Measurement of minute ventilation with different DDDR pacemaker electrode configurations

PACE - Pacing and Clinical Electrophysiology

Volumn 21, Issue 1 I, 1998, Pages 4-10

  Bonnet, Jean Luc ^a,d   Ritter, Philippe ^b   Pioger, Guy ^c  

^a Ela Recherche   (France)

^b Centre Chirurgical Val d'Or   (France)

^c Clinique Alleray Labrouste   (France)

^d ELA Recherche   (France)

Author keywords

Minute ventilation; Rate responsive pacing; Sensor

Indexed keywords

ADULT; AGED; ARTICLE; ARTIFICIAL HEART PACEMAKER; CLINICAL ARTICLE; CORRELATION FUNCTION; ELECTRODE; EXERCISE TEST; FEMALE; HUMAN; LUNG MINUTE VOLUME; MALE; OXYGEN CONSUMPTION; SENSOR;

AGED; AGED, 80 AND OVER; CARDIAC PACING, ARTIFICIAL; ELECTRODES, IMPLANTED; EXERCISE TEST; FEMALE; HEART VENTRICLES; HUMANS; MALE; MIDDLE AGED; OXYGEN CONSUMPTION; PACEMAKER, ARTIFICIAL; RESPIRATION;

EID: 0031931813     PISSN: 01478389     EISSN: None     Source Type: Journal    
DOI: 10.1111/j.1540-8159.1998.tb01055.x     Document Type: Article

References (32)

1. Rossi P. Rate-responsive pacing: Biosensor reliability and physiological sensitivity. PACE 1987; 10:454-466.
2. Åstrand PO. Experimental Studies of Physiological Working Capacity in Relation to Sex and Age. Munksgaard, Copenhagen, 1952.
3. Vai F, Bonnet JL, Ritter Ph, et al. Relationship between heart rate and minute ventilation, tidal volume and respiratory rate during brief and low level exercise. PACE 1988; 11:1860-1865.
4. Krogh A, Lindhard J. The regulation of respiration and circulation during the initial stages of muscular work. J Physiol 1913; 47:112-136.
5. Cummin A, Iyawe V, Mehta N, et al. Ventilation and cardiac output during the onset of exercise and during voluntary hyperventilation, in humans. Physiology 1986; 370:567-583.
6. Bates DV. Commentary on cardiorespiratory determinants of cardiovascular fitness. Can Med Assoc J 1967; 96:704.
7. Gillette P. Critical analysis of sensors for physiological response pacing. PACE 1984; 7:1263-1266.
8. Hauser RG. Techniques for improving cardiac performance with implantable devices. PACE 1984; 7:1234-1239.
9. Rickards A, Donaldson R. Rate responsive pacing. Clin Prog Electrophysiol and Pacing 1983; 1:12-19.
10. McElroy PA, Janicki JS, Weber KT. Physiologic correlates of the heart response to upright isotonic exercises; relevance to rate-responsive pacemakers. J Am Coll Cardiol 1988; 11:94-102.
11. Hettlemean B, Higginbotham M, Cobb F. Minute ventilation, pulmonary artery oxygen saturation and temperature, and heart rate during exercise: Profiles for physiologic pacing. (abstract) Clin Pro Electrophysiol and Pacing 1986; 4:7.
12. Kubicek WG, Karnegis JN, Patterson RP, et al. Development and evaluation of an impedance cardiac output system. Aerospace Med 1966; 37:1208-1212.
13. Eiken O, Segerhammar P. Elimination of breathing artefacts from impedance cardiograms at rest and during exercise. Med Biol Eng Comput 1988; 26:13-16.
14. Geddes LA, Hoff HE, Mellow A, et al. Continuous measurement of ventricular stroke volume by electrical impedance. Cardiac Research Center Bulletin 1966; 4:118.
15. Baan J, Aouw Jong TT, Kerkhof PLM, et al. Continuous stroke volume and cardiac output from intraventricular dimensions obtained with impedance catheter. Cardiovasc Res 1981; 15:328-334.
16. McKay RG, Spears JR, Ardesty JM, et al. Instantaneous measurement of left and right ventricular stroke volume and pressure volume relationships with an impedance catheter. Circulation 1984; 69:703.
17. Salo RD, Pederson BD, Olive AL, et al. Continuous ventricular volume assessment for diagnosis and pacemaker control. PACE 1984; 7:1267-1272.
18. Rossi P, Aina F, Rognoni G, et al. Increasing cardiac rate by tracking the respiratory rate. PACE 1984; 7:1246-1256.
19. Nappholtz T, Lubin M, Maloney J, et al. Measuring minute ventilation with a pacing catheter. (abstract) PACE 1985; 8:785.
20. Nappholtz T, Valenta H, Maloney J, et al. Electrode configurations for a respiratory impedance measurement suitable for rate responsive pacing. PACE 1986; 9:960-964.
21. Nappholtz T. A two year reseach study of minute ventilation as an indicator for rate responsive pacing. (abstract) PACE 1987; 10:1222.
22. Lau CP, Butrous G, Warde D, et al. Comparison of exercise performance of six rate-adaptive right ventricular cardiac pacemakers. Am J Cardiol 1989; 63:833-838.
23. Kay N, Bubien R, Epstein A, et al. Rate-modulated cardiac pacing based on transthoracic impedance measurement of minute ventilation: Correlation with exercise gas exchange. J Am Coll Cardiol 1989; 14:1293-1289.
24. Wilkoff BL, Corey J, Blackburn G. A mathematical model of the cardiac chronotropic response to exercise. J Electrophysiol 1989; 3:176-180.
25. Alt E, Matula M, Theres H, et al. The basis for activity controlled rate variable cardiac pacemakers: An analysis of mechanical forces on the human body induced by exercise and environment. PACE 1989; 12:1667-1680.
26. Brinker J, McCarter D, Showmaker S, et al. Improved functional capacity with DDDR pacing patients with chronotropic incompetence. (abstract) PACE 1991; 14:684.
27. Lemke B, Dryander S, Jäger D, et al. Aerobic capacity in rate modulated pacing. PACE 1992; 15:1914-1918.
28. Lau CP, Tai TT, Fong PC, et al. Rate adaptive dual chamber pacing (DDDR) with a minute ventilation sensor. (abstract) PACE 1991; 14:699.
29. Lau CP, Wong CK, Leung WH, et al. A comparative evaluation of a minute ventilation sensing and activity sensing adaptive-rate pacemakers during daily activities. PACE 1989; 12:1514-1521.
30. Bonnet JL, Krämer L, Limousin M. Breath-by-breath minute-ventilation measurement can provide a fast response. (abstract) Eur JCPE 1994; 4:79.
31. Krämer L, Bonnet JL, Ritter, et al. A minute-ventilation sensor can provide a fast response at the onset of exercise. (abstract) Eur JCPE 1994; 4:76.
32. Malinowski K, Morschhäuser D, Bonnet JL. A minute-ventilation (MV) controlled pacemaker can provide a fast response at the beginning of exercise. (abstract) Eur JCPE 1994; 4:51.