Device for producing gas hydrate

The reactor design with angled nozzles and a cooling jacket enhances gas hydrate formation efficiency, achieving high density and gas saturation, addressing the complexity and inefficiency of existing devices.

RU2865843C1Active Publication Date: 2026-07-10FEDERALNOE GOSUDARSTVENNOE AVTONOMNOE OBRAZOVATELNOE UCHREZHDENIE VYSSHEGO OBRAZOVANIJA NATSIONALNYJ ISSLEDOVATELSKIJ TOMSKIJ POLITEKHNICHESKIJ UNIV
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Patent Information

Application Number
RU2025136168
Authority / Receiving Office
RU · RU
Patent Type
Patents
Current Assignee / Owner
Filing Date
2025-12-16
Publication Date
2026-07-10
Estimated Expiration
2045-12-16

AI Technical Summary

Technical Problem

Existing gas hydrate production devices are complicated by the presence of electric heating elements and limited liquid contact with the heat exchange surface, which hinders efficient gas hydrate formation and limits the density and gas saturation of the produced hydrate.

Method used

A reactor design with nozzles for coolant inlet and outlet, a hollow cylinder with angled nozzles for water distribution, and a cooling jacket to enhance heat exchange, allowing for intensive gas hydrate formation on the reactor walls, resulting in increased density and gas saturation.

Benefits of technology

The design achieves gas hydrate with a density of 600-700 kg/m³ and gas saturation of 150-160 volumes per volume of hydrate, enabling efficient gas transport without increasing container size.

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Abstract

FIELD: physical processes.SUBSTANCE: invention relates to devices for mixing gases with liquids and can be used to obtain gas hydrate. A device to obtain gas hydrate comprises a reactor in the form of a cup with a cooling jacket, which is connected to a thermostat by two pipelines, a temperature sensor mounted in the side wall of the reactor, a gas cylinder connected by a pipeline comprising a flow meter to the reactor cavity. The reactor's cooling jacket is fitted with fittings for the coolant inlet and outlet, which are connected by pipelines to the thermostat. A hollow cylinder, the height of which is less than the height of the cup, is welded to the upper surface connecting the edges of the cup and the cooling jacket. The outer diameter of the hollow cylinder is smaller than the outer diameter of the cup. The inner diameter of the hollow cylinder is larger than the inner diameter of the cup. The inner surface of the hollow cylinder wall is threaded. A shaft in the form of a solid metal cylinder with a larger diameter protrusion at one end is inserted into the hollow cylinder from above, which is located on the surface connecting the edges of the cup and the cooling jacket. A rubber ring, a metal washer and a sleeve are successively placed on the shaft until it stops with a protrusion of a larger diameter. The upper part of the sleeve is made with an annular protrusion, under which a thread is made on its outer surface for connection with the thread on the inner surface of the wall of the hollow cylinder. Inside the shaft, along its axis, a channel is made through which a metal pipe is inserted into the cup, one end of which, placed in the cup, is plugged, and in its lower part along the circumference at an equal distance from each other, four holes are made into which nozzles are mounted, directed upward at an angle of 45° relative to the bottom of the cup. The end of the pipe protruding from the top of the shaft is equipped with the first valve and is connected by a pipeline to one end of the coil located in the thermostat bath. The other end of the coil is connected by a pipeline equipped with the first pump to a tank filled with water. At the bottom of the cup there is a drain hole covered with a grate. The drain hole is connected to the other end of the coil by a pipeline equipped with a second tap, a second pump and a third tap. A pipeline comprising the first pressure relief valve is brought out from the cavity of the cup. The cavity of the cup is connected to a gas cylinder by a pipeline comprising a second valve and a flow meter. A pressure sensor is built into the wall of the cup. A flow meter, a temperature sensor and a pressure sensor are connected to the personal computer. The gas cylinder is filled with either methane, ethane, propane, or carbon dioxide.EFFECT: obtaining a gas hydrate with a density of 600-700 kg / m3 and gas saturation of up to 150-160 volumes of gas per 1 volume of hydrate.2 cl, 5 dwg
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