The present invention relates to a top toolbox to provide additional storage on top of a toolbox without eliminating the workbench of the toolbox. The top toolbox is comprised of a cabinet, a frame guide, and lifting means to adjust the cabinet from a resting position in which the cabinet covers the frame guide to a raised position allowing access under the cabinet within the perimeter of the frame guide.

Disclosed is a light assembly that is removably attachable to a work surface such as a creeper assembly. The light assembly may include a light positioned along a top of a dome shaped housing and a base with a plurality of lugs. A pad member may be attached to the work surface and the lugs may be selectively engageable with attachment members extending from the pad member. The attachment member may include a biasing member having a self-locating detent configured to engage with a self-locating recess thereby generally aligning the pad member and the light assembly. The pad member or the base of the light assembly may include a magnet. The light assembly may also include at least one light array about the perimeter of the housing.

A work light assembly comprising a housing, and an outer shield. The housing has a handle portion and an illuminating portion, separated by a neck portion. The handle portion has an outer surface and an inner bore extending between an upper and a lower end thereof. The inner bore opening is at the lower end, and has a bore cover threadedly engaged so as to cover the inner bore. The illuminating portion has a proximal end at the neck portion and a distal end extending therefrom. An outward face that is generally perpendicular to an axis of the handle portion is provided, with a plurality of LED elements positioned thereon. A battery is positioned within the inner bore and coupled to a switch mounted on the handle portion. The battery is also coupled to the plurality of LED elements in electrical communication, so as to be cordless. The outer shield is coupled to the neck portion of the handle portion. The outer shield extends around at least a portion of the illuminating portion.

A panel light wall assembly comprising a support frame structure including at least first and second substantially straight and parallel support frame members spaced apart on opposite sides of a light panel receiving space, a light panel assembly including a rectilinear assembly frame including first, second, third and fourth substantially straight elongated assembly frame members, a light source mounted to the first assembly frame member, a planar light guide member forming an edge and mounted to the assembly frame with the edge adjacent the light source and a fastener interacting with at least one of the first and second support frame members to secure the light panel assembly with at least a portion of the light panel assembly received within the panel receiving space and a second portion extending outside and to one side of the panel receiving space with the light guide member and light source located within the panel receiving space.

Industrial lighting device including a light source and a sealed housing containing the light source. The housing includes a support delimiting a housing window extending opposite the light source, a window pane sealing the housing window, and a sealing gasket extending along the periphery of the housing window and compressed between the window pane and the support. The device includes a filter extending in front of the housing window, outside the housing. The filter includes a frame defining a frame window which is removably fixed to the housing, in an assembled position in which the frame window is opposite the housing window, and an optical film fixed to the frame and sealing the frame window. The device includes an elastic compression member arranged between the support and the frame.

A safety device including a side wall, a receiving area defined by the side wall, at least one magnet disposed within the receiving area, and at least one lighting element disposed on the side wall, wherein, the receiving area receives a portion of a structure when the plurality of magnets magnetically interact with the portion of the structure, is provided. Furthermore, an associated method is also provided.

The invention relates to lightweight LED lighting systems for permanent and semi-permanent mounting on elevated structures, the lighting systems having integrated support and thermal transfer features. The systems are particularly suited for elevated mast systems and specifically for mast systems that are repeatedly lifted and lowered such as drilling and service rig masts. Specifically, the invention improves a) the weight/lumen ratios of LED lamp assemblies and LED lighting systems, b) the net added weight of LED lighting systems, c) the footprint of LED light systems and/or d) obviates the need for removing LED lighting systems or their sub-assemblies when transporting mast systems.

A high bay luminaire includes a heat sink having a substantially disc-shaped configuration. A light emitter is connected to the heat sink. A reflector is connected to the heat sink. A yoke is connected to the heat sink. The yoke has a first arm, a second arm, and a top bar. A driver is connected to the yoke so that the driver extends between the first arm and the second arm.

A lighting system comprising a track having a first and a second rail, mutually extending equidistantly. Said first and second rail comprise a first respectively a second electrically conductive strip, mutually electrically isolated. A lighting module comprising a first and second electrical contact, which lighting module in mounted position rests by gravitational force on the first and second rail. When mounted the first and second electrical contact are in electrical contact with a respective one of the first and second electrically conductive strip. The lighting module is dismountable from the track by a single displacement of the lighting module in a direction against the direction of the gravitational force.

A lamp for lighting with an asymmetric light distribution comprises a casing extending substantially along an axis, at least one light source housed in the casing, and a substantially flat light guide panel having a lateral edge, parallel to the axis and facing the light source, for receiving the light emitted by the light source; the light guide panel comprises a plate made of substantially transparent material and an optical film coupled to the plate; the optical film is provided with an optical pattern configured so as to extract the light, emitted by the light source, entering the plate through the lateral edge, from the light guide panel through a first face of the plate, defining an emission surface of the lamp; and it is configured so as to distribute the light with an asymmetric distribution in relation to the emission surface.