Journal of Medical Robotics Research · 2016 · 40 citations · 32 references
Passive BciCurrent Task LoadAttentionElectroencephalographySocial SciencesAffective ComputingCognitive ElectrophysiologyCognitive ScienceAssistive TechnologyTask Load DetectionNeuroinformaticsNeurotechnologyNeurological MonitoringNeuroimagingRehabilitationMotor ImageryNeural InterfaceTask LoadNeural InterfacesCognitive ErgonomicsBrain-computer InterfaceEeg Signal ProcessingAction MonitoringAutomationRobotic SurgeryHuman-computer InteractionBrain ElectrophysiologyNeuroscienceBraincomputer InterfaceMedicine
Passive brain–computer interfaces infer cognitive and affective state from EEG and can adapt technology to the user, but have mainly been studied in laboratory settings rather than real‑world environments. This study aims to automatically detect a surgeon’s task load in real time so that supportive systems can intervene during critical or stressful periods and avoid unnecessary disturbances. A passive BCI was used to monitor EEG while surgeons performed both simple and complex training tasks, providing continuous assessment of task load. The method reliably and continuously detected task‑load changes in this realistic surgical environment.
Automatic detection of the current task load of a surgeon in the theatre in real time could provide helpful information, to be used in supportive systems. For example, such information may enable the system to automatically support the surgeon when critical or stressful periods are detected, or to communicate to others when a surgeon is engaged in a complex maneuver and should not be disturbed. Passive brain–computer interfaces (BCI) infer changes in cognitive and affective state by monitoring and interpreting ongoing brain activity recorded via an electroencephalogram. The resulting information can then be used to automatically adapt a technological system to the human user. So far, passive BCI have mostly been investigated in laboratory settings, even though they are intended to be applied in real-world settings. In this study, a passive BCI was used to assess changes in task load of skilled surgeons performing both simple and complex surgical training tasks. Results indicate that the introduced methodology can reliably and continuously detect changes in task load in this realistic environment.
32
P J Guillou, Philip Quirke, H. Thorpe et al. · The Lancet · 2005 · 3.1K citations
Single-trial analysis and classification of ERP components — A tutorial
Benjamin Blankertz, Steven Lemm, Matthias S. Treder et al. · NeuroImage · 2010 · 1.1K citations