Industrial Technology Research Institute

Eminent Electronic Technology Corporation

Wei-Te Hsu

Yi-Sha Ku

Deh-Ming Shyu

Kao-Pin Wu

Tom Chang

Sen-Yih Chou

Hsin-Yueh Sung

Cheng-Ta Chuang

Shu-Ping Dong

Chuan-Yu Cho

Chia-Lin Wu

Po-Wen Cheng

Yi-Yung Chen

Ping-Hsien Chi

Chang-Hai Sung

A method for deploying and controlling a mobile operating system on a platform comprises sending a first deployment message to the platform by an administration console; establishing a first communicable connection to the platform by a mobile communication device; getting at least an image file of a mobile operating system and an image file of a first mobile application from a data center, activating the mobile operating system by the platform and executing the first mobile application; executing a remounting procedure by the administration console according to another instruction sent from the mobile communication device; wherein the remounting procedure is configured to disconnect the first communicable connection and establish a second communicable connection between the mobile communication device and the platform or another platform that the mobile operating system and a second mobile application can be executed on the platform or on said another platform.

System and method for deploying and controlling mobile operating system on a platform

An optical sensor module is provided. The optical sensor module includes a light source, a first lens and a sensor device. The light source is arranged for generating a light signal. The first lens has a first optical center axis. The sensor device is disposed in correspondence with one side of the first lens. The sensor device includes a light sensitive area, and a center of the light sensitive area deviates from the first optical center axis. The sensor device is arranged for receiving a reflected signal reflected from an object in response to the light signal, and accordingly generating a sensing result.

Optical sensor module utilizing optical designs to adjust gesture sensitive region, and related mobile apparatus

A method for measuring a via bottom profile is disclosed for obtaining a profile of a bottom of a via in a front side of a substrate. In this method, an infrared (IR) light source is transmitted from the back of the substrate to the bottom of the via through an objective by using an IR-microscope, and lights scattered from the bottom of the via are acquired by an image capturing device to generate an image, where the image displays a diameter (2E) of the via bottom profile and a diameter (2E) of a maximum receivable base area of the via for the IR-microscope. Thereafter, by using an elliptic equation, a minor axis radius thereof (E) is obtained, and thus the via bottom profile is obtained from a radius (E) of the via bottom profile and the minor axis radius (E) of the elliptic equation.

Method for measuring via bottom profile

A method and an apparatus are disclosed for scatterfield microscopical measurement. The method integrates a scatterometer and a bright-field microscope for enabling the measurement precision to be better than the optical diffraction limit. With the aforesaid method and apparatus, a detection beam is generated by performing a process on a uniform light using an LCoS (liquid crystal on silicon) or a DMD (digital micro-mirror device) which is to directed to image on the back focal plane of an object to be measured, and then scattered beams resulting from the detection beam on the object's surface are focused on a plane to form an optical signal which is to be detected by an array-type detection device. The detection beam can be oriented by the modulation device to illuminate on the object at a number of different angles, by which zero order or higher order diffraction intensities at different positions of the plane at different incident angles can be collected.

Method and apparatus for scatterfield microscopical measurement

A reflective scatterometer capable of measuring a sample is provided. The reflective scatterometer includes a paraboloid mirror, a light source, a first reflector, a second reflector and a detector. The paraboloid mirror has an optical axis and a parabolic surface, wherein the sample is disposed on the focal point of the parabolic surface and the normal direction of the sample is parallel with the optical axis. A collimated beam generated from the light source is reflected by the first reflector to the parabolic surface and then is reflected by the parabolic surface to the sample to form a first diffracted beam. The first diffracted beam is reflected by the parabolic surface to the second reflector and is then reflected by the second reflector to the detector.

Reflective scatterometer

Growing community of inventors

Taipei, Taiwan

Wei-Te Hsu