International Business Machines Corporation

Beijing Sogou Technology Development Co., Ltd.

Zhejiang Nhu Company Ltd.

Other

Zhejiang University

Beijing University of Chemical Tehcnology

Hong Mei Zhao

Xin Peng Liu

Jianfeng Chen

Zhirong Chen

Hong Yin

Dan Qiu

Xuan Jiang

Lifang Shi

Bing Dong Ma

Yi Wang

Peng Hui Jiang

Cheng Xu

Min Liu

Lei Yang

Han Wang

Guangwen Chu

Liping Li

Jia Yao

Jiandong Li

Lei Shao

Shixuan Zhang

Dazhi Yang

Jiexin Wang

Yong Qi

Jiang Xuan

Suhang Wang

Congxian Yan

Jinghan Sui

Managing service container dependency is provided. A notification that a first service container is running on a host environment is received. It is determined whether the first service container is dependent on a second service container being up and running on the host environment. In response to determining that the first service container is dependent on a second service container being up and running on the host environment, it is determined whether the second service container is running on the host environment. In response to determining that the second service container is not running on the host environment, service requests from the first service container to the second service container are responded to using stub data that corresponds to the second service container.

Breaking dependence of distributed service containers

This disclosure provides a computer-implemented method. The method may comprise obtaining a character of first-direction communications and a character of second-direction communications in a network environment, the first-direction communications being network communications from a first node to a second node, and the second-direction communications being network communications from the second node to the first node. The method may further comprise determining a dependency between the first node and the second node based on the character of first-direction communications and the character of second-direction communications, the dependency between the first node and the second node indicating whether the first node depends on the second node or the second node depends on the first node.

Dependency determination in network environment

An audio input method includes: in an audio-input mode, receiving a first audio input by a user, recognizing the first audio to generate a first recognition result, and displaying corresponding verbal content to the user based on the first recognition result; and in an editing mode, receiving a second audio input by the user and recognizing and generating a second recognition result, converting the second recognition result to an editing instruction, and executing a corresponding operation based on the editing operation. The audio-input mode and the editing mode are switchable.

Speech recognition based audio input and editing method and terminal device

The present disclosure provides an English input method and device. The English input method includes the following steps. An input English character string having an original length is received. A target length is calculated based on the original length of the English character string. A target English word having a length between the original length and the target length is looked up. A longest common length between the target English words and the English character string is calculated, where the common length refers to a length of identical letters. The target English words are returned when the longest common length is equal to N times the target length, where N is a positive number less than or equal to 1. Even when a user forgets the exact spelling of an English word or enters only a fraction of the spelling, the user may still obtain the required English word based on the inputted English character string, substantially improving operability.

English input method and input device

A method for continuously preparing stable-type vitamin A microcapsules is disclosed. The method comprises the following steps: adding vitamin A crystals and an antioxidant into a crystal melter continuously according to a certain ratio under the protection of nitrogen to prepare vitamin A melting oil containing the antioxidant; pumping the above melting oil into a high gravity rotary packed bed emulsifier with a liquid distributor by a pump, and pumping aqueous solution containing gellable modified starch into the above high gravity rotary packed bed emulsifier after deoxidation treatment to obtain vitamin A emulsion at the outlet of the high gravity rotary packed bed emulsifier; and atomizing and spraying the emulsion continuously in a cooled starch bed for granulating, and performing fluidization drying and gelation treatment in a fluidized bed by taking nitrogen as a drying medium to obtain the stable-type vitamin A microcapsules. Above method has the advantage of capability of continuous production, and has good embedding effect due to adopting the gellable modified starch, granulating and gelation treatment, thus the product has good storage stability.

Method for preparing stable-type vitamin A microcapsules continuously

A method of preparing nano-dispersed high-all-trans-carotenoid microcapsules is provided, comprising: preparing 10-20% carotenoid suspension by milling the high-all trans-carotenoid crystals with dichloromethane until the particle size thereof is in the range of 2-5 &#x3bc;m, then supplying the suspension together with preheated dichloromethane of another pass into a dissolving tank to obtain a solution of 0.5-2%; delivering the solution together with ethanol or isopropanol into a crystallization device having high gravity rotating packed bed simultaneously and continuously, and then into a wiped-film evaporator for desolvation until the solid content is 10-20%, then a transparent alcohol dispersion of carotenoid is obtained; mashing the alcohol dispersion together with an aqueous solution containing an antioxidant and protective colloid and spray drying to obtain nano-dispersed high-all-trans-carotenoid microcapsules. As the crystals are nano-dispersed and the content of trans-isomer is more than 90%, the carotenoid microcapsules of present inventions exhibit high bioavailability.

Method of preparing nano-dispersed high-all-trans-carotenoid microcapsules

A blood vessel metal stent coating of amidoglucosan polysaccharide loaded with antibody comprises carrier material composed of chitosan and inartificial degradable acidic amidoglucosan polysaccharide and the effective dose of CD133 antibody loaded in the carrier material. The blood vessel metal stent coating is manufactured with self-assemble method to fix the CD133 antibody in the carrier material of the coating. The coating has good biocompatibility, water retention property, flexibility, flush resistance and bio-stability, and can specifically capture the vascular endothelial progenitor cells in human peripheral blood, and differentiate into vascular endothelial cells. The process would accelerate endothelialization to repair injured vessel caused and prevent restenosis and thrombosis efficiently.

Blood vessel stent of amidoglucosan polysaccharide loaded with CD133 antibody and its preparation method

Growing community of inventors

Beijing, China

Hong Mei Zhao