Abstract:
A breathing circuit for use with a ventilated patient that includes a heat exchanger for removing water vapor from the breathing gases to prevent condensation within the breathing circuit. The heat exchanger is positioned downstream from the CO2 absorber and receives the breathing gases from the CO2 absorber prior to delivery of the breathing gases to the inspiration limb of the patient circuit. The heat exchanger includes a plurality of inflow tubes and outflow tubes that are each open to a sump removably attached to the heat exchanger. The sump collects the water vapor condensed from the breathing gases within the heat exchanger.
Abstract:
A system is disclosed herein. The system includes an anesthesia machine, and a control system. The control system includes a touch screen, and a computer. The computer is configured to identify a first position at which the touch screen is contacted, identify a control parameter of the anesthesia machine based on the first position, and identify a second position at which the touch screen is contacted. The computer is further configured to identify a contact range comprising a generally continuous sequence of contact points including and extending in a direction away from the second position at which the touch screen is contacted. The computer is further configured to regulate the control parameter of the anesthesia machine based on the contact range.
Abstract:
A cannula receive respiratory airflows and ambient airflows. Another receives respiratory airflows and interface airflows. And another receives i) respiratory airflows from a subject and ii) interface airflows from an area near the cannula. Corresponding respiratory monitoring methods also receive the same.
Abstract:
The present invention is a system and method of integrating an intravascular gas exchange catheter with a patient respiratory system including a monitor and ventilator. The system and method obtains a monitoring sample of respiratory mechanic parameters for a present time interval, which may be selectively recurring over a predefined time. The system and method, according to the aforementioned respiratory mechanic parameters, alerts a physician to adjust, or automatically adjusts the oxygen delivery through the IGEC the ventilator operation, or both the IGEC and ventilator.
Abstract:
A differential pressure transducer determines pressure differentials between respiratory airflows and ambient airflows. Another determines pressure differentials between respiratory airflows and ambient airflows. And another determines pressure differentials between i) respiratory airflows received from a subject and ii) interface airflows received from an area near a cannula. Corresponding respiratory monitoring methods also determine the same.
Abstract:
A cannula receives respiratory airflows, exhaled gases, and ambient airflows. Another receives respiratory airflows, exhaled gases, and interface airflows. And another receives i) respiratory airflows and exhaled gases from a subject, and ii) interface airflows from an area near a cannula. Corresponding respiratory monitoring methods receive the same.
Abstract:
System and methods for ventilating a patient are provided. In one embodiment, the method comprises steps of placing a ventilator in a mode capable of delivering respiratory gas based on at least one fixed parameter and at least one variable parameter, the fixed parameters being tidal volume and peak airway pressure and the variable parameter being PEEP, identifying a first level for the PEEP, configuring the ventilator to deliver the respiratory gas at the peak airway pressure and the PEEP to achieve the tidal volume, monitoring respiratory gas flow over time to measure tidal volume, setting a second level for the PEEP based on the measured tidal volume, automatically adjusting the PEEP to the second level relative to the peak airway pressure and repeating the steps of configuring, monitoring, setting and automatically adjusting to achieve the ventilation.
Abstract:
A respiratory support system for providing respiratory support to a patient comprising an oscillating pump. The oscillating pump pressurizes ambient air to a pressure suitable for delivery to the patient for respiratory support. The system further comprises a sensor and a microprocessor to control the oscillating pump in response to patient breath attempts.
Abstract:
An arrangement and method for detecting spontaneous respiratory effort of a patient receiving ventilatory support via a breathing circuit. A patient/breathing circuit interface is adapted to provide a closed connection between a breathing passage of the patient and the breathing circuit. A sensor is disposed at least partially in the breathing passage of the patient and arranged to sense flow of gas through the breathing passage. The arrangement and method individually or in addition to the airway pressure measurement promotes reliable and rapid detection of breathing efforts of a non-intubated patient to promote efficient augmentation of patient breathing.
Abstract:
A cannula receives respiratory airflows and ambient airflows and a differential pressure transducer determine pressures differentials between the respiratory airflows and the ambient airflows. Another receives respiratory airflows and interface airflows and a differential pressure transducer determine pressures differentials between the respiratory airflows and the interface airflows. And another receives i) respiratory airflows from a subject and ii) interface airflows from an area near the cannula; and a differential pressure transducer determines pressure differentials between the respiratory airflows and the interface airflows. Corresponding respiratory monitoring methods also receive and determine the same.