Institute for Information Industry

Industrial Technology Research Institute

Primax Electronics Ltd.

Astec International Limited

Cyberpower Systems, Inc.

National Taiwan University

Chih-hao Hsu

Chia-Jung Chang

Chun-Wei Chang

Jing-Yuan Lin

Mao-Hsiu Hsu

Jui-Hung Tsai

Yen-Nan Liu

Carl Kenneth Walker

Ying-Hao Wang

Chang-Chieh Yu

Pin-Chan Chen

Po-Tso Chen

Kuan-Yu Chen

Guo-Dung Su

Feng-Cheng Lin

Yu-Sheng Hsieh

Ying-Chieh Chuang

Chin-Cheng Wu

Joseph Huang

Bo-Kai Chao

Jacob Guo

Neng-Hao Yu

Yi-Shiou Lee

Yi-Shu Huang

Hong-Kai Huang

Pin-Chuan Chen

Li-Pin Wang

Horn-Chin Lee

Jen-Feng Li

Wen-Ju Huang

A microneedle electroporation device is provided, including a housing, a positioning member, an intermediate plate, a first microneedle assembly, a second microneedle assembly, a socket, a first wire, and a second wire. The positioning member is connected to the housing and the intermediate plate. The intermediate plate includes a plurality of first holes and a plurality of second holes. The first microneedle assembly includes a plurality of first microneedles and a first metal connecting portion connected to the first microneedles. The first microneedles pass through the first holes. The second microneedle assembly includes a plurality of second microneedles and a second metal connecting portion connected to the second microneedles. The second microneedles pass through the second holes. The first microneedle assembly and the second microneedle assembly are electrically independent of each other. The first wire connects the socket to the first metal connecting portion. The second wire connects the socket to the second metal connecting portion.

Microneedle electroporation device

An optical water-quality detection apparatus includes a detection device, a biofilm-inhibition light source, a detection light source and a sensor. The detection device includes a detection chamber. The biofilm-inhibition light source is disposed outside the detection chamber and configured to emit biofilm-inhibition light. The detection light source is disposed outside the detection chamber and configured to emit detection light. The sensor is configured to sense the detection light penetrating the detection chamber. A beam of the detection light and a beam of the inhibition light overlaps as penetrating the detection chamber.

Optical water-quality detection apparatus

The technology described herein is directed to a DC input power supply unit with an auxiliary boost control circuit (or controller) that facilitates continuous supply of power to a standby output load of the power supply unit in a bootloader mode. More specifically, the auxiliary boost circuit (or controller) is configured to assume control of a primary power boost stage from a primary controller in a bootloader mode so that the power supply unit can continue to supply power to the standby output with a protection function regardless of the state of the power supply unit or primary controller.

Power supply unit with auxiliary boost control in bootloader mode

A residual toxicant detection device for testing residual toxicant in an aqueous solution is disclosed, which includes a first space cavity, a second space cavity, a connecting frame and a sensing cavity. The first space cavity includes a light source and a lens. The second space cavity includes a photo sensor and a circuit module. The connecting frame is configured to connect the first space cavity and the second space cavity. The sensing cavity for receiving an aqueous solution is formed between the first space cavity and the second space cavity and at one side of the connecting frame. The light source emits a light with a wavelength range. The photo sensor receives the sensing signal of the light passing through the sensing cavity. The circuit module is configured to calculate the absorbance and the variation in absorbance of the residual toxicants in the aqueous solution.

Residual toxicant detection device

A power outlet device including a first socket assembly coupled to an external power, a first switch, a detecting circuit coupled to first socket assembly through the first switch, and a controller is provided. The first switch is coupled to the first socket assembly for turning, on or off the power supply of the first socket assembly. The detecting circuit detects at least one power value of the first socket assembly. The controller is coupled to the first switch and the detecting circuit respectively, and averages the plurality of power values within a predetermined time for generating an average power value. The controller turns on or off the first switch according to the average power value and a current power value. A controlling method of the power outlet device is further provided.

Power outlet device and controlling method thereof

A method for assembling a fingerprint identification module includes the following steps. Firstly, a first spray process is performed to form a first paint structure on a first surface of a sensing strip. Then, a first surface and a second surface of the sensing strip are protected. Then, a periphery region of the sensing strip is cut. Consequently, plural fingerprint sensors are produced, and the fat edge structures generated in the first spray process are eliminated. Then, a second spraying process is performed to spray a second paint structure is sprayed on sidewalls of the plural fingerprint sensors. Then, the cut first protective film and the cut second protective layer are removed from the fingerprint sensors. Consequently, the color of the first surface of the fingerprint sensor is identical to the color of the sidewall of the fingerprint sensor.

Method for assembling fingerprint identification module

A power outlet device including a first socket assembly coupled to an external power, a first switch, a detecting circuit coupled to the first socket assembly through the first switch, a controller is electrically coupled to the first switch and the detecting circuit, and a sensor is provided. The first switch is electrically coupled to the first socket assembly for turning on or oft power supply of the external power to the first socket assembly. The detecting circuit detects a first power value of the first socket assembly. A second power value of the first socket assembly is detected after detecting the first power value. The controller read the first and second power value. A first signal is received by the sensor for transmitting to the controller. The controller turns on or off the first switch according to the first signal, the first and second power value. A controlling method of the power outlet device is further provided.

An image sensing apparatus including a light source, an image sensor, at least one lens, and a wavelength selecting device is provided. The light source is configured to emit an illumination light to irradiate an object. The image sensor is configured to receive a light signal from the object and send an image signal corresponding to the light signal. The at least one lens is located on a transmission path of the light signal and between the object and the image sensor. The wavelength selecting device is located on the transmission path of the light signal and between the object and the image sensor. The wavelength selecting device has a first reflector and a second reflector, and a gap exists between the first reflector and the second reflector. The gap is adapted to be adjusted to have a first predetermined optical path length or a second predetermined optical path length.

Image sensing apparatus

The present invention provides a fingerprint recognition module, including: a substrate, a fingerprint sensing die fixed on the substrate, an encapsulation layer covering the fingerprint sensing die and the substrate, the encapsulation layer having a composition plane, and an imprint layer, where the imprint layer is formed on the composition plane.

Fingerprint recognition module and manufacturing method therefor

An optical package is provided. The optical package includes an interference splitter allowing a light having a predetermined wavelength range to transmit through, a sensing element, and a light-transmitting structure. The light-transmitting structure includes a light-transmitting pillar and a light-absorbing layer surrounding the light-transmitting pillar, and the light-absorbing layer absorbs the light having the predetermined wavelength range. The interference splitter, the light-transmitting pillar, and the sensing element are arranged aligned with each other along an extending direction of the light-transmitting pillar. The sensing element is configured to receive the light transmitting through the interference splitter and the light-transmitting pillar.

Optical package

The present invention provides a rotary spraying coating system, configured to evenly form a paint on a surface of a chip connecting plate. The system includes: a plurality of fixtures, where each has a pedestal, an abutting piece, and a rotating axis, and the abutting piece is configured to abut and fix the chip connecting plate to the pedestal, to avoid warping of the chip connecting plate; a conveyor belt, configured to convey the fixtures, wherein the fixtures are connected to the conveyor belt by using the rotating axis and rotate with the rotating axis as an axis center; at least one spraying coating apparatus, configured to spray and coat the paint on the surface of the chip connecting plate; and a control module, configured to control a rotational speed of the fixtures, a movement speed of the conveyor belt, and a spraying coating amount of the at least one spraying coating apparatus.

Rotary spraying coating system and its fixture

A method for manufacturing a fingerprint identification module is provided. In a step (a), a fingerprint sensor comprising a substrate, a sensing chip and a package layer is provided. The sensing chip is disposed on the substrate. The sensing chip is encapsulated by the package layer. In a step (b), an ink material is coated on the package layer, so that a color ink layer is formed on the package layer. In a step (c), a stamping tool is used to stamp the color ink layer, so that a top surface of the color ink layer becomes a first high gloss surface. In a step (d), the color ink layer to be heated through baking or irradiated with UV light, so that the color ink layer is hardened.

Fingerprint identification module and manufacturing method thereof

A method for assembling a fingerprint identification module is provided. During the process of cutting a sensing strip, the junction parts between adjacent fingerprint sensors are retained. Consequently, the cut sensing strip is still a one-piece structure. Then, a paint-spraying process is performed to spray paint on the one-piece structure of the sensing strip. After the junction parts are removed, plural individual fingerprint sensors are produced. In comparison with the conventional technology of spraying paint on the individual fingerprint sensors, the assembling time of the method of the present invention is largely reduced. Consequently, the production efficiency of the present invention is enhanced.

An LED illumination apparatus includes a first lighting module, a second lighting module, a lamp cup, a heat pipe, and a plurality of heat dissipation fins. The first and second lighting modules are connected with each other and emit light in opposite directions, in addition being received by the lamp cup. The lamp cup includes two reflecting surfaces arranged in symmetrical mirror fashion. The light emitting from the first and second lighting modules are directed to respective reflecting surfaces and reflected toward a same direction by the reflecting surfaces. The heat pipe is disposed in between the first and second lighting modules. The heat dissipation fins are fitted over the heat pipe. The heat generated by lighting modules would transmit to the heat pipe and be guided to the heat dissipation fins in order to accelerate cooling.

Growing community of inventors

Taipei, Taiwan

Chih-hao Hsu