Air China
System Specialist of Call Center
Air China Jun 2016 - Oct 2016
Project Manager of North American Network
Air China Jun 2016 - Oct 2016
Marketing and Sales Manager of San Francisco Branch
Air China Apr 2014 - May 2016
Sales and Marketing Manager
Air China Jan 2008 - Mar 2014
Assistant on Kam
Education:
Beihang University 2005 - 2007
Masters, Project Management
Beijing Normal University 1999 - 2003
Bachelors
Bosch
Lead Research Engineer
Arraycomm Aug 2005 - Sep 2008
Systems Research Engineer
Education:
University of California, Berkeley 1998 - 2005
Doctorates, Doctor of Philosophy, Electrical Engineering
University of California, Berkeley 1996 - 1998
Bachelors, Bachelor of Arts, Physics
Tsinghua University 1995 - 1996
University of California
Skills:
Signal Processing Algorithms C Mimo Matlab Wifi Wimax Wireless Sensor Networks Embedded Software
The University of Auckland, New Zealand 2002 - 2004
Master of Engineering (M.Eng.), Electrical and Electronics Engineering
Shanghai Jiao Tong University 1997 - 2001
Bachelor of Engineering (B.E.), Electrical and Electronics Engineering
Skills:
Microsoft Office Microsoft Excel Microsoft Word PowerPoint Customer Service Research English Windows Budget
Wei Mao - Palo Alto CA, US Henning Hayn - Stuttgart, DE Jelena Madic - South San Francisco CA, US Ralf Schellin - Baden-Wurttemberg, DE
Assignee:
Robert Bosch GmbH - Stuttgart
International Classification:
A61M 35/00
US Classification:
604304
Abstract:
A medication patch compliance control unit system and method is disclosed. The control unit can include an attachment sensor, a user interface and a controller that receives signals from the attachment sensor and sends signals to the user interface. The control unit can include an attachment sensor, a wireless transceiver and a controller that receives signals from the attachment sensor and sends signals through the transceiver. The attachment sensor can be a temperature sensor, and the controller can determine attachment based on whether the sensor is reading temperatures in the normal body temperature range. The user interface can include visual and/or audible indicators. The control unit can include an expiration timer, and provide an expiration signal when the patch is expired. The transceiver can transmit medication patch data to a healthcare provider. The controller can record when the medication patch is attached to and detached from the patient.
Optical Cable For Transmission Of Audio And Video Signals
- Nantong, CN Zuodng WANG - Beijing, CN Wei MAO - Palo Alto CA, US Yun BAI - Beijing, CN
International Classification:
H04B 10/25
Abstract:
Systems and methods for optical transmission of one-or-more out-of-band signals associated with audio-video signal communication are described. In one aspect, an optical receiver receives a first out-of-band electrical signal and a second out-of-band electrical signal from a video sink. The first out-of-band electrical signal may correspond to an audio-video stream previously received or concurrently being received from a video source optical transmitter at the optical receiver. The second out-of-band electrical signal may also correspond to the audio-video stream. The optical receiver may combine the first out-of-band electrical signal and the second out-of-band electrical signal into a transmit electrical signal. In one aspect, the optical receiver converts the transmit electrical signal into an optical signal, and transmits the optical signal to an optical transmitter via an optical communication channel.
Optical Cable For Transmission Of Audio And Video Signals
- Nantong, CN Zuodong Wang - Beijing, CN Wei Mao - Palo Alto CA, US Yun Bai - Beijing, CN
International Classification:
H04N 7/22 H04N 21/4363 H04B 10/2581
Abstract:
Systems and methods to transmit audio-video signals over an optical communication channel are described. One aspect includes receiving a plurality of audio-video electrical signals at an optical transmitter. The optical transmitter may also receive a plurality of out-of-band electrical signals. The optical transmitter may collectively modulate the audio-video electrical signals to generate a composite electrical signal. In one aspect, the optical transmitter bias current-modulates a bias current level of the composite electrical signal using the electrical out-of-band signals, and generates a modulated electrical signal based on the bias current-modulating. The optical transmitter may convert the modulated electrical signal into a modulated optical signal using a laser diode, and transmit the modulated optical signal to an optical receiver over an optical communication channel.
- Nantong, CN Zuodong Wang - Beijing, CN Wei Mao - Palo Alto CA, US Yun Bai - Beijing, CN
International Classification:
H04N 7/22 H04L 5/16 H04N 7/01
Abstract:
Systems and methods for signal communication over an optical link are described. One aspect includes receiving a source CONFIG signal from a DP master device and a sink CONFIG signal from a sink terminal. The source and sink CONFIG signals are analyzed. It is determined whether a signal transmission mode is a DP protocol. For a DP protocol, a pair of source AUX signals is received from the DP master device. A pair of sink AUX signals is received from the sink terminal. Communication resource contention between the source and sink AUX signals is identified. A communication direction of the communication resources is transitioned to give the source AUX signals precedence over the sink AUX signals. The source AUX signals are transferred to the sink terminal via the communication resources. The direction of the communication resources is again transitioned. The sink AUX signals are transferred to the DP master device.
- Nantong, CN Wei Mao - Palo alto CA, US Zuodong Wang - Beijing, CN Jianming Yu - Nantong, CN
International Classification:
H04B 10/2575 G02B 6/42 H01R 13/66 H01R 31/06
Abstract:
Systems and methods for optical data interconnection are described. One aspect includes a first signal converter that converts first high-speed HDMI electrical signals into high-speed HDMI optical signals, and transmits the optical signals over a first optical communication channel. A second signal converter encodes first low-speed HDMI electrical signals, converts these encoded signals into low-speed HDMI optical signals, and transmits these optical signals over a second optical communication channel. A third signal converter receives the high-speed HDMI optical signals, and converts these optical signals to second high-speed HDMI electrical signals. A fourth signal converter receives the low-speed HDMI optical signals, converts these optical signals to second low-speed HDMI electrical signals, and decodes the second low-speed HDMI electrical signals.
- Nantong, CN Wei Mao - Palo Alto CA, US Zuodong Wang - Beijing, CN Jianming Yu - Nantong, CN
International Classification:
H04N 21/4363 H04B 10/50 H04B 10/60
Abstract:
Systems and methods for optical data interconnection are described. One aspect includes detecting a first HDMI connection of a first terminal of an optical connector. A second HDMI connection of a second terminal of the optical connector may be detected. One aspect includes determining that the first HDMI connection is associated with an HDMI source, and determining that the second HDMI connection is associated with an HDMI sink. Responsive to determining that the first HDMI connection is associated with the HDMI source, an HDMI transmission mode is selected for the first terminal. Responsive to determining that the second HDMI connection is associated with the HDMI sink, an HDMI reception mode is selected for the second terminal. The first terminal and the second terminal may perform HDMI optical communication via an optical communication channel.
- Nantong, CN Zuodong Wang - Beijing, CN Wei Mao - Palo Alto CA, US Yun Bai - Beijing, CN
International Classification:
H04B 10/25 H04B 10/516 H04B 10/50 H04B 10/66
Abstract:
Optical fiber interconnection systems and methods are described. One aspect includes receiving a pulse-amplitude modulated (PAM4) electrical signal at a transmitter for transmission to a receiver. The PAM4 electrical signal is decoded into a pair of non-return-to-zero (NRZ) electrical signals. The pair of NRZ electrical signals is converted into a corresponding pair of NRZ optical signals including a first NRZ optical signal and a second NRZ optical signal. The first NRZ optical signal is transmitted to a receiver over an communication channel. The second NRZ optical signal is transmitted to the receiver over the optical communication channel.
- Nantong, CN Zuodong Wang - Beijing, CN Wei Mao - Palo Alto CA, US Yun Bai - Beijing, CN
International Classification:
H01B 11/22 G02B 6/42 H04B 10/80 G06F 13/38
Abstract:
Systems and methods to implement a USB and Thunderbolt optical signal transceiver are described. One method includes detecting presence of a USB sideband signal received over an optical communication channel and associated with a USB communication request. Responsive to the detecting, the method may determine that the USB communication request corresponds to a USB communication mode and perform a sideband negotiation. The USB communication mode may be enabled. A specified number of channels associated with the USB communication request may be determined. USB communication may be performed using the specified number of channels over the optical communication channel in the USB communication mode.