Avision Inc.

Industrial Technology Research Institute

Wistron Neweb Corporation

Excellence Opto. Inc.

Taiwan Anjie Electronics Co., Ltd.

Yen-Cheng Chen

Thomas Sheng

Chen-Yu Kai

Jun-Yi Jiang

Qi-Zheng Yang

Kai-Ming Pan

Shao-Lan Sheng

Ta-Jen Peng

Guan-Wei Su

Shing-Chia Chen

Chung-Yin Chang

Po-Sheng Shih

Chen-Chang Li

Chun-Chieh Liao

Ting-Kuo Chu

Jan-Hsing Kao

Chia-Shih Lin

Chin-Yuan Lin

Po-Chih Wang

Shu-Fahr Chang

Jian-Zhi Wang

Chung-Yi Yao

Lun Wang

Ming Chung Li

Yeh-Chian Lin

A pick-and-place system includes a movement mechanism, an adjustment mechanism, and a clamping mechanism. The adjustment mechanism includes a first coupling component, a second coupling component, and a driving assembly. The first coupling component is mounted on the movement mechanism. The second coupling component is movably disposed on the first coupling component. The driving assembly is configured to be connected to the first coupling component and the second coupling component so as to force the first coupling component and the second coupling component to move relative to each other. The clamping mechanism is mounted on the second coupling component of the adjustment mechanism.

Adjustment mechanism, pick-and-place system, and operation method thereof

A printing head and a method for applying a correction for mounting deviation of light-emitting chips are provided. The printing head includes a plurality of light-emitting chips. Each light-emitting chip includes a plurality of primary light-emitting elements that are continuously arranged. At least one of two adjacent light-emitting chips further includes at least one spare light-emitting element continuously and linearly arranged after the primary light-emitting elements. If the two adjacent light-emitting chips are both at a target mounting position, first N light-emitting units of one of the two light-emitting chips respectively face to first N light-emitting units of the other one of the two light-emitting chips, where N≥1. Each two of the light-emitting units facing to each other form a group. One of the two light-emitting units in each of the groups is set to a light emission disabled state.

Printing head and method for applying a correction for mounting deviation of light-emitting chips

A mechanical arm calibration system and a mechanical arm calibration method are provided. The method includes: locating a position of an end point of a mechanical arm in a three-dimensional space to calculate an actual motion trajectory of the end point when the mechanical arm is operating; retrieving link parameters of the mechanical arm, randomly generating sets of particles including compensation amounts for the link parameters through particle swarm optimization (PSO), importing the compensation amounts of each of the sets of particles into forward kinematics after addition of the corresponding link parameters, to calculate an adaptive motion trajectory of the end point; calculating position errors between the adaptive motion trajectory and the actual motion trajectory of each of the sets of particles for a fitness value of the PSO to estimate a group best position; and updating the link parameters by the compensation amounts corresponding to the group best position.

Mechanical arm calibration system and mechanical arm calibration method

A multi-mode scanning device for scanning an original includes a background element, a first light source, a second light source and an optical module. The first light source outputs visible light to irradiate the background element and the original to generate first light and second light, respectively. The second light source outputs invisible light to irradiate a combination of the background element and the original to generate third light and fourth light, wherein the background element reflects the invisible light. The optical module receives the first to fourth light and generates sensing signals representative of visible light information and invisible light information of the original. The original is disposed between the background element and the optical module. The first light source, the second light source and the optical module are disposed on a same side of the background element.

Multi-mode scanning device performing invisible light reflection

A multi-mode scanning device for scanning an original includes a non-transparent element, a first light source, a second light source and an optical module. The first light source outputs visible light to irradiate the non-transparent element and the original to generate first light and second light, respectively. The second light source outputs invisible light to irradiate a combination of the non-transparent element and the original to generate third light and fourth light. The optical module receives the first light, the second light, the third light and the fourth light and generates sensing signals representative of visible light information and invisible light information of the original. The original is disposed between the non-transparent element and the optical module. The first light source and the optical module are disposed on a same side of the non-transparent element.

Multi-mode scanning device

A multi-mode scanning device includes a background element, a transparent platen, first and second light sources and an optical module. The first light source outputs visible light to irradiate the background element and an original on the transparent platen to generate first and second light, respectively. The second light source outputs invisible light to irradiate a combination of the background element and the original to generate third and fourth light. The movable optical module receives the first to fourth light and generates sensing signals, and obtains visible light information and invisible light information representative of the original according to the sensing signals. The original is disposed between the background element and the optical module. The first light source and the optical module are disposed on a same side of the background element. The optical module and the second light source are disposed on different sides of the background element.

Multi-mode scanning device performing flatbed scanning

A calibrating method is provided including the following steps. A type of a first sensor and a type of a first sensor carrier are determined according to an external shape of a first object. The first sensor is carried by the first sensor carrier, and a relative coordinate of the first object is measured by the first sensor. The relative coordinate of the first object is compared with a predetermined coordinate of the first object to obtain a first object coordinate error, and the first object coordinate error is corrected. After the first object coordinate error is corrected, the first object is driven to perform an operation on a second object or the second object is driven to perform the operation on the first object. A calibrating system is also provided.

Calibrating method and calibrating system

A measuring program compiling device and a measuring program compiling method thereof are provided. The method includes analyzing a first measuring program to obtain a plurality of first measuring parameters corresponding to the first measuring program, and converting the first measuring parameters into a plurality of second measuring parameters corresponding to a plurality of planning operations; generating a plurality of standardized measuring parameters according to the second measuring parameters and a plurality of computer aided design (CAD) image parameters; receiving a plurality of parameter input operations corresponding to the planning operations to update the second measuring parameters; generating a standardized measuring program corresponding to a CAD file according to the standardized measuring parameters; and converting the standardized measuring program into a target measuring program executed on a target measuring device according to specification data of the target measuring device.

Measuring program compiling device and measuring program compiling method

A robot arm processing system includes a robot arm, a processing module, and a control module. The robot arm is for providing a mechanical holding force. The processing module is disposed on the robot arm to process a workpiece. The control module is connected to the robot arm or the processing module. The control module outputs an anti-vibration signal according to the reaction force of the workpiece or the displacement of the robot arm to counteract the reaction force of the workpiece or the displacement of the robot arm.

Robot arm processing system and method thereof

An information security management system and a multifunction printer thereof are provided. The multifunction printer includes an image capturing module, an image processing module, an output module and a transmission module. The image capturing module captures a data image of a document paper. The image processing module is coupled to the image capturing module and encodes the data image to generate first encoded data. The output module is coupled to the image processing module and prints second encoded data related to the data image. The transmission module is coupled to the image processing module and transmits one of the first and second encoded data. The multifunction printer deletes the first encoded data from a memory after transmitting the first encoded data, and deletes the second encoded data from the memory after transmitting/outputting the second encoded data.

Information security management system and multifunction printer using the same

A heating roller includes: a roller cylinder rotatably disposed; a base rotatably disposed in the roller cylinder; first to third heaters, which are mounted on the base and respectively have a first heating section, a second heating section and a third heating section extending respectively in directions substantially parallel to an axial direction of the roller cylinder; and a driving mechanism, which is connected to the base and rotates the base to multiple position states. An image forming apparatus using the heating roller is also disclosed.

Heating roller having three heaters of three different heating sections and image forming apparatus using such heating roller

A rotary encoder includes a rotating shaft, first and second encoder wheels, first and second detectors and a processor. The first encoder wheel includes coaxially disposed first and second portions. The first portion has first graduation features. The second portion has a first positioning structure. The second encoder wheel includes coaxially disposed third and fourth portions. The third portion has second graduation features. The fourth portion has a second positioning structure meshing with the first positioning structure, so that the first graduation features and the second graduation features are staggered, and the first encoder wheel and the second encoder wheel are coaxially mounted on the rotating shaft. The first and second detectors detect the first and second graduation features and output first and second signals, respectively. The processor calculates a rotating angle of the rotating shaft according to the first and second signals.

Rotary encoder with staggered encoder wheels

A terminal device having hybrid antenna integrating with capacitive proximity sensors comprises a ground, a radiator, a first capacitance electrode and a second capacitance electrode. The radiator has a feeding portion, a low-frequency radiating path and a high-frequency radiating branch. The low-frequency radiating path has a first coupling portion. The feeding portion is disposed between the first coupling portion and the ground. The high-frequency radiating branch acts as a second coupling portion. The first capacitance electrode has a first shorting portion and a first electrode portion. The first shorting portion is connected to the ground. The first electrode coupling with the first coupling portion generates a first coupling resonant mode. The second capacitance electrode has a second shorting portion and a second electrode portion. The second shorting portion is connected to the ground. The second electrode coupling with the high-frequency radiating branch generates a second coupling resonant mode.

Terminal device having hybrid antenna integrating with capacitive proximity sensors

A scanning device comprises a light source, a reflecting mirror and a photosensor. The light source provides light to an original. A first portion of the light penetrates through a hole of the original and becomes penetrating light. A second portion of the light is reflected by a hole-free portion of the original and becomes second reflected light. The reflecting mirror reflects the penetrating light and generates first reflected light. The photosensor receives the first reflected light and the second reflected light and generates a hole-containing image signal representative of an image of the original.

Scanning device with overhead reflecting mirror

A smart copy apparatus comprises a scanning module, a processing module and a printing module. The scanning module scans an original to obtain fragment scan images. The processing module electrically connected to the scanning module receives the fragment scan images, and determines a size of the original according to the fragment scan images to obtain a scan-size parameter, and generates print data according to the fragment scan images, the scan-size parameter and a print parameter. The printing module receives the print data, and prints the print data on a print medium.

Growing community of inventors

Hsinchu, Taiwan

Yen-Cheng Chen