Key result
Consumer-grade wearable cardiovascular monitors (Polar and Mio Fuse) provided robust data and detected significant heart rate increases during stress relative to rest (P<0.001).
Why the study?
Wearable biosensors could enable stress monitoring in naturalistic settings, but may cause discomfort in children with autism due to sensory sensitivities.
Are consumer-grade wearable cardiovascular monitors comfortable and capable of capturing robust, valid physiological data in children with autism?
Observational (n=78)
Are consumer-grade wearable cardiovascular monitors comfortable and capable of capturing robust, valid physiological data in children with autism?
Effect estimate: ηp2 0.78
p-value: p=<0.001
Select consumer-grade wearable cardiovascular monitors are comfortable and provide robust, valid physiological data for tracking stress responses in children with autism.
Supports wearable feasibility for HR monitoring during stress in autistic children; hypothesis-generating pending validation against reference standards.
Commercially available wearable biosensors have the potential to enhance psychophysiology research and digital health technologies for autism by enabling stress or arousal monitoring in naturalistic settings. However, such monitors may not be comfortable for children with autism due to sensory sensitivities. To determine the feasibility of wearable technology in children with autism age 8–12 years, we first selected six consumer‐grade wireless cardiovascular monitors and tested them during rest and movement conditions in 23 typically developing adults. Subsequently, the best performing monitors (based on data quality robustness statistics), Polar and Mio Fuse, were evaluated in 32 children with autism and 23 typically developing children during a 2‐h session, including rest and mild stress‐inducing tasks. Cardiovascular data were recorded simultaneously across monitors using custom software. We administered the Comfort Rating Scales to children. Although the Polar monitor was less comfortable for children with autism than typically developing children, absolute scores demonstrated that, on average, all children found each monitor comfortable. For most children, data from the Mio Fuse (96%–100%) and Polar (83%–96%) passed quality thresholds of data robustness. Moreover, in the stress relative to rest condition, heart rate increased for the Polar,F(1,53) = 135.70,p < 0.001,ηp2 = 0.78, and Mio Fuse,F(1,53) = 71.98,p < 0.001,ηp2 = 0.61, respectively, and heart rate variability decreased for the Polar,F(1,53) = 13.41,p = 0.001,ηp2 = 0.26, and Mio Fuse,F(1,53) = 8.89,p = 0.005,ηp2 = 0.16, respectively. This feasibility study suggests that select consumer‐grade wearable cardiovascular monitors can be used with children with autism and may be a promising means for tracking physiological stress or arousal responses in community settings. Lay Summary Commercially available heart rate trackers have the potential to advance stress research with individuals with autism. Due to sensory sensitivities common in autism, their comfort wearing such trackers is vital to gathering robust and valid data. After assessing six trackers with typically developing adults, we tested the best trackers (based on data quality) in typically developing children and children with autism and found that two of them met criteria for comfort, robustness, and validity.
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Nuske et al. (2021) conducted an observational in Autism (n=78). Consumer-grade wireless cardiovascular monitors (Polar and Mio Fuse) vs. Rest condition was evaluated on Heart rate increase in stress relative to rest condition (Polar monitor) (ηp2 0.78, p=<0.001). Consumer-grade wearable cardiovascular monitors (Polar and Mio Fuse) provided robust data and detected significant heart rate increases during stress relative to rest (P<0.001).
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