All Stories

  1. Mechanical Power and Driving Pressure: Mechanisms of Lung Injury, Markers of Pathophysiology, or Therapeutic Targets?
  2. Computationally-directed mechanical ventilation in a porcine model of ARDS
  3. Balancing the Scales: Using Ventilator Time to Counter Mass Loading
  4. Toward optimal mechanical ventilation of the injured lung: the role of expiratory duration
  5. Comparison of early and late time-controlled adaptive ventilation on pulmonary gas exchange in anesthetized horses
  6. The role of pulmonary surfactant on lung fluid balance
  7. Explosive Energy Bursts Linked to Ventilator-Induced Lung Injury
  8. Correction: Atelectrauma can be avoided if expiration is sufficiently brief: evidence from inverse modeling and oscillometry during airway pressure release ventilation
  9. Meconium Influences Pulmonary Short-Chain Fatty Acid Concentration in Porcine Meconium Aspiration Model
  10. Atelectrauma can be avoided if expiration is sufficiently brief: evidence from inverse modeling and oscillometry during airway pressure release ventilation
  11. Inconsistent Methods Used to Set Airway Pressure Release Ventilation in Acute Respiratory Distress Syndrome: A Systematic Review and Meta-Regression Analysis
  12. Mechanical Power and Ventilator-induced Lung Injury: What Does Physics Have to Say?
  13. The use of protective mechanical ventilation during extracorporeal membrane oxygenation for the treatment of acute respiratory failure
  14. Time-Controlled Adaptive Ventilation (TCAV): a personalized strategy for lung protection
  15. Airway pressure release ventilation for lung protection in acute respiratory distress syndrome: an alternative way to recruit the lungs
  16. Sustained vs. Intratidal Recruitment in the Injured Lung During Airway Pressure Release Ventilation: A Computational Modeling Perspective
  17. Ratchet recruitment in the acute respiratory distress syndrome: lessons from the newborn cry
  18. Time Controlled Adaptive Ventilation/Airway Pressure Release Ventilation Can be Used Effectively in Patients With or at High Risk of Acute Respiratory Distress Syndrome “Time is the Soul of the World” Pythagoras
  19. First Stabilize and then Gradually Recruit: A Paradigm Shift in Protective Mechanical Ventilation for Acute Lung Injury
  20. Ventilator-Induced Lung Injury as a Dynamic Balance Between Epithelial Cell Damage and Recovery
  21. Protective ventilation in a pig model of acute lung injury: timing is as important as pressure
  22. Editorial: Protecting the acutely injured lung: Physiologic, mechanical, inflammatory, and translational perspectives
  23. Unshrinking the baby lung to calm the VILI vortex
  24. Myths and Misconceptions of Airway Pressure Release Ventilation: Getting Past the Noise and on to the Signal
  25. Effect of low dose acetylsalicylic acid and anticoagulant on clinical outcomes in COVID‐19, analytical cross‐sectional study
  26. Electric Cell-Substrate Impedance Sensing (ECIS) as a Platform for Evaluating Barrier-Function Susceptibility and Damage from Pulmonary Atelectrauma
  27. Nano-chemically Modified Tetracycline-3 (nCMT-3) Attenuates Acute Lung Injury via Blocking sTREM-1 Release and NLRP3 Inflammasome Activation
  28. Assessment of Heterogeneity in Lung Structure and Function During Mechanical Ventilation: A Review of Methodologies
  29. A Ventilator Mode Cannot Set Itself, Nor Can It Be Solely Responsible for Outcomes*
  30. Mechanical Ventilation in Pediatric and Neonatal Patients
  31. Effects of time-controlled adaptive ventilation on cardiorespiratory parameters and inflammatory response in experimental emphysema
  32. Hemostatic shape memory polymer foams with improved survival in a lethal traumatic hemorrhage model
  33. Airway Pressure Release Ventilation in Acute Respiratory Failure Due to COVID-19: When One Door Closes
  34. Pulmonary Interstitial Matrix and Lung Fluid Balance From Normal to the Acutely Injured Lung
  35. Acetylsalicylic Acid Compared with Enoxaparin for the Prevention of Thrombosis and Mechanical Ventilation in COVID-19 Patients: A Retrospective Cohort Study
  36. Rationales and uncertainties for aspirin use in COVID-19: a narrative review
  37. Functional pathophysiology of SARS-CoV-2-induced acute lung injury and clinical implications
  38. Atelectrauma Versus Volutrauma: A Tale of Two Time-Constants
  39. Time-Controlled Adaptive Ventilation Versus Volume-Controlled Ventilation in Experimental Pneumonia
  40. The POOR Get POORer: A Hypothesis for the Pathogenesis of Ventilator-induced Lung Injury
  41. Ventilating Two Subjects with One Ventilator: Achievable but not Advisable
  42. Mechanical Ventilation Lessons Learned From Alveolar Micromechanics
  43. A Physiologically Informed Strategy to Effectively Open, Stabilize, and Protect the Acutely Injured Lung
  44. Prevention and treatment of acute lung injury with time-controlled adaptive ventilation: physiologically informed modification of airway pressure release ventilation
  45. Surfactant delivery in rat lungs: Comparing 3D geometrical simulation model with experimental instillation
  46. It Is Time to Treat the Patient and Not Just the Ventilator
  47. Time-controlled adaptive ventilation (TCAV) accelerates simulated mucus clearance via increased expiratory flow rate
  48. The time-controlled adaptive ventilation protocol: mechanistic approach to reducing ventilator-induced lung injury
  49. Preemptive mechanical ventilation based on dynamic physiology in the alveolar microenvironment: Novel considerations of time-dependent properties of the respiratory system
  50. Enteral administration of bacteria fermented formula in newborn piglets: A high fidelity model for necrotizing enterocolitis (NEC)
  51. Biological Response to Time-Controlled Adaptive Ventilation Depends on Acute Respiratory Distress Syndrome Etiology*
  52. Acute lung injury: how to stabilize a broken lung
  53. Last Word on Viewpoint: Looking beyond macrovenitlatory parameters and rethinking ventilator-induced lung injury
  54. Looking beyond macroventilatory parameters and rethinking ventilator-induced lung injury
  55. Excessive Extracellular ATP Desensitizes P2Y2 and P2X4 ATP Receptors Provoking Surfactant Impairment Ending in Ventilation-Induced Lung Injury
  56. Reply to Drs. Monjezi and Jamaati: Dynamic alveolar mechanics are more than a soap bubble on a capillary tube
  57. Physiology in Medicine: Understanding dynamic alveolar physiology to minimize ventilator-induced lung injury
  58. Purinergic signalling links mechanical breath profile and alveolar mechanics with the pro-inflammatory innate immune response causing ventilation-induced lung injury
  59. The role of high airway pressure and dynamic strain on ventilator-induced lung injury in a heterogeneous acute lung injury model
  60. Personalizing mechanical ventilation according to physiologic parameters to stabilize alveoli and minimize ventilator induced lung injury (VILI)
  61. Limiting ventilator-associated lung injury in a preterm porcine neonatal model
  62. Onset of Inflammation With Ischemia: Implications for Donor Lung Preservation and Transplant Survival
  63. Lung stress, strain, and energy load: engineering concepts to understand the mechanism of ventilator-induced lung injury (VILI)
  64. The 30-year evolution of airway pressure release ventilation (APRV)
  65. “Open the lung and keep it open”: a homogeneously ventilated lung is a ‘healthy lung’
  66. DIFFERENTIAL SUSCEPTIBILITY OF HUMAN SP-B GENETIC VARIANTS ON LUNG INJURY CAUSED BY BACTERIAL PNEUMONIA AND THE EFFECT OF A CHEMICALLY MODIFIED CURCUMIN
  67. ARDS: what experimental models have taught us
  68. Preemptive mechanical ventilation can block progressive acute lung injury
  69. Effect of Airway Pressure Release Ventilation on Dynamic Alveolar Heterogeneity
  70. Protecting lungs with acute lung injury
  71. RETRACTED: Mechanical Ventilation as a Therapeutic Tool to Reduce ARDS Incidence
  72. The effects of airway pressure release ventilation on respiratory mechanics in extrapulmonary lung injury
  73. Alveolar instability (atelectrauma) is not identified by arterial oxygenation predisposing the development of an occult ventilator-induced lung injury
  74. Trauma in silico: Individual-specific mathematical models and virtual clinical populations
  75. Predicting the response of the injured lung to the mechanical breath profile
  76. Commentaries on Viewpoint: The ongoing need for good physiological investigation: Obstructive sleep apnea in HIV patients as a paradigmCommentaries on Viewpoint: The ongoing need for good physiological investigation: Obstructive sleep apnea in HIV pati...
  77. Electroporation-Mediated Gene Delivery of Na+,K+-ATPase, and ENaC Subunits to the Lung Attenuates Acute Respiratory Distress Syndrome in a Two-Hit Porcine Model
  78. Response to letter by Dr. M. S. A. Mohamed (Antagonizing reactive oxygen species during lung perfusion)
  79. Mechanical Breath Profile of Airway Pressure Release Ventilation
  80. Airway Pressure Release Ventilation Reduces Conducting Airway Micro-Strain in Lung Injury
  81. Shear stress-related mechanosignaling with lung ischemia: lessons from basic research can inform lung transplantation
  82. Removal of Inflammatory Ascites Is Associated With Dynamic Modification of Local and Systemic Inflammation Along With Prevention of Acute Lung Injury
  83. Airway Pressure Release Ventilation Prevents Ventilator-Induced Lung Injury in Normal Lungs
  84. Early application of airway pressure release ventilation may reduce mortality in high-risk trauma patients
  85. Is Time the Missing Component in Protective Ventilation Strategies?*
  86. Preemptive Application of Airway Pressure Release Ventilation Prevents Development of Acute Respiratory Distress Syndrome in a Rat Traumatic Hemorrhagic Shock Model
  87. Bayesian inference of the lung alveolar spatial model for the identification of alveolar mechanics associated with acute respiratory distress syndrome
  88. EARLY AIRWAY PRESSURE RELEASE VENTILATION PREVENTS ARDS—A NOVEL PREVENTIVE APPROACH TO LUNG INJURY
  89. Commentaries on Viewpoint: Unresolved mysteries
  90. Early stabilizing alveolar ventilation prevents acute respiratory distress syndrome
  91. Lung recruitment
  92. Sepsis: Something old, something new, and a systems view
  93. Toward Computational Identification of Multiscale “Tipping Points” in Acute Inflammation and Multiple Organ Failure
  94. A two-compartment mathematical model of endotoxin-induced inflammatory and physiologic alterations in swine*
  95. Chemically Modified Tetracycline 3 Prevents Acute Respiratory Distress Syndrome in a Porcine Model of Sepsis + Ischemia/Reperfusion–Induced Lung Injury
  96. Amelia Earhart, alveolar mechanics, and other great mysteries
  97. Up in smoke
  98. Linking Inflammation, Cardiorespiratory Variability, and Neural Control in Acute Inflammation via Computational Modeling
  99. Lung injury induced by sepsis: lessons learned from large animal models and future directions for treatment
  100. Jack of all trades: Pleiotropy and the application of chemically modified tetracycline-3 in sepsis and the acute respiratory distress syndrome (ARDS)
  101. A Clinically Applicable Porcine Model of Septic and Ischemia/Reperfusion-Induced Shock and Multiple Organ Injury
  102. Comparison of “Open Lung” Modes with Low Tidal Volumes in a Porcine Lung Injury Model
  103. Continuous elevation of lung sound amplitudes, recorded at fixed flow rate, may indicate an increase in lung water content
  104. Peritoneal Negative Pressure Therapy Prevents Multiple Organ Injury in a Chronic Porcine Sepsis and Ischemia/Reperfusion Model
  105. Titration of Mean Airway Pressure and FiO2 During High Frequency Oscillatory Ventilation in a Porcine Model of Acute Lung Injury
  106. Loss of Airway Pressure During HFOV Results in an Extended Loss of Oxygenation: A Retrospective Animal Study
  107. Plateau and Transpulmonary Pressure With Elevated Intra-Abdominal Pressure or Atelectasis
  108. Dynamic alveolar mechanics in acute lung injury
  109. The role of time and pressure on alveolar recruitment
  110. An Official ATS Conference Proceedings: Advances in Small-Animal Imaging Application to Lung Pathophysiology
  111. Clinically applicable porcine model of abdominal compartment syndrome
  112. Negative pressure therapy improved outcome in a clinically applicable abdominal compartment syndrome porcine model
  113. Alveolar instability caused by mechanical ventilation initially damages the nondependent normal lung
  114. Using pressure–volume curves to set proper PEEP in acute lung injury
  115. Injurious mechanical ventilation in the normal lung causes a progressive pathologic change in dynamic alveolar mechanics
  116. Correlation between alveolar recruitment /derecruitment and inflection points on the pressure-volume curve
  117. Effect of positive end-expiratory pressure and tidal volume on lung injury induced by alveolar instability
  118. A 4-Dimensional Model of the Alveolar Structure
  119. Absence of Alveolar Tears in Rat Lungs with Significant Alveolar Instability
  120. CHEMICALLY MODIFIED TETRACYCLINE (COL-3) IMPROVES SURVIVAL IF GIVEN 12 BUT NOT 24 HOURS AFTER CECAL LIGATION AND PUNCTURE
  121. Chemically Modified Tetracycline Improves Contractility in Porcine Coronary Ischemia/Reperfusion Injury
  122. Can Systemic Diseases Co-induce (Not Just Exacerbate) Periodontitis? A Hypothetical “Two-hit” Model
  123. Can ventilator mode reduce ventilator-induced lung injury?*
  124. Dynamic alveolar mechanics in four models of lung injury
  125. CHEMICALLY MODIFIED TETRACYCLINE PREVENTS THE DEVELOPMENT OF SEPTIC SHOCK AND ACUTE RESPIRATORY DISTRESS SYNDROME IN A CLINICALLY APPLICABLE PORCINE MODEL
  126. Pulmonary impedance and alveolar instability during injurious ventilation in rats
  127. Dynamic alveolar mechanics and ventilator-induced lung injury
  128. THE DEVELOPMENT OF ACUTE RESPIRATORY DISTRESS SYNDROME AFTER GUT ISCHEMIA/REPERFUSION INJURY FOLLOWED BY FECAL PERITONITIS IN PIGS: A CLINICALLY RELEVANT MODEL
  129. Severity of Injury is Underestimated in the Absence of Autopsy Verification
  130. Alveolar Instability Causes Early Ventilator-induced Lung Injury Independent of Neutrophils
  131. Positive End-Expiratory Pressure after a Recruitment Maneuver Prevents Both Alveolar Collapse and Recruitment/Derecruitment
  132. Metalloproteinase inhibition reduces lung injury and improves survival after cecal ligation and puncture in rats
  133. Alveolar inflation during generation of a quasi-static pressure/volume curve in the acutely injured lung
  134. Tidal volume increases do not affect alveolar mechanics in normal lung but cause alveolar overdistension and exacerbate alveolar instability after surfactant deactivation
  135. Alveolar mechanics alter hypoxic pulmonary vasoconstriction*
  136. Invasive Arterial BP Monitoring in Trauma and Critical Care
  137. Metalloproteinase Inhibition Prevents Acute Respiratory Distress Syndrome
  138. Visual Validation of the Mechanical Stabilizing Effects of Positive End-Expiratory Pressure at the Alveolar Level
  139. Altered alveolar mechanics in the acutely injured lung
  140. A Role for the Anti-Inflammatory Properties of Tetracyclines in the Prevention of Acute Lung Injury
  141. The Mechanism of Lung Volume Change during Mechanical Ventilation
  142. Matrix Metalloproteinase Inhibitor Prevents Acute Lung Injury After Cardiopulmonary Bypass
  143. Soluble Tumor Necrosis Factor Receptor Prevents Post-pump Syndrome
  144. VIDEOMICROSCOPY PROVIDES ACCURATE IN VIVO ASSESSMENT OF PULMONARY MICROVASCULAR REACTIVITY IN RABBITS
  145. Multiple sequential insults cause post-pump syndrome
  146. Aerosolized Surfactant Improves Pulmonary Function in Endotoxin-induced Lung Injury
  147. Endotoxin-stimulated alveolar macrophage recruitment of neutrophils and modulation with exogenous surfactant
  148. Exogenous surfactant and positive end-expiratory pressure in the treatment of endotoxin-induced lung injury
  149. Surfactant replacement in the treatment of sepsis-induced adult respiratory distress syndrome in pigs
  150. PULMONARY SURFACTANT FUNCTION FOLLOWING ENDOTOXIN
  151. Segmental pulmonary vascular resistance following wood smoke inhalation
  152. Effects of wood and cotton smoke on the surface properties of pulmonary surfactant
  153. UNILATERAL SMOKE INHALATION INCREASES PULMONARY BLOOD FLOW TO THE INJURED LUNG
  154. Comparison of high-frequency jet to conventional mechanical ventilation in the treatment of severe smoke inhalation injury
  155. Exosurf treatment following wood smoke inhalation
  156. Methylprednisolone does not protect the lung from inhalation injury
  157. Distribution of extravascular lung water after acute smoke inhalation
  158. Smoke inhalation
  159. Effects of Crystalloid on Lung Fluid Balance After Smoke Inhalation
  160. Effect of increased alveolar surface tension on segmental pulmonary vascular resistance
  161. Surfactant displacement by meconium free fatty acids: An alternative explanation for atelectasis in meconium aspiration syndrome
  162. Effects of lung volume and alveolar surface tension on pulmonary vascular resistance
  163. Microvascular membrane permeability in high surface tension pulmonary edema
  164. High surface tension pulmonary edema induced by detergent aerosol
  165. High-frequency jet ventilation versus conventional ventilation after surfactant displacement in dogs
  166. High surface tension pulmonary edema
  167. Alveolar function following surfactant deactivation
  168. The Effect of Smoke Inhalation on Pulmonary Surfactant
  169. Inhalation of cannabis smoke in rats