Industrial Technology Research Institute

King Design Industrial Co. Ltd.

Teng-Chun Wu

Cho-Fan Hsieh

Hung-Sen Wu

Yu-Tai Li

Chin Lien

Kao-Chi Lin

Shing Der Chen

Yean-San Long

Chih-Chung Chou

Bor-Nian Chuang

Si-Xian Li

Min-An Tsai

Chih-Hua Chen

Chun-Chen Chen

Ming-Han Liao

Chia-Jen Lin

Cheng-Yu Peng

Wei-Yu Lin

Yu-Yi Cheng

En-Yun Wang

Ren-Chin Shr

Chan-Hsiao Ho

Chan-Haiao Ho

Kou-Cheng Yeh

Shu-Tsung Hsu

A terahertz wave detection chip includes a substrate and at least one detection structure. The detection structure is disposed on a surface of the substrate. The detection structure includes a metamaterial layer and a hydrophilic layer, and the hydrophilic layer is disposed on the metamaterial layer.

Terahertz wave detection chip and terahertz wave detection system

A microfluidic sensor chip includes a body comprising a substrate and an upper cover, and the upper cover having at least one opening, at least one microfluidic channel formed on the substrate and has a supporting surface, wherein the at least one microfluidic channel communicates with the at least one opening, and a metamaterial layer coated on the supporting surface, wherein the metamaterial layer has a plurality of regions, and each region has a corresponding resonance pattern. The present disclosure further provides a measuring system for microfluidic sensor chip includes a carrying board, a plurality of the microfluidic sensor chips, a transmitter emitting a terahertz wave corresponding to the resonance pattern of one of the microfluidic sensor chips, a receiver receiving a reflected wave corresponding to the terahertz wave, and a processor receiving the reflected wave from the processor, and determining a testing sample characteristic according to the reflected wave.

Microfluidic sensor chip and measuring system thereof

A measuring method includes the following. An image to be tested of an object to be tested with a first characteristic pattern is formed and is copied to form multiple images to be tested. The multiple images to be tested are superimposed to form a to-be-tested overlapped image which has the multiple first characteristic patterns. A reference image of a reference object with a second characteristic pattern is formed and is copied to form multiple reference images. The multiple reference images are superimposed to form a reference overlapped image which has the multiple second characteristic patterns. The to-be-tested overlapped image and the reference overlapped image are superimposed to generate a virtual moir&#xe9; image having a moir&#xe9; pattern different from the multiple first characteristic patterns and the multiple second characteristic patterns.

Measuring method

The disclosed embodiments relate to a photovoltaic mobile lab configured for performing on-site test in a photovoltaic module. The photovoltaic mobile lab includes a transport vehicle, a first container, a second container, and a light source. The first container is fixed on the transport vehicle. The second container is slidably sleeved on the first container. The second container and the first container together form a testing chamber. The light source is configured for providing illumination to the photovoltaic module. The light source and the photovoltaic module are respectively accommodated in the first container and the second container and are respectively located at two opposite ends of the testing chamber so that a distance between the light source and the photovoltaic module is changeable while the second container is sliding with respect to the first container.

Photovoltaic mobile lab

A measuring apparatus for solar cell is provided, which is configured to measure a solar cell to obtain a characteristic curve thereof. The measuring apparatus includes a signal measurement control circuit and a signal transmitting control circuit. The signal measurement control circuit is configured to output at least one control signal for controlling a resistance circuit thereof to provide a measurement loading. The signal transmitting control circuit includes at least one path separating circuit, each path separating circuit is configured to provide at least two signal transmitting paths with different signal transmitting directions. The signal measurement control circuit outputs the control signal to the resistance circuit by using the signal transmitting control circuit, so that the resistance circuit can be controlled to provide the measurement loading.

Measuring apparatus for solar cell

A magnetic capacitor element is provided. The magnetic capacitor element includes a first electrode, a second electrode, a first dielectric layer, a second dielectric layer, a magnetic layer and an oxide layer. The second electrode is disposed opposite to the first electrode. The first dielectric layer is disposed between the first electrode and the second electrode. The second dielectric layer is disposed between the first dielectric layer and the second electrode. The magnetic layer is disposed between the second electrode and the second dielectric layer. The oxide layer is disposed between the second dielectric layer and the magnetic layer.

Magnetic capacitor element

The present disclosure provides a magnetic capacitor structure including a first electrode, a second electrode opposite to the first electrode, a dielectric layer disposed between the first electrode and the second electrode, a first magnetic layer disposed between the first electrode and the dielectric layer, a second magnetic layer disposed between the second electrode and the dielectric layer, a first oxide layer disposed between the first electrode and the first magnetic layer, and a second oxide layer disposed between the second magnetic layer and the dielectric layer.

Magnetic capacitor structures

A measuring device for the property of a photovoltaic device and a measuring method using the same are provided. The measuring device includes several light sources and a feedback control module. The light color of each light source is different and includes several light-emitting elements symmetrically configured. The feedback control module is used for controlling illuminations of the light-emitting elements for measuring the property of a photovoltaic device.

Measuring device for property of photovoltaic device and measuring method using the same

The present disclosure discloses an apparatus of cardiopulmonary resuscitator that is operated through a driving mechanism controlled and driven by air power. The driving mechanism functions to actuate a belt adapted to extend around a chest of a patient to generate reciprocating movement of pressing and releasing so as to achieve a purpose of cardiopulmonary resuscitation for recovering heartbeat and breathing of the patent.

Apparatus of cardiopulmonary resuscitator

A solar simulator including a light source and a light conduit array is provided. The light source is used for emitting a beam of ray radiation. The light conduit array includes a plurality of light conduits closely adjacent to one another. Each of the light conduits has an inner reflecting surface used for reflecting the ray radiation, a light input side, and a light output side opposite to the light input side. The ray radiation enters the light conduits through the light input side and emitting from the light output side.

Solar simulator

The present invention discloses an apparatus of cardiopulmonary resuscitator that is operated through a driving mechanism controlled and driven by air power. The driving mechanism functions to actuate a belt adapted to extend around the chest of a patient to generate reciprocating movement of pressing and releasing so as to achieve a purpose of cardiopulmonary resuscitation for recovering heartbeat and breathing of the patent. By means of the disclosure of the present invention, the apparatus of cardiopulmonary resuscitator is capable of being operated in any kinds of occasions without worrying about lack of power electricity. Meanwhile, the driving mechanism can provide higher reliability and lower cost through the mechanism design that is more simplified than the design of electrical control element used in the conventional apparatus.

A symbol rate testing method based on signal waveform analysis is provided. A signal with a plurality of quasi bitsand a plurality of quasi bitsis received and sampled within an acquiring time. Maximum values of the quasi bitsare obtained by calculating sampling values of the signal at various sampling points. A minimum value among the maximum values is determined as a critical value. Whether a quasi bitis a bitor not is determined according to the critical value, and a total number of the bitswithin the acquiring time is counted. Similarly, a number of the bitswithin the acquiring time are also obtained. Thus, the symbol rate is obtained according to the above information.

Growing community of inventors

Kinmen County, Taiwan

Teng-Chun Wu