Abstract: A breakaway medical connector can include a housing with engagement features that interface with corresponding engagement features on a breakaway member so that the breakaway is attached to the housing. A second connector can couple to the breakaway member to provide a fluid connection between the first connector and the second connector. If a force above a threshold is applied that pulls the second connector apart from the breakaway connector, the engagement features can be overcome and the breakaway member can detach from the housing. The second connector can detach from the first connector along with the breakaway member. The connector can have a valve that closes the fluid pathway upon the separation of the breakaway member from the housing. The connector can impede reconnection after the breakaway disconnection. The connector can permit reconnection using a tool that disinfects the connector.

Abstract: A medical connector can include a threaded connection fitting configured to couple to a medical implement by rotation of the medical implement in a tightening direction relative to the threaded connection fitting. The threaded connection fitting can include one or more first engagement features. The connector can have a fluid pathway for transferring fluid through the device and a rotation mechanism. The rotation mechanism permits the threaded connection fitting to rotate in a loosening direction relative to the housing, such as to impede unintended disconnection of the medical implement from the threaded connection fitting. In some cases, the connector can have a disengaged configuration that permits the threaded connection fitting to rotate relative to the housing in the tightening direction and in the loosening direction.

Abstract: A protection circuit senses when one supply circuit in a group is activating to deliver current to a circuit component and issues firing signals to simultaneously activate other supply circuits in the group. The supply circuits may deliver large currents and high power. The protection circuit may prevent damage to a system that might otherwise occur if one supply circuit in the group activates in isolation.

Abstract: Provided is disclosure for embodiments providing delivery of chemicals for conditioning a brush offline, where the brush is not coupled to a machine that makes use of the brush to clean a surface of an object.

Abstract: Systems and methods of forming a brush for advanced semiconductor contact cleaning applications are disclosed. For example, a contact surface or surfaces, such as a nodule, of a brush can be cut by a laser cutting system. The use of a laser cutting system allows for uniform cutting of the contact surface across a length of the brush.

Abstract: A fluid transfer device can include a first attachment portion configured to engage a first port of a source container and a second attachment portion configured to engage a second port of an intermediate container. The first attachment portion can include a first projection defining a first fluid passage and the second attachment portion can include a second projection defining a second fluid passage. The fluid transfer device can further include a selector portion for selectively transitioning the fluid transfer device from a first configuration in which a flow path between the first and second fluid passages is closed to a second configuration in which the flow path between the first and second fluid passages is open. The fluid transfer device can further include a limiter configured to inhibit the selector portion from selectively transitioning the fluid transfer device from the first configuration to the second configuration.

Abstract: Disclosed herein are delivery systems including coated and uncoated yarns, yarn precursors, threads, fibers, and other substrates for the constant or near-constant release of active compounds, as well as methods for manufacturing such delivery systems. The yarns, yarn precursors, threads, fibers, and other substrates can include a cross-linked hydrophobic elastomer and an active compound. One or more coatings that are impermeable or substantially impermeable to the active compound may partially or fully occlude the yarn or substrate to control release rates of the active compound. The delivery systems may be used in a variety of applications, including the making of articles of clothing, textiles, and fabrics, and may be used in methods of treating various conditions and diseases.

Abstract: An example of an electronic medical fluid transfer device can comprise a fluid transfer module with a multidirectional flow control valve and an intermediate container or pumping region, a sensor configured to detect whether at least one of a vacuum or gas is present in the fluid transfer module, a first electromechanical driver configured to interface with and control the multidirectional flow control valve on the fluid transfer module, a second electromechanical driver configured to be mechanically linked to and control the intermediate container or pumping region according to an operational parameter, and one or more computer processors configured to communicate electronically with the sensor and the first and second electromechanical drivers to determine the operational parameter based on a flow characteristic of medical fluid to be transferred and adjust the operational parameter based on output of the sensor.

Abstract: A breakaway medical connector can include a housing with engagement features that interface with corresponding engagement features on a breakaway member so that the breakaway is attached to the housing. A second connector can couple to the breakaway member to provide a fluid connection between the first connector and the second connector. If a force above a threshold is applied that pulls the second connector apart from the breakaway connector, the engagement features can be overcome and the breakaway member can detach from the housing. The second connector can detach from the first connector along with the breakaway member. The connector can have a valve that closes the fluid pathway upon the separation of the breakaway member from the housing. In some embodiments, the breakaway member can be reattached to the housing, such as to reestablish fluid communication between the breakaway medical connector and the second medical connector.

Abstract: Methods for manufacturing drug delivery systems are provided. The drug delivery systems may include a substrate coated with at least one polymer and at least one active compound. The substrate may include yarns, yarn precursors, threads, filaments, fibers, and/or other suitable substrates. The methods may include disposing a solution including a monomer and an active compound on the substrate. The methods may also include exposing the solution and the substrate to UV light to initiate polymerization of the solution.

Abstract: Provided is a disclosure for a brush for cleaning a surface, where the brush comprises a center core and cleaning material around the center core. Modules are found on the cleaning material, where nodule density on the cleaning material varies. Accordingly, a first nodule density of a first region of the cleaning material is different than a second nodule density of a second region of the cleaning material.

Abstract: Disclosed herein are delivery systems including coated and uncoated yarns, yarn precursors, threads, fibers, and other substrates for the constant or near-constant release of active compounds, as well as methods for manufacturing such delivery systems. The yarns, yarn precursors, threads, fibers, and other substrates can include a cross-linked hydrophobic elastomer and an active compound. One or more coatings that are impermeable or substantially impermeable to the active compound may partially or fully occlude the yarn or substrate to control release rates of the active compound. The delivery systems may be used in a variety of applications, including the making of articles of clothing, textiles, and fabrics, and may be used in methods of treating various conditions and diseases.

Abstract: Provided is disclosure for hybrid material post-CMP brushes and methods for forming the same. Embodiments of a hybrid material post-CMP brush may comprise at least two layers, where the hybrid brush is used to clean various surfaces, such as surfaces of semiconductor substrates. An example hybrid brush for cleaning a surface includes a mandrel, a molded first layer formed about the mandrel, where the molded first layer comprises a first material, and a molded second layer surrounding the molded first layer, where the molded second layer comprises a second material.

Abstract: A fluid transfer device can include a first attachment portion configured to engage a first port of a source container and a second attachment portion configured to engage a second port of an intermediate container. The first attachment portion can include a first projection defining a first fluid passage and the second attachment portion can include a second projection defining a second fluid passage. The fluid transfer device can further include a selector portion for selectively transitioning the fluid transfer device from a first configuration in which a flow path between the first and second fluid passages is closed to a second configuration in which the flow path between the first and second fluid passages is open. The fluid transfer device can further include a limiter configured to inhibit the selector portion from selectively transitioning the fluid transfer device from the first configuration to the second configuration.

Abstract: Methods for manufacturing drug delivery systems are provided. The drug delivery systems may include a substrate coated with at least one polymer and at least one active compound. The substrate may include yarns, yarn precursors, threads, filaments, fibers, and/or other suitable substrates. The methods may include disposing a solution including a monomer and an active compound on the substrate. The methods may also include exposing the solution and the substrate to UV light to initiate polymerization of the solution.

Abstract: An example of an electronic medical fluid transfer device can comprise a fluid transfer module with a multidirectional flow control valve and an intermediate container or pumping region, a sensor configured to detect whether at least one of a vacuum or gas is present in the fluid transfer module, a first electromechanical driver configured to interface with and control the multidirectional flow control valve on the fluid transfer module, a second electromechanical driver configured to be mechanically linked to and control the intermediate container or pumping region according to an operational parameter, and one or more computer processors configured to communicate electronically with the sensor and the first and second electromechanical drivers to determine the operational parameter based on a flow characteristic of medical fluid to be transferred and adjust the operational parameter based on output of the sensor.

Abstract: Drug delivery systems and wearable articles including the drug delivery systems are provided. The drug delivery systems may include a substrate coated with at least one polymer and at least one active compound. The substrate is operable to include yarns, yarn precursors, threads, filaments, fibers, and/or other suitable substrates. Methods for manufacturing drug delivery systems are also provided. The methods are operable to include disposing a solution including a monomer and an active compound on the substrate. The methods are also operable to include exposing the solution and the substrate to UV light to initiate polymerization of the solution.

Abstract: A fluid transfer device can include a first attachment portion configured to engage a first port of a source container and a second attachment portion configured to engage a second port of an intermediate container. The first attachment portion can include a first projection defining a first fluid passage and the second attachment portion can include a second projection defining a second fluid passage. The fluid transfer device can further include a selector portion for selectively transitioning the fluid transfer device from a first configuration in which a flow path between the first and second fluid passages is closed to a second configuration in which the flow path between the first and second fluid passages is open. The fluid transfer device can further include a limiter configured to inhibit the selector portion from selectively transitioning the fluid transfer device from the first configuration to the second configuration.

Abstract: A system for monitoring contamination level of effluent of an offline brush conditioning system includes a first set of reservoirs configured to collect first effluents from corresponding portions of a first brush and a second set of reservoirs configured to collect second effluents from corresponding portions of a second brush, and the first and second effluents are from a fluid used to condition the first and second brushes that are configured to clean a surface of a semiconductor wafer. An effluent contamination monitor is configured to monitor contamination levels of the first and second effluents, wherein the monitored contamination levels may provide feedback for use in the brush conditioning.