A high-efficient and convenient ultrasonic cleaning device for electroplated parts

Abstract

The application discloses a kind of efficient and convenient electroplated piece ultrasonic cleaning device, it is related to the technical field of electroplated piece cleaning, including cleaning pool, article assembly, transport component, ultrasonic generator and control system;The cleaning pool has cleaning groove on;The article assembly includes base, article frame, multiple rotating rods and first driving part;The first driving part can drive multiple rotating rods to rotate in the same direction;The transport component includes track and second driving part;The base is slidably connected with the track, the second driving part can control the base to slide along the track, and when the base slides to limit position along the track towards the direction close to the cleaning tank, the article frame can be completely immersed in the cleaning liquid in the cleaning tank.The application is easy to operate, more electroplated pieces can be cleaned at the same time, and the electroplated pieces have better cleaning effect and higher cleaning efficiency.

Description

Technical Field

[0001] This application relates to the technical field of cleaning electroplated parts, and in particular to an efficient and convenient ultrasonic cleaning device for electroplated parts. Background Technology

[0002] Electroplating is a process that uses the principle of electrolysis to plate a thin layer of another metal or alloy onto the surface of certain metals. This process can prevent metal oxidation (such as rust), improve wear resistance, conductivity, reflectivity, corrosion resistance (such as copper sulfate), and enhance aesthetics. Electroplated parts, as the name suggests, are components produced through the electroplating process.

[0003] In order to improve the cleanliness, electroplating effect and environmental friendliness of electroplated parts, and to ensure the quality and performance of subsequent electroplated products, it is necessary to clean the electroplated parts after electroplating to remove dirt, grease, oxides and other impurities from the surface of the electroplated parts.

[0004] Existing, commonly used electroplated parts cleaning solutions in the market use complex mechanical brushing structures for cleaning. This method is not only expensive, but also makes it difficult to guarantee the cleaning effect of electroplated parts, and it is easy to have uneven cleaning results. At the same time, this equipment is inconvenient in terms of placing and recycling electroplated parts during use, and it cannot clean a large number of electroplated parts at one time.

[0005] Therefore, there is an urgent need for a cleaning device for electroplated parts that is easy to use, has good cleaning effect, and high cleaning efficiency. Summary of the Invention

[0006] This application provides an efficient and convenient ultrasonic cleaning device for electroplated parts. It is easy to operate, can clean more electroplated parts at the same time, and has a better cleaning effect and higher cleaning efficiency.

[0007] This application provides a highly efficient and convenient ultrasonic cleaning device for electroplated parts, employing the following technical solution:

[0008] An efficient and convenient ultrasonic cleaning device for electroplated parts includes a cleaning tank, a storage assembly, a transport assembly, an ultrasonic generator, and a control system.

[0009] The cleaning tank has a cleaning trough for holding cleaning fluid; the ultrasonic generator is disposed on the wall of the cleaning trough and is capable of generating ultrasonic waves in the cleaning trough; the control system is disposed outside the cleaning tank and is capable of controlling the placement assembly, the transport assembly and the ultrasonic generator.

[0010] The storage assembly includes a base, a storage frame, multiple rotating rods, and a first driving component. The storage frame is disposed on the base and has a storage space for placing electroplated parts. The cleaning solution in the cleaning tank can pass through the storage frame and enter and exit the storage space. The rotating rods have multiple anti-slip protrusions on their surfaces. The rotating rods are disposed at the bottom of the storage frame and rotatably connected to the storage frame. The multiple rotating rods are parallel to each other and are evenly distributed on the storage frame along a direction perpendicular to the rotation axis of the rotating rods. The first driving component is disposed on the storage frame and can drive the multiple rotating rods to rotate in the same direction.

[0011] The transport component includes a track and a second drive unit; the track is disposed on the cleaning tank, one end of the track extends into the cleaning tank, and the other end of the track is located outside the cleaning tank; the base is slidably connected to the track, the sliding direction of the base is perpendicular to the rotation axis of the rotating rod, and the distribution direction of the plurality of rotating rods on the storage frame is parallel to the sliding direction of the base; the second drive unit is disposed on the track and can control the base to slide along the track, and when the base slides along the track towards the cleaning tank to the limit position, the storage frame can be completely immersed in the cleaning liquid in the cleaning tank.

[0012] By adopting the above technical solution, after placing the electroplated parts to be cleaned into the storage frame, the staff can control the sliding of the storage frame to immerse the electroplated parts in the cleaning solution for ultrasonic cleaning. This effectively facilitates the operation of the staff and allows for the simultaneous cleaning of a larger number of electroplated parts. During the cleaning process, driving multiple rotating rods to rotate facilitates the even distribution of the electroplated parts in the placement space and changes the position of the electroplated parts in the placement space, thereby making the cleaning effect more comprehensive and reducing the probability of impurities remaining on the surface of the electroplated parts. This effectively improves the cleaning effect and efficiency of the electroplated parts.

[0013] Optionally, the track is rotatably connected to the cleaning pool, the rotation axis of the track is parallel to the rotation axis of the rotating rod, and the base can drive the track to rotate as it slides along the track;

[0014] When the track rotates to its limit position in different directions, it is in an inclined state and a horizontal state respectively; when the base slides along the track towards the cleaning tank to its limit position, the track is in an inclined state; when the base slides along the track away from the cleaning tank to its limit position, the track is in a horizontal state.

[0015] By adopting the above technical solution, when the base slides along the track to the outside of the cleaning tank, the track will be in a horizontal state, which makes it convenient for the staff to put the electroplated parts into the storage box more evenly; when the base slides along the track into the cleaning tank, the track will be in an inclined state, which makes it convenient for the electroplated parts located in the storage space to be completely immersed in the cleaning solution; and after the cleaned electroplated parts are sent out, it is also convenient for the staff to take out the concentrated electroplated parts in the storage space.

[0016] Optionally, the first driving component is a fan, and an airflow channel is provided on one side of the bottom of the storage frame in the direction of the axis of the rotating rod, and the fan is disposed in the airflow channel; the end of the rotating rod near the airflow channel has an impeller, the impeller is located in the airflow channel, and when the fan drives the airflow channel to produce gas flow, it can drive multiple impellers to drive multiple rotating rods to rotate.

[0017] By adopting the above technical solution, when the fan drives the airflow to flow in the airflow channel, the airflow can drive multiple impellers to rotate in the same direction, thereby enabling the first driving component to easily achieve the function of driving multiple rotating rods to rotate in the same direction.

[0018] Optionally, two airbags are provided on the outer side of the storage frame, and the two airbags are distributed on the storage frame along the sliding direction of the storage frame;

[0019] The two ends of the airflow channel are respectively connected to the two airbags;

[0020] The fan and the plurality of impellers are located between the two air bags, and the fan can drive the air bags to form gas flow between them and the airflow channel.

[0021] By adopting the above technical solution, during the cleaning process of electroplated parts, the blower drives the airflow in the airflow channel, which in turn drives the two airbags to expand or contract, causing the buoyancy of the two airbags in the cleaning liquid to change. This alters the effect of the airbag buoyancy on the track, allowing the track to rotate repeatedly at a certain amplitude. This increases the frequency of changes in the position and positional state of the electroplated parts in the storage space, thereby further improving the cleaning effect and efficiency of the electroplated parts.

[0022] Optionally, the fan can drive the two airbags to repeatedly expand and contract during operation, with one airbag expanding while the other airbag contracts.

[0023] By adopting the above technical solution, the process of changing the effect of the airbag buoyancy on the track during the cleaning of electroplated parts can be made more uniform, thereby making the process of the track rotating repeatedly at a certain amplitude more uniform, reducing the probability of the electroplated parts leaving the storage space during this process, and also reducing the probability of collision damage when the electroplated parts move in the storage space.

[0024] Optionally, the airflow channel includes multiple direct current channels and multiple guide channels, with each guide channel corresponding to one of the multiple impellers, and the impellers located in the corresponding guide channels; the direct current channel is located between two adjacent guide channels, and both ends of the direct current channel are respectively connected to the two adjacent guide channels;

[0025] After the airflow flows along the direct current channel, it can enter the guide channel in a direction tangential to the rotation direction of the impeller. The guide channel has guide surfaces on both sides corresponding to the radial direction of the impeller. When the track is inclined, the airflow along the guide surface can drive the corresponding rotating rod to rotate, thereby driving the electroplated parts in the storage space to move upward at an inclination.

[0026] By adopting the above technical solution, the fan can drive multiple rotating rods to rotate in the same direction while driving the airflow through the airflow channel. At the same time, it can drive the electroplated parts in the storage space to move, so that the electroplated parts can move upward and then downward in the storage space, thereby further improving the cleaning effect and cleaning efficiency of the electroplated parts.

[0027] Optionally, the trajectory of the DC channel is a straight line and is inclined relative to the sliding direction of the base, and the end of the DC channel near the cleaning tank is the inclined lower end.

[0028] By adopting the above technical solution, the airflow can flow along the direct current channel, and the airflow can maintain a strong wind force, thereby improving the reliability of the process of the impeller driving the rotating rod to rotate after entering the guide channel.

[0029] Optionally, it also includes a collection tank having a collection trough for collecting cleaning liquid from the surface of the electroplated parts. The collection tank is located on one side of the cleaning tank, and the collection trough is located below the portion of the track away from the cleaning trough.

[0030] By adopting the above technical solution, after the electroplated parts are cleaned, they move away from the cleaning tank with the storage frame, and the residual cleaning liquid on the surface of the electroplated parts can fall into the collection tank for collection, thereby reducing the impact of the cleaning liquid dripping on the environment around the cleaning tank.

[0031] Optionally, the interior of one side of the storage frame is provided with several drying channels. The two ends of the drying channels are respectively connected to the fan and the storage space, and the fan can blow air onto the electroplated parts located in the storage space through the drying channels.

[0032] By adopting the above technical solution, the fan can drive the gas to flow along the air drying channel, so that the gas is blown to the surface of the electroplated parts, which helps to remove the cleaning liquid remaining on the surface of the electroplated parts after cleaning, and also helps to remove dust and other impurities from the surface of the electroplated parts to be cleaned.

[0033] Optionally, it also includes a sensor for controlling the fan, the sensor being disposed on the track and located near the rotation axis of the track;

[0034] When the sensor detects that the base is located on the side of the sensor close to the cleaning tank, the sensor can control the fan to drive the airflow in the airflow channel; when the sensor detects that the base is located on the side of the sensor away from the cleaning tank, the sensor can control the fan to drive the airflow in the drying channel.

[0035] By adopting the above technical solution, the operation of the fan can be made more automated. The airflow is driven to flow in the airflow channel or drying channel according to the position of the placement frame on the track. This enables the fan to drive the rotating rod to rotate and the airbag to expand or contract during the cleaning of electroplated parts, thus cleaning the surface of the electroplated parts before and after cleaning.

[0036] In summary, this application includes at least one of the following beneficial effects:

[0037] 1. It allows staff to easily pick up and remove electroplated parts and is easy to operate. It can clean more electroplated parts at the same time and has a better cleaning effect and higher cleaning efficiency.

[0038] 2. During the cleaning process of electroplated parts, the electroplated parts can be evenly distributed in the storage space, and the position and position state of the electroplated parts can be continuously changed, so that the cleaning effect on the electroplated parts is more uniform, thereby effectively improving the cleaning effect and cleaning efficiency of the electroplated parts.

[0039] 3. It can remove dust and other impurities from the surface of electroplated parts before cleaning, which can improve the cleaning efficiency of subsequent electroplated parts cleaning and reduce the pollution of cleaning solution during the electroplating process.

[0040] 4. It can remove residual cleaning solution from the surface of electroplated parts after cleaning, which can speed up the drying efficiency of electroplated parts after cleaning. At the same time, it can collect residual cleaning solution on the surface of electroplated parts, improving the cleanliness of the environment around the cleaning device. Attached Figure Description

[0041] Figure 1 This is a schematic diagram of the structure of an efficient and convenient ultrasonic cleaning device for electroplated parts in an embodiment of this application when the track is in a horizontal state;

[0042] Figure 2 This is a schematic diagram of the structure of an efficient and convenient ultrasonic cleaning device for electroplated parts in an embodiment of this application when the track is tilted.

[0043] Figure 3 This is a cross-sectional view of an efficient and convenient ultrasonic cleaning device for electroplated parts according to an embodiment of this application, when the track is in a horizontal state.

[0044] Figure 4 This is a cross-sectional view of an efficient and convenient ultrasonic cleaning device for electroplated parts according to an embodiment of this application, in which the track is tilted.

[0045] Figure 5 This is a cross-sectional view of the storage component in an embodiment of this application;

[0046] Figure 6 This is a cross-sectional view of the structure on one side of the storage component along its length in an embodiment of this application.

[0047] Explanation of reference numerals in the attached drawings: 1. Cleaning tank; 11. Cleaning trough; 2. Storage assembly; 21. Base; 22. Storage frame; 221. Airflow channel; 222. Direct flow channel; 223. Guide channel; 2231. Guide surface; 224. Drying channel; 23. Rotating rod; 231. Anti-slip protrusion; 232. Impeller; 24. First driving component; 241. Fan; 25. Airbag; 26. Storage space; 3. Transport assembly; 31. Track; 32. Second driving component; 4. Ultrasonic generator; 5. Control system; 6. Liquid collection tank; 61. Liquid collection trough; 7. Sensor. Detailed Implementation

[0048] The following is in conjunction with the appendix Figure 1-6 This application will be described in further detail.

[0049] This application discloses an efficient and convenient ultrasonic cleaning device for electroplated parts, which can clean a large number of electroplated parts at the same time, with high cleaning effect and efficiency, and makes the operation of cleaning electroplated parts more convenient for workers.

[0050] Reference Figure 1 and Figure 2The cleaning device includes a cleaning tank 1, a placement assembly 2, a transport assembly 3, an ultrasonic generator 4, a control system 5, and a collection tank 6. The cleaning tank 1 contains cleaning fluid to clean the electroplated parts. The placement assembly 2 is used to hold a large number of electroplated parts. The transport assembly 3 controls the movement of the placement assembly 2, enabling the electroplated parts to enter and exit the cleaning tank 1. The ultrasonic generator 4 generates ultrasonic waves to clean the electroplated parts entering the cleaning tank 1. The control system 5 allows operators to control the placement assembly 2, the transport assembly 3, and the ultrasonic generator 4. The collection tank 6 collects residual cleaning fluid from the surface of the electroplated parts after cleaning, reducing environmental pollution caused by cleaning fluid dripping around the cleaning device. In this embodiment, since the cleaning fluid is existing technology in the field, its specific type and composition are not further limited.

[0051] The cleaning tank 1 has a rectangular parallelepiped structure, and a cleaning trough 11 for holding the cleaning solution is also rectangular parallelepiped in shape. The length of the cleaning trough 11 is parallel to the length of the cleaning tank 1. An opening for the plated part to enter is formed at the top of the cleaning trough 11, and the liquid level of the cleaning solution in the cleaning trough 11 is close to the top of the cleaning tank 1. In this embodiment, since the cleaning tank 1 is prior art in this field, it will not be described in detail here, and it is only briefly shown in the accompanying drawings. The related structures for changing the cleaning solution are omitted.

[0052] An ultrasonic generator 4 is fixedly installed on the cleaning tank 1 and can generate ultrasonic waves in the cleaning solution of the cleaning tank 11 to perform ultrasonic cleaning on the electroplated parts immersed in the cleaning solution. In this embodiment, the ultrasonic generator 4 is preferably installed on the tank walls on both sides of the width direction of the cleaning tank 11. Since the ultrasonic generator 4 is prior art in this field, it will not be described in detail here, and it is only briefly shown in the accompanying drawings.

[0053] The transport component 3 includes a track 31 and a second drive component 32. The track 31 is used to guide the movement of the storage component 2; the second drive component 32 is used to provide power for the movement of the storage component 2, enabling the storage component 2 to move in and out of the cleaning tank 11.

[0054] The track 31 is a rectangular plate structure with a hollow center. The track 31 is installed on the top of the cleaning tank 1, and the length direction of the track 31 is perpendicular to the width direction of the cleaning tank 1. The track 31 is rotatably connected to the cleaning tank 1 near the center along its own length direction. The axis of rotation of the track 31 is parallel to its own width direction and also parallel to the width direction of the cleaning tank 1.

[0055] The second driving component 32 is fixedly installed at the end of the track 31 away from the cleaning tank 11, and can drive the placement component 2 to move along the length of the track 31. In this embodiment, the second driving component 32 is preferably a servo motor, and preferably the second driving component 32 drives the placement component 2 to move along the track 31 by means of lead screw transmission; since servo motors and lead screw transmissions are common existing technologies, they will not be described in detail here, and are only briefly shown in the accompanying drawings.

[0056] Reference Figure 3 and Figure 4 The track 31 has positional limitations during its rotation relative to the cleaning tank 1, and the track 31 is in a horizontal state and an inclined state when it rotates to two extreme positions relative to the cleaning tank 1.

[0057] When the track 31 is in a horizontal state, the length direction of the track 31 is parallel to the length direction of the cleaning tank 1. The part of the track 31 near the cleaning tank 11 is located above the cleaning tank 11 and above the cleaning liquid. When the second drive member 32 drives the placement component 2 to move to the side of the track 31 away from the cleaning tank 11, the gravity of the placement component 2 can drive the track 31 to rotate to a horizontal state and maintain it, so that after the placement component 2 moves to the end of the track 31 away from the cleaning tank 11, the staff can place the electroplated parts to be cleaned on the placement component 2 or remove the cleaned electroplated parts from the placement component 2.

[0058] When the track 31 is tilted, the end of the track 31 near the cleaning tank 11 is the lower tilt, and most of the part above the cleaning tank 11 can be immersed in the cleaning solution. When the second drive 32 drives the placement assembly 2 to move to the side of the track 31 near the cleaning tank 11, the gravity of the placement assembly 2 can drive the track 31 to rotate to the tilted state and maintain it, so that after the placement assembly 2 moves to the end of the track 31 near the cleaning tank 11, the multiple electroplated parts placed on the placement assembly 2 can be immersed in the cleaning solution and ultrasonically cleaned by the ultrasonic generators 4 on both sides.

[0059] Reference Figure 5 and Figure 6 The storage assembly 2 includes a base 21, a storage frame 22, multiple rotating rods 23, and a first driving member 24. The base 21 provides a connection between the storage assembly 2 and the track 31; the storage frame 22 holds multiple electroplated parts; the rotating rods 23 at the bottom of the storage frame 22 support the electroplated parts and simultaneously drive the electroplated parts to move within the storage frame 22; the first driving member 24 provides power to the multiple rotating rods 23.

[0060] The base 21 is a rectangular plate structure with a hollow center. It is mounted above the track 31, with its length parallel to the width of the track 31, and is slidably connected to the track 31 along its length. In this embodiment, the second driving member 32 preferably drives the storage assembly 2 to move by causing the base 21 to slide along the track 31.

[0061] The storage frame 22 has a rectangular frame structure and is installed above the base 21. It has an upward-opening storage space 26 for placing electroplated parts. The length of the storage frame 22 is parallel to the length of the base 21. After the storage frame 22 is immersed in the cleaning solution, the cleaning solution can enter the storage space 26 from different directions and come into contact with the electroplated parts.

[0062] Rotating rods 23 are installed at the bottom of the storage frame 22. Multiple rotating rods 23 are evenly distributed along the width direction of the storage frame 22, and the electroplated parts in the storage space 26 cannot leave through the space between adjacent rotating rods 23. The rotating rods 23 are cylindrical in shape, and the axis of the rotating rods 23 is parallel to the length direction of the storage frame 22. The rotating rods 23 are rotatably connected to the storage frame 22, and the axis of rotation of the rotating rods 23 coincides with its own axis.

[0063] The surface of the rotating rod 23 is evenly covered with multiple anti-slip protrusions 231, which increases the friction between the electroplated part and the rotating rod 23. When the rotating rod 23 rotates relative to the storage frame 22, the electroplated part in contact with the rotating rod 23 will be in one of two states: first, it will move with the rotating rod 23 and be inserted into the space between two adjacent rotating rods 23 located on one side of the rotating rod 23; second, it will flip over while remaining inserted into the space on one side of the rotating rod 23. Therefore, during the rotation of the rotating rod 23 relative to the storage frame 22, it can drive the electroplated part to move within the storage space 26 and change its own position.

[0064] The first driving component 24 is a fan 241. An airflow channel 221 is provided inside one side of the bottom of the storage frame 22 along its length. The first driving component 24 is fixedly installed in the airflow channel 221 and can drive the airflow to flow along the airflow channel 221. In this embodiment, since the fan 241 is a common prior art, it will not be described in detail here, and it is only briefly shown in the accompanying drawings.

[0065] The airflow channel 221 is opened along the width direction of the storage frame 22, and the fan 241 is fixedly installed at the middle position along the length direction of the airflow channel 221. In this embodiment, it is preferable that the fan 241 forms a blockage in the airflow channel 221 after installation, and the two ends of the fan 241 are respectively connected to the spaces on both sides of the airflow channel 221, and the fan 241 can drive the gas in the space of the airflow channel 221 on one side to flow into the space of the airflow channel 221 on the other side.

[0066] Impellers 232 are fixedly installed at one end of the rotating rod 23 along the axial direction. Multiple impellers 232 are located in the airflow channel 221. When the fan 241 drives the airflow to flow along the airflow channel 221, the force of the airflow on the impellers 232 can drive the corresponding rotating rod 23 to rotate relative to the storage frame 22.

[0067] Reference Figure 4 and Figure 6 Furthermore, since the track 31 is tilted during the cleaning of electroplated parts, the storage frame 22 is also tilted. At this time, the electroplated parts in the storage space 26 will be concentrated at the tilted lower end of the storage space 26, which is not conducive to the electroplated parts being in full contact with the cleaning solution and being fully cleaned by ultrasonic waves. At the same time, there is a possibility that the electroplated parts are too concentrated, causing some of them to fall through the opening of the storage space 26 and fall to the bottom of the cleaning tank 11. This will cause inconvenience to the subsequent removal of the electroplated parts.

[0068] Therefore, it is necessary for the fan 241 to maintain the ability to drive multiple impellers 232 to rotate multiple rotating rods 23 in the same direction while driving the airflow in different directions in the airflow channel 221. This would give the rotating rods 23 a tendency to drive the electroplated parts in the storage space 26 to tilt upwards, so that the electroplated parts are evenly distributed in the storage space 26, thereby improving the cleaning effect and cleaning efficiency of the electroplated parts.

[0069] Reference Figure 5 and Figure 6 The preferred airflow channel 221 includes multiple direct current channels 222 and multiple guide channels 223. The multiple direct current channels 222 and multiple guide channels 223 are distributed at equal intervals and staggered along the width direction of the storage frame 22.

[0070] In this design, multiple guide channels 223 correspond one-to-one with multiple impellers 232, and each impeller 232 is located within its corresponding guide channel 223. Preferably, the guide channel 223 is cylindrical in shape, with its axis coinciding with the axis of the corresponding impeller 232, and a gap existing between the inner wall of the guide channel 223 and the impeller 232. Both inner walls of the guide channel 223 along its radial direction have guide surfaces 2231 for guiding airflow direction. These guide surfaces 2231 are arc-shaped surfaces with a circular trajectory, guiding the airflow along its own arc trajectory within the guide channel 223, thereby helping the airflow drive the impeller 232 to rotate the corresponding rotating rod 23. When airflow enters the guide channel 223 in different directions, the two guide surfaces 2231 can guide the airflow in different directions, ensuring that airflow from different directions entering the guide channel 223 can drive the corresponding rotating rod 23 to rotate in the desired direction.

[0071] Adjacent guide channels 223 are connected by direct current channels 222, and direct current channels 222 are also provided at both ends near the width direction of the storage frame 22. The opening path of the direct current channel 222 is inclined relative to the width direction of the storage frame 22, and the end of the direct current channel 222 near the second drive member 32 is the inclined upper end. The opening path of the direct current channel 222 is tangent to the arc trajectory of the guide channel 223 connected to it, which helps the airflow to continue to flow along the corresponding guide surface 2231 after entering the guide channel 223 along the direct current channel 222, thereby reducing the energy loss during the airflow process.

[0072] Reference Figure 4 and Figure 6 Furthermore, to further enhance the tendency of the electroplated parts to shift or change position within the storage space 26 during the cleaning process, thereby improving the cleaning effect and efficiency, it is preferable that inflatable and retractable airbags 25 are fixedly installed on both sides of the bottom of the storage frame 22 in the width direction. In this embodiment, since the airbags 25 are common prior art, they will not be described in detail here, and only a brief representation is given in the accompanying drawings.

[0073] Airbags 25 are arranged on the shelf frame 22 along the length of the shelf frame 22, and two direct current channels 222 are located near the two ends of the shelf frame 22 in the width direction. The ends of these channels, away from the guide channels 223, are respectively connected to the internal spaces of the two airbags 25. At this time, as the fan 241 drives the airflow along the airflow channels 221, it also drives the gas inside one airbag 25 to flow into the interior of the other airbag 25, so that both airbags 25 can expand or contract.

[0074] Furthermore, during the operation of the preferred fan 241, the direction of the airflow driven by it along the airflow channel 221 will be changed intermittently, so that the deformation trends of the two airbags 25 remain opposite. When one airbag 25 expands, the other airbag 25 will contract, and when one airbag 25 contracts to a deflated state, the other airbag 25 will expand to its maximum state.

[0075] During the cleaning process of electroplated parts, both airbags 25 can be completely immersed in the cleaning solution. Both airbags 25 are affected by buoyancy in the cleaning solution. During the operation of the blower 241, the effect of buoyancy on the two airbags 25 in the cleaning solution will change. The buoyancy of the two airbags 25 in the cleaning solution will drive the track 31 to rotate repeatedly relative to the cleaning pool 1 within a certain range.

[0076] When the airbag 25 furthest from the second drive member 32 inflates to its maximum state, the tilt of the track 31 after being rotated by the buoyancy of the two airbags 25 in the cleaning fluid is minimal; when the airbag 25 closest to the second drive member 32 inflates to its maximum state, the tilt of the track 31 after being rotated by the buoyancy of the two airbags 25 in the cleaning fluid is maximum.

[0077] When the inclination of the track 31 is at its maximum, the electroplated parts in the storage space 26 tend to tilt downwards due to their own weight. At this time, the rotating rod 23 can mainly drive the electroplated parts to flip in the space between adjacent rotating rods 23, and drive the electroplated parts with smaller mass to tilt upwards, so that the electroplated parts are distributed as evenly as possible in the storage space 26, so as to ensure the cleaning effect and cleaning efficiency of the electroplated parts.

[0078] When the inclination of the track 31 is at its minimum, the electroplated parts in the storage space 26 have the least tendency to tilt and move downwards due to their own weight. At this time, the rotating rod 23 can drive the electroplated parts to flip in the space between adjacent rotating rods 23, and can also drive the electroplated parts to tilt and move upwards, so as to make the electroplated parts as evenly distributed as possible in the storage space 26, so as to ensure the cleaning effect and cleaning efficiency of the electroplated parts.

[0079] Reference Figure 1 and Figure 3 The collection tank 6 is fixedly installed on one side of the length direction of the cleaning tank 1, and is located below the end of the track 31 away from the cleaning tank 11. The collection tank 6 is also rectangular in shape, and its length direction is parallel to that of the cleaning tank 1. The collection tank 6 has a collection trough 61 for collecting cleaning fluid. The collection trough 61 is also rectangular in shape, and its length direction is parallel to that of the collection tank 6. The collection trough 61 forms an opening at the top of the collection tank 6, and when the storage frame 22 moves along the track 31 to its limit position in the direction away from the cleaning tank 11, its vertical downward projection can fall into the collection trough 61.

[0080] After the electroplated parts are cleaned, the storage frame 22 will move away from the cleaning tank 11 along the track 31 until the storage frame 22 is located at the end of the track 31 away from the cleaning tank 11 and the track 31 is horizontal. After the electroplated parts leave the cleaning solution, the residual cleaning solution on the surface of the electroplated parts will drip. When the storage frame 22 moves to the side of the track 31 that is away from the cleaning tank 11, the cleaning solution dripping from the surface of the electroplated parts can fall into the collection tank 61 for collection, reducing the impact of the cleaning solution dripping on the environment around the cleaning device.

[0081] Reference Figure 5 and Figure 6 Furthermore, to improve the drying speed of the electroplated parts after cleaning, i.e., to accelerate the disappearance of residual cleaning solution on the surface of the electroplated parts, it is preferable that a plurality of drying channels 224 are also provided on one side of the storage frame 22 in the width direction above the airflow channel 221. In this embodiment, it is preferable that the storage frame 22 has a total of one drying channel 224, and preferably the drying channel 224 has a structure with a single air inlet and multiple branches at the air outlet.

[0082] The air inlet of the air drying channel 224 is connected to the fan 241 and multiple air outlets are connected to the storage space 26. The position of the air outlet of the air drying channel 224 is higher than the highest position of the electroplated parts in the storage space. The multiple air outlets of the air drying channel 224 are evenly distributed on the storage frame 22 along the width direction of the storage frame 22, and the air outlet of the air drying channel 224 is directed towards the top of the electroplated parts located in the storage space 26.

[0083] One end of the fan 241 extends outward to communicate with the outside world, and can drive the outside air into the drying channel 224 and flow along the drying channel 224, and finally blow it to the top surface of the electroplated parts in the storage space 26, so as to accelerate the disappearance of the cleaning liquid remaining on the top surface of the electroplated parts.

[0084] Reference Figure 1 and Figure 5 Since the fan 241 needs to operate in different ways when the placement component 2 moves to different positions along the track 31, driving the airflow along the airflow channel 221 or driving the airflow along the drying channel 224, it is preferable that the control system 5 is signal-connected to the fan 241, the second drive component 32, and the ultrasonic generator 4, so that the operator can control the cleaning device through the control system 5. In this embodiment, the control system 5 is preferably fixedly installed on one side of the width direction of the cleaning tank 1. Since the control system 5 with the above functions is common prior art, it will not be described in detail here, and it is only briefly shown in the accompanying drawings.

[0085] Furthermore, to enhance the level of intelligence and automation during the use of the cleaning device, a sensor 7 is preferably fixedly installed on the track 31 to sense the position of the base 21 on the track 31. The sensor 7 is connected to the fan 241 and the control system 5, allowing operators to control and adjust the operation of the sensor 7 through the control system 5. In this embodiment, the sensor 7 is preferably an infrared sensor. Since infrared sensors are common existing technology, they will not be described in detail here, and are only briefly shown in the accompanying drawings.

[0086] When the sensor 7 detects that the base 21 slides along the track 31 past the rotation axis of the track 31 and is located on the side of the rotation axis of the track 31 closer to the cleaning tank 11, the sensor 7 outputs a signal to the fan 241, controlling the fan 241 to drive the airflow along the airflow channel 221 and change the direction of the airflow at certain time intervals; when the sensor 7 detects that the base 21 slides along the track 31 past the rotation axis of the track 31 and is located on the side of the rotation axis of the track 31 away from the cleaning tank 11, the sensor 7 outputs a signal to the fan 241, controlling the fan 241 to drive the airflow along the air drying channel 224, so that the gas is blown to the top surface of the electroplated parts in the storage space 26.

[0087] Furthermore, when the fan 241 drives the airflow along the drying channel 224, it can have different effects on the electroplated parts in different states in the storage space 26. When the storage space 26 contains electroplated parts to be cleaned, the air blown by the fan 241 through the drying channel 224 can remove dust and other impurities from the surface of the electroplated parts to be cleaned, thereby improving the cleaning efficiency of the subsequent electroplated parts and reducing the degree of contamination of the cleaning solution after cleaning the electroplated parts; when the storage space 26 contains cleaned electroplated parts, the air blown by the fan 241 through the drying channel 224 can accelerate the disappearance of the cleaning solution remaining on the top surface of the electroplated parts.

[0088] The implementation principle of the efficient and convenient ultrasonic cleaning device for electroplated parts in this application embodiment is as follows:

[0089] After the control base 21 slides along the track 31 away from the cleaning tank 11 to the limit position, multiple electroplated parts to be cleaned are placed in the storage frame 22. Then, the control base 21 slides along the track 31 towards the cleaning tank 11 to the limit position, so that the electroplated parts in the storage space 26 are completely immersed in the cleaning solution along with the storage frame 22. At the same time, the ultrasonic generator 4 is running, so that the electroplated parts in the storage space 26 can be ultrasonically cleaned in the cleaning solution.

[0090] During the above process, the fan 241 continues to run. As the electroplated parts to be cleaned move towards the cleaning tank 11 along the storage frame 22, the fan 241 first causes the airflow to flow along the drying channel 224 to remove dust and other impurities from the surface of the electroplated parts. During the cleaning process, the fan 241 then drives the airflow along the airflow channel 221, causing multiple rotating rods 23 to rotate while simultaneously causing two airbags 25 to repeatedly expand and contract. This causes the position of the storage frame 22 in the cleaning tank 11 to continuously change, and the position and state of the electroplated parts in the storage space 26 to also continuously change, thereby improving the cleaning effect and efficiency of the electroplated parts. After the electroplated parts are cleaned and moved out with the storage frame 22, the fan 241 will drive the airflow along the drying channel 224. During this process, the cleaning liquid remaining on the bottom surface of the electroplated parts will fall into the collection tank 6 for collection, and the cleaning liquid remaining on the top surface of the electroplated parts will also be blown into the collection tank 6 for collection.

[0091] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A highly efficient and convenient ultrasonic cleaning device for electroplated parts, characterized in that, It includes a cleaning tank (1), a storage assembly (2), a transport assembly (3), an ultrasonic generator (4), and a control system (5); The cleaning tank (1) has a cleaning tank (11) for holding cleaning fluid; the ultrasonic generator (4) is disposed on the tank wall of the cleaning tank (11) and is capable of generating ultrasonic waves in the cleaning tank (11); the control system (5) is disposed on the outside of the cleaning tank (1) and is capable of controlling the placement component (2), the transport component (3) and the ultrasonic generator (4). The storage assembly (2) includes a base (21), a storage frame (22), multiple rotating rods (23), and a first driving member (24). The storage frame (22) is disposed on the base (21), and the storage frame (22) has a storage space (26) for placing power plated parts. The cleaning liquid in the cleaning tank (11) can pass through the storage frame (22) and enter and exit the storage space (26). The surface of the rotating rod (23) has multiple anti-slip protrusions (231). The rotating rod (23) is disposed at the bottom of the storage frame (22) and is rotatably connected to the storage frame (22). The multiple rotating rods (23) are parallel to each other and are evenly distributed on the storage frame (22) along a direction perpendicular to the rotation axis of the rotating rods (23). The first driving member (24) is disposed on the storage frame (22) and can drive the multiple rotating rods (23) to rotate in the same direction. The transport component (3) includes a track (31) and a second drive member (32); the track (31) is disposed on the cleaning tank (1), one end of the track (31) extends into the cleaning tank (11), and the other end of the track (31) is located outside the cleaning tank (1); the base (21) is slidably connected to the track (31), the sliding direction of the base (21) is perpendicular to the rotation axis of the rotating rod (23), and the distribution direction of the plurality of rotating rods (23) on the storage frame (22) is parallel to the sliding direction of the base (21); the second drive member (32) is disposed on the track (31) and can control the base (21) to slide along the track (31), and when the base (21) slides along the track (31) toward the cleaning tank (11) to the limit position, the storage frame (22) can be completely immersed in the cleaning liquid in the cleaning tank (11); The track (31) is rotatably connected to the cleaning pool (1), the rotation axis of the track (31) is parallel to the rotation axis of the rotating rod (23), and the base (21) can drive the track (31) to rotate during the sliding process along the track (31). When the track (31) rotates to its limit position in different directions, it is in an inclined state and a horizontal state respectively; when the base (21) slides along the track (31) towards the cleaning tank (11) to its limit position, the track (31) is in an inclined state; when the base (21) slides along the track (31) away from the cleaning tank (11) to its limit position, the track (31) is in a horizontal state.

2. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 1, characterized in that, The first driving component (24) is a fan (241). The bottom of the storage frame (22) is provided with an airflow channel (221) on one side of the axis of the rotating rod (23), and the fan (241) is located in the airflow channel (221). The rotating rod (23) has an impeller (232) at one end near the airflow channel (221). The impeller (232) is located in the airflow channel (221). When the fan (241) drives the airflow channel (221) to produce gas flow, it can drive multiple impellers (232) to drive multiple rotating rods (23) to rotate.

3. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 2, characterized in that, Two airbags (25) are provided on the outside of the storage frame (22), and the two airbags (25) are distributed on the storage frame (22) along the sliding direction of the storage frame (22); The two ends of the airflow channel (221) are respectively connected to the two airbags (25); The fan (241) and the plurality of impellers (232) are located between the two air bags (25), and the fan (241) can drive the air bags (25) to form gas flow between the airflow channel (221).

4. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 3, characterized in that, When the fan (241) is running, it can drive the two airbags (25) to repeatedly expand and contract, and when one airbag (25) expands, the other airbag (25) contracts.

5. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 3, characterized in that, The airflow channel (221) includes multiple direct flow channels (222) and multiple guide channels (223). Each of the multiple guide channels (223) corresponds to a multiple of the impellers (232), and the impellers (232) are located in the corresponding guide channels (223). The direct flow channel (222) is located between two adjacent guide channels (223), and both ends of the direct flow channel (222) are connected to the two adjacent guide channels (223). After the airflow flows along the direct current channel (222), it can enter the guide channel (223) in a direction tangential to the rotation direction of the impeller (232). The guide channel (223) has guide surfaces (2231) on both sides corresponding to the radial direction of the impeller (232). When the track (31) is in an inclined state, the airflow along the guide surface (2231) can drive the corresponding rotating rod (23) to rotate, thereby driving the electroplated parts in the storage space (26) to move upward at an inclination.

6. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 5, characterized in that, The trajectory of the DC channel (222) is a straight line and is inclined relative to the sliding direction of the base (21), and the end of the DC channel (222) near the cleaning tank (11) is the inclined lower end.

7. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 2, characterized in that, It also includes a collection tank (6) having a collection trough (61) for collecting cleaning liquid on the surface of the electroplated parts. The collection tank (6) is located on one side of the cleaning tank (1), and the collection trough (61) is located below the portion of the track (31) away from the cleaning tank (11).

8. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 7, characterized in that, The storage frame (22) is also provided with several drying channels (224) on one side. The two ends of the drying channels (224) are connected to the fan (241) and the storage space (26) respectively. The fan (241) can blow air on the electroplated parts located in the storage space (26) through the drying channels (224).

9. The efficient and convenient ultrasonic cleaning device for electroplated parts according to claim 8, characterized in that, It also includes a sensor (7) for controlling the fan (241), the sensor (7) being disposed on the track (31) and close to the rotation axis of the track (31); When the sensor (7) senses that the base (21) is located on the side of the sensor (7) close to the cleaning tank (11), the sensor (7) can control the fan (241) to drive the airflow in the airflow channel (221); when the sensor (7) senses that the base (21) is located on the side of the sensor (7) away from the cleaning tank (11), the sensor (7) can control the fan (241) to drive the airflow in the drying channel (224).

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