Oil diagnosis monitoring equipment and monitoring method thereof

Abstract

The invention belongs to the technical field of oil liquid monitoring, and particularly relates to oil liquid diagnosis monitoring equipment and a monitoring method thereof. Comprising an equipment box; a working cavity is formed in the equipment box, and a multi-cavity efficiency improving device is arranged in the working cavity; the multi-cavity efficiency improving device comprises a concentric-square-shaped sliding groove, and the concentric-square-shaped sliding groove is formed in the inner bottom face of the working cavity. A plurality of positioning sliding blocks are connected into the concentric-square-shaped sliding groove in a sliding mode, a bearing base table is installed on the tops of the positioning sliding blocks, and a bearing container is arranged on the bearing base table and used for loading oil liquid; by means of the multi-cavity efficiency improving device, the situation that a large amount of time needs to be spent on cleaning a container containing oil liquid when the equipment detects different kinds of oil liquid is avoided, the oil liquid detection efficiency of the equipment is improved, and the situation that the detection result of the equipment on the oil liquid is affected due to the fact that residues left in the last detection are mixed with the oil liquid needed in the current detection is further avoided; the monitoring effect of the equipment is improved, and the limitation of the equipment in use is reduced.

Description

Technical Field

[0001] The present invention belongs to the technical field of oil fluid monitoring, and specifically relates to an oil fluid diagnosis and monitoring device and a monitoring method thereof. Background Art

[0002] Many devices use oil fluid during operation, and the oil fluid plays key roles such as lubrication, cooling, and sealing. If the performance of the oil fluid deteriorates or it is contaminated, it will cause equipment failures and even lead to safety accidents. Therefore, it is very necessary to perform diagnostic monitoring on the oil fluid, which can timely detect abnormal changes in the oil fluid, take measures in advance to avoid equipment failures caused by oil fluid problems, and ensure the safe and stable operation of the equipment. Oil fluid diagnosis and monitoring is a technical means of obtaining equipment operation status information, judging whether the equipment has failures, and predicting the future operation trend of the equipment by using several sensors to perform various analyses and detections on the oil fluid.

[0003] Since the uses of different types of oil fluids are also different, such as hydraulic oil, lubricating oil, and transformer oil, etc., but when the device monitors different types of oil fluids, the oil fluid needs to be replaced. At this time, the oil fluid in the container needs to be extracted. However, during the use of existing oil fluid diagnosis and monitoring devices, a large amount of time is required to clean the container for loading the oil fluid, resulting in the equipment needing to be shut down for a long time to wait for the cleaning operation of the container, reducing the monitoring efficiency of the equipment for the oil fluid. If not cleaned, the residues left over from the previous monitoring will be mixed with the oil fluid required for this monitoring, thereby affecting the monitoring results of the equipment for this oil fluid and reducing the monitoring effect of the equipment, making the equipment have strong limitations when in use. Summary of the Invention

[0004] In view of the above situation, to overcome the defects of the prior art, the present invention provides an oil fluid diagnosis and monitoring device and a monitoring method thereof, effectively solving the problems in the above background art.

[0005] To achieve the above object, the present invention provides the following technical solution: An oil fluid diagnosis and monitoring device includes an equipment box; a working cavity is provided inside the equipment box, and a multi-chamber efficiency-enhancing device is arranged in the working cavity, and the multi-chamber efficiency-enhancing device is used for detecting different types of oil fluids; the multi-chamber efficiency-enhancing device includes a circular chute, and the circular chute is arranged at the inner bottom surface of the working cavity; a number of positioning sliders are slidably connected in the circular chute, a bearing base platform is installed on the top of the positioning slider, and a bearing container is arranged on the bearing base platform, and the bearing container is used for loading the oil fluid; a fixed-control anti-movement component is also arranged on the bearing base platform, and the fixed-control anti-movement component is used for clamping the bearing container; a positioning semi-tooth ring is also installed on the side surface of the bearing base platform, the positioning semi-tooth ring is meshed with two symmetrical positioning gears, and a cyclic air exchange mechanism is arranged on the positioning gear, and the cyclic air exchange mechanism is used for replacing the residual oil fluid gas in the working cavity.

[0006] Preferably, the multi-chamber efficiency-enhancing device further includes a telescopic gate, one side of the telescopic gate is fixedly installed at the top of the working cavity, and the other side is telescopically arranged; the bottom surface of the working cavity is located at the moving path of the telescopically arranged side of the telescopic gate; the telescopic gate is used to divide the working cavity into a detection area and a cleaning area; both sides of the circular chute are arranged in a 360° semi-circular shape, and the two centers are collinear and symmetrically arranged with the telescopic gate as the axis of symmetry.

[0007] Preferably, several sensors for detecting the oil fluid are installed at the top of the detection area; a telescopic cylinder is installed at the top of the cleaning area, a cross-shaped displacement platform is installed at the output end of the telescopic cylinder, a slidable displacement block is installed on the cross-shaped displacement platform, and a cleaning roller is rotatably installed on one side of the displacement block close to the bottom of the cleaning area. The cleaning roller is used to clean the inner wall of the carrying container after the detection is completed and the discharge is completed.

[0008] Preferably, the fixed-control anti-movement assembly includes a T-shaped substrate installed on the side of the carrying base, a gas storage square cylinder is further installed on the side of the T-shaped substrate away from the carrying base, guide cylinders communicated with it are installed on opposite sides of the gas storage square cylinder, a guide cylinder is slidably connected with a guide cylinder, and guide plates are installed at the opposite ends of the two guide cylinders; a guide spring is sleeved on the outer wall of the guide cylinder, one end of the guide spring is fixedly connected with the gas storage square cylinder, and the other end is fixedly connected with the guide plate. One ends of two bending square columns are installed on the opposite sides of the two guide plates, and the other ends of the two bending square columns all face the carrying container.

[0009] Preferably, an anti-movement cross plate is further installed at the end of the bending square column facing the carrying container, two symmetric anti-movement columns are installed through the side of the anti-movement cross plate close to the carrying container, and the anti-movement columns are slidably matched with the anti-movement cross plate; the ends of the two anti-movement columns close to the carrying container are jointly connected with an arc-shaped clamp block, and an energy-absorbing rubber pad is further arranged on the side of the arc-shaped clamp block close to the carrying container. The side wall of the carrying container is located at the moving path of the energy-absorbing rubber pad; an anti-movement spring is sleeved on the anti-movement column, one end of the anti-movement spring is fixedly connected with the arc-shaped clamp block, and the other end is fixedly connected with the anti-movement cross plate; electromagnetic sheets are arranged on the opposite surfaces of the anti-movement cross plate and the arc-shaped clamp block, and the two electromagnetic sheets are electrically connected.

[0010] Preferably, a gas storage square column is slidably connected inside the gas storage square cylinder. One end of a compression spring is installed at the end of the gas storage square column close to the T-shaped substrate, and the other end of the compression spring is fixedly connected to the inner wall of the gas storage square cylinder; the compression spring is located inside the gas storage square cylinder; a pull plate is also installed at the end of the gas storage square column away from the T-shaped substrate; a number of through lock control slots are provided at the top of the gas storage square column; lock control bases are also installed on both sides of the gas storage square cylinder, and lock control cylinders are installed through the tops of the lock control bases. The lock control cylinders are slidably matched with the lock control bases; the endpoints of the two lock control cylinders are jointly connected to a lock control cross plate. A pull ring is installed on the side of the lock control cross plate away from the gas storage square cylinder, and a lock control insert block is installed on the side close to the gas storage square cylinder. The lock control insert block penetrates through the gas storage square cylinder and is connected to one of the lock control slots; a lock control spring is sleeved on the lock control cylinder. One end of the lock control spring is fixedly connected to the lock control base, and the other end is connected to a lock control limit plate. The lock control limit plate is fixedly installed at the end of the lock control cylinder away from the lock control cross plate.

[0011] Preferably, the cyclic ventilation mechanism includes a positioning rotating shaft installed on the positioning gear. One end of the positioning rotating shaft is rotatably connected to the working cavity, and the other end is connected to a transmission bevel gear. The transmission bevel gear is meshed with a rotating bevel gear. A rotating shaft is installed on the rotating bevel gear, and a rotating base is installed on the rotating shaft. The rotating base is fixedly installed inside the working cavity; a rotating disc is also installed at the end of the rotating shaft away from the rotating bevel gear.

[0012] Preferably, rotating cylinders are installed on the opposite sides and close to the edges of the two rotating discs; a rectangular cross block is also provided on the side of the rotating disc away from the rotating bevel gear. A through rotating chute is provided on the side of the rectangular cross block close to the rotating disc. The rotating chute is slidably connected to the rotating cylinder; two symmetric limiting square columns are installed on the top of the rectangular cross block. The two limiting square columns are jointly slidably connected to a limiting base. The limiting base is fixedly installed on the rotating base; a reciprocating square plate is installed at the bottom of the rectangular cross block; an air exchange square box is installed on the inner bottom surface of the working cavity.

[0013] Preferably, an air exchange square groove penetrating through to the inside of the working cavity is installed at the bottom of the equipment box, and a main valve is installed inside the air exchange square groove; the air exchange square groove is communicated with the air exchange square box; the reciprocating square plate is slidably arranged inside the air exchange square box; a secondary valve is also installed at the side wall of the air exchange square box. The secondary valve is located between the main valve and the reciprocating square plate, and the moving path of the reciprocating square plate does not exceed the secondary valve; a filtering square plate is also installed at the bottom of the equipment box. The filtering square plate is installed on the air exchange square groove.

[0014] The present invention also provides an oil liquid diagnosis and monitoring method, including the following steps:

[0015] S1. The oil is loaded into the carrier container for detection operations. The multi-chamber efficiency-enhancing device is used to avoid the need for the equipment to shut down for a long time when detecting different types of oil.

[0016] S2. The fixed-control anti-movement component is used to clamp and set the carrier container loaded with oil, avoiding the decline in detection accuracy caused by the shaking of the carrier container during use.

[0017] S3. The operation of the cyclic ventilation mechanism is used to simultaneously remove the residual oil smell in the working cavity when replacing different types of oil, avoiding the misjudgment of the detection results by the equipment due to the cross-mixing of smells when detecting different types of oil.

[0018] As can be seen from the above, the oil diagnosis and monitoring equipment provided by the present invention synchronizes the detection of oil and the cleaning operation of the carrier container loaded with oil, and this process can be completed without the intervention of staff, reducing the work intensity of the staff. When the equipment detects different types of oil, it can avoid spending a large amount of extra time cleaning the container loaded with oil, and the equipment does not need to shut down for a long time to wait for the cleaning operation of the container, thus improving the detection efficiency of the equipment for oil. The carrier container can be in a clean state to load the next round of oil for detection, further avoiding the residue left from the previous detection from mixing with the oil required for this detection and affecting the detection results of the equipment for this oil, improving the monitoring effect of the equipment, and reducing the limitations of the equipment during use. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The drawings are used to provide a further understanding of the present invention and constitute a part of the specification. They are used together with the embodiments of the present invention to explain the present invention and do not constitute a limitation to the present invention.

[0020] In the drawings:

[0021] Figure 1 is one of the overall structural schematic diagrams of the present invention;

[0022] Figure 2 is the second overall structural schematic diagram of the present invention;

[0023] Figure 3 is the sectional view of the return chute of the present invention;

[0024] Figure 4 is the structural schematic diagram of the positioning semi-tooth ring of the present invention;

[0025] Figure 5 is the structural schematic diagram of the carrier container of the present invention;

[0026] Figure 6 is the internal structural schematic diagram of the equipment box of the present invention;

[0027] Figure 7 Schematic diagram of the filter square plate structure of the present invention;

[0028] Figure 8 Schematic diagram of the cleaning drum structure of the present invention;

[0029] Figure 9 Cross-sectional view of the air storage square cylinder of the present invention;

[0030] Figure 10 Exploded view of the positioning slider of the present invention;

[0031] Figure 11 Schematic diagram of the arc-shaped clamping block structure of the present invention;

[0032] In the figure: 1. Equipment box; 2. Working cavity; 3. Rectangular chute; 4. Positioning slider; 5. Bearing base; 6. Bearing container; 7. Positioning semi-toothed ring; 8. Positioning gear; 9. Telescopic gate; 10. Sensor; 11. Telescopic cylinder; 12. Cross-shaped displacement platform; 13. Displacement square; 14. Cleaning drum; 15. T-shaped substrate; 16. Air storage square cylinder; 17. Guide cylinder; 18. Guide cylinder; 19. Guide square plate; 20. Guide spring; 21. Bent square column; 22. Anti-moving horizontal plate; 23. Anti-moving column; 24. Arc-shaped clamping block; 25. Energy-absorbing rubber pad; 26. Anti-moving spring; 27. Electromagnetic sheet; 28. Air storage square column; 29. Extrusion spring; 30. Pulling plate; 31. Locking slot; 32. Locking base; 33. Locking cylinder; 34. Locking horizontal plate; 35. Locking plug; 36. Locking spring; 37. Locking limit plate; 38. Positioning rotating shaft; 39. Driving bevel gear; 40. Rotating bevel gear; 41. Rotating shaft; 42. Rotating base; 43. Rotating disc; 44. Rotating cylinder; 45. Rectangular cross block; 46. Rotating chute; 47. Limiting square column; 48. Limiting base; 49. Reversible square plate; 50. Ventilation square box; 51. Ventilation square groove; 52. Filter square plate. Specific embodiments

[0033] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments; based on the embodiments in the present invention, all other embodiments obtained by those of ordinary skill in the art without making creative efforts belong to the scope of protection of the present invention.

[0034] Embodiment, consisting of Figures 1 to 11Provided, the present invention includes an equipment box 1; a working cavity 2 is provided inside the equipment box 1, and a multi-chamber efficiency-enhancing device is arranged inside the working cavity 2, and the multi-chamber efficiency-enhancing device is used for detecting different types of oil fluids; the multi-chamber efficiency-enhancing device includes a rectangular chute 3, and the rectangular chute 3 is arranged at the inner bottom surface of the working cavity 2; a number of positioning sliders 4 are slidably connected inside the rectangular chute 3, a bearing base 5 is installed at the top of the positioning slider 4, and a bearing container 6 is arranged on the bearing base 5, and the bearing container 6 is used for loading oil fluids; a fixed-control anti-movement assembly is further arranged on the bearing base 5, and the fixed-control anti-movement assembly is used for clamping the bearing container 6; a positioning semi-tooth ring 7 is further installed on the side surface of the bearing base 5, two symmetrical positioning gears 8 are meshed with the positioning semi-tooth ring 7, and a cyclic air exchange mechanism is arranged on the positioning gear 8, and the cyclic air exchange mechanism is used for replacing the residual oil fluid gas inside the working cavity 2; the multi-chamber efficiency-enhancing device further includes a telescopic gate 9, one side of the telescopic gate 9 is fixedly installed at the top of the working cavity 2, and the other side is telescopically arranged; the bottom surface of the working cavity 2 is located at the moving path of the telescopically arranged side of the telescopic gate 9; the telescopic gate 9 is used for dividing the inside of the working cavity 2 into a detection area and a cleaning area; both sides of the rectangular chute 3 are arranged in a 180° semi-circular shape, and the two centers are collinear and symmetrically arranged with the telescopic gate 9 as the axis of symmetry; a number of sensors 10 for detecting oil fluids are installed at the top of the detection area; a telescopic cylinder 11 is installed at the top of the cleaning area, a cross-shaped displacement platform 12 is installed at the output end of the telescopic cylinder 11, a slidable displacement block 13 is installed on the cross-shaped displacement platform 12, and a cleaning roller 14 is rotatably installed on one side of the displacement block 13 close to the bottom of the cleaning area, and the cleaning roller 14 is used for cleaning the inner wall of the bearing container 6 after the detection is completed and the discharge is completed;

[0035] When the equipment detects different types of oil fluids, it needs to use sensors to perform various analyses and detections on the oil fluids. During the detection process of this equipment, for example, the number of bearing containers 6 used is two, and they are symmetrically distributed and move synchronously. It is worth mentioning that the number of bearing containers 6 can be selected by the staff according to the detection requirements as appropriate, including but not limited to two. The more the number, the less the downtime required for the equipment during detection;

[0036] The initial positions of the two bearing containers 6 are respectively located below the cleaning roller 14 and the sensor 10. It is worth mentioning that the sensor 10 can also be installed with a telescopic cylinder 11 and a cross-shaped displacement platform 12 for mobile use, so that the sensor 10 can detect the oil fluids loaded in the bearing container 6 at different positions and heights, reducing the limitations of the equipment during use;

[0037] When one of the carrier containers 6 is located below the sensor 10 for detection, it indicates that the carrier container 6 is within the detection area. Then, the other carrier container 6 is positioned within the cleaning area and below the cleaning drum 14. By operating the telescopic cylinder 11, the height of the cleaning drum 14 can be lowered, enabling it to clean different depths within the carrier container 6. With the cooperation of the cross-shaped displacement platform 12, the cleaning drum 14 can move along the X-axis and Y-axis respectively. Under the action of the programming and control system, the movement of the cleaning drum 14 along the X-axis and Y-axis is precisely controlled, achieving precise movement of the cleaning drum 14 in two axial directions and synthesizing a circular motion trajectory. This allows the cleaning drum 14 to clean along the inner wall of the carrier container 6 as the path, thus completing the cleaning operation of the carrier container 6. During this process, the oil liquid loaded in the other carrier container 6 is located within the working area and is detected by the sensor 10. When the detection of the oil liquid in the carrier container 6 in the working area is completed, it indicates that the carrier container 6 in the cleaning area has been cleaned. At this time, by operating the positioning slider 4 to move along the circular chute 3, and with the retractable gate 9 in the open state, the carrier container 6 originally in the working area gradually moves into the cleaning area and under the cleaning drum 14 to clean the just-detected carrier container 6, preventing the residue left from the previous detection from mixing with the oil liquid required for the current detection and affecting the detection result of the oil liquid by the equipment. At the same time, the carrier container 6 originally in the cleaning area moves to the working area to wait for detection by the sensor 10, enabling the equipment to detect the oil liquid and clean the carrier container 6 loaded with the oil liquid simultaneously. This process can be completed without the intervention of staff, reducing the work intensity of the staff. When the equipment detects different types of oil liquids, it can avoid spending a large amount of extra time cleaning the containers loaded with the oil liquid, eliminating the need for the equipment to stop for a long time waiting for the container cleaning operation, improving the detection efficiency of the equipment for the oil liquid, enabling the carrier container 6 to be in a clean state to load the next round of oil liquid for detection, further preventing the residue left from the previous detection from mixing with the oil liquid required for the current detection and affecting the detection result of the oil liquid by the equipment, enhancing the monitoring effect of the equipment, and reducing the limitations of the equipment during use;

[0038] Meanwhile, the detection of the oil liquid and the cleaning of the carrier container 6 are carried out in different areas respectively. During operation, the retractable gate 9 is operated to isolate the connection between the working area and the cleaning area, preventing the mixing of the two areas and affecting the detection result, thereby improving the accuracy of the equipment's detection of the oil liquid.

[0039] The fixed-control anti-movement component of this embodiment includes a T-shaped substrate 15 installed on the side of the bearing base 5. On the side of the T-shaped substrate 15 away from the bearing base 5, a gas storage square cylinder 16 is also installed. Guide cylinders 17 communicating with it are installed on opposite sides of the gas storage square cylinder 16. A guide cylinder 18 is slidably connected inside the guide cylinder 17. Guide square plates 19 are installed at the opposite ends of the two guide cylinders 18; a guide spring 20 is sleeved on the outer side wall of the guide cylinder 17. One end of the guide spring 20 is fixedly connected to the gas storage square cylinder 16, and the other end is fixedly connected to the guide square plate 19. One ends of two bending square columns 21 are installed on the opposite sides of the two guide square plates 19, and the other ends of the two bending square columns 21 face the bearing container 6; one end of an anti-movement cross plate 22 is also installed at the end of the bending square column 21 facing the bearing container 6. Two symmetric anti-movement columns 23 are installed through the side of the anti-movement cross plate 22 close to the bearing container 6. The anti-movement columns 23 are slidably matched with the anti-movement cross plate 22; the ends of the two anti-movement columns 23 close to the bearing container 6 are jointly connected to an arc-shaped clamping block 24. An energy-absorbing rubber pad 25 is also provided on the side of the arc-shaped clamping block 24 close to the bearing container 6. The side wall of the bearing container 6 is located at the moving path of the energy-absorbing rubber pad 25; an anti-movement spring 26 is sleeved on the anti-movement column 23. One end of the anti-movement spring 26 is fixedly connected to the arc-shaped clamping block 24, and the other end is fixedly connected to the anti-movement cross plate 22; electromagnetic sheets 27 are provided on the opposite surfaces of the anti-movement cross plate 22 and the arc-shaped clamping block 24, and the two electromagnetic sheets 27 are electrically connected; a gas storage square column 28 is slidably connected inside the gas storage square cylinder 16. One end of a compression spring 29 is installed at the end of the gas storage square column 28 close to the T-shaped substrate 15, and the other end of the compression spring 29 is fixedly connected to the inner wall of the gas storage square cylinder 16; the compression spring 29 is located inside the gas storage square cylinder 16; a pull plate 30 is also installed at the end of the gas storage square column 28 away from the T-shaped substrate 15; a number of through lock control slots 31 are provided at the top of the gas storage square column 28; lock control bases 32 are also installed on both sides of the gas storage square cylinder 16. A lock control cylinder 33 is installed through the top of the lock control base 32. The lock control cylinder 33 is slidably matched with the lock control base 32; the endpoints of the two lock control cylinders 33 are jointly connected to a lock control cross plate 34. A pull ring is installed on the side of the lock control cross plate 34 away from the gas storage square cylinder 16, and a lock control plug 35 is installed on the side close to the gas storage square cylinder 16. The lock control plug 35 penetrates the gas storage square cylinder 16 and is connected to one of the lock control slots 31; a lock control spring 36 is sleeved on the lock control cylinder 33. One end of the lock control spring 36 is fixedly connected to the lock control base 32, and the other end is connected to a lock control limit plate 37. The lock control limit plate 37 is fixedly installed at the end of the lock control cylinder 33 away from the lock control cross plate 34;

[0040] During the detection or cleaning process of the carrier container 6, to prevent it from shaking due to non-human factors, the air storage square column 28 is driven to move away from the carrier base 5, so that it moves in a limited manner within the air storage square cylinder 16, making the compression spring 29 in a buffered state, causing the inside of the air storage square cylinder 16 to be in a negative pressure state and transmitting it to the guide cylinder 17, so that the suction force generated inside acts on the guide cylinder 18, causing the two guide cylinders 18 to move relative to each other, making the guide spring 20 in a buffered state. Then, under the action of the two bent square columns 21, the two anti-movement cross plates 22 move relative to each other, and under the action of the anti-movement column body 23 and the anti-movement spring 26, the arc-shaped clamping blocks 24 are driven to move towards the carrier container 6 and contact its side wall. The relative movement of the two arc-shaped clamping blocks 24 clamps the carrier container 6, fixing it in place for use. This prevents the oil in the carrier container 6 from shaking due to the impact force caused by non-human factors during detection, and avoids the dislocation phenomenon caused by the force generated during the cleaning of the carrier container 6, improving the stability of the carrier container 6 during use, enabling the oil inside to be stably detected by the sensor 10, enhancing the stability of the equipment during oil detection, and thus improving the accuracy of the detection results, allowing the carrier container 6 to be installed;

[0041] After the arc-shaped clamping block 24 contacts the carrier container 6, the air storage square column 28 is continuously driven to move, so that the anti-movement cross plate 22 continues to move in a limited manner on the anti-movement column body 23, making both the anti-movement spring 26 and the energy-absorbing rubber pad 25 in a buffered state, thereby strengthening the connection strength between the arc-shaped clamping block 24 and the carrier container 6, and preventing the carrier container 6 from being dislocated due to external forces or other factors during use, thus improving the installation effect of the carrier container 6; It is worth mentioning that under the action of the energy-absorbing rubber pad 25, the friction between the arc-shaped clamping block 24 and the carrier container 6 is also increased, further improving the stability of the carrier container 6 during use. At the same time, when the two electromagnetic sheets 27 come into contact, it indicates that the arc-shaped clamping block 24 has fixed and clamped the carrier container 6, preventing the situation of improper installation that may cause the carrier container 6 to be easily dislocated or shaken during use, thereby reducing the limitations of the equipment during use;

[0042] When it is necessary to disassemble and set the carrier container 6, the air storage square column 28 is no longer driven to move. Under the condition that the extrusion spring 29 resets, it drives the air storage square column 28 to reset and move, so that the gas sucked into the air storage square cylinder 16 all resets to its original position, and the gas entering the air storage square cylinder 16 in the guiding cylinder 17 is reset. Thus, the reset gas in the guiding cylinder 17 pushes the guiding cylinder 18 to reset and move, so that the guiding spring 20 is reset, and it drives the anti-moving cross plate 22 to reset and move together, making the two anti-moving cross plates 22 move away from each other, thereby driving the two arc-shaped clamping blocks 24 to move away from the carrier container 6, so as to release the limit setting of the carrier container 6, and thus complete the disassembly operation of the carrier container 6. This makes the installation and disassembly operations of the equipment for the carrier container 6 convenient and fast, and can be completed without any tools, reducing the limitations of the equipment during use, and improving the loading and unloading efficiency and effect of the carrier container 6; enables the equipment to replace carrier containers 6 with different capacities and materials according to different usage requirements, etc. At the same time, the buffer force brought by the energy-absorbing rubber pad 25 and the anti-moving spring 26 can also reduce the impact force on the carrier container 6 during use, further improving the detection effect of the equipment on the oil liquid and the usage effect of the equipment;

[0043] When the equipment needs to install the carrier container 6, it means that it is necessary to drive the air storage square column 28 to move to drive the two arc-shaped clamping blocks 24 to clamp the carrier container 6. At this time, by driving the pull ring to move outwards, the lock control cross plate 34 on it can be limited to move on the lock control base 32 through the lock control cylinder 33, so that the lock control spring 36 is in a buffered state. Then, the lock control cross plate 34 drives the lock control plug 35 on it to move together, so that it can be disengaged from the air storage square cylinder 16 and no longer connected to the lock control slot 31, thereby releasing the limit setting of the air storage square column 28, enabling it to move normally to control the arc-shaped clamping block 24 to clamp the carrier container 6; when the clamping operation of the carrier container 6 is completed, the lock control cross plate 34 is no longer driven to move, and it drives the lock control plug 35 to reset and move through the reset of the lock control spring 36. When it passes through the air storage square cylinder 16, it is connected to one of the lock control slots 31, so that the air storage square column 28 used to control the movement of the arc-shaped clamping block 24 can be limited, avoiding its movement and the movement of the carrier container 6 due to non-human factors during use, improving the usage effect of the carrier container 6, enabling the effect to be better improved when it is loaded with oil liquid for detection, and further reducing the limitations of the equipment during use.

[0044] The reciprocating ventilation mechanism of this embodiment includes a positioning rotating shaft 38 installed on the positioning gear 8. One end of the positioning rotating shaft 38 is rotatably connected to the working cavity 2, and the other end is connected with a transmission bevel gear 39. The transmission bevel gear 39 is meshed with a rotating bevel gear 40. A rotating shaft 41 is installed on the rotating bevel gear 40, and a rotating base 42 is installed on the rotating shaft 41. The rotating base 42 is fixedly installed in the working cavity 2; One end of the rotating shaft 41 away from the rotating bevel gear 40 is also installed with a rotating disc 43; Rotating cylinders 44 are installed on the opposite sides of the two rotating discs 43 and close to their edges; A rectangular cross block 45 is also provided on the side of the rotating disc 43 away from the rotating bevel gear 40. A through rotating chute 46 is provided on the side of the rectangular cross block 45 close to the rotating disc 43. The rotating chute 46 is slidably connected with the rotating cylinder 44; Two symmetrical limiting square columns 47 are installed on the top of the rectangular cross block 45. The two limiting square columns 47 are jointly slidably connected with a limiting base 48. The limiting base 48 is fixedly installed on the rotating base 42; A reciprocating square plate 49 is installed at the bottom of the rectangular cross block 45; A ventilation square box 50 is installed on the inner bottom surface of the working cavity 2; A ventilation square groove 51 penetrating into the working cavity 2 is installed at the bottom of the equipment box 1. A main valve is installed in the ventilation square groove 51; The ventilation square groove 51 is communicated with the ventilation square box 50; The reciprocating square plate 49 is slidably arranged in the ventilation square box 50; A secondary valve is also installed on the side wall of the ventilation square box 50. The secondary valve is located between the main valve and the reciprocating square plate 49, and the moving path of the reciprocating square plate 49 does not exceed the secondary valve; A filtering square plate 52 is also installed at the bottom of the equipment box 1. The filtering square plate 52 is installed on the ventilation square groove 51;

[0045] When the positioning slider 4 moves to the semi-circular part of the square coil groove 3, the positioning slider 4 rotates, and the positioning semi-tooth ring 7 on it also rotates. When the positioning slider 4 moves to the turning point, it will be coaxial with the center of the positioning semi-tooth ring 7, which means that when the center of the laterally moving positioning semi-tooth ring 7 moves to coincide with the semi-circular part of the square coil groove 3, it rotates and meshes with the positioning gear 8 to rotate. Under the action of the positioning rotating shaft 38, the driving bevel gear 39 is driven to rotate, which meshes with the rotating bevel gear 40 to rotate. The rotating shaft 41 on it drives the rotating disc 43 to rotate, so that the rotating cylinder 44 on the rotating disc 43 reciprocates in the rotating chute 46, thereby driving the rectangular cross block 45 to reciprocate. Under the action of the limiting square column 47, it reciprocates at the limiting base 48, thereby driving the reciprocating square plate 49 to reciprocate. It reciprocates in the air exchange box 50 to extract and discharge the oil smell in the working area to the outside, avoiding the oil smell in the working area from accumulating for a long time and easily adhering to the sensor 10, which is likely to change the physical or chemical properties of the sensitive element, thereby affecting the response of the sensor and causing the sensor to produce false judgments or abnormal detection signals. At the same time, when the concentration of the oil smell is too high, it will prevent the target from contacting the sensor, making the concentration detected by the sensor lower than the actual value, resulting in inaccurate detection results. By being able to discharge the smell remaining from the previous batch of oil when other types of oil need to be detected, the above phenomena can be avoided, improving the monitoring effect of the equipment; at the same time, the bearing container 6 in the cleaning area can be loaded with the oil required for the next detection immediately after the cleaning is completed, further improving the detection efficiency of the equipment;

[0046] The specific process of discharging the odor is as follows. When the double-acting square plate 49 moves downward in the ventilation square box 50, the secondary valve is in the closed state at this time, while the main valve is opened, so that the gas in the ventilation square box 50 is discharged. When the double-acting square plate 49 moves back to its original position, the main valve closes, while the secondary valve opens, causing suction to be generated in the ventilation square box 50, enabling the remaining oil odor in the working area to be sucked into the ventilation square box 50 through the secondary valve. Then, through the downward movement of the double-acting square plate 49 again, the oil odor sucked into the ventilation square box 50 can be discharged through the ventilation square groove 51 and the filter square plate 52. Moreover, the movement of the double-acting square plate 49 is reciprocating, continuously and repeatedly discharging the oil odor in the working area, preventing it from affecting the misjudgment of the sensor 10. It is also worth mentioning that since there are two ventilation square boxes 50, the opening and closing states of the valves at the two ventilation square boxes 50 are set oppositely. For example, when the double-acting square plate 49 on the other side moves back to its original position, the secondary valve closes and the main valve opens, enabling the suction generated in the ventilation square box 50 to draw in the external gas through the purification of the filter square plate 52 and enter the ventilation square box 50 through the ventilation square groove 51. When the double-acting square plate 49 moves downward, the secondary valve opens and the main valve closes at this time, allowing the purified gas drawn into the ventilation square box 50 to be discharged into the working area through the secondary valve. One ventilation square box 50 continuously discharges the oil odor in the working area, and the other ventilation square box 50 continuously draws in the purified external gas into the working area, enabling the device to synchronously discharge the remaining odor when detecting different types of oil through the multi-chamber efficiency-enhancing device, purifying the odor in the working area during the process of moving the carrier container 6 in the cleaning area to the working area, further reducing the limitations of the device during use, and thus improving the use effect of the device.

[0047] The present invention also provides an oil diagnosis and monitoring method, including the following steps:

[0048] S1. The oil is loaded in the carrier container 6 for detection operations, and the multi-chamber efficiency-enhancing device is used to avoid the need for the device to stop for a long time when detecting different types of oil;

[0049] S2. The fixed-control anti-movement component is used to clamp and set the carrier container 6 loaded with oil, preventing the shaking of the carrier container 6 during use from causing a decrease in detection accuracy;

[0050] S3. The cyclic ventilation mechanism is operated to jointly discharge the remaining oil odor in the working cavity 2 when replacing different types of oil, preventing the odor from cross-mixing when detecting different types of oil and causing the device to misjudge the detection results.

[0051] It should be noted that in this text, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "comprising", "including" or any other variant thereof are intended to cover non-exclusive inclusion, such that a process, method, article or device comprising a series of elements not only includes those elements but also includes other elements not expressly listed, or elements inherent to such process, method, article or device.

[0052] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An oil diagnostic monitoring device, comprising a device box (1); characterized in that: The equipment box (1) is provided with a working cavity (2), and a multi-cavity efficiency-enhancing device is provided in the working cavity (2), and the multi-cavity efficiency-enhancing device is used to detect different types of oil; the multi-cavity efficiency-enhancing device includes a return slide (3), and the return slide (3) is arranged at the bottom surface of the working cavity (2); a plurality of positioning slide blocks (4) are slidably connected in the return slide (3), and a bearing base (5) is installed on the top of the positioning slide block (4), and a bearing container (6) is provided on the bearing base (5), and the bearing container (6) is used to load oil; a fixed control anti-movement component is also provided on the bearing base (5), and the fixed control anti-movement component is used to clamp the bearing container (6); a positioning semi-toothed ring (7) is also installed on the side of the bearing base (5), and the positioning semi-toothed ring (7) is meshingly connected with two symmetrical positioning gears (8), and a circulating ventilation mechanism is provided on the positioning gear (8), and the circulating ventilation mechanism is used to replace the oil gas remaining in the working cavity (2).

2. The oil diagnostic monitoring device according to claim 1, characterized in that: The multi-cavity efficiency-enhancing device further comprises a telescopic gate (9), one side of which is fixedly mounted on the top of the working cavity (2), and the other side of which is telescopically arranged; the bottom surface of the working cavity (2) is located at the moving path of the telescopic side of the telescopic gate (9); the telescopic gate (9) is used to divide the working cavity (2) into a detection area and a cleaning area; both sides of the circular slide groove (3) are arranged in a 180° semicircular shape, the two circle centers are collinear and are symmetrically arranged with the telescopic gate (9) as the symmetry axis.

3. The oil diagnostic monitoring device according to claim 2, characterized in that: A plurality of sensors (10) for detecting oil are installed on the top of the detection area; a telescopic cylinder (11) is installed on the top of the cleaning area; a cross-shaped displacement platform (12) is installed at the output end of the telescopic cylinder (11); a slidable displacement block (13) is installed on the cross-shaped displacement platform (12); a cleaning roller (14) is rotatably installed on one side of the displacement block (13) close to the bottom of the cleaning area; the cleaning roller (14) is used to clean the inner wall of the carrying container (6) that has been tested and discharged.

4. The oil diagnostic monitoring device according to claim 1, characterized in that: The fixed control anti-movement component comprises a T-shaped base plate (15) mounted on the side of the bearing base (5); a gas storage square cylinder (16) is also mounted on the side of the T-shaped base plate (15) away from the bearing base (5); a guide cylinder (17) connected to the gas storage square cylinder (16) is mounted on the opposite side of the gas storage square cylinder (16); a guide cylinder (18) is slidably connected inside the guide cylinder (17); and guide square plates (19) are mounted on the opposite ends of the two guide cylinders (18); a guide spring (20) is sleeved on the outer wall of the guide cylinder (17); one end of the guide spring (20) is fixedly connected to the gas storage square cylinder (16), and the other end is fixedly connected to the guide square plate (19); one end of a bent square column (21) is mounted on the opposite sides of the two guide square plates (19); and the other ends of the two bent square columns (21) face the bearing container (6).

5. The oil diagnostic monitoring device according to claim 4, characterized in that: An anti-movement horizontal plate (22) is also installed at one end of the bent square column (21) facing the carrying container (6); two symmetrical anti-movement columns (23) are installed through the anti-movement horizontal plate (22) on one side close to the carrying container (6); the anti-movement columns (23) and the anti-movement horizontal plate (22) are slidably matched; the two anti-movement columns (23) are connected to an arc-shaped clamping block (24) at one end close to the carrying container (6); the arc-shaped clamping block (24) is connected to the side close to the carrying container (6) An energy absorbing rubber pad (25) is also provided, and the side wall of the carrying container (6) is located at the moving path of the energy absorbing rubber pad (25); an anti-movement spring (26) is sleeved on the anti-movement column (23), one end of the anti-movement spring (26) is fixedly connected to the arc-shaped clamping block (24), and the other end is fixedly connected to the anti-movement horizontal plate (22); the opposing surfaces of the anti-movement horizontal plate (22) and the arc-shaped clamping block (24) are both provided with electromagnetic sheets (27), and the two electromagnetic sheets (27) are electrically connected.

6. The oil diagnostic monitoring device according to claim 5, characterized in that: A gas storage square column (28) is slidably connected inside the gas storage square tube (16); one end of the gas storage square column (28) close to the T-shaped substrate (15) is installed with one end of a compression spring (29); the other end of the compression spring (29) is fixedly connected to the inner wall of the gas storage square tube (16); the compression spring (29) is located inside the gas storage square tube (16); a pull plate (30) is also installed at one end of the gas storage square column (28) away from the T-shaped substrate (15); a plurality of locking slots (31) are provided through the top of the gas storage square column (28); locking bases (32) are also installed on both sides of the gas storage square tube (16); a locking cylinder (33) is installed through the top of the locking base (32), and the locking cylinder (33) is fixedly connected to the inner wall of the gas storage square tube (16); the locking spring (29) is located inside the gas storage square tube (16); a pull plate (30) is also installed at one end of the gas storage square column (28) away from the T-shaped substrate (15); a plurality of locking slots (31) are provided through the top of the gas storage square column (28); a locking base (32) is installed on both sides of the gas storage square tube (16); a locking cylinder (33) is installed through the top of the locking base (32); the locking cylinder (33) is fixedly connected to the inner wall of the gas storage square tube (16 ... 3) slidably cooperates with the lock control base (32); the endpoints of the two lock control cylinders (33) are commonly connected to a lock control horizontal plate (34); a pull ring is installed on the side of the lock control horizontal plate (34) away from the gas storage square tube (16), and a lock control plug block (35) is installed on the side close to the gas storage square tube (16); the lock control plug block (35) penetrates the gas storage square tube (16) and is connected to one of the lock control slots (31); a lock control spring (36) is sleeved on the lock control cylinder (33), one end of the lock control spring (36) is fixedly connected to the lock control base (32), and the other end is connected to a lock control limit plate (37), and the lock control limit plate (37) is fixedly installed on the end of the lock control cylinder (33) away from the lock control horizontal plate (34).

7. The oil diagnostic monitoring device according to claim 1, characterized in that: The circulating ventilation mechanism comprises a positioning shaft (38) mounted on the positioning gear (8), one end of the positioning shaft (38) being rotationally connected to the working cavity (2), and the other end being connected to a transmission bevel gear (39), the transmission bevel gear (39) being meshingly connected to a rotating bevel gear (40), a rotating shaft (41) being mounted on the rotating bevel gear (40), a rotating base (42) being mounted on the rotating shaft (41), and the rotating base (42) being fixedly mounted in the working cavity (2); a rotating disk (43) is also mounted on the end of the rotating shaft (41) away from the rotating bevel gear (40).

8. The oil diagnostic monitoring device according to claim 7, characterized in that: A rotating cylinder (44) is installed on the opposite sides of the two rotating discs (43) and near their edges; a rectangular cross block (45) is also provided on the side of the rotating disc (43) away from the rotating bevel gear (40); a penetrating rotating slide groove (46) is provided on the side of the rectangular cross block (45) close to the rotating disc (43); the rotating slide groove (46) is slidably connected to the rotating cylinder (44); two symmetrical limiting square columns (47) are installed on the top of the rectangular cross block (45); the two limiting square columns (47) are slidably connected to a limiting base (48), and the limiting base (48) is fixedly installed on the rotating base (42); a double-moving square plate (49) is installed on the bottom of the rectangular cross block (45); and a ventilation square box (50) is installed on the inner bottom surface of the working cavity (2).

9. The oil diagnostic monitoring device according to claim 8, characterized in that: The bottom of the equipment box (1) is provided with a ventilation square groove (51) penetrating into the working cavity (2), and a main valve is installed in the ventilation square groove (51); the ventilation square groove (51) is connected to the ventilation square box (50); the double-acting square plate (49) is slidably arranged in the ventilation square box (50); a secondary valve is also installed on the side wall of the ventilation square box (50), and the secondary valve is located between the main valve and the double-acting square plate (49), and the moving path of the double-acting square plate (49) does not exceed the secondary valve; the bottom of the equipment box (1) is also provided with a filter square plate (52), and the filter square plate (52) is installed on the ventilation square groove (51).

10. An oil diagnostic monitoring method, using the oil diagnostic monitoring device as claimed in claim 1, characterized in that: Includes steps: S1, the oil is loaded into the carrying container (6) for detection operation, and the multi-cavity efficiency-enhancing device is used to avoid the equipment from having to shut down for a long time when detecting different types of oil; S2. Using a fixed control anti-movement component to clamp the carrying container (6) loaded with oil, so as to prevent the carrying container (6) from shaking during use, which may cause a decrease in detection accuracy; S3. The operating cycle ventilation mechanism is used to remove the residual oil smell in the working cavity (2) when changing different types of oil, so as to avoid the cross-mixing of smells when testing different types of oil, which may cause the equipment to misjudge the test results.

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