An endotracheal tube cleaning device, including a rod, and a cleaning head coupled to a distal end of the rod, including a low friction-generating surface; and a high friction-generating surface, wherein the low friction-generating surface contacts an inner surface of the endotracheal tube when moved along the tube in a first direction and the high friction-generating surface contacts the inner surface of the endotracheal tube when moved in a second, opposite direction.

Provided are a drug layer applying device and a method for forming a drug layer which can quickly and easily apply or provide an appropriate amount of a drug on a surface of a medical instrument such as a balloon. A drug layer applying device that applies a drug layer on a surface of a balloon to be inserted into a living body, includes: a deformable porous body capable of holding a coating solution containing a drug and a solvent; a removal unit that is flexibly deformable and arranged alongside the porous body; and a holding base that holds the porous body and the removal unit.

An instrument advancement device may include a housing, which may include a slot. The instrument advancement device may be configured to couple to a catheter assembly. The instrument advancement device may include an advancement element, which may extend through the slot and may be configured to move linearly along the slot between a retracted position and an advanced position. In response to movement of the advancement element from a retracted position to an advanced position, an instrument of the instrument advancement device may be advanced beyond a distal end of the housing and may be configured to open a path through an occlusion in the catheter assembly or vasculature. The instrument advancement device may include a septum that includes a shape and/or a lube to reduce septum resistance and buckling of the instrument during advancement of the instrument.

A vascular access system can have a probe with a dynamically expandable distal end. The dynamically expandable probe can be inserted through a catheter while the catheter is positioned intravenously to facilitate fluid flow into or out from the catheter such as by moving an occlusion away from the catheter tip, removing an occlusion, accessing additional sources of blood and/or repositioning the catheter tip. Because it is dynamically expandable, the probe can minimize the likelihood that it will become occluded while it is inserted intravenously and may provide control over the rate of fluid flow into or out from the catheter.

An instrument delivery device may include a housing, which may include a proximal end, a distal end, and a slot. The instrument delivery device may include an advancement element extending through the slot and configured to move linearly along the slot. The instrument delivery device may include a guidewire, which may include a first end and a second end. In response to movement of the advancement element distally a first distance along the slot, the second end of the guidewire may be configured to advance a second distance. The second distance may be at least twice the first distance. The instrument delivery device may include a tubing, which may include a distal end and a proximal end. In response to movement of the advancement element distally the first distance along the slot, the proximal end of the tubing may be configured to advance the first distance.

A catheter assembly may include an adapter having a distal end, a proximal end, a side port, and an adapter lumen. The catheter assembly may include a catheter hub, which may include a distal end, a proximal end, a catheter hub lumen, and another side port. The catheter assembly may include an extension tube. A distal end of the extension tube may be coupled to the other side port, and the distal end of the adapter may be coupled to a proximal end of the extension tube. A fluidic seal may be formed around a tube of an instrument advancement device when the tube is advanced into the adapter. As an example, a portion of the adapter lumen between the distal end of the adapter and the side port may include an annular protrusion configured to form the fluidic seal.

The disclosure provides a method for preventing infection and microbial ingress in medical device connections between tubing sets and medical devices. The tubing set includes a male connector with a distal tip and a recess at the distal tip configured to trap bacterial, and deliver and confine antimicrobial into solution within a cavity formed by the recess. The surface of the recess includes an antimicrobial composition. In certain implementations a male luer comprises a tapered sealing member further comprising a recess containing chlorhexidine acetate.

A single use pre-filled delivery device is disclosed having a deformable container including a side wall having an inside surface defining a chamber for retaining fluid, a clip element, and a locking element. The deformable container further includes a closed proximal end and an open distal end including a male luer tip having a passageway therethrough providing fluid communication with the chamber. The male luer tip may be removably connectable to a female luer connection of a vascular access device. The clip element includes a distal end, proximal end, and a pivot located between the distal end and the proximal end of the clip element for collapsing the deformable container to drive fluid out of the chamber by movement of the proximal end towards the distal end. The pivot may be a hinge, which may be in the form of a living hinge. The deformable container may be attached to the clip element. The locking element may be disposed on the clip element. A method of administering a fluid to a vascular access device using a single use pre-filled delivery device as described herein is also disclosed.

Drainage devices and microactuator systems adapted to be incorporated into drainage devices to provide a self-clearing capability for reducing obstructions in the drainage devices and/or a self-monitoring capability to confirm the overall operating condition of the drainage devices and their microactuators. Such a microactuator system includes a microactuator having a base, a cantilever comprising a flexure extending from the base and a plate structure at a distal end of the flexure, a sensing element on the flexure for sensing deflection of the cantilever, and a device for inducing an oscillating deflection of the cantilever relative to the base.

The invention involves a system and method for straightening and refurbishing medical catheters. The system includes the steps and equipment to repair bends and kinks which prevent proper usage of the catheter for a medical procedure. The system and method further checks electrical conductivity and resistance if needed. The catheters are then cleaned and repackaged for shipment and use.