Abstract: A urinary catheter and container. The urinary catheter can include a catheter shaft attached to a handle and a coating disposed on an outer surface of the catheter shaft. The coating can include a hydrogel, water and/or glycerin, and a polyethylene gylcol (PEG). The PEG can have a molecular weight equal to or less than 600, for example one or more of polyethylene glycol (PEG) 300 and PEG 400. The coating can be applied in a wet state and remain wet for an extended period of time in the container, thereby obviating the need for a lubricant, such as a water sachet or gel package, to accompany the catheter in the container. The container can include a gas impermeable foil material. The container can include an adhesive tab covering a perforated section, the adhesive tab including a pull loop.

Abstract: Examples relate to portable urine collection systems and methods of use and assembly. The portable urine collection system (10) may include a urine collection device (12) configured to be positioned at least proximate to a urethra of a user, a conduit (17) in fluid communication with the urine collection device, a urine collection container (14) having an interior region, a pump (16) secured to the urine collection container and configured to promote urine from the urine collection device through the conduit into the urine collection container, and a sensor secured to the container and configured to detect a property relating at least to a volume of the urine in the urine collection container.

Abstract: An example fluid collection device includes a sheath at least partially defining a chamber sized and dimensioned to receive at least a portion of a penis of a user therein. The sheath includes a proximal end region defining an opening configured to receive at least a urethral opening of a penis and a distal end region opposite to the proximal end region. The sheath also includes a first layer and a second layer. The first layer includes at least a nonwoven fabric extending at least partially between the proximal end region and the distal end region. The second layer includes a fluid permeable multilayer fabric at least partially positioned between the first layer and the chamber. The fluid collection device also includes an aperture proximate to the distal end region configured to receive or secure to a tube effective to provide fluid communication between the chamber and the tube.

Abstract: A urinary catheter and container are described. The urinary catheter may have a catheter shaft attached to a handle, and a coating disposed on an outer surface of the catheter shaft. The coating may include a hydrogel, water and/or glycerin, and a polyethylene gylcol (PEG). The PEG may have a molecular weight equal to or less than 600, for example one or more of polyethylene glycol (PEG) 300 and PEG 400. The coating may be applied in a wet state and remain wet for an extended period of time in the container, thereby obviating the need for a lubricant, such as a water sachet or gel package, to accompany the catheter in the container. The container may include a gas impermeable foil material. The container may include an adhesive tab covering a perforated section, the adhesive tab including a pull loop.

Abstract: A method for reading data includes: receiving a data reading request; acquiring a data writing file in response to determining that the data reading request triggers a reading-writing conflict event, in which the data writing file includes a writing version number and transaction information; obtaining an adjusted writing version number by adjusting the writing version number based on the request version number in response to determining that the data reading request satisfies a version adjustment condition based on the request version number, the writing version number and the transaction information; and performing data reading based on the data reading address and the adjusted writing version number.

Abstract: A targeted temperature management (TTM) system is disclosed that includes a TTM module to provide a TTM fluid, a fluid delivery line (FDL) including a FDL hub, a fluid delivery lumen and a fluid return lumen, and a pad to facilitate thermal energy transfer between the TTM fluid and a patient, the pad including a fluid delivery conduit extending away from the pad portion and including a first leak prevention valve configured to enable the TTM fluid to flow in a distal direction while preventing flow in a proximal direction, and a fluid return conduit extending away from the pad portion, the fluid return conduit including (i) a return conduit connector at a proximal end thereof, and (ii) a second leak prevention valve configured to enable the TTM fluid to flow in the proximal direction while preventing flow in the distal direction.

Abstract: A targeted temperature management (TTM) system for providing a TTM fluid including a thermal pad is disclosed. The pad includes a fluid delivery conduit and a fluid return conduit extending continuously from the pad to the TTM module. Valves may be included in line with fluid delivery and fluid return conduits. The thermal pads include one or more conduit retention devices for binding the fluid conduits together. Methods of using the system are disclosed and include disposing a thermal pad in a storage configuring where the fluid conduits are wound together to form a coil, winding the fluid conduits together to form a coil, binding the windings together with a conduit retention device, and placing the coil underneath a stretchable band of the thermal pad.

Abstract: A urinary catheter and container are described. The urinary catheter may have a catheter shaft attached to a handle, and a coating disposed on an outer surface of the catheter shaft. The coating may include a hydrogel, water and/or glycerin, and a polyethylene gylcol (PEG). The PEG may have a molecular weight equal to or less than 600, for example one or more of polyethylene glycol (PEG) 300 and PEG 400. The coating may be applied in a wet state and remain wet for an extended period of time in the container, thereby obviating the need for a lubricant, such as a water sachet or gel package, to accompany the catheter in the container. The container may include a gas impermeable foil material. The container may include an adhesive tab covering a perforated section, the adhesive tab including a pull loop.

Abstract: A urinary catheter and container are described. The urinary catheter may have a catheter shaft attached to a handle, and a coating disposed on an outer surface of the catheter shaft. The coating may include a hydrogel, water and/or glycerin, and a polyethylene glycol (PEG). The PEG may have a molecular weight equal to or less than 600, for example one or more of polyethylene glycol (PEG) 300 and PEG 400. The coating may be applied in a wet state and remain wet for an extended period of time in the container, thereby obviating the need for a lubricant, such as a water sachet or gel package, to accompany the catheter in the container. The container may include a gas impermeable foil material. The container may include an adhesive tab covering a perforated section, the adhesive tab including a pull loop.

Abstract: A urinary catheter and container are described. The urinary catheter may have a catheter shaft attached to a handle, and a coating disposed on an outer surface of the catheter shaft. The coating may include a hydrogel, water and/or glycerin, and a polyethylene glycol (PEG). The PEG may have a molecular weight equal to or less than 600, for example one or more of polyethylene glycol (PEG) 300 and PEG 400. The coating may be applied in a wet state and remain wet for an extended period of time in the container, thereby obviating the need for a lubricant, such as a water sachet or gel package, to accompany the catheter in the container. The container may include a gas impermeable foil material. The container may include an adhesive tab covering a perforated section, the adhesive tab including a pull loop.

Abstract: A urinary catheter and container are described. The urinary catheter may have a catheter shaft attached to a handle, and a coating disposed on an outer surface of the catheter shaft. The coating may include a hydrogel, water and/or glycerin, and a polyethylene glycol (PEG). The PEG may have a molecular weight equal to or less than 600, for example one or more of polyethylene glycol (PEG) 300 and PEG 400. The coating may be applied in a wet state and remain wet for an extended period of time in the container, thereby obviating the need for a lubricant, such as a water sachet or gel package, to accompany the catheter in the container. The container may include a gas impermeable foil material. The container may include an adhesive tab covering a perforated section, the adhesive tab including a pull loop.

Abstract: A urinary catheter and container are described. The urinary catheter may have a catheter shaft attached to a handle, and a coating disposed on an outer surface of the catheter shaft. The coating may include a hydrogel, water and/or glycerin, and a polyethylene glycol (PEG). The PEG may have a molecular weight equal to or less than 600, for example one or more of polyethylene glycol (PEG) 300 and PEG 400. The coating may be applied in a wet state and remain wet for an extended period of time in the container, thereby obviating the need for a lubricant, such as a water sachet or gel package, to accompany the catheter in the container. The container may include a gas impermeable foil material. The container may include an adhesive tab covering a perforated section, the adhesive tab including a pull loop.

Abstract: Methods for the deposition of silver-comprising films on nonconducting substrates, and, more particularly, to deposition of such films that are very thin, are provided. The surface of nonconducting substrates is modified with a superabsorbent polymer to increase silver deposition when compared to a non-modified surface. Also provided are films produced using a swelling agent, whereby porosity of the surface of the nonconducting substrate is increased, thereby permitting increased silver deposition when compared to an unmodified surface.

Abstract: Methods for the deposition of silver-comprising films on nonconducting substrates, and, more particularly, to deposition of such films that are very thin, are provided. The surface of nonconducting substrates is modified with a superabsorbent polymer to increase silver deposition when compared to a non-modified surface. Also provided are films produced using a swelling agent, whereby porosity of the surface of the nonconducting substrate is increased, thereby permitting increased silver deposition when compared to an unmodified surface.

Abstract: Methods for the deposition of silver-comprising films on nonconducting substrates, and, more particularly, to deposition of such films that are very thin, are provided. The surface of nonconducting substrates is modified with a superabsorbent polymer to increase silver deposition when compared to a non-modified surface. Also provided are films produced using a swelling agent, whereby porosity of the surface of the nonconducting substrate is increased, thereby permitting increased silver deposition when compared to an unmodified surface.

Abstract: Methods for the deposition of silver-comprising films on nonconducting substrates, and, more particularly, to deposition of such films that are very thin, are provided. The surface of nonconducting substrates is modified with a superabsorbent polymer to increase silver deposition when compared to a non-modified surface. Also provided are films produced using a swelling agent, whereby porosity of the surface of the nonconducting substrate is increased, thereby permitting increased silver deposition when compared to an unmodified surface.