CN215860646U - Fracturing device - Google Patents

Abstract

A fracturing apparatus. The fracturing equipment comprises a plunger pump, a transmission shaft, a main motor, an oil pipe, a first radiator and a noise reduction cabin. The main motor and the plunger pump are arranged at intervals, and the plunger pump is connected with the main motor through a transmission shaft; the oil pipe is configured to be connected with the plunger pump; the first radiator is arranged at a distance from the plunger pump and is configured to radiate oil in the oil pipe; at least part of the oil pipe, the main motor and the first radiator are all located in the noise reduction cabin, and the plunger pump is located outside the noise reduction cabin. The noise reduction cabin arranged in the fracturing equipment can separate structures such as the main motor and the first radiator from the plunger pump, so that the noise generated by the structures such as the main motor and the first radiator can be reduced, and the risk of damage of the structures such as the main motor and the first radiator by high-pressure liquid is reduced.

Description

Fracturing device

Technical Field

At least one embodiment of the utility model relates to a fracturing apparatus.

Background

On the fracturing operation site of an oil and gas field, the noise value of a high-power device is higher. When the engine is in a rated working condition, when the noise is tested at a position 1m away from the horizontal distance of the engine and 1.5 m-1.7 m away from the ground, the noise level requirement is as follows: the noise level of an engine with an installed power greater than or equal to 900kW is not greater than 115dB (A). Therefore, high-power electrically-driven fracturing equipment needs to meet high noise reduction requirements.

SUMMERY OF THE UTILITY MODEL

At least one embodiment of the present invention provides a fracturing apparatus. The noise reduction cabin arranged in the fracturing equipment can separate structures such as the main motor and the first radiator from the plunger pump, so that the noise generated by the structures such as the main motor and the first radiator can be reduced, and the risk of damage of the structures such as the main motor and the first radiator by high-pressure liquid is reduced.

At least one embodiment of the present invention provides a fracturing apparatus comprising: a plunger pump; a drive shaft; the main motor is arranged at an interval with the plunger pump, and the plunger pump is connected with the main motor through the transmission shaft; an oil pipe configured to be connected with the plunger pump; and a first radiator arranged at a distance from the plunger pump, the first radiator being configured to radiate the oil in the oil pipe. The fracturing equipment further comprises a noise reduction cabin, at least part of the oil pipe, the main motor and the first radiator are located in the noise reduction cabin, and the plunger pump is located outside the noise reduction cabin.

For example, according to at least one embodiment of the present invention, the fracturing equipment further includes a platform, the plunger pump, the main motor, and the noise reduction cabin are all located on a supporting surface of the platform, the noise reduction cabin includes an air inlet and an air outlet, and a distance between the air outlet and the supporting surface is greater than a distance between the air inlet and the supporting surface.

For example, in accordance with at least one embodiment of the present invention, the noise reduction pod comprises a top wall that is closer to the first heat sink than the platform.

For example, in accordance with at least one embodiment of the present invention, the first heat sink is located on a side of the main motor remote from the plunger pump, a side of the main motor remote from the platform is provided with a second heat sink configured to dissipate heat from the main motor, and the cabin ceiling wall is closer to the second heat sink than the platform.

For example, in accordance with at least one embodiment of the present invention, the cabin roof wall is provided with the air outlet, the first heat sink includes a heat dissipation duct and a fan, the heat dissipation duct is located between the fan and the air outlet, and the fan is configured to blow air to the heat dissipation duct to dissipate heat.

For example, according to at least one embodiment of the present invention, the noise reduction cabin comprises a cabin sidewall and a cabin door, and at least one of the cabin sidewall and the cabin door is provided with the air inlet.

For example, in accordance with at least one embodiment of the present invention, a fracturing apparatus, further comprises: and the electric control cabinet is positioned in the noise reduction cabin and comprises a frequency converter, and the main motor is positioned between the electric control cabinet and the plunger pump.

For example, in accordance with at least one embodiment of the present invention, the fracturing apparatus further comprises: and the lubricating motor is positioned in the noise reduction cabin, and the main motor is positioned between the lubricating motor and the plunger pump.

For example, in accordance with at least one embodiment of the present invention, the electrical control cabinet is located between the first heatsink and the platform, and an orthographic projection of the electrical control cabinet on the supporting surface overlaps with an orthographic projection of the first heatsink on the supporting surface.

For example, in accordance with at least one embodiment of the present invention, the lubrication motor is located between the first heat sink and the platform, and an orthographic projection of the lubrication motor on the supporting surface overlaps with an orthographic projection of the first heat sink on the supporting surface.

For example, in accordance with at least one embodiment of the present invention, the door includes a first door configured to open to expose the electrical cabinet and a second door configured to open to expose the lubrication motor.

For example, in accordance with at least one embodiment of the utility model, the second door overlaps the first door when the door is in the closed condition, and the overlapping portion of the second door is outboard of the overlapping portion of the first door.

Drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings of the embodiments will be briefly described below, and it is apparent that the drawings in the following description only relate to some embodiments of the present invention and are not limiting on the present invention.

Fig. 1 is a side view of a partial structure of a fracturing apparatus according to an embodiment of the present invention;

fig. 2 is a schematic diagram of a partial structure of a fracturing apparatus provided according to an embodiment of the present invention;

FIG. 3 is a schematic view of a noise reduction pod and portions of equipment within the noise reduction pod of the fracturing apparatus shown in FIG. 1;

fig. 4 is a schematic view from one side corresponding to the fracturing apparatus of fig. 1; and

fig. 5 is a schematic view of a hatch door of the noise reduction pod shown in fig. 4, which is located on a side of the main motor away from the plunger pump.

Detailed Description

In order to make the objects, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the drawings of the embodiments of the present invention. It is to be understood that the embodiments described are only a few embodiments of the present invention, and not all embodiments. All other embodiments, which can be derived by a person skilled in the art from the described embodiments of the utility model without any inventive step, are within the scope of protection of the utility model.

Unless defined otherwise, technical or scientific terms used herein shall have the ordinary meaning as understood by one of ordinary skill in the art to which this invention belongs. The use of "first," "second," and similar terms in the present application do not denote any order, quantity, or importance, but rather the terms are used to distinguish one element from another. The word "comprising" or "comprises", and the like, means that the element or item listed before the word covers the element or item listed after the word and its equivalents, but does not exclude other elements or items.

In the research, the inventors of the present application found that: the power device (such as a device comprising a main engine and the like) and the outside of the plunger pump in the common fracturing equipment are not provided with effective noise reduction devices, namely good noise reduction devices, so that most equipment cannot meet the requirements of the SY/T7086 standard in the oil and gas industry. When the fracturing equipment is operated at rated power, high noise is easily generated, and serious noise pollution is generated in the well site operation process.

An embodiment of the present invention provides a fracturing apparatus, comprising: plunger pump, transmission shaft, main motor, oil pipe, first radiator and make an uproar cabin of falling. The main motor and the plunger pump are arranged at intervals, and the plunger pump is connected with the main motor through a transmission shaft; the oil pipe is connected with the plunger pump; the first radiator is arranged at a distance from the plunger pump and is configured to radiate oil in the oil pipe; at least part of the oil pipe, the main motor and the first radiator are all located in the noise reduction cabin, and the plunger pump is located outside the noise reduction cabin. The noise reduction cabin arranged in the fracturing equipment can separate structures such as the main motor and the first radiator from the plunger pump, so that the noise generated by the structures such as the main motor and the first radiator can be reduced, the interference of electric elements is reduced, and the risk that the structures such as the main motor and the first radiator are damaged by high-pressure liquid is reduced.

The fracturing equipment provided by the embodiment of the utility model is described below with reference to the attached drawings.

Fig. 1 is a side view of a partial structure of a fracturing apparatus according to an embodiment of the present invention. Fig. 2 is a schematic cross-sectional structure diagram of a partial structure of a fracturing apparatus provided according to an embodiment of the present invention, and fig. 3 is a schematic diagram of a noise reduction cabin and a partial apparatus in the noise reduction cabin in the fracturing apparatus shown in fig. 1. For example, in order to more clearly show the various parts inside the noise reduction pod, the pod side walls or pod doors of some of the noise reduction pods of fig. 1 and 3 are omitted and the overall appearance of the noise reduction pod may refer to fig. 4 described later.

As shown in fig. 1 to 3, the fracturing apparatus includes a plunger pump 110, a drive shaft 120, and a main motor 200, and the main motor 200 is disposed spaced apart from the plunger pump 110. For example, there is a distance between main motor 200 and plunger pump 110. For example, main motor 200 may be an electric motor, and plunger pump 110 is connected to main motor 200 through transmission shaft 120, and main motor 200 is configured to drive plunger pump 110 to operate through transmission shaft 120. For example, drive shaft 120 is located between plunger pump 110 and main motor 200. For example, the plunger pump 110 is composed of a power end and a hydraulic end, and is a component for delivering fluid by reciprocating a plunger in a pump body (valve housing) to cause a change in a sealed volume in the pump body. For example, the power end is comprised of a pump housing, crankshaft and crosshead assembly, etc. for reducing rotational speed, increasing torque, and converting rotational motion to reciprocating motion. For example, the fluid end is composed of a pump head body, a plunger, a valve, and the like, and is used as a component for converting mechanical energy into fluid energy. For example, main motor 200 is connected to the power end of plunger pump 110 and is configured to power the power end of plunger pump 110.

As shown in fig. 1-3, the fracturing apparatus further includes an oil pipe 130 configured to be connected with the plunger pump 110. For example, the oil tube 130 is configured to transport lubrication oil configured to lubricate components within the power end of the plunger pump 110. For example, the fracturing equipment further comprises a lubricating motor 150 and a lubricating pump, the oil pipe 130 is connected with the lubricating pump, the lubricating motor 150 powers the lubricating pump to drive the lubricating pump to operate, after the lubricating pump operates, the lubricating oil flows into the oil pipe 130, and the lubricating oil in the oil pipe 130 flows through the power end of the plunger pump 110 and then flows back to the lubricating oil tank. For example, the lubrication pump may be immersed in the lubricating oil tank.

As shown in fig. 1 to 3, the fracturing apparatus further includes a first radiator 300 disposed apart from the plunger pump 110, the first radiator 300 being configured to radiate heat from the oil in the oil pipe 130. For example, the first radiator 300 may be a lubricant radiator configured to radiate heat of lubricant in the oil pipe 130. For example, the first radiator 300 may include a heat dissipation pipe 310, the heat dissipation pipe 310 includes an oil inlet and an oil outlet, the oil inlet and the oil outlet are respectively connected to the oil pipe 130, and the lubricating oil conveyed in the oil pipe 130 flows into the heat dissipation pipe 310 through the oil inlet of the heat dissipation pipe 310, and flows into the oil pipe 130 from the oil outlet of the heat dissipation pipe 310 after the heat is dissipated through the heat dissipation pipe 310. For example, the first radiator 300 may be located on the oil inlet line of the plunger pump 110, or may be located on the oil outlet line of the plunger pump 110.

As shown in fig. 1 to 3, the fracturing equipment further includes a noise reduction cabin 400, at least part of the oil pipe 130, the main motor 200, and the first radiator 300 are located inside the noise reduction cabin 400, and the plunger pump 110 is located outside the noise reduction cabin 400.

The plunger pump can generate high pressure of nearly 15000Psi during the working process, and once the high-pressure liquid leaks, the high-pressure liquid generates large destructive force. The fracturing equipment provided by the utility model is provided with the noise reduction cabin, the noise reduction cabin can separate structures such as the main motor and the first radiator from the plunger pump, the noise generated by the structures such as the main motor and the first radiator can be reduced, the interference of electric elements is reduced, and the risk that the structures such as the main motor and the first radiator are damaged by high-pressure liquid is reduced.

For example, as shown in fig. 1-3, the noise reduction pod 400 includes at least one pod sidewall 440. For example, a nacelle side wall 440 is provided between main motor 200 and plunger pump 110, and nacelle side wall 440 may be provided with an opening through which transmission shaft 120 is connected to main motor 200. For example, a flange 201 is provided at the opening for connection with the driving shaft 120.

For example, as shown in fig. 1-3, the lubrication motor 150 is located in the noise reduction compartment 400, and the noise reduction compartment 400 not only can reduce the noise of the lubrication motor 150, but also can reduce the risk of the lubrication motor 150 being damaged by the high-pressure liquid.

For example, as shown in fig. 1-3, the fracturing apparatus further includes a platform 500, and the plunger pump 110, the main motor 200, and the noise reduction pod 400 are all located on a support surface of the platform 500. For example, the platform 500 may be a skid-mounted platform. For example, the support surface may be a plane perpendicular to the Y direction shown in fig. 1. The support surface is defined as a plane to better illustrate the positional relationship of other structures to the plane of the support surface, but does not mean that the surface of the platform facing the main motor is necessarily planar. For example, in the case where the surface of the platform has raised structures, the support surface as a plane may be a plane located at the bottom of the raised structures or a plane passing through a point on the surface of the platform. In the direction perpendicular to the support surface, the direction from the opposite side of the support surface of the stage to the support surface is referred to as an "upward" direction (i.e., the direction indicated by the arrow in the X direction), and the direction from the support surface to the opposite side of the support surface of the stage is referred to as a "downward" direction. In a direction parallel to the support surface, a direction pointing from the edge of the pod towards the centre is referred to as an "inward" direction, and a direction pointing from the centre towards the edge of the pod is referred to as an "outward" direction. Thus, the relative positional relationships of the "inner" and "outer" modifications are also used in a clear sense.

For example, as shown in fig. 1 to 3, the noise reduction compartment 400 includes an air inlet 410 and an air outlet 420, and a distance between the air outlet 420 and a supporting surface of the platform 500 is greater than a distance between the air inlet 410 and the supporting surface. For example, the outlet port 420 is located at an upper side of the inlet port 410. The distance between the air outlet and the supporting surface may be the distance between the end or surface of the air outlet closest to the supporting surface and the supporting surface, and the distance between the air inlet and the supporting surface may be the distance between the end or surface of the air inlet closest to the supporting surface and the supporting surface. Through setting up the air outlet in the upside of air intake, can make the air in the external environment get into the in-process of upwards propagating (the air outlet) from the air intake and blow parts such as main motor and first radiator, be favorable to the cooling of parts such as main motor and first radiator. In addition, the air outlet is arranged on the upper side of the air inlet, so that the noise is reduced, the reflection and transmission among all devices in the noise reduction cabin are facilitated, and the noise is reduced.

For example, as shown in fig. 1-3, the noise reduction pod 400 includes a top pod wall 430. The ceiling wall 430 refers to the wall of the noise reduction compartment 400 that is farthest from the platform 500. For example, the cabin roof 430 is closer to the first heat sink 300 than the platform 500. Through setting up first radiator into being closer to the cabin roof, can be favorable to first radiator heat dissipation of blowing upwards, when dispelling the heat to lubricating oil, can realize better noise reduction effect.

For example, as shown in fig. 1-3, lubrication motor 150 may be located on a side of main motor 200 that is remote from plunger pump 110. For example, the lubrication motor 150 may be located between the first radiator 300 and the platform 500. For example, an orthographic projection of the lubrication motor 150 on the supporting surface of the platform 500 overlaps with an orthographic projection of the first radiator 300 on the supporting surface. For example, the first radiator 300 is located directly above the lubricating motor 150.

In the fracturing equipment provided by the utility model, the first radiator is arranged closer to the top wall of the cabin, and other equipment (such as a lubricating motor) is arranged between the first radiator and the platform, so that the utilization rate of the space in the noise reduction cabin can be improved.

For example, as shown in fig. 1 to 3, the first radiator 300 may be provided on a frame of the noise reduction compartment 400. For example, the first radiator 300 may be disposed on a body of the noise reduction compartment 400, and the main motor 200 and the lubricating motor 150 are housed in the body thereof by the noise reduction compartment 400.

For example, as shown in fig. 1 to 3, first heat sink 300 is located on a side of main motor 200 away from plunger pump 110, a side of main motor 200 away from platform 500 is provided with second heat sink 210, second heat sink 210 is configured to dissipate heat of main motor 200, and ceiling wall 430 is closer to second heat sink 210 than platform 500. For example, the second heat sink 210 may be a heat sink.

For example, as shown in fig. 1-3, first heat sink 300 and second heat sink 210 are both located near the cabin roof 430, facilitating heat dissipation to the lubricant as well as the main motor. For example, a straight line parallel to the supporting surface of the platform 500 may pass through the first and second heat sinks 300 and 210. For example, the orthographic projections of the first heat sink 300 and the second heat sink 200 on a line perpendicular to the supporting surface overlap.

The second heat sink is a separate component from the main motor, but the second heat sink is not limited to this, and the second heat sink may be integrated with the main motor.

For example, as shown in fig. 1 to 3, the cabin ceiling wall 430 is provided with an air outlet 420, the first radiator 300 includes a heat dissipation duct 310 and a fan 320, the heat dissipation duct 310 is located between the fan 320 and the air outlet 420, the fan 320 is configured to blow air to the heat dissipation duct 310 to dissipate heat of the lubricant in the heat dissipation duct 310, and the heat dissipation duct 310 is opposite to the air outlet 420, so that heat of the lubricant in the heat dissipation duct 310 is directly exhausted outside the cabin. For example, the heat dissipation duct 310 is located above the fan 320, i.e., the side of the fan 320 away from the platform 500. For example, the outlet 420 may have a mesh structure.

For example, as shown in fig. 1 to 3, the fan 320 is used for blowing air to dissipate heat of the lubricant flowing through the heat dissipation pipe 310, that is, the fan 320 blows air to the heat dissipation pipe 310 located above the fan to discharge heat from the air outlet 420 to the outside of the cabin; in the process of blowing air upwards by the fan 320, negative pressure is formed inside the noise reduction cabin 400, and outside air enters the noise reduction cabin 400 from the air inlet 410 and flows to the air outlet 420 through the equipment (such as the main motor 200 and the lubricating motor 150) in the noise reduction cabin 400, so that the equipment in the noise reduction cabin 400 is cooled, the normal operation of the equipment in the cabin is ensured, and the process meets the air quantity required by the equipment during operation and the air quantity required by heat dissipation. In addition, the air outlet is arranged on the top wall of the noise reduction cabin, so that the air outlet is positioned above the equipment in the cabin, and the reflection and transmission of noise among the equipment can be weakened.

For example, fig. 4 is a schematic view from a side corresponding to the fracturing apparatus of fig. 1. As shown in fig. 1 to 4, the noise reduction compartment 400 includes a compartment sidewall 440 and a compartment door 450, and at least one of the compartment sidewall 440 and the compartment door 450 is provided with an air inlet 410. For example, the noise reduction pod 400 may include four sides and a top surface, the top surface providing a top wall, one of the four sides providing a pod sidewall 440, the other three of the four sides providing pod doors 450, and two pod doors 450 per side, whereby the noise reduction pod 400 may include one top wall 430, one pod sidewall 440, and six pod doors 450, the pod sidewall 440 being located between the main motor 200 and the plunger pump 110. For example, the cabin sidewall 440 is provided with the air inlet 410, and three sides of the cabin door 450 can be provided with the air inlet 410, so that the outside air can enter the noise reduction cabin 400 from four different directions, which is more beneficial to cooling the equipment in the cabin.

For example, as shown in fig. 1 to 4, two doors 450 located on the same side may both be provided with the air inlet 410, or one of the two doors 450 located on the same side may be provided with the air inlet 410.

Fig. 4 schematically shows that the noise reduction compartment includes four sides, but is not limited thereto, and may be five or more. For example, when the noise reduction cabin includes four sides, the number of the sides on which the cabin side walls are disposed may be two, and the number of the sides on which the cabin doors are disposed is two, or the number of the sides on which the cabin side walls are disposed is three, and the number of the sides on which the cabin doors are disposed is one, which is not limited in this embodiment of the present invention. For example, FIG. 4 schematically illustrates two hatches per side, but is not limited thereto and may include one hatch or more hatches.

For example, the air inlet 410 disposed on different doors 450 may have the same area as the air inlet 410 disposed on the cabin sidewall 440, or may have different areas.

For example, the inlet 410 formed in the cabin sidewall 440 may be opposite to the main motor 200, and the outside air entering from the inlet 410 may cool the main motor 200. One part of the air inlet 410, which is arranged on the hatch door 450 adjacent to both the main motor 200 and the lubrication motor 150, can be directly opposite to the main motor 200, and the other part can be directly opposite to the lubrication motor 150, so that the outside air entering from the air inlet 410 can cool the main motor 200 and the lubrication motor 150 at the same time.

For example, as shown in fig. 1 to 3, the fracturing equipment further includes an electric control cabinet 140, and the electric control cabinet 140 is located in the noise reduction chamber 400, so that not only can noise generated by the electric control cabinet be reduced, but also the risk that the electric control cabinet is damaged by high-pressure liquid in the plunger pump can be reduced.

For example, as shown in fig. 1 to 3, main motor 200 is located between electric control cabinet 140 and plunger pump 110. For example, main electric machine 200 may be electrically connected to electrical equipment in electrical cabinet 140. For example, a frequency converter 141 is provided in electric control cabinet 140, and main electric motor 200 may be electrically connected to frequency converter 131. For example, the lubricating motor 150 and other devices may be connected to the cable from the frequency converter 141 in the electric control cabinet 140.

For example, the electrical control cabinet 140 is located between the first heat sink 300 and the platform 500, and an orthographic projection of the electrical control cabinet 140 on a supporting surface of the platform 500 overlaps with an orthographic projection of the first heat sink 300 on the supporting surface. For example, the electric control cabinet 140 and the lubricating motor 150 are both disposed on the platform 500 and both located between the first radiator 300 and the platform 500, so that the space in the noise reduction cabin can be effectively utilized.

For example, the electric control cabinet 140 can be cooled by the outside air entering through the air inlet 410 disposed at the door 450 adjacent to the electric control cabinet 140.

For example, fig. 5 is a schematic view of a hatch door located on a side of the main motor away from the plunger pump in the noise reduction compartment shown in fig. 4. As shown in fig. 1 to 5, two hatches 450 located on a side of the main motor 200 away from the plunger pump 110 are opened to expose the electric control cabinet 140, the lubrication motor 150, and the first heat sink 300. For example, the two hatches 450 may also expose a filter configured to filter oil in the tubing when opened. For example, a filter may be connected in a conduit that carries oil through a tubing, and the oil flowing through the filter may be filtered by the filter. For example, the filter may be located on the oil inlet line of the plunger pump 110, or may be located on the oil outlet line of the plunger pump 110.

For example, as shown in fig. 1-5, two hatches 450 located on a side of main motor 200 remote from plunger pump 110 include a first hatch 451 and a second hatch 452, first hatch 451 being configured to expose electrical control cabinet 140 when opened, and second hatch 452 being configured to expose lubrication motor 150 when opened. For example, second door 452 may also be opened to expose the filter. For example, first hatch 451 may also expose a portion of first heatsink 300 when opened, and second hatch 452 may expose another portion of first heatsink 300 when opened.

For example, second door 452 overlaps first door 451 when both doors 450 are in a closed state, e.g., the portion of first door 451 adjacent to second door 452 overlaps the portion of second door 452 adjacent to first door 451. For example, the overlapping portion of second door 452 is located outside of the overlapping portion of first door 451. For example, a portion of second door 452 may press against a portion of the exterior of first door 451 such that first door 451 may only open after second door 452 opens.

For example, the frequency of maintenance of the electronic control cabinet 140 is lower than the frequency of maintenance of the lubrication motor 150. For example, the maintenance frequency of the electric control cabinet 140 is lower than that of the filter, so as to facilitate the maintenance operation of the equipment in the noise reduction cabin 400, the electric control cabinet 140 may be placed behind the first door 451, and other equipment with higher maintenance frequency, such as the lubricating motor 150 and the filter, may be placed behind the second door 452, and the door 450 is set in such a manner that the portion of the second door 452 presses against the outer side of the portion of the first door 451, so that the small-scale maintenance of the equipment, such as the lubricating motor and the filter, may be satisfied only by opening the second door 452.

For example, a transparent window or nested wicket may also be provided in first door 451 and/or second door 452. The components inside the noise reduction cabin can be observed through the transparent window; or by opening nested wicket, simple maintenance of components within the noise reduction layer may be performed without opening first door 451 and/or second door 452.

For example, a touch screen may be disposed on one of first door 451 and second door 452, and the touch screen may be connected to an electric control cabinet to control the operation state of the equipment in noise reduction cabin 400.

The following points need to be explained:

(1) in the drawings, the embodiments of the present invention relate only to the structures related to the embodiments of the present invention, and other structures may refer to general designs.

(2) Features from the same embodiment of the utility model and from different embodiments may be combined with each other without conflict.

The above description is intended to be illustrative of the present invention and not to limit the scope of the utility model, which is defined by the claims appended hereto.

Claims (12)

1. A fracturing apparatus, comprising:

a plunger pump;

a drive shaft;

the main motor is arranged at an interval with the plunger pump, and the plunger pump is connected with the main motor through the transmission shaft;

an oil pipe configured to be connected with the plunger pump; and

a first radiator disposed apart from the plunger pump, the first radiator configured to radiate heat from oil in the oil pipe,

the fracturing equipment further comprises a noise reduction cabin, at least part of the oil pipe, the main motor and the first radiator are located in the noise reduction cabin, and the plunger pump is located outside the noise reduction cabin.

2. The fracturing apparatus of claim 1, further comprising a platform, wherein the plunger pump, the main motor, and the noise reduction pod are all located on a support surface of the platform, the noise reduction pod comprising an air inlet and an air outlet, the air outlet being spaced from the support surface by a distance greater than the air inlet.

3. The fracturing apparatus of claim 2, wherein the noise reduction pod comprises a top wall that is closer to the first heat sink than the platform.

4. The fracturing apparatus of claim 3, wherein the first heat sink is located on a side of the main motor remote from the plunger pump, a side of the main motor remote from the platform is provided with a second heat sink configured to dissipate heat from the main motor, and the tank top wall is closer to the second heat sink than the platform.

5. The fracturing apparatus of claim 3, wherein the dome wall is provided with the air outlet, the first heat sink comprising a heat dissipation duct and a fan, the heat dissipation duct being located between the fan and the air outlet, the fan being configured to blow heat to the heat dissipation duct.

6. The fracturing apparatus of any one of claims 2 to 5, wherein said noise reduction pod comprises a pod sidewall and a pod door, at least one of said pod sidewall and said pod door being provided with said air inlet.

7. The fracturing apparatus of claim 6, further comprising:

and the electric control cabinet is positioned in the noise reduction cabin and comprises a frequency converter, and the main motor is positioned between the electric control cabinet and the plunger pump.

8. The fracturing apparatus of claim 7, further comprising:

and the lubricating motor is positioned in the noise reduction cabin, and the main motor is positioned between the lubricating motor and the plunger pump.

9. The fracturing apparatus of claim 7, wherein the electrical control cabinet is located between the first heat sink and the platform, and an orthographic projection of the electrical control cabinet on the support surface overlaps an orthographic projection of the first heat sink on the support surface.

10. The fracturing apparatus of claim 8, wherein the lubrication motor is located between the first heat sink and the platform, and an orthographic projection of the lubrication motor on the support surface overlaps an orthographic projection of the first heat sink on the support surface.

11. The fracturing apparatus of claim 8, wherein the door comprises a first door configured to expose the electrical control cabinet when opened and a second door configured to expose the lubrication motor when opened.

12. The fracturing apparatus of claim 11, wherein the second door overlaps the first door when the door is in the closed state, and the overlapping portion of the second door is located outside of the overlapping portion of the first door.

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