Pegatron Corporation

Other

Taiwan Semiconductor Manufacturing Comp. Ltd.

Primax Electronics Ltd.

National Central University

Obook Inc.

Chun-Kai Wang

Chin-Ting Huang

Sony Chayadi

Hsi-Kai Hung

Kuo-Ping Yang

Yung-Tai Pan

Jen-Inn Chyi

Jin-Wei Shi

Jinn-Kong Sheu

Chih-Long Chang

Ho-Hsin Liao

Shu-Hua Guo

Mao-Jen Wu

Kun-Yi Hua

Ming-Hsiang Cheng

I-Cheng Lin

Chung-Han Hsieh

Chih-Yang Liu

Chih-Kang Yang

Sin-Chen Lin

Cheng-Hiong Chen

Hsiu-An Teng

Wei-Te Lin

Shin-Ying Chu

Zih-Hao Lin

Kang-Hsien Chang

Yen-Tsung Fu

Chi-Chan Lee

Yih-Shiuan Shin

An antenna module includes a first antenna, a second antenna, a first ground plane, and a second ground plane. The first antenna is used to excite at a first frequency band. The second antenna is disposed beside the first antenna and includes a first radiator with a feeding end, a second radiator connected to the first radiator, and a third radiator connected to the first radiator and including a ground end. The first radiator excites at a second frequency band, and a part of the first radiator and the second radiator excite at a third frequency band. The first ground plane is located below the first antenna and spaced apart from the first antenna. The second ground plane is located below the second antenna and spaced apart from the first ground plane. The ground end is connected to the second ground plane.

Antenna module

An array antenna includes a ground plane, a first dielectric element, a second dielectric element, a first radiator, and a second radiator. The first dielectric element includes a first surface and a second surface, and a first included angle is formed between the first surface and the second surface. The second dielectric element includes a third surface and a fourth surface, and a second included angle is formed between the third surface and the fourth surface. The first surface is adjacent to the third surface. The first radiator includes a first part and a second part. The first part is disposed on the first surface, and the second part is disposed on the second surface. The second radiator includes a third part and a fourth part. The third part is disposed on the third surface, and the fourth part is disposed on the fourth surface.

Array antenna

A wearable device includes a conductive bottom shell, a conductive frame, an insulating member, and a circuit board. The conductive frame is disposed above the conductive bottom shell and separated from the conductive bottom shell. The conductive frame functions as an antenna and includes a feeding terminal and a first ground terminal. The insulating member is disposed between the conductive bottom shell and the conductive frame and prevents the conductive bottom shell from conducting electricity to the conductive frame. The circuit board is disposed inside the conductive frame, separated from the conductive bottom shell and disposed between the insulating member and the conductive frame. The feeding terminal and the first ground terminal are electrically connected to the circuit board.

Wearable device

A three-dimensional antenna module includes a first antenna, a second antenna, and a conductor. The first antenna includes a first main radiator and a first feeding section connected to the first main radiator. The first main radiator includes a first open end and a second open end. The first main radiator is bent to form a first opening. The second antenna includes a second main radiator and a second feeding section connected to the second main radiator. The second main radiator includes a third open end and a fourth open end. The second main radiator is bent to form a second opening. A direction the first opening faces is different from a direction the second opening faces. The conductor is disposed between the first antenna and the second antenna.

Three-dimensional antenna module

Provided is an antenna module including a first planar inverted-F antenna radiator, a first ground plane, a second ground plane, and a conductor. The first planar inverted-F antenna radiator includes a first feeding terminal and a first ground terminal. The first ground terminal is connected to the first ground plane. The second ground plane is located on one side of the first ground plane. A gap exists between the first ground plane and the second ground plane. The conductor is located between the first ground plane and the second ground plane and connects the first ground plane with the second ground plane.

An ultra-wideband antenna for a wireless headphone is provided, which includes a first portion and a second portion. One side of the first portion has at least two slots. The second portion is laterally adjacent to and separated from the first portion. The second portion includes a main body portion and an extension portion, and one side of the main body portion is close to the at least two slots, and another side of the main body portion is connected to the extension portion, in which an included angle between the main body portion and the extension portion is in a range of between 85 degrees and 135 degrees. A wireless headphone including the above-mentioned ultra-wideband antenna is also provided.

Ultra-wideband antenna and wireless headphone including ultra-wideband antenna

An antenna module includes a feeding end, a first radiator, a second radiator, a third radiator, and a ground structure. The first radiator excites a first frequency and a second frequency. The second radiator extends from the first radiator and excites a third frequency with a part of the first radiator. The third radiator extends from the first radiator and excites a fourth frequency with a part of the first radiator. The ground structure includes a main ground surface and an extending portion extending from the main ground surface. The main ground surface is located below the feeding end, and the extending portion extends from the main ground surface to a bottom of the first radiator and is apart from the first radiator. An extending direction of a portion of the first radiator above the extending portion is orthogonal to an extending direction of the extending portion.

An antenna module includes a hollow cylindrical conductor structure. The hollow cylindrical conductor structure includes a cylinder wall, at least one first slot, and a first feed point. The at least one first slot and the first feed point are located on the cylinder wall. The cylinder wall includes a first end edge and a second end edge opposite to each other. The at least one first slot extends from an internal position of the cylinder wall to the first end edge, and forms a first closed path together with the first end edge. The first feed point is located beside the at least one first slot. The antenna module is adapted to excite a first frequency band through the first closed path.

A method for profit sharing is provided. The method includes deciding a first sharing rate according to a first event information and a first category information; obtaining a first sharing amount according to the first sharing rate and a first shared profit of the first category information; deciding a second sharing rate according to a second event information and a second category information; obtaining a second sharing amount according to the second sharing rate and a second shared profit of the second category information; deciding a total sharing amount by summing up the first sharing amount and the second sharing amount; and returning the total sharing amount in response to receiving a request from a user device.

Method, computing device and system for profit sharing

The present invention discloses an electronic device including a body and an insulation housing. The inner side of the insulating housing is provided with a near field communication antenna and a capacitive proximity sensing board adjacent to each other . . . . A side of the near field communication antenna opposite the other side of the near field communication antenna facing the insulating housing is provided with a conductive sheet, and a first insulation layer is disposed between the near field communication antenna and the conductive sheet to be electrically isolated from each other. An area of the conductive sheet is greater than an area of the near field communications antenna. A side of the capacitive proximity sensor pad, opposite the other side of the capacitive proximity sensor pad facing the insulation housing, is provided with a second insulation layer. When the insulation housing is fixed on the body, the near field communications antenna and the capacitive proximity sensor pad are electrically connected to a near field communications antenna processing module and a capacitive proximity sensing module disposed on the body. Through disposition of the conductive sheet, the capacitive proximity sensor pad is less likely to be interfered with a signal emitted by the near field communications antenna.

Electronic device

Among other things, an electrostatic discharge (ESD) device is provided. The ESD device comprises a dielectric isolation structure that is formed between an emitter and a collector of the ESD device. During an ESD event, current flows from the emitter, substantially under the dielectric isolation structure, to the collector, to protect associated circuitry. The dielectric isolation structure is formed to a depth that is less than a depth of at least one of the emitter or the collector, or doped regions thereof, thereby decreasing a length of a current path from the emitter to the collector, because the current is not obstructed by the dielectric isolation structure. Accordingly, the ESD device can carry higher current during the ESD event because the shorter current path has less resistance than a longer path that would otherwise be traveled if the dielectric isolation structure was not formed at the shallower depth.

Isolation structure for ESD device

A method and a system for voice communication, especially for a user who has voice or speaking problems, are disclosed. The method requires a communication sheet and a digital voice signal processing device. The communication sheet comprises a plurality of communication units and a plurality of function units for a user to click with the digital voice signal processing device. The plurality of function units comprise a whole sentence unit, and the method comprises a method for performing a function of emitting the sound of a whole sentence, which comprises the following steps: receiving sounds of words selected by the user; searching a voice file according to each of the sounds of words; receiving a command generated by the user's clicking the whole sentence unit; and playing voice files in order.

Method and system for voice communication

Green light emitting diodes (LED) of gallium arsenide (GaAs) are series-connected. The series connection has a small transmission attenuation and a wide bandwidth. The GaAs LED has a big forward bias and so neither extra driving current nor complex resonant-cavity epitaxy layer is needed. Hence, the present invention has a high velocity, a high efficiency and a high power while an uneven current distribution is avoided.

Growing community of inventors

Taipei, Taiwan

Chun-Kai Wang