Industrial Technology Research Institute

Chi Mei Optoelectronics Corporation

Kang-Hung Liu

Yang-Yi Fan

Chi-Chang Liao

Yichun Wong

Chih-Chang Liao

Chung-Wen Wu

Wei-Hsin Hou

Shie-Chang Jeng

Hsing-Lung Wang

Yi-An Sha

Lung-Pin Hsin

Hsin-Chun Chiang

Ching-Hsiang Chan

Yi-Chun Wong

Tsan-Yu Ho

Yu-Chu Hung

Ing Jer Lin

To obtain truly flexible electro-optic films for image display or other related applications and to obtain a low cost solution for making electro-optic films, a new concept for manufacturing such films is disclosed. The method disclosed in this invention include mixing liquid crystal with 'sponge particles' having fibril or porous surface morphology, coating such mixture directly on substrates with conductive electrodes and laminating with release liner or another substrate having conductive electrodes. The electro-optic films manufactured by using traditional R2R coating techniques. The electro-optic film manufactured by the method disclosed in the invention can be used for segment type, passive matrix type or active matrix type display applications or other related applications.

Method for manufacturing an electro-optic device and electro-optic device, and article therefor

The present invention is method of liquid crystal alignment for a flexible LCD with micro-grooves comprising: coating a thermoplastic material onto a conductive film; heat embossing a plurality of micro-grooves formed by a mold, wherein the surface of said mold forms said plurality of micro-grooves; and aligning said plurality of micro-grooves with an aligning wall and grooves. The present invention also adds a plurality of liquid alignment technology in roll-to-toll micro cell LCD processes. The plurality of liquid alignment technology lets the micro cells of the LCD from without aligning with an alignment LCD mode (such as TN, VA or horizontal alignment) and achieves a better contrast and display quality.

Method of liquid crystal alignment for a flexible LCD with micro-grooves

A fabrication method for a liquid crystal display. A pair of substrates is provided. An alignment layer is formed on the respective substrates. An energy beam is irradiated on a predetermined area of at least one of the alignment layers. The alignment layer is rubbed to form a first pretilt-angle area in the predetermined area exposed to the energy beam, and a second pretilt-angle area not exposed to the energy beam. The pair of substrates are bonded with a preset gap therebetween, and a liquid crystal layer is inserted between the substrates. The liquid crystals corresponding to the first pretilt angle area have a first pretilt angle of &#x3b8;, while those corresponding to the second pretilt angle area have a second pretilt angle of &#x3b8;.

Fabrication method for liquid crystal display

A method of forming a transflective display device having a single cell gap in which a liquid crystal molecule has at least two pretilt angles. A transparent electrode is formed on the inner surface of the lower substrate, and a reflective electrode is formed on a portion of the transparent electrode. Thus, creating a reflective region over the reflective electrode, and a transmissive region over the transparent electrode which is not covered by the reflective electrode. Using a photo-alignment process to form at least two alignment domains on each of the two alignment layers sandwiching a liquid crystal layer, the pretilt angle of the liquid crystal molecule in the reflective region is different from the pretilt angle of the liquid crystal molecule in the transmissive region, the reflective region and the transmissive region have the same phase retardation, and the light path passing through the reflective region is twice the light path passing through the transmissive region.

Transflective display device with different pretilt angles and fabrication method for thereof

A transflective display device having a single cell gap in which a liquid crystal molecule has at least two pretilt angles. A transparent electrode is formed on the inner surface of the lower substrate, and a reflective electrode is formed on a portion of the transparent electrode, such that a reflective region is over the reflective electrode and a transmissive region is over the transparent electrode, which is not covered by the reflective electrode. The pretilt angle of the liquid crystal molecule in the reflective region is different from the pretilt angle of the liquid crystal molecule in the transmissive region, the reflective region and the transmissive region have the same phase retardation, and the light path through the reflective region is twice the light path passing through the transmissive region.

Growing community of inventors

Hsinchu, Taiwan

Kang-Hung Liu