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: 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.

Abstract: Example embodiments of the disclosed technology include systems, methods, and/or apparatus for modifying light. In example implementations, a light modifying element or assembly of light modifying elements is provided and is configured to modify light from a light source. The light modifying elements can include various configurations and assemblies disclosed herein, which may comprise V-shaped, curved, or truncated-pyramid shaped light modifying elements, wherein one or more optical film pieces are characterized by one or more edge trusses disposed at two or more opposing edges of at least one of the one or more optical film pieces. The one or more edge trusses are characterized by one or more folds of at least a portion of at least one of the one or more optical film pieces. Edge trusses are further characterized to support two or more opposing optical film edges in a substantially planar configuration.

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: One example implementation of the disclosed technology is directed to a light reflector cone mounting apparatus that is configured to attach to a light reflector trim, and comprises an outer perimeter edge configured with two or more perimeter clip mounting features. Perimeter clips can be engaged in each of the two or more perimeter clip mounting features, wherein each perimeter clip is configured to engage between the light reflector trim and a ceiling surface, thereby attaching the light reflector cone mounting apparatus to the light reflector trim.

Abstract: One example implementation of the disclosed technology is directed to a light reflector cone mounting apparatus that is configured to attach to a light reflector trim, and comprises an outer perimeter edge configured with two or more perimeter clip mounting features. Perimeter clips can be engaged in each of the two or more perimeter clip mounting features, wherein each perimeter clip is configured to engage between the light reflector trim and a ceiling surface, thereby attaching the light reflector cone mounting apparatus to the light reflector trim.

Abstract: Certain embodiments of the invention may include system apparatus for providing a light diffusion and condensing fixture. According to an example embodiment, a light fixture is configured for illuminating subjects and it includes an enclosure cavity. The enclosure defines a cavity with an opening and one or more reflective inner surfaces. The light fixture also includes a frame structure defining an optical aperture and the frame structure is disposed proximate to the opening. The light fixture also includes two or more film tensioners associated with the frame structure. The light fixture also includes at least one light source positioned between the one or more reflective surface and a plane defined by the optical aperture. The light fixture further includes at least one optical film comprising at least one lenticular lens surface and the at least one optical film is suspended substantially parallel to the optical aperture by the two or more tensioners.

Abstract: Certain embodiments of the disclosed technology may include systems and apparatus for providing a light reflector, light fixture, light fixture retrofit apparatus, lamp reflector, lamp retrofit apparatus or luminaire reflector retrofit. According to an example embodiment of the disclosed technology, a light reflector is provided that includes two or more nested cone-shaped layers configured for reflecting light from a light source placed in proximity to the inner cone portion. The two or more nested cone-shaped layers include a reflection layer disposed adjacent to an outer cone portion of the layers. The two or more nested cone-shaped layers further include a lenticular optical film disposed between the reflection surface of the reflection layer and an inner cone portion.

Abstract: Certain embodiments of the disclosed technology may include apparatuses for providing a cone mounting, support or gasket apparatus. According to an example embodiment of the disclosed technology, a cone mounting, support or gasket apparatus is provided that is configured to attach to a cone, wherein the cone comprises a directrix and an outer surface. The cone mounting, support or gasket apparatus comprises a ring shaped structure defined by an inner surface comprising a conical wall, wherein the conical wall has a bottom and a top. The bottom of the conical wall has a greater diameter than the top of the conical wall, and the angle of the conical wall is similar to the angle of the cone outer surface. The ring shaped structure includes a ledge, wherein the ledge originates at the bottom of the conical wall and protrudes away from the conical wall. The cone attaches to the cone support apparatus whereby the directrix of the cone is disposed on the ledge of the ring shaped structure.

Abstract: Certain embodiments of the disclosed technology may include systems and apparatus for providing a light reflector, light fixture, light fixture retrofit apparatus, lamp reflector, lamp retrofit apparatus or luminaire reflector retrofit. According to an example embodiment of the disclosed technology, a light reflector is provided that includes two or more nested cone-shaped layers configured for reflecting light from a light source placed in proximity to the inner cone portion. The two or more nested cone-shaped layers include a reflection layer disposed adjacent to an outer cone portion of the layers. The two or more nested cone-shaped layers further include a lenticular optical film disposed between the reflection surface of the reflection layer and an inner cone portion.

Abstract: Certain embodiments of the disclosed technology may include light reflector systems, methods, and apparatus. According to an example embodiment, a light reflector is provided. The light reflector includes a rear reflector that includes a reflective surface. The light reflector includes a lenticular optical film having a smooth surface and a structured surface. The smooth surface of the lenticular optical film is attached or disposed adjacent to the reflective surface. The lenticular optical film is configured for condensing and diffusing light.

Abstract: Certain embodiments of the invention may include reflector systems, methods, and apparatus for providing a light reflector. According to an example embodiment of the invention, a method is provided for manufacturing a multi-layer light reflector. The method can include attaching a rear reflective layer to a lenticular lens optical film layer. The lenticular lens optical film layer includes a smooth surface and a structured surface. The rear reflective layer is disposed adjacent to or in contact with the smooth surface of the lenticular optical film. The method also includes attaching a diffusion layer to the lenticular lens optical film layer. The diffusion layer includes a smooth film surface and a structured diffusing surface. The smooth film surface of the diffusion film is disposed adjacent to or in contact with the structured surface of the lenticular lens optical film.

Abstract: Certain embodiments of the invention may include reflector systems, methods, and apparatus for providing a light reflector. According to an example embodiment of the invention, a method is provided for manufacturing a multi-layer light reflector. The method can include attaching a rear reflective layer to a lenticular lens optical film layer. The lenticular lens optical film layer includes a smooth surface and a structured surface. The rear reflective layer is disposed adjacent to or in contact with the smooth surface of the lenticular optical film. The method also includes attaching a diffusion layer to the lenticular lens optical film layer. The diffusion layer includes a smooth film surface and a structured diffusing surface. The smooth film surface of the diffusion film is disposed adjacent to or in contact with the structured surface of the lenticular lens optical film.

Abstract: Processes for producing a holographic material wherein the holographic image is formed on a polished, substantially smooth surface of a printing element and then transferred the holographic image to a substrate. A coating is applied to the smooth surface of the printing element to provide a coated surface, the coated surface is embossed or engraved to provide the holographic image, and the holographic image is then transferred to a substrate via a bonding material, thereby producing the holographic material. The holographic material may be used to provide a decorative cover for an object or item, such as a floral grouping or a potted plant.

Abstract: Scented decorative grasses having an appearance and/or texture simulating the appearance and/or texture of cloth are disclosed, as are methods for making such scented decorative grasses from materials wherein at least one surface of the material is modified to simulate the appearance and/or texture of cloth.

Abstract: A sleeve used to wrap items such as potted plants. The sleeve may have an open or closed bottom. When closed, the bottom may have a gusset for allowing expansion upon the depositing of the pot into the sleeve. The sleeve has a detachable upper portion. The sleeve has a bonding material disposed upon an inner and/or outer portion of the sleeve for crimping the sleeve adjacent the pot to hold the sleeve about the pot.

Abstract: A plant packaging and covering system including a floral sleeve having a decorative pattern thereon. The sleeve may have a lower portion sized to cover a pot and an upper portion which can surround a plant disposed in the pot and which can be detached after the protective function of the upper portion is complete or which can be used to support the sleeve from a support device prior to use. The decorative pattern preferably has an arcuate upper boundary in the flattened condition which when opened, gives the sleeve the appearance of having an upper edge which is parallel to the upper rim of the pot disposed within the sleeve.

Abstract: A plant packaging system comprising a combination of a protective sleeve portion and a decorative cover portion having a base and skirt for packaging a potted plant. The protective sleeve can be detached from the decorative portion of the package system once the protective function of the sleeve has been completed, thereby exposing the decorative cover and allowing the skirt portion to extend angularly from the base. The protective sleeve and decorative cover components may comprise a unitary construction or may comprise separate components which are attached together by various bonding materials.

Abstract: A plant packaging system and method comprising a combination of a protective upper portion and a decorative lower portion having a base portion and a skirt portion for packaging a potted plant or a botanical item and a growing medium without a pot. The upper portion may be detachable from the lower portion of the sleeve. The lower portion may have a skirt portion which has a non-linear upper peripheral edge. The lower portion may be tapered and may have a gusset in the lower end.

Abstract: A method of wrapping a potted plant in a decorative cover wherein the cover is a flattened sleeve. Upon opening of the sleeve, the sleeve has a bottom which may be closed, and the sleeve is sized to cover a pot. The potted plant is disposed within the inner retaining space of the open sleeve, and the pot is positioned on the bottom of the sleeve such that the sleeve covers at least a portion of the outer peripheral surface of the pot to provide the decorative cover for the potted plant.