Natural gas rotational flow efficiency-improving and energy-saving device

Abstract

The utility model discloses a natural gas rotational flow efficiency-improving and energy-saving device, which belongs to the field of gas, and comprises a shunting component consisting of a plurality of shunting pipes and shunting discs positioned on two sides of the shunting pipes, and a plurality of multi-stage magnetic bars penetrating through the shunting discs are arranged at the outer wall ends of the shunting pipes in a surrounding manner. Compared with the prior art, the device has the advantages that the connection between the multistage magnetic bar and one end of the shunting disc is changed into the connection between the multistage magnetic bar and one end of the shunting disc through the extension length of the threaded sleeve in the shunting disc, so that after the multistage magnetic bar is fractured, only the threaded sleeve at one end of the fractured multistage magnetic bar needs to be loosened without dismounting the integral structure of the shunting assembly, and the multistage magnetic bar can be separated from the shunting disc. And after replacement is completed, a new multi-stage magnetic rod is put back to the original position, and then the multi-stage magnetic rod can be taken out together with the non-magnetic magnetic rod anti-breaking sleeve.

Description

TECHNICAL FIELD

[0001] The utility model relates to gas field, concretely points to a kind of cyclone synergism energy-saving device of natural gas. BACKGROUND

[0002] Natural gas as the most common clean energy at present stage, because it has the advantages of non-toxic, non-corrosive, easy to emit, is widely used in daily use in city, to ensure the efficiency of natural gas when burning, usually install cyclone synergism energy-saving device of natural gas between gas cover and natural gas pipeline, to increase the mixing efficiency of natural gas and oxygen.

[0003] The shunt component of the existing cyclone synergism energy-saving device of natural gas is composed of a plurality of shunt pipes and shunt discs located on both sides of the shunt pipes, and a plurality of multi-stage magnetic rods are installed around the shunt pipes, and the magnetic lines generated by the multi-stage magnetic rods cut and reduce the fuel gas molecule groups, so that the oxygen receiving area of the fuel gas molecules is increased.

[0004] During the use of the cyclone synergism energy-saving device of natural gas, the multi-stage magnetic rods inside are inevitably subjected to oxidation and external force collision due to vibration for a long time, and local multi-stage magnetic rods may break or fail, however, most of the multi-stage magnetic rods at present stage are usually integrated with the shunt disc, which makes it necessary to disassemble the entire shunt component when replacing, which greatly wastes the maintenance time and causes a lot of unnecessary assembly. INVENTION CONTENTS

[0005] The technical problem to be solved by the utility model is that the multi-stage magnetic rods of the existing cyclone synergism energy-saving device of natural gas cannot be individually disassembled.

[0006] To solve the above technical problems, the utility model provides a technical scheme: a cyclone synergism energy-saving device of natural gas, comprising a shunt component composed of a plurality of shunt pipes and shunt discs located on both sides of the shunt pipes, a plurality of multi-stage magnetic rods passing through the shunt discs are arranged around the outer wall end of the shunt pipe, a non-magnetic magnetic rod breakage sleeve is sleeved on the outer wall end of the multi-stage magnetic rod, and a threaded sleeve passing through the shunt disc is sleeved on one side of the multi-stage magnetic rod.

[0007] As an improvement, the threaded end bottom surface of the threaded sleeve is provided with an internal hexagonal through hole corresponding to a hexagonal wrench.

[0008] As an improvement, the magnetic rods of the multi-stage magnetic rods are magnetized by a magnetizing machine.

[0009] As an improvement, the interfaces at both ends of the shunt pipe are connected with the shunt discs through gas sealing rings, and the two shunt discs are connected through a bolt structure.

[0010] As an improvement, a shell is welded on the outer wall end of the shunt component.

[0011] As an improvement, the length of the multi-stage magnetic bar is not greater than the length of the shunt pipe.

[0012] Compared with the prior art, the device connects the multi-stage magnetic bar with one end of the shunt disc, and determines the extension length of the shunt disc through a threaded sleeve, so that when the multi-stage magnetic bar is broken, the shunt assembly can be replaced without disassembling the overall structure, and the broken multi-stage magnetic bar can be taken out together with the non-magnetic magnetic bar anti-breaking sleeve by loosening the threaded sleeve at one end of the broken multi-stage magnetic bar, and after replacement, the new multi-stage magnetic bar can be placed back in place. BRIEF DESCRIPTION OF DRAWINGS

[0013] Figure 1 is a total structure sectional view of the gas rotational flow energy-saving device.

[0014] Figure 2 is a shunt assembly structure diagram of the gas rotational flow energy-saving device.

[0015] Figure 3 is an explosion view of the shunt assembly of the gas rotational flow energy-saving device.

[0016] Figure 4 is a sectional view of the multi-stage magnetic bar of the gas rotational flow energy-saving device.

[0017] As shown in the drawings: 1, shunt assembly; 11, shunt pipe; 12, shunt disc; 2, multi-stage magnetic bar; 3, non-magnetic magnetic bar anti-breaking sleeve; 4, threaded sleeve; 41, internal hexagonal via; 5, gas sealing ring; 6, shell. DETAILED DESCRIPTION

[0018] The utility model makes further detailed description in combination with the drawings.

[0019] As shown in the drawings Figure 1 , 2 As shown, it comprises a shunt assembly 1 composed of a plurality of shunt pipes 11 and shunt discs 12 located on both sides of the shunt pipes 11, the interfaces at both ends of the shunt pipes 11 are connected with the shunt discs 12 through gas sealing rings 5, and the two shunt discs 12 are connected through a bolt structure, the outer wall end of the shunt assembly 1 is welded with a shell 6, when installing, the gas sealing rings 5 are installed in the through holes on both sides of the shunt pipes 11, then the shunt ports of the shunt discs 12 are sleeved in the inner holes of the gas sealing rings 5 for fixation, in order to prevent gas leakage, the gas sealing rings 5 and the shunt pipes 11 are connected through high-temperature resistant sealing glue, then the shell 6 is segmented and sleeved on the shunt assembly 1, then a welding machine is used to weld all parts of the shell 6 into one body, and the welding port is a seal structure that can be repeatedly opened.

[0020] As shown in the accompanying drawings and detailed description Figure 1 , 3 , 4, the outer wall end of the shunt pipe 11 is provided with a plurality of multi-stage magnetic rods 2 passing through the shunt disc 12, the length of the multi-stage magnetic rod 2 is not greater than the length of the shunt pipe 11, the outer wall end of the multi-stage magnetic rod 2 is sleeved with a non-magnetic magnetic rod breakage prevention sleeve 3, and one side of the multi-stage magnetic rod 2 is sleeved with a threaded sleeve 4 passing through the shunt disc 12, the threaded end bottom surface of the threaded sleeve 4 is provided with an internal hexagonal through hole 41 corresponding to a hexagonal wrench, the non-magnetic magnetic rod breakage prevention sleeve 3 is sleeved on the multi-stage magnetic rod 2 after magnetization, then one side of the non-magnetic magnetic rod breakage prevention sleeve 3 is inserted into the slot hole of the bottom surface shunt disc 12 for fixation, and then the shaft hole end of the threaded sleeve 4 is screwed into the shunt disc 12 at the opposite end of the slot hole, so that the shaft hole of the threaded sleeve 4 is sleeved on the other end of the non-magnetic magnetic rod breakage prevention sleeve 3 for fixation.

[0021] In the specific implementation, the flange structure at both ends of the shell 6 fixes the inlet and outlet ends of the shell 6 between the natural gas supply end and the gas outlet 1. When the natural gas enters the shunt pipe 11, the multi-stage magnetic rods 2 around the outer wall end of the shunt pipe 11 will cut the gas molecular group by the multi-stage multi-magnetic field structure, and the oxygen area of the gas molecules will increase. After passing through the shunt pipe 11, the hydrogen atom will change from "negative" to "positive", which is easier to combine with the negative oxygen molecules and burn, thereby achieving the effect of rotational flow enhancement.

[0022] The above describes the present application and its implementation, which is not limited. The drawings only show one embodiment of the present application, and the actual structure is not limited. In general, if a person skilled in the art is inspired, without departing from the spirit of the present application, similar structure and embodiments can be designed without creative design, which should be within the scope of the present application.

Claims

1. A natural gas energy-saving device with rotational flow enhancement, comprising a flow splitting assembly (1) composed of a plurality of flow splitting pipes (11) and flow splitting discs (12) located on both sides of the flow splitting pipes (11), the outer wall end of the flow splitting pipes (11) is provided with a plurality of multi-stage magnetic rods (2) surrounding the flow splitting discs (12), characterized in that: The outer wall end of the multi-stage magnetic bar (2) is sleeved with a non-magnetic magnetic bar break-proof sleeve (3), and one side of the multi-stage magnetic bar (2) is sleeved with a threaded sleeve (4) penetrating through a shunt disc (12).

2. A cyclone energy-saving device for natural gas as claimed in claim 1, characterized in that: The threaded end bottom surface of the threaded sleeve (4) is provided with an internal hexagonal via hole (41) corresponding to a hexagonal wrench.

3. A cyclone energy-saving device for natural gas as claimed in claim 1, wherein: The magnetic bar of the multi-stage magnetic bar (2) is magnetized by a magnetizer.

4. A cyclone energy-saving device for natural gas as claimed in claim 1, wherein: The interfaces at both ends of the shunt pipe (11) are connected with the shunt discs (12) through gas sealing rings (5), and the two shunt discs (12) are connected through a bolt structure.

5. A cyclone energy-saving device for natural gas as claimed in claim 1, wherein: The outer wall end of the shunt assembly (1) is welded with a shell (6).

6. A cyclone energy-saving device for natural gas as claimed in claim 1, wherein: The length of the multi-stage magnetic bar (2) is not greater than the length of the shunt pipe (11).

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