Industrial Technology Research Institute

Tsinghua University

Jen-You Chu

Yi-Ping Chen

Feng-Sheng Kao

Ding-Zheng Lin

Tsung-Dar Cheng

Chin-Ching Lin

Mei-Ching Chiang

Hsiang-Chuan Chen

Pei-Chen Chuang

Ping-Chen Chen

Yun-Hsin Wang

Ruei-Han Jiang

Hsin-Hung Cheng

Ying-Yu Chang

Jia-Han Li

Yi-Chun Chen

Yi-Chun Lo

Shu-Hui Cheng

Jyi-Tyan Yeh

Ta-Jen Yen

Chiung-Hui Huang

Pao-Tang Chung

Kuan-Yeh Huang

Yin-Ju Yang

Ting-Yu Shih

Kai-Jen Hsiao

Juen-Kai Wang

Chin-Ping Huang

Bean-Jon Li

Tien-Li Chang

Yu-Jen Lu

Siou-Cheng Lou

Chia-Le Wu

Rui-Xuan Dong

Tien-Jen Wang

Ssu-Yu Huang

Yi-Cyun Yang

A textile detection module is suitable for detecting a test specimen. The textile detection module includes a height sensor, an excitation light source, an optical detector, and a focuser. The height sensor is suitable for measuring a height of the test specimen to generate a height signal. The excitation light source provides an excitation light beam. The optical detector is disposed on a transmission path of the excitation light beam and is suitable for receiving the excitation light beam and emitting the excitation light beam along the optical axis and receiving a detection light beam to generate a detection result. The focuser is disposed on the transmission path of the excitation light beam emitted by the optical detector. The focuser includes a focus lens suitable for converting the excitation light beam into a focused excitation light beam.

Textile detection module, textile sorting system and using method thereof

A solid surface wettability determination method is disclosed. A liquid is sprayed on a surface of an object. A light beam is projected toward the surface, wherein the light beam is reflected by the liquid on the surface to generate a reflected light. The reflected light is received by an optical detector, and the optical detector outputs a determining signal related to a wettability of the surface according to the reflected light. A corresponding signal-angle relation is selected from a database according to type of the liquid and material of the object. The contact angle of the liquid on the surface is obtained by applying the determining signal to the corresponding signal-angle relation.

Solid surface wettability determination method

A surface wettability determination system includes a sprayer, a light emission device and an optical detector. The sprayer is provided to spray a liquid on a detected surface of a detected object. The light emission device is provided to emit a light beam toward the detected surface. The light beam is reflected by the liquid on the detected surface to generate a reflected light. The optical detector is provided to receive the reflected light and output a determining signal, and the determining signal is related to a wettability of the detected surface.

Surface wettability determination method

A composite structure is provided, which includes a support, an active layer wrapping the support, a dendrimer grafted to the active layer through covalent bondings, and a plurality of anti-fouling groups, wherein each of the anti-fouling groups is grafted to terminals of the dendrimer through covalent bondings. The terminals of the dendrimer include amino group, hydroxyl group, or thiol group.

Composite structure

The filtration material includes a supporting layer, a first selective layer disposed on the supporting layer, and a second selective layer disposed on the first selective layer. The first selective layer includes a polyimide and an ionic polymer intertwined with the polyimide. In particular, the polyimide includes at least one repeat unit having a structure represented by Formula (I) wherein Ais Ais Rand Rare independently &#x2014;H, &#x2014;CF, &#x2014;OH, &#x2014;Br, &#x2014;Cl, &#x2014;F, Calkyl group, or Calkoxy group; and X and Y are independently single bond, &#x2014;O&#x2014;, &#x2014;CH&#x2014;, &#x2014;C(CH)&#x2014;, or &#x2014;NH&#x2014;.

Filtration material

A tapered optical needle includes a tapered light-transmissive needle and a surface plasmon wave transport layer. The tapered light-transmissive needle has a first tip, a bottom, and a curved surface connecting the first tip and the bottom. The surface plasmon wave transport layer is disposed on the curved surface and covers the first tip, wherein the surface plasmon wave transport layer has a curved slit structure. The curved slit structure includes a plurality of curved portions arranged from the first tip to an edge of the bottom and located between the first tip and the edge of the bottom, and extending directions of the curved portions are different to a direction from the first tip to the edge of the bottom.

Tapered optical needle

A sensing chip including a substrate, a plurality of metal nanostructures, a first surface modified layer and a second surface modified layer is provided. The metal nanostructures are disposed on the substrate. The first surface modified layer is disposed on a surface of the metal nanostructures, wherein the first surface modified layer includes a plurality of thiol group-containing molecules. The second surface modified layer is disposed on a surface of the substrate, wherein the second surface modified layer includes a plurality of silyl group-containing molecules.

Sensing chip

A method for determining antifouling ability of a material surface is provided. The method includes (a) providing a determining device. The determining device includes a probe and a determining unit with a spring characteristic structure. The probe includes a micro particle or a micro particle and a pollutant fixed on a surface of the micro particle. The probe is fixed at one end of the spring characteristic structure. After the step (a), the method further includes (b) contacting the probe with a material surface-to-be-determined, (c) deforming the spring characteristic structure until the probe departs from the material surface-to-be-determined to recover the spring characteristic structure, and determining the level of the deformation, (d) determining the adhesion value of the probe to the material surface-to-be-determined using the deformation and (e) determining the antifouling ability of the material surface.

Method for determining antifouling ability of a material surface and determining device for determining antifouling ability of material surface

A photo-electric device including a photoelectric conversion layer and a plurality of electrodes is provided. The photoelectric conversion layer includes a plurality of inversed pyramid shaped recesses and a plurality of a pyramids, wherein each of the inversed pyramid shaped recesses has at least three first reflection sidewalls, each of the pyramids is located in one of the inversed pyramid shaped recesses respectively, each of the pyramids has at least three second reflection sidewalls, and none of the first reflection sidewall and the second reflection sidewall is located in a same plane. The electrodes are electrically connected to the photoelectric conversion layer.

Photo-electric device with inverse pyramid shaped recesses

A package structure and a solar cell with the same are provided. The package structure includes a transparent package bulk and at least one structure capable of changing a direction of light. The structure is disposed within the transparent package bulk and at a distance from a surface of the transparent package bulk. When applied to a solar cell, the package structure can reduce gridline shading.

Package structure and solar cell with the same

A multi-reflection structure including a substrate and pyramid is provided. The substrate includes an inversed pyramid shaped recess having at least three first reflection sidewalls. The pyramid is disposed on the substrate and located in the inversed pyramid shaped recess. The pyramid has at least three second reflection sidewalls, wherein the normal of each of the second reflection sidewalls and the normal of each of the first reflection sidewalls are not located in the same plane. Furthermore, a photo-electric device is also provided in the present application.

Multi-reflection structure and photo-electric device

The invention provides a multilayered infrared light reflective structure. The multilayered infrared light reflective structure includes a transparent substrate. A doped oxide film is disposed on the transparent substrate. An oxide isolated layer is disposed on the doped oxide film, thereby allowing incident light to be incident from a top surface of the transparent substrate into the multilayered infrared light reflective structure.

Multilayered infrared light reflective structure

A solar cell device is provided, including a transparent substrate, a transparent conductive layer disposed over the transparent substrate, a photovoltaic element formed over the composite transparent conductive layer, and an electrode layer disposed over the photovoltaic element. In one embodiment, the transparent conductive layer includes lithium and fluorine-co-doped tin oxides, and the lithium and fluorine-co-doped tin oxides includes a plurality of polyhedron grains, and the polyhedron grains have a polyhedron grain distribution density of 60-95%.

Solar cell device

A solar cell device is provided, including a transparent substrate, a transparent conductive layer disposed over the transparent substrate, a photovoltaic element formed over the composite transparent conductive layer, and an electrode layer disposed over the photovoltaic element. In one embodiment, the transparent conductive layer includes lithium and fluorine-co-doped tin oxides, and the lithium and fluorine-co-doped tin oxides have a lithium doping concentration of about 0.2&#x2dc;2.3% and a fluorine doping concentration of about 0.1&#x2dc;2.5%.

Solar cell device and method for fabricating the same

Disclosed is a trace detection device of a biological and chemical analyte, including a metal substrate, a periodic metal nanostructure on the metallic substrate, a dielectric layer on the periodic metal nanostructure, and a continuous metal film on the dielectric layer. Tuning the thickness of the dielectric layer and/or the continuous metal film to meet the laser wavelength can shift the absorption peak wavelength of the sensor, thereby further enhancing the Raman signals of the analyte molecules.

Growing community of inventors

Hsinchu, Taiwan

Jen-You Chu