Trillion Science, Inc.

Amazon Technologies, Inc.

Maung Aung

Rong-Chang Liang

Chin-Jen Tseng

Robert Arthur Sprague

Chiapu Chang

Yuhao Sun

Shuji Rokutanda

An-Yu Ma

Jiannrong Lee

Ta-Ching Wu

Jia Yen Leong

John Michael Cesaratto

Zhiyao An

Systems, methods, and computer-readable media are disclosed for covers for electronic display elements with improved visibility. In one embodiment, an example cover for an electronic device may include a first fiber segment, a second fiber segment coupled to the first fiber segment, where the first fiber segment and the second fiber segment together form an opening in the cover, and an optically clear adhesive. A first portion of the optically clear adhesive may be disposed in the opening. The optically clear adhesive may have a refractive index value of between about 1.3 and about 1.6, and a first thickness of the first portion may be less than a second thickness of the cover. The cover may be transmissive to visible light.

Covers for electronic display elements with improved visibility

A carrier belt for fabricating a device or component such as an anisotropic conductive film. The carrier belt includes a substrate having a sacrificial image enhancing layer. Microcavities are formed in the carrier by laser ablation through the image enhancing layer. After the image enhancement layer is removed, a plurality of conductive particles are distributed into an array of microcavities formed by laser ablation on a surface of a carrier belt and transferred to an adhesive layer. The image enhancing layer enables one to form microcavities with a fine pitch and spacing and partitions having a high aspect ratio.

Microcavity carrier with image enhancement for laser ablation

A method for fabricating an electronic device or component such as an anisotropic conductive film comprising: distributing a plurality of conductive particles into an array of microcavities formed on a surface of a continuous carrier belt, rotating the belt carrying the conductive particles while conveying a surface of an adhesive layer into contact with the surface of the rotating belt, transferring the conductive particles from the microcavities on the belt to the adhesive layer in predefined locations in the adhesive layer corresponding to the array of microcavities on the belt, and separating the adhesive layer from the surface of the belt. In one embodiment, the position of the microcavities is varied in a controlled manner.

Microcavity carrier belt and method of manufacture

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Union City, CA, United States of America

Maung Aung