Acm Research, Inc.

Promega Corporation

Quester Technology, Inc.

Boston Scientific Scimed, Inc.

National Institute of Clean-and-Low-Carbon Energy

China Energy Investment Corporation Limited

Other

Acm Research (Shanghai) Inc.

Canon U.s.a., Inc.

Veeva Systems Inc.

China Investment Corporation Limited

Hui Wang

Wenhui Zhou

Jun Wang

Jian Wang

Xi Wang

Fuping Chen

Xiaoyan Zhang

Zhaowei Jia

Chung J Lee

Yinuo Jin

Xuejun Li

Giovanni Antonio Foggiato

Fufa Chen

Lisa Nguyen

Junjun Shan

Wen-Jui Ray Chia

Rongwei Jason Xuan

Jian James Zhang

Honggang Yu

Liangzhi Xie

Jolanta Vidugiriene

Aditi Ray

Joshua Ryan Miles

Hua Liu

Jihong Cheng

Peter Hofsteen

Aihua Zhang

Louis Guillen

Dieter Klaubert

John William Shultz

James J Cali

James Unch

Michael P Valley

Sarah Duellman

Natasha Karassina

Joshua Miles

Matthew A Larsen

Keith V Wood

Thomas J Pinnavaia

Brock Binkowski

Thomas Charles Hasenberg

Thomas Machleidt

Qi Sun

Joel R Walker

Arno Sosna

Timothy S Murphy

Melanie Dart

Nidhi Nath

Harry Tetsuo Uyeda

Braeden L Butler

Anthony Ku

Ce Shi

Ling Lam

Sergiy Levin

Voha Nuch

Sergei Saveliev

Min Zhou

Cindy Chiang

Virginia E Kincaid

Rod Flemming

Weimin Shi

Zhiyang Zeng

Saydul Sardar

Brian Christopher Carlson

Robert Kargbo

Valerie Ressler

Jun Zhang

Jean Osterman

Prabin Rai

Becky Godat

Amin Sardar

Peihaur Yih

Felix Gutman

Robert MacDonell

Tao Dong

John Matsubu

Yizhi Xiang

YaoHua Wang

Braeden Butler

Aspects of this disclosure pertain to a device with an elongated body having a distal end. The distal end may comprise a port that permits discharge of a laser energy towards a tissue from an optical fiber located in the distal end. An exterior surface of the distal end may include a cauterization portion that permits discharge of a cauterization energy towards the tissue. In some aspects, the device includes an insulative portion that attaches the distal end to the elongated body and limits energy transfer therebetween. Related systems and methods are also disclosed.

Cauterization devices, methods, and systems

A catalyst that includes heterogeneous metal carbide nanomaterials and a novel preparation method to synthesize the metal carbide nanomaterials under relatively mild conditions to form an encapsulated transition metal and/or transition metal carbide nanoclusters in a support and/or binder. The catalyst may include confined platinum carbide nanoclusters. The preparation may include the treatment of encapsulated platinum nanoclusters with ethane at elevated temperatures. The catalysts may be used for catalytic hydrocarbon conversions, which include but are not limited to, ethane aromatization, and for selective hydrogenation, with negligible green oil production.

Hydrocarbon conversion processes using metal carbide nanomaterial catalysts

Provided herein are materials and methods for performing bioluminescent assays using a bifunctional probe. In particular, the present disclosure provides compositions and methods for detecting and/or quantifying a biomolecule and/or assaying a cellular process associated with the biomolecule using a bifunctional probe capable of binding the biomolecule and generating a bioluminescent and/or fluorescent signal.

Compositions and methods for bioluminescent detection using multifunctional probes

The present disclosure relates to the catalytic field, and discloses a catalyst system and a light hydrocarbon aromatization method, a carbon dioxide hydrogenation process and a method for enhancing the catalytic activity and/or lifetime of the catalyst during a heterogeneous catalysis process, the catalyst system comprising a porous material layer containing an active metal component and a molecular sieve layer. The catalyst system provided by the present disclosure exhibits desirable catalytic activity, stability, renewability and selectivity, thus has significant benefits.

Catalyst system and light hydrocarbon aromatization method, carbon dioxide hydrogenation process and method for enhancing catalyst lifetime

Provided herein are surfactant compounds that can be used to aid in preparation of protein samples for analysis, for example by mass spectrometry.

Acid-labile surfactants

Disclosed herein are compounds that can be used to selectively detect nitric oxide in samples. Also disclosed herein are compositions comprising the compounds and methods of detecting nitric oxide using the compounds.

Compounds and methods for detection of nitric oxide

A system for controlling damages in cleaning a semiconductor wafer comprising features of patterned structures, the system comprising: a wafer holder for temporary restraining a semiconductor wafer during a cleaning process; an inlet for delivering a cleaning liquid over a surface of the semiconductor wafer; a sonic generator configured to alternately operate at a first frequency and a first power level for a first predetermined period of time and at a second frequency and a second power level for a second predetermined period of time, to impart sonic energy to the cleaning liquid, the first predetermined period of time and the second predetermined period of time consecutively following one another; and a controller programmed to provide the cleaning parameters, wherein at least one of the cleaning parameters is determined such that a percentage of damaged features as a result of the imparting sonic energy is lower than a predetermined threshold.

System for cleaning semiconductor wafers

Conjugates comprise a drug or probe, a cell binding agent, and a quinone-containing linker. The quinone-containing linker may be reduced intracellularly to trigger release of the drug or probe. These conjugates may selectively deliver a drug or probe to a site of action of interest for local release of the active drug or probe.

Quinone-containing conjugates

The present invention discloses a method for cleaning substrate without damaging patterned structure on the substrate using ultra/mega sonic device, comprising: applying liquid into a space between a substrate and an ultra/mega sonic device; setting an ultra/mega sonic power supply at frequency fand power Pto drive said ultra/mega sonic device; after micro jet generated by bubble implosion and before said micro jet generated by bubble implosion damaging patterned structure on the substrate, setting said ultra/mega sonic power supply at frequency fand power Pto drive said ultra/mega sonic device; after temperature inside bubble cooling down to a set temperature, setting said ultra/mega sonic power supply at frequency fand power Pagain; repeating above steps till the substrate being cleaned.

Methods and apparatus for cleaning substrates

Disclosed herein are compounds that can be used to selectively detect superoxide in samples. Also disclosed herein are compositions comprising the compounds and methods of detecting superoxide using the compounds.

Compounds and methods for detection of superoxide

A catalyst for converting hydrocarbon, a method of making the same, and a method of using the same are provided. Such a catalyst includes a zeotype microporous material, a binder material, and a metal phosphide, which can be in a range of from 0.01% to 10% by weight of a total weight of the catalyst. For example, such a catalyst can be used to convert light alkene or alkane into aromatic hydrocarbon such as benzene, toluene, xylenes, and a combination thereof. The alkene may be ethylene, propylene, butylene, or a combination thereof. The alkene may be supplied directly or from a stream converted from light alkane such as methane, ethane, propane, butane, or a combination thereof.

Catalyst for converting light olefin to aromatics, method of making and method of using the same

A method for controlling damages in cleaning a semiconductor wafer comprising features of patterned structures, the method comprising: delivering a cleaning liquid over a surface of a semiconductor wafer during a cleaning process; and imparting sonic energy to the cleaning liquid from a sonic transducer during the cleaning process, wherein power is alternately supplied to the sonic transducer at a first frequency and a first power level for a first predetermined period of time and at a second frequency and a second power level for a second predetermined period of time, the first predetermined period of time and the second predetermined period of time consecutively following one another, wherein at least one of the cleaning parameters is determined such that a percentage of damaged features as a result of the imparting sonic energy is lower than a predetermined threshold.

Method for cleaning semiconductor wafers

The present disclosure provides a modified catalyst, and preparation method and a method for producing aromatic hydrocarbons by aromatization of olefins using the modified catalyst. The modified catalyst comprises an acidic molecular sieve and an olefin aromatization active metal component, the total acid amount of the catalyst as measured by NH-TPD method is not higher than 0.35 mmol/g, and ratio of the strong acid to weak acid is within a range of 0.8-1.2.

Modified catalyst, method for preparing the same, and method for producing aromatic hydrocarbons by aromatization of olefins

A method for effectively cleaning vias (), trenches () or recessed areas on a substrate () using an ultra/mega sonic device (), comprising: applying liquid () into a space between a substrate () and an ultra/mega sonic device (); setting an ultra/mega sonic power supply at frequency fand power Pto drive said ultra/mega sonic device (); after the ratio of total bubbles volume to volume inside vias (), trenches () or recessed areas on the substrate () increasing to a first set value, setting said ultra/mega sonic power supply at frequency fand power Pto drive said ultra/mega sonic device (); after the ratio of total bubbles volume to volume inside the vias (), trenches () or recessed areas reducing to a second set value, setting said ultra/mega sonic power supply at frequency fand power Pagain; repeating above steps till the substrate () being cleaned.

Growing community of inventors

Fremont, CA, United States of America

Hui Wang