Patent classifications
A61M2206/12
ARTERIAL AIR CAPTURE CHAMBER
An arterial air capture chamber (101) is used in dialysis. The arterial air capture chamber (101) includes an upwardly extending fluid inlet (102) terminating in a fluid inlet port (105) positioned at about a 90 turn relative to a fluid flow of a fluid inlet tube (107). The arterial air capture chamber (101) includes a draw tube (104) with an opposedly positioned beveled opening (306) at about 180 relative to the fluid inlet port (105). The arterial air capture chamber (101) provides improved fluid dynamics, reducing both stagnant flow and turbulence. The arterial air capture chamber (101) also provides for bidirectional flow of fluid through the arterial air capture chamber (101).
VALVE CASSETTE FOR A TURBINE MECHANICAL VENTILATOR METHOD FOR HOLDING AIRWAY PRESSURE
A valve cassette for a turbine mechanical ventilator includes a plurality of diaphragm check valves, a plate including a plurality of seats configured for receiving said plurality of diaphragm check valves, and at least one connecting element configured for fixing valve cassette to a turbine housing inlet. Each of said plurality of diaphragm check valves includes a flexible membrane and a plug. Each of said plurality of seats includes a bore for receiving said plug and a plurality of openings through which air is configured to flow through the valve cassette.
Hydrodynamic Vortex Aspiration Catheter
An actuated telescoping system for navigation within a vascular lumen and thrombectomy of a thrombus. The system includes a tubular catheter member having an open distal end defining a catheter lumen, a vacuum source, a rotational drive system, a flexible shaft having a channel coupled to the rotational drive system for rotational movement in response thereto, and an optional guidewire selectively inserted at least partially within the flexible shaft. The flexible shaft is at least partially disposed within the tubular catheter member configured for uncoupled rotational and translational motion therein and to optionally define a corkscrew motion in response to rotational driving force by the drive system that results in formation of hydrodynamic vortices within the catheter lumen. The telescoping system can be capable of reversibly transitioning between navigation and thrombectomy modes by differentially disposing and actuating the components and enable faster, more efficient and simpler removal of thromboembolic material.
AN AEROSOL GENERATING DEVICE
An aerosol generating device includes an inhalation outlet; a chamber for holding a material, the material capable of generating a vapour when heated; a heater for heating material held in the chamber; an air inlet connected by an air inlet passage to the chamber; a vapour-cooling module providing a fluidic connection between the chamber and inhalation outlet, the module configured to cool a vapour passing there through. Suction at the inhalation outlet causes air to enter the chamber via the air inlet, thereby transporting vapour generated in the chamber through the module to the inhalation outlet, such that the temperature of the vapour exiting the device through the inhalation outlet is substantially lower than the temperature of the vapour generated in the chamber. The device thereby provides a means whereby a vapour generated in the chamber is substantially cooled during transport from the chamber through the mouthpiece to the user.
INHALATION SYSTEM
In an inhalation system (1) for inhalation of a dosing aerosol (6), comprising: a dosing device (6) which delivers the aerosol (6) a container (2) in which one or more chambers (4, 5) separated from one another and connected together during inhalation by means of one or more valves (8) are provided, with an inlet opening (7) emerging into the first chamber (4), into which opening the dosing device (6) is inserted, with the second chamber (5) having a first passage opening (9) which interacts with the respiratory openings of a human being (20), with the second chamber (5) having a second passage opening (10) that is connected to the surrounding air (15) and through which a positive pressure in the second chamber (5) can escape into the surrounding air (15) during exhalation, a simple and hygienic application of the inhalation arrangement (1) should be guaranteed and the aerosol flow should have a linear and rotating motion induced in it during the inhalation procedure.
This is achieved in that the valve (8) is formed from an elastically deformable material, preferably silicone, that the valve (8) has a ring-shaped circumferential collar (21) that is fixed to the container (2), at least one slot-shaped notch (22) is worked into the valve (8) which is configured as a spiral running from inside to outside, that during inhalation, the valve (8) acts as a barrier to the flow of the aerosol (6) flowing through it, as a result of which a linear motion and a spiral-shaped flow direction (11) along and about the longitudinal axis (3) of the container (2) is imposed on the aerosol (6), channelling it into a three-dimensional spiral
Blood processing unit with heat exchanger core for providing modified flow path
A blood processing apparatus may include a heat exchanger and a gas exchanger. At least one of the heat exchanger and the gas exchanger may be configured to impart a radial component to blow flow through the heat exchanger and/or gas exchanger. The heat exchanger may be configured to cause blood flow to follow a spiral flow path.
DEGASSING UNIT
A degassing module that may be used in conjunction with a sorbent regeneration cartridge is described. The degassing module may include an air inlet port, a fluid outlet port, a gas outlet port, first and second channels located in an interior chamber, a port connecting the first and second channels, and a hydrophobic membrane positioned above the second channel. The first channel may be in fluid communication with the air inlet port and the second channel may be in communication with the fluid outlet port. In some embodiments, each of the first and second channels may have a spiral configuration.
Hemodialysis system including ultraviolet chamber(s)
A hemodialysis system including one or more ultraviolet chambers is disclosed. The hemodialysis system including a dialyzer arranged and configured to filter a patient's blood, a hemodialysis machine arranged and configured to pump, move, or the like dialysate through the dialyzer, the hemodialysis machine including an outlet valve and an outlet fluid flow path to pump or move dialysate from the hemodialysis machine to the dialyzer, and an inlet valve and an inlet fluid flow path to pump or receive dialysate from the dialyzer, and one or more ultraviolet chambers arranged and configured to kill bacteria, viruses, or a combination thereof. Thus arranged, by incorporating one or more ultraviolet chambers in strategic areas of the system, the ultraviolet chambers may eliminate, or at least greatly reduce, the possibility of cross-contamination in, for example, the dialysate, and thus eliminate the need for disinfecting the system between treatments.
FLOW COMPONENT PARTICULARLY FOR HAEMODIALYSIS MEDICAL LINES
A flow component particularly for haemodialysis medical lines includes a duct having a first and a second end tubular connector coaxial to each other and designed to be connected to the line, and an intermediate tubular connector of the female luer type arranged orthogonally to the duct. A hollow elastic element substantially extends along the entire intermediate tubular connector and the body is internally configured so that, in use, the flow along the duct is partly diverted towards the intermediate tubular connector and introduced with a swirling motion along the cavity of the hollow elastic element.
System for humidification of medical gases
A humidifier for delivering humidified gases to a patient includes an inlet, an outlet, a gases flow path extending from the inlet to the outlet, a permeable wall, a liquid reservoir, and a heater. The permeable wall separates the gases flow path from the liquid reservoir. The heater heats liquid stored in the liquid reservoir to form vapour, and the vapour passes through the permeable wall to the gases flow path to humidify gases in the gases flow path. Another inline humidifier for delivering humidified gases to a patient includes an inlet and an outlet and holds a tape made of hydrophilic or hygroscopic material. The tape is pre-soaked with water and can include a heating element. The heating element heats the tape and the stored water to release the stored water as vapour and thereby humidify gases passing through the inline humidifier.