Mcube, Inc.

Imec Taiwan Co.

Kevin Huang

Chenglong Fu

Chihchung (Gary) Chen

Sanjay Bhandari

James Wang

Bruence Zhang

Aga Hsu

Tan Liang

Wei-Lun Sung

A wearable user device includes a first hearing aid configured to be disposed within a first ear of a user comprising a first MEMS accelerometer, a first magnetometer, and a first power source, wherein the first MEMS accelerometer is configured to determine a first plurality of movement data in response to a first head motion of the user, wherein the first magnetometer configured to determine a second plurality of movement data in response to the first head motion of the user; and wherein the first power source is configured to provide operating power to the first hearing aid, the first MEMS accelerometer, and to the first magnetometer, and a processor coupled to the first hearing aid, wherein the processor is configured to determine a first plurality of rotation data associated with the user in response to the first plurality of movement data and the second plurality of movement data.

Low power rotational detection methods and apparatus

A peripheral for an umbrella having a shaft, a handle and a canopy includes a power source, a sensor for determining when the canopy is open or closed, a light emitting diode (LED) on the top of the umbrella for outputting light, a MEMS accelerometer for determining physical orientations of the umbrella, and a processor for determining whether the umbrella is upright when the physical orientations of the umbrella are within a range of angles wherein the processor is for determining whether the umbrella is in a down configuration when the physical orientations of the umbrella are outside the range of angles, wherein the processor is for coupling the LED to the power source in response to the umbrella being upright and open, and wherein the processor is for decoupling the LED from the power source in response to the umbrella being in a down configuration and closed.

Umbrella, umbrella peripheral and methods

A method for a computing device includes determining in a magnetometer, magnetic data in response to a physical perturbation, determining in an accelerometer, acceleration data in response to the physical perturbation, determining with a processor, computed parameters in response to the magnetic data and the acceleration data, wherein the computed parameters includes a first and a second computed parameter, determining with the processor, an initial motion direction indicator in response to a weighted combination of the first computed parameter and the second computed parameter, determining with the processor, a motion direction indicator in response to the initial motion direction indicator, determining with the processor, a function to perform in response to the motion direction indicator, and displaying on a display of the portable computing device with the processor, a graphic image in response to the function.

Method and apparatus for real-time motion direction detection via acceleration-magnetic fusion

The present disclosure is directed to an apparatus and method of batch assembly. The apparatus for batch assembly may include a plurality of spring units, a plurality of handling units, and a control unit. The method of batch assembly may include aligning an array of devices with a plurality of handling units, attaching the array of devices onto the handling units, expanding the handling units so as to expand the array of devices from a first area to a second area, and transferring the array of devices to a destination.

Apparatus and method of batch assembly

A portable proximity device and method of operation thereof. The method for proximity detection implemented on a portable device can include determining an initial perturbation data, a tracking point data, and a stable position data with a physical sensor of the portable device. The initial perturbation data can include previous state data and current state data. The tracking point data can include one or more track data. An action to be performed can be determined, by a processor within the portable device, based on the initial perturbation data, the tracking point data, and the stable position data. The portable proximity device can include a physical sensor and a processor configured to perform these steps.

MEMS-based proximity sensor device and method

A compliable unit in an compliable network comprises a first layer including at least one device component at a first region of the first layer, and a second layer including at least one compliable element at a first region of the second layer to transfer the at least one device component to a desired location. The first layer and the second layer are arranged in a stack.

Growing community of inventors

San Jose, CA, United States of America

Kevin Huang