Key result
Recurrent neural network algorithm using HRV and skin conductance continuously estimates experimental heat pain.
Why the study?
Does a regression algorithm based on recurrent neural networks using autonomic signals accurately estimate continuous experimental heat pain intensity?
Does a regression algorithm based on recurrent neural networks using autonomic signals accurately estimate continuous experimental heat pain intensity?
A recurrent neural network algorithm utilizing skin conductance and heart rate variability can be used to continuously estimate experimental heat pain intensity.
Pain is usually measured by patient's self-report, which requires patient collaboration. Hence, the development of an objective automatic pain detection method would be useful in many clinical applications and patient populations. Previous studies have explored the feasibility of using physiological autonomic signals to detect the presence of pain. In this study, we focused on continuously estimating experimental heat pain intensity with high temporal resolution from autonomic signals. Specifically, we employed skin conductance deconvolution and point process heart rate variability analysis to continuously evaluate time-varying autonomic parameters, and presented a regression algorithm based on recurrent neural networks.
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Lopez-Martinez et al. (2018) studied Experimental heat pain. Recurrent neural networks algorithm was evaluated on Continuous estimation of experimental heat pain intensity. A regression algorithm based on recurrent neural networks using skin conductance and heart rate variability was developed to continuously estimate experimental heat pain intensity from autonomic signals.
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