A hemodialysis wand holder includes a container having a plurality of side walls configured to form an open top end and a cavity extending downwardly from the open top end. A lid is removably coupled to the open top end wherein the lid has at least one aperture formed therein. At least one hemodialysis wand is removably inserted through the at least one aperture such that the at least one hemodialysis wand is suspended above a bottom one of the side walls. A collection tray is adjustably situated along the bottom side wall. Such a collection tray is removably reciprocated along a linear travel path registered transverse to a front one of the side walls. A fluid-absorbent liner is removably positioned within the collection tray for receiving fluids dripping down from the at least one hemodialysis wand suspended partially within the cavity.

A fluid path set and method of use thereof is disclosed. The fluid path set includes a multi-patient fluid path section adapted for fluid connection to at least one pressurizing device, a per-patient fluid path section adapted for fluid connection with a patient, and a connector for removably and fluidly connecting the multi-patient fluid path section with the per-patient fluid path section. The connector includes a first connector member having an outer housing member and a first luer member recessed within the outer housing member, and a second connector member having a second threaded member and a second luer member recessed within the second threaded member. The first luer member and the second threaded member cooperate to securely and releasably connect the first connector member with the second connector member to establish removable fluid connection between the multi-patient fluid path section and the per-patient fluid path section.

A dialysis machine with machine-internal fluidics for dialysis fluid and a housing that at least partially encapsulates the fluidics, wherein the fluidics comprise an input line for fresh dialysis fluid to a dialyzer and an output line for used dialysis fluid from the dialyzer, each line equipped at their end sides with a connection port for a releasably coupling with the dialyzer, wherein the port of the input line and the port of the output line are each formed as a coupling integrated into the housing.

A heater-cooler apparatus of an extracorporeal perfusion system comprises at least one fluid circuit (102, 104) providing a supply of a heat transfer fluid to the perfusion system, a cold storage unit (266), and a refrigeration unit (250) for charging the cold storage unit (266). The cold storage unit (266) comprises a chamber (312) containing a liquid that freezes at a temperature above that to which the heat transfer fluid is cooled by the refrigeration unit (250), and a passage through which the heat transfer fluid is conveyed, the passage extending through the chamber (312). This allows a more effective cold storage unit to be provided.

A system for filtering vaporized medicinal compounds includes a vaporizer configured to release one or more volatilized medicinal compounds in gaseous form, together with solid or semi-solid particulate byproducts, and one or more removable filters for efficiently removing at least a portion of the particulate byproducts while allowing passage of medicinally active volatilized compounds. The vaporizer includes a mouthpiece through which one or more volatilized medicinal compounds may be drawn. The filter is made of a chemically inert material (e.g., polypropylene or other polyolefin) and may be configured to detachably interface with an exposed surface of a vaporizer mouthpiece. The filter acts to remove solid or semi-solid particulate matter passing through the mouthpiece with minimal chemical and/or physical interference with volatilized medicinal compounds, which pass through the filter. The removable filter can also prevent cross-contamination by multiple users of the vaporizer.

A nebulizer includes a main body (1), a spraying head (2) and an engagement structure (4). The main body (1) includes a body (11). The spraying head (2) includes a spraying seat (21) assembled to the body (11). The engagement structure (4) includes a notch (41) formed on one of the body (11) and the spraying seat (21), a T-shaped trench (42) formed on an inner wall of the notch (41), an engaging trench (43) formed on another one of the body (11) and the spraying seat (21), and a movable member (44) received in the notch (41). The movable member (44) is extended with a handle (441) exposed from the notch (41), a T-shaped block (442) slidably received in the T-shaped trench (42) and an engaging block (443) embedded in or separated from the engaging trench (43).

A heater-cooler apparatus of an extracorporeal perfusion system comprises at least one fluid circuit 102, 104 providing a supply of a heat transfer fluid to the perfusion system, a cold storage unit 266, and a refrigeration unit 250 for charging the cold storage unit 266. The cold storage unit 266 comprises a chamber 312 containing a liquid that freezes at a temperature above that to which the heat transfer fluid is cooled by the refrigeration unit 250, and a passage through which the heat transfer fluid is conveyed, the passage extending through the chamber 312. This allows a more effective cold storage unit to be provided.

In some embodiments, there may be provided methods, systems, and articles of manufacture for a cuff device configured to be coupled to a rigid bronchoscope. The cuff device may include a first hollow tube comprising a proximal port and a distal port, the proximal port sized with an inner diameter that slides and couples to an exterior surface of a second hollow tube portion of the rigid bronchoscope; a balloon circumscribing at least a portion of the first hollow tube, wherein the balloon is configured to have at least two modes a deflated mode and an inflated mode; and a pilot apparatus comprising a pilot balloon and pilot tubing for inflating the balloon.

A multi-dose disposable fluid delivery system includes at least one fluid container, a multi-use fluid path set, and a plurality of single-use fluid path sets. The at least one fluid container has a connection port configured for fluidly connecting with a first end of the multi-use fluid path set. The second end of the multi-fluid path set is configured for fluidly connecting to a fluid injection apparatus. The plurality of single-use fluid path sets is connected in sequence to define a fluid path extending from a first single-use fluid path set to a last single- use fluid path set. Each of the plurality single-use fluid path sets has a first end and a second end. The first end of the first single-use fluid path set is configured for connecting to a delivery line. The second end of the last single-use fluid path set is configured for connecting to the injection apparatus.

An apparatus and method for detecting intravenous (IV) infiltration and managing fluid delivery in an IV setup are disclosed. The apparatus includes a controller with an artificial intelligence (AI) engine to process real-time and historical IV parameters, a communication module for remote monitoring and control, and a sensing arm with sensors to monitor parameters like pressure, flow rate, temperature, acoustic signals, and air bubbles within the IV line. A first clamp and a second clamp are attachable to the IV line to selectively occlude fluid flow. Syringe holders connected to the IV line via an aggregation tube or Luer lock include a plunger control mechanism for adjustable injection timing, pressure, and volume. Monitored parameters are analyzed to detect IV infiltration, blockages, or abnormalities, and alerts are transmitted to medical professionals via the communication module or displayed on an integrated user interface, enabling real-time detection and dynamic adjustments.