Abstract: An apparatus is provided for supporting solar panels in a stowed position and a deployed position. The apparatus comprises opposing end panels that each include a stationary track and first and second rigid frames configured to secure solar panels. One rigid frame is secured between the end panels and the other rigid frame is secured between first and second trolleys. The trolleys are moveable along the stationary tracks to deployable tracks supported by a pair of laterally extending arms. The pair of arms are selectively positionable in deployed positions in which the deployable tracks extend in a first lateral direction in alignment with the stationary tracks. Positioning the pair of arms in the deployed position enables the trolleys to be moved along the stationary tracks to the deployable tracks.

Abstract: A system includes a control unit, a solar unit and a light unit. The control unit includes a main distribution box, a combustion engine electrical generator coupled to the main distribution box, and a first plurality of photovoltaic panels coupled to the main distribution box. The solar unit includes a second plurality of photovoltaic panels coupled to the main distribution box using a cable, and a first rechargeable battery unit coupled to a first battery inverter that is further coupled to the main distribution box. The light unit includes an array of area lights, a third plurality of photovoltaic panels, and a second rechargeable battery unit coupled to a second battery inverter.

Abstract: A system includes a control unit, a solar unit and a light unit. The control unit includes a main distribution box, a combustion engine electrical generator coupled to the main distribution box, and a first plurality of photovoltaic panels coupled to the main distribution box. The solar unit includes a second plurality of photovoltaic panels coupled to the main distribution box using a cable, and a first rechargeable battery unit coupled to a first battery inverter that is further coupled to the main distribution box. The light unit includes an array of area lights, a third plurality of photovoltaic panels, and a second rechargeable battery unit coupled to a second battery inverter.

Abstract: Numerous alerts may be received by a management system, potentially making it difficult to determine which alerts indicate events that are potentially more harmful. To identify alerts that indicate harmful events, a damage index for each of the alerts may be determined. Determining an alert damage index facilitates the ranking, sorting, or graphical representation of alerts. The alert damage index can indicate the potential damage or harm an event associated with the alert may cause if left unaddressed. For example, a low memory event has the potential to cause an application or server to respond slowly or not at all. The alert damage index may be determined by processing metrics that indicate the potential harm or severity of the event. For example, the alert damage index may be determined by processing an alert duration factor, an alert threshold breach factor, and a component load factor (damage factors).

Abstract: Numerous alerts may be received by a management system, potentially making it difficult to determine which alerts indicate events that are potentially more harmful. To identify alerts that indicate harmful events, a damage index for each of the alerts may be determined. Determining an alert damage index facilitates the ranking, sorting, or graphical representation of alerts. The alert damage index can indicate the potential damage or harm an event associated with the alert may cause if left unaddressed. For example, a low memory event has the potential to cause an application or server to respond slowly or not at all. The alert damage index may be determined by processing metrics that indicate the potential harm or severity of the event. For example, the alert damage index may be determined by processing an alert duration factor, an alert threshold breach factor, and a component load factor (damage factors).