Abstract: There is disclosed a composition comprising cannabidiol (CBD) and one or more cannabinoids selected from cannabidiolic acid (CBDA), cannabigerol (CBG) and cannabigerolic acid (CBGA) for use in the treatment or prevention of inflammation and disorders associated with inflammation or an IL-6 related disorder.

Abstract: An example operation includes starting, by a vehicle, a timer when a pairing request is initiated; receiving, by the vehicle, a first response to the pairing request from a first device and a second response to the pairing request from a second device; recording the timer when each of the first response and the second response are received; determining a first connection time, from the recorded timer, for the first device, and determining a second connection time, from the recorded timer, for the second device; and connecting, by the vehicle, to a device having a fastest connection time among the first device and the second device.

Abstract: Ani-CD20 antibodies (e.g., UniAbs™) and CAR-T structures are disclosed, along with methods of making such antibodies and CAR-T structures, compositions, including pharmaceutical compositions, comprising such antibodies and CAR-T structures, and their use to treat disorders that are characterized by the expression of CD20.

Abstract: An agricultural sprayer includes a purge tank and first and second nozzles. Furthermore, the system includes a first valve fluidly configured to selectively permit air to flow to the first nozzle and a second valve fluidly configured to selectively permit the air to flow to the second nozzle. A computing system is configured to receive an input indicative of initiation of a purging operation and, upon receipt of the input, control an operation of a main valve to allow the air to flow through a main fluid conduit. Furthermore, the computing system is configured to monitor the air pressure associated with the purge tank and control the operation of the first and second valves during the purging operation based on the monitored air pressure.

Abstract: A sprinkler guard includes at least one plate centered relative to a central axis of the sprinkler guard. A plurality of legs includes first and second legs that are attached to one plate, and third and fourth legs that are attached to another plate. A circular ring is attached to lower ends of the first to fourth legs, a center of the circular ring coinciding with the central axis, and the first to fourth legs being spaced apart about the circumference of the circular ring. First and second arms are attached to the first and second legs, respectively. In addition, a cross bar can be attached to the circular ring and extend across a diameter of the circular ring.

Abstract: A gas spring-powered fastener driver includes a cylinder, a moveable piston positioned within the cylinder, a driver blade attached to the piston and movable therewith between a ready position and a driven position, a lifter to move the driver blade from the driven position to the ready position, and a transmission including an output shaft operatively coupled to the lifter to provide torque to the lifter. The fastener driver also includes an input to provide torque to the transmission and a clutch positioned downstream of the input and operably coupled to the output shaft to limit an amount of torque transferred to the output shaft and the lifter. In response to an application of a reaction torque to the output shaft above a predetermined threshold, torque from the input is diverted from the output shaft via the clutch.

Abstract: A jack assembly includes a body. The jack assembly also includes a lifting piston positioned at least partially above the body and configured to move up and down with respect to the body. The jack assembly also includes a lock collar positioned at least partially around the lifting piston. The lock collar is configured to move up and down with respect to the lifting piston in response to rotating the lock collar with respect to the lifting piston. The jack assembly also includes a load cell positioned at least partially around the lifting piston and between the body and the lock collar. The jack assembly is configured to support an object, which exerts a downward force onto the lifting piston. The downward force is transferred from the lifting piston to the lock collar to the load cell to the body. The load cell measures the downward force.

Abstract: Described herein are reagent compositions for detecting and/or measuring analytes in a test sample. In one embodiment, reagent compositions are described for detecting and/or measuring glucose in a sample.

Abstract: Described herein are reagent compositions for detecting and/or measuring analytes in a test sample. In one embodiment, reagent compositions are described for detecting and/or measuring glucose in a sample.

Abstract: An apparatus for smart integrated cyclic data transport is provided. The apparatus may preserve the consistency and integrity of a file during the transfer of the file from a source system to a target system. The apparatus includes an orchestration subsystem. The orchestration subsystem includes an analyzer/generator module. The analyzer/generator module executes an algorithm on the file at the source location. An output is generated from the executed algorithm. The apparatus includes a consistency module. The consistency module pre-checks the output at the source location for pretransfer validation and creates a copy of the output. The copy may preserve the consistency and the integrity of the file. The apparatus includes a data transfer subsystem which transfers the file and the output from the source system to the target system. The apparatus may also include a validation subsystem for validating the integrity and consistency of the file.

Abstract: An apparatus for smart integrated cyclic data transport is provided. The apparatus may preserve the consistency and integrity of a file during the transfer of the file from a source system to a target system. The apparatus includes an orchestration subsystem. The orchestration subsystem includes an analyzer/generator module. The analyzer/generator module executes an algorithm on the file at the source location. An output is generated from the executed algorithm. The apparatus includes a consistency module. The consistency module pre-checks the output at the source location for pretransfer validation and creates a copy of the output. The copy may preserve the consistency and the integrity of the file. The apparatus includes a data transfer subsystem which transfers the file and the output from the source system to the target system. The apparatus may also include a validation subsystem for validating the integrity and consistency of the file.

Abstract: Described herein are reagent compositions for detecting and/or measuring analytes in a test sample. In one embodiment, reagent compositions are described for detecting and/or measuring glucose in a sample.

Abstract: An apparatus for smart integrated cyclic data transport is provided. The apparatus may preserve the consistency and integrity of a file during the transfer of the file from a source system to a target system. The apparatus includes an orchestration subsystem. The orchestration subsystem includes an analyzer/generator module. The analyzer/generator module executes an algorithm on the file at the source location. An output is generated from the executed algorithm. The apparatus includes a consistency module. The consistency module pre-checks the output at the source location for pretransfer validation and creates a copy of the output. The copy may preserve the consistency and the integrity of the file. The apparatus includes a data transfer subsystem which transfers the file and the output from the source system to the target system. The apparatus may also include a validation subsystem for validating the integrity and consistency of the file.

Abstract: An apparatus for smart integrated cyclic data transport is provided. The apparatus may preserve the consistency and integrity of a file during the transfer of the file from a source system to a target system. The apparatus includes an orchestration subsystem. The orchestration subsystem includes an analyzer/generator module. The analyzer/generator module executes an algorithm on the file at the source location. An output is generated from the executed algorithm. The apparatus includes a consistency module. The consistency module pre-checks the output at the source location for pretransfer validation and creates a copy of the output. The copy may preserve the consistency and the integrity of the file. The apparatus includes a data transfer subsystem which transfers the file and the output from the source system to the target system. The apparatus may also include a validation subsystem for validating the integrity and consistency of the file.

Abstract: A method for assisting media access control (MAC) address learning is disclosed. The method includes receiving, at a first provider edge (PE) device, a data packet from a core network, the data packet identifying an Ethernet Segment (ES) from which the data packet originated and identifying a first MAC address as the destination MAC address; determining, at the first PE device, whether the first PE device has an Ethernet connection in the ES identified by the data packet and whether the first PE device has learned the first MAC address; and, upon positive determination, sending an announcement message to the core network, the announcement message identifying the first MAC address.

Abstract: A computer-implemented method for assisting Ethernet Segment (ES)-aware media access control (MAC) address learning is disclosed. The method includes receiving, at a provider edge (PE) device, a data packet from a core network, the data packet identifying an ES from which the data packet originated and identifying a MAC address as a source MAC address; determining whether the PE device has an Ethernet connection in the ES identified by the data packet; and, upon positive determination, associating the MAC address identified as the source MAC address of the data packet to a bridge port, at the PE device, of the Ethernet connection in the ES identified by the data packet.

Abstract: Sealed end points and methods of making the same are disclosed. An example method includes disposing a first flange of a lid within a groove of a housing. The groove is defined by first and second walls of the housing and lid. The method also includes means for welding two stationary components while rotating a third component to weld the three components together. The second flange is positioned between the first flange and the first wall. The housing, the lid, and the collar include a thermoplastic material. The method includes securing the housing and the lid relative to one another and spin welding the housing, the lid, and the collar.

Abstract: A communications mapping system to generate a relational communications graph for a source application is provided. The deployment system includes at least one processor and a memory. The at least one processor configured to receive one or more source elements associated with the source application, the source application including a first sub-application and a second sub-application. The processor is also configured to identify a dependency relationship between the first sub-application and the second sub-application based at least in part on an inspection of the one or more source elements. The processor is further configured to generate the relational communications graph including the first sub-application, the second sub-application, and the dependency relationship and provide the relational communications graph for use in executing the source application in an execution environment.

Abstract: A communications mapping system to generate a relational communications graph for a source application is provided. The deployment system includes at least one processor and a memory. The at least one processor configured to receive one or more source elements associated with the source application, the source application including a first sub-application and a second sub-application. The processor is also configured to identify a dependency relationship between the first sub-application and the second sub-application based at least in part on an inspection of the one or more source elements. The processor is further configured to generate the relational communications graph including the first sub-application, the second sub-application, and the dependency relationship and provide the relational communications graph for use in executing the source application in an execution environment.