Abstract: A system for infusing a gas into a vascular access device may include a catheter interface, which may include a distal end, a proximal end, and a lumen extending between the distal end and the proximal end. The system may also include a connector disposed on an outer surface of the catheter interface. The connector may be configured to couple to a reservoir. The reservoir may include a housing, which may include an opening and an impermeable wall. The opening may be configured to couple to the connector of the catheter interface. The reservoir may also include a molecular precursor to a gaseous agent that is suspended in a hydrogel and disposed within the housing. The gaseous agent may be antimicrobial, antithrombogenic, or both antimicrobial and antithrombogenic.

Abstract: A catheter assembly or other elongate tubular device for use in establishing vascular or other access within the body of a patient is disclosed. The catheter assembly is equipped with one or more sensors that enable monitoring of one or more physiological aspects of the patient or physical aspect of the catheter assembly itself when the catheter assembly is disposed within the patient. Such aspects include central venous pressure, body temperature, ECG heart signals, oxygen levels, ultrasound data, glucose, etc. The catheter assembly includes the ability to wirelessly transmit or otherwise forward data relating to the detected physiological parameters to another location, such as a patient electronic medical record, smartphone or other mobile device, nurse station, etc. Catheter assemblies configured to detect the frequency of catheter flushing, flushing quality, etc., are also disclosed.

Abstract: A system for infusing a gas into a vascular access device may include a catheter interface, which may include a distal end, a proximal end, and a lumen extending between the distal end and the proximal end. The system may also include a connector disposed on an outer surface of the catheter interface. The connector may be configured to couple to a reservoir. The reservoir may include a housing, which may include an opening and an impermeable wall. The opening may be configured to couple to the connector of the catheter interface. The reservoir may also include a molecular precursor to a gaseous agent that is suspended in a hydrogel and disposed within the housing. The gaseous agent may be antimicrobial, antithrombogenic, or both antimicrobial and antithrombogenic.

Abstract: Disclosed herein are wound-healing systems and methods thereof. A wound-healing system can include a wound dressing, a catheter-stabilization device, and an electrical-stimulation means for applying electrical stimulation to heal or protect at least a wound associated with a percutaneous insertion site of a patient. The wound dressing can be configured as an electrode for placement around the wound. The catheter-stabilization device can include an anchor pad and a retainer coupled to the anchor pad. The anchor pad can be configured to adhere to skin of the patient proximate the insertion site. The retainer can be configured to stabilize a catheter assembly while a catheter tube of the catheter assembly is disposed in the insertion site. The electrical-stimulation means can include an electrical power source and an external circuit between the catheter-stabilization device and the wound dressing for applying the electrical stimulation.

Abstract: A catheter assembly or other elongate tubular device for use in establishing vascular or other access within the body of a patient is disclosed. The catheter assembly is equipped with one or more sensors that enable monitoring of one or more physiological aspects of the patient or physical aspect of the catheter assembly itself when the catheter assembly is disposed within the patient. Such aspects include central venous pressure, body temperature, ECG heart signals, oxygen levels, ultrasound data, glucose, etc. The catheter assembly includes the ability to wirelessly transmit or otherwise forward data relating to the detected physiological parameters to another location, such as a patient electronic medical record, smartphone or other mobile device, nurse station, etc. Catheter assemblies configured to detect the frequency of catheter flushing, flushing quality, etc., are also disclosed.

Abstract: An antimicrobial catheter assembly can include a non-eluting antimicrobial coating on an internal surface, an external surface, or both the internal surface and the external surface of the catheter assembly. The antimicrobial coating can be a composite of three or more layers including a copper-based layer between an outer corrosion-preventing layer of a corrosion-resistant metal and an inner adhesion promoting layer.

Abstract: Disclosed herein are wound-healing systems and methods thereof. A wound-healing system can include a wound dressing, a catheter-stabilization device, and an electrical-stimulation means for applying electrical stimulation to heal or protect at least a wound associated with a percutaneous insertion site of a patient. The wound dressing can be configured as an electrode for placement around the wound. The catheter-stabilization device can include an anchor pad and a retainer coupled to the anchor pad. The anchor pad can be configured to adhere to skin of the patient proximate the insertion site. The retainer can be configured to stabilize a catheter assembly while a catheter tube of the catheter assembly is disposed in the insertion site. The electrical-stimulation means can include an electrical power source and an external circuit between the catheter-stabilization device and the wound dressing for applying the electrical stimulation.

Abstract: An antimicrobial catheter assembly can include a hub, a catheter tube connected to the hub, at least one extension leg connected to the hub, and a non-eluting antimicrobial coating on an internal or external surface of the catheter assembly. The hub includes at least one hub lumen defining a corresponding hub portion of a fluid pathway through the catheter assembly. The catheter tube includes at least one catheter-tube lumen defining a corresponding catheter-tube portion of the fluid pathway through the catheter assembly. The extension leg can include an extension-leg lumen defining a corresponding extension-leg portion of the fluid pathway through the catheter assembly. The antimicrobial coating can include a copper-based layer between a corrosion-preventing layer and the internal or external surface of the catheter assembly, an adhesion-promoting layer between the copper-based layer and the internal or external surface of the catheter assembly, or a combination thereof.

Abstract: A multi-lumen catheter with coaxial geometry that provides for a tube within a tube design. The coaxial multi-lumen catheter is designed to minimize or preclude reflux incidents where liquids from one lumen can mix with the liquids from another lumen, or flow retrograde in the other lumen. The coaxial catheter geometry can provide for a secondary support from an outer lumen during infusion pressurization. For example, a fluid pressure from an outer lumen can support an inner lumen, preventing radial expansion. Alternatively a wall of the inner lumen can impinge on an outer wall to prevent further radial expansion. An outer lumen can terminate proximally of an inner lumen to provide different infusion sites along a patient's vasculature.

Abstract: A catheter assembly or other elongate tubular device for use in establishing vascular or other access within the body of a patient is disclosed. The catheter assembly is equipped with one or more sensors that enable monitoring of one or more physiological aspects of the patient or physical aspect of the catheter assembly itself when the catheter assembly is disposed within the patient. Such aspects include central venous pressure, body temperature, ECG heart signals, oxygen levels, ultrasound data, glucose, etc. The catheter assembly includes the ability to wirelessly transmit or otherwise forward data relating to the detected physiological parameters to another location, such as a patient electronic medical record, smartphone or other mobile device, nurse station, etc. Catheter assemblies configured to detect the frequency of catheter flushing, flushing quality, etc., are also disclosed.

Abstract: A venous catheter assembly includes a hub with opposing suture wings, an extension leg coupled to the hub, and an elongate catheter tube designed for insertion into a blood vessel of a patient. The elongate catheter tube is coupled to the hub and includes at least one fluid-carrying lumen within the outer wall extending between a proximal end and a distal end of the elongate catheter tube. The fluid-carrying lumen is in fluid communication with the extension leg and an opening in the outer wall at the distal end of the elongate catheter tube. The elongate catheter tube also includes at least one terminating lumen within the outer wall extending to a closed termination point.

Abstract: A medical device may include a body and a photosensitizer integrated with the body. The medical device may passively resist colonization of bacteria under ambient light. The medical device may also actively resist colonization of bacteria by releasing reactive oxidative species (ROS) in response to administration of a light dose in a range of 0.5 J/cm2 to 320 J/cm2, for a duration between 1 second and 1 hour. The body may be formed by a base resin. The photosensitizer may be compounded with the base resin. The photosensitizer may be imbibed into the base resin. The medical device may include a coating disposed on a surface of the body. The photosensitizer may be disposed within the coating. The medical device may include a catheter adapter and a catheter extending distally from the catheter adapter. The catheter may be co-extruded with the photosensitizer and another material.

Abstract: Surgical tissue repair technologies incorporating nitric oxide releasing materials which release nitric oxide into the surrounding tissue. The surgical tissue repair technologies include tissue repair devices, such as surgical meshes, vascular stents, surgical grafts, irrigation solutions, and other internal surgical tissue repair materials. The nitric oxide releasing compound may be a S-nitrosothiol compound, such as s-nitroso-n-acetyl penicillamine (SNAP), s-nitrosoglutathione (GSNO), and mixtures thereof. The tissue repair devices may further include a catalyst to facilitate release of nitric oxide. The devices may include a substrate coated with a coating incorporating the same or different nitric oxide releasing compound. The devices may include a substrate impregnated with the nitric oxide releasing compound and coated with a polymer-based coating incorporating the same or different nitric oxide releasing compound. The polymer-based coating may include diazeniumdiolate groups (NONOate groups).

Abstract: A catheter assembly or other elongate tubular device for use in establishing vascular or other access within the body of a patient is disclosed. The catheter assembly is equipped with one or more sensors that enable monitoring of one or more physiological aspects of the patient or physical aspect of the catheter assembly itself when the catheter assembly is disposed within the patient. Such aspects include central venous pressure, body temperature, ECG heart signals, oxygen levels, ultrasound data, glucose, etc. The catheter assembly includes the ability to wirelessly transmit or otherwise forward data relating to the detected physiological parameters to another location, such as a patient electronic medical record, smartphone or other mobile device, nurse station, etc. Catheter assemblies configured to detect the frequency of catheter flushing, flushing quality, etc., are also disclosed.

Abstract: A self-activating dressing for use with a medical device inserted into a skin surface of a patient via a skin insertion site. The dressing includes a dressing body impregnated with a nitric oxide releasing compound which reacts in the presence of a physiological fluid to release nitric oxide. Nitric oxide provides antimicrobial activity and promotes wound healing. The nitric oxide releasing compound may include s-nitroso-n-acetyl penicillamine (SNAP), s-nitrosoglutathione (GSNO), and mixtures thereof. A slit defined in the dressing body enables the dressing body to be placed around a perimeter of the medical device on the skin surface at the skin insertion site such that the dressing body surrounds and contacts skin insertion site. The dressing body may be further impregnated with a catalyst, such as copper, iron, zinc, selenium, and silver, to facilitate release of nitric oxide. The dressing body may be further impregnated with an additional antimicrobial agent.

Abstract: Diagnostic systems and methods including temperature-sensing vascular devices. A diagnostic system can include a catheter assembly for establishing vascular or other access within a body of a patient. The catheter assembly can be equipped with one or more sensors such as temperature sensors that enable monitoring of one or more physiological aspects of the patient, such as temperature, when a portion of the catheter assembly is disposed within the patient. The catheter assembly can be configured to transmit or otherwise forward data relating to the physiological aspects to another location, such as a console, a smartphone or another mobile device, a nurse station, a patient electronic medical record, etc. A method of the diagnostic system can include an instantiating step of instantiating in memory of the console a diagnostic process having one or more functions for at least processing temperature data from the catheter assembly.

Abstract: A system for infusing a gas into a vascular access device may include a catheter interface, which may include a distal end, a proximal end, and a lumen extending between the distal end and the proximal end. The system may also include a connector disposed on an outer surface of the catheter interface. The connector may be configured to couple to a reservoir. The reservoir may include a housing, which may include an opening and an impermeable wall. The opening may be configured to couple to the connector of the catheter interface. The reservoir may also include a molecular precursor to a gaseous agent that is suspended in a hydrogel and disposed within the housing. The gaseous agent may be antimicrobial, antithrombogenic, or both antimicrobial and antithrombogenic.

Abstract: Disclosed herein are wound-healing systems and methods thereof. A wound-healing system can include a wound dressing, a catheter-stabilization device, and an electrical-stimulation means for applying electrical stimulation to heal or protect at least a wound associated with a percutaneous insertion site of a patient. The wound dressing can be configured as an electrode for placement around the wound. The catheter-stabilization device can include an anchor pad and a retainer coupled to the anchor pad. The anchor pad can be configured to adhere to skin of the patient proximate the insertion site. The retainer can be configured to stabilize a catheter assembly while a catheter tube of the catheter assembly is disposed in the insertion site. The electrical-stimulation means can include an electrical power source and an external circuit between the catheter-stabilization device and the wound dressing for applying the electrical stimulation.

Abstract: A catheter configured to release nitric oxide and chlorhexidine providing anti-platelet and antimicrobial properties is manufactured by impregnating a thermoplastic polyurethane catheter extrusion with a nitric oxide releasing compound and with chlorhexidine. Thereafter, the impregnated catheter extrusion is coated with a polyurethane coating comprising chlorhexidine and/or a nitric oxide releasing compound. In the impregnating step, the catheter extrusion may be exposed to a solvent having the nitric oxide releasing compound and chlorhexidine dissolved therein. The solvent is removed from the catheter extrusion. In the coating step, the impregnated catheter extrusion may be dip coated in a polymer solution comprising polyurethane and chlorhexidine and/or a nitric oxide releasing compound in a suitable solvent. The nitric oxide releasing compound, impregnated and/or coated, may be selected from s-nitroso-n-acetylpenicillamine (SNAP), s-nitrosoglutathione (GSNO), and mixtures thereof.

Abstract: Briefly summarized, embodiments disclosed herein are directed to apparatus and methods for removing an occlusion from an indwelling catheter. The system can include a pressurized fluid conduit for delivering pressurized fluid to an occlusion site, and ablating the occlusion. A negative pressure source in fluid communication with the catheter lumen can then aspirate the occlusion. The positive pressure source can provide a pulsed pressurized fluid to facilitate ablation. The system can also include tip tracking and tip location systems to ensure the pressurized fluid conduit does not extend beyond the catheter lumen, causing damage to the vasculature. The system can further include an ultrasound transducer, coupled with one of the catheter and the pressurized fluid conduit to provide ultrasonic wave energy to the occlusion to further facilitate ablation thereof.