Abstract: An airflow guide includes at least one first channel configured to direct a portion of air from a first fan in a first direction a second power component and at least one second channel configured to direct a portion of air from a second fan in a second direction to a first power component. The airflow guide further includes a first body portion having the at least one first channel and the at least one second channel. The at least one first channel may include several channels each configured to direct the portion of air in the first direction to the second power component and the at least one second channel may include several channels each configured to direct the portion of air in the second direction to the first power component.

Abstract: A multi-transformer assembly includes a first transformer having a first core and a first set of windings, a second transformer having a second core and a second set of windings, and a heatsink positioned between the first core and the second core. The heatsink includes a first side and a second side. The first side of the heatsink is opposite the second side of the heatsink, and thermally coupled to the first core and the first set of windings. The first side is thermally coupled to the first core and the first set of windings by a first thermal conductor. The second side is thermally coupled to the second core and the second set of windings. The second side is thermally coupled to the second core and the second set of windings by a second thermal conductor.

Abstract: A fan housing mounting assembly includes an engagement mechanism configured to support a fan module and a housing configured to support the engagement mechanism. The engagement mechanism is pivotally connected to the housing. The assembly further includes a mesh plate including at least one connector coupled to the engagement mechanism. The mesh plate is configured to move with respect to the housing between a first position in which the mesh plate is spaced from the housing and a second position in which the mesh plate is adjacent to the housing. The assembly further includes a spring configured to engage the engagement mechanism. The spring is configured to bias the engagement mechanism to pivot with respect to the housing to present the fan module for removal. When the engagement mechanism is pivoted with respect to the housing, the mesh plate is maintained in the second position.

Abstract: An assembly to contain energy from arc flash within a mounting slot of an equipment rack includes a valve panel assembly including a first valve panel body secured to the frame members by a first hinge and a second valve panel body secured to the frame members by a second hinge. The first valve panel body and the second valve panel body are configured to rotate between closed positions and open positions. A method of assembling a system to contain energy from arc flash within a mounting slot of an equipment rack is further disclosed.

Abstract: A method of treating a surface of an aluminum busbar includes pre-conditioning the surface of the busbar, anodizing one portion of the surface of the busbar, and plating another portion of the surface of the busbar with at least one metal. A fixture used to secure a busbar for a treatment process is also disclosed.

Abstract: A method of treating a surface of an aluminum busbar includes pre-conditioning the surface of the busbar, anodizing one portion of the surface of the busbar, and plating another portion of the surface of the busbar with at least one metal. A fixture used to secure a busbar for a treatment process is also disclosed.

Abstract: A power system including an uninterruptible power system (UPS) and a maintenance bypass panel (MBP) The UPS has an input to receive input power and an output to provide output power. The MBP has an input to receive the output power provided by the UPS and an output to provide the input power to the input of the UPS. A busbar is configured to couple one of the input of the UPS to the output of the MBP and the output of the UPS to the input of the MBP. The busbar has a first region to couple to one of the input and the output of the UPS, a second region to couple to one of the input and the output of the MBP, and a measurement region. A cover shields the busbar from inadvertent contact and includes a small diameter aperture to permit access to the measurement region of the busbar.

Abstract: A power system including an uninterruptible power system (UPS) and a maintenance bypass panel (MBP) The UPS has an input to receive input power and an output to provide output power. The MBP has an input to receive the output power provided by the UPS and an output to provide the input power to the input of the UPS. A busbar is configured to couple one of the input of the UPS to the output of the MBP and the output of the UPS to the input of the MBP. The busbar has a first region to couple to one of the input and the output of the UPS, a second region to couple to one of the input and the output of the MBP, and a measurement region. A cover shields the busbar from inadvertent contact and includes a small diameter aperture to permit access to the measurement region of the busbar.

Abstract: A power system including an uninterruptible power system (UPS) and a maintenance bypass panel (MBP) The UPS has an input to receive input power and an output to provide output power. The MBP has an input to receive the output power provided by the UPS and an output to provide the input power to the input of the UPS. A busbar is configured to couple one of the input of the UPS to the output of the MBP and the output of the UPS to the input of the MBP. The busbar has a first region to couple to one of the input and the output of the UPS, a second region to couple to one of the input and the output of the MBP, and a measurement region. A cover shields the busbar from inadvertent contact and includes a small diameter aperture to permit access to the measurement region of the busbar.

Abstract: A power system including an uninterruptible power system (UPS) and a maintenance bypass panel (MBP) The UPS has an input to receive input power and an output to provide output power. The MBP has an input to receive the output power provided by the UPS and an output to provide the input power to the input of the UPS. A busbar is configured to couple one of the input of the UPS to the output of the MBP and the output of the UPS to the input of the MBP. The busbar has a first region to couple to one of the input and the output of the UPS, a second region to couple to one of the input and the output of the MBP, and a measurement region. A cover shields the busbar from inadvertent contact and includes a small diameter aperture to permit access to the measurement region of the busbar.

Abstract: Systems and methods for verifying fuel cell system functionality are provided. Various tests and/or exercises may be executed while the fuel cell system is in standby mode to detect potential sources of malfunction. In some examples, one or more tests may be designed to detect leaks or ruptures in various reactant supply lines and/or to test the functionality of various valves associated therewith. A controller may be provided to automatically perform the disclosed tests. In certain examples, the disclosed tests may be conducted without the need to provide each component of a fuel cell system with individual electrical feedback.

Abstract: Systems and methods for verifying fuel cell system functionality are provided. Various tests and/or exercises may be executed while the fuel cell system is in standby mode to detect potential sources of malfunction. In some examples, one or more tests may be designed to detect leaks or ruptures in various reactant supply lines and/or to test the functionality of various valves associated therewith. A controller may be provided to automatically perform the disclosed tests. In certain examples, the disclosed tests may be conducted without the need to provide each component of a fuel cell system with individual electrical feedback.