Abstract: A receptacle connector includes a receptacle housing, pin contacts, and a retainer. The receptacle housing has a convex wall portion, a concave wall portion, a first side wall portion that extends between the convex wall portion and the concave wall portion, and a second side wall portion that extends between the convex wall portion and the concave wall portion. The convex wall portion, the concave wall portion, the first side wall portion, and the second side wall portion at least partially define a cavity having an open end. The pin contacts are located in the cavity of the receptacle housing. The retainer has a first side latch and a second side latch that are configured to extend into the cavity in an engaged position and to move outward from the cavity to a disengaged position.

Abstract: Methods, systems, and computer-readable media are disclosed herein for proactively managing computing problems. In aspects, an execution of a script is initiated. A connection may be established via the script and the central database for identifying a network quality issue. The network quality issue may be identified more than once. Further, the network quality issue may be identified based on the network quality issue satisfying a threshold. Additionally, it may be determined that the network quality issue that satisfies the threshold is not associated with an electronic documentation based on a search in the central database. Based on determining the network quality issue is not associated with the electronic documentation, the electronic documentation may be created for the network quality issue that satisfies the threshold.

Abstract: Methods, systems, and computer-readable media are disclosed herein for proactively managing computing problems. In aspects, an execution of a script is initiated. A connection may be established via the script and the central database for identifying a network quality issue. The network quality issue may be identified more than once. Further, the network quality issue may be identified based on the network quality issue satisfying a threshold. Additionally, it may be determined that the network quality issue that satisfies the threshold is not associated with an electronic documentation based on a search in the central database. Based on determining the network quality issue is not associated with the electronic documentation, the electronic documentation may be created for the network quality issue that satisfies the threshold.

Abstract: A frame assembly for a motor vehicle that may include a first load beam, a second load beam, and a frame rail that are configured for receipt and transfer of energy to a sill that can move the sill in a downward direction. A counterbalancing load beam that includes a first fixed end is attached to the first load beam and a second fixed end is attached to the frame rail. The counterbalancing load beam is configured for receipt of at least a portion of the energy applied to the first load beam, and the counterbalancing load beam is configured to transfer the energy received from the first load beam to the frame rail such that the transfer of energy to the sill that can move the sill in the downward direction is counterbalanced by the energy transferred by the counterbalancing load beam to the frame rail.

Abstract: A frame assembly for a motor vehicle that may include a first load beam, a second load beam, and a frame rail that are configured for receipt and transfer of energy to a sill that can move the sill in a downward direction. A counterbalancing load beam that includes a first fixed end is attached to the first load beam and a second fixed end is attached to the frame rail. The counterbalancing load beam is configured for receipt of at least a portion of the energy applied to the first load beam, and the counterbalancing load beam is configured to transfer the energy received from the first load beam to the frame rail such that the transfer of energy to the sill that can move the sill in the downward direction is counterbalanced by the energy transferred by the counterbalancing load beam to the frame rail.

Abstract: A method of evaluating a vehicle body component design. The method includes: calculating one or more head injury criteria (HIC) ground values for one or more points of interest of a base body component design of a base vehicle; generating an HIC predictive model based on the one or more HIC ground values; obtaining one or more parameter values of one or more points of interest of a candidate body component design, the point(s) of interest of the candidate body component design corresponding to the point(s) of interest of the base body component design of the base vehicle; calculating one or more predicted HIC values for the candidate body component design, wherein the calculation of the predicted HIC value(s) includes inputting the parameter value(s) into the HIC predictive model to obtain the predicted HIC value(s); and evaluating the candidate body component design by inspecting the predicted HIC value(s).

Abstract: One exemplary embodiment of the disclosure provides methods and compositions for treating a subject suffering from Alcoholic Liver Disease, Non-Alcoholic Fatty Liver Disease, type 2 diabetes, metabolic syndrome, cardiovascular disease, chronic kidney disease, and certain cancers, or a combination thereof, by administering a therapeutically effective amount of purified liminoid glucoside or a pharmaceutically acceptable salt thereof to the subject.

Abstract: A method for balancing the loads of servers in a server farm. A vector, referred to herein as the “DesiredVector,” is computed to hold the load factors for each of the servers. Upon receipt of a client request, a vector, referred to herein as the “ActiveConnections,” is modified for each scenario where the new client request is considered to be serviced by a different server. The ActiveConnections vector holds the current number of client requests being serviced by each of the servers. Angles made by each of the different ActiveConnections vectors with the DesiredVector are computed. Upon identifying the ActiveConnections vector that produces the smallest angle with the DesiredVector, the client request is directed to the server which corresponds to the identified ActiveConnections vector. In this manner, the best possible distribution of requests among the servers is made for every client connection.

Abstract: A system and computer program product for balancing the loads of servers in a server farm. A vector, referred to herein as the “DesiredVector,” is computed to hold the load factors for each of the servers. Upon receipt of a client request, a vector, referred to herein as the “ActiveConnections,” is modified for each scenario where the new client request is considered to be serviced by a different server. The ActiveConnections vector holds the current number of client requests being serviced by each of the servers. Angles made by each of the different ActiveConnections vectors with the DesiredVector are computed. Upon identifying the ActiveConnections vector that produces the smallest angle with the DesiredVector, the client request is directed to the server which corresponds to the identified ActiveConnections vector. In this manner, the best possible distribution of requests among the servers is made for every client connection.

Abstract: A method for balancing the loads of servers in a server farm. A vector, referred to herein as the “DesiredVector,” is computed to hold the load factors for each of the servers. Upon receipt of a client request, a vector, referred to herein as the “ActiveConnections,” is modified for each scenario where the new client request is considered to be serviced by a different server. The ActiveConnections vector holds the current number of client requests being serviced by each of the servers. Angles made by each of the different ActiveConnections vectors with the DesiredVector are computed. Upon identifying the ActiveConnections vector that produces the smallest angle with the DesiredVector, the client request is directed to the server which corresponds to the identified ActiveConnections vector. In this manner, the best possible distribution of requests among the servers is made for every client connection.

Abstract: A system and computer program product for balancing the loads of servers in a server farm. A vector, referred to herein as the “DesiredVector,” is computed to hold the load factors for each of the servers. Upon receipt of a client request, a vector, referred to herein as the “ActiveConnections,” is modified for each scenario where the new client request is considered to be serviced by a different server. The ActiveConnections vector holds the current number of client requests being serviced by each of the servers. Angles made by each of the different ActiveConnections vectors with the DesiredVector are computed. Upon identifying the ActiveConnections vector that produces the smallest angle with the DesiredVector, the client request is directed to the server which corresponds to the identified ActiveConnections vector. In this manner, the best possible distribution of requests among the servers is made for every client connection.