Abstract: An organic electroluminescent device having solar cells and a fabricating method therefor are disclosed. The device comprises a transparent substrate; an organic electroluminescent device on the transparent substrate; and at least one solar cells on the transparent substrate. Besides, the device further comprises a driving unit coupled to the organic electroluminescent device; a transform unit coupled to the solar cells; and a control unit coupled to the driving unit and the transform unit.

Abstract: An organic electroluminescent device having solar cells and a fabricating method therefor are disclosed. The device comprises a transparent substrate; an organic electroluminescent device on the transparent substrate; and at least one solar cells on the transparent substrate. Besides, the device further comprises a driving unit coupled to the organic electroluminescent device; a transform unit coupled to the solar cells; and a control unit coupled to the driving unit and the transform unit.

Abstract: A contrast-adjustable display via an organic light-emitting device includes a transparent substrate, a light-detectable unit, a current-detectable unit, an organic light-emitting unit, a driving unit and a controlling unit. The light-detectable unit for detecting an external light intensity is formed on the transparent substrate, and then generates a current intensity based on the external light intensity. The current-detectable unit for detecting the current intensity is connected to the light-detectable unit. The organic light-emitting unit is formed on the transparent substrate for generating light. The driving unit connects to and drives the light-detectable unit and organic light-emitting unit, respectively. The controlling unit is connected to the current-detectable unit, and controls the driving unit depending on the current intensity.

Abstract: An organic electroluminescent device comprises M scan lines, N data lines, a plurality of organic light-emitting units and a plurality of light driving units. The light driving unit drives the organic light-emitting unit. The light driving unit comprises a first transistor, a second transistor and a capacitance unit. The first transistor comprises a first gate, a first electrode and a second electrode. The first gate connects with the (M?j+1)th scan line. The first electrode connects with the ith data line. The second transistor comprises a second gate, a third electrode and a fourth electrode. The second gate connects with the second electrode. The third electrode connects with the (M?j)th scan line, The fourth electrode connects with the organic light-emitting unit which is driven by the light driving unit. The capacitance unit has a first terminal and a second terminal. The first terminal connects with the (M?j)th scan line. The second terminal connects with the second electrode and the second gate.

Abstract: An organic electroluminescent device and a method therefor are disclosed. The device comprises a transparent substrate and a plurality of pixels on the transparent substrate, wherein the pixels comprise red light pixels, green light pixels and blue light pixels. In addition, the device further comprises a red light detector adjacent to the red light pixels on the transparent substrate; a green light photo-detector adjacent to the green pixels on the transparent substrate and; and a blue light photo-detector adjacent to the blue pixels on the transparent substrate.

Abstract: An organic electroluminescent panel having reduced power consumption and a method for reducing the power consumption thereof is disclosed, which uses a micro-processer for outputting an electrical signal for power-saving instruction to a controller, and thereby adjusts the scanning scope or area, the refreshing frequency, or the displaying clock of the power-saving display frame, or the displaying luminance of the standby screen of the power-saving display frame, selectively. Afterwards, the stored scanning scope or area, the stored refreshing frequency, or the stored displaying clock of the power-saving display frame, or the stored displaying luminance of the standby screen of the power-saving display frame are transmitted to a driver for driving the organic electroluminescent panel.

Abstract: An organic electroluminescent device having solar cells and a fabricating method therefor are disclosed. The device comprises a transparent substrate; an organic electroluminescent device on the transparent substrate; and at least one solar cells on the transparent substrate. Besides, the device further comprises a driving unit coupled to the organic electroluminescent device; a transform unit coupled to the solar cells; and a control unit coupled to the driving unit and the transform unit.

Abstract: A contrast-adjustable display via an organic light-emitting device includes a transparent substrate, a light-detectable unit, a current-detectable unit, an organic light-emitting unit, a driving unit and a controlling unit. The light-detectable unit for detecting an external light intensity is formed on the transparent substrate, and then generates a current intensity based on the external light intensity. The current-detectable unit for detecting the current intensity is connected to the light-detectable unit. The organic light-emitting unit is formed on the transparent substrate for generating light. The driving unit connects to and drives the light-detectable unit and organic light-emitting unit, respectively. The controlling unit is connected to the current-detectable unit, and controls the driving unit depending on the current intensity. The invention also discloses a contrast-adjustable display via an organic light-emitting device further including a first driving unit and a second driving unit.

Abstract: A Method for manufacturing semiconductor devices having ESD protection. The method includes the steps of providing a semiconductor substrate having a well region, forming a gate structure on the semiconductor substrate, the gate structure including an oxide layer, a gate electrode on said oxide layer, and two spacer sidewalls, forming a source region within the well region at one side of the gate structure, forming a drain region within the well region at the other side of the gate structure, forming lightly doped source/drain regions in the well region and beneath the spacer walls of the gate structure wherein the lightly doped source/drain regions have the same conductivity type as the drain region and, and performing an implant with the same conductivity type as the well region as to form an ESD implantation region.