Abstract: The present invention discloses a structure of a single-sided PCB within an ExpressCard with SMD LEDs arrangement formed thereon. The SMD LEDs are act as status indicators for the electronic devices with small, thin and compact size. The structure is expected to form SMD LED illuminating light to the top surface of the PCB with SMD LEDs connecting to the bonding pads on the bottom surface of the PCB. The method comprises forming through-holes on the PCB, placing SMD LEDs over the through-holes with their illuminating heads facing toward the top surface of the PCB, soldering the SMD LEDs with the bonding pads on the bottom surface of the PCB.

Abstract: A nightlight provides therapeutic effects on the body and mind including promoting relaxation, sleep and wakefulness. The nightlight includes a light source, a central processor, one or more controls, and a power supply. The light source produces at least three illumination modes including a sleep readiness mode, a sleep help mode and a wake-up mode. The sleep readiness mode produces monochromatic light of various selectable colors at about 40 lumens which may undulate in luminosity. Meanwhile, the wake-up mode produces substantially full spectrum light at higher luminosity. The controls allow a person to control the various light modes including selecting colors, time periods for activation, and transitions between colors during the sleep help mode. Moreover, the nightlight may include biological sensors for measuring physiological activity of the body. The nightlight may be incorporated into a bedside alarm clock which includes numerous features found in a traditional alarm clock.

Abstract: A tower light for a gaming machine comprises a plurality of printed circuit boards. A plurality of individually controllable LEDs are associated with each circuit board, the LEDs located at a periphery of each circuit board and configured to emit light outwardly from its associated circuit board. The plurality of printed of circuit boards are stacked in a vertically and oriented so that the LEDs associated therewith are arranged into a matrix of columns and rows. The printed circuit boards are located in globe portion of a housing of the tower light. The LED matrix is capable of generating animation and information such as text and numbers.

Abstract: A light output device comprises a first and a second substrate arrangement (1,2), the first substrate arrangement (1) comprising a light output surface of the device. An electrode arrangement (3a,3b) is sandwiched between the substrate arrangements and at least one light source (4) is connected to the electrode arrangement. The first substrate (1) arrangement comprises a light diffuser for changing the level of uniformity of the light output from the light source and the second substrate (2) arrangement comprises a light scattering or reflecting layer. This arrangement uses a scattering substrate arrangement for the substrate from which illumination is provided. In order to enhance the level of uniformity, the opposite substrate arrangement is also either scattering or reflecting.

Abstract: The invention relates to a foam part (1), in particular for suspended arrangement in a room, for example for use as a sound absorber (2), with an acoustic region of the foam part which has an outer contour being illuminated by a lighting element (11), further with the lighting element (11) being mounted on the foam part (1) and being disposed within the outer contour of the foam part (1). In particular, the invention also relates to a foam part (1) which is fixed, as a sound absorber (2), in a suspended manner to a room ceiling (3) or room wall, a lighting element (11) which is mounted on the sound absorber (2) and illuminates a subregion of the foam part (1), being provided in said foam part.

Abstract: An LED lamp bulb structure is disclosed, in which a lamp controller is installed inside a lamp head and the bottom surface of the lamp controller is fixed by an upper cover. At the bottom surface of the upper cover, a heat dispersing fin set, which has at least one heat conducting tube installed therein, and a lower cover are fixed. Furthermore, a bulb housing, which has a tray mounted therein, is screwed around the peripheral edge of the lower cover, and at the bottom of the tray, plural LED lamp sets corresponding to plural heat conducting tubes are outwardly extended. Therefore, the heat produced by the LED lamp sets can have a heat exchange through plural heat conducting tubes and the heat dispersing fin set for achieving a better heat dispersing effect and for more effectively dispersing the heat.

Abstract: An emergency lighting system for a building includes at least one LED-based light. An emergency detector is operable to detect an emergency. The emergency detector produces an emergency signal in response to the emergency. A controller is operable to control the at least one LED-based light in response to the emergency signal.

Abstract: A secure light emitting diodes (LEDs) power system controls power to a plurality of LEDs residing in a secure LED fixture coupled to a secure LED fixture mounting. An exemplary embodiment provides power to the plurality of LEDs and senses the power provided to the LEDs. In response to sensing the power, an authorization signal is communicated from a security sensor residing in the secure LED fixture. Power to the plurality of LEDs is maintained only in response to the communicated authorization signal.

Abstract: A solid state lighting apparatus characterized by its compact, predominately axial form factor, utilizes an axial thermal transfer member constructed of Highly Oriented Pyrolytic Graphite (HOPG) to aid in the dissipation of waste heat generated during its operation. The lighting apparatus is chiefly comprised of a Light Emitting Diode (LED) die array and circuit structure assembly affixed to one end of the axial thermal transfer member and further includes a transversely mounted heat sink structure, running the length of, and being affixed to, opposite sides of the axial member. The axial member serves to distribute waste heat down its length, and simultaneously, into a transverse plane where the waste heat is dissipated into the transversely mounted heat sink structure. A fan may be utilized to evacuate the waste heat out of the lighting apparatus and into the ambient environment.

Abstract: An LED lamp includes a fixing rod, a first heat sink mounted to the fixing rod, a second heat sink mounted on the first heat sink, a plurality of LED modules attached on the second heat sink and a lamp cover engaging the first heat sink to enclose the second heat sink and the LED modules. The second heat sink includes a plurality of heat-conducting faces formed on a bottom end thereof and arranged at different levels. The LED modules are respectively attached on the heat-conducting faces of the second heat sink. The lamp cover includes a panel and a plurality of annular steps extending outwardly from the panel in sequence. Each annular step has a concave lens attached thereon. The annular steps are located corresponding to the LED modules of the second heat sink, respectively.

Abstract: LED module, arrays of LED modules, luminaires incorporating such arrays, and methods of illumination where the configuration of respective components facilitates any one or more of desired angle, location and shape of illumination provided by the LEDs. LED modules are selectively disposed on a carrier plate. Each of the LED modules includes a substantially planar LED circuit board with LED chips disposed thereon, a heat sink formed of heat transmitting material and having a mounting surface for accommodating an LED circuit board to dissipate heat from the LED chips, and a reflector with its reflective surface disposed with respect to the LED chips to direct the emitted light toward an axis of illumination extending away from and substantially perpendicular to a plane containing the planar LED circuit board.

Abstract: A lighting and communication system for use in a standardized light fixture is provided. The lighting and communication system includes a light source and a communication apparatus including at least one of an audio device and a camera. At least one electrical connector configured for physical and electrical connection to the standardized light fixture is included, and the at least one electrical connector is electrically connected to the light source and the communication apparatus.

Abstract: An LED lamp includes a printed circuit board, a plurality of LED modules mounted on the printed circuit board and a reflector mounted on the printed circuit board and covering the LED modules. The reflector includes a first extending portion and a second extending portion extending from a side of the first extending portion. Top surfaces of the first and second extending portions are slantwise and oriented towards different directions, thereby to cooperatively form a V-shaped configuration. The LED modules are received in receiving holes in the first and second extending portions. Each receiving hole has a cross section gradually enlarged along a bottom-to-top direction.

Abstract: An LED illuminator includes an illuminator base and at least two LED lamp units inclinedly disposed on a surface of the illuminator base. Each of the LED lamp units includes a heat dissipation structure and LEDs oriented downwardly and outwardly. A U-shaped fixing element is secured to a center of the illuminator base. The LED lamp units are connected with sidewalls of the fixing element.

Abstract: A plurality of LED lamps are mounted on a substrate and sealed within a lamp house to form a closed LED lamp. A circulation fan is installed inside the air-tight LED lamp, with the guidance of a sleeve frame which encloses at least partial of the fan to form partial portion of an air circulation path. An air inlet is made on the sleeve frame behind or in the lateral of the fan, and an air outlet is made on the frame before the fan. The air circulates between inside the sleeve frame and outside the sleeve frame within the sealed lamp housing so as to make the temperature even distribution inside the lamp.

Abstract: Various structures are provided that may be advantageously used in one or more illumination device designs. In one example, a lens is movable among a plurality of light sources to facilitate selection of which light source is used to provide light for the illumination device. In another example, electric power is provided only to the light source that is used to provide light for the illumination device. Rotation of a bezel of the light source can determine which light sources provides light for the light source and which light source receives electric power.

Abstract: An illuminating device for a pair of glasses includes an illumination control device, a housing, a coupling seat, and a positioning mechanism. The illumination control device is received in the housing and includes a lamp emitting light beams out of the housing. The coupling seat includes first and second pivotal portions. The housing is pivotably coupled with the first and second pivotal portions, so that the housing is pivotable relative to the coupling seat. The coupling seat further includes a coupling section coupled to a middle of the pair of glasses. The positioning mechanism retains the housing in a desired angular position relative to the coupling seat, adjusting an illuminating angle of the lamp.

Abstract: A multipurpose lighting device comprises a module including a first light source for a flashlight function and a second light source for a lantern or omni-directional glow stick function. A button on the module is operative to selectively alternating between the first and second light sources. An elongate housing is coupled to the second light source so that the second light source illuminates along the length of the housing. Finally, a whistle portion is formed on one end of the elongate housing so that the multipurpose device includes flashlight, glow stick, and whistle functions.

Abstract: A lighting system for a vehicle maintenance platform includes a frame structure, a plurality of light sources and a rechargeable power source. The frame structure is capable of being detachably coupled to the vehicle maintenance platform. The plurality of light sources is disposed on the frame structure and is configured to illuminate a target region underneath a vehicle. The rechargeable power source is coupled to the frame structure and is electrically connected to the plurality of light sources. The rechargeable power source provides electrical power to the plurality of light sources. Further, a vehicle maintenance apparatus including the lighting system and the vehicle maintenance platform is also provided.

Abstract: A light source (10) comprises a tubular glass heat pipe (12) having a given inside diameter ID. A tubular fiberglass wick (14) is positioned within the glass heat pipe (12). The fiberglass wick (14) has an outside diameter OD substantially equal to the given inside diameter ID and has a substantially centrally located open chamber (16) extending the length thereof. A quantity of an evaporable-condensable medium (17) is provided within the glass heat pipe (12) and a metal cap (18) selected from the group of glass-sealing metals and alloys is fixed to a proximal end (20) of the glass heat pipe (12). Heat dissipaters (22) are fixed to the distal end (24) of the heat pipe (12) and a light emitting diode (26) is fixed to the metal cap (18). Power conducting traces (28) are formed with the heat pipe (12) and are electrically connected to the light emitting diode (26). A lamp (40) can be formed with a plurality of the light sources (10).

Abstract: An illuminated clipboard, including a clipboard base, a license receiving area located on the clipboard base, and a license camera having a display for selectively displaying to a clipboard user an operator license that may be present at the license receiving area and an actuatable recording device for, when actuated, recording information present on the license present at the license receiving area.

Abstract: An illumination system is provided, which provides a plurality of light beams to a light valve. The illumination system includes a plurality of light sources, a polynomial lens and an optical scanning element. The light sources are capable of emitting the light beams. The polynomial lens is disposed on light paths of the light beams and located between the light sources and the light valve. The polynomial lens shapes the light beams into a plurality of rectangular light beams. The optical scanning element is disposed on light paths of the rectangular light beams and located between the polynomial lens and the light valve. The optical scanning element is capable of moving for scanning the rectangular light beams on the light valve unidirectionally or back and forth along a direction, and the rectangular light beams partially overlap with each other on the light valve.

Abstract: A conventional acorn style globe is described incorporating the utilization of LED's as an illumination source. A supporting heat dissipation plate is provided which extends to the exterior periphery of the acorn style luminaire allowing heat to transfer from the LED's directly to the exterior of the acorn style luminaire while maintaining the integrity of an acorn style globe construction. A plurality of individually orientable lenses on each of the LED's positioned within the interior of the globe allow for efficient downlight and desirable optical characteristics. Interior access may be provided through removal of the globe top to thereby provide accessibility to the LED board mounted on the heat transfer plate.

Abstract: An LED lamp includes an LED module, a heat sink having a base to which the LED module is mounted, a plurality of screws extending through the LED module and into the base of the heat sink to secure the LED module on the base of the heat sink, and a plurality of elastic members mounted on the screws and positioned between the base and the LED module. The elastic members are expanded by the screws to generate a force engaging with the screws to thereby combine the screws and the LED module together beforehand.

Abstract: An LED lamp includes a heat sink, a first and second LED modules mounted on the heat sink, a reflector and a supporting post connecting the heat sink and the reflector. The heat sink includes a base having a first end and a second end opposing to the first end, and a plurality of fins extending from the base and between the first and second ends thereof. The first and second LED modules are mounted on the first and second ends of the base, respectively. The supporting post is disposed on the second end of the base with one end thereof connecting the reflector. The reflector is facing towards the second LED module to reflect light generated therefrom toward the first LED module over an enlarged area.

Abstract: A down-light has a main body, a substrate, a plurality of LEDs, a reflector, a central boss, a central screw and peripheral screws. The main body has a mounting area. The substrate having LEDs is assembled in the mounting area. The reflector is attached to the main body with the substrate interposed therebetween, and reflects light emitted from the LEDs. The central boss is formed on the mounting area to correspond to a central part of the substrate. The central screw fixes the central part of the substrate to the central boss from the reflector side. Peripheral screws fix the substrate to the main body by pulling the reflector from the main body side.

Abstract: An LED lamp includes a post (10), a heat sink (20) enclosing the post, an LED module (30) mounted on the post, a holder (40) secured on the LED module, and a lens (50) covering the holder. The heat sink is formed by a plurality of separated fins assembled together. Each fin comprises an outer portion (22) and an inner portion (24). An inner edge of the outer portion abuts interferingly against a periphery of the post, and a bottom of the inner portion contacts a top surface of the post. Heat generated by the LED module is conducted through the post to the plurality of fins, which dissipate the heat to the ambient air.

Abstract: A hot-melt glass pillar lamp and a multi-channel heat dissipation method thereof; the pillar lamp comprises a base, a hollow steel frame which is mounted on the middle of the base, several sections of pillar-shaped hot-melt glass lamp which surround the steel frame and are sequentially arranged on the base from down to up in an overlapping manner, and a lamp cover with air outlets, wherein, each section of the pillar-shaped hot-melt glass lamp comprises a fixing framework which is composed of a plurality of supporting bars and a supporting board; each surface of the fixing framework is separately provided with a hot-melt glass lamp plate; an LED lamp plate is arranged at a certain distance from the inner side of each hot-melt glass lamp plate, and on the corresponding surface of the steel frame.

Abstract: A device used in conjunction with a grave marker or headstone for illuminating a grave site during the night. An enclosure unit is directly affixed to the grave marker or provided in a stand alone unit associated with the grave marker. The enclosure also includes audio material, such as an obituary which can be played by depressing or engaging a switch associated with the enclosure. Both the illumination device as well as the audio material are powered by a rechargeable battery connected to a solar panel provided directly on the enclosure.

Abstract: A combined illuminated table and canopy includes a free-standing table, a canopy adjustably connected to the table and disposed thereabove at an elevated position, and means for illuminating a perimeter of the table such that a top surface of the table becomes illuminated. Such an illuminating means includes a plurality of light-emitting sources attached to the table, a transformer electrically coupled directly to the light-emitting sources, and releasably engaged male and female shafts have detachably abutted first and second contacts. A solar panel is electrically coupled to the first contact, and a contact mechanism is electrically connected to such first and second contacts as well as the existing external supply source in such a manner that the existing external power supply source is automatically disengaged from the light-emitting sources when the first contact is engaged from the second contact.

Abstract: A nut is disclosed including a body having a visual indicator coupled thereto and integral therewith. The visual indicator provides a visual indication of a stress state of the body of the nut.

Abstract: The present invention is an alternative lighting technology to form light emitting diode (LED) light tube. The tubular or circular LED tube is formed by transparent plastic and a metal heat sink that includes LEDs soldered onto a metal core printed circuit board with a special arrangement to achieve greater brightness than an equal distance arrangement. All LEDs are directly inserted into the metal core printed circuit board with a unique insulation coating to allow the LED anode and cathode to be inserted into the metal core printed circuit board and soldered on the opposite side of the metal core printed circuit board. It can connect one or more control units to control intensity.

Abstract: The present invention provides an end-side heat extraction light emitting diode or LED lamp. The LED lamp includes a lamp housing, a cooling module, and an LED lighting set. The cooling module is configured inside the housing space of the lamp housing, having a cooling fan and a cooling base. The LED lighting set is configured on the LED joint surface of the cooling base. The end-side heat extraction LED lamp also includes a circular frame and an end-side heat extraction airflow guidance passage. The circular frame forms a space extending and expanding to the end side. The end-side heat extraction airflow guidance passage forms an airflow guidance space extending and expanding to the end side, forming a heat radiating path where the heat extraction airflow generated by the running cooling fan of the LED lamp can be exhausted from the light projection end of the lamp housing.

Abstract: A white light LED-based lighting device configured for direct form, fit, and function replacement of existing incandescent and compact fluorescent devices is provided. The white light LED-based lighting device comprises a group of solid state light emitting diodes, electronics to activate the light emitting diodes, and an encapsulating housing configured for direct form, fit, and function replacement of existing incandescent and compact fluorescent devices.

Abstract: A lighting apparatus using a light emitting diode (LED) package is disclosed. The lighting apparatus includes a lighting unit and a power unit. The lighting unit includes a plurality of light sources each including a light emitting diode (LED) package, and a lens element having a groove for receiving the LED package and a quadrangular plane for outputting light emitted from the LED package. The power unit is electrically connected with the lighting unit and supplies power for driving the lighting unit.

Abstract: An LED lamp includes a lamp seat, a prism-shaped first heat sink disposed on a top of the lamp seat, a second heat sink covering a top of the first heat sink, a plurality of heat pipes thermally connecting the first heat sink with the second heat sink, a plurality of LED modules mounted on the first heat sink and an envelope located between the lamp seat and the second heat sink and surrounding the first heat sink. The first heat sink includes an annular base and a plurality of first fins and second fins extending therefrom. The LED modules are mounted on the first fins, respectively. Each heat pipe has two parallel sections respectively attached to a corresponding first fin and an inner circumferential periphery of the annular base.

Abstract: A plant stand includes a base for supporting a contained plant, a hood positioned above the base and a light source mounted to the hood for emitting light toward the base. An adjustable support member is mounted to the base and supports the hood in such a way that the distance between the light source and the base can be adjusted as the plants grow.

Abstract: An LED lamp includes a heat sink, a plurality of LED modules mounted on the heat sink and a plurality of light-guiding modules respectively fixed on the LED modules. Each light-guiding module comprises a frame having a bottom panel placed on the LED module and two side panels extending upwardly from two opposite edges of the bottom panel and a plurality of guiding units each having two engaging flanges extending outwardly from two opposite lateral sides thereof. Each guiding unit receives an LED of a corresponding LED module therein. The two side panels respectively define two runners in inner sides thereof. The two engaging flanges of each guiding unit are respectively received in the two runners of the frame and movable therealong to adjust a position of the guiding unit in the frame.

Abstract: An LED lamp includes a housing defining an opening in a front face thereof, a heat sink received in the housing and a plurality of LED modules mounted on the heat sink. The housing has two parallel horizontal plates at lower and top ends thereof. The heat sink includes a V-shaped conductive plate placed on the lower horizontal plate of the housing and has two differently-sized portions with front faces thereof defining an obtuse included angle therebetween. The front faces face the opening of the housing. The LED modules are mounted on the front faces of the portions of the conductive plate of the heat sink.

Abstract: An arrangement for the illumination of a field which uses, as a combined light source, three groups of LEDs which emit light bundles in different colors (R, G, B). The light bundles—considered in the direction of light propagation—pass collector optics, a device for combining the light bundles, and in-coupling optics. There are three light sources, each comprising a matrix of red LEDs, green LEDs, or blue LEDs, the light-emitting surface of each LED matrix being coupled with a light inlet face of a concentrator, each concentrator opening in a funnel-shaped manner in the light propagation direction. The collector optics and in-coupling optics are dimensioned in such a way that the surface shape of every light-emitting surface of the concentrators is transmitted to a light inlet face of the light mixing rod in such a way that they are congruently superimposed on one another.

Abstract: A solar LED lamp assembly for lighting purpose includes a mounting member and two LED lamps fixed to a free end of the mounting member. The mounting member includes a pole and a cylindrical canister coupled with a distal end of the pole. The two LED lamps are respectively fixed to two opposite lateral sides of a circumferential periphery the canister of the mounting member and extend across each other. Each LED lamp includes a lamp frame, a plurality of LED modules mounted in the lamp frame and a solar panel mounted over a top of the lamp frame. The solar panel receives solar energy and converts it into electrical energy to activate the LED modules to radiate light.

Abstract: Disclosed are a light source device and a display device having the same. The light source device comprises light emitting modules comprising a light emitting device, a circuit termination module provided at a second end of the light emitting module, first and second connectors connected to a first end and the second end of the light emitting modules, respectively, and a fourth connector connected to the circuit termination module, and connected to the second connector of the light emitting module.

Abstract: An LED lamp includes a base, a heat sink mounted on the base, a plurality of LED modules attached to a circumference of the heat sink, a plurality of reflecting rings enclosing the heat sink and surrounding the LED modules and a heat dissipating member mounted on a top of the heat sink and making thermally conductive contact with the heat sink.

Abstract: The present invention is a lighting control system including at least one local device and a plurality of lighting devices. The communication transmission medium between the local device and the lighting devices is provided with directional characteristics, and the lighting devices are selected and designated, as needed, using ID information. A designated lighting device is lighted up and performs light intensity setting. A judgment is carried out as to whether or not the relation between an illumination at a desired position and a target illumination satisfies a predetermined condition, and causes the illumination at the desired position to approach the target illumination by letting the plurality of lighting devices successively perform a procedure of increasing/decreasing their respective light intensities based on a result of the judgment.

Abstract: A light source device includes a circuit member, a heat dissipation component, an optical component and light emitting diode assemblies. The circuit member defines spaced through holes. The light emitting diode assemblies have a first side and a second side opposite to the first side. Each light emitting diode assembly passes through a corresponding through hole and is electrically connected to the circuit member. The heat dissipation component contacts the first side, is spaced from the circuit member, and is configured to dissipate heat generated by the light emitting diode assemblies. The optical component contacts the second side, and is configured to distribute light emitted from the light emitting diode assemblies.

Abstract: An electronic luminaire based on light emitting diodes, for illumination with a low electric power consumption at indoor spaces for offices or wide spaces, which use false soffit systems on their ceilings, in order to adapt their lighting. It is based on a closed module that is manufactured with hot galvanized stamped laminated steel or with injection molding plastic, and comprehends four sections: A), B), C) and D), where A) corresponds to a casing which houses B) and C) overlapped sections, and these are finally assembled to D) section, together with an electronic power source; the B) section is an electrical harness, the C) section is a plurality of LED bars, and D) section corresponds to the reflecting screen, that counts with a plurality of individual reflecting elements of concave, elliptical or parabolic type.

Abstract: An LED lamp includes a housing, a heat sink received in the housing, a plurality of LED modules thermally attached to the heat sink and a plurality of wire clips spanning over the heat sink and securing the heat sink on the housing. The heat sink includes a base and a plurality of fins extending from the base. Each of the clips includes a pivoting portion pivotally mounted on the housing, two locking portions located opposite to the pivoting portion and detachably engaging with the housing, and two pressing portions respectively interconnecting the pivoting portion with the two locking portions and abutting against the base.

Abstract: A method of displaying and merchandising a product that that provides customer interaction and product synchronization is disclosed. The method provides a product display that may include an upright display member having an illuminating member and lighting niches through which dynamic light shows may be projected. A product may be positioned in a lighting niche. A product experience shelf may also be coupled to the upright display member. The product experience shelf may include translucent recesses for holding and illuminating products and or samples of products. The product experience shelf may also incorporate an illuminated ring or border lining the outer edge of each recess for additional lighting effects. The method also provides an interactive customer interface that allows customers to adjust a control module which coordinates synchronized dynamic light shows throughout the display. The customer interface may also be illuminated and positioned on the product experience shelf.

Abstract: A lighting apparatus lights up a lighting target and includes a first substrate with a first LED group mounted thereon, and a second substrate with a second LED group mounted thereon. First LEDs of the first LED group and second LEDs of the second LED group are equally spaced in line and face with each other. Light beams emitted from the first LEDs and the second LEDs are reflected by reflection surfaces of the first and the second substrate as they travel toward the lighting target and gather in a space between a first protruding portion of the first substrate and a second protruding portion of the second substrate, and applied to the lighting target.

Abstract: A light fixture is provided which is in the form of a simulated aircraft, preferably simulating as accurately as practical a particular known, existing, actual aircraft, such as a military jet, commercial jet, commercial propeller plane, military or civilian helicopter, glider, ultralight, hang glider, or drone. The simulated aircraft has at least one primary light source (e. g. a white LED) which performs a volume lighting function, and at least one secondary light source which performs an aesthetic, educational, and/or nightlight function (e. g. a red LED simulating a jet afterburner). The simulated aircraft may be mounted on a support shaft which extends to a base, which in turn mounts various electrical components, and may have associated indicia which simulates a cockpit control panel. The cockpit-simulating indicia may be backlit to provide an aesthetic function, for providing an educational function, and/or for providing a nightlight function, or a digital photo frame could be provided.