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doi: 10.1097/01.anes.0000267607.25011.e8
Review Article

What Tidal Volumes Should Be Used in Patients without Acute Lung Injury?

Schultz, Marcus J. M.D., Ph.D.*; Haitsma, Jack J. M.D., Ph.D.†; Slutsky, Arthur S. M.D.‡; Gajic, Ognjen M.D.§
Section Editor(s): Warltier, David C. M.D., Ph.D., Editor

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Continued Medical Education
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Mechanical ventilation practice has changed over the past few decades, with tidal volumes (VT) decreasing significantly, especially in patients with acute lung injury (ALI). Patients without acute lung injury are still ventilated with large—and perhaps too large—VT. Studies of ventilator-associated lung injury in subjects without ALI demonstrate inconsistent results. Retrospective clinical studies, however, suggest that the use of large VT favors the development of lung injury in these patients. Side effects associated with the use of lower VT in patients with ALI seem to be minimal. Assuming that this will be the case in patients without ALI/acute respiratory distress syndrome too, the authors suggest that the use of lower VT should be considered in all mechanically ventilated patients whether they have ALI or not. Prospective studies should be performed to evaluate optimal ventilator management strategies for patients without ALI.
OVER the past decades, tidal volumes (VT) used by clinicians have progressively decreased from greater than 12–15 ml/kg to less than 9 ml/kg actual body weight.1–6 Currently, there are guidelines that strongly support the use of lower VT (i.e., 6 ml/kg predicted body weight [PBW]) in patients with acute lung injury/acute respiratory distress syndrome (ALI/ARDS).7 Widely-agreed-upon guidelines for setting VT in patients who do not meet the ALI/ARDS consensus criteria are lacking, partly because there is a paucity of randomized controlled trial evidence on the best way to ventilate these patients.
We searched the literature for data addressing the size of VT in patients without ALI/ARDS, including articles on clinical mechanical ventilation practice and preclinical animal experiments. Based on this review, we propose a ventilator strategy for patients without ALI/ARDS.
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Ventilator-associated Lung Injury in Patients with ALI/ARDS

Insights into the pathophysiology of ventilation-induced lung injury came from animal studies that showed that mechanical ventilation with larger VT rapidly results in pulmonary changes that mimic ARDS8,9: Injurious ventilatory settings result in development of diffuse alveolar damage with pulmonary edema,10,11 recruitment and activation of inflammatory cells,12,13 local production of inflammatory mediators (e.g., cytokines),14,15 and leakage of such mediators into the systemic circulation.16,17 Ranieri et al.18,19 confirmed a reduction in bronchoalveolar lavage fluid and systemic concentrations of inflammatory mediators with lung-protective mechanical ventilation as compared with conventional mechanical ventilation in a clinical trial.
The randomized trial of Amato et al.20 found reduced 28-day mortality and faster liberation from mechanical ventilation with a lung-protective strategy, in part aiming at lower VT, compared with conventional mechanical ventilation. The large, multicenter, prospective ARDS Network trial unambiguously confirmed that mechanical ventilation with lower VT (6 ml/kg PBW) rather than traditional VT (12 ml/kg PBW) resulted in a significant increase in the number of ventilator-free days and a reduction of in-hospital mortality.21 Although initially concerns over increased sedation requirements hampered implementation of the so-called lung-protective mechanical ventilation strategy, two secondary analyses of the ARDS Network trial showed this to be not true.22,23
In addition, the commonly held view that plateau pressures of 30–35 cm H2O are safe was recently challenged.24 Results from a secondary analysis of the prospective ARDS Network trial suggest that there is a beneficial effect of VT reduction from 12 ml/kg to 6 ml/kg PBW, regardless of the plateau pressure, and lower VT are also suggested for patients with plateau pressures less than 30 cm H2O. Lower VT are now strongly recommended in patients with ALI/ARDS.7
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Ventilator-associated Lung Injury in Patients without ALI/ARDS

There are several reasons for not separating patients with ALI from those without ALI. First, diagnosing ALI/ARDS is at times challenging.25 Although the ALI/ARDS consensus criteria seem relatively simple to apply, use of higher levels of positive end-expiratory pressure (PEEP) can improve both the oxygenation ratio and abnormalities on chest radiographs to the extent that the patients no longer have ALI (by definition).8,26 Second, patients may not yet fulfill ALI/ARDS criteria at the initiation of mechanical ventilation but may develop lung injury in their disease course. Third, critically ill patients are at a constant threat of other causes of lung injury (e.g., ventilator-associated pneumonia, transfusion-related lung injury). A multiple hit theory can be suggested in which repeated challenges lead to the clinical picture of ALI/ARDS.
Although average VT in nonselected mechanically ventilated patients have declined to approximately 10 ml/kg PBW,3,4,27 many patients are still exposed to relatively large VT.28,29 In addition to the theoretical arguments advanced above, there are clinical data suggesting that patients without a diagnosis of ALI/ARDS may benefit from lower VT. In a large international prospective observational study, Esteban et al.4 determined the survival of patients receiving mechanical ventilation and the relative importance of factors influencing survival. Among the conditions independently associated with increased mortality were characteristics present at the start of mechanical ventilation and occurring over the course of mechanical ventilation, but also factors related to patient management. Plateau pressures greater than 35 cm H2O were associated with an increased risk for death. Although not definitive (the higher plateau pressures may simply have been an indication that the patients were sicker), this study suggested that VT were too large (per lung size) in these patients, thereby causing an exaggeration of lung injury and eventually death.
In a single-center observational cohort study, Gajic et al.29 reported a significant variability in the initial VT settings in mechanically ventilated patients without ALI/ARDS. Of patients ventilated for 2 days or longer who did not have ALI/ARDS at the onset of mechanical ventilation, 25% developed ALI/ARDS within 5 days of mechanical ventilation. In a multivariate analysis, the main risk factors associated with the development of lung injury were the use of large VT, transfusion of blood products, acidemia, and a history of restrictive lung disease. The odds ratio of developing ALI was 1.3 for each milliliter above 6 ml/kg PBW. Interestingly, female patients were ventilated with larger VT (per predicted body weight) and tended to develop lung injury more often. The investigators explored this association in a large sample of patients prospectively enrolled in the aforementioned multicenter international study on mechanical ventilation4 and found development of ARDS to be associated with the initial ventilator settings.30 Large VT (odds ratio 2.6 for VT > 700 ml) and high peak airway pressure (odds ratio 1.6 for peak airway pressure > 30 cm H2O) were independently associated with development of ARDS in patients who did not have ARDS at the onset of mechanical ventilation (“late ARDS”).
Table 1
Table 1
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Deleterious effects of large VT have also been suggested in patients who were ventilated for only several hours (summarized in table 1). Fernandez et al.31 collected intraoperative VT of pneumonectomy patients. Of these patients, 18% developed postoperative respiratory failure; in half of the cases, these patients developed ALI/ARDS consensus criteria. Patients who developed respiratory failure had been ventilated with larger intraoperative VT than those who did not (median, 8.3 vs. 6.7 ml/kg predicted body weight; P < 0.001). In a multivariate logistic regression analysis, larger intraoperative VT, in addition to larger volumes of intraoperative fluid, was identified as a risk factor of postoperative respiratory failure.
Similar findings were found in a recent study by Michelet et al.32 In this study, 52 patients undergoing planned esophagectomy for cancer were randomly assigned to a conventional ventilation strategy (VT of 9 ml/kg during two-lung and one-lung ventilation; no PEEP) or a protective ventilation strategy (VT of 9 ml/kg during two-lung ventilation, reduced to 5 ml/kg during one-lung ventilation; PEEP of 5 cm H2O throughout the operative time). Patients who received protective strategy had lower blood levels of interleukin (IL)-1, IL-6, and IL-8 at the end of one-lung ventilation and 18 h after surgery. Protective strategy also resulted in higher arterial oxygen tension/fraction of inspired oxygen ratio during one-lung ventilation and 1 h after surgery and in a reduction of postoperative mechanical ventilation duration.
Several other investigators have prospectively tested the hypothesis that mechanical ventilation settings could be deleterious and induce or alter pulmonary inflammation in patients without lung injury at the onset of mechanical ventilation. The strongest evidence for benefit of protective lung ventilation in patients without ALI/ARDS comes from a randomized clinical trial in postoperative patients.33 Intubated mechanically ventilated patients in the surgical intensive care unit were randomly assigned to mechanical ventilation with VT of 12 ml/kg actual body weight or lower VT of 6 ml/kg. The incidence of pulmonary infection tended to be lower, and duration of intubation and duration of stay tended to be shorter for nonneurosurgical and noncardiac surgical patients randomly assigned to the lower VT strategy, suggesting that morbidity may be decreased. Importantly, use of lower VT seemed to be safe. Indeed, although use of lower VT was associated with a statistically significant decrease in oxygenation, this was clinically irrelevant.
Wrigge et al.34 randomly assigned patients without previous lung injury scheduled for elective surgery with general anesthesia to receive mechanical ventilation with either large VT (15 ml/kg) or lower VT (6 ml/kg) without the use of PEEP, or lower VT with PEEP of 10 cm H2O. Initiation of mechanical ventilation for 1 h caused no consistent changes in plasma levels of various mediators, and no differences were found among the three study groups. Similar results came form a study by Koner et al.35 Wrigge et al.36 also studied the effects of mechanical ventilation on inflammatory responses during major thoracic or abdominal surgery. Patients undergoing elective thoracotomy or laparotomy were randomly assigned to receive either mechanical ventilation with VT of 12 or 15 ml/kg, respectively, and no PEEP, or VT of 6 ml/kg with PEEP of 10 cm H2O. In this study, neither time course nor concentrations of pulmonary or systemic mediators differed between the two ventilatory settings within 3 h.
In contrast to the reports that did not show any deleterious effects of larger VT in patients with noninjured lungs, other articles have demonstrated the injurious effects of large VT.37–40 Wrigge et al.37 reported on the effect of postoperative mechanical ventilation with lower VT on inflammatory responses induced by cardiopulmonary bypass surgery. In this study, immediately after surgery, mechanical ventilation was applied for 6 h with either VT of 6 or 12 ml/kg PBW. The time course of inflammatory mediators did not differ significantly between the ventilatory strategies, although in bronchoalveolar lavage fluid sampled after 6 h of initiation of mechanical ventilation, tumor necrosis factor α levels were significantly higher in patients ventilated with large VT. Similar results were found by Zupancich et al., who randomly assigned elective coronary artery bypass patients to ventilation after surgery with large VT/low PEEP (10–12 ml/kg and 2–3 cm H2O) or low VT/high PEEP (8 ml/kg and 10 cm H2O).38 Bronchoalveolar lavage fluid and plasma was obtained before sternotomy, immediately after cardiopulmonary bypass separation, and after 6 h of mechanical ventilation. IL-6 and IL-8 levels in the bronchoalveolar lavage fluid and plasma significantly increased before sternotomy in both groups but further increased only in patients ventilated with large VT and low PEEP. Reis Miranda et al.39 randomly assigned patients undergoing elective cardiopulmonary bypass to conventional ventilation with VT of 6–8 ml/kg PBW and PEEP of 5 cm H2O, or lung-protective ventilation with VT of 4–6 ml/kg PBW and PEEP of 10 cm H2O. IL-8 levels decreased more rapidly in the lung-protective group in the 3 days after the operation.
Choi et al.40 randomly assigned patients scheduled for an elective surgical procedure (lasting ≥ 5 h) to mechanical ventilation with either large VT (12 ml/kg) and no PEEP, or lower VT and PEEP of 10 cm H2O. In contrast to lung-protective mechanical ventilation, the use of larger VT promoted procoagulant changes, potentially leading to fibrin depositions within the airways. With the use of lower VT, these procoagulant changes were largely prevented.
Many mechanically ventilated critically ill patients are at risk of developing ALI/ARDS. Such patients may have lung injury but do not yet fulfill the ALI/ARDS consensus criteria at the start of mechanical ventilation. Patients with pneumonia or restrictive lung disease and those undergoing lung resection are among those at particular risk of ALI and ventilator-induced lung injury. Furthermore, in subjects without ALI but who have a predisposing condition, one or more “subsequent hits” can result in full-blown lung injury. Because nonprotective forms of mechanical ventilation may initiate or exacerbate pulmonary inflammation, use of large VT may induce the “primary hit” or form a “second or third hit.” Consequently, differences in results from the several pathophysiologic studies on ventilator-associated lung injury in healthy lungs may be explained. Longer periods of mechanical ventilation,38,40 with or without extrapulmonary “hits,”37,38 may cause more injury than shorter periods of mechanical ventilation with no extrapulmonary challenges.34,36
It is important to emphasize that “lower VT” in fact are “normal VT.” Mammals have a normal VT of 6.3 ml/kg.41 Normal lung volumes can be predicted on the basis of sex and height.42,43 In the ARDS Network trial, the predicted body weight of male patients was calculated as 50 + 0.91 (centimeters of height − 152.4); that of female patients was calculated as 45.5 + 0.91 (centimeters of height − 152.4).21 Unfortunately, many textbooks of medicine state 10 ml/kg actual body weight as initial ventilator settings, exposing women and shorter patients to higher and potentially injurious VT.29
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Clinical Recommendations and Future Considerations

The inconsistent results of the aforementioned randomized studies do not definitively support the use of lower VT. Most of the studies favoring a protective ventilation regimen in non-ALI patients measured surrogate markers such as inflammatory mediators instead of clinical outcome measures. Only three retrospective studies identified large VT as a risk factor of respiratory failure. Therefore, although likely, clinical relevance of these results is not proven, and prospective studies ought to be performed.
It may be important to distinguish between mechanical ventilation in the operating room and the intensive care unit. Patients in the operating room are mechanically ventilated for a much shorter time than those in the intensive care unit. Furthermore, as stated above, a multiple hit theory can be suggested in which repeated challenges (including mechanical ventilation) lead to the clinical picture of ALI/ARDS. Both surgical patients and critically ill patients are at risk for several causes of lung injury. However, these may not be the same for both patient groups, and each challenge may have different effects in both groups. Finally, much of our knowledge on the importance of using lower VT falls back on research in the field of ALI/ARDS; the cellular response to injury, however, is different depending on the priming of pulmonary cells by ischemia or inflammation. Both processes can occur in the perioperative period. Therefore, it remains to be determined whether we need to ventilate patients in the operating room and in the intensive care unit equally (i.e., with lower VT).
Fig. 1
Fig. 1
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Nevertheless, while awaiting the results of further prospective studies, we recommend avoidance of high plateau pressures and high VT in patients who do not have ALI/ARDS at the onset of mechanical ventilation (fig. 1). These recommendations are based on expert opinion, as well as currently available evidence cited in this review.24,29–32 Future studies are mandatory to confirm our recommendations. These recommendations do not take into account specific ventilator management of patients with obstructive lung diseases; problems encountered in these patients (dynamic hyperinflation) are not discussed in this review.
The main objective of lung-protective mechanical ventilation strategies is to minimize regional end-inspiratory stretch, thereby decreasing alveolar damage as well as alveolar inflammation/decompartmentalization.18,19 In many patients with normal lungs (e.g., patients undergoing short-term ventilation during low-risk surgical procedures, those with muscle weakness) the end-inspiratory stretch may be relatively low even with a VT of 10 ml/kg PBW. In these patients, if the plateau pressure is low (e.g., < 15 cm H2O) and they are not breathing spontaneously, lower VT are probably not indicated—in fact, it may lead to atelectasis, especially if PEEP is low or not used at all. If plateau pressures increase (e.g., > 15–20 cm H2O), VT should be decreased to approximately 6 ml/kg PBW (fig. 1). Sufficient PEEP must be used to minimize atelectasis and maintain oxygenation. It is important to realize that plateau pressures may be misleading in some occasions: In patients with significant spontaneous breathing efforts, plateau pressures may be low, but the transalveolar pressures and lung overdistension may still be high because of large negative pleural pressures. Conversely, in patients who have decreased chest wall compliance (increased intraabdominal pressure, obesity), plateau pressures may be high without there being pulmonary overdistension.
Finally, the use of lower VT could improve the hemodynamic tolerance of mechanical ventilation and in this way may improve outcome. Moreover, by decreasing the need for fluids, this beneficial hemodynamic effect could contribute to the decreased incidence of secondary ALI/ARDS. So far, no studies have been performed addressing this issue.
In conclusion, patients without ALI/ARDS may also be at risk for ventilator-associated lung injury. The association with the potentially injurious initial ventilator settings, in particular large VT, suggests that ARDS in mechanically ventilated patients is in part a preventable complication. Prospective studies are required to further evaluate optimal ventilator management strategies for patients without ALI/ARDS at the onset of mechanical ventilation.
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How I Manage the Adult Potential Organ Donor: Donation After Neurological Death (Part 1)
Frontera, JA; Kalb, T
Neurocritical Care, 12(1): 103-110.
Acta Anaesthesiologica Scandinavica
Automated pre-ejection period variation indexed to tidal volume predicts fluid responsiveness after cardiac surgery
Vistisen, ST; Struijk, JJ; Larsson, A
Acta Anaesthesiologica Scandinavica, 53(4): 534-542.
Anesthesia and Analgesia
Determinants of tidal volumes with adaptive support ventilation: A Multicenter observational study
Dongelmans, DA; Veelo, DP; Bindels, A; Binnekade, JM; Koppenol, K; Koopmans, M; Korevaar, JC; Kuiper, MA; Schultz, MJ
Anesthesia and Analgesia, 107(3): 932-937.
Anesthesia and Analgesia
Do new anesthesia ventilators deliver small tidal volumes accurately during volume-controlled ventilation?
Bachiller, PR; McDonough, JM; Feldman, JM
Anesthesia and Analgesia, 106(5): 1392-1400.
Acta Anaesthesiologica Scandinavica
Should dynamic parameters for prediction of fluid responsiveness be indexed to the tidal volume?
Vistisen, ST; Koefoed-Nielsen, J; Larsson, A
Acta Anaesthesiologica Scandinavica, 54(2): 191-198.
Critical Care
Mechanical ventilation with lower tidal volumes does not influence the prescription of opioids or sedatives
Wolthuis, EK; Veelo, DP; Choi, G; Determann, RM; Korevaar, JC; Spronk, PE; Kuiper, MA; Schultz, MJ
Critical Care, 11(4): -.
Acta Clinica Belgica
Intra-abdominal pressure and respiratory function
Pelosi, P
Acta Clinica Belgica, 64(3): 251.

Anaesthesia and Intensive Care
The performance of Drager Oxylog ventilators at simulated altitude
Flynn, JG; Singh, B
Anaesthesia and Intensive Care, 36(4): 549-552.

Journal of Critical Care
Effect of a clinical decision support system on adherence to a lower tidal volume mechanical ventilation strategy
Eslami, S; de Keizer, NF; Abu-Hanna, A; de Jonge, E; Schultz, MJ
Journal of Critical Care, 24(4): 523-529.
Minerva Anestesiologica
Postoperative pulmonary complications
Canet, J; Mazo, V
Minerva Anestesiologica, 76(2): 138-143.

American Journal of Physiology-Lung Cellular and Molecular Physiology
Lung epithelial injury markers are not influenced by use of lower tidal volumes during elective surgery in patients without preexisting lung injury
Determann, RM; Wolthuis, EK; Choi, G; Bresser, P; Bernard, A; Lutter, R; Schultz, MJ
American Journal of Physiology-Lung Cellular and Molecular Physiology, 294(2): L344-L350.
Respiratory Care
A Case of Pneumomediastinum in a Patient With Acute Respiratory Distress Syndrome on Pressure Support Ventilation
Leray, V; Bourdin, G; Flandreau, G; Bayle, F; Wallet, F; Richard, JC; Guerin, C
Respiratory Care, 55(6): 770-773.

Respiratory Care
Does Spontaneous Breathing Produce Harm in Patients With the Acute Respiratory Distress Syndrome?
Schmidt, UH; Hess, DR
Respiratory Care, 55(6): 784-786.

Respiratory Care
Ventilator-Induced Lung Injury: Minimizing Its Impact in Patients With or at Risk for ARDS
Biehl, M; Kashiouris, MG; Gajic, O
Respiratory Care, 58(6): 927-934.
Intensive Care Medicine
Prophylactic protective ventilation: lower tidal volumes for all critically ill patients?
Lellouche, F; Lipes, J
Intensive Care Medicine, 39(1): 6-15.
Minerva Anestesiologica
Brain-lung crosstalk in critical care: how protective mechanical ventilation can affect the brain homeostasis
Mazzeo, AT; Fanelli, V; Mascia, L
Minerva Anestesiologica, 79(3): 299-309.

Surgical support for gastric adenocarcinoma
Antomarchi, O; Futier, E; Pezet, D
Oncologie, 15(): 155-159.
Journal of Thoracic and Cardiovascular Surgery
A randomized comparison of different ventilator strategies during thoracotomy for pulmonary resection
Maslow, AD; Stafford, TS; Davignon, KR; Ng, T
Journal of Thoracic and Cardiovascular Surgery, 146(1): 38-44.
Transplantation Reviews
Intraoperative protective ventilation strategies in lung transplantation
Verbeek, GL; Myles, PS
Transplantation Reviews, 27(1): 30-35.
British Journal of Anaesthesia
Technology comparison studies require precise reference controls to be valid Reply
Bjorne, H
British Journal of Anaesthesia, 110(4): 661-662.
British Journal of Anaesthesia
Tidal volume measurement: OK for science, but too difficult for a workstation standard?
Scott, DHT; Drummond, GB
British Journal of Anaesthesia, 110(6): 891-895.
British Journal of Anaesthesia
Delivery of tidal volume from four anaesthesia ventilators during volume-controlled ventilation: a bench study
Wallon, G; Bonnet, A; Guerin, C
British Journal of Anaesthesia, 110(6): 1045-1051.
Intensive Care Medicine
Evaluation of fully automated ventilation: a randomized controlled study in post-cardiac surgery patients
Lellouche, F; Bouchard, PA; Simard, S; L'Her, E; Wysocki, M
Intensive Care Medicine, 39(3): 463-471.
Journal of Critical Care
A 5-year observational study of lung-protective ventilation in the operating room: A single-center experience
Hess, DR; Kondili, D; Burns, E; Bittner, EA; Schmidt, UH
Journal of Critical Care, 28(4): -.
ARTN 533.e9
Tidal Volumes in Patients with Normal Lungs: One for All or the Less, the Better?
Putensen, C; Wrigge, H
Anesthesiology, 106(6): 1085-1087.
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Randomized Controlled Trial Comparing Adaptive-support Ventilation with Pressure-regulated Volume-controlled Ventilation with Automode in Weaning Patients after Cardiac Surgery
Joynt, GM; Ng, SK; Ho, K; Underwood, MJ; Gruber, PC; Gomersall, CD; Leung, P
Anesthesiology, 109(1): 81-87.
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Critical Care Medicine
Demand flow facilitates spontaneous breathing during high-frequency oscillatory ventilation in a pig model
van Heerde, M; Roubik, K; Kopelent, V; Plötz, FB; Markhorst, DG
Critical Care Medicine, 37(3): 1068-1073.
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Journal of Trauma and Acute Care Surgery
En-Route Care in the Air: Snapshot of Mechanical Ventilation at 37,000 Feet
Barnes, SL; Branson, R; Gallo, LA; Beck, G; Johannigman, JA
Journal of Trauma and Acute Care Surgery, 64(2): S129-S135.
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Perioperative Protective Ventilatory Strategies in Patients without Acute Lung Injuries
Licker, M; Diaper, J; Ellenberger, C
Anesthesiology, 108(2): 335-336.
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Perioperative Protective Ventilatory Strategies in Patients without Acute Lung Injuries
Schultz, MJ; Gajic, O
Anesthesiology, 108(2): 336-337.
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Noisy Mechanical Ventilation: Listen to the Melody
Shimabukuro, DW; Gropper, MA
Anesthesiology, 110(2): 214-215.
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Mild Endotoxemia during Mechanical Ventilation Produces Spatially Heterogeneous Pulmonary Neutrophilic Inflammation in Sheep
Costa, EL; Musch, G; Winkler, T; Schroeder, T; Harris, RS; Jones, HA; Venegas, JG; Vidal Melo, MF
Anesthesiology, 112(3): 658-669.
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Critical Care Medicine
Permissive hypercapnia and immunosuppression*
Leiter, JC; Manning, HL
Critical Care Medicine, 36(7): 2209-2210.
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Critical Care Medicine, 35(11): 2668-2669.
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Current Opinion in Critical Care
Extracellular matrix and mechanical ventilation in healthy lungs: back to baro/volotrauma?
Pelosi, P; Negrini, D
Current Opinion in Critical Care, 14(1): 16-21.
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Intensive care management of acute liver failure
Auzinger, G; Wendon, J
Current Opinion in Critical Care, 14(2): 179-188.
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European Journal of Anaesthesiology (EJA)
Ventilatory management during routine general anaesthesia
Hans, GA; Sottiaux, TM; Lamy, ML; Joris, JL
European Journal of Anaesthesiology (EJA), 26(1): 1-8.
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European Journal of Anaesthesiology (EJA)
Optimal ventilator settings in acute lung injury and acute respiratory distress syndrome
Yilmaz, M; Gajic, O
European Journal of Anaesthesiology (EJA), 25(2): 89-96.
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Recombinant Human Soluble Tumor Necrosis Factor-Alpha Receptor Fusion Protein Partly Attenuates Ventilator-Induced Lung Injury
Wolthuis, EK; Vlaar, AP; Choi, G; Roelofs, JJ; Haitsma, JJ; van der Poll, T; Juffermans, NP; Zweers, MM; Schultz, MJ
Shock, 31(3): 262-266.
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Pulmonary Levels of High-Mobility Group Box 1 During Mechanical Ventilation and Ventilator-Associated Pneumonia
van Zoelen, MA; Ishizaka, A; Wolthuis, EK; Choi, G; van der Poll, T; Schultz, MJ
Shock, 29(4): 441-445.
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