International Business Machines Corporation

Huaneng Clean Energy Research Institute

Huaneng Group R &d Center Co Ltd

China Huaneng Group Co., Ltd

Ping Xiao

Si Bin Fan

Jia Zou

Xiaolin Zhang

Minhua Jiang

Cheng Fang Wang

Shisen Xu

Peng Hui Jiang

Guang Han Sui

Jenny Jing He

Adrian P Kyte

Bin Huang

Shiqing Wang

Shiwang Gao

Xiang Sean Zhou

Xue Yong Zhang

Qin Li

Guo Qiang Li

He Zhao

Niao Qing Liu

Jinyi Wang

Joe Winchester

Hongwei Niu

Lianbo Liu

Dongming Zhao

Jonathan D Dunne

Zhen Zhang

Xin Zhou

Jun Zhang

Guan Jun Liu

Wu Song Fang

Zhi Feng Zhao

Li Duo Zhong

Wenbo Peng

Qixiang Fan

Shaomin Wang

Xiangrui Yu

Jianzhong Jiang

Jeremy R Fox

Su Liu

Kelley Anders

Yang Zhang

Xin Peng Liu

Xiao Ming Ma

Joseph R Winchester

Meng Wan

Xiao Feng Guan

Xi Bo Zhu

Chao Dong

Yan Feng

Yan Rong Shen

Ping Ping Cheng

Chen Jiang

Ping Yang

Jian Hua Zhang

Cheng Cheng Dong

Shi Yu Wang

Chang Ning Song

Xiao Xiao Pei

Dongfang Guo

Mengjie Li

Zhiguo Zhao

Xiaolei Li

Lizhen Luo

Xiaojun Qin

Xueling Wang

Ruwei Liu

Sichao Liang

Yu Long Tong

Hu Gao

Wenzhe Zhu

Jin Ju

Yun Zhang

Ya Peng Dong

Jiguang Xiong

Jialiang Liu

A method for desulfurizing and decarbonizing a flue gas includes: feeding a boiler flue gas after denitrating and dedusting to a water cooler; cooling the boiler flue gas in the water cooler to a temperature near room temperature, and discharging condensed water; feeding a wet flue gas to a washing tower; washing and cooling the wet flue gas with a washing liquid to separate HO, SOand COin a solid form from the flue gas; feeding a solid-liquid mixed slurry from a bottom of the washing tower to a solid-liquid separator to separate solid HO, SOand COfrom the washing liquid; feeding the solid HO, SOand COto a rectification separation column; separating COfrom SOand HO by a reboiler at a bottom of the rectification separation column; and discharging CO, SOand HO.

System and method for desulfurizing and decarbonizing flue gas

The disclosure provides a method for preparing an electrode film layer on a surface of a solar cell substrate. The method includes: a) obtaining a metal electrode material melt by heating and melting a metal electrode material under a vacuum condition; b) bombarding the metal electrode material melt with an ion source at low energy, so that it is sputtered and deposited on the surface of the solar cell substrate to form the electrode film layer; in which the energy of low energy bombarding is 30 eV to 80 eV.

Method for preparing electrode film layer on surface of solar cell substrate

The photovoltaic cell sheet includes: a cell sheet body having a first end and a second end opposite to each other in a width direction of the cell sheet body, wherein the first end of the cell sheet body is provided with a plurality of sawtooth spacing along a length direction of the cell sheet body; a first main gate arranged at one side of front and back sides of the plurality of sawtooth and serving as a first electrode; and a second main gate arranged at another side of the front and back sides of the cell sheet body and serving as a second electrode, wherein the second main gate is adjacent to the second end of the cell sheet body.

Photovoltaic cell sheet and method of manufacturing the same and tile-stacking module

A method for installing a maximum power point tracking (MPPT) controller is provided. The method includes acquiring an occlusion area proportion of a photovoltaic string in a photovoltaic system, optimizing the occlusion area proportion to generate a target occlusion area proportion, determining a target position from the photovoltaic string according to the target occlusion area proportion, and installing the MPPT controller at the target position.

Method for installing maximum power point tracking (MPPT) controller, and photovoltaic system

Disclosed is a flue gas low-temperature adsorption denitration system and process. The system includes a booster fan, a cold energy recoverer, a flue gas cooling system, a flue gas switching valve, and two denitration adsorption towers. An inlet of the booster fan is in communication with an inlet flue gas pipeline. The booster fan, the cold energy recoverer, the flue gas cooling system, the flue gas switching valve, and the denitration adsorption towers are sequentially communicated. An outlet of the flue gas switching valve is in communication with each of the two second denitration adsorption towers. Flue gas outlets of the two denitration adsorption towers are in communication with a flue gas manifold. The flue gas manifold is communicated with the cold quantity recoverer. Two denitration adsorption towers take turns to carry out denitration and regeneration processes, so that continuous denitration operations of the system can be achieved.

Flue gas low-temperature adsorption denitration system and process

The present invention discloses a flue gas low-temperature adsorption denitrification method, including: pressurizing a flue gas that has been subjected to dust removal and desulfurization, precooling the pressurized flue gas, cooling the precooled flue gas to a temperature lower than room temperature by a flue gas cooling system, flowing the flue gas at the temperature lower than room temperature into a low-temperature denitrification system, performing physical adsorption denitrification in the low-temperature denitrification system, precooling the flue gas that has been subjected to dust removal and desulfurization with the denitrificated flue gas, and flowing the heat-absorbed clean flue gas into a chimney to be discharged.

Flue gas low-temperature adsorption denitrification method

Method and system are provided for audio quality feedback during live transmission from a source that is received at multiple audience devices. The method carried out at a server includes: obtaining audio information of an audio signal as received by at least some of the audience devices in a transmission session; classifying one or more subsets of the audience devices by one or more common factors per subset; and analyzing the obtained audio information from the audience devices in conjunction with the classifications of the subsets of the audience devices to determine one or more common factors that affect received audio quality at an identified subset of the audience devices classified by the one or more common factors. The method provides feedback of the one or more common factors to at least one of the audience devices in the identified subset or to the source device, or to both.

Audio quality feedback during live transmission from a source

Provided is a method for desulphurizating and denitrating a flue gas in an integrated manner based on low-temperature adsorption. The method includes: decreasing a temperature of the flue gas below a room temperature by using a flue gas cooling system; removing moisture in the flue gas by using a dehumidification system; sending the flue gas to a SOand NOadsorbing column system; and simultaneously adsorbing SOand NOof the flue gas with a material of activated coke, activated carbon, a molecular sieve or diatom mud in the SOand NOadsorbing column system to implement an integration of desulphurization and denitration of the flue gas based on the low-temperature adsorption. With the present method, SOand NOof the flue gas can be adsorbed simultaneously in an environment having a temperature below the room temperature.

Method for desulphurizating and denitrating flue gas in integrated manner based on low-temperature adsorption

Embodiments of the present disclosure relate to a method for building an application. According to the method, a request is received from a building environment to acquire at least one component for executing at least one function of at least one feature of the application. The at least one feature is to be deployed to at least one target node in a distributed service platform comprising a plurality of nodes. The at least one target node and the at least one component are determined based on the request. The at least one component is acquired from the at least one target node. The at least one component is sent to the building environment for building the at least one feature.

Application building in a distributed computing environment

A method and system for improving memory reorganization and storage technology is provided. The method includes configuring data capture settings of a database system resulting in configured data capture settings. Data objects associated with a user are retrieved and stored in a database. Overlapping data elements of the data objects are determined and associated collaboration data model software code is generated. A request for first data is received and mapped to the data objects. A clone data object associated with the first data object is generated with respect to the overlapping data elements.

Clone data object and software generation

A computer-implemented method includes detecting, by a bridge container running inside a container scope, connection information about a first service instance running to provide a respective first service outside the container scope. A first virtual container is initialized inside the container scope. The first virtual container is connected to the first service instance, utilizing the connection information about the first service instance, to virtualize the first service instance inside the container scope. It is detected that that a first source container inside the container scope requires the first service of the first service instance. The first source container is connected to the first virtual container to enable the first source container to access the first service instance through the first virtual container.

Bridging a connection to a service by way of a container to virtually provide the service

A processor initiates a run of a target container in a distributed computing environment. A processor detects at least one error occurring during the initiation of the target container. A processor determines at least one fix image based on the at least one error. A processor performs an error recovery of the target container based on the at least one fix image. A processor runs, in response to successfully performing the error recovery of the target container, the target container in the distributed computing environment.

Container recovery

A processor may receive a recording. The recording may include one or more user guidance sequences and be displayed to a user. The processor may receive a first user input response to an initiation of a first user guidance sequence. The processor may determine, in response to receiving the first user input, that there is a discrepancy between the first user input and the first user guidance sequence. The processor may automatically modify the playback setting of the recording. The processor may display the discrepancy between the first user input and the first user guidance sequence to the user.

Automatic modification of user guidance sequence recordings

In an approach, a processor detects at least one training message delivered by a user on a social media application, the training message being accessible by an operator. A processor records training feedback performed by the operator on the social media application regarding to the at least one training message. A processor trains an analysis engine module using (i) the at least one training message as input and (ii) the training feedback as output. A processor generates a predicted feedback for a subsequent message based on the trained analysis engine module.

Feedback prediction in a social media application

Aspects of the invention include determining artifact data associated with an artifact, segmenting the artifact data into a plurality of portions, associating each portion in the plurality of portions with one or more resources, receiving a query associated with the artifact, determining a candidate resource from the one or more resources based on the query, and initializing a communication session with the candidate resource and a requesting application associated with the query.

Pseudo real time communication system

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Beijing, China

Ping Xiao