Abstract: The invention discloses a decontamination device for decontaminating inhaled and/or exhaled gases in a ventilator. The decontamination device comprises a gas inlet and outlet for inspiratory and expiratory gas flow, and a chamber for gas flow. The chamber is configured to connect the gas inlet and outlet. The chamber comprises at least one ultraviolet (UV) light source integrate inside the chamber that preferably emits in the UVC range, wherein the UV light source is preferably a UVC light-emitting diode. The UV light source is configured to produce UV light to decontaminate contaminants in the inhaled and/or exhaled gases by minimizing the distance between the contaminants in the gas flow and the light source, maintaining the gas flow in a gas flow path long enough to deactivate the contaminants, increasing the intensity of the light source to optimize decontamination, and increasing turbulence to redirect the gas flow and prevent boundary layers and shadowing.

Abstract: A body positioning mattress and a method of positioning a patient or person 0 to 90 degrees or greater in an upright supine or prone position while maintaining neutral skeletal alignment (non-flexed position) wherein a vacuum process can be applied to the body positioning mattress to remove air thereby molding the mattress around the body of the patient or person to maintain position. Further, the mattress may be placed onto a manual or motorized bed frame to position and maintain a patient or person 0 to 90 degrees or greater in the supine or prone position.

Abstract: The present invention relates to a healthcare consultation system that includes a knowledge database, a decision support server, an interactive help system and a connection, wherein the connection comprises a remote assistance unit. The present invention also relates to a wearable computer capable of two-way audio/visual conferencing to provide 24/7 real-time healthcare consultation.

Abstract: The invention provides an improved ventilation method and method for controlling a ventilator apparatus in accordance with same. More specifically, the present invention relates to a method of controlling a ventilator apparatus comprising the steps of placing a ventilator in a mode capable of adjusting airway pressure (P) and time (T), monitoring expiratory gas flow, analyzing the expiratory gas flow over time (T) to establish an expiratory gas flow pattern, and setting and/or adjusting a low time (T2) based on the expiratory gas flow pattern. Alternatively, the present invention relates to a method of controlling a ventilator apparatus comprising the steps of placing a ventilator in a mode capable of adjusting airway pressure (P) and time (T), and setting a low airway pressure (P2) of substantially zero cmH2O.

Abstract: A body positioning mattress and a method of positioning a patient or person 0 to 90 degrees or greater in an upright supine or prone position while maintaining neutral skeletal alignment (non-flexed position) wherein a vacuum process can be applied to the body positioning mattress to remove air thereby molding the mattress around the body of the patient or person to maintain position. Further, the mattress may he placed onto a manual or motorized bed frame to position and maintain a patient or person 0 to 90 degrees or greater in the supine or prone position.

Abstract: A ventilator (10) for use by a clinician in supporting a patient presenting pulmonary distress. A controller module (20) with a touch-screen display (26) operates a positive or negative pressure gas source (40) that communicates with the intubated or negative pressure configured patient through valved (46) supply and exhaust ports (42, 44). A variety of peripheral, central, and or supply/exhaust port positioned sensors (54) may be included to measure pressure, volumetric flow rate, gas concentration, transducer, and chest wall breathing work.

Abstract: An extracorporeal lung assistance device having an oxygen-containing gas chamber positioned in such relationship to a gas exchange chamber that transfer of oxygen to blood and the withdrawal of carbon dioxide from blood disposed may be made. The gas exchange chamber has a blood flow channel extending through the gas exchanger defined by a microporous membrane forming a wall separating the blood flow channel from an oxygen, carbon dioxide exchange media. A second membrane supported in spaced-apart relationship from said first membrane. The space between the membranes is filled with the oxygen carbon dioxide exchange media.