Abstract: A venous access device includes a hub and a bifurcated cannula. The hub includes a bifurcated connecting arm, a blood sampling arm connected to the bifurcated connecting arm, a fluid transfer arm connected to the bifurcated connecting arm, a blood sampling channel and a fluid transfer channel. The blood sampling channel passes through the blood sampling arm and the bifurcated connecting arm. The fluid transfer channel passes through the fluid transfer arm and the bifurcated connecting arm. The bifurcated cannula is coupled to the bifurcated connecting arm and includes a blood sampling lumen having a blood sampling port, a fluid transfer lumen having a fluid transfer port, and a dividing member separating the blood sampling lumen from the fluid transfer lumen. The blood sampling port is 2 mm to 20 mm proximal from the fluid transfer port. The blood sampling channel is fluidly connected to the blood sampling lumen, and the fluid transfer channel is fluidly connected to the fluid transfer lumen.

Abstract: A venous access device includes a hub and a bifurcated cannula. The hub includes a bifurcated connecting arm, a blood sampling arm connected to the bifurcated connecting arm, a fluid transfer arm connected to the bifurcated connecting arm, a blood sampling channel and a fluid transfer channel. The blood sampling channel passes through the blood sampling arm and the bifurcated connecting arm. The fluid transfer channel passes through the fluid transfer arm and the bifurcated connecting arm. The bifurcated cannula is coupled to the bifurcated connecting arm and includes a blood sampling lumen having a blood sampling port, a fluid transfer lumen having a fluid transfer port, and a dividing member separating the blood sampling lumen from the fluid transfer lumen. The blood sampling port is 2 mm to 20 mm proximal from the fluid transfer port. The blood sampling channel is fluidly connected to the blood sampling lumen, and the fluid transfer channel is fluidly connected to the fluid transfer lumen.

Abstract: Methods and compositions related to intracellular delivery of gene editing proteins are provided. The invention relates to compositions and methods for transporting gene editing polypeptides, such as Cas9 or Cas12, into a cell ex vivo or in vivo. The invention includes a targeted active gene editing (TAGE) agent that includes an extracellular cell membrane binding moiety, e.g., an antigen binding polypeptide, a cell penetrating peptide (CPP), a ligand, or combinations thereof, that specifically binds to an extracellular cell membrane-bound molecule (e.g., a cell surface molecule), and a site-directed modifying polypeptide that recognizes a nucleic acid sequence. The extracellular cell membrane binding moiety (e.g.

Abstract: A venous access device includes a hub and a bifurcated cannula. The hub includes a bifurcated connecting arm, a blood sampling arm connected to the bifurcated connecting arm, a fluid transfer arm connected to the bifurcated connecting arm, a blood sampling channel and a fluid transfer channel. The blood sampling channel passes through the blood sampling arm and the bifurcated connecting arm. The fluid transfer channel passes through the fluid transfer arm and the bifurcated connecting arm. The bifurcated cannula is coupled to the bifurcated connecting arm and includes a blood sampling lumen having a blood sampling port, a fluid transfer lumen having a fluid transfer port, and a dividing member separating the blood sampling lumen from the fluid transfer lumen. The blood sampling port is 2 mm to 20 mm proximal from the fluid transfer port. The blood sampling channel is fluidly connected to the blood sampling lumen, and the fluid transfer channel is fluidly connected to the fluid transfer lumen.

Abstract: Various implementations described herein are directed to technologies for capturing marine electronics data. An apparatus includes a processor and a memory having a plurality of executable instructions that are executed by the processor. The processor receives a first request to capture data. The processor generates a command in response to the first request. The processor sends the command across a network to one or more devices capable of responding to the command. The command may include at least timestamp data and a second request for each of the one or more devices to collect data that each of the one or more devices is configured to collect.

Abstract: Winding wire articles may include a conductor formed into a predefined shape having at least one bend. Additionally, a plurality of cavities may be formed within the conductor. Insulation may also be formed around the conductor.

Abstract: A continuously transposed conductor (CTC) cable may include a plurality of electrically insulated strands arranged in first and second stacks with the plurality of strands successively transposed between the first and second stacks. The plurality of strands may include at least one strand having a plurality of component strands that are arranged in third and fourth stacks with the plurality of component strands successively transposed between the third and fourth stacks. Each of the components strands may include a conductor and insulation formed at least partially around the conductor.

Abstract: Winding wire articles may include a conductor formed into a predefined shape having at least one bend. Additionally, a plurality of cavities may be formed within the conductor. Insulation may also be formed around the conductor.

Abstract: Various implementations described herein are directed to technologies for capturing marine electronics data. An apparatus includes a processor and a memory having a plurality of executable instructions that are executed by the processor. The processor receives a first request to capture data. The processor generates a command in response to the first request. The processor sends the command across a network to one or more devices capable of responding to the command. The command may include at least timestamp data and a second request for each of the one or more devices to collect data that each of the one or more devices is configured to collect.

Abstract: Various implementations described herein are directed to technologies for capturing marine electronics data. An apparatus includes a processor and a memory having a plurality of executable instructions that are executed by the processor. The processor receives a first request to capture data. The processor generates a command in response to the first request. The processor sends the command across a network to one or more devices capable of responding to the command. The command may include at least timestamp data and a second request for each of the one or more devices to collect data that each of the one or more devices is configured to collect.

Abstract: A ureteral stent comprises an internal portion, which comprises a first polymer, and an external portion, which comprises a second polymer. The external portion surrounds the internal portion and has a plurality of radial projections that extend along the length of the ureteral stent. The second polymer has a Shore D hardness of 20-40 Shore D. The first polymer has a Shore D hardness that is at least 10 units greater than the Shore D hardness of the second polymer.

Abstract: A continuously transposed conductor (CTC) cable may include a plurality of electrically insulated strands arranged in two stacks with the plurality of strands successively transposed between the two stacks. Each strand may include a conductor and insulation formed at least partially around the conductor. Additionally, each strand may have a cross-sectional area that is less than approximately 0.0030 square inches. As a result, the CTC cable may be suitable for use in electrical devices relatively smaller than those associated with conventional CTC cables.

Abstract: A ureteral stent comprises an internal portion, which comprises a first polymer, and an external portion, which comprises a second polymer. The external portion surrounds the internal portion and has a plurality of radial projections that extend along the length of the ureteral stent. The second polymer has a Shore D hardness of 20-40 Shore D. The first polymer has a Shore D hardness that is at least 10 units greater than the Shore D hardness of the second polymer.

Abstract: Various implementations described herein are directed to technologies for capturing marine electronics data. An apparatus includes a processor and a memory having a plurality of executable instructions that are executed by the processor. The processor receives a first request to capture data. The processor generates a command in response to the first request. The processor sends the command across a network to one or more devices capable of responding to the command. The command may include at least timestamp data and a second request for each of the one or more devices to collect data that each of the one or more devices is configured to collect.

Abstract: Disclosed are methods, apparatuses, and systems with regard to laminations. In an embodiment, an apparatus includes a lamination having a variable thickness and a spacer connected with the lamination at a location, wherein the location of the spacer is based on a determined thickness of the lamination.

Abstract: A ureteral stent comprises an internal portion, which comprises a first polymer, and an external portion, which comprises a second polymer. The external portion surrounds the internal portion and has a plurality of radial projections that extend along the length of the ureteral stent. The second polymer has a Shore D hardness of 20-40 Shore D. The first polymer has a Shore D hardness that is at least 10 units greater than the Shore D hardness of the second polymer.

Abstract: The present invention provides a multilayer film for forming medical solution pouches that help prevent or reduce the presence of bubbles or foam in the solution after heat sterilization. In particular, the present invention provides a multilayer film for forming medical solution pouches that are capable of passing the bubble test as set forth in the Chinese State Drug Package Container Material Standard No. YBB00112005. In particular, the present invention provides a multilayer film in which polyamide 612 or calcium stearate component has been incorporated as an anti-foaming agent. The presence of polyamide 612 or calcium stearate in one or more layers of the film helps prevent the formation of foam in the solution after heat sterilization.

Abstract: Disclosed are methods, apparatuses, and systems with regard to laminations. In an embodiment, an apparatus includes a lamination having a variable thickness and a spacer connected with the lamination at a location, wherein the location of the spacer is based on a determined thickness of the lamination.

Abstract: The invention relates to a roof structure which can be formed from a reduced number of components with respect to a conventional structure. The structure is typically pitched or sloped and comprises a series of spaced apart trusses which are spanned by roof panels which form the external face of the roof. The panels are interlinked or engaged and may in one embodiment be provided with an inner face of insulating material. In one embodiment the panels and/or other components, such as the trusses, may be formed from plastics material.

Abstract: The presently disclosed subject matter relates generally to a system and method of generating at least one disinfecting gas within a package through a photochemical reaction. More particularly, the presently disclosed subject matter is directed to a system and method for controlled release of a generated gas from a polymeric film or lamination through selection of a suitable combination of lighting conditions.