Abstract: A light fixture includes a housing having a first side and a second side opposite the first side. The light fixture further includes a first light board coupled to the first side. The first light board has at least one light emitting element emitting a first light output in a first direction. The light fixture further includes a second light board coupled to the second side. The second light board has at least one light emitting element emitting a second light output in a second direction. The light fixture further includes a first driver supported by the housing and in electrical communication with the first light board. The first driver is operable to control the first light output. The light fixture further includes a second driver supported by the housing and in electrical communication with the second light board. The second driver is operable to control the second light output.

Abstract: A light fixture includes a housing having a first side and a second side opposite the first side. The light fixture further includes a first light board coupled to the first side. The first light board has at least one light emitting element emitting a first light output in a first direction. The light fixture further includes a second light board coupled to the second side. The second light board has at least one light emitting element emitting a second light output in a second direction. The light fixture further includes a first driver supported by the housing and in electrical communication with the first light board. The first driver is operable to control the first light output. The light fixture further includes a second driver supported by the housing and in electrical communication with the second light board. The second driver is operable to control the second light output.

Abstract: A light fixture includes a housing having a first side and a second side opposite the first side. The light fixture further includes a first light board coupled to the first side. The first light board has at least one light emitting element emitting a first light output in a first direction. The light fixture further includes a second light board coupled to the second side. The second light board has at least one light emitting element emitting a second light output in a second direction. The light fixture further includes a first driver supported by the housing and in electrical communication with the first light board. The first driver is operable to control the first light output. The light fixture further includes a second driver supported by the housing and in electrical communication with the second light board. The second driver is operable to control the second light output.

Abstract: A light fixture includes a housing having a first side and a second side opposite the first side. The light fixture further includes a first light board coupled to the first side. The first light board has at least one light emitting element emitting a first light output in a first direction. The light fixture further includes a second light board coupled to the second side. The second light board has at least one light emitting element emitting a second light output in a second direction. The light fixture further includes a first driver supported by the housing and in electrical communication with the first light board. The first driver is operable to control the first light output. The light fixture further includes a second driver supported by the housing and in electrical communication with the second light board. The second driver is operable to control the second light output.

Abstract: Example aspects of the present disclosure allow an end user to determine how a finite amount of a measurable resource is allocated among the various balanceable and feature zones of control defined within the overall measurable resource control system, and which can be implemented using a wide variety of hardware/components. A control program allows the end user unprecedented flexibility and control to determine how the resource is allocated among the various zones or types of resource use within the application, as long as the total resource consumed does not exceed the predetermined/predefined total maximum allowable resource. When the end user adjusts a feature or balanceable zone level, the control program adjusts the other balanceable zones based on predefined algorithms, when necessary, to ensure that the maximum measurable resource consumed by the system does not exceed the predetermined/predefined overall maximum resource allocation.

Abstract: A light fixture includes a housing having a first side and a second side opposite the first side. The light fixture further includes a first light board coupled to the first side. The first light board has at least one light emitting element emitting a first light output in a first direction. The light fixture further includes a second light board coupled to the second side. The second light board has at least one light emitting element emitting a second light output in a second direction. The light fixture further includes a first driver supported by the housing and in electrical communication with the first light board. The first driver is operable to control the first light output. The light fixture further includes a second driver supported by the housing and in electrical communication with the second light board. The second driver is operable to control the second light output.

Abstract: Wall grazer light fixtures that are configured to illuminate portions of walls are provided. In one embodiment, a wall grazer light fixture can include one or more first light sources for providing wide angle illumination along a wall. In addition, the wall grazer light fixture can include one or more second light sources arranged in the wall grazer light fixture to provide vertical illumination along the wall. In some embodiments, the wall grazer light fixture can include a circuit configured to adjust a color temperature of the first light source(s) and/or the second light source(s) such that the color temperature of the first light source(s) matches the color temperature of the second light source(s).

Abstract: The invention provides a means for allowing an end user to determine how a finite amount of a measurable resource is allocated among the various balanceable and feature zones of control defined within, the overall measurable resource control system, and which, can be implemented using a wide variety of hardware/components. A control program allows the end user unprecedented flexibility and control to determine how the resource is allocated among the various zones or types of resource use within the application, as long as the total resource consumed does not exceed the predetermined/predefined total maximum allowable resource. When the end user adjusts a feature or balanceable zone level, the control program adjusts the other balanceable zones based on predefined algorithms, when necessary, to ensure that the maximum measurable resource consumed by the system does not exceed the predetermined/predefined overall maximum resource allocation. The invention is scalable and can be infinitely nested.

Abstract: Wall grazer light fixtures that are configured to illuminate portions of walls are provided. In one embodiment, a wall grazer light fixture can include one or more first light sources for providing wide angle illumination along a wall. In addition, the wall grazer light fixture can include one or more second light sources arranged in the wall grazer light fixture to provide vertical illumination along the wall. In some embodiments, the wall grazer light fixture can include a circuit configured to adjust a color temperature of the first light source(s) and/or the second light source(s) such that the color temperature of the first light source(s) matches the color temperature of the second light source(s).

Abstract: Example aspects of the present disclosure allow an end user to determine how a finite amount of a measurable resource is allocated among the various balanceable and feature zones of control defined within the overall measurable resource control system, and which can be implemented using a wide variety of hardware/components. A control program allows the end user unprecedented flexibility and control to determine how the resource is allocated among the various zones or types of resource use within the application, as long as the total resource consumed does not exceed the predetermined/predefined total maximum allowable resource. When the end user adjusts a feature or balanceable zone level, the control program adjusts the other balanceable zones based on predefined algorithms, when necessary, to ensure that the maximum measurable resource consumed by the system does not exceed the predetermined/predefined overall maximum resource allocation.

Abstract: A light fixture includes a housing having a first side and a second side opposite the first side. The light fixture further includes a first light board coupled to the first side. The first light board has at least one light emitting element emitting a first light output in a first direction. The light fixture further includes a second light board coupled to the second side. The second light board has at least one light emitting element emitting a second light output in a second direction. The light fixture further includes a first driver supported by the housing and in electrical communication with the first light board. The first driver is operable to control the first light output. The light fixture further includes a second driver supported by the housing and in electrical communication with the second light board. The second driver is operable to control the second light output.

Abstract: The invention provides a means for allowing an end user to determine how a finite amount of a measurable resource is allocated among the various balanceable and feature zones of control defined within the overall measurable resource control system, and which can be implemented using a wide variety of hardware/components. A control program allows the end user unprecedented flexibility and control to determine how the resource is allocated among the various zones or types of resource use within the application, as long as the total resource consumed does not exceed the predetermined/predefined total maximum allowable resource. When the end user adjusts a feature or balanceable zone level, the control program adjusts the other balanceable zones based on predefined algorithms, when necessary, to ensure that the maximum measurable resource consumed by the system does not exceed the predetermined/predefined overall maximum resource allocation. The invention is scalable and can be infinitely nested.