Abstract: An example embodiment of an upper room air germicidal light fixture may comprise a light source configured to emit germicidal light and may further comprise one or more lower and upper baffle assemblies disposed adjacent to the light source. Said upper and lower baffle assemblies may be configured to enable air to flow through them and to block or substantially dissipate incident light rays from the light source. One or more apertures may be defined by the openings between a corresponding set of upper and lower baffle assemblies, wherein said light can exit the fixture through said apertures. When the germicidal light fixture is disposed in a room, surrounding room air may contact light exiting the apertures of said fixture, and room air traveling through said fixture may contact light inside and between the one or more upper and lower baffle assemblies.

Abstract: In an example embodiment of the disclosed technology, a plant disinfection apparatus is provided that may comprise a support device configured to directly or indirectly support one or more UVC probes beneath the support device. The one or more UVC probes may each comprise a relatively elongated shape comprising a major axis Y, a light source that emits UVC light in a predominantly perpendicular distribution pattern relative to axis Y, and a suspension device configured to directly or indirectly attach to the support device. The UVC probe may be configured to be raised and lowered in a relatively vertical orientation and may further comprise a means of conveying power to the UVC light source. The one or more UVC probes may be configured to be lowered into the foliage of one or more plants disposed beneath the plant disinfection apparatus.

Abstract: An example embodiment of an upper room air germicidal light fixture may comprise a light source configured to emit germicidal light and may further comprise one or more lower and upper baffle assemblies disposed adjacent to the light source. Said upper and lower baffle assemblies may be configured to enable air to flow through them and to block or substantially dissipate incident light rays from the light source. One or more apertures may be defined by the openings between a corresponding set of upper and lower baffle assemblies, wherein said light can exit the fixture through said apertures. When the germicidal light fixture is disposed in a room, surrounding room air may contact light exiting the apertures of said fixture, and room air traveling through said fixture may contact light inside and between the one or more upper and lower baffle assemblies.

Abstract: A light modifying apparatus is provided, which may comprise a curved outer layer comprising a substrate configured to modify light, wherein the curved outer layer may have an arc of length X. A second curved me be disposed on, or in close proximity to the back surface of the outer layer, and wherein the second curved layer may have an arc of length Y wherein length Y is less than length X, and wherein the second curved layer may comprise a substrate comprising one or more surfaces comprising a lenticular lens configuration. An optional third layer may be provided which may comprise a substrate comprising one or more surfaces comprising a lenticular lens configuration.

Abstract: A modular plant growing system may comprise two or more substantially vertical light panels, wherein each substantially vertical light panel may comprise one or more LED light engines. A support base may be attached directly or indirectly to each vertical light panel, wherein the support bases may be configured to engage with bottom surfaces of plant growing containers. Optional one or more top reflection panels may be configured to be disposed above the two or more substantially vertical light panels, the one or more top reflection panels may comprise reflection material and at least one ventilation opening. A plant growing space may be provided in the space defined by the two or more substantially vertical light panels and the one or more optional top reflection panels.

Abstract: In an example embodiment of the disclosed technology, a modular pod lighting system for plants may comprise a light containment enclosure, which may further comprise a light panel with one side configured to emit light, wherein the light panel may be configured to hang from an above structural element in a relatively horizontal orientation. The modular pod lighting system for plants may further comprise side reflection curtains attached to opposing edges of the light panel, wherein the reflection curtains may extend downwards away from the light panel. The light containment enclosure may be configured to partially enclose plants therein, and wherein light emitted from the light panel may be partially contained and recycled within the light containment enclosure. The light containment enclosure may further comprise bottom reflectors disposed on top of plant containment devices.

Abstract: In an example embodiment, a plant light reflection apparatus may comprise two opposing reflector panels configured to reflect light, wherein each reflector panel may comprise one or more pieces of reflection material. A reflector support apparatus may be configured to support the at least two opposing reflector panels, and may comprise a central section configured to accept one or more plants. The bottom major edges of the one or more pieces of reflection material of the two opposing reflector panels may be disposed in proximity to main stems of the one or more plants in the central section, and to reflect light thereon.

Abstract: In an example embodiment, a cross runner of a suspended ceiling grid is provided, wherein the cross runner may comprise a light fixture configured to function as a cross runner, and the light fixture may comprise a light guide.

Abstract: In an example embodiment, a flexible light fixture may be provided. The example embodiment may comprise a reflector panel comprising two substantially parallel opposing outer flanges and a flexible central portion, wherein the distance between the opposing outer flanges may be X. The example embodiment may also comprise a lens with two opposing edges wherein each opposing edge may be configured with an attachment feature configured for attachment to corresponding opposing outer flanges of the reflector panel, and wherein the distance between the opposing edges of the lens may be a distance Y, wherein distance Y may be less than distance X. When the opposing outer flanges of the reflector panel are compressed laterally together a distance that is at least distance Y and engaged by the corresponding lens attachment features, the flexible central portion of the reflector panel may be engaged in a curved compressed state.

Abstract: An example embodiment of substrate tensioning system is disclosed that may comprise a frame including four sides and channels, wherein the channels may comprise a first surface, a second surface that opposes the first surface, and an edge truss retention feature. The substrate tensioning system may further comprise at least one substrate including four major edges and a first surface, wherein each major edge is configured with one or more edge trusses configured from corresponding folds in the at least one substrate, such that the edge trusses may be configured at an angle relative to the first surface of the substrate. The at least one substrate may attach to the frame, wherein each edge truss may nest inside, and be secured inside a corresponding frame channel, wherein a perimeter edge of each outermost edge truss may be engaged by the corresponding frame channel's edge truss retention feature.

Abstract: In an example embodiment, a cross runner of a suspended ceiling grid is provided, wherein the cross runner may comprise a light fixture configured to function as a cross runner, and the light fixture may comprise a light guide.

Abstract: In an example embodiment, a flexible light fixture may be provided. The example embodiment may comprise a reflector panel comprising two substantially parallel opposing outer flanges and a flexible central portion, wherein the distance between the opposing outer flanges may be X. The example embodiment may also comprise a lens with two opposing edges wherein each opposing edge may be configured with an attachment feature configured for attachment to corresponding opposing outer flanges of the reflector panel, and wherein the distance between the opposing edges of the lens may be a distance Y, wherein distance Y may be less than distance X. When the opposing outer flanges of the reflector panel are compressed laterally together a distance that is at least distance Y and engaged by the corresponding lens attachment features, the flexible central portion of the reflector panel may be engaged in a curved compressed state.

Abstract: A lens apparatus is disclosed that can include at least one piece of optical film comprising two or more major edges, a front light-emitting side, a back light-receiving side and four corner regions, each having one or more associated minor edges defining one or more corner cuts that define a corner cutout. The lens apparatus may also include an edge truss configured on the two or more major edges, wherein each edge truss may be disposed towards the back light-receiving side of the at least one piece of optical film. Each edge truss may include one or more sides configured from a corresponding fold in the at least one piece of optical film, wherein at least one of the one or more sides of each edge truss may be configured to impart support to the lens apparatus and to resist deflection of each edge truss.

Abstract: An example embodiment of substrate tensioning system is disclosed that may comprise a frame including four sides and channels, wherein the channels may comprise a first surface, a second surface that opposes the first surface, and an edge truss retention feature. The substrate tensioning system may further comprise at least one substrate including four major edges and a first surface, wherein each major edge is configured with one or more edge trusses configured from corresponding folds in the at least one substrate, such that the edge trusses may be configured at an angle relative to the first surface of the substrate. The at least one substrate may attach to the frame, wherein each edge truss may nest inside, and be secured inside a corresponding frame channel, wherein a perimeter edge of each outermost edge truss may be engaged by the corresponding frame channel's edge truss retention feature.

Abstract: Certain example implementations of the disclosed technology include a light emitting device. The light emitting device may include an enclosure with four sides and a top edge surface associated with each of the four sides. The enclosure may be capable of mounting on a grid frame of a suspended ceiling such that a portion of the top edge surfaces contacts a portion of the grid frame. The light emitting device may further include a light modifying element characterized by a substrate with four or more edges, a back surface disposed on the top edge surface of each of the four sides of the enclosure, and a front surface. In certain example embodiments the substrate may further comprise two or more edge trusses. A periphery of the light-emitting front surface may be capable of contacting the grid frame after the light emitting device is mounted to the grid frame.

Abstract: A lens apparatus is disclosed that can include at least one piece of optical film comprising two or more major edges, a front light-emitting side, a back light-receiving side and four corner regions, each having one or more associated minor edges defining one or more corner cuts that define a corner cutout. The lens apparatus may also include an edge truss configured on the two or more major edges, wherein each edge truss may be disposed towards the back light-receiving side of the at least one piece of optical film. Each edge truss may include one or more sides configured from a corresponding fold in the at least one piece of optical film, wherein at least one of the one or more sides of each edge truss may be configured to impart support to the lens apparatus and to resist deflection of each edge truss.

Abstract: A compression lens assembly is disclosed that includes one or more pieces of optical film with a top edge defining an X-axis, a bottom edge, a left edge defining a Y-axis, a right edge at a distance W from the left edge, and a Z-axis perpendicular to the X- and Y-axes. One or more parallel inward and or outward folds extend between the top and bottom edges. The compression lens assembly may include a lens containment feature with top and bottom channels configured to engagingly secure and restrict the corresponding top and bottom edges of the film in at least the Z-axis direction, and left and right channels spaced a distance smaller than W and configured to compress the left and right film edges together and restrict film movement in the X-axis direction. The compressed film piece may form one or more hill or valley profiles between adjacent folds.

Abstract: Certain example implementations of the disclosed technology include a light emitting device. The light emitting device may include an enclosure with four sides and a top edge surface associated with each of the four sides. The enclosure may be capable of mounting on a grid frame of a suspended ceiling such that a portion of the top edge surfaces contacts a portion of the grid frame. The light emitting device may further include a light modifying element characterized by a substrate with four or more edges, a back surface disposed on the top edge surface of each of the four sides of the enclosure, and a front surface. In certain example embodiments the substrate may further comprise two or more edge trusses. A periphery of the light-emitting front surface may be capable of contacting the grid frame after the light emitting device is mounted to the grid frame.

Abstract: According to one implementation of the disclosed technology, a lens is provided. The lens includes one or more pieces of optical film configured for attaching to and modifying light from a light emitting device. The one or more pieces of optical film define: a lens aperture; a front light-emitting side of the lens; a back light-receiving side of the lens; and two or more edge trusses. The edge trusses are disposed towards the back light-receiving side of the lens. Each of the two or more edge trusses include one or more sides configured from a corresponding fold in the one or more optical films, wherein at least one of the one or more sides of each of the two or more edge trusses is configured at an angle relative to the lens aperture plane to impart support to the lens and to resist deflection of each edge truss.

Abstract: In an example embodiment, a light fixture is provided that includes an enclosure with an aperture plane and two or more linear light emitting diode (LED) arrays configured to mount within the enclosure on LED array mounting features that are oriented at an angle between about 80 degrees and about 135 degrees relative to a back surface plane of the enclosure. The light fixture may further include a lens with an axis of symmetry defining two opposing lens halves that define substantially planar outer portions and curved inner portions. The two lens halves may be configured to intersect or join in proximity to the axis of symmetry that is disposed parallel, and above or in proximity to the two or more linear LED arrays. The outer edges of the substantially planar outer lens portions are disposed in proximity to opposing edges of the aperture plane of the enclosure.