Abstract: A removable hot box is disclosed that includes a lower hot box portion, comprising: a lower housing comprising a plurality of lower clamping structures to clamp the lower housing to a press and locating structures to provide repeatable placing in the press; and a lower heating platen, received within the lower housing, wherein the lower housing or the lower heating platen comprises lower electrical connectors to provide a lower electrical connection to a heating system and lower cooling connectors to provide a lower cooling connection to a cooling system; and an upper hot box portion, positionable above the lower hot box portion and comprising: an upper housing comprising a plurality of upper clamping structures to clamp the upper housing to the press; an upper heating platen, received within the upper housing.

Abstract: Various embodiments set forth a method comprising validating, by a first computing system in a secured computing environment, a demand event generated by an operator, where the operator is authenticated to generate demand events within the secured computing environment and the demand event corresponds to a set of endpoints operating outside the secured computing environment, generating, by the first computing system, an authorization permit associated with the demand event, and sending, from the first computing system to a second computing system outside of the secured computing environment, (i) an indicator of the demand event, and (ii) the authorization permit, where the demand event is usable by the second computing system to generate a demand event command for the set of endpoints, and the authorization permit is usable by the set of endpoints to validate the demand event command

Abstract: An instruction to perform load testing is sent to a mobile device where an application running on the mobile device determines whether the mobile device is in a state where load testing is permitted. In response to receiving the instruction, the application running on the mobile device performs load testing on a web server if the mobile device is in the state where load testing is permitted. Performance information associated with the load testing is received from the application running on the mobile device and the performance information associated with the load testing is displayed.

Abstract: A hot-forming press (100) comprises a lower press assembly (102) and an upper press assembly (108). The lower press assembly (102) is movable along a vertical axis and comprises a lower die (106), and a lower hot-box portion (104), configured to receive the lower die (106). The upper press assembly (108) is movable along the vertical axis above the lower press assembly (102) and comprises an upper die (112), and an upper hot-box portion (110). The upper hot-box portion (110) is configured to receive the upper die (112) so that the upper die (112) is positioned opposite the lower die (106). The lower die (106) and the upper die (112) are configured to apply a forming pressure to a workpiece (114) that is received between the lower die (106) and the upper die (112). The lower hot-box portion (104) and the upper hot-box portion (110) are configured to heat the workpiece (114).

Abstract: An instruction to perform load testing is sent to a mobile device where an application running on the mobile device determines whether the mobile device is in a state where load testing is permitted. In response to receiving the instruction, the application running on the mobile device performs load testing on a web server if the mobile device is in the state where load testing is permitted. Performance information associated with the load testing is received from the application running on the mobile device and the performance information associated with the load testing is displayed.

Abstract: A hot box comprises a lower hot-box portion and an upper hot-box portion. The lower hot-box portion comprises a lower housing, a lower heating plate, and a lower insulation layer. The lower heating plate is received within the lower housing and is configured to support a lower die. The lower insulation layer is positioned between the lower housing and the lower heating plate. The upper hot-box portion is positionable above the lower hot-box portion and comprises an upper housing, an upper heating plate, and an upper insulation layer. The upper heating plate is received within the upper housing and is configured to support an upper die. The upper insulation layer is positioned between the upper housing and the upper heating plate.

Abstract: An instruction to perform load testing is sent to a mobile device where an application running on the mobile device determines whether the mobile device is in a state where load testing is permitted. In response to receiving the instruction, the application running on the mobile device performs load testing on a web server if the mobile device is in the state where load testing is permitted. Performance information associated with the load testing is received from the application running on the mobile device and the performance information associated with the load testing is displayed.

Abstract: A system for rating information source content having a graphical user interface comprising a graph with a y-axis representing information source bias and a y-axis representing information source reliability; a plurality of graphical scoring input tools, wherein: a first one of the plurality of graphical scoring input tools is parallel to and has a length that corresponds to a length of the y-axis; a second one of the plurality of graphical scoring input tools is parallel to and has a length that corresponds to a length of the x-axis. Each of the plurality of graphical scoring input tools is configured to accept scores corresponding to values represented on at least one of the y-axis or the x-axis upon a user's interaction with the graphical scoring input tools. The system is configured to record scores assigned by the user via the user's interaction in a database associated with the interface.

Abstract: An instruction to perform load testing is sent to a mobile device where an application running on the mobile device determines whether the mobile device is in a state where load testing is permitted. In response to receiving the instruction, the application running on the mobile device performs load testing on a web server if the mobile device is in the state where load testing is permitted. Performance information associated with the load testing is received from the application running on the mobile device and the performance information associated with the load testing is displayed.

Abstract: A hot-forming press (100) comprises a lower press assembly (102) and an upper press assembly (108). The lower press assembly (102) is movable along a vertical axis and comprises a lower die (106), and a lower hot-box portion (104), configured to receive the lower die (106). The upper press assembly (108) is movable along the vertical axis above the lower press assembly (102) and comprises an upper die (112), and an upper hot-box portion (110). The upper hot-box portion (110) is configured to receive the upper die (112) so that the upper die (112) is positioned opposite the lower die (106). The lower die (106) and the upper die (112) are configured to apply a forming pressure to a workpiece (114) that is received between the lower die (106) and the upper die (112). The lower hot-box portion (104) and the upper hot-box portion (110) are configured to heat the workpiece (114).

Abstract: A hot box (300) comprises a lower hot-box portion (104) and an upper hot-box portion (110). The lower hot-box portion (104) comprises a lower housing (142), a lower heating plate (144), and a lower insulation layer (148). The lower heating plate (144) is received within the lower housing (142) and is configured to support a lower die (106). The lower insulation layer (148) is positioned between the lower housing (142) and the lower heating plate (144). The upper hot-box portion (110) is positionable above the lower hot-box portion (104) and comprises an upper housing (186), an upper heating plate (188), and an upper insulation layer (192). The upper heating plate (188) is received within the upper housing (186) and is configured to support an upper die (112). The upper insulation layer (192) is positioned between the upper housing (186) and the upper heating plate (188).

Abstract: A customer submits a request for assistance to a customer service. Accordingly, the customer service may access a customer database to obtain one or more customer preferences that can be used to select a service representative. If the customer database does not include these preferences, the customer service may utilize one or more customer attributes to calculate these one or more customer preferences. Subsequently, the customer service may access a service representative database and select a service representative based at least in part on the one or more customer preferences. The customer service may transmit the request to the selected service representative to enable the service representative to assist the customer.

Abstract: A rotary machine, for directing a quantity of fluid from an inlet to an outlet, comprises one or more elliptical or near-elliptical rotors having planetary rotation within a housing. The interior cavity of the housing comprises an inverse apex region that is in contact with the rotor during its rotation. In various embodiments the rotor and housing can be symmetric or asymmetric in cross-section. Features are described that can improve the operation of the machine for various end-use applications. Such features include cut-outs that are fluidly connected to the inlet or outlet ports of the machine, mechanisms for reducing variation in output flow rate from the rotary machine, linings for the interior cavity of the housing, pressure relief mechanisms, dynamic apex seals and other sealing mechanisms.

Abstract: A customer submits a request for assistance to a customer service. Accordingly, the customer service may access a customer database to obtain one or more customer preferences that can be used to select a service representative. If the customer database does not include these preferences, the customer service may utilize one or more customer attributes to calculate these one or more customer preferences. Subsequently, the customer service may access a service representative database and select a service representative based at least in part on the one or more customer preferences. The customer service may transmit the request to the selected service representative to enable the service representative to assist the customer.

Abstract: A customer submits a request for assistance to a customer service. Accordingly, the customer service may access a customer database to obtain one or more customer preferences that can be used to select a service representative. If the customer database does not include these preferences, the customer service may utilize one or more customer attributes to calculate these one or more customer preferences. Subsequently, the customer service may access a service representative database and select a service representative based at least in part on the one or more customer preferences. The customer service may transmit the request to the selected service representative to enable the service representative to assist the customer.

Abstract: A rotary machine, for directing a quantity of fluid from an inlet to an outlet, comprises one or more elliptical or near-elliptical rotors having planetary rotation within a housing. The interior cavity of the housing comprises an inverse apex region that is in contact with the rotor during its rotation. In various embodiments the rotor and housing can be symmetric or asymmetric in cross-section. Features are described that can improve the operation of the machine for various end-use applications. Such features include cut-outs that are fluidly connected to the inlet or outlet ports of the machine, mechanisms for reducing variation in output flow rate from the rotary machine, linings for the interior cavity of the housing, pressure relief mechanisms, dynamic apex seals and other sealing mechanisms.

Abstract: The claimed invention relates to a system and computer implemented method for quantitatively measuring effectiveness of a marketing campaign or marketing strategy execution. The client device accesses the server over a communications network to define targeted customer segments based on the marketing campaign or a specific set of marketing objectives and to define a quantifiable outcome or payoff for each targeted customer segment of the client, thereby linking the performance of client's marketing campaign or objectives to the quantifiable outcome for each targeted customer segment. The server generates behavior paths for each targeted customer segment on a client website for effective measurement of adherence of a website visitor/customer to the behavior paths leading to the quantifiable outcome. The rules engine calculates a path score to determine whether the customer adheres to or diverges from a preferred behavior path established for the customer's targeted customer segment.

Abstract: A reflex timing device having a first switch. Engagement of the first switch causes a microcontroller to activate a second visual indicator at a random time. The micorcontroller measures the time between activation of the second visual indicator and engagement of a second switch. This measured time is compared by the microcontroller with a required benchmark reflex time, which may optionally be selected from several benchmark reflex times. A signal indicating success is provided if a subject being tested does not disengage said first switch until said second visual indicator has been activated and if the subject also engages said second switch within the required benchmark reflex time. Optionally, a signal indicated failure may be provided if these conditions have not been met.

Abstract: A mechanism for handling processing errors in a computer system. The mechanism includes a first means for processing a stream of instructions, second means for detecting an error caused by a timing dependant defect and occurring during processing of the instruction by the first means and third means for varying the instruction processing cycle time of the first means in response to the detection of the error by the second means, and for causing the second means to retry at least a portion of the instruction subsequent to the varying. In a preferred embodiment, the mechanism uses the variable frequency oscillator, controlled by recovery code, to increase the system clock cycle time by a specified time (Textend) following what has been determined to be a critical fail and after normal retry has been unsuccessful. The increased cycle time extends the net slack and, thereby, provides tolerance to certain AC (path delay) defects which have developed in any cycle time dependant latch to latch segment.

Abstract: A mechanism for handling processing errors in a computer system. The mechanism includes a first means for processing a stream of instructions, second means for detecting an error caused by a timing dependant defect and occurring during processing of the instruction by the first means and third means for varying the instruction processing cycle time of the first means in response to the detection of the error by the second means, and for causing the second means to retry at least a portion of the instruction subsequent to the varying. In a preferred embodiment, the mechanism uses the variable frequency oscillator, controlled by recovery code, to increase the system clock cycle time by a specified time (Textend) following what has been determined to be a critical fail and after normal retry has been unsuccessful. The increased cycle time extends the net slack and, thereby, provides tolerance to certain AC (path delay) defects which have developed in any cycle time dependant latch to latch segment.