Presentation is loading. Please wait.

Presentation is loading. Please wait.

Assembly used to convert a standard ventilator to an intermittent mandatory ventilation circuit. Assembly used to convert a standard ventilator to an intermittent.

Published byKerry Johns Modified over 5 years ago

Similar presentations

Presentation on theme: "Assembly used to convert a standard ventilator to an intermittent mandatory ventilation circuit. Assembly used to convert a standard ventilator to an intermittent."— Presentation transcript:

1 Assembly used to convert a standard ventilator to an intermittent mandatory ventilation circuit.
Assembly used to convert a standard ventilator to an intermittent mandatory ventilation circuit. A high flow of gas moves across the Y-piece of the ventilator circuit. The 2 circuits are separated by a one-way valve only allowing flow into the ventilator circuit by active patient inspiration. From Reference 3, with permission. Robert M Kacmarek, and Richard D Branson Respir Care 2016;61: (c) 2012 by Daedalus Enterprises, Inc.

Download ppt "Assembly used to convert a standard ventilator to an intermittent mandatory ventilation circuit. Assembly used to convert a standard ventilator to an intermittent."

Similar presentations

The patient is being ventilated with 2 types of breaths.

The patient is being ventilated with 2 types of breaths.
The changes in peak flow and inspiratory time between a minimum rise time (first 2 breaths) and a maximum rise time (last 2 breaths), with the Servo-i.

The changes in peak flow and inspiratory time between a minimum rise time (first 2 breaths) and a maximum rise time (last 2 breaths), with the Servo-i.
Example ventilator screen during nasal neurally adjusted ventilatory assist in a premature neonate (23 weeks gestational age, 560 g) with respiratory distress.

Example ventilator screen during nasal neurally adjusted ventilatory assist in a premature neonate (23 weeks gestational age, 560 g) with respiratory distress.
Spearman rank correlation between absolute humidity and the patient's core temperature with the Humid-Heat device. Spearman rank correlation between absolute.

Spearman rank correlation between absolute humidity and the patient's core temperature with the Humid-Heat device. Spearman rank correlation between absolute.
Air flow during ventilator-supported speech production.

Air flow during ventilator-supported speech production.
Matrix used to calculate the kappa statistic.

Matrix used to calculate the kappa statistic.
Model of relationship between ventilation and perfusion.

Model of relationship between ventilation and perfusion.
HomeLOX liquid oxygen system, which creates oxygen from a concentrator and refrigerates the concentrator gas to a liquid state, which is stored in a small.

HomeLOX liquid oxygen system, which creates oxygen from a concentrator and refrigerates the concentrator gas to a liquid state, which is stored in a small.
A ventilator and TTL test lung were used to simulate spontaneous breathing. A ventilator and TTL test lung were used to simulate spontaneous breathing.

A ventilator and TTL test lung were used to simulate spontaneous breathing. A ventilator and TTL test lung were used to simulate spontaneous breathing.
The high flow nasal cannula (HFNC) system incorporated an air/O2 blender with a flow meter and a heated humidifier. The high flow nasal cannula (HFNC)

The high flow nasal cannula (HFNC) system incorporated an air/O2 blender with a flow meter and a heated humidifier. The high flow nasal cannula (HFNC)
Even though this patient is undergoing positive-pressure mechanical ventilation, the first 4 breaths have a relatively negative pressure (ie, pressure.

Even though this patient is undergoing positive-pressure mechanical ventilation, the first 4 breaths have a relatively negative pressure (ie, pressure.
Noninvasive ventilation-neurally adjusted ventilatory assist (NIV-NAVA) where each patient effort is captured but support is insufficient (maximum electrical.

Noninvasive ventilation-neurally adjusted ventilatory assist (NIV-NAVA) where each patient effort is captured but support is insufficient (maximum electrical.
Differences in the distribution of lung densities in a patient with ARDS on a computed tomography scan between supine position (top) and prone position.

Differences in the distribution of lung densities in a patient with ARDS on a computed tomography scan between supine position (top) and prone position.
A: Pressure (green) and volume (black)/time curve in airway pressure release ventilation (APRV). A: Pressure (green) and volume (black)/time curve in airway.

A: Pressure (green) and volume (black)/time curve in airway pressure release ventilation (APRV). A: Pressure (green) and volume (black)/time curve in airway.
An example of delayed cycling during pressure-support ventilation of a patient with COPD, on a Puritan Bennett 7200 ventilator, which has a flow-termination.

An example of delayed cycling during pressure-support ventilation of a patient with COPD, on a Puritan Bennett 7200 ventilator, which has a flow-termination.
The third breath has a negative deflection (ie, below PEEP) at the end of the mechanical breath (arrow A) associated with a flow increase (arrow B), indicating.

The third breath has a negative deflection (ie, below PEEP) at the end of the mechanical breath (arrow A) associated with a flow increase (arrow B), indicating.
Example airway pressure and rib-cage impedance in a premature infant supported with the biphasic mode of SiPAP (“sigh” positive airway pressure) from the.

Example airway pressure and rib-cage impedance in a premature infant supported with the biphasic mode of SiPAP (“sigh” positive airway pressure) from the.
Simulated screenshot of flow starvation in volume control continuous mandatory ventilation. Simulated screenshot of flow starvation in volume control continuous.

Simulated screenshot of flow starvation in volume control continuous mandatory ventilation. Simulated screenshot of flow starvation in volume control continuous.
Characteristics of a pressure-supported breath.

Characteristics of a pressure-supported breath.
The peak flows (60 L/min) and flow patterns are the same for all the breaths. The peak flows (60 L/min) and flow patterns are the same for all the breaths.

The peak flows (60 L/min) and flow patterns are the same for all the breaths. The peak flows (60 L/min) and flow patterns are the same for all the breaths.

Similar presentations

Ads by Google