2019 · 48 citations · 51 references
EngineeringBioengineeringBiomedical EngineeringBiosensorsMachine LearningSensorsStress BiomarkersStress ManagementStress ResponsesStress TestingWearable BiosensorsWearable Health TechnologiesPervasive ComputingStress DetectionStress MeasurementStress MonitoringWearable Health DevicesWearable Health MonitoringWearable Physiological SensingWearable Physiological Sensors
Negative consequences of stress are a pervasive problem in our modern society. Recent developments in wearable lifestyle hardware have led to unobtrusive, sensor-packed, always-on devices that might finally be able to continuously monitor biosignals to detect, determine or even prevent stress or some of its negative outcomes. In this work, we give a concise overview of a majority of biosignals that are in some way relevant for stress classification and outline state-of-the-art machine learning algorithms for this task. Additionally, we provide a list of all recent wearables including an evaluation of their feasibility to implement such algorithms as well as directions to look for an assessment of the accuracy and validity of their recorded data with respect to stress tracking.
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André Henriksen, Martin Haugen Mikalsen, Ashenafi Zebene Woldaregay et al. · Journal of Medical Internet Research · 2018 · 554 citations · Full text
Education, Health Informatics, Consumer Health Informatics +16
Choosing MUSE: Validation of a Low-Cost, Portable EEG System for ERP Research
Olave E. Krigolson, Chad C. Williams, Angela Norton et al. · Frontiers in Neuroscience · 2017 · 407 citations · Full text
Nursing, Neuroscience, Psychology +17