Abstract: A camera module includes: a housing having at least one light-transmitting region, a lens embedded on the housing, and at least one light-emitting component embedded on the housing. A light-emitting component corresponds to a light-transmitting region, and light emitted by the light-emitting component can be transmitted from the light-transmitting region.

Abstract: Disclosed is a luminaire configured to provide for an adjustable lighting profile. The characteristics that define the lighting profile include the angle and intensity of light emitted from the housing of the luminaire. An example luminaire comprises: a housing and a light source positioned within the housing. The housing defines two lateral side openings and a front opening through which light emitted by the light source can escape; the housing includes a plurality of interior reflective surfaces that redirect light emitted by the light source; and the housing includes an adjustable reflector that is rotatably coupled to the housing and used to selectively block at least a portion of the front opening.

Abstract: A softbox having a body with an integrated light-altering element. The light-altering element may have a body and an edge, where at least a portion of the edge of the light altering element is non-removably coupled to at least a portion of softbox body proximate to the softbox edge. The other portions of the edge may have attachment elements that couple to other portions of the distal edge of the softbox. Another light-altering element, such as a grid, may couple to the softbox by coupling to a cuff of the body of the softbox.

Abstract: A proximity sensing device includes: a light source, a sensing unit, a light guide unit, and a window. The light source emits light, which is guided by the light guide unit to the window. The emitted light reflected by an object is received by the same window. The light guide unit includes a partial-transmissive-partial-reflective (PTPR) optical element, whereby the light emitted from the light source is reflected by the PTPR optical element, while the light reflected by the object passes through the PTPR optical element. There is only one window required.

Abstract: A softbox for use with a light source has structures to collapse the softbox. These structures include a ring-support assembly. The ring support assembly includes a support ring and a light ring, both of which couple to frame arm assembly. The frame arm assembly supports the material of the softbox. When the support ring and light ring are separated, the frame collapses. The structures of the light box may be entirely disposed outside of the direct path of the light source to the target, facilitating, in part, the softbox being integrated with other light manipulating devices proximal to the light source.

Abstract: A softbox light includes a lighting element and a softbox lighting kit including a reflective cloth, a main bracket, a fixed base, a movable base, and an auxiliary bracket, wherein the main bracket is provided on the reflected cloth to allow the reflective cloth to be unfolded to form a box having a light outlet, wherein the auxiliary bracket is connected between the movable base and the main bracket, the movable base is movable with respect to the fixed base, wherein when the movable base is mounted and retained on the fixed base, the main bracket is unfolded by the auxiliary bracket to unfold the reflective cloth, wherein the lighting element is adapted to be installed on the movable base to project light beams to the reflective cloth.

Abstract: A portable diffused lighting system is disclosed. The lighting system includes a collapsible containment and a light source. The containment includes a perimeter wall, a first end, and a light diffuser, with the first end including the light diffuser, with the containment being disposable in a collapsed configuration and at least one expanded configuration, and with a maximum expanded configuration for the containment providing a maximum spacing of no more than about 4 inches between the light source and the light diffuser. The light source projects within an interior of the collapsible containment, and diffused light is output from the containment through the light diffuser. The lighting system may include a connector for detachably mounting the lighting system to a computer display panel. The lighting system may also include a boom stand, and the noted connector may also detachably mount the containment to the boom stand.

Abstract: A lighting assembly includes a Fresnel lens disposed at a controllable or predeterminable distance from a diffuse light source. Relatively small cutter cards are disposable between the diffuse light source and the Fresnel lens for generating various shadow effects on a photography, television or film production set. The light assembly enables a soft lighting of foreground subjects, typically actors, with a light intensity that stays relatively constant regardless of the distance of the subjects from the composite light source, specifically the Fresnel lens.

Abstract: An optoelectronic component may include at least one semiconductor chip for emitting electromagnetic radiation, a conversion element, and an optical element. The conversion element may at least partially convert primary radiation emitted by the semiconductor chip(s) into secondary radiation where the conversion element is arranged downstream of the semiconductor chip(s) in the emission direction and is arranged on the semiconductor chip(s). The optical element may be arranged downstream of the conversion element in the emission direction and where the conversion element is subdivided into individual portions.

Abstract: A scanning device that has a housing including an opaque wall configured to position an imaging device (e.g., still or video camera) to capture an image of a tangible object, a staging area (e.g., transparent wall, opening) opposite of the opaque wall, and an opaque body extending between the opaque wall and the staging area. The scanning device has a chamber that enables the imaging device to capture the image relative to the staging area. A focal distance from the imaging device to the staging area enables capturing a physical characteristic (e.g., a color, size, shape, texture, pattern) of the tangible object in the image at a resolution that enables ascertaining an attribute (e.g., authenticity, purity, or quality) of the tangible object. The opaque body can have an expandable structure to increases or decrease a focal distance to the tangible object.

Abstract: A lighting device for film and television for attachment to a light fixture has interconnected preferably trapezoidal panels connected to adjacent panels along opposing ends within a fabric sleeve, the wider edges of the panels connectable to the lighting fixture. Each panel has a corrugated plastic core and fibreglass rods inserted perpendicular to the parallel edges of the panels adjacent a first end, adjacent an opposing second end, and at a medial position. A hinge having attachment means is provided at one end of the extension housing. The device may be folded upon itself to about ? of its original size and requires no assembly as it is a single unit. Although the enclosure is collapsible, once it is attached to any light fixture it becomes a rigid frame that does not collapse.

Abstract: A flash light source device includes: a flash lamp; a wiring board that is provided with a circuit configured to cause the flash lamp to emit light; a housing that is formed of a conductive material and accommodates the flash lamp and the wiring board; and an electromagnetic shield cable that includes a wire directly connected to the wiring board, an electromagnetic shield layer that covers the wire, and an insulating protective layer that covers the electromagnetic shield layer, and extends to the inside and outside of the housing through an opening formed in the housing. The electromagnetic shield layer is exposed at least at a part corresponding to the opening. The part corresponding to the opening in the electromagnetic shield layer is electrically connected to a part defining the opening in the housing.

Abstract: Described herein are an improved automated luminaire and luminaire system employing an automated adjustable scrim system, which provides adjustable and selective intensity control across a light beam.

Abstract: A light-emitting device and a projection system, comprising: a laser array light source which comprises a non-light-emitting region and a light-emitting region consisting of a plurality of laser elements; a reflective light-condensing system which comprises a light-condensing region and a non-light-condensing region, wherein the light-condensing region is used for focusing and reflecting emergent light of the laser array light source; and a light-collecting system used for collecting and emitting the emergent light from the reflective light-condensing system. The light-collecting system, the non-light-emitting region and the non-light-condensing region are located in the same straight line parallel to a light axis of the emergent light of the laser array light source, and the light-collecting system passes through the non-light-emitting region and/or the non-light-condensing region. The light-emitting device and the projection system have small volumes and can emit high-brightness and uniform faculae.

Abstract: The present disclosure provides for light delivery assemblies and, more particularly to light delivery assemblies/systems that provide light to and/or illuminate/treat predetermined locations (e.g., surgical sites), and related methods of use. An exemplary light delivery assembly (e.g., a surgical site light) includes a shell/housing (e.g., a plastic shell/housing) with a cross-sectional shape similar to an inward-facing asymmetrical C. The shell/housing is shaped to be placed proximal to a site (e.g., surgical site) and emit light onto the site from a plurality of directions while inhibiting the light from radiating away from the outside of the shell/housing. Exemplary light delivery assemblies of the present disclosure can be utilized for a variety of different applications/treatments/uses (e.g.

Abstract: Diffusing light illuminating a light target or subject of a film or video production including placing a diffusion panel between a light source and a light target, energizing said light source so as to direct light therefrom through the diffusion panel, and electrically adjusting the transparency of the diffusion panel by changing an electric potential applied to electrodes of the diffusion panel. The electrically adjustable diffusion panel eliminates the need for manually changing diffusion papers or other filters and provides a continuous range of selectable levels of transparency/diffusion.

Abstract: A lens assembly for a vehicle includes a light source, a preliminary lens, and a bending lens. The light source emits a stream of light rays. The preliminary lens has an entry surface and an exit surface disposed opposite the entry surface. The preliminary lens is disposed in adjacent relationship to the light source such that the entry surface faces the light source. The bending lens has a receptor surface and an emission surface disposed opposite the receptor surface. The receptor surface of the bending lens faces the exit surface of the preliminary lens. At least one optic extends from the emission surface of the bending lens. Each optic is configured to bend a portion of the stream of parallel light rays travelling therethrough such that a stream of bent light rays is emitted from the optic.

Abstract: An electrically adjustable optical diffusion panel for use in film or video production having a frame, diffusion material affixed to the frame, where the transparency of the material is continuously and variably changeable between a substantially transparent state and a substantially opaque state in response to an electric potential applied to electrodes of the material and a controller and battery. The electrically adjustable diffusion panel eliminates the need for manually changing diffusion papers or other filters and provides a continuous range of selectable levels of transparency/diffusion.

Abstract: A strobe device of the present invention includes a flash discharge tube having an anode electrode and a cathode electrode on both ends thereof, and a conductive reflector in contact with an outer peripheral surface of the flash discharge tube. The reflector houses a part of the flash discharge tube inside, and functions as an external trigger electrode. The reflector has a bottom that is in contact with a portion of the outer peripheral surface of the flash discharge tube, the portion covering at least an area between the anode electrode and the cathode electrode and a sintered metal of the cathode electrode. This can suppress variation in discharge path at every light emission from the flash discharge tube. As a result, variation in light quantity and variation in light distribution of light emitted from the strobe device can be suppressed.

Abstract: A strobe device of the present invention includes a light source; an optical element; and reflector having reflecting surface. Reflecting surface includes first reflecting surface formed closer to reflector than from specific reflecting region in reflecting surface; and second reflecting surface formed closer to the optical element. Further, first reflecting surface has a shape curved so as to have its center of curvature inside reflector. Second reflecting surface has a shape curved so as to have its center of curvature outside reflector and to be more remote from an optical axis with decreasing distance to the optical element. This prevents light emitted from the light source from illuminating part other than a desired region.

Abstract: A reflective lighting system for illuminating a subject includes a diffusion panel and a reflector. The diffusion panel is arranged and configured to be illuminated by a light source. The reflector is arranged and configured to receive light from the diffusion panel and redirect the light toward the subject.

Abstract: A lighting apparatus includes a reflector which has a truncated cone shape along a central axis of the lighting apparatus and a base which is coupled to a narrow end face of the reflector and is capable of moving toward a wide end face of the reflector along the central axis of the lighting apparatus. The lighting apparatus further includes a light source which is mounted centrally on an end face of the base.

Abstract: An apparatus including a flashlamp; a lens member connected to the flashlamp; and a reflector connected to the lens member. The lens member is located between the flashlamp and the reflector. A method includes connecting the lens member to the flashlamp, where the lens member substantially surrounds the flashlamp, and connecting the reflector around an exterior side of the lens member, where an exit side of the lens member is not covered by the reflector.

Abstract: A stroboscopic device includes a light emitter disposed in a light-emitter casing, a light controller member disposed in an opening of the light-emitter casing, and a prism member disposed at a position near the light emitter where an opening of a reflector is not covered. The light emitter includes a flash discharge tube and a reflector for reflecting the light rays from the flash discharge tube in an irradiation direction. The light controller member controls the light rays from the light emitter. The prism member bends the light rays emitted from the flash discharge tube into an optical axis direction.

Abstract: An illumination apparatus (16) for a 3D camera (10) for the generation of an illuminated region (22) having a homogeneous intensity distribution which is nevertheless an increased intensity distribution in the boundary regions of the illuminated region (22), wherein the illumination apparatus (16) comprises at least one light source (26) having a main radiation direction, as well as a lateral reflector (30) circumferentially arranged about the main radiation direction (28). In this connection an additional central reflector (32) is arranged in the main radiation direction (28) in order to redistribute central light portions of the light transmitted by the light source (26) outwardly by reflection at the central reflector (32) and at the lateral reflector (30).

Abstract: Embodiments are disclosed of an apparatus including an apparatus comprising a curved reflector having an interior and an open end. The curved reflector includes a curved light-reflecting surface and a pair of reflective surfaces. A light module is positioned around a perimeter of the open end of the reflector, the light module including a first side having one or more interior light sources thereon to direct light toward the interior of the reflector and a second side having one or more exterior light sources thereon to direct light away from the reflector. A waveguide module is coupled to the light module and aligned so that light from the one or more exterior light sources is launched into the waveguide module. Other embodiments are also disclosed and claimed.

Abstract: A softbox for being mounted on a light exit of a light source includes support structure extending outwardly and forwardly from the light exit; plural gradually reflective side walls which can be mounted on the support structure; and one or more diffusors arranged between the side walls, wherein the one or more diffusors are, in use, centrally arranged in front of the light exit and inclined in such a manner that a lateral light intensity distribution is more homogeneous at an exit of the softbox, than at an entry of the softbox.

Abstract: The illumination apparatus includes a light collector directing light from a light source, radially inward further than the light source, and a light guider provided radially inside further than the light source so as to circumferentially extend and guiding the light from the light source toward an area extending to a side away from the light source and causing the light from the light source to exit toward a light projecting direction. The light collector includes two reflective surfaces on a light projecting direction side and on an opposite side thereto in the thickness direction, and a light exiting opening between the two reflective surfaces. In a sectional plane along the thickness direction, a direction of a center of a light exit range from the light collector tilts to the opposite side to the light projecting direction side.

Abstract: The illumination apparatus includes a light source, a first reflective portion provided inside further than the light source in a radial direction so as to extend in a circumferential direction and reflecting light from the light source toward a light projecting direction. The apparatus further includes a second reflective portion provided inside further than the light source in the radial direction so as to extend in the radial direction and reflecting the light from the light source toward an area extending to a side away from the light source in the circumferential direction.

Abstract: An optical system for capturing three-dimensional images of a three-dimensional object is provided. The optical system includes a projector for structured illumination of the object. The projector includes a light source, a grid mask positioned between the light source and the object for structured illumination of the object, and a first Wavefront Coding (WFC) element having a phase modulating mask positioned between the grid mask and the object to receive patterned light from the light source through the grid mask. The first WFC element is constructed and arranged such that a point spread function of the projector is substantially invariant over a wider range of depth of field of the grid mask than a point spread function of the projector without the first WFC element.

Abstract: A one-piece, collapsible light modifier device for attachment to a flash mechanism, including: (a) a translucent front panel; (b) a reflective rear panel that is substantially the same shape as the front panel, the rear and front panels each including a bendable wire frame around its periphery; (c) at least one side panel between the front panel and the rear panel; (d) a flash hole at a base of the light modifier device between opposite ends of the side panel; and (e) a flash strap attached to the reflective inside surface of the rear panel adjacent the flash hole; wherein the light modifier device includes a compact, closed position and an open position for use. This simplified abstract is not intended to limit, and should not be interpreted as limiting, the scope of the claims.

Abstract: A light emitting device with at least one LED die, a filter element and a reflective element. The filter element may be configured to preferentially attenuate light passing through the filter element, such that light output has improved color uniformity when compared to similar light emitting devices without a filter element.

Abstract: The illumination apparatus includes a reflector unit to reflect a light flux from a light source. The reflector unit includes a first reflector and a second reflector whose relative positions are changeable to change an illumination angle. At a first illumination angle, the second reflector is disposed inside the first reflector, and the light flux from the light source is reflected by the second reflector to exit from the reflector unit. At a second illumination angle smaller than the first illumination angle, the first reflector is disposed further on a light exit side than the second reflector, and the light flux from the light source is reflected by at least one of the first and second reflectors to exit from the reflector unit. A distance between the light source and the second reflector at the second illumination angle is shorter than that at the first illumination angle.

Abstract: A light shaping tool with a multiple reflector arrangement to produce varied light and diffused light. A combination of varied light sources that complement each other is configured in an apparatus to produce desirable lighting. Different combinations of light reflecting surfaces and materials are configured to cooperate in a multiple reflector arrangement to produce and shape light for stage, studio, motion picture and still photography.

Abstract: An illumination device contains a light-emitting semiconductor chip containing a plurality of individually drivable emission regions. The illumination device furthermore contains an optical element designed to shape light emitted by the emission regions to form a beam of rays. The illumination device is designed such that different beam profiles of the beam of rays can be set by the individually drivable emission regions.

Abstract: A lighting apparatus comprises a light panel having a panel frame, and a plurality of LEDs or other light elements secured to the panel frame. A self-contained battery unit securably attaches to the outside of the panel frame. The light panel may have a dimmer switch, and may also be capable of receiving power from a source other than the self-contained battery unit. The lighting apparatus can be mounted to a camera or a stand through adapters. Diffusion lenses or color gels can be integrated with or detachable from the light panel. The lighting apparatus may conveniently be provided in the form of a kit, with one or more of a light panel, self-contained battery unit, compact stand, connecting cable(s), adapter(s), lenses or color gels, and so on, provided in a single package.

Abstract: A studio light and deflection cone softens the harsh light that is produced by studio lighting instruments, in order to show fewer wrinkles and imperfections on the actors' faces and to create more appealing and flattering facial features for the purpose of photography. The cone attaches to the front of a studio lighting instrument. As light is projected into the rear of the cone, it passes through a primary gel frame that is covered with light deflecting material that spreads the beam. Inside the cone, the light reflects off the ultra-white interior of the cone, is intensified, and passes through the secondary gel frame that is covered with light deflecting material. Upon leaving the cone, the light passes through the control grid at the very front of the cone that narrows the spread of the light exiting the cone in degrees to produce a very soft and controlled light.

Abstract: A panel is disclosed that is both light transmissive and light reflective for use in photographic lighting apparatus. The panel comprises a light transmissive material and a light reflective material, which are arranged to provide a distribution of both light transmissive regions and light reflective regions across an operative surface of the panel.

Abstract: A light source apparatus includes: a light source section that emits a luminous flux whose quantity of light is larger in a central region than in a peripheral region; a condensing optical system that condenses an incoming luminous flux; and a light distribution correction optical element arranged between the light source section and the condensing optical section, in which a central portion has a negative power that is more intense than that of a peripheral region.

Abstract: A one-piece, collapsible light modifier device for attachment to a flash mechanism, including: (a) a translucent front panel; (b) a reflective rear panel that is substantially the same shape as the front panel, the rear and front panels each including a bendable wire frame around its periphery; (c) at least one side panel between the front panel and the rear panel; (d) a flash hole at a base of the light modifier device between opposite ends of the side panel; and (e) a flash strap attached to the reflective inside surface of the rear panel adjacent the flash hole; wherein the light modifier device includes a compact, closed position and an open position for use. This simplified abstract is not intended to limit, and should not be interpreted as limiting, the scope of the claims.

Abstract: A parabola light reflector includes multiple light reflecting surfaces on an umbrella skin. A first or outer skin is used to provide support for and to define the shape of the inner skin. A second or inner skin has a larger surface area than the outer skin and the inner skin is made up of panels of light reflecting material. The panels of the inner skin are stitched together in a variety of different configurations to achieve differing results. The inner skin is configured into a collection of three dimensional folds, creases, bends and angles that significantly increases the surface area of the inner skin that is available to reflect light and to create novel light dispersion patterns from a light source associated with the light reflector.

Abstract: A flash apparatus and related systems and methods of use are disclosed herein. The apparatus includes a housing having a generally concave reflector, and a light source disposed within the reflector. A handle can be engaged with the housing and/or the light source to facilitate manual positioning and repositioning of the light source relative to a photographic apparatus remote from the housing and/or an object to be photographed. A synchronization device is in communication with the light source and the photographic apparatus for causing the light source to emit a flash of light when the photographic device is actuated. A modifier can also be engaged with the reflector for modifying the emitted flash of light. In a portable system, various interchangeable reflectors, modifiers, and light sources can be provided. Power sources for the light sources and a stand engageable with the handle can also be included.

Abstract: A camera flash module is provided. The camera flash module may include a lens having a single refractive surface and a reflector that adjusts a direction of a light emitted from the lens. Accordingly, maintaining of a distance between a light emitting device and the lens may not be needed and thus, the camera flash module may be readily manufactured and a productivity may be improved. An error rate caused by distortion in a tilt and an optical axis between the light emitting device and the lens may be reduced. The reflector may adjust a direction of a light emitted from the lens and thus, an emission pattern requested by a camera may be satisfied, and a velocity of light may be improved. The reflector may surround the lens and thus, may prevent the lens from being detached from a light emitting device package body when an external impact occurs.

Abstract: A strobe device includes a discharge tube having a light transparent section and an optical member disposed in front of the light transparent section. The optical member includes a first incident face receiving a main beam radiated forward from the light transparent section, a pair of second incident faces receiving a complementary beam radiated forward and obliquely from the light transparent section, a pair of total reflection faces for reflecting totally and forwardly the complementary beam coming from the second incident faces, and an beam-emitting face through which the main beam and the complementary beam go outward.

Abstract: An illumination device for an image capture system according to one example embodiment includes an integrating light pipe having an input face and an output face. The integrating light pipe is positioned to receive light from a light source at the input face and transmit the light at the output face. A projection element is positioned to focus the light from the output face to a document plane to be imaged by an image sensor. A uniformity correction device is positioned to attenuate the light from the output face so that the light has a substantially uniform intensity at the image sensor and a less uniform intensity at the document plane than at the image sensor.

Abstract: A stroboscopic device includes a light emitter disposed in a light-emitter casing, a light controller member disposed in an opening of the light-emitter casing, and a prism member disposed at a position near the light emitter where an opening of a reflector is not covered. The light emitter includes a flash discharge tube and a reflector for reflecting the light rays from the flash discharge tube in an irradiation direction. The light controller member controls the light rays from the light emitter. The prism member bends the light rays emitted from the flash discharge tube into an optical axis direction.

Abstract: Disclosed herein is an LED flash lens unit which prevents occurrence of yellow bands or yellow rings if LED light is concentrated through an LED flash lens improving manufacturing ability and mass production to have high performance and high efficiency.

Abstract: An illumination optical system of a 3-dimensional (3D) image acquisition apparatus and a 3D image acquisition apparatus including the illumination optical system. The illumination optical system of a 3D image acquisition apparatus includes a beam shaping element which outputs light having a predetermined cross-sectional shape which is proportional to a field of view of the 3D image acquisition apparatus. The beam shaping element may adjust a shape of illumination light according to its cross-sectional shape. The beam shaping element may uniformly homogenize the illumination light without causing light scattering or absorption.

Abstract: A photographic reflector includes an engagement unit, a support frame, a fabric canopy, and a lamp holder. The engagement unit includes an engagement seat and an engagement member moveably mounted in the engagement seat. The support frame includes a plurality of ribs and a plurality of stretchers corresponding to each respective rib. One end of each rib is pivotally connected to the engagement seat. One end of each stretcher is pivotally connected to a preset location of the corresponding rib, and the other end of each stretcher is pivotally connected to the engagement member. The fabric canopy is mounted on the ribs of the support frame and has a reflective layer at an inside thereof and a mounting hole defined at a location close to the engagement unit. The lamp holder is mounted in the mounting hole of the fabric canopy. The photographic reflector can be folded as compactly as desired, easily stored, and convenient in transportation and use.

Abstract: Method and apparatus for attenuating unwanted aspects of lighting from a luminaire which is disposed to illuminate an object or objects being photographed. A light attenuating mask is disposed between the luminaire and the object or objects. The light attenuating mask may diffuse, obstruct, or otherwise modify projected light such that light intensity is diminished, unwanted reflections of the luminaire are suppressed, or other aspects of the light are altered. The mask may attach to the luminaire or may be free standing and separate therefrom.