Integrated vacuum oil tank and pump station
By using an integrated vacuum oil separator design, oil-water separation is achieved through vacuum tubes and oil-water baffles, eliminating the need for additional pump equipment and solving the problems of large equipment size and high cost, thus achieving efficient and low-cost oil-water separation.
Patent Information
- Application Number
- CN202411705733.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-26
- Publication Date
- 2025-12-26
- Estimated Expiration
- 2044-11-26
AI Technical Summary
Existing oil-water separation devices are large in size, occupy a lot of space, and are expensive, requiring additional pumps to transfer water.
The integrated vacuum oil separator design uses a vacuum tube to keep the liquid storage chamber under negative pressure. Oil-water separation is achieved by using an oil separator baffle and a transfer connector. Wastewater flows into the wastewater discharge area through overflow, eliminating the need for additional pump equipment.
This results in a small equipment size, minimal footprint, and low cost, avoiding pump damage and maintenance costs, while also improving oil-water separation efficiency.
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Figure CN119430379B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the field of catering wastewater treatment equipment, in particular to an integrated vacuum oil separation tank and pump station. BACKGROUND
[0002] With the growth of population and the improvement of residents' living standards, the catering industry in China is also developing rapidly, which leads to the increase of kitchen waste accumulation. Effective treatment of kitchen waste can be achieved by separating and filtering food residues and oil-water. Food residues can be treated as fertilizer, and filtered oil-water also needs to be separated in time. The separation methods of oil-water include heating separation, centrifugal separation and static separation. For the treatment of oil-containing wastewater, static separation is usually used.
[0003] In related technologies, the oil separation device includes an oil separation tank and a collection tank. The lower end of the oil separation tank is connected to the collection tank through a pipeline. During use, oil-containing wastewater first enters the oil separation tank, at which time the oil is on the upper layer and the water is on the lower layer. Then the water on the lower layer enters the collection tank, thereby realizing oil-water separation.
[0004] For the related technologies in the above, the oil-water separation is realized by combining the oil separation tank with the collection tank, which has the defects of large equipment volume, large occupation area, and the need to set a pump between the oil separation tank and the collection tank to realize water transfer, thereby leading to high cost of the oil separation device. SUMMARY
[0005] In order to make the oil separation device small in size, small in occupation area and low in cost, the present application provides an integrated vacuum oil separation tank and pump station.
[0006] In a first aspect, the present application provides an integrated vacuum oil separation tank, which adopts the following technical solution:
[0007] An integrated vacuum oil separation tank, comprising:
[0008] a tank body provided with a liquid storage cavity;
[0009] a cavity partition plate arranged in the liquid storage cavity and used for dividing the liquid storage cavity into an oil separation area and a wastewater discharge area;
[0010] an oil separation baffle connected to one side of the cavity partition plate close to the oil separation area, and forming a wastewater transfer-out cavity with the inlet downward between the oil separation baffle and the cavity partition plate;
[0011] a transfer communication piece arranged on the cavity partition plate, the transfer communication piece being in communication with the wastewater transfer-out cavity, and the position of the transfer communication piece being higher than the inlet of the wastewater transfer-out cavity;
[0012] a vacuum pipe having one end in communication with the liquid storage cavity and the other end used for connecting with an external power source.
[0013] By adopting the technical scheme, in working, the liquid storage cavity is in a negative pressure state through the vacuum pipe, so that the oily wastewater enters the oil separation area, then the oil separation baffle separates the oil in the upper layer and allows the wastewater in the lower layer to enter the wastewater transfer cavity from bottom to top, and then flows into the wastewater discharge area through the transfer communication piece, so that the oil-water separation is realized. In summary, the oil separation baffle is used to combine the wastewater discharge area and the oil separation area in one tank body, and the wastewater can enter the wastewater discharge area by overflow, so that an additional pump is not needed to realize the transfer of the wastewater, thereby the device is small in size, occupies less space and is low in cost, and in addition, a pump is not needed to send the oily wastewater into the tank body, and the damage of the pump can be avoided to reduce the maintenance cost.
[0014] Preferably, the cavity separation baffle is spaced apart from the upper inner wall of the liquid storage cavity.
[0015] By adopting the technical scheme, compared with the way that the cavity separation baffle completely separates the liquid storage cavity into two regions, in the negative pressure treatment through the vacuum pipe, the pressure between the oil separation area and the wastewater discharge area can be better balanced, and the subsequent wastewater can flow more smoothly into the wastewater discharge area by overflow.
[0016] Preferably, the vacuum pipe is rotationally arranged, the vacuum pipe penetrates into the oil separation area from bottom to top, and the vacuum pipe is provided with stirring blades at a position lower than the inlet of the wastewater transfer cavity.
[0017] By adopting the technical scheme, the oily wastewater is divided into three layers in the oil separation area from top to bottom, namely oil, water and mud, so that the vacuum pipe is slowly rotated and the stirring blades slowly stir the mud in the lower layer, so that the solidification of the mud in the lower layer can be prevented, thereby facilitating the subsequent direct removal of the oil and mud.
[0018] Preferably, the upper side of the tank body is provided with an oil-water inlet, the oil-water inlet is in communication with the oil separation area, and the oil-water inlet is close to the vertical side wall of the liquid storage cavity; the inner wall of the liquid storage cavity is provided with a drainage baffle, a splash-proof cavity is formed between the drainage baffle and the inner wall of the liquid storage cavity, the splash-proof cavity is tubular, and the splash-proof cavity is coaxially communicated with the oil-water inlet.
[0019] By adopting the technical scheme, the oily wastewater vertically enters the oil separation area and enters the splash-proof cavity, so that the splash or impact can be avoided to make the settled stratified liquid shake, so that the oily wastewater can be more gently mixed with the stratified liquid in the tank body, and a better separation effect can be achieved.
[0020] Preferably, the wastewater discharge area is provided with a drainage float ball and an alarm float ball, the alarm float ball is located above the drainage float ball, and the alarm float ball is located below the transfer communication piece.
[0021] By adopting the above technical scheme, when the water level of the wastewater reaches the position of the drainage floating ball, the drainage work can be carried out, and when the water level of the wastewater reaches the position of the warning floating ball, the drainage work is forced to be carried out, and the management personnel is prompted to overhaul.
[0022] Preferably, the side of the sub-cavity partition plate close to the wastewater drainage area is provided with a waterproof baffle, and a wastewater transfer-in cavity with downward outlet is formed between the waterproof baffle and the sub-cavity partition plate.
[0023] By adopting the above technical scheme, because the waterproof baffle is arranged, when the wastewater enters the wastewater drainage area, the water flows downward, so that the wastewater is prevented from impacting the drainage floating ball or the warning floating ball, thereby preventing the drainage work from being started by mistake.
[0024] Preferably, the transfer communication member is a through hole arranged on the sub-cavity partition plate.
[0025] By adopting the above technical scheme, the communication between the wastewater transfer-out cavity and the wastewater drainage area can be realized by simple structure.
[0026] Preferably, the transfer communication member comprises a working turntable and a rotating driving member, the working turntable is rotatably arranged on the sub-cavity partition plate, the working turntable is coaxially provided with a liquid transfer hole, and the rotating driving member is drivingly connected with the working turntable.
[0027] By adopting the above technical scheme, because the mud in the lower layer is gradually accumulated and the oil in the upper layer is gradually accumulated during the working process, the liquid level of the wastewater is also changed, so that the overflow height can be changed by rotating the working turntable, thereby more wastewater can be transferred to the wastewater drainage area.
[0028] Preferably, the transfer communication member comprises a mounting base, a working slide and a sliding driving member, the mounting base is arranged on the sub-cavity partition plate, the mounting base is provided with a mounting cavity, the mounting cavity is provided with a total through hole, the total through hole is arranged along the vertical direction, and the total through hole is in communication with the oil separation area or the wastewater drainage area; the working slide is vertically slidably arranged in the mounting cavity, the working slide cuts off the communication between the total through hole and the mounting cavity, the working slide is provided with a liquid transfer hole in communication with the total through hole, and a plurality of working slides are arranged in the horizontal direction; the sliding driving member is built in the mounting base, and the sliding driving member is connected with the working slide.
[0029] By adopting the technical scheme, the mud in the lower layer is different in thickness at different positions, so the thickness of the water in the middle is also different, and therefore the different working slides can be placed at different heights by the sliding driving member, so the overflow height at different positions can be changed according to the thickness of the water at different positions, and thus the waste water can be more fully transferred to the waste water discharge area.
[0030] In a second aspect, the application provides a pump station, which adopts the following technical scheme:
[0031] The pump station comprises an integrated vacuum oil separation tank, a support, a vacuum pump and a sewage pump, the support is provided for mounting the vacuum oil separation tank, the vacuum pump is connected in communication with the vacuum pipe, and the sewage pump is connected in communication with the oil separation area and the waste water discharge area.
[0032] By adopting the technical scheme, the vacuum pump realizes negative pressure on the tank body, so that oil water can flow into the tank body, and the sewage pump is used for discharging sewage or a mixture of oil and sludge.
[0033] In summary, the application has at least one of the following beneficial technical effects:
[0034] 1. In operation, the liquid storage cavity is first placed in a negative pressure state through the vacuum pipe, so that the oil-containing waste water enters the oil separation area, then the oil separation baffle separates the oil in the upper layer and allows the waste water in the lower layer to enter the waste water transfer cavity from bottom to top, and then flows into the waste water discharge area through the transfer communication member, so as to realize oil-water separation. In summary, the waste water discharge area and the oil separation area are combined and arranged in one tank body by means of the oil separation baffle, and the waste water can enter the waste water discharge area by overflow, so that an additional pump is not needed to realize the transfer of waste water, thereby the device is small in size, occupies less space and is low in cost. In addition, a pump is not needed to send the oil-containing waste water into the tank body, and damage to the pump can also be avoided to reduce maintenance cost.
[0035] 2. The oil-containing waste water vertically enters the oil separation area and enters the splash prevention cavity, so that the splashing or impact can be avoided to make the settled stratified liquid shake, so that the oil-containing waste water can be mixed with the stratified liquid in the tank more gently to achieve better separation effect.
[0036] 3. Due to the arrangement of the water separation baffle, when the waste water enters the waste water discharge area, the water flows downward, so that the waste water is prevented from impacting the drainage float ball or the warning float ball, thereby preventing the drainage work from being started by mistake. BRIEF DESCRIPTION OF DRAWINGS
[0037] Figure 1 is a sectional view of the integrated vacuum oil separation tank in the embodiment 1 of the application.
[0038] Figure 2is a schematic diagram of the cooperation structure among the cavity partition plate, the oil separation baffle and the water separation baffle in Embodiment 1 of the present application.
[0039] Figure 3 is a schematic diagram of the specific structure of the transfer communication member in Embodiment 2 of the present application.
[0040] Figure 4 is a schematic diagram of the specific structure of the transfer communication member in Embodiment 3 of the present application.
[0041] Figure 5 is a schematic diagram of the installation position of the stirring blade in the liquid storage cavity in Embodiment 4 of the present application.
[0042] Figure 6 is a schematic diagram of the pump station in the present application.
[0043] Figure 7 is a schematic diagram of the pump station when the oil separation tank is vertically arranged in other embodiments of the present application.
[0044] Figure 8 is a schematic diagram of the pump station when the oil separation tank is horizontally arranged in other embodiments of the present application.
[0045] BRIEF DESCRIPTION OF THE DRAWINGS: 1, tank body; 11, liquid storage cavity; 12, oil-water inlet; 2, cavity partition plate; 21, oil separation area; 22, waste water discharge area; 221, water discharge float ball; 222, warning float ball; 3, oil separation baffle; 31, waste water transfer-out cavity; 4, transfer communication member; 41, working turntable; 42, mounting base; 421, mounting cavity; 422, general through hole; 43, working sliding seat; 5, vacuum pipe; 51, stirring blade; 6, drainage partition plate; 61, splash-proof cavity; 7, water separation baffle; 71, waste water transfer-in cavity; 8, liquid transfer hole; 9, support; 91, vacuum pump; 92, sewage pump. DETAILED DESCRIPTION
[0046] The following will be described in detail with reference to the accompanying drawings. Figures 1-8 The present application will be further described in detail.
[0047] The present application discloses an integrated vacuum oil separation tank.
[0048] Embodiment 1
[0049] Reference will be made to Figure 1 and Figure 2The integrated vacuum oil separation tank comprises a tank body 1, a cavity separation plate 2, an oil separation baffle 3, a transfer communication piece 4 and a vacuum pipe 5. The tank body 1 has a liquid storage cavity 11. The cavity separation plate 2 is arranged in the liquid storage cavity 11 to divide the liquid storage cavity 11 into an oil separation area 21 and a wastewater discharge area 22. The oil separation baffle 3 is connected to one side of the cavity separation plate 2 close to the oil separation area 21. An wastewater transfer cavity 31 is formed between the oil separation baffle 3 and the cavity separation plate 2. The inlet of the wastewater transfer cavity 31 faces downward, that is, water needs to enter the wastewater transfer cavity 31 from bottom to top. The transfer communication piece 4 is a through hole arranged on the cavity separation plate 2. The transfer communication piece 4 is in communication with the wastewater transfer cavity 31. The position of the transfer communication piece 4 is higher than the inlet of the wastewater transfer cavity 31. One end of the vacuum pipe 5 is in communication with the liquid storage cavity 11, and the other end is in communication with an external power source, so that the liquid storage cavity 11 can be in a negative pressure state.
[0050] With reference to Figure 1 and Figure 2 , the working process is as follows. First, the liquid storage cavity 11 is in a negative pressure state through the vacuum pipe 5, so that the oil-containing wastewater enters the oil separation area 21. Then, the oil separation baffle 3 separates the oil in the upper layer and allows the wastewater in the lower layer to enter the wastewater transfer cavity 31 from bottom to top. Then, the wastewater flows into the wastewater discharge area 22 through the transfer communication piece 4, so that oil-water separation can be realized. In summary, the oil separation baffle 3 is used to combine the wastewater discharge area 22 and the oil separation area 21 in one tank body 1. The wastewater enters the wastewater discharge area 22 by overflow, so a pump is not needed, thereby reducing the volume, saving the land occupation and lowering the cost. In addition, since the pump is not needed to send the oil-containing wastewater into the tank body 1, the damage of the pump can be avoided, thereby reducing the maintenance cost.
[0051] With reference to Figure 1 and Figure 2 , considering that the wastewater is transferred from the oil separation area 21 to the wastewater discharge area 22 by overflow, and the oil-containing wastewater enters the tank body 1 by allowing the tank body 1 to be in a negative pressure state, in order to make the wastewater flow smoothly from the oil separation area 21 to the wastewater discharge area 22, the cavity separation plate 2 does not completely separate the liquid storage cavity 11 into two regions that are not in communication with each other, but partially separates the liquid storage cavity 11. Specifically, the cavity separation plate 2 is spaced apart from the upper inner wall of the liquid storage cavity 11. Therefore, when the negative pressure treatment is performed through the vacuum pipe 5, the pressure between the oil separation area 21 and the wastewater discharge area 22 can be better balanced, and the subsequent wastewater can flow more smoothly into the wastewater discharge area 22 by overflow.
[0052] With reference to Figure 1 and Figure 2In order to prevent the oil-containing wastewater from entering the oil separation area 21 and greatly stirring the already precipitated layered liquid, the following is provided: the upper side of the oil tank is provided with an oil-water inlet 12, the oil-water inlet 12 is in communication with the oil separation area 21, the oil-water inlet 12 is close to the vertical side wall of the liquid storage cavity 11, meanwhile, the inner wall of the liquid storage cavity 11 is provided with a drainage baffle 6, the drainage baffle 6 and the inner wall of the liquid storage cavity 11 form a splash-proof cavity 61, the splash-proof cavity 61 is tubular, the splash-proof cavity 61 is coaxially communicated with the oil-water inlet 12, then the oil-containing wastewater will enter the oil separation area 21 vertically and also enter the splash-proof cavity 61, so that splashing or impact to make the precipitated layered liquid shake can be avoided, so that the oil-containing wastewater can be more gently mixed with the layered liquid in the tank body 1, and a better separation effect can be achieved.
[0053] With reference to Figure 1 and Figure 2 In the embodiment, the wastewater drainage area is further provided with a drainage float ball 221 and an alarm float ball 222, wherein the alarm float ball 222 is located above the drainage float ball 221, but the alarm float ball 222 is located below the transfer communication piece 4, when the water level of the wastewater reaches the position of the drainage float ball 221, the drainage work can be started, when the water level of the wastewater reaches the position of the alarm float ball 222, the drainage work is forced to be carried out, and the management personnel is prompted to overhaul.
[0054] With reference to Figure 1 and Figure 2 In order to prevent the wastewater from directly impacting the drainage float ball 221 and the alarm float ball 222 when entering the wastewater drainage area 22, and misstarting the drainage work, the water-blocking baffle 7 is arranged close to the wastewater drainage area of the cavity separation plate 2, the water-blocking baffle 7 and the cavity separation plate 2 form a wastewater transfer-in cavity 71 with the outlet downward, when the wastewater enters the wastewater drainage area 22, the water flows downward, so that the wastewater is prevented from impacting the drainage float ball 221 or the alarm float ball 222, thereby the misstarting of the drainage work can be prevented.
[0055] The implementation principle of the integrated vacuum oil separation tank in the embodiment is as follows: in the working process, the liquid storage cavity 11 is first in a negative pressure state through the vacuum pipe 5, so that the oil-containing wastewater enters the oil separation area 21, then the oil separation baffle 3 separates the oil in the upper layer and makes the wastewater in the lower layer enter the wastewater transfer-out cavity 31 from bottom to top, and then flows into the wastewater drainage area 22 through the transfer communication piece 4, so that the oil-water separation is realized, in summary, the wastewater drainage area 22 and the oil separation area 21 are combined and arranged in the tank body 1 by means of the oil separation baffle 3, and the wastewater can enter the wastewater drainage area 22 in the form of overflow, so that an additional pump is not needed to realize the transfer of the wastewater, thereby the equipment is small in size, occupies less land, and is low in cost, in addition, a pump is not needed to send the oil-containing wastewater into the tank body 1, and the damage of the pump can be avoided, thereby the maintenance cost is reduced.
[0056] Embodiment 2
[0057] Reference Figure 3 The difference from Embodiment 1 is that the transfer communication member 4 comprises a working turntable 41 and a rotating driving member, the working turntable 41 is arranged to rotate through the partition plate 2, the working turntable 41 is arranged with the liquid transfer hole 8 in a non-coaxial manner, and the rotating driving member is connected with the working turntable 41. During the working process, the mud in the lower layer is gradually accumulated, the oil in the upper layer is gradually accumulated, and the liquid level of the wastewater is also constantly changed. At this time, the overflow height can be changed by rotating the working turntable 41, so that more wastewater can be fully transferred to the wastewater discharge area 22.
[0058] Embodiment 3
[0059] Reference Figure 4 The difference from Embodiment 1 is that the transfer communication member 4 comprises a mounting base 42, a working slide 43 and a sliding driving member. The mounting base 42 is arranged to pass through the partition plate 2, the mounting base 42 is provided with a mounting cavity 421, the mounting cavity 421 is provided with a total through hole 422, one mounting cavity 421 has two total through holes 422, one total through hole 422 is connected with the oil separation area 21, and the other is connected with the wastewater discharge area 22. A plurality of mounting cavities 421 are distributed along the horizontal direction. The working slide 43 is vertically arranged in the mounting cavity 421, one working slide 43 corresponds to one mounting cavity 421, the working slide 43 completely cuts off the communication between the total through hole 422 and the mounting cavity 421, the working slide 43 is provided with a liquid transfer hole 8 connected with the total through hole 422. The sliding driving member is arranged in the mounting base 42, the sliding driving member is connected with the working slide 43, and the sliding driving member is used to drive the working slide 43 to move up and down.
[0060] Reference Figure 4 During the working process, the thickness of the mud in the lower layer is different at different positions, so the thickness of the water in the middle is also different. Therefore, the sliding driving member can be used to make different working slides 43 at different heights, so that the overflow height at different positions can be changed according to the thickness of the water at different positions, so that the wastewater can be more fully transferred to the wastewater discharge area 22.
[0061] Embodiment 4
[0062] Reference Figure 5 The difference from Embodiment 1 is that, in order to prevent the mud in the lower layer from solidifying, the vacuum pipe 5 is arranged to pass into the liquid storage cavity 11 from bottom to top, and the vacuum pipe 5 is provided with a stirring blade 51 at a position lower than the inlet of the wastewater transfer cavity 31. During the working process, the vacuum pipe 5 can be slowly rotated to prevent the mud from solidifying, so that the oil and mud can be directly pumped out subsequently.
[0063] The embodiment of the application also discloses a pump station.
[0064] With reference to Figure 6 The pump station comprises the integrated vacuum oil separation tank, the bracket 9, the vacuum pump 91 and the sewage pump 92 in the foregoing embodiments. The overall shape of the oil separation tank is cylindrical. The bracket 9 is provided for mounting the vacuum oil separation tank. The vacuum pump 91 is connected with the vacuum pipe 5. The sewage pump 92 is connected with the oil separation area 21 and the wastewater discharge area 22. In the embodiments of the present application, the oil separation tank is vertically arranged. One vacuum pump 91 is provided. The vacuum pump 91 is horizontally arranged below the oil separation tank. Therefore, the vacuum pipe 5 penetrates into the oil separation tank from bottom to top. One sewage pump 92 is provided. The sewage pump 92 is vertically arranged on the side of the oil separation tank.
[0065] With reference to Figure 7 In other embodiments, the following distribution modes can be used. In the case of vertical arrangement of the oil separation tank, the vacuum pump 91 and the sewage pump 92 can be horizontally arranged below the oil separation tank. One or more vacuum pumps 91 and sewage pumps 92 can be provided. In the case of vertical arrangement of the oil separation tank, the vacuum pump 91 can be horizontally arranged below the oil separation tank. The sewage pump 92 can be vertically arranged on the side of the oil separation tank. Multiple vacuum pumps 91 and sewage pumps 92 can be provided.
[0066] With reference to Figure 8 In the case of horizontal arrangement of the oil separation tank, the vacuum pump 91 and the sewage pump 92 can be horizontally arranged below the oil separation tank. Multiple vacuum pumps 91 and sewage pumps 92 can be provided. In the case of horizontal arrangement of the oil separation tank, the vacuum pump 91 can be horizontally arranged below the oil separation tank. The sewage pump 92 can be vertically arranged on the side of the oil separation tank. Multiple vacuum pumps 91 and sewage pumps 92 can be provided.
[0067] The above are preferred embodiments of the present application, and do not limit the protection scope of the present application. Therefore, equivalent changes made on the basis of the structure, shape and principle of the present application should be covered within the protection scope of the present application.
Claims
1. An integrated vacuum sealed oil tank, characterized by: The utility model relates to a kind of oil-water separation device, including: Tank body (1) is provided with liquid storage cavity (11); Cavity partition (2) is arranged in the liquid storage cavity (11), for being divided into oil separation area (21) and waste water discharge area (22); Oil baffle (3) is connected in the cavity partition (2) near the oil separation area (21) side, and the oil baffle (3) is formed with the waste water transfer chamber (31) with downward inlet between the cavity partition (2); Transfer communication member (4) is arranged on the cavity partition (2), and the transfer communication member (4) is communicated with the waste water transfer chamber (31), and the position of the transfer communication member (4) is higher than the inlet of the waste water transfer chamber (31); Vacuum tube (5) is communicated with the liquid storage cavity (11) at one end, and the other end is used to be connected with external power source; The cavity partition (2) and the upper side inner wall of the liquid storage cavity (11) exist spacing; The vacuum tube (5) is rotatably arranged, and the vacuum tube (5) penetrates into the oil separation area (21) from bottom to top, and the vacuum tube (5) is provided with stirring blade (51) at the position lower than the inlet of the waste water transfer chamber (31); The transfer communication member (4) includes mounting base (42), working slide (43) and sliding drive element, the mounting base (42) is arranged on the cavity partition (2), and the mounting base (42) is provided with mounting cavity (421), and the mounting cavity (421) is provided with total through-hole (422), and the total through-hole (422) is vertically arranged, and the total through-hole (422) is communicated with the oil separation area (21) or the waste water discharge area (22);The working slide (43) is vertically slidably arranged in the mounting cavity (421), and the working slide (43) cuts off the communication between the total through-hole (422) and the mounting cavity (421), and the working slide (43) is provided with liquid transfer hole (8) communicated with the total through-hole (422), and a plurality of working slides (43) are horizontally arranged;The sliding drive element is built in the mounting base (42), and the sliding drive element is connected with the working slide (43).
2. The integrated vacuum insulated oil tank according to claim 1, characterized in that: The upper side of the tank body (1) is provided with oil-water inlet (12), and the oil-water inlet (12) is communicated with the oil separation area (21), and the oil-water inlet (12) is close to the vertical side wall of the liquid storage cavity (11);The inner wall of the liquid storage cavity (11) is provided with drainage baffle (6), and the drainage baffle (6) and the inner wall of the liquid storage cavity (11) form splash-proof chamber (61), and the splash-proof chamber (61) is tubular, and the splash-proof chamber (61) is coaxially communicated with the oil-water inlet (12).
3. The integrated vacuum insulated oil tank of claim 1, wherein: The waste water discharge area (22) is provided with drainage float ball (221) and warning float ball (222), and the warning float ball (222) is located above the drainage float ball (221), and the warning float ball (222) is located below the transfer communication member (4).
4. The integrated vacuum insulated oil tank according to claim 3, characterized in that: The water-proof baffle (7) is arranged on one side of the sub-cavity partition plate (2) close to the wastewater discharge area (22), and a wastewater transfer-in cavity (71) with a downward outlet is formed between the water-proof baffle (7) and the sub-cavity partition plate (2).
5. The integrated vacuum insulated oil tank of claim 1, wherein: The transfer communication member (4) is a through hole arranged on the sub-cavity partition plate (2).
6. The integrated vacuum insulated oil tank of claim 1, wherein: The transfer communication member (4) comprises a working turntable (41) and a rotating driving member, the working turntable (41) is arranged to rotate through the sub-cavity partition plate (2), the working turntable (41) is arranged with a liquid transfer hole (8) in a non-coaxial manner, and the rotating driving member is drivingly connected with the working turntable (41).
7. A pump station characterized by: The integrated vacuum oil separation tank, a support (9), a vacuum pump (91) and a sewage pump (92) are included, the support (9) is arranged for mounting the vacuum oil separation tank, the vacuum pump (91) is connected with the vacuum pipe (5), and the sewage pump (92) is connected with the oil separation area (21) and the wastewater discharge area (22).
Citation Information
Patent Citations
Oil-water separating tank for kitchen wastewater
CN109011711A
Oil water separator for industrial waste water
CN207391060U