PNEUMATIC TYPE WATER-FREE STARTING SELF-PRIMING DEVICE

    公开(公告)号:US20230243355A1

    公开(公告)日:2023-08-03

    申请号:US18021187

    申请日:2021-12-29

    IPC分类号: F04D9/02 B01D19/00

    CPC分类号: F04D9/02 B01D19/0042

    摘要: A pneumatic type water-free starting self-priming device includes a driving device, and a gas-liquid separation chamber and an expandable gas-liquid separation chamber respectively arranged on two sides of the driving device. The driving device uses high-speed gas to drive a drive disk to rotate and drive a drive shaft to rotate. The gas-liquid separation chamber uses a telescopic piston shaft rod to generate a pressure difference between the gas-liquid separation chamber and outside to suck in water, so as to realize water suction, gas-liquid separation and water drainage. The expandable gas-liquid separation chamber uses shrinkage or expansion of volumes of inner and outer chambers to generate a pressure difference to suck in water, so as to realize water suction, gas-liquid separation and water drainage. Also, the high-speed gas from the driving device flows through the two chambers, so that air can be discharged quickly.

    Gas-Liquid Separator for Collecting Chromatographic Fractions

    公开(公告)号:US20190184327A1

    公开(公告)日:2019-06-20

    申请号:US16325855

    申请日:2016-08-15

    IPC分类号: B01D53/04 G01N30/80 B01D15/08

    摘要: A gas-liquid separator includes a fluid inlet, a shell including an inside surface enclosing an interior space, an outlet structure with fingers converging toward a longitudinal axis, and a dripper including a dripper tip. The fingers terminate at fingertips located proximate to an outside surface of the dripper. Gas exit ports are defined between adjacent fingers, and by the dripper. The gas-liquid separator defines a liquid flow path from the fluid inlet, along the inside surface, along one or more of the fingers, converging along the dripper outside surface, and to the dripper tip. The gas-liquid separator also defines a gas flow path from the fluid inlet, through the interior space, and through the gas exit ports. The gas-liquid separator may be utilized in fluid separation systems such as liquid chromatography or supercritical fluid chromatography/extraction systems.

    System and method for de-aerating coolant in closed coolant system

    公开(公告)号:US09999845B2

    公开(公告)日:2018-06-19

    申请号:US14686107

    申请日:2015-04-14

    IPC分类号: B01D19/00

    摘要: A method of removing entrained air from a coolant in a coolant system that may not include a fluid reservoir, includes connecting a de-aeration tank to the coolant system. The de-aeration tank is connected in fluid communication to the coolant system in parallel with a heat exchanger, such that a first connection device connects the de-aeration tank to the coolant system upstream of the heat exchanger, and a second connection device connects the de-aeration tank to the coolant system downstream of the heat exchanger. The coolant is circulated from the coolant system, through the de-aeration tank, and back to the coolant system, with a pump, until substantially all entrained air is removed from the coolant. The de-aeration tank may then be disconnected from the coolant system.

    PASSIVE AIR BLEED FOR IMPROVED COOLING SYSTEMS

    公开(公告)号:US20180117498A1

    公开(公告)日:2018-05-03

    申请号:US15820788

    申请日:2017-11-22

    申请人: Tesla, Inc.

    IPC分类号: B01D19/00 F28F9/02

    摘要: An electric vehicle drive unit includes an inverter, a gear box, an electric motor coupled to the inverter and to the gear box, a cooling jacket, and coupled to the gear box, a main coolant inlet, a coolant outlet, and an external passive air bleed device. The cooling jacket has a cooling chamber and surrounds at least a portion of the electric motor. The main coolant inlet couples to the cooling jacket. The coolant outlet is located at a lower portion of the gear box. The external passive air bleed device runs between an upper portion of the cooling jacket and the coolant outlet. The inverter may couple to a first side of the gear box and the electric motor may couple to a second side of the gear box such that the inverter and the electric motor reside on opposite sides of the gear box.

    Apparatuses and methods for degassing effluent

    公开(公告)号:US09950934B1

    公开(公告)日:2018-04-24

    申请号:US14861076

    申请日:2015-09-22

    IPC分类号: B01D19/00 C02F1/20 C02F1/00

    摘要: Disclosed is a multi-stage degassing unit for degassing waste water, such as effluent from grain milling processes, through impingement upon successive impact plates. The degassing unit has one or more stages of impact plates, which alternate with redistribution trays that receive the waste water that impinges upon the impact plates directly above the trays and then redistributes the waste water through a plurality of apertures in the redistribution tray. The process of impinging the waste water against the impact plates, collecting the water, and redistributing the water into a plurality of streams may be repeated as necessary to sufficiently remove gas clinging to biomass in the waste water. This degassing will promote the settlement of the biomass for reuse in the water treatment process to reduce biological oxygen demand.

    Automated fluid fraction sampling system

    公开(公告)号:US09926782B2

    公开(公告)日:2018-03-27

    申请号:US15077508

    申请日:2016-03-22

    摘要: Systems and methods for automated fluid sampling for tracer testing are described. In one aspect, an automated fluid sampling system includes a pressurized line, such as a production well or an injection well connectively and a fluid separation vessel receiving sample fluids therefrom. The fluid separation vessel includes a plunger and is configured for gravity-mediated phase separation of the sample fluids into a plurality of aqueous, organic and/or gas phase fluid fractions and includes pluralities of inlet and outlet ports for mediating flow of sample fluids therethrough. At least one purging fluid source, such as a gas or liquid, is used for driving the plunger. Sample fluid collection vessels receive phase-separated sample fluids from the fluid separation vessel. Pluralities of fluid lines and solenoid valves operatively link the pressurized line, purging fluid sources, sample fluid collection vessels, and disposal vessel to one another, whereby a controller selectively manages the automated flow of fluids through the various fluid lines.