Abstract:
An exemplary embodiment of a plate-type fluorescent lamp and a display device having the same includes an upper glass substrate; a lower glass substrate adhering opposite to the upper glass substrate; electrodes formed on external surfaces of the upper glass substrate and the lower glass substrate; and a dielectric layer formed between one of the upper and lower glass substrates and the electrodes. The dielectric layer is formed between at least one of the glass substrates and the electrodes so as to reduce generating a pinhole.
Abstract:
According to an embodiment of the present invention, an LCD comprises a liquid crystal display panel, an LED circuit board disposed behind the liquid crystal display panel, wherein a plurality of LEDs are disposed on the LED circuit board, and a thermal conductive sheet for receiving heat generated from the plurality of LEDs, wherein a thermal conductivity of the thermal conductive sheet in a surface direction is higher than a thermal conductivity in a thickness direction.
Abstract:
A surface light source device may include a first substrate and a second substrate having a plurality of space-dividing portions to divide an inner space between the first and second substrates into a plurality of discharge regions. First and second electrodes may be formed on an outer face of the first substrate or the second substrate, and the first and second electrodes have a plurality of openings corresponding to the space-dividing portions. The openings have a first opening width along a longitudinal direction of the space-dividing portions, which is smaller than a line width of the first and second electrodes. The light source may be used in a flat panel display apparatus, such as a liquid crystal display apparatus.
Abstract:
A flat-type fluorescent lamp and liquid crystal display having minimum pin-shaped holes include a first substrate, a second substrate forming a plurality of discharging spaces together with the first substrate, and external electrodes that cover the outer edge surfaces of the first and the second substrates while perpendicularly extending across the discharging spaces. The second substrate is substantially as thick as the first substrate, especially at the position covered by the external electrodes.
Abstract:
A DC-DC converter is provided, which includes a transformer including a primary coil and a secondary coil, a boost converter connected to the primary coil of the transformer and generating a first voltage, and a flyback converter connected to the secondary coil of the transformer and generating a second voltage.
Abstract:
A backlight assembly includes a flat fluorescent lamp and a bottom chassis. The flat fluorescent lamp includes a first substrate, a second substrate and an external electrode. The second substrate is combined with the first substrate to form a plurality of discharge spaces. The external electrode crosses the discharge spaces. The bottom chassis receives the flat fluorescent lamp and includes a protruded portion spaced apart from the flat fluorescent lamp by a distance that is different from a distance between a remaining portion of the bottom chassis and the flat fluorescent lamp.
Abstract:
Various structures are disclosed to provide flat fluorescent lamps adapted to provide improved optical characteristics by reducing sodium elution from one or more glass plates. Related methods of manufacture are also provided. In one example, a flat fluorescent lamp includes a first plate and a second plate adapted to form a plurality of discharge chambers in combination with the first plate. A first elution preventive layer is provided on an inner surface of the second plate. A first fluorescent layer is provided above an inner surface of the first plate. A second fluorescent layer is provided above the first elution preventive layer. In another example, the first and second plates comprise sodalime glass. In another example, the elution preventive layer is adapted to prevent sodium eluted from the second plate from exceeding a predetermined sodium elution amount.
Abstract:
A lamp assembly includes a lamp and a lamp driving device. The lamp includes a body and first and second electrodes. The body converts invisible ray generated by a discharge into visible ray, and the electrodes are disposed on the body. The lamp driving device provides the first and second electrodes with first and second driving voltages, respectively, to generate the discharge. The first driving voltage is less than a first critical voltage at which a corona discharge occurs at the first and second electrodes. When the first electrode is electrically connected to a ground, the first critical voltage may be about 1,200 volts. When the second driving voltage has an inverted phase with respect to the first driving voltage, the first critical voltage is about 2,400 volts. An ozone gas may not be generated at the first and second electrodes to prevent the damage of the electrodes.
Abstract:
A backlight assembly includes a light-generating device, a receiving container, a first heat-dissipating member, a heat-blocking member, and a second heat-dissipating member. The receiving container receives the light-generating device. The first heat-dissipating member contacts the receiving container. The heat-blocking member is disposed on the first heat-dissipating member. The second heat-dissipating member contacts the first heat-dissipating member. Therefore, liquid crystal is prevented from being deteriorated by heat generated by a light source.
Abstract:
A method for forming an electrode of a surface light source device includes: contacting channel end portions of the surface light source device having a plurality of channels with a first solution and forming an electroless plating seed layer on surfaces of the channel end portions; removing the surface light source device from contact with the first solution and heating the surface light source device; and contacting the surface light source device with a second solution and forming an electrode by using electroless plating.