University of Missouri

University of Minnesota

Honeywell International Inc.

Integral Laser Solutions, LLC

Cummins Ip, Inc.

Other

Seagate Technology Incorporated

Cummins Filtration Ip, Inc.

Thermavant Technologies, LLC

Shanghai Kyligence Information Technology Co., Ltd

Kuyun (shanghai) Information Technology Co., Ltd.

Hongbin Ma

Rongsheng Roger Ruan

Paul L Chen

Shaobo Deng

Michael Merwin

Hao Bai

Michael L Rhodes

Brian C Krafthefer

LaVerne A Schlie

Christopher Vincent

Robert Riegler

Lei Zhang

Aleksey Yezerets

Neal W Currier

Cary A Henry

Krishna Kamasamudram

David B Kittelson

Tamas Szailer

Qing Han

Xu Chen

Junhui Li

Joseph A Boswell

Xiangyang Lin

Donald G Robinson

Richard L Bogaard

Anrong Ning

Chuanshuang Bie

Peng Cheng

Xiaoqin Liu

Roger Fox

Ling Tony Chen

Baohua Qi

Yifan Zhang

Mickey R McDaniel

Duane P Oyen

Clyde W Xi

Lu Cao

Duane Pm Oyen

Hakeem Ogunleye

David B Kittleson

Zaichun Feng

Robert J Bowman

Mingliang Zhang

Ye Wang

Philip R Goodrich

Susan Liu

Zhixiong Chen

Adalberto Aviles

Chris Vincent

Tingting Hao

Willard Hanson

Douglas E Smith

Vitaly Gruzdev

The present invention discloses a method and a device for processing information by batch-stream fusion, and a storage medium. The method comprises the following steps: Obtaining an index based on an input query statement; extracting a pre-computed index data segment based on the index as a query result; and extracting a re-computed index data segment to update the query result. The present invention solves the technical problem that real-time data and offline data are difficult to fuse and analyze.

Method and device for processing information by batch-stream fusion, and storage medium

The present disclosure generally provides an oscillating heat pipe, wherein the oscillating heat pipe comprises a 3-phase working fluid that includes at least one liquid phase portion, at least one vapor phase portion, and at least one solid phase portion, wherein in addition to a phase change between liquid and vapor, there is also a phase change from solid to liquid during a heat transfer process involving the oscillating heat pipe.

Three-phase oscillating heat pipe

A thermal liquid container system comprising a main body, a phase change material (PCM) liner disposed within the main body having a PCM disposed therein, a liquid reservoir defined by PCM liner, a liquid dispensing partition disposed within the liquid reservoir such that the liquid reservoir is partitioned into a temperature conditioning channel and a liquid retention chamber, and a lid comprising a liquid ingress and a liquid dispensing opening, the temperature conditioning channel for placing a liquid passing therethrough in thermal contact with the PCM whereby thermal energy is exchanged between the liquid flowing through the temperature conditioning channel and the PCM such that the liquid is dispensed at a temperature that is within a desired temperature range determined by the selected PCM melting temperature.

Thermal liquid container system

A heat exchanging liquid container system comprising a main body; a phase change material (PCM) module disposable within the main body; a PCM disposed within the PCM module; a liquid reservoir defined by the main body and/or the PCM module configured to have liquid disposed therein having a first temperature; and a temperature conditioning channel formed along a wall of the PCM module and/or through the PCM module such that the temperature conditioning channel is in thermal contact with the PCM. The temperature conditioning channel configured to provide a flow path through which the liquid can flow to dispense the liquid from the liquid reservoir such that the liquid will be in thermal contact with the PCM while being dispensed. The PCM configured to exchange thermal energy with the liquid and thereby condition the liquid to be dispensed at a second temperature that is within a desired temperature range.

Heat exchanging liquid container

A heat exchanging thermal liquid container system that comprises a main body at least partially defining a liquid reservoir structured and operable to retain a liquid, and a phase change material (PCM) liner comprising a PCM liner PCM having a selected melting temperature, and/or at least one PCM pod. Each of the at least one PCM pod(s) comprising a respective PCM pod PCM having a respective selected melting temperature. Wherein the PCM liner and/or the at least one PCM pod are disposable within the liquid reservoir such that when a liquid is disposed within the liquid reservoir the liquid will contact at least one of the PCM liner and the at least one PCM pod such that thermal energy can be exchanged between the liquid and the respective at least one of the PCM liner PCM and the at least one PCM pod PCM.

Heat exchanging thermal liquid container

A drinking container system with multiple temperature zones, wherein the container system includes a main body having a sidewall and a bottom that define a phase change material (PCM) module receptacle, and a phase change material (PCM) module having a sidewall that defines a beverage chamber. The PCM module is disposable within the PCM module receptacle such that a beverage egress flow path is defined between the main body sidewall and the PCM module sidewall. The flow path formed in the container can make the beverage achieve the desired drinking temperature. The PCM module sidewall is at least partially filled with a phase change material and is structured and operable to provide a plurality temperature zones within the beverage chamber. Each temperature zone is operable to maintain a temperature of a respective portion of a liquid disposed within the beverage chamber within a respective temperature range.

Drinking container with different temperature zones

A heat loss protection lid for a thermal liquid container system, wherein the heat loss protection lid comprises a central body, a liquid ingress opening formed within the central body, a liquid dispensing opening formed within one of a peripheral edge of the central body or a lip formed around the peripheral edge of the central body. and a concealed air intake hole.

Thermal liquid container system with heat loss prevention lid

A beverage container lid comprising a body having drinking hole and an air hole, and a slide-seal automatic Open and Close retention mechanism that comprises a sealing arm pivotally connected to the body, a movement and position retention linkage structured and operable to move the sealing arm between an Opened and a Closed position, a control mechanism slidingly disposed within the body and operably connected to the movement and position retention linkage such that movement of the control mechanism will control movement of the sealing arm between the Opened and Closed positions, and a biasing device structured and operable to exert constant force on the sealing arm, such that force exerted by the biasing device in combination with the structure and operation of the movement and position retention linkage will selectively retain the sealing arm in the Opened position and in the Closed position.

Lid with automatic open and close retention mechanism

A water production system including a radiative cooling/heating unit comprising an oscillating heat pipe (OHP) heat spreader. The radiative cooling/heating unit lowers the temperature of the OHP heat spreader below the temperature of the ambient environment. The system additionally including a first OHP heat exchanger thermally connected to the OHP heat spreader such that the first OHP heat exchanger will acquire substantially the same temperature as the OHP heat spreader, a second OHP heat exchanger thermally connected to the OHP heat spreader such that the second OHP heat exchanger will acquire substantially the same temperature as the OHP heat spreader, and a rotatable OHP water absorption bed disposed in thermal contact with the radiative cooling/heating unit such that the OHP absorption bed will acquire substantially the same temperature as the OHP heat spreader.

Low-cost water production system

The present application discloses a dynamic routing method and apparatus for a query engine in a pre-computing system. The method includes: pre-obtaining cube data under a preset dimensional combination in a pre-computing system; determining a degree of aggregation of the cube data selected as expected under the preset dimensional combination after a query request is received; executing query processing on the query request in a first distributed query engine when the degree of aggregation of the cube data under the preset dimensional combination is high; and switching to a second distributed query engine to execute query processing on the query request when the degree of aggregation of the cube data under the preset dimensional combination is low. The present application solves the technical problem that the query response speed of the pre-computing query system is not ideal. Through the present application, the sub-second high-performance query response can be achieved. At the same time, as a result, higher concurrency can be supported so as to meet business needs, and the stability of the query system is simultaneously guaranteed.

Dynamic routing method and apparatus for query engine in pre-computing system

A high efficiency, low noise thermoelectric dehumidifier that includes a heat pipe array, a condensing heat sink, an air intake duct, and a thermoelectric cooler. A first air flow is directed over the condensing heat sink that is cooled by the thermoelectric cool such that the first air flow is dehumidified by the cooled condensing heat sink. Heat is removed from a hot side of the thermoelectric cooler via the heat pipe array. A second air flow is directed over the heat pipe array such that the heat extracted from the hot side of the thermoelectric cooler is extracted and circulated back into the ambient environment.

Thermoelectric dehumidifier

A thermally driven heat pump includes a low temperature evaporator for evaporating cooling fluid to remove heat A first heat exchanger located at an outlet of a converging/diverging chamber of a first ejector receives a flow of primary fluid vapor and cooling fluid vapor ejected from the first ejector for condensing a portion of the cooling fluid vapor An absorber located in the first heat exchanger absorbs cooling fluid vapor into an absorbing fluid to reduce the pressure in the first heat exchanger A second heat exchanger located at an outlet of a converging/diverging chamber of a second ejector receives primary fluid vapor and cooling fluid vapor ejected from the second ejector for condensing the cooling fluid vapor and the primary fluid vapor A separator in communication with the second ejector, the low temperature evaporator and the primary fluid evaporator separates the primary fluid from the cooling fluid.

Thermally driven heat pump for heating and cooling

Described herein is a selective catalytic reduction (SCR) catalyst treatment system that includes a vanadium-based SCR catalyst contaminated with a water-soluble contaminant. The SCR catalyst treatment system also includes a water delivery system that is configured to apply water to the vanadium-based SCR catalyst to remove the water-soluble contaminant from the vanadium-based SCR catalyst.

Diagnosis and treatment of selective catalytic reduction catalyst

Growing community of inventors

Columbia, MO, United States of America

Hongbin Ma