Finisar Corporation

Signify Holding B.v.

Parade Technologies, Ltd.

Shanghai Xudong Haipu Pharmaceutical Co., Ltd

Xiaolin Chen

Fan Chen

Huiping Li

Fahua Lan

Steven James Frisken

Xucheng Wang

Pengfei Gao

Borong Su

Deyong Kong

Leilei Chen

Yi Liang

Yafeng Zhan

Zhaoting Li

Xiujuan Wu

Zhengyu Wang

Yuafen Cheng

Xiangdong Zhang

Dapeng Kevin Zhang

Yike Yang

A retrofit tubular lamp having a single switch device configured to selectively connect a first end and a second end of an input interface together. When the two ends are connected, a converter is bypassed whilst supplying power to a light emitting arrangement of the lamp. When the two ends are disconnected, power is provided to the light emitting arrangement via the converter. The single switch device is further configured so that, when disconnecting the two ends from one another, a creepage distance between the two ends is equal to or greater than a predetermined safety distance (i.e. a safety creepage is created).

Retrofit tubular lamp with single switch device

Disclosed is a method for refining 5-fluorouracil, comprising the following steps: dissolving 5-fluorouracil in an organic solvent, preferably DMSO, heating and stirring until dissolved; naturally cooling the filtrate until a crystal is precipitated; filtering, washing a filter cake using a polar solvent, and draining and drying under reduced pressure. By using the new refining method, the content of impurities in 5-fluorouracil may be reduced to less than 0.01%, the product purity is more than 99.98%, and the refining yield is higher than 70%. In addition, the refining method of the present invention has a simple process, convenient operation, low production costs, high product purity, a stable process, and is suitable for industrial production.

Composition of 5-fluorouracil and refining method therefor

This application is directed to a touch detection device that has a plurality of sense electrodes, at least one force electrode, and a processing device electrically coupled to the sense electrodes and the force electrode. The sense electrodes are disposed substantially in parallel with the force electrode and separated therefrom by at least an air gap. While operating in a touch sensing state, the processing device leaves the force electrode electrically afloat, measures self-capacitance of each of a subset of sense electrodes, and detects a touch location of an object. While operating in a force sensing state, the processing device drives the force electrode by a transmit signal, measures mutual capacitance of each of a subset of sense electrodes with respect to the force electrode, and detects a touch force on a touch location when an object touches a top surface of the touch detection device.

Integrated touch sensing and force sensing in a touch detection device

In an example embodiment, a WDM array includes an optical filter, N common ports, N reflection ports, and N pass ports. The N common ports may be positioned to a first side of the optical filter. N may be greater than or equal to two. The N reflection ports may be positioned to the first side of the optical filter. The N pass ports may be positioned to a second side of the optical filter opposite the first side.

Wavelength division multiplexer array

In some example embodiments, a demodulator may include an input polarization beam splitter (IPBS), input half waveplate (IHWP), cubical polarization beam splitter (CPBS), first reflector (R), second reflector (R), first quarter waveplate (QWP), second quarter waveplate (QWP), beam displacer (BD), output half waveplate (OHWP), and output polarization beam splitter (OPBS). The CPBS may be positioned to receive an output from IPBS. The IHWP may be positioned between IPBS and CPBS. The Rmay be positioned to receive and return a first output from CPBS. The QWPmay be positioned between CPBS and R. The Rmay be positioned to receive and return a second output from CPBS. The QWPmay be positioned between CPBS and R. The BD may be positioned to receive a third output from CPBS. The OPBS may be positioned to receive an output from BD. The OHWP may be positioned between BD and OPBS.

Athermal DQPSK and/or DPSK demodulator

In an embodiment, a demodulator includes first, second, third, fourth and fifth beam displacers, a half waveplate, and a quarter waveplate. The second beam displacer is positioned to receive an output from the first beam displacer. The third beam displacer is positioned to receive an output from the second beam displacer. The half waveplate is positioned to receive an output from the third beam displacer. The fourth beam displacer is positioned to receive an output from the half waveplate. The fifth beam displacer is positioned to receive an output from the fourth beam displacer. The quarter waveplate is positioned between the fourth beam displacer and the fifth beam displacer.

DP-QPSK demodulator

A phase shift keyed demodulator includes first and second beam splitters, a first optical path, a second optical path, and a wavelength tuner. The first beam splitter splits an input signal into first and second output signals. The second beam splitter splits each first and second output signal into a transmitted signal and a reflected signal. The first optical path includes an optical path of each transmitted signal from a beam splitting surface to a reflector and back to the beam splitting surface. The second optical path includes an optical path of each reflected signal from the beam splitting surface to a mirror surface and back to the beam splitting surface. A path difference introduces a delay between the transmitted signal and the reflected signal. The wavelength tuner tunes the demodulator to a predetermined central wavelength and introduces a phase shift between first and second transmitted signals.

DQPSK demodulator

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Shanghai, China

Xiaolin Chen