A lighting assembly includes a light stand, a lighting unit, and a modular rod assembly connecting the lighting unit to the light stand. The modular rod assembly includes a connection rod, a first extension rod connected to the connection rod, and a tubular fastener. The connection rod has a first coupling end. The first extension rod has a second coupling end. The tubular fastener is movably disposed around the first extension rod and is operable to move toward and sleeve around the first and second coupling ends such that the tubular fastener is engaged with the first coupling end and that the second coupling end is clamped between the first coupling end and the tubular fastener.

Examples of electrical lamp fixtures for illuminating terrariums and stimulating the growth and health of reptiles, amphibians, and birds, and specifically to an improved, compact light emitting diode (LED) terrarium light apparatus are described. The lighting apparatus can incorporate one or multiple extended point source LED arrays, such as composed of high brightness LEDs of multiple wavelengths, that provide spatially and spectrally controlled light. A compact, high brightness LED terrarium light apparatus for reptiles and birds, comprises an array of multiple LED chips that provides visible light, ultraviolet light, and (optionally) infrared light, with separate control of the various spectral components.

Examples of electrical lamp fixtures for illuminating terrariums and stimulating the growth and health of reptiles, amphibians, and birds, and specifically to an improved, compact light emitting diode (LED) terrarium light apparatus are described. The lighting apparatus can incorporate one or multiple extended point source LED arrays, such as composed of high brightness LEDs of multiple wavelengths, that provide spatially and spectrally controlled light. A compact, high brightness LED terrarium light apparatus for reptiles and birds, comprises an array of multiple LED chips that provides visible light, ultraviolet light, and (optionally) infrared light, with separate control of the various spectral components.

The present invention relates to mechanical hair removal. In order to provide a handheld hair removal apparatus with improved detection of fine hair, a handheld hair removal apparatus (10) is provided that comprises a hair removal arrangement (12), a support structure (14) for supporting the hair removal arrangement, and a light source (16) attached to the support structure. During operation, a main movement direction (20) of the apparatus is provided. The hair removal arrangement comprises a skin contact portion (22) extending at least along a primary axis (24) extending perpendicularly to the main movement direction for contacting a user's skin during operation. Further, the light source can be arranged in an operational position (P.sub.O) at a side of the hair removal arrangement in front of the skin contact portion with respect to the main movement direction. Still further, in the operational position the light source provides a light beam (28) with a main propagation axis (30) enclosing an angle of incidence (32) of less than 30° with an imaginary plane (33) extending parallel to the main movement direction and the primary axis.

The present invention relates to mechanical hair removal. In order to provide a handheld hair removal apparatus with improved detection of fine hair, a handheld hair removal apparatus (10) is provided that comprises a hair removal arrangement (12), a support structure (14) for supporting the hair removal arrangement, and a light source (16) attached to the support structure. During operation, a main movement direction (20) of the apparatus is provided. The hair removal arrangement comprises a skin contact portion (22) extending at least along a primary axis (24) extending perpendicularly to the main movement direction for contacting a user's skin during operation. Further, the light source can be arranged in an operational position (P.sub.O) at a side of the hair removal arrangement in front of the skin contact portion with respect to the main movement direction. Still further, in the operational position the light source provides a light beam (28) with a main propagation axis (30) enclosing an angle of incidence (32) of less than 30° with an imaginary plane (33) extending parallel to the main movement direction and the primary axis.

A collision risk mitigation pedestrian light emitter is a safety device through which a pedestrian's presence is visually signaled to a vehicle operator to decrease collision potential. The safety device includes a first telescoping leg, a second telescoping leg, a light-emitting device, a power source, and a locking mechanism. The first telescoping leg and second telescoping leg are terminally and hingedly connected to each other to form an L-shaped structure. The locking mechanism secures the L-shaped structure and is mechanically integrated between the first telescoping leg and second telescoping leg. The light-emitting device visually indicates the pedestrian's presence and is adjacently mounted to the first telescoping leg to enable variable light height adjustment. The light-emitting device is powered by and electrically connected to the power source mounted to the first telescoping leg. The second telescoping leg is used to mount/attach the safety device to the pedestrian, preferably to a backpack.

A collision risk mitigation pedestrian light emitter is a safety device through which a pedestrian's presence is visually signaled to a vehicle operator to decrease collision potential. The safety device includes a first telescoping leg, a second telescoping leg, a light-emitting device, a power source, and a locking mechanism. The first telescoping leg and second telescoping leg are terminally and hingedly connected to each other to form an L-shaped structure. The locking mechanism secures the L-shaped structure and is mechanically integrated between the first telescoping leg and second telescoping leg. The light-emitting device visually indicates the pedestrian's presence and is adjacently mounted to the first telescoping leg to enable variable light height adjustment. The light-emitting device is powered by and electrically connected to the power source mounted to the first telescoping leg. The second telescoping leg is used to mount/attach the safety device to the pedestrian, preferably to a backpack.

A portable light may comprise: a light source including plural light emitting diodes (LEDs); a signaling light source; and plural actuators including: a first actuator for selecting of the plural LEDs; a second actuator coupling the selected LED for producing light; and a third actuator coupling the signaling light source to produce modulated light. A rotatable actuator thereof may comprise: a central cylindrical part of a tapered actuator member in a hollow cylindrical support with its wider base within the body and its narrower tip extending therefrom with the selector knob fixed thereto and rotatable therewith in the hollow cylindrical support, and an actuator ring around the hollow cylindrical support. A safety cover for an actuator may also be provided.

A bendable lamp that includes an open topped base with an upwardly projecting LED lighting source. A translucent accordion bellows sleeve is attached at one end to the open topped base. The sleeve can be vertically extended or retracted by the user. The nature of the pleats of the accordion sleeve allow the resulting structure to remain in the position that the user pulled, compressed or bent it to. The sleeve can be bent to an inverted J or inverted U shape, and its height can be adjusted. A weight in the lamp's base keeps the lamp from falling over. The LED lights can be programmed by a microprocessor.

A bendable lamp that includes an open topped base with an upwardly projecting LED lighting source. A translucent accordion bellows sleeve is attached at one end to the open topped base. The sleeve can be vertically extended or retracted by the user. The nature of the pleats of the accordion sleeve allow the resulting structure to remain in the position that the user pulled, compressed or bent it to. The sleeve can be bent to an inverted J or inverted U shape, and its height can be adjusted. A weight in the lamp's base keeps the lamp from falling over. The LED lights can be programmed by a microprocessor.