General Electric Company

Emc IP Holding Company LLC

Apple Inc.

Harman International Industries, Inc.

Baoshan Iron & Steel Co., Ltd.

Hao Xu

Chao Chen

Tianqing Wang

Kun Tao

John F Wyatt, Jr

Mark A Traietti

Hui Wang

Yong Qing Lu

Lei Yu

Hao Lai

Jinu Kim

Jun Shen

Li Tao

Shanqing Li

Ming Yan

Xinyan Jin

Xi Yao

Bing Yang

Yueming Zhou

Yong Lu

Jiajun Gu

Ram Iyer

Xiaoguang Hou

Hongwei Qian

Cunbing Wang

Tingquan Gu

Hao Liu

Pengbei Zhang

Lilly Luk

Aly Mohamed Mamdouh Ismail

This disclosure is directed to filtering in a transceiver of an electronic device. In some instances, active analog filters may be deployed in the transceiver of the electronic device to achieve greater linearity and/or reduce noise in the transceiver. However, as signal bandwidth grows increasingly larger, an active analog filter may consume excessive power. To remedy the excessive power consumption, a passive ladder LC filter may be used. Some LC ladder filters may include a limited quality factor (Q), which may lead to undesirable effects in the transceiver (e.g., voltage droop). To address these undesirable effects, certain components in the LC ladder filter may be relocated from an input port to a feedback chain of an amplifier coupled to the LC ladder filter. The new structure may enable components in the LC ladder filter to be tuned without causing additional voltage droop across the LC ladder filter.

Passive active hybrid LC filter

Disclosed are a method and a device for controlling flow of liquid zinc () in a zinc pot () for hot-dip galvanization. Under the blowing effects of an air knife above the zinc pot () for hot-dip galvanization onto strip steel (), the liquid zinc () diffuses and flows outwards to zones (zones I, II, III and IV) comprising the left side, the right side, the front end of the zinc pot, respectively, and a zone between the strip steel () and a furnace snout (), and surface dross rapidly generated on the surface of the liquid zinc () is driven to flow outwards to the zones (zones I, II, III and IV). On edge sides of the zones (zones I, II, III and IV), travelling magnetic field generators () are arranged in multiple sections above the surface of the liquid zinc () in the zinc pot (), so as to excite a travelling magnetic field to generate an electromagnetic driving force on the liquid zinc () to drive the flow of the liquid zinc (). The flow of the liquid zinc () caused by the travelling magnetic field generators () is engaged with the blowing flow of the air knife, driving the surface liquid zinc () in the zinc pot () to flow in order towards a rear end (zone V) of the zinc pot (). The surface dross floating on the surface of the liquid zinc () is driven by the flowing liquid zinc () to flow in a controlled direction.

Method and device for controlling flow of liquid zinc in zinc pot for hot-dip galvanization

Embodiments are disclosed for an example telematics system for a vehicle. The example telematics system comprises a plurality of antennae capable of sending and receiving wireless signals, the plurality of antennae including a primary antenna and a backup antenna positioned adjacent to the primary antenna. The primary antenna comprises a three-dimensional antenna, and the backup antenna comprises a two-dimensional antenna.

Antenna system for a vehicle telematics unit

Example embodiments of the present invention relate to a method and a system for datacenter management. The method includes retrieving logical relationship information regarding a datacenter and generating a layered information model of the logical relationship information regarding the datacenter. The datacenter then may be managed according to commands received from a datacenter management device configured to navigate the layered information model.

Method and system for improving datacenter operations utilizing layered information model

A mobile radiography system is disclosed, which includes a radiation source for radiating a plurality of beams; a detector for detecting the plurality of beams from the radiation source; a controller for determining an angular difference between the radiation source and the detector; and a positioning device mounted with the radiation source for recognizing a position of the detector relative to the radiation source based on the angular difference between the radiation source and the detector to align the radiation source to the detector. A method of aligning a mobile radiography system including a radiation source and a detector is also disclosed.

Mobile radiography system and method for aligning mobile radiography system

Embodiments of the present invention disclose a method for removing streaks from detector cells with performance difference, specifically a method for removing streaks from detector cells with performance difference and streaks caused by other reasons. The method comprises: estimating a projection on a detector cell with performance difference for each of one or more views; reconstructing one or more initial images with the estimated projection on the detector cell with performance difference for each view; estimating a projection error on the detector cell with performance difference for each view from the reconstructed one or more initial images having streaks; and reconstructing one or more output images with the estimated projection error on the detector cell with performance difference for each view to remove the streaks from the reconstructed one or more output images, improving quality of CT reconstructed images.

Method for removing streak from detector cell with performance difference

Growing community of inventors

Shanghai, China

Hao Xu