Sipix Imaging, Inc.

Trillion Science, Inc.

Etansi Inc.

Jing-Den Chen

Rong-Chang Liang

Hongmei Zang

Yajuan Chen

Jack Hou

Chih-Yuan Liao

Fei C Wang

Yi-Shung Chaug

Kangtai Ren

Wanheng Wang

Wenxin Yu

Chia-Pu Chang

Xiaojia Wang

Hui W Chen

Haiyan Gu

Hong Mei Zang

Cheri Pereria

Pei-Lin Wang

Chia-Teng Hsiao

Shun-Pin Yang

Pi-Yang Chuang

Quan Gu

An anisotropic conductive film (ACF) is disclosed. In one approach, the ACF includes a non-reflective adhesive layer including a top surface, a plurality of conductive particles included with the non-reflective adhesive layer, and a reflective adhesive layer disposed along the top surface of the non-reflective adhesive layer.

Anisotropic conductive film including a reflective layer

The invention is directed to compositions of display cell structure and electrode protecting layers for improving the performance of display devices. The composition comprises a polar oligomeric or polymeric material having a glass transition temperature below about 100&#xb0; C., and the resulting display cells or electrode protecting layer have an average crosslinking density of below about 1 crosslink point per 80 Dalton molecular weight.

Display cell structure and electrode protecting layer compositions

This invention relates to compositions suitable for the formation of an adhesive layer used for in-mold decoration. This invention also relates to in-mold decoration tape or strip, comprising: a carrier layer; a release layer; a durable layer; and an adhesive layer which comprises an adhesive binder, a polymeric particulate material and an inorganic particulate material.

Adhesive layer composition for in-mold decoration

This invention relates to electrophoretic displays having improved performance. The invention also relates to a method for inducing or enhancing the threshold voltage of an electrophoretic display, which method comprises adding a threshold promoter into an electrophoretic fluid which comprises charged pigment particles or pigment-containing microparticles dispersed in a dielectric solvent or solvent mixture.

Method for inducing or enhancing the threshold voltage of an electrophoretic display

The present invention is directed to a method for improving the performance of an electrophoretic display, which method comprises adding a fluorinated quaternary nitrogen salt in either the internal phase or the continuous phase in a microencapsulation process for the formation of pigment-containing microparticles. One or more of the following materials may be further added to the internal phase or continuous phase in the microencapsulation process: a fluorinated protective colloid, a second charge controlling agent or a second monomer or oligomer.

Microencapsulation processes and compositions for electrophoretic displays

This invention relates to electrophoretic displays having improved performance. The threshold promoter of the present invention may induce or significantly enhance the threshold effect by improving the particle-particle interaction and/or the particle-electrode interaction. The promoter may be present in the system as a soluble or micelle molecule in the electrophoretic fluid or an adsorbed or chemically bonded molecule on the surface of particles. The use of such a threshold promoter does not show a detrimental effect on the display switching rate.

Electrophoretic dispersions

This invention relates to an electrophoretic display having display cells filled with an electrophoretic composition which comprises a bi-modal particle system dispersed in a dielectric solvent or solvent mixture. The display has shown a higher % reflectance or whiteness, a higher contrast ratio, improved threshold characteristics and better bistability.

Electrophoretic display with a bi-modal particle system

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Milpitas, CA, United States of America

Jing-Den Chen