According to various embodiments, a method and system to obtain access to a blood vessel underneath a skin layer that may preserve lifespan of the blood vessel and reduce executional skill variability may be provided. The method includes placing a guiding portion between the blood vessel and the skin layer; and configuring the guiding portion to receive and guide a needle to reach the same location of the blood vessel repeatedly and consistently; and forming a resultant scarred track between the blood vessel and the skin layer as the guiding portion is resorbed over time. The system includes a vascular access device configurable to first possess strength to penetrate through a tissue layer, subsequently possess flexibility to conform to the surrounding tissue beneath the tissue layer; and a guiding portion which may be resorbable, wherein the inlet includes a larger diameter compared to the outlet.

The system comprises of a fluid container, a replaceable applicator head and a compatible, viscous antiseptic solution. The primary advantage is substantially drip free application. The system is non-vented and non-collapsible. The fluid container is non-compressible and comprises a prepping solution, a threaded spout and a container seal. The applicator head consists of a body to which a foam pad is attached and a channel through which the solution flows into the foam when the applicator head is connected to the fluid container. The applicator head when fixed onto the fluid container breaks the seal and creates a continuous channel that is non-vented for the solution to flow into the foam pad.

The system comprises of a fluid container, a replaceable applicator head and a compatible, viscous antiseptic solution. The primary advantage is substantially drip free application. The system is non-vented and non-collapsible. The fluid container is non-compressible and comprises a prepping solution, a threaded spout and a container seal. The applicator head consists of a body to which a foam pad is attached and a channel through which the solution flows into the foam when the applicator head is connected to the fluid container. The applicator head when fixed onto the fluid container breaks the seal and creates a continuous channel that is non-vented for the solution to flow into the foam pad.

Absorbent surgical towels with reduced lint particle generation are provided. The surgical towels are formed from fibrous substrates containing binder material that limits lint particle generation to 5,000 or less according to INDA standard test 160.1. The binder material can limit lint particle generation to 500 or less.

Various irrigation fluid containment systems and components are disclosed. In some embodiments, the irrigation fluid containment system comprises a medical kit and/or an irrigation kit. In some embodiments, the irrigation fluid containment system comprises a medical basin and/or an irrigation basin. In some embodiments, the irrigation fluid containment system comprises an irrigation shield. In some embodiments, the irrigation fluid containment system comprises a suction hose.

The present disclosure relates to a system for disinfecting skin tissue around catheters. The system comprises an adaptor, wherein the adaptor defines a catheter entry opening for entry of a catheter into the adaptor and a catheter exit opening for exit of the catheter from the adaptor. The adaptor comprises an outer surface and an inner surface which defines an inner cavity for receiving at least a section of the catheter, wherein the inner cavity extends from the catheter entry opening to the catheter exit opening. The system further comprises at least one light source for emitting UVC light, wherein the light source is arranged such that the UVC light is emitted away from the adaptor. The disclosure further relates to a method of disinfecting skin tissue around a catheter inserted into the skin of a patient. The disclosure further relates to the use of a catheter in a system disclosed herein.

The present disclosure relates to a system for disinfecting skin tissue around catheters. The system comprises an adaptor, wherein the adaptor defines a catheter entry opening for entry of a catheter into the adaptor and a catheter exit opening for exit of the catheter from the adaptor. The adaptor comprises an outer surface and an inner surface which defines an inner cavity for receiving at least a section of the catheter, wherein the inner cavity extends from the catheter entry opening to the catheter exit opening. The system further comprises at least one light source for emitting UVC light, wherein the light source is arranged such that the UVC light is emitted away from the adaptor. The disclosure further relates to a method of disinfecting skin tissue around a catheter inserted into the skin of a patient. The disclosure further relates to the use of a catheter in a system disclosed herein.

An air gap retractor illumination system includes any suitable retractor such as a McCulloch with a channel in the blade to accommodate an air gap illuminator. The illuminator is preferably made from a suitable light conducting plastic material such as acrylic or polycarbonate or silicone. The illuminator has active portions in which light passes and inactive or dead zones in which light does not pass as a result of the configuration and orientation of the input, output and surfaces of the illuminator. The illuminator is formed to have an air gap surrounding any active portion of the illuminator extending from the light input to the light output portion. The dead zones may include elements to allow the illuminator to securely engage the retractor. The light output portion of the illuminator contains from two to eight output zones, each zone having specially designed output optical structures that control and direct light to escape the illuminator to shine onto a predetermined area of interest or to form one or more predetermined shapes or footprints.

An actuation input mechanism for a teleoperated surgical instrument may include an interface structure and a shaft connected to the interface structure. The interface structure may be engageable with a drive structure of an actuation interface assembly of a teleoperated surgical system to be driven by the drive structure. The shaft may be rotatable in response to the interface structure being driven. The interface structure may comprise a depression shaped and sized to receive a fingertip. The interface structure may further comprise one or more gripping features disposed in the depression. A surgical instrument for a teleoperated surgical system may include an instrument shaft, an end effector, and a force transmission mechanism. The force transmission mechanism may comprise an actuation input mechanism to transmit drive forces to actuate the surgical instrument, the actuation input mechanism including an interface structure and a shaft.

An absorbent cleaning device for use during a surgical procedure is disclosed. The absorbent cleaning device may comprise a substantially non-fibrous or non-particulate absorbent material and at least one opening. The opening may comprise a slit or channel and be configured to accommodate a portion of a medical appliance or an elongate medical device. The absorbent cleaning device may be configured to clean the medical appliance or the elongate medical device. The absorbent cleaning device may also be configured to retain or secure a medical appliance or elongate medical device during a surgical procedure.