Abstract: Provided in the present application is a gas-liquid separator. The gas-liquid separator comprises a housing and a separation cylinder assembly. The housing comprises a cylindrical housing side wall, and a first end plate and a second end plate that are located at opposite ends of the housing side wall. The housing comprises a housing inlet and an upper housing outlet, the housing inlet being provided on the first end plate, and the upper housing outlet being provided on an upper part of the housing side wall.

Abstract: The present application provides an evaporator, including a heat exchange tube set and a distribution device. The heat exchange tube set includes a plurality of heat exchange tubes. The distribution device is provided on one end of the length direction of the heat exchange tube set such that the distribution device can distribute a refrigerant through heat exchange tube inlets at the end portions of the plurality of heat exchange tubes. The distribution device includes a distribution device housing, at least one receiving port, and at least one distribution member. The receiving port is provided on the distribution device housing, and the distribution member is provided in the distribution device housing. The distribution device housing is disposed around the heat exchange tube inlets at the end portions of the heat exchange tube set and seals the heat exchange tube inlets. The distribution member can receive the refrigerant through the receiving port.

Abstract: This application provides a gas-liquid separator, including a housing assembly and a plurality of first ribs. The housing assembly has an inner side wall defining a housing accommodation cavity. The housing assembly includes an inlet, a gas outlet, and a liquid outlet, the inlet. The gas outlet, and the liquid outlet are communicated with the housing accommodation cavity. The inlet is provided on the inner side wall of the housing accommodation cavity, the gas outlet is provided above the inlet, and the liquid outlet is provided below the inlet. The plurality of first ribs are arranged on the inner side wall of the housing assembly. Each of the plurality of first ribs is arranged at an angle with respect to a height direction of the housing assembly, and each of the plurality of first ribs includes a first rib windward end and a first rib leeward end.

Abstract: A condenser (100), comprising a shell (112), an inlet pipe (120), and an anti-impact plate (204). The shell (112) has an accommodating cavity (202). The inlet pipe (120) is a circular pipe having a gradually increasing inner diameter from the inlet to the outlet. The inlet pipe (120) is arranged to pass through the upper end of the shell (112), the outlet of the inlet pipe (120) being accommodated in the accommodating cavity (202). The anti-impact plate (204) is accommodated in the accommodating cavity (202), and the anti-impact plate (204) is positioned below the outlet of the inlet pipe (120). There is a gap between the anti-impact plate (204) and the outlet through which fluid flowing from the outlet can flow.

Abstract: A continuous communications conduit for use in a well is disclosed. A first 101 and second 102 conduit section are threadably engaged and a weldment is formed 200. A heat shield conduit 220 can be disposed within a bore (111, 112) of a conduit section (101, 102) between a first conduit section shoulder 151 and a second conduit section shoulder 152. A first 301, second 302, and third 303 conduit section can be threadably engaged and a weldment 400 formed. An electrical conductor 300 can be disposed in a bore of the conduit sections (301, 302, 303). A heat shield conduit 320 can be disposed between a first conduit section shoulder 351 and a second conduit section shoulder 352. Optionally, an elastomeric stabilizer (410, 420) may be utilized.

Abstract: A continuous communications conduit for use in a well is disclosed. A first 101 and second 102 conduit section are threadably engaged and a weldment is formed 200. A heat shield conduit 220 can be disposed within a bore (111, 112) of a conduit section (101, 102) between a first conduit section shoulder 151 and a second conduit section shoulder 152. A first 301, second 302, and third 303 conduit section can be threadably engaged and a weldment 400 formed. An electrical conductor 300 can be disposed in a bore of the conduit sections (301, 302, 303). A heat shield conduit 320 can be disposed between a first conduit section shoulder 351 and a second conduit section shoulder 352. Optionally, an elastomeric stabilizer (410, 420) may be utilized.

Abstract: A continuous communications conduit for use in a well is disclosed. A first (101) and second (102) conduit section are threadably engaged and a weldment is formed (200). A heat shield conduit (220) can be disposed within a bore (111, 112) of a conduit section (101, 102) between a first conduit section shoulder (151) and a second conduit section shoulder (152). A first (301), second (302), and third (303) conduit section can be threadably engaged and a weldment (400) formed. An electrical conductor (300) can be disposed in a bore of the conduit sections (301, 302, 303). A heat shield conduit (320) can be disposed between a first conduit section shoulder (351) and a second conduit section shoulder (352). Optionally, an elastomeric stabilizer (410, 420) may be utilized.

Abstract: A continuous communications conduit for use in a well is disclosed. A first (101) and second (102) conduit section are threadably engaged and a weldment is formed (200). A heat shield conduit (220) can be disposed within a bore (111, 112) of a conduit section (101, 102) between a first conduit section shoulder (151) and a second conduit section shoulder (152). A first (301), second (302), and third (303) conduit section can be threadably engaged and a weldment (400) formed. An electrical conductor (300) can be disposed in a bore of the conduit sections (301, 302, 303). A heat shield conduit (320) can be disposed between a first conduit section shoulder (351) and a second conduit section shoulder (352). Optionally, an elastomeric stabilizer (410, 420) may be utilized.

Abstract: A magnetic recording medium having a dual magnetic structure layer for the separate control of KuV/kT and SNR to achieve high SNR, increased overwrite (OW) capability and good thermal stability. The magnetic recording medium includes a nonmagnetic Al—Mg substrate followed by the addition of a NiP layer electrolessly plated on the surface of the substrate. A dual-film magnetic layer is formed on the substrate. The dual-film magnetic structure comprises an upper first magnetic film of CoCrPtB alloy and a lower second magnetic film of a CoCrPtTaB alloy. The composition and thickness of each magnetic film in the dual-film magnetic structure allows for the simultaneous ability of the magnetic recording medium to obtain high SNR, increased OW capability and good thermal stability to improve the overall performance of the media.