Linked from

The 32 pages that link to Mechanical ventilation, each with the reason it gives.

• VentilationBroader topic: It supports ventilation when a person cannot move enough air independently.

• Organophosphate poisoningRelated: Respiratory failure from secretions, weakness, or central effects may require ventilatory support.

• Guillain–Barré syndromeRelated: Rapid respiratory monitoring can identify patients whose nerve-related weakness requires ventilatory support.

• PneumoniaRelated: Critical pneumonia can cause respiratory failure requiring assisted ventilation.

• Airway managementRelated: Securing an airway often enables mechanical ventilation when respiratory failure is severe.

• Respiratory systemRelated: It can maintain ventilation when spontaneous breathing is inadequate.

• Oxygen therapyCompared with: It supports ventilation when oxygen supplementation alone cannot adequately move air.

• Passive coolingCompared with: It can maintain airflow when wind and buoyancy cannot provide enough natural ventilation.

• Arterial blood gas testRelated: Repeated blood gases can guide ventilator adjustments and check their effects.

• Passive solar building designCompared with: It contrasts with natural airflow and may be needed where passive ventilation cannot ensure air quality.

• Respiratory failureRelated: It supports gas exchange when spontaneous breathing is inadequate.

• Cholinergic crisisRelated: Respiratory failure from secretions, bronchospasm, or muscle weakness may require ventilatory support.

• Multiple organ dysfunction syndromeRelated: It supports respiratory function when MODS causes severe respiratory failure.

• Post-intensive care syndromeRelated: Prolonged ventilation often accompanies severe illness and can complicate physical recovery.

• Snakebite envenomingRelated: It can sustain patients whose respiratory muscles are paralyzed by neurotoxic venom.

• ResuscitationRelated: It supports breathing when spontaneous ventilation is inadequate.

• CapnographyRelated: The capnogram shows how ventilator settings affect exhalation and carbon dioxide clearance.

• Climate-responsive architectureCompared with: It can provide reliable airflow where climate, noise, or pollution limits natural ventilation.

• Intensive care medicineRelated: It supports gas exchange when respiratory failure prevents adequate breathing.

• Pulmonary rehabilitationCompared with: Ventilation supports breathing during acute or chronic respiratory failure; rehabilitation targets recovery and function.

• Intra-abdominal pressureRelated: Ventilation settings and positive airway pressure can alter abdominal pressure indirectly.

• TracheostomyRelated: A tracheostomy can provide a route for prolonged ventilation without an endotracheal tube in the mouth.

• AtelectasisRelated: Ventilator settings can recruit collapsed alveoli or, if poorly matched, promote lung injury.

• Building services engineeringCompared with: It offers controlled airflow where natural forces cannot provide sufficient ventilation.

• BreathingRelated: It can support or replace the muscle-driven airflow of breathing.

• Intensive care unitRelated: It can sustain gas exchange when critical illness prevents adequate breathing.

• PulmonologyRelated: Pulmonary specialists use it when severe illness prevents adequate natural breathing.

• Congenital diaphragmatic herniaRelated: Gentle ventilation supports oxygenation while limiting injury to fragile, underdeveloped lungs.

• Physical restraintCompared with: The shared word 'mechanical' can obscure that ventilation is treatment, not restraint.

• Blue-ringed octopusRelated: Severe paralysis can stop breathing while the toxin’s effects wear off.

• Mouth-to-mouth resuscitationCompared with: Clinical ventilation provides sustained support beyond manual rescue breaths.

• Tracheal intubationRelated: An endotracheal tube commonly provides the interface between a ventilator and the lungs.