OtisA.The work of breathing. Physiol Rev1954;34:449–458.
2.
McGregorM., BecklakeMR.The relationship of oxygen cost of breathing to respiratory mechanical work and respiratory force. J Clin Invest1961;40:971–980.
3.
RoussosC., CampbellEJM.Respiratory muscle energetics. In: Handbook of Physiology. Section III. The respiratory system. Vol III. Mechanics of breathing. Part 2. Amer Physio Soc. Baltimore: Williams & Wilkins, 1986.
4.
OtisA., FennW., RahnH.Mechanics of breathing in man. J Appl Physiol1950;2:592–607.
5.
BallantineTVN., ProctorHG., BroussardND., LittBD.The work of breathing: Potential for clinical application and the results of studies performed on 100 normal males. Ann Surg1970;71:590–594.
6.
ChristieRV.Dyspnea in relation to the visco-elastic properties of the lung. Proc Royal Soc of Med1954;46:381–386.
7.
BaylissLE., RobertsonGW.The visco-elastic properties of the lungs. Q J Exp Physiol1939;29:27.
8.
DornhorstAC., LeathartGL.A method of assessing the mechanical properties of lungs and air-passages. Lancet1952;2:109–111.
9.
MacklemP.Procedures for standardized measurements of lung mechanics. NHLI, Div of Lung Diseases. 1974:1–21.
10.
RoussosC.Energetics. In: RoussosC., MacklemPT, eds. Lung biology in health and disease: The thorax. New York: Marcel Dekker, 1985:437–492.
11.
BartlettRGJr, BrubackHF., SpechtH.Oxygen cost of breathing. J Appl Physiol1958;12:413–424.
12.
CherniackRM.The oxygen consumption and efficiency of the respiratory muscles in health and emphysema. J Clin Invest1959;38:494–499.
13.
NeuhofH., WolfH.Method for continuously measured oxygen consumption and cardiac output for use in critically ill patients. Crit Care Med1978;6:155–161.
14.
BrowningJA., LinbergSEW., TurneySZ., ChodoffP.The effects of a fluctuatuing FIO2 on metabolic measurements in mechanically ventilated patients. Crit Care Med1982;10:82–85.
15.
ProctorH., WoolsonR.Prediction of respiratory muscle fatigue by measurements of the work of breathing. Surg Gynecol Obstet1973;136:367–370.
16.
ProctorH., FryJ., HarryR.The metabolic cost of increased respiratory work. South Med J1974;67:1047–1051.
17.
PetersR., HilbermanM.Respiratory insufficiency: Diagnosis and control of therapy. Surgery1971;70:280–287.
18.
HenningR., ShubinH., WeilM.The measurement of the work of breathing for the clinical assessment of ventilator dependence. Crit Care Med1977;5 (6):264–268.
19.
MariniJJ., RodriguezM., LambV.Bedside estimation of the inspiratory work of breathing during mechanical ventilation. Chest1986;89:56–63.
20.
MariniJJ., RodriguezM., LambV.The inspiratory workload of patient-initiated mechanical ventilation. Am Rev Respir Dis1986;134:902–909.
21.
MariniJJ., CappsJS., CulverB.The inspiratory work of breathing during assisted mechanical ventilation. Chest1985;87:612–618.
22.
DemersRR., SullivanMJ., PaliottaJ.Airflow resistance of endotracheal tubes. JAMA1977;237:1362.
23.
GalTJ., SurattPM.Resistance to breathing in healthy subjects following endotracheal intubation under topical anesthesia. Anesth Analg (Cleve)1980;59:270–274.
24.
BolderP., HealyT., BolderA., BeattyP., KayB.The extra work of breathing through adult endotracheal tubes. Anesth Analg (Cleve)1986;65:853–859.
25.
ShapiroM., WilsonR., CasarG., BloomK., TeagueR.Work of breathing through different sized endotracheal tubes. Crit Care Med1986;14:1028–1031.
26.
BrachB., YinF., TimmsR., MoserK.Reduced inspiratory effort during intermittent mandatory ventilation with PEEP. Crit Care Med1976;4:142–143.
27.
GheriniS., PetersR., VirgilioR.Mechanical work on the lungs and work of breathing with positive end-expiratory pressure and continuous positive airway pressure. Chest1979;76:251–256.
28.
ZebrowskiM., GeerR.Low flow continuous positive airway pressure with a modified fresh gas reservoir. Crit Care Med1981;9:106–108.
29.
KacmarekRM., DimasS., ReynoldsJ., ShapiroB.Technical aspects of positive end-expiratory pressure (PEEP): Part I. Physics of PEEP devices. Respir Care1982;27:1478–1489.
30.
KacmarekRM., DimasS., ReynoldsJ., ShapiroB.Technical aspects of positive end-expiratory pressure (PEEP):Part II. PEEP with positive-pressure ventilation. Respir Care1982;27:1490–1504.
BannerMJ.Expiratory positive-pressure valves: Flow resistance and work of breathing. Respir Care1987;32:431–436.
33.
MariniJJ., CulverB., KirkW.Flow resistance of exhalation valves and positive end expiratory pressure devices used in mechanical ventilation. Am Rev Respir Dis1985;131:850–854.
34.
CappsJS., RitzR., PiersonDJ.An evaluation, in four ventilators, of characteristics that affect work of breathing. Respir Care1987;32:1017–1024.
35.
HillmanD., FinucaneK.Continuous positive airway pressure: A breathing system to minimize respiratory work. Crit Care Med1985;13:38–43.
36.
GibneyR., WilsonR., PontoppidanH.Comparison of work of breathing on high gas flow and demand valve continuous positive airway pressure systems. Chest1982;82:692–695.
37.
Op't HoltT., HallM., BassJ., AllisonR.Comparison of changes in airway pressure during continuous positive airway pressure (CPAP) between demand valve and continuous flow devices. Respir Care1982;27:1200–1208.
38.
HessD., BeenerC., KacerK.Evaluation of the demand valve in the BEAR 2 ventilator (abstract). Respir Care1987;32:913.
KacmarekRM., WilsonR.IMV systems: Do they make a difference? (editorial). Chest1985;87:557.
41.
KatzJ., KraemerR., GjerdeG.Inspiratory work and airway pressure with continuous positive airway pressure delivery systems. Chest1985;88:519–526.
42.
KatzJ., MarksJ.Inspiratory work with and without continuous positive airway pressure in patients with acute respiratory failure. Anesthesiology1985;63:598–607.
43.
KirbyR.Continuous positive airway pressure: To breathe or not to breathe (editorial). Anesthesiology1985;63:578–580.
44.
KacmarekRM.The role of pressure support ventilation in reducing imposed work of breathing. Respir Care1988;33:99–120.