Rate-Adaptive Cardiac Pacing in Children Using a Minute Ventilation Biosensor

YABEK, S.M., ET AL.: Rate‐Adaptive Cardiac Pacing in Children Using a Minute Ventilation Biosensor.Chronotropic integrity is required for a normal cardiac output response to exercise. We evaluated a rate‐adaptive ventricular demand pacemaker (Telectronics, META‐MV) which uses minute ventilation as t...

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Veröffentlicht in:Pacing and clinical electrophysiology 1990-12, Vol.13 (12), p.2108-2112
Hauptverfasser: YABEK, STEVEN M., WERNLY, JORGE, CHICK, THOMAS W., BERMAN JR, WILLIAM, McWILLIAMS, BENNIE
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container_end_page 2112
container_issue 12
container_start_page 2108
container_title Pacing and clinical electrophysiology
container_volume 13
creator YABEK, STEVEN M.
WERNLY, JORGE
CHICK, THOMAS W.
BERMAN JR, WILLIAM
McWILLIAMS, BENNIE
description YABEK, S.M., ET AL.: Rate‐Adaptive Cardiac Pacing in Children Using a Minute Ventilation Biosensor.Chronotropic integrity is required for a normal cardiac output response to exercise. We evaluated a rate‐adaptive ventricular demand pacemaker (Telectronics, META‐MV) which uses minute ventilation as the sensed physiological variable for adjusting pacing rate, in seven young patients with a mean age of 11.4 years. All patients had clinically significant bradycardia related to complete heart block (n = 4) or sinus node dysfunction (n = 3). For the entire group, paced heart rates increased from 70 ± 10 beats/min to 151 ± 19 beats/min with exercise testing. The onset of rate adaptation took < 30 seconds. Changes in paced rate were linearly related to workload, VO2 (5.9 to 20.7 mL/min/kg) and minute ventilation (8–65 L/min). The decline in pacing rate after exercise was related directly to the gradual decrease in minute ventilation and VO2. Our data show that minute ventilation closely and accurately reflects the metabolic demands of varying workloads in children and can be used to achieve physiological, rate‐adaptive pacing.
doi_str_mv 10.1111/j.1540-8159.1990.tb06952.x
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We evaluated a rate‐adaptive ventricular demand pacemaker (Telectronics, META‐MV) which uses minute ventilation as the sensed physiological variable for adjusting pacing rate, in seven young patients with a mean age of 11.4 years. All patients had clinically significant bradycardia related to complete heart block (n = 4) or sinus node dysfunction (n = 3). For the entire group, paced heart rates increased from 70 ± 10 beats/min to 151 ± 19 beats/min with exercise testing. The onset of rate adaptation took &lt; 30 seconds. Changes in paced rate were linearly related to workload, VO2 (5.9 to 20.7 mL/min/kg) and minute ventilation (8–65 L/min). The decline in pacing rate after exercise was related directly to the gradual decrease in minute ventilation and VO2. 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We evaluated a rate‐adaptive ventricular demand pacemaker (Telectronics, META‐MV) which uses minute ventilation as the sensed physiological variable for adjusting pacing rate, in seven young patients with a mean age of 11.4 years. All patients had clinically significant bradycardia related to complete heart block (n = 4) or sinus node dysfunction (n = 3). For the entire group, paced heart rates increased from 70 ± 10 beats/min to 151 ± 19 beats/min with exercise testing. The onset of rate adaptation took &lt; 30 seconds. Changes in paced rate were linearly related to workload, VO2 (5.9 to 20.7 mL/min/kg) and minute ventilation (8–65 L/min). The decline in pacing rate after exercise was related directly to the gradual decrease in minute ventilation and VO2. 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We evaluated a rate‐adaptive ventricular demand pacemaker (Telectronics, META‐MV) which uses minute ventilation as the sensed physiological variable for adjusting pacing rate, in seven young patients with a mean age of 11.4 years. All patients had clinically significant bradycardia related to complete heart block (n = 4) or sinus node dysfunction (n = 3). For the entire group, paced heart rates increased from 70 ± 10 beats/min to 151 ± 19 beats/min with exercise testing. The onset of rate adaptation took &lt; 30 seconds. Changes in paced rate were linearly related to workload, VO2 (5.9 to 20.7 mL/min/kg) and minute ventilation (8–65 L/min). The decline in pacing rate after exercise was related directly to the gradual decrease in minute ventilation and VO2. Our data show that minute ventilation closely and accurately reflects the metabolic demands of varying workloads in children and can be used to achieve physiological, rate‐adaptive pacing.</abstract><cop>Oxford, UK</cop><pub>Blackwell Publishing Ltd</pub><pmid>1704603</pmid><doi>10.1111/j.1540-8159.1990.tb06952.x</doi><tpages>5</tpages></addata></record>
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1540-8159
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source MEDLINE; Wiley Online Library All Journals
subjects Adult
Bradycardia - therapy
Cardiac Pacing, Artificial - methods
Child
Electric Conductivity
Electrodes, Implanted
Equipment Design
Female
Heart Rate - physiology
Humans
Male
minute ventilation
Oxygen Consumption - physiology
Pacemaker, Artificial
pediatric pacing
Physical Exertion - physiology
rate-adaptive pacing
Respiration - physiology
Tidal Volume - physiology
Time Factors
title Rate-Adaptive Cardiac Pacing in Children Using a Minute Ventilation Biosensor
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