-specific preterm data and transfer learning. The system performance is
assessed on a large database of continuous EEG recordings of 575h in duration.
It is shown that the accuracy of a validated term-trained EEG seizure detection
algorithm, based on a support vector machine classifier, when tested on preterm
infants falls well short of the performance achieved for full-term infants. An
AUC of 88.3% was obtained when tested on preterm EEG as compared to 96.6%
obtained when tested on term EEG. When re-trained on preterm EEG, the
performance marginally increases to 89.7%. An alternative DL approach shows a
more stable trend when tested on the preterm cohort, starting with an AUC of
93.3% for the term-trained algorithm and reaching 95.0% by transfer learning
from the term model using available preterm data.
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