Dynamic Quantification of Migrainous Thermal Facial Patterns - A Pilot Study

This article documents thermophysiological patterns associated with migraine episodes, where the inner canthi and supraorbital temperatures drop significantly compared to normal conditions. These temperature drops are likely due to vasoconstriction of the ophthalmic arteries under the inner canthi a...

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Veröffentlicht in:IEEE journal of biomedical and health informatics 2019-05, Vol.23 (3), p.1225-1233
Hauptverfasser: Pavlidis, Ioannis, Garza, Ivan, Tsiamyrtzis, Panagiotis, Dcosta, Malcolm, Swanson, Jerry W., Krouskop, Thomas, Levine, James A.
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container_end_page 1233
container_issue 3
container_start_page 1225
container_title IEEE journal of biomedical and health informatics
container_volume 23
creator Pavlidis, Ioannis
Garza, Ivan
Tsiamyrtzis, Panagiotis
Dcosta, Malcolm
Swanson, Jerry W.
Krouskop, Thomas
Levine, James A.
description This article documents thermophysiological patterns associated with migraine episodes, where the inner canthi and supraorbital temperatures drop significantly compared to normal conditions. These temperature drops are likely due to vasoconstriction of the ophthalmic arteries under the inner canthi and sympathetic activation of the eccrine glands in the supraorbital region, respectively. The thermal patterns were observed on eight migraine patients and meticulously quantified using advance computational methods, capable of delineating small anatomical structures in thermal imagery and tracking them automatically over time. These methods open the way for monitoring migraine episodes in nonclinical environments, where the patient maintains directional attention, such as his/her computer at home or at work. This development has the potential to significantly expand the operational envelope of migraine studies.
doi_str_mv 10.1109/JBHI.2018.2855670
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These temperature drops are likely due to vasoconstriction of the ophthalmic arteries under the inner canthi and sympathetic activation of the eccrine glands in the supraorbital region, respectively. The thermal patterns were observed on eight migraine patients and meticulously quantified using advance computational methods, capable of delineating small anatomical structures in thermal imagery and tracking them automatically over time. These methods open the way for monitoring migraine episodes in nonclinical environments, where the patient maintains directional attention, such as his/her computer at home or at work. 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subjects Adult
Arteries
Biomedical optical maging
Blood vessels
Computer applications
Face - diagnostic imaging
Face - physiology
face tracking
Facial features
Female
Glands
Headache
Humans
Image Interpretation, Computer-Assisted - methods
Image segmentation
Imagery
Infrared imaging
Maximum likelihood estimation
Medical conditions
Middle Aged
Migraine
Migraine Disorders - diagnostic imaging
Pain
Patient monitoring
periorbital
supraorbital
thermal imaging
Thermography - methods
Vasoconstriction
Young Adult
title Dynamic Quantification of Migrainous Thermal Facial Patterns - A Pilot Study
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