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Spectral characteristics of heart period variability during cold face stress and shock avoidance in normal subjects

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Abstract

Spectral analysis of heart period variability was used to examine autonomic cardiac control in several tasks used in experimental and clinical assessments of autonomic nervous system function. Cardiovascular measures were recorded in healthy humans during quiet rest, reaction time shock-avoidance, cold face stress, and combined shock-avoidance/cold face stress. Shock-avoidance was characterized by symparhetic beta-adrenergic dominance, as evidenced by (1) shorter heart periods, (2) less highfrequency spectral power, (3) elevated low-frequency power, (4) increased ratios of low- to high-frequency power, and (5) a steep regression line fitted to the log-log plot of the power spectra. Cold face stress yielded (1) longer heart periods, (2) more high-frequency power, (3) decreased low-frequency spectral power, and (4) a flat regression slope, indicating vagal dominance. Quiet rest appeared as mildly vagal, with less total spectral power, and the combination task elicited a mixed vagal-sympathetic pattern. These results are discussed in the context of (1) the autonomic underpinnings of low-frequency power, (2) the autonomic effects of facial cooling, and (3) the utiliry of spectral analysis of heart period variability during autonomic challenge tasks for basic research and clinical application.

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Correspondence to B. H. Friedman PhD.

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This study was conducted at The Pennsylvania State University, when the authors were affiliated with that institution.

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Friedman, B.H., Thayer, J.F. & Tyrrell, R.A. Spectral characteristics of heart period variability during cold face stress and shock avoidance in normal subjects. Clinical Autonomic Research 6, 147–152 (1996). https://doi.org/10.1007/BF02281901

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  • DOI: https://doi.org/10.1007/BF02281901

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