A transcranial fastening device (1) for a drainage catheter (3), comprising an external body (5) being equipped with a passage (P), the passage (P) being equipped with blocking means (9) of the drainage catheter (3) adapted to allow a sliding of the drainage catheter (3) through the passage (P) along a first movement direction (M1) and to prevent a sliding of the drainage catheter (3) through the passage (P) along a second movement direction (M2).

Fluid communication devices and supporting structures may be provided for use with intraosseous devices. Apparatus and methods may also be provided to communicate fluids with an intraosseous device.

An antimicrobial medical device for use during the placement of a catheter. The antimicrobial medical device includes a tubular body configured to receive the catheter through a lumen of the tubular body during an intravascular procedure and wall of the tubular body forms a liner between catheter and the patient's skin. The device further includes an antimicrobial material coupled with the tubular body so that in use the antimicrobial material inhibits microbe growth at the insertion site.

Catheters, vascular access devices using such catheters, methods of using such catheters and uses of such catheters are disclosed. The catheter comprises polymeric tubing including a composition that can be magnetized by application of an externally applied magnetic field, thereby magnetizing the tubing. Detection of the magnetic field provides location information for the catheter in the vasculature.

Systems, methods and devices are described including a catheter adapter subassembly including a magnetic feature. Systems include such a catheter adapter subassembly and a needle subassembly including a magnetic feature, and relative movement of the catheter adapter subassembly and the needle subassembly can be determined using a magnetometer.

A septum for a port is provided, the septum having a top wall and a side wall. The side wall can include a pressure-activated valve element for regulating the flow of fluid across the valve. The curvature of the side wall and the geometry of the sidewall and the housing can be tailored to bias the valve element to open at different pressures during infusion and aspiration. The side wall can also include an extended portion that can function as a suture wing for securing the port within a port pocket.

Invasive medical devices including a substantially non-eluting antimicrobial treatment are disclosed. One or more external and/or internal surfaces of the medical device include a substantially non-eluting copper-coated surface that assists in preventing microbial colonization of the coated surface. This in turn reduces the incidence of infection to the patient originating from the medical device. In one embodiment, a catheter assembly is disclosed and comprises an elongate catheter tube that defines at least one lumen, at least one extension leg including a luer connector, and a bifurcation hub including at least one fluid passageway that provides fluid communication between the extension leg and the lumen. A substantially non-eluting copper coating is disposed on a surface of at least one of the lumen, the extension leg, the luer connector, and the fluid passageway. The coating is applied via an electroless deposition process. A water-shed coating is disposed on the copper coating.

A stabilizing connector includes a connector portion and a stabilization portion. The connector portion is configured to couple to an access device. The connector portion defines at least one lumen that is configured to be placed in fluid communication with a lumen of the access device. The stabilization portion is coupled to the connector portion. The stabilization portion is configured to be placed in contact with a surface of a patient's skin to stabilize at least one of the stabilizing connector or the access device.

The implantable nerve blocking intervention involves performing a first subdermal incision on the ventral lateral portion of the patient's thorax. A first end of a tunneling device is inserted through the first subdermal incision. The tunneling device is traversed below the patient's dermal layer towards the mid axillary line. The tunneling device is traversed above the lower section of the rib cage towards the patient's paralumbar line. A longitudinal paramidline incision is performed about 3 inches lateral to the vertebral body and the tunneling device. A needle or trocar tip is inserted through the paramidline incision towards a primitive cluster of nerves and a catheter is placed through the needle or trocar which is removed prior to anchoring the catheter. A catheter tube is inserted through the length of the tunneling device. The catheter tube is coupled to the distal catheter. The tunneling device is retracted over the catheter tube. The catheter tube is coupled to a percutaneous access port.

A catheter device according to one aspect of the present invention includes: a tube to be inserted into a body; a light emitting unit, which is provided on a distal end side of the tube, and includes an infrared light emitting element configured to emit infrared light for verifying a position of the tube; a power supply line configured to supply electric power to the infrared light emitting element; and a conduction detection unit including a visible light emitting element configured to notify a conduction state between the power supply line and the infrared light emitting element by means of visible light. With the catheter device, operation of the light emitting unit can be visually checked before inserting the tube.