A fluid infusion system includes an air pump connected to an accumulator tank to produce pressurized air that is stored in the accumulator tank. The system can include one or more fluid bag chambers wherein each fluid bag chamber includes an inflatable bladder positioned inside the fluid bag chamber to apply pressure on the fluid bag supported inside the chamber. The fluid bag can be connected by a tube set to deliver fluid from the fluid bag to a surgical tool at a surgical site. The fluid can, for example, be irrigation fluid or distention fluid. The system can include a controller connected to the pump to control the pump to produce the pressurized air and an adjustable pressure regulator can be connected between the accumulator tank and the inflatable bladder to control the pressure of air delivered to the inflatable bladder and the pressure that the fluid is delivered to the surgical tool. A pressure sensor can be connected between the adjustable pressure regulator and the inflatable bladder to measure the air pressure delivered to the inflatable bladder and send the air pressure measurements to the controller. The controller can configure the system display to show the air pressure measured by the pressure sensor.

A fluid warming device for warming fluids and delivering the fluids to a patient comprises an electrical heating component, a temperature sensor, and a control unit. The electrical heating component warms fluid passing through a fluid-carrying tube and may be positioned along the fluid-carrying tube at a desired location or embedded in the fluid-carrying tube while the control unit is positioned such that the display and user inputs are accessible to a caregiver. The control unit activates the electrical heating component until the fluid-carrying tube is warmed to a desired temperature within a Thermal Neutral Zone (TNZ) as sensed by the temperature sensor.

A surgical system includes a fluid source including a fluid inflow tube, a fluid delivery device coupled to the fluid inflow tube and configured to deliver fluid from the fluid source into a patient, a surgical instrument, and a control box coupled to the surgical instrument. The control box includes one or more waste heat-generating electronic components and a heat pipe assembly disposed in thermal communication with the one or more waste heat-generating electronic components. The fluid inflow tube is disposed in thermal communication with the heat pipe assembly of the control box such that the heat pipe assembly conducts heat away from the one or more waste heat-generating electronic components and heats fluid flowing through the fluid inflow tube.

A container for warming fluids, the container comprising an inlet port, an outlet port, and a fluid conduit configured for putting the inlet port in fluid communication with the outlet port and comprising one or more deflection sections. The fluid conduit has a non-constant maximum width in a direction of fluid flow through the fluid conduit. At least one of the one or more deflection sections further comprises an entry section and an exit section, each respective exit section being arranged downstream, in the direction of fluid flow, from each respective entry section. The maximum width of the fluid conduit decreases along the direction of fluid flow through the entry section over a first distance and the maximum width of the fluid conduit increases along the direction of fluid flow through the exit section over a second distance, the first distance and the second distance being different from one another. An apparatus for warming medical fluids including the container and an extracorporeal blood circuit including the container are also provided. An extracorporeal blood treatment apparatus including the apparatus for warming medical fluids and/or the extracorporeal blood circuit is also provided.

Aspects of the present disclosure provide for a patient warming system having a heating device configured to transfer heat to a patient based on a body heat score that indicates whether the patient is likely to sweat. The heating device includes a heater circuit configured to produce heat, the heater circuit thermally coupled to the patient. The heating device also includes a controller communicatively coupled to the heater circuit. The controller has one or more processors configured to receive one or more physiological indicators of the patient, determine the body heat score from one or more physiological indicators, determine whether the body heat score meets a score threshold, direct the heater circuit to produce a first amount of heat based on whether the body heat score meets a score threshold.

The invention relates to a vasodilation assembly for facilitating intravenous cannulation. The assembly comprises: (i) a flexible plastics sleeve (10); (ii) a heated air supply; and (iii) a conduit for conveying heated air from the air supply into the flexible plastics sleeve. The sleeve comprises an air inlet opening (12) for coupling to the conduit, and an opening (14) for accepting an appendage of a patient. The flexible plastics sleeve (10) is of a double-walled construction comprising transparent inner and outer sleeve layers (16, 18).

Systems and methods for a medical device configured to provide cooling to a tissue region are provided. The medical device may be configured to noninvasively or invasively cool the tissue region to a predetermined operating temperature via a two-phase heat transfer process.

A whole-body hyperthermia system for raising the body temperature of the entire body of an individual to a predetermined target temperature and for stabilizing the body temperature at the target temperature comprises an apparatus means for raising the body temperature at a rate of at least 1 C./hour, and at least a second thermal means for further adjusting the body temperature to the target temperature Tb. The second thermal means comprises a fluid circuit, which is at least partially within the individual, and a fluid, heated by a heat exchanger to a set temperature is circulated through the fluid circuit.

A system for directing fluid flow in a mattress is disclosed. The mattress comprises a base support layer which is configured to spatially locate at least one insert support layer. The insert layer comprises a conduit to allow fluid flow.

An attachment for a device for generating an airflow or for dispensing a fluid, which attachment is adapted to be inserted at least in sections into an external ear canal of a human or animal ear. The attachment has a connecting piece for connecting the attachment to the device for generating an airflow, and has a guide vane of tongue-like design with a guide vane base for guiding air flowing out of the device for generating an airflow via the connecting piece.