Abstract: Disclosed is a stabilized acyclic saccharide composite, which includes a LDH-based (layered double hydroxide-based) material and acyclic saccharides intercalated in interlayer regions of the LDH-based material. The acyclic saccharides stabilized and trapped in the LDH-based material give an opportunity for direct functionalization to other valuable molecules in the pharmaceutical, chemical or carbohydrate industries. Further, a novel pathway for saccharide transformation and aldol condensation without the drawbacks associated with enzymatic catalysts is achieved through the acyclic saccharides trapped by the LDH-based material.

Abstract: Light source and backlight module utilizing the same. The light source includes a hollow glass tube and an electrode disposed therein. The electrode comprises a bent surface, increasing surface area, thereby increasing light emission efficiency and reducing temperature.

Abstract: A direct type backlight module comprises a back bezel, a light source, a circuit board, and a heat-insulating element. The light source comprising a plurality of driving elements coupled thereto is disposed within the back bezel. The circuit board is disposed outside the back bezel. The heat-insulating element is disposed between the back bezel and the circuit board so as to form a first convectional space and a second convectional space.

Abstract: A backlight module. The backlight module comprises a housing, a light source disposed on the housing, a diffuser positioned over the light source and a spacer disposed between the housing and the diffuser to maintain a distance therebetween. The spacer comprises a supporting portion to support the diffuser to maintain the separation and a base connected to the supporting portion and fixed on the housing. The base comprises a hook engaging the housing and a connecting portion connecting the supporting portion and the hook. A reflective layer is formed on the supporting portion to reflect the light from the light source.

Abstract: A direct type backlight module comprises a back bezel, a light source, a circuit board, and a heat-insulating element. The light source comprising a plurality of driving elements coupled thereto is disposed within the back bezel. The circuit board is disposed outside the back bezel. The heat-insulating element is disposed between the back bezel and the circuit board so as to form a first convectional space and a second convectional space.

Abstract: A backlight module comprises a chassis, a fluorescent lamp and a supporter; the fluorescent lamp is disposed on the chassis and the supporter is disposed under the chassis to support the fluorescent lamp, the supporter further has an electrode layer physically connecting to the fluorescent lamp.

Abstract: Backlight assemblies for large flat panel displays are provided. A backlight assembly comprises a back plate, a plurality of first and second lamps, a first connector module and an optical assembly. The first and second lamps are parallel to an axis, disposed in a first position and a second position of the axis, respectively. The first connector module is disposed on the back plate, comprising a plurality of conductive blocks. Each conductive block comprises an insulator, a first conductive member and a second conductive member disposed on opposite sides of the insulation body. A protrusion is formed in the middle of the insulator to support the optical assembly. The first and second conductive members both have depressions to receive and electrically connect the first and second lamps.

Abstract: A direct backlight module. The backlight module includes a diffuser, a reflecting plate, a plurality of light sources and at least one transparent support. The reflecting plate connects to the diffuser and forms a chamber therebetween. The plurality of light sources are disposed in the chamber. The transparent support is disposed in the chamber to support the diffuser and the reflecting plate.

Abstract: Light source and backlight module utilizing the same. The light source includes a hollow glass tube and an electrode disposed therein. The electrode comprises a bent surface, increasing surface area, thereby increasing light emission efficiency and reducing temperature.

Abstract: A backlight module includes a bezel and a reflective shell. The bezel includes a bezel base, a bezel side plate connected to the bezel base, and an engagement structure mounted on an external side surface of the bezel side plate. The reflective shell includes a reflective shell top plate and a reflective shell side plate, which is connected to the reflective shell top plate and has an engagement hole to be engaged with the engagement structure such that the reflective shell is tightly combined with the bezel.

Abstract: A backlight module is applied in a liquid crystal display with a first panel and an opposite second panel and is disposed between the two panels. The backlight module includes a light box, several light sources, a first optical device and a second optical device. The light box has a first side wall, an opposite second side wall and at least one supporting fixture, and the light sources are disposed therein. Both ends of each supporting fixture are connected to the first side wall and the second side wall respectively; each of the light sources is disposed between two adjacent supporting fixtures. The supporting fixtures disposed between the first optical device and the second optical device keeps the two devices spaced with a substantial equal distance where the two devices are disposed alongside a top surface and a bottom surface of the light box separately.

Abstract: A backlight module and heat dissipation structure thereof. The heat dissipation structure is used for a backlight module which comprises a circuit board having a through hole with a light emitting diode (LED) corresponding thereto and disposed on one side of the circuit board. The heat dissipation structure comprises a heat conducting portion thermo-conductively connected to the LED and positioned in the through hole, a thermal conductive element disposed between the heat conducting portion and the LED, and a heat dissipating portion thermo-conductively connected to the heat conducting portion. Heat from the LED is conducted through the thermal conductive element and the heat conducting portion to the heat dissipation portion.

Abstract: A fluorescent lamp structure comprises a lamp vessel confining a discharge gas, a fluorescent material located inside the lamp vessel, and at least a pair of first electrodes and a pair of second electrodes mounted to the lamp vessel, wherein the first electrodes are electrically connected to a power source to energize the discharge gas in the lamp vessel, and the second electrodes are electrically in a floating state.

Abstract: A backlight module is applied in a liquid crystal display (LCD) with a first panel and a second panel. In the LCD, the second panel is disposed opposite to the first panel and the backlight module is disposed between the first panel and the second panel. The backlight module includes a first light source, a second light source and a lamp-holding member. The lamp-holding member is disposed between the first light source and the second light source and the lamp-holding member has a first side clipping part, a second side clipping part and a vertical supporting part. The vertical supporting part is positioned between the first side clipping part and the second side clipping part. The first side clipping part and the second side clipping part hold the first light source and the second light source respectively so that the first light source and the second light source are spaced with a substantial equal distance.

Abstract: A backlight module. The backlight module comprises a housing, a light source disposed on the housing, a diffuser positioned over the light source and a spacer disposed between the housing and the diffuser to maintain a distance therebetween. The spacer comprises a supporting portion to support the diffuser to maintain the separation and a base connected to the supporting portion and fixed on the housing. The base comprises a hook engaging the housing and a connecting portion connecting the supporting portion and the hook. A reflective layer is formed on the supporting portion to reflect the light from the light source.

Abstract: A backlight module includes a bezel and a reflective shell. The bezel includes a bezel base, a bezel side plate connected to the bezel base, and an engagement structure mounted on an external side surface of the bezel side plate. The reflective shell includes a reflective shell top plate and a reflective shell side plate, which is connected to the reflective shell top plate and has an engagement hole to be engaged with the engagement structure such that the reflective shell is tightly combined with the bezel.

Abstract: A backlight module and heat dissipation structure thereof. The heat dissipation structure is used for a backlight module which comprises a circuit board having a through hole with a light emitting diode (LED) corresponding thereto and disposed on one side of the circuit board. The heat dissipation structure comprises a heat conducting portion thermo-conductively connected to the LED and positioned in the through hole, a thermal conductive element disposed between the heat conducting portion and the LED, and a heat dissipating portion thermo-conductively connected to the heat conducting portion. Heat from the LED is conducted through the thermal conductive element and the heat conducting portion to the heat dissipation portion.

Abstract: A backlight module is applied in a liquid crystal display with a first panel and an opposite second panel and is disposed between the two panels. The backlight module includes a light box, several light sources, a first optical device and a second optical device. The light box has a first side wall, an opposite second side wall and at least one supporting fixture, and the light sources are disposed therein. Both ends of each supporting fixture are connected to the first side wall and the second side wall respectively; each of the light sources is disposed between two adjacent supporting fixtures. The supporting fixtures disposed between the first optical device and the second optical device keeps the two devices spaced with a substantial equal distance where the two devices are disposed alongside a top surface and a bottom surface of the light box separately.

Abstract: A direct type backlight module with better light source utilization and with heat-radiation performance is provided. The direct type backlight module includes a light source, a bazel and a reflecting sheet. The light source is disposed inside the bazel which includes at lease one run-through hole, while the reflecting sheet is disposed on the bazel for masking the run-through hole thereof. Of which, the heat generated by the light source is dissipated outside the bazel through the heat-dissipating hole of the reflecting sheet and through the run-through holes of the bazel in succession.

Abstract: A direct backlight module. The backlight module includes a diffuser, a reflecting plate, a plurality of light sources and at least one transparent support. The reflecting plate connects to the diffuser and forms a chamber therebetween. The plurality of light sources are disposed in the chamber. The transparent support is disposed in the chamber to support the diffuser and the reflecting plate.