A treatment system for acidic heavy crude oil refining wastewater

Abstract

The present invention discloses a treatment system for acidic heavy crude oil refining wastewater, which relates to the field of wastewater treatment technology and aims to solve the technical problem that acidic heavy crude oil refining wastewater systems are highly dependent on the coordinated operation of multiple devices and the proficiency of personnel in operating the equipment, resulting in a significant increase in the complexity of equipment use, maintenance costs, and human resource costs. The system comprises a protective housing and a top cover disposed outside the protective housing. The present invention, through the design of a docking component, a processing component, and an air flotation component, enables the device to not only quickly switch between air flotation treatment and centrifugal wastewater treatment methods, but also requires personnel to perform corresponding control of the clockwise and counterclockwise operation of the device during the above-mentioned operation process, thereby reducing the device's demand for human resources and personnel operating proficiency, thereby reducing the complexity and maintenance costs of the device during use, and thus ensuring the device's wastewater treatment efficiency.

Description

Technical Field

[0001] The present invention relates to the technical field of wastewater treatment, and more particularly to a treatment system for acid-containing heavy crude oil refining wastewater. Background Art

[0002] The acidic heavy crude oil refining wastewater treatment unit is a specialized device designed to treat wastewater generated during the refining of highly acidic heavy crude oil. This wastewater typically exhibits high COD, high oil content, high ammonia nitrogen content, high conductivity, and contains polar pollutants such as organic acids, esters, alcohols, and heterocyclic compounds, making it challenging to treat.

[0003] Current systems for treating acidic heavy crude oil refinery wastewater typically first remove solid matter from the wastewater, then separate oil and suspended solids. Finally, microbubble technology is used to combine the oil and suspended solids in the wastewater to form a floating mass, which then rises to the surface and is removed. This series of operations relies heavily on the coordinated operation of multiple devices, requiring extensive equipment and human resources. However, this approach also raises a number of issues. First, the complexity of equipment use and maintenance costs increase significantly. The diverse range of devices and the high level of technological integration in the system make routine maintenance and troubleshooting extremely cumbersome, increasing maintenance costs and challenging operational efficiency. Second, coordinating the operation of multiple devices presents another challenge. To ensure smooth system operation, precise timing control and parameter adjustment between each device are required, which undoubtedly increases the complexity of system operation. A single device failure or improper parameter setting can have a ripple effect on the entire treatment process, impacting overall treatment efficiency. To address these issues, we propose a treatment system for acidic heavy crude oil refinery wastewater. Summary of the Invention

[0004] The purpose of the present invention is to provide a treatment system for acidic heavy crude oil refining wastewater to solve the technical problem that the existing acidic heavy crude oil refining wastewater system is highly dependent on the coordinated operation of multiple equipment and the proficiency of personnel in operating the equipment, resulting in the complexity of equipment use and a significant increase in maintenance costs and human resource costs.

[0005] In order to solve the above technical problems, the present invention provides the following technical solutions: A system for treating acidic heavy crude oil refining wastewater, comprising a protective housing, a bracket and a driver, and further comprising:

[0006] The shell mechanism includes a protective shell, a top cover arranged outside the protective shell, a material inlet located on both sides of the top cover, a reinforcement layer and a bracket, wherein the reinforcement layer is arranged outside the protective shell, and the bracket is arranged outside the protective shell; and the processing mechanism includes a driver, a solid-liquid separation component arranged outside the driver, a positioning component located below the solid-liquid separation component, a docking component, a limiting component connected to the docking component, a processing component arranged outside the docking component, an air flotation component and a filling component, wherein the filling component is connected to the processing component, the air flotation component is located inside the processing component, and the docking component is arranged outside the driving component.

[0007] The present invention can not only quickly switch between the flotation treatment method and the centrifugal treatment method for wastewater, but the above-mentioned operation process only requires personnel to control the clockwise and counterclockwise operation of the device accordingly, thereby reducing the device's requirements for human resources and personnel operation proficiency, thereby reducing the complexity and maintenance cost of the device during use, and thus ensuring the wastewater treatment efficiency of the device.

[0008] Preferably, the top of the protective shell is fixedly connected to the bottom of the top cover, there are two feed ports, and both feed ports are arranged above the top cover, the outer wall of the protective shell is fixedly connected to the reinforcement layer, the reinforcement layer is located below the protective shell, and the bracket is fixedly connected to the outside of the protective shell.

[0009] Preferably, the bottom of the driver is in transmission connection with the top of the driving assembly, the driving assembly is located inside the docking assembly, the solid-liquid separation assembly is slidably connected to the outside of the driving assembly, the bottom of the solid-liquid separation assembly is overlapped with the top of the positioning assembly, the outer wall of the docking assembly is fixedly connected to a plurality of processing assemblies, and the plurality of processing assemblies are respectively engaged with a plurality of air flotation assemblies, the bottom of the docking assembly is engaged with the limiting assembly, and the two adjacent processing assemblies are fixedly connected to the filling assembly;

[0010] The driver is fixedly connected to the top of the top cover, the limiting assembly is fixedly connected to the bottom of the inner wall of the protective shell, and the positioning assembly is fixedly connected to the inner wall of the protective shell.

[0011] Preferably, the driving assembly includes a driving rod, an outer wall of the driving rod is fixedly connected to a plurality of first bevel gears, a plurality of first elastic telescopic rods are fixedly connected to the outside of the driving rod, and the other ends of the plurality of first elastic telescopic rods are fixedly connected to a first docking block;

[0012] The solid-liquid separation component is slidably connected to the outside of the driving rod, and the driving rod is located in the docking component. A plurality of first bevel gears are respectively engaged with a plurality of air flotation components.

[0013] Preferably, the solid-liquid separation component includes a filter cover, a guide groove is provided below the filter cover, the guide groove is annular, a plurality of protrusions are fixedly connected in the guide groove, and the bottoms of the plurality of protrusions are all arc-shaped, and a plurality of counterweights are fixedly connected below the filter cover;

[0014] The filter cover is slidably connected to the outside of the driving rod, and the filter cover is connected to the positioning component through a guide groove.

[0015] Preferably, the positioning assembly includes a positioning frame, a plurality of second elastic telescopic rods are fixedly connected to the top of the positioning frame, and the tops of the plurality of second elastic telescopic rods are fixedly connected to a reinforcement frame, and the tops of the plurality of reinforcement frames are clamped with a guide pulley;

[0016] The outer wall of the positioning frame is fixedly connected to the inner wall of the protective shell, and a plurality of pulleys are slidably connected in the guide groove.

[0017] Preferably, the docking assembly includes a docking shell, a plurality of second docking blocks are fixedly connected inside the docking shell, and a plurality of one-way sliders are fixedly connected below the docking shell;

[0018] The docking shell is sleeved on the outside of the driving rod, and several first docking blocks and several second docking blocks are arranged in a manner of one side vertical surface and the other side arc surface. The first docking blocks and the second docking blocks overlap each other, several flotation components are clamped in the docking shell, and several processing components and filling components are fixedly connected to the outside of the docking shell.

[0019] Preferably, the processing assembly includes a processing chamber, a processing tank is provided in the processing chamber, through slots are provided on both sides of the inner wall of the processing tank, and hinges are clamped in the two through slots, the through slots are hingedly connected to two sealing plates by the hinges, and opposite sides of the two sealing plates are fixedly connected to sealing gaskets, and the opposite sides of the two sealing plates overlap each other, and a coil spring is provided outside the hinge, and the two ends of the coil spring are respectively fixedly connected to the through slot and the sealing plate;

[0020] One side of the processing chamber is fixedly connected to the filling component, the processing chamber is fixedly connected to the outside of the docking shell, and the air flotation component is located in the processing chamber.

[0021] Preferably, the air flotation assembly includes a bearing, a rotating shaft is sleeved in the bearing, one end of the rotating shaft is fixedly connected to the second bevel gear, and the other end of the rotating shaft passes through the bearing and is fixedly connected to a plurality of stirring blades, and the stirring blades are three-wing or four-wing paddle-type blades;

[0022] The bearing is clamped in the docking shell, a plurality of stirring blades are located in the processing chamber, and the second bevel gear is meshed with the first bevel gear.

[0023] Preferably, the limiting assembly includes a mounting seat, and a plurality of arc-shaped gaskets are fixedly connected to the top of the mounting seat, and the arc-shaped gaskets are elastic gaskets;

[0024] The mounting seat is fixedly connected to the lower side of the inner wall of the protective shell, and the arc-shaped gasket overlaps the one-way slider;

[0025] The filling assembly includes a filling block, a guide inclined groove is provided on the top of the filling block, and a through hole is provided on one side of the filling block;

[0026] The filling block is connected to the through slots provided in the processing chambers on both sides through through holes, and the filling block is fixedly connected to the processing chambers.

[0027] Compared with the prior art, the present invention has the following beneficial effects:

[0028] 1. The present invention designs a docking assembly, a processing assembly and an air flotation assembly. When performing air flotation treatment, the driver needs to be operated counterclockwise. Similarly, when rotating clockwise, the driving assembly will synchronously drive the rotation of several processing assemblies through the docking assembly, so that the wastewater in the processing assembly is centrifugally treated. This allows the device to quickly switch between the air flotation treatment mode and the centrifugal treatment mode of wastewater. In addition, the above-mentioned operation process only requires personnel to control the clockwise and counterclockwise operation of the device accordingly, which reduces the device's requirements for human resources and personnel operation proficiency, thereby reducing the complexity and maintenance cost of the device during use, and thus ensuring the wastewater treatment efficiency of the device.

[0029] 2. The present invention also designs an air flotation component. When the paddle-shaped blades rotate in the fluid, they will promote the flow of the fluid. The shape and angle design of the blades enable them to exert force on the surrounding fluid during rotation, thereby causing the fluid to produce a directional flow. As the blades rotate, the fluid is divided into two parts. One part rotates with the blades to form a rotating layer, and the other part is farther away from the blades and has a slower speed, forming a stationary layer. On the shear surface, due to the speed difference between the rotating layer and the stationary layer, a strong shearing effect will be generated. This shearing effect will cause the fluid to generate vortices and turbulence near the shear surface, thereby accelerating the generation of bubbles. In addition, the convection of the liquid can be accelerated by relatively arranging multiple stirring blades, further improving the flotation treatment effect of the device on wastewater.

[0030] 3. The present invention also designs a processing component and a docking component. When the driving rod is rotated clockwise, the driving rod will drive several first docking blocks to contact the vertical surface of the second docking block through the vertical surface, thereby driving the docking shell to rotate. At the same time, the one-way slider under the docking shell will synchronously squeeze the arc-shaped gasket, causing the arc-shaped gasket to deform. At this time, since the docking shell will synchronously drive several processing chambers to rotate when rotating, several relatively independent processing chambers can collect wastewater while centrifuging the wastewater, avoiding wastewater leakage. At the same time, it reduces the difficulty of switching between flotation treatment and centrifugal treatment of wastewater, further ensuring the treatment effect of the device on wastewater. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0032] Figure 2 Schematic diagram of the cross-sectional structure of the housing mechanism of the present invention;

[0033] Figure 3 This is a schematic structural diagram of the solid-liquid separation component of the present invention;

[0034] Figure 4 For the present invention Figure 3 A in the middle is an enlarged structural diagram;

[0035] Figure 5 Schematic diagram of the cross-sectional structure of the processing component of the present invention;

[0036] Figure 6 Schematic diagram of the cross-sectional structure of the docking assembly of the present invention;

[0037] Figure 7 For the present invention Figure 6 The enlarged structural diagram at B in the middle;

[0038] Figure 8 Schematic diagram of the structure of the air flotation component of the present invention.

[0039] Description of the numbers in the figure:

[0040] 1. Shell mechanism; 2. Processing mechanism;

[0041] 101. Protective shell; 102. Top cover; 103. Feed inlet; 104. Reinforcement layer; 105. Bracket;

[0042] 201, driver; 202, driving assembly; 203, solid-liquid separation assembly; 204, positioning assembly; 205, docking assembly; 206, processing assembly; 207, air flotation assembly; 208, limiting assembly; 209, filling assembly;

[0043] 2021, driving rod; 2022, first bevel gear; 2023, first elastic telescopic rod; 2024, first docking block;

[0044] 2031, filter cover; 2032, guide groove; 2033, protrusion; 2034, counterweight;

[0045] 2041, positioning frame; 2042, second elastic telescopic rod; 2043, reinforcement frame; 2044, guide pulley;

[0046] 2051, docking shell; 2052, second docking block; 2053, one-way slider;

[0047] 2061, processing chamber; 2062, processing tank; 2063, through slot; 2064, hinge; 2065, sealing plate; 2066, coil spring; 2067, sealing gasket;

[0048] 2071, bearing; 2072, rotating shaft; 2073, second bevel gear; 2074, stirring blade;

[0049] 2081, mounting seat; 2082, arc-shaped gasket;

[0050] 2091. Filling block; 2092. Guide chute. DETAILED DESCRIPTION

[0051] like Figures 1 to 8 As shown, the present invention relates to a treatment system for acid-containing heavy crude oil refining wastewater, comprising a protective housing 101, a bracket 105 and a driver 201, and further comprising:

[0052] The shell mechanism 1 includes a protective shell 101, a top cover 102 arranged outside the protective shell 101, a material inlet 103 located on both sides of the top cover 102, a reinforcement layer 104 and a bracket 105, wherein the reinforcement layer 104 is arranged outside the protective shell 101, and the bracket 105 is arranged outside the protective shell 101; and a processing mechanism 2 includes a driver 201, a solid-liquid separation component 203 arranged outside the driver, a positioning component 204 located below the solid-liquid separation component 203, a docking component 205, a limiting component 208 connected to the docking component 205, a processing component 206 arranged outside the docking component 205, an air flotation component 207 and a filling component 209, wherein the filling component 209 is connected to the processing component 206, the air flotation component 207 is located in the processing component 206, and the docking component 201 is connected to the processing component 206. 05 is arranged outside the driving component 202. By designing the docking component 205, the processing component 206 and the flotation component 207, when performing flotation treatment, the driver 201 needs to be operated counterclockwise. Similarly, when rotating clockwise, the driving component 202 will synchronously drive several processing components 206 to rotate through the docking component 205, so that the wastewater in the processing component 206 is centrifugally treated, so that the device can not only quickly switch between the flotation treatment method and the centrifugal treatment method of wastewater, but the above-mentioned operation process only requires personnel to control the clockwise and counterclockwise operation of the device accordingly, which reduces the device's demand for human resources and personnel operation proficiency, thereby reducing the complexity and maintenance cost of the device during use, and thus ensuring the wastewater treatment efficiency of the device.

[0053] In an embodiment of the present invention, the upper portion of the protective shell 101 is fixedly connected to the lower portion of the top cover 102, the number of the feed ports 103 is two, and both feed ports 103 are arranged above the top cover 102, the outer wall of the protective shell 101 is fixedly connected to the reinforcing layer 104, the reinforcing layer 104 is located below the protective shell 101, the bracket 105 is fixedly connected to the outside of the protective shell 101, the lower portion of the driver 201 is connected to the top of the driving assembly 202, the driving assembly 202 is located in the docking assembly 205, and the solid-liquid separation The assembly 203 is slidably connected to the outside of the driving assembly 202, the bottom of the solid-liquid separation assembly 203 is overlapped with the top of the positioning assembly 204, the outer wall of the docking assembly 205 is fixedly connected to a number of processing assemblies 206, and the inside of the several processing assemblies 206 are respectively connected to a number of air flotation assemblies 207, the bottom of the docking assembly 205 is connected to the limit assembly 208, and the adjacent two processing assemblies 206 are fixedly connected to the filling assembly 209. The driver 201 is fixedly connected to the top of the top cover 102, and the limit assembly 208 is fixed. The positioning assembly 204 is connected to the lower part of the inner wall of the protective shell 101, and is fixedly connected to the inner wall of the protective shell 101. When wastewater enters the device, the filter cover 2031 will filter the solid matter in the wastewater, so that the solid waste will be retained above the filter cover 2031. When the driver 201 drives the driving rod 2021 to rotate, the filter cover 2031 is slidably connected to the outside of the driving rod 2021, so that the filter cover 2031 will rotate synchronously. At this time, the filter cover 2031 will protrude from the lower part during the rotation process. 033 is in continuous contact with the pulley, so that the pulley squeezes the protrusion 2033 and pushes the filter cover 2031 upward as a whole, and when the pulley contacts the guide groove 2032, the filter cover 2031 is reset under the action of its own gravity and the gravity of the counterweight block 2034, so that when treating the wastewater, the filter cover 2031 can be in a state of continuous up and down shaking, avoiding the situation where liquid adheres to the surface of solid waste above the filter cover 2031, thereby improving the solid-liquid separation effect of the device on the wastewater and ensuring the treatment effect of the device on the wastewater.

[0054] In an embodiment of the present invention, the driving assembly 202 includes a driving rod 2021, the outer wall of the driving rod 2021 is fixedly connected to a plurality of first bevel gears 2022, the driving rod 2021 is fixedly connected to a plurality of first elastic telescopic rods 2023, and the other ends of the plurality of first elastic telescopic rods 2023 are fixedly connected to a first docking block 2024, the solid-liquid separation assembly 203 is slidably connected to the outside of the driving rod 2021, the driving rod 2021 is located in the docking assembly 205, the plurality of first bevel gears 2022 are respectively engaged with a plurality of air flotation assemblies 207, and the solid-liquid separation assembly 20 3 includes a filter cover 2031, a guide groove 2032 is provided below the filter cover 2031, the guide groove 2032 is annular, a plurality of protrusions 2033 are fixedly connected in the guide groove 2032, and the bottoms of the plurality of protrusions 2033 are all arc-shaped, a plurality of counterweights 2034 are fixedly connected below the filter cover 2031, the filter cover 2031 is slidably connected to the outside of the drive rod 2021, and the filter cover 2031 is connected to the positioning assembly 204 through the guide groove 2032. The positioning assembly 204 includes a positioning frame 2041, and a plurality of second elastic members are fixedly connected above the positioning frame 2041. The tops of the plurality of second elastic telescopic rods 2042 are fixedly connected to the reinforcement frame 2043, and the tops of the plurality of reinforcement frames 2043 are clamped with guide pulleys 2044. The outer wall of the positioning frame 2041 is fixedly connected to the inner wall of the protective shell 101, and the plurality of pulleys are slidably connected in the guide groove 2032. By designing the processing component 206 and the docking component 205, when the driving rod 2021 is rotated clockwise, the driving rod 2021 will drive the plurality of first docking blocks 2024 to contact the vertical surface of the second docking block 2052 through the vertical surface, thereby bringing The docking shell 2051 rotates, and at the same time, the one-way slider 2053 below the docking shell 2051 will synchronously squeeze the arc-shaped gasket 2082, causing the arc-shaped gasket 2082 to deform. At this time, since the docking shell 2051 will synchronously drive the multiple processing chambers 2061 to rotate when rotating, the relatively independent multiple processing chambers 2061 can collect the wastewater while performing centrifugal treatment on the wastewater, thereby avoiding leakage of the wastewater. At the same time, the difficulty of switching between flotation treatment and centrifugal treatment of the wastewater is reduced, thereby further ensuring the treatment effect of the device on the wastewater.

[0055] As another embodiment of the present invention, the docking assembly 205 includes a docking shell 2051, a plurality of second docking blocks 2052 are fixedly connected to the docking shell 2051, a plurality of one-way sliders 2053 are fixedly connected to the bottom of the docking shell 2051, the docking shell 2051 is sleeved on the outside of the drive rod 2021, and the plurality of first docking blocks 2024 and the plurality of second docking blocks 2052 are arranged in a manner of a vertical surface on one side and an arc surface on the other side. The first docking block 2024 and the second docking block 2052 are arranged in a manner of a vertical surface on one side and an arc surface on the other side. The plurality of air flotation components 207 are overlapped, and are all clamped in the docking shell 2051. The plurality of processing components 206 and the filling component 209 are all fixedly connected to the outside of the docking shell 2051. The processing component 206 includes a processing chamber 2061, and a processing tank 2062 is provided in the processing chamber 2061. Both sides of the inner wall of the processing tank 2062 are provided with through grooves 2063, and the two through grooves 2063 are clamped with hinges 2064. The through grooves 2063 are hinged to two sealing plates 2065 through the hinges 2064. , the two sealing plates 2065 are fixedly connected to the opposite side with a sealing gasket 2067, the two sealing plates 2065 are overlapped on the opposite sides, a coil spring 2066 is provided outside the hinge 2064, and the two ends of the coil spring 2066 are respectively fixedly connected to the through groove 2063 and the sealing plate 2065, one side of the processing chamber 2061 is fixedly connected to the filling component 209, the processing chamber 2061 is fixedly connected to the outside of the docking shell 2051, and the air flotation component 207 is located in the processing chamber 2061. Due to the provision of an arc gasket 2082 and the arc-shaped gasket 2082 are elastically set. When the one-way slider 2053 directly contacts the arc-shaped gasket 2082, the arc-shaped gasket 2082 will block the one-way slider 2053. When the one-way slider 2053 contacts the arc surface of the arc-shaped gasket 2082, the arc-shaped gasket 2082 will be deformed, thereby ensuring that the one-way slider 2053 can rotate stably when rotating clockwise but cannot rotate counterclockwise, thereby ensuring the stability of the docking shell 2051 during rotation and fixation.

[0056] As another embodiment of the present invention, the air flotation component 207 includes a bearing 2071, a rotating shaft 2072 is sleeved in the bearing 2071, one end of the rotating shaft 2072 is fixedly connected to the second bevel gear 2073, and the other end of the rotating shaft 2072 passes through the bearing 2071 and is fixedly connected to a plurality of stirring blades 2074. The stirring blade 2074 is a three-wing or four-wing paddle-type blade. The bearing 2071 is snap-fitted into the docking shell 2051. The plurality of stirring blades 2074 are all located in the processing chamber 2061. The second bevel gear 2073 is meshed with the first bevel gear 2022. The limiting component 208 includes a mounting seat 2081. By designing the air flotation component 207, when the paddle-shaped blade rotates in the fluid, To promote the flow of fluid, the shape and angle design of the blades enable them to exert force on the surrounding fluid during rotation, thereby causing the fluid to flow in a directional manner. As the blades rotate, the fluid is divided into two parts. One part rotates with the blades to form a rotating layer, and the other part is farther away from the blades and has a slower speed, forming a stationary layer. On the shear surface, due to the speed difference between the rotating layer and the stationary layer, a strong shearing effect will be generated. This shearing effect will cause the fluid to generate vortices and turbulence near the shear surface, thereby accelerating the generation of bubbles. In addition, the relative arrangement of multiple stirring blades 2074 can accelerate the convection of the liquid, further improving the flotation treatment effect of the device on wastewater.

[0057] A plurality of arc-shaped gaskets 2082 are fixedly connected to the top of the mounting seat 2081. The arc-shaped gaskets 2082 are elastic gaskets. The mounting seat 2081 is fixedly connected to the bottom of the inner wall of the protective shell 101. The arc-shaped gaskets 2082 overlap the one-way slider 2053. The filling assembly 209 includes a filling block 2091. A guide inclined groove 2092 is provided above the filling block 2091. A through hole is provided on one side of the filling block 2091. The filling block 2091 is connected to the processing blocks on both sides through the through hole. The through groove 2063 opened in the bin 2061 is connected, and the filling block 2091 is fixedly connected to the processing bin 2061. Because the filling block 2091 is provided and a guide chute 2092 is provided above the filling block 2091, when wastewater drops above the filling block 2091, the filling block 2091 can guide the wastewater along the guide chute 2092 to flow into the processing bins 2061 on both sides, ensuring that the wastewater entering the protective shell 101 can flow into the processing bin 2061.

[0058] Working Principle: This embodiment provides a system for treating acidic heavy crude oil refining wastewater. During use, the wastewater is injected into the protective housing 101 through the feed port 103. The wastewater is then subjected to flotation and centrifugal treatment by adjusting the clockwise and counterclockwise rotation of the driver 201. After treatment, the wastewater can be discharged by opening the discharge port below.

[0059] When wastewater is injected into the device, a large amount of wastewater will directly fall on the solid-liquid separation component 203. At this time, the solid-liquid separation component 203 will separate the solid solid material and liquid material in the wastewater. The liquid material will directly pass through the solid-liquid separation component 203 and enter the treatment component 206, while the solid material will be retained in the solid-liquid separation component 203. When performing flotation treatment, the driver 201 needs to be operated counterclockwise. At this time, the driving component 202 will drive the second bevel gear 2073 to rotate, and the limiting component 208 below will block the rotation of the docking component 205, so that the flotation component 207 set in the docking component 205 rotates rapidly, thereby accelerating the generation and offset of bubbles, thereby performing flotation treatment on the wastewater. Similarly, when rotating clockwise, the driving component 202 will synchronously drive several treatment components 206 to rotate through the docking component 205, so that the wastewater in the treatment component 206 is centrifugally treated;

[0060] When wastewater enters the device, the filter cover 2031 will filter solid matter in the wastewater, so that the solid waste will be retained above the filter cover 2031. When the driver 201 drives the driving rod 2021 to rotate, since the filter cover 2031 is slidably connected to the outside of the driving rod 2021, the filter cover 2031 will rotate synchronously. At this time, during the rotation of the filter cover 2031, the lower protrusion 2033 will continue to contact the pulley, so that the pulley squeezes the protrusion 2033 and pushes the filter cover 2031 upward as a whole. When the pulley contacts the guide groove 2032, the filter cover 2031 returns to its original position under the action of its own weight and the weight of the counterweight block 2034.

[0061] When the device is operated counterclockwise, the driving rod 2021 rotates counterclockwise. Since the first docking block 2024 and the second docking block 2052 are in arc surface contact, the first docking block 2024 squeezes the first elastic telescopic rod 2023 when in contact, causing the first telescopic rod to contract, and the lower one-way slider 2053 comes into direct contact with the arc gasket 2082, resulting in a stuck situation. At this time, the docking shell 2051 is in a fixed state, so that the positions of the several processing chambers 2061 are fixed. As the stirring rod continues to drive the first bevel gear 2022 to rotate, the second bevel gear 2073 will synchronously drive the rotating shaft 2072 to rotate due to the drive of the first bevel gear 2022. At this time, the several stirring blades 2074 outside the rotating shaft 2072 will stir the wastewater in the processing chamber 2061.

[0062] When the driving rod 2021 is rotated clockwise, the driving rod 2021 will drive several first docking blocks 2024 to contact the vertical surface of the second docking block 2052 through the vertical surface, thereby driving the docking shell 2051 to rotate. At the same time, the one-way slider 2053 under the docking shell 2051 will synchronously squeeze the arc-shaped gasket 2082, causing the arc-shaped gasket 2082 to deform. At this time, since the docking shell 2051 will synchronously drive several processing bins 2061 to rotate when rotating, the relatively independent processing bins 2061 can collect wastewater and perform centrifugal treatment on the wastewater at the same time.

[0063] The embodiments disclosed in the present invention are preferred embodiments, but are not limited to them. Ordinary technicians in this field can easily understand the spirit of the present invention based on the above embodiments and make different extensions and changes. As long as they do not deviate from the spirit of the present invention, they are all within the scope of protection of the present invention.

Claims

1. A system for treating acidic heavy crude oil refining wastewater, comprising a protective housing (101), a bracket (105) and a driver (201), characterized in that: include, A housing mechanism (1) comprising a protective housing (101), a top cover (102) disposed outside the protective housing (101), feed ports (103) located on both sides of the top cover (102), a reinforcing layer (104), and a bracket (105), wherein the reinforcing layer (104) is disposed outside the protective housing (101), and the bracket (105) is disposed outside the protective housing (101); and A processing mechanism (2) comprises a driver (201), a solid-liquid separation component (203) arranged outside the driver, a positioning component (204) located below the solid-liquid separation component (203), a docking component (205), a limiting component (208) connected to the docking component (205), a processing component (206) arranged outside the docking component (205), an air flotation component (207), and a filling component (209), wherein the filling component (209) is connected to the processing component (206), the air flotation component (207) is located inside the processing component (206), and the docking component (205) is arranged outside the driving component (202); The solid-liquid separation component (203) comprises a filter cover (2031), a guide groove (2032) is provided below the filter cover (2031), the guide groove (2032) is annular, a plurality of protrusions (2033) are fixedly connected in the guide groove (2032), and the bottoms of the plurality of protrusions (2033) are all arc-shaped, and a plurality of counterweights (2034) are fixedly connected below the filter cover (2031); The positioning assembly (204) comprises a positioning frame (2041), a plurality of second elastic telescopic rods (2042) are fixedly connected to the top of the positioning frame (2041), and the tops of the plurality of second elastic telescopic rods (2042) are fixedly connected to a reinforcement frame (2043), and the tops of the plurality of reinforcement frames (2043) are clamped with guide pulleys (2044); The processing assembly (206) comprises a processing chamber (2061), a processing tank (2062) is provided in the processing chamber (2061), through slots (2063) are provided on both sides of the inner wall of the processing tank (2062), and hinges (2064) are clamped in the two through slots (2063), the through slots (2063) are hingedly connected to two sealing plates (2065) via the hinges (2064), the two sealing plates (2065) are fixedly connected to opposite sides with sealing gaskets (2067), the opposite sides of the two sealing plates (2065) are overlapped, a coil spring (2066) is provided outside the hinge (2064), and the two ends of the coil spring (2066) are respectively fixedly connected to the through slot (2063) and the sealing plate (2065); The air flotation component (207) includes a bearing (2071), a rotating shaft (2072) is sleeved in the bearing (2071), one end of the rotating shaft (2072) is fixedly connected to the second bevel gear (2073), and the other end of the rotating shaft (2072) passes through the bearing (2071) and is fixedly connected to a plurality of stirring blades (2074), wherein the stirring blades (2074) are paddle-type blades with three or four blades; The filling assembly (209) comprises a filling block (2091), a guide inclined groove (2092) is provided above the filling block (2091), and a through hole is provided on one side of the filling block (2091); The driving assembly (202) comprises a driving rod (2021), the outer wall of the driving rod (2021) being fixedly connected to a plurality of first bevel gears (2022), the outer surface of the driving rod (2021) being fixedly connected to a plurality of first elastic telescopic rods (2023), and the other ends of the plurality of first elastic telescopic rods (2023) being fixedly connected to a first docking block (2024); The solid-liquid separation component (203) is slidably connected to the outside of the driving rod (2021), the driving rod (2021) is located in the docking component (205), and a plurality of first bevel gears (2022) are respectively engaged with a plurality of air flotation components (207); The docking assembly (205) comprises a docking shell (2051), a plurality of second docking blocks (2052) are fixedly connected inside the docking shell (2051), and a plurality of one-way sliders (2053) are fixedly connected below the docking shell (2051); The docking shell (2051) is sleeved on the outside of the driving rod (2021); a plurality of first docking blocks (2024) and a plurality of second docking blocks (2052) are arranged in a manner of having a vertical surface on one side and an arcuate surface on the other side; the first docking blocks (2024) and the second docking blocks (2052) overlap each other; a plurality of air flotation components (207) are clamped in the docking shell (2051); and a plurality of processing components (206) and filling components (209) are fixedly connected to the outside of the docking shell (2051); The limiting assembly (208) includes a mounting seat (2081), and a plurality of arc-shaped gaskets (2082) are fixedly connected above the mounting seat (2081), and the arc-shaped gaskets (2082) are elastic gaskets; The mounting seat (2081) is fixedly connected to the lower side of the inner wall of the protective housing (101), and the arc-shaped gasket (2082) overlaps the one-way slider (2053); The filling block (2091) is connected to the through slots (2063) provided in the processing chamber (2061) on both sides via through holes, and the filling block (2091) is fixedly connected to the processing chamber (2061).

2. The system for treating acidic heavy crude oil refining wastewater according to claim 1, characterized in that: The upper portion of the protective shell (101) is fixedly connected to the lower portion of the top cover (102); the number of the feed inlets (103) is two, and both feed inlets (103) are arranged above the top cover (102); the outer wall of the protective shell (101) is fixedly connected to the reinforcing layer (104); the reinforcing layer (104) is located below the protective shell (101); and the bracket (105) is fixedly connected to the outside of the protective shell (101).

3. The system for treating acidic heavy crude oil refining wastewater according to claim 2, characterized in that: The bottom of the driver (201) is in transmission connection with the top of the driving component (202), the driving component (202) is located in the docking component (205), the solid-liquid separation component (203) is slidably connected to the outside of the driving component (202), the bottom of the solid-liquid separation component (203) is overlapped with the top of the positioning component (204), the outer wall of the docking component (205) is fixedly connected to a plurality of processing components (206), and the insides of the plurality of processing components (206) are respectively engaged with a plurality of air flotation components (207), the bottom of the docking component (205) is engaged with the limiting component (208), and the space between two adjacent processing components (206) is fixedly connected to the filling component (209); The driver (201) is fixedly connected above the top cover (102), the limiting assembly (208) is fixedly connected below the inner wall of the protective shell (101), and the positioning assembly (204) is fixedly connected to the inner wall of the protective shell (101).

4. The system for treating acidic heavy crude oil refining wastewater according to claim 3, characterized in that: The filter cover (2031) is slidably connected to the outside of the driving rod (2021), and the filter cover (2031) is connected to the positioning assembly (204) via a guide groove (2032).

5. The system for treating acidic heavy crude oil refining wastewater according to claim 4, characterized in that: The outer wall of the positioning frame (2041) is fixedly connected to the inner wall of the protective shell (101), and the plurality of pulleys are slidably connected in the guide groove (2032).

6. The system for treating acidic heavy crude oil refining wastewater according to claim 5, characterized in that: One side of the processing chamber (2061) is fixedly connected to the filling assembly (209), the processing chamber (2061) is fixedly connected to the outside of the docking shell (2051), and the air flotation assembly (207) is located inside the processing chamber (2061).

7. The system for treating acidic heavy crude oil refining wastewater according to claim 6, characterized in that: The bearing (2071) is clamped in the docking shell (2051), the plurality of stirring blades (2074) are all located in the processing chamber (2061), and the second bevel gear (2073) is meshed with the first bevel gear (2022).

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