Ultrasonic cleaning equipment for building construction drill production

Abstract

The application relates to the technical field of building drill cleaning, in particular to ultrasonic cleaning equipment for building drill production, which comprises an ultrasonic cleaning box, an ultrasonic wave generating device, a cleaning tank and a building drill. A cleaning tank for ultrasonic cleaning of the building drill is arranged in the top of the ultrasonic cleaning box. The ultrasonic wave generating device is arranged on the two sides in the cleaning tank and is used for driving the cleaning liquid in the cleaning tank to vibrate. The building drill positioning transmission plate belt is rotatably arranged at the bottom of the cleaning tank. The intermittent feeding mechanism is arranged above the feeding end on one side in the building drill positioning transmission plate belt. The magnetic attraction type positioning output frame is suspendedly arranged above the output end of the building drill positioning transmission plate belt in the cleaning tank. The equipment is automatically input and output during operation, has the advantages of high kinetic energy conversion rate, safe operation and energy saving and high efficiency.

Description

Technical Field

[0001] This invention relates to the field of construction drill cleaning technology, specifically an ultrasonic cleaning device for construction drill production.

[0002] Background Technology Construction drills, also known as magnetic drills, are made of materials that can be attracted to magnets. Their working principle primarily involves using an electromagnet at the bottom of the machine to generate magnetism. When energized, they can directly adhere to large steel structural components, facilitating large drilling operations on large workpieces. Combined with the inherent magnetic properties of the construction drill, this type of magnetic drill generates thousands of kilograms of magnetic force through electromagnetic effects, allowing it to adhere to steel plates and structural components, thus securing the machine. The stronger the magnetic force, the more stable the drill body is during operation, and the higher the drilling accuracy. Therefore, the design of the construction drill (magnetic drill) allows it to be attracted to magnets for drilling operations on steel structures, providing convenience for drilling large workpieces.

[0003] Construction drills are frequently used in construction and engineering operations, so they need to be cleaned regularly to ensure their normal operation and extend their service life. The reasons for cleaning are as follows: to remove debris and dirt, to prevent corrosion, and to maintain lubrication. With the continuous advancement of technology, ultrasonic cleaning has been gradually applied to the cleaning of construction drills. That is, the vibration of ultrasonic waves removes dirt and debris that are difficult to reach. The most common method is to place the construction drill directly into an ultrasonic cleaning machine for automated cleaning. However, after using the existing ultrasonic cleaning machine, the following defects were found: (1) The input and output of construction drills are mostly achieved by manual handling. Although the operation is simple, manual handling is slow, and some cleaning fluids have a certain corrosive effect on the hands, making it inconvenient for the hands to touch. If external handling tools are used, the difficulty of handling will increase, making it inconvenient to clean a large number of construction drills at once. (2) When cleaning existing construction drills, they are simply distributed in the cleaning tank of the ultrasonic cleaner. The construction drills are in a static state. Although the cleaning fluid is in a vibrating state, there are still areas of the construction drills that cannot fully contact the cleaning fluid for cleaning, which affects the thoroughness of cleaning. (3) During cleaning, the internal structural components lack effective communication in power transmission, resulting in insufficient power utilization. Therefore, in view of the above-mentioned problems, this technical solution proposes an ultrasonic cleaning device for construction drilling production. Summary of the Invention

[0004] The purpose of this invention is to provide an ultrasonic cleaning device for construction drilling production, so as to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an ultrasonic cleaning device for construction drill production, comprising an ultrasonic cleaning box, an ultrasonic generator, a cleaning tank, and a construction drill. The ultrasonic cleaning box has a cleaning tank inside the top for ultrasonic cleaning of the construction drill, and the ultrasonic generator is arranged on both sides inside the cleaning tank for driving the cleaning fluid inside the cleaning tank to vibrate. The construction drill positioning and transmission plate belt is rotatably set at the bottom of the cleaning tank. It is used to longitudinally position and transfer the input construction drill, so that it can fully move and contact the cleaning fluid, and perform efficient cleaning in conjunction with the cleaning fluid under ultrasonic vibration. An intermittent feeding mechanism is located above the feeding end inside the construction drill positioning and transmission belt. It is used to automatically control the continuous intermittent longitudinal insertion and feeding of the construction drill to be cleaned onto the construction drill positioning and transmission belt. The intermittent feeding mechanism includes two sets of parallel feeding funnels. The bottom of the feeding funnels is connected to an intermittent feeding channel that allows only a single set of construction drills to slide longitudinally. A set of swing-type feeding components is set on one side of the two sets of intermittent feeding channels. The swing-type feeding components are rotatably connected to the construction drill positioning and transmission belt. While driving the construction drills to feed, the swing-type feeding components also drive the construction drill positioning and transmission belt to rotate intermittently. When the swing-type feeding components rotate, they intermittently control the construction drills in the two sets of intermittent feeding channels to fall in a staggered manner. That is, the construction drills input to the construction drill positioning and transmission belt are staggered along the width direction, which facilitates subsequent staggered output. A magnetic positioning output frame is suspended in a cleaning tank above the output end of the construction drill positioning transmission belt. A pop-out component is located on the inner side of the construction drill positioning transmission belt directly below the magnetic positioning output frame. The pop-out component is rotatably connected to the construction drill positioning transmission belt. A magnetic component is installed inside the magnetic positioning output frame. The construction drill, which is transferred to the output end of the construction drill positioning transmission belt, is transferred into the magnetic positioning output frame under the longitudinal drive of the pop-out component and is attracted and connected to the magnetic component, thereby detaching from the cleaning fluid inside the cleaning tank. In this process, the construction drills to be cleaned are temporarily stored inside the feeding hopper. Then, the oscillating feeding assembly is activated, controlling the construction drills in the two sets of feeding hoppers to be transferred along the intermittent feeding channels on their lower sides towards the construction drill positioning and transmission belt. Each time the oscillating feeding assembly rotates and controls a set of construction drills to fall, the construction drill positioning and transmission belt rotates and moves a certain distance synchronously, simultaneously driving a set of construction drills to the lower side of the magnetic positioning and output frame. Then, the ejection assembly runs synchronously once, controlling the construction drills on the lower side of the magnetic positioning and output frame to receive an upward thrust, causing their tops to be attracted and connected to the magnetic components inside the magnetic positioning and output frame. This achieves automated input and output of the construction drills, while performing mobile and vibratory cleaning to ensure thorough cleaning. Finally, the operation of the oscillating feeding assembly synchronously drives the construction drill positioning and transmission belt to rotate and the ejection assembly to run, achieving full conversion and utilization of kinetic energy.

[0006] Compared with the prior art, the beneficial effects of the present invention are as follows: by placing the construction drill in two sets of feed funnels, and then using the rotation of the feed control baffle, the construction drill is automatically controlled to be staggered and transferred to the construction drill positioning transmission plate for insertion and longitudinal positioning. Then, under the transfer of the construction drill positioning transmission plate, it is output from the cleaning fluid through the pop-out component combined with the magnetic positioning output frame, thereby realizing the automated input and output of the construction drill. At the same time, by utilizing its longitudinal movement on the construction drill positioning transmission plate, combined with the cleaning fluid under vibration, the construction drill is moved and vibrated for cleaning, achieving full contact cleaning, reducing the degree of human contact, and improving safety. By setting a single main servo motor to drive the construction drill positioning and transmission belt to move intermittently, and then controlling the intermittent staggered falling of the construction drills in the two sets of feeding hoppers under the connection of the swing-type feeding component, and controlling the movement of the ejection component, the construction drills on the construction drill positioning and transmission belt are elastically output, so as to realize the full conversion and utilization of kinetic energy and achieve an energy-saving and efficient operation mode. Attached Figure Description

[0007] Figure 1 This is a three-dimensional structural diagram of an ultrasonic cleaning device used in construction drilling.

[0008] Figure 2 This is a schematic diagram of the main structure of an ultrasonic cleaning device for construction drilling production.

[0009] Figure 3 This is a top view schematic diagram of an ultrasonic cleaning equipment used in construction drilling.

[0010] Figure 4 for Figure 1 A magnified structural diagram of A in the diagram.

[0011] Figure 5 for Figure 1 A magnified structural diagram of B in the diagram.

[0012] Figure 6 for Figure 1 A magnified structural diagram of C.

[0013] Figure 7 This is a schematic diagram of the toothed part in an ultrasonic cleaning device for construction drilling.

[0014] Figure 8 for Figure 3 A schematic diagram of the enlarged structure of D.

[0015] Figure 9 for Figure 3 A schematic diagram of the enlarged structure of E in the middle.

[0016] Figure 10for Figure 3 A schematic diagram of the enlarged structure of F.

[0017] Figure 11 This is a partial structural diagram of a magnetic positioning output frame in an ultrasonic cleaning device for construction drilling production.

[0018] Figure 12 This is a partial structural diagram of a pop-out component in an ultrasonic cleaning device for construction drilling production. The components include: ultrasonic cleaning box 10, control panel 11, support legs 12, ultrasonic generator 13, construction drill positioning and transmission plate 14, belt shaft 15, feed funnel 16, cleaning tank 17, magnetic positioning output frame 18, strong magnet 19, lifting port 20, construction drill 21, intermittent feeding channel 22, feed control baffle slot 23, feed control base plate 24, feed control baffle 25, feed inlet 26, rotary slot 27, and connection. Block 28, swing connecting rod 29, tooth base plate 30, tooth 31, connecting sleeve 32, swing rod 33, V-shaped swing disk 34, drive spindle 35, transmission belt I 36, main servo motor 37, transmission guide rod 38, lead screw end rod 39, transmission belt II 40, lead screw 41, nut 42, buffer cylinder 43, buffer rod 44, top rod 45, limit block 46, buffer spring 47, fixing rod 48, construction drill positioning hole 49, top outlet 50. Detailed Implementation

[0019] It should be noted that, unless otherwise specified, the embodiments and features described in the present invention can be combined with each other.

[0020] In the description of this invention, it should be understood that the terms "center," "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicating orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, are only for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the invention. Furthermore, the terms "first," "second," etc., are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of indicated technical features. Thus, a feature defined with "first," "second," etc., may explicitly or implicitly include one or more of that feature. In the description of this invention, unless otherwise stated, "a plurality of" means two or more.

[0021] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art will understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0022] The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0023] Please see Figures 1-3 An ultrasonic cleaning device for construction drill production includes an ultrasonic cleaning box 10, an ultrasonic generator 13, a cleaning tank 17, and a construction drill 21. The ultrasonic cleaning box 10 has a cleaning tank 17 inside the top for ultrasonic cleaning of the construction drill. The ultrasonic generator 13 is arranged on both sides inside the cleaning tank 17 to drive the cleaning fluid inside the cleaning tank 17 to vibrate. The construction drill positioning and transmission plate belt 14 is rotatably set at the bottom of the cleaning tank 17, and is used to longitudinally position and transfer the input construction drill 21, so that it can fully move and contact the cleaning fluid, and perform efficient cleaning in conjunction with the cleaning fluid under ultrasonic vibration. An intermittent feeding mechanism is located above the feeding end inside the construction drill positioning and transmission belt 14. It is used to automatically control the continuous intermittent longitudinal insertion and feeding of the construction drill 21 to be cleaned onto the construction drill positioning and transmission belt 14. The intermittent feeding mechanism includes two sets of parallel feeding funnels 16. The bottom end of the feeding funnels 16 is connected to an intermittent feeding channel 22 that limits the longitudinal sliding of a single set of construction drills 21. A set of swing-type feeding components is provided on one side of the two sets of intermittent feeding channels 22. The swing-type feeding components are rotatably connected to the construction drill positioning and transmission belt 14. While driving the construction drill 21 to feed, the swing-type feeding components also drive the construction drill positioning and transmission belt 14 to rotate intermittently. When the swing-type feeding components rotate, they intermittently control the construction drills 21 in the two sets of intermittent feeding channels 22 to fall in a staggered manner. That is, the construction drills 21 input to the construction drill positioning and transmission belt 14 are staggered along the width direction to facilitate subsequent staggered output. A magnetic positioning output frame 18 is suspended in a cleaning tank 17 above the output end of the construction drill positioning transmission belt 14. A pop-out component is provided on the inner side of the construction drill positioning transmission belt 14 located directly below the magnetic positioning output frame 18. The pop-out component is rotatably connected to the construction drill positioning transmission belt 14. A magnetic component is provided inside the magnetic positioning output frame 18. The construction drill 21, which is transferred to the output end of the construction drill positioning transmission belt 14, is transferred into the magnetic positioning output frame 18 under the longitudinal drive of the pop-out component and is attracted and connected to the magnetic component, thereby detaching from the cleaning fluid inside the cleaning tank 17. In this process, the construction drills 21 to be cleaned are temporarily stored inside the feeding hopper 16. Then, the oscillating feeding assembly is started, controlling the construction drills 21 in the two sets of feeding hoppers 16 to be staggered and transferred towards the construction drill positioning and transmission belt 14 along the intermittent feeding channel 22 on their lower side. Each time the oscillating feeding assembly rotates and controls a set of construction drills 21 to fall, the construction drill positioning and transmission belt 14 rotates and moves a certain distance synchronously, while driving a set of construction drills 21 to the lower side of the magnetic positioning and output frame 18. Then, the ejection assembly runs synchronously once, controlling the construction drills 21 on the lower side of the magnetic positioning and output frame 18 to be pushed upward, so that their tops are attracted and connected to the magnetic components inside the magnetic positioning and output frame 18. This realizes the automated input and output of the construction drills 21, while performing mobile and vibratory cleaning to ensure thorough cleaning. Finally, the operation of the oscillating feeding assembly synchronously drives the construction drill positioning and transmission belt 14 to rotate and the ejection assembly to run, realizing the full conversion and utilization of kinetic energy.

[0024] In this embodiment of the invention, support legs 12 are fixedly installed at the four corners of the bottom of the ultrasonic cleaning box 10 to keep the ultrasonic cleaning box 10 stable. The cleaning fluid inside the cleaning tank 17 is generally water, organic solvent or special cleaning agent. The magnetic positioning output frame 18 is a rectangular structure with an opening on one side for magnetically removing the construction drill 21 inside the frame. The magnetic positioning output frame 18 is fixed to the inner wall of the cleaning tank 17 by fixing rods 48 on both sides. The construction drill 21 inside the magnetic positioning output frame 18 is already outside the cleaning fluid, so it can be removed manually when outputting. This prevents hands from entering the cleaning fluid and reduces contact with the cleaning fluid. The construction drill positioning and transmission plate belt 14 is provided with belt shafts 15 at both ends to maintain the drive rotation of the construction drill positioning and transmission plate belt 14. At the same time, the ends of the belt shafts 15 are fixed to the bottom of the cleaning tank 17 by support sleeves. See Figure 10The construction drill positioning conveyor belt 14 is configured as a plate conveyor belt structure. Each section of the conveyor belt has two construction drill positioning holes 49 along the width direction. The construction drill positioning holes 49 are located in the same plane as the bottom of the two sets of intermittent feeding channels 22 in the transverse direction. That is, when the construction drill positioning holes 49 move to the bottom of the intermittent feeding channels 22, the drill bit end of the construction drill 21 falling along the intermittent feeding channels 22 is inserted into the construction drill positioning holes 49 to longitudinally position it. Then, under the movement of the construction drill positioning conveyor belt 14, it moves towards the bottom of the magnetic positioning output frame 18. The time that the construction drill 21 is placed in the cleaning fluid can be controlled by the running speed of the swing feeding component. Furthermore, a through top outlet 50 is provided in the center of the construction drill positioning hole 49. The top outlet 50 cooperates with the ejection component. When the ejection component is running, it applies an upward thrust to the bottom of the construction drill 21 inserted into the construction drill positioning hole 49, thereby controlling the cylindrical end of the construction drill 21 to be magnetically connected to the magnetic component in the magnetic positioning output frame 18.

[0025] In one embodiment of the present invention, the ultrasonic generating device 13 includes an ultrasonic generator: Power source: Provides electrical energy, usually alternating current or direct current.

[0026] Oscillator: Converts electrical energy supplied by a power source into high-frequency electrical signals.

[0027] Power amplifier: Amplifies the high-frequency electrical signal generated by the oscillator to achieve sufficient power.

[0028] Ultrasonic transducer: Piezoelectric ceramics: convert high-frequency electrical signals into mechanical vibrations to generate ultrasonic waves.

[0029] Amplitude bar: Adjusts and amplifies the amplitude of the ultrasonic wave, enabling it to be effectively transmitted into the cleaning fluid.

[0030] The connection and operation of the above-mentioned structural components, such as the control panel 11 set on the outer wall of the ultrasonic cleaning chamber 10 and the drainage system inside the cleaning tank 17, are all existing technologies and will not be described in detail here.

[0031] As a preferred embodiment of the present invention, see [reference]. Figures 1-8The oscillating feeding assembly includes a feeding control base plate 24 rotatably mounted on one side of two sets of feeding funnels 16. The feeding control base plate 24 is positioned at the connection between the intermittent feeding channel 22 and the feeding funnel 16. Multiple feeding control baffles 25 are evenly spaced and arranged in a ring on the outer circumference of the feeding control base plate 24. Feeding control baffle slots 23 are provided within the intermittent feeding channel 22 located at the feeding control baffles 25. When the feeding control baffles 25 rotate with the feeding control base plate 24, they pass through the inside of the feeding control baffle slots 23. Adjacent feeding control baffles 25 have feeding ports 26 with the same diameter as the feeding control baffle slots 23, spaced apart. When a feeding control baffle 25 with a feeding port 26 moves into the feeding control baffle slot 23, the feeding funnel 16 and the intermittent feeding channel 22 are in a connected state, and the feeding funnel... The construction drill 21 inside the hopper 16 can be conveyed along the intermittent feeding channel 22 toward the construction drill positioning and transmission belt 14. When the feeding control baffle 25 without the feeding port 26 moves into the feeding control baffle slot 23, the feeding hopper 16 is disconnected from the intermittent feeding channel 22, thus preventing the construction drill 21 from falling. By setting the number of feeding control baffles 25, the feeding control baffle slots 23 on both sides are kept connected on one side and closed on the other side under the movement of the feeding control base plate 24. This achieves the control of the construction drill 21 to be intermittently transferred to the construction drill positioning and transmission belt 14. Then, in coordination with the synchronous movement of the construction drill positioning and transmission belt 14, the construction drills 21 on the construction drill positioning and transmission belt 14 are staggered in the width direction, and then output in a staggered manner with the subsequent ejection components. A ring of rotating slots 27 is installed at equal intervals on the upper side of the feed control base plate 24. The number of rotating slots 27 is the same as that of the feed control baffle 25. One of the feed control baffles 25 has a set of right-angled triangular teeth 31 that are oscillatingly arranged. The top of the teeth 31 is connected to a tooth base plate 30. A connecting block 28 is connected to one side of the tooth base plate 30. An inclined swing connecting rod 29 is connected to the lower part of the side wall of the connecting block 28. A connecting sleeve 32 is connected to the end of the swing connecting rod 29. A swing rod 33 is fitted in the middle of the connecting sleeve 32. One end of the swing rod 33 is connected to a V-shaped swing disk 34. A drive spindle 35 is installed in the middle of the V-shaped swing disk 34. One end of the drive spindle 35 is connected to a main servo motor 37. The main servo motor 37 is fixed to the inner wall of the cleaning tank 17. The main servo motor is activated by starting the main servo motor. 37 drives the main shaft 35 to rotate, which in turn drives the V-shaped swing disk 34 to rotate. The swing rod 33 is connected to one side of the end of the V-shaped swing disk 34. The connecting sleeve 32 is fitted on the swing rod 33 to control the back-and-forth swing of the tooth base plate 30 on one side of the swing connecting rod 29. Then, the right-angled triangular structure of the tooth 31 is used to pull it back and forth inside the rotating slot 27, thereby driving the feed control base plate 24 to rotate intermittently. Since the number of rotating slots 27 and feed control baffles 25 is the same, each time the rotation angle of the rotating slot 27 is controlled, the feed control baffles 25 can be switched inside the feed control baffle slot 23. This controls the feed port 26 to be placed inside the feed control baffle slot 23 and transfers, realizing the intermittent falling of the construction drill 21 in the two sets of feed funnels 16. A disc shaft is installed at the center of the feed control base plate 24. A positioning sleeve is fitted on the disc shaft. One end of the positioning sleeve is fixed to the inner wall of the cleaning tank 17. At the same time, the feed funnel 16 and the intermittent feed channel 22 are also fixed to the inner wall of the cleaning tank 17 through the positioning connecting rod. It should be noted that the upper and lower parts of the inner side of the feed control baffle slot 23 are in a complete circular connection with the bottom of the feed hopper 16 and the top of the intermittent feed channel 22. By using its edge, it is fixed to the intermittent feed channel 22 and the bottom of the feed hopper 16, which does not affect the smooth descent of the construction drill 21. Specifically, transmission guide rods 38 are installed at both ends of the belt shaft 15 near the side of the feed hopper 16. The belt shaft 15 at the end of the construction drill positioning transmission plate belt 14 located on the side of the feed hopper 16 is rotatably connected to the drive spindle 35 through the transmission belt I 36. That is, while the main servo motor 37 drives the drive spindle 35 to rotate, it synchronously drives the construction drill positioning transmission plate belt 14 forward a certain distance through the transmission of the transmission belt I 36. The forward distance is equal to the distance between adjacent construction drill positioning holes 49 on the construction drill positioning transmission plate belt 14. It should be noted that since the falling of the construction drill 21 in the feed hopper 16 is synchronized with the movement of the construction drill positioning conveyor belt 14, the position of the construction drill positioning hole 49 on the construction drill positioning conveyor belt 14 should be set at the position of the relative opening of each section of the conveyor belt. This ensures that the construction drill 21 falling instantaneously can be accurately inserted into the construction drill positioning hole 49 for longitudinal positioning, without affecting the normal forward movement of the construction drill positioning conveyor belt 14.

[0032] As a preferred embodiment of the present invention, see [reference]. Figure 11 The magnetic assembly includes two lifting ports 20 located on the lower inner side of the magnetic positioning output frame 18. The lifting ports 20 are positioned above the two construction drill positioning holes 49 below the magnetic positioning output frame 18. The construction drill 21, which bounces up and moves upward, passes through the lifting ports 20 and moves into the magnetic positioning output frame 18. A strong magnet 19 is installed at the top of the magnetic positioning output frame 18 directly above the lifting ports 20. The cylindrical end of the drill rod of the construction drill 21 is magnetically connected to the strong magnet 19 to position it.

[0033] As a preferred embodiment of the present invention, see [reference]. Figures 9-12 The pop-up component includes a lead screw 41 rotatably mounted inside the construction drill positioning transmission belt 14 directly below the magnetic positioning output frame 18. Lead screw 41 has lead screw end rods 39 mounted at both ends. One end rod 39 is rotatably connected to the adjacent belt shaft 15 via a transmission belt II 40, while the other end rod 39 is fixed to the inner wall of the cleaning tank 17 via a support sleeve. A nut 42 is threaded onto the lead screw 41, and the nut 42 has a guide device to limit its rotation. That is, when the construction drill positioning transmission belt 14 rotates forward, the lead screw 41 rotates under the connection of the transmission belt II 40, thereby controlling the nut 42 to move back and forth along the lead screw 41. The length of the lead screw 41 is equal to the distance between the two sets of transmission belts II 40, i.e., the length of the construction drill... As the positioning conveyor belt 14 advances a certain distance, the nut 42 can be switched between the two top outlets 50. A buffer cylinder 43 with a top opening is installed on the top of the nut 42. The buffer cylinder 43 is elastically connected to the limit block 46 through the buffer spring 47. The limit block 46 is connected to the top of the external part of the top of the limit block 46. A top rod 45 is installed on the top of the buffer rod 44. The end of the top rod 45 is set with an arc structure. When the top rod 45 is in a free state, its top is in compressive contact with the inner upper surface of the positioning conveyor belt 14. When it moves to the top outlet 50, the rebound force is released, instantly driving the construction drill 21 to be pushed upward, so that it passes through the lifting port 20 and is magnetically connected to the strong magnet 19, thereby realizing the automatic output of the construction drill 21 from the cleaning fluid. It should be noted that by reasonably designing the length of the buffer rod 44 and the elasticity of the buffer spring 47, and combining it with the rapid transfer of the nut 42, it is ensured that when it moves to the top outlet 50, it can apply an instantaneous thrust to the bottom of the construction drill 21 and lift it up.

[0034] The working principle of this invention is as follows: In the idle state of this device, all the aforementioned driving components, which refer to power elements, electrical components, and compatible power supplies, are connected by wires. The electrical connections between the various electrical components are completed in sequence. The detailed connection methods are well-known in the art. The following mainly describes the working principle and process, without explaining the electrical control. The construction drill 21 to be cleaned is placed inside the feed funnel 16, and then a suitable cleaning liquid is injected into the cleaning tank 17. Then, the ultrasonic generator 13 is started to drive the cleaning liquid in the cleaning tank 17 to vibrate. Then, the main servo motor 37 is started to drive the drive spindle 35 to rotate. Then, under the transmission of the drive spindle 35 and the transmission belt II 40, the construction drill positioning transmission plate belt 14 and the lead screw 41 are synchronously driven to rotate. Then, the swing of the V-shaped swing disk 34, the swing rod 33, and the connecting sleeve 32 is used to control the intermittent movement of the pick tooth 31 and the rotating pick groove 27, thereby controlling the feed control base plate. The outer feed control baffle 25 rotates, and then the feed inlet 26 and the feed control baffle slot 23 are used to control the intermittent falling of the construction drills 21 in the two feed funnels 16. Then, they are inserted and positioned along the intermittent feed channel 22 and the construction drill positioning hole 49 on the construction drill positioning transmission plate 14. Then, in conjunction with the movement of the construction drill positioning transmission plate 14, the construction drills 21 are placed inside the cleaning tank 17 for moving vibration cleaning. When they move to the bottom of the magnetic positioning output frame 18, the screw 41 is quickly switched between the two top outlets 50 to control the top rod 45 to apply an upward pushing force to the bottom of the construction drills 21. Then, they pass through the lifting port 20 and are magnetically connected to the strong magnet 19, thus detaching them from the cleaning fluid. In this way, under the drive of a single main servo motor 37, a large number of construction drills 21 are controlled to automatically input, longitudinally transfer for cleaning, and then vertically pop up for output. This is the entire process of automated ultrasonic cleaning.

[0035] The preferred embodiments of this patent have been described in detail above. However, this patent is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of this patent.

Claims

1. An ultrasonic cleaning device for construction drilling production, characterized in that, The ultrasonic cleaning box (10), ultrasonic generator (13), cleaning tank (17), and construction drill (21) are included. The ultrasonic cleaning box (10) has a cleaning tank (17) inside the top for ultrasonic cleaning of the construction drill. The ultrasonic generator (13) is set on both sides inside the cleaning tank (17) to drive the cleaning fluid inside the cleaning tank (17) to vibrate. The construction drill positioning and transfer plate (14) is rotatably set at the bottom of the cleaning tank (17) for longitudinal positioning and transfer of the input construction drill (21); An intermittent feeding mechanism is set above the feeding end inside the construction drill positioning and transmission plate (14) to automatically control the construction drill (21) to be cleaned to be continuously and intermittently longitudinally inserted and transported to the construction drill positioning and transmission plate (14). The intermittent feeding mechanism includes two sets of parallel feeding funnels (16). The bottom end of the feeding funnel (16) is connected to an intermittent feeding channel (22) that allows only a single set of construction drills (21) to slide longitudinally. A set of swing-type feeding components is provided on one side of the two sets of intermittent feeding channels (22). The swing-type feeding components are rotatably connected to the construction drill positioning and transmission plate (14). A magnetic positioning output frame (18) is suspended in a cleaning tank (17) above the output end of the construction drill positioning transmission plate (14). A pop-out component is provided on the inner side of the construction drill positioning transmission plate (14) directly below the magnetic positioning output frame (18). The pop-out component is rotatably connected to the construction drill positioning transmission plate (14). A magnetic component is provided inside the magnetic positioning output frame (18). The construction drill (21) transferred to the output end of the construction drill positioning transmission plate (14) is transferred into the magnetic positioning output frame (18) under the longitudinal drive of the pop-out component and is attracted and connected to the magnetic component. The construction drill positioning and transmission plate (14) is configured as a plate-type transmission belt structure. Each section of the transmission plate has two construction drill positioning holes (49) along the width direction. The construction drill positioning holes (49) are located in the same plane as the bottom ends of the two sets of intermittent feeding channels (22) in the transverse direction. A through top outlet (50) is provided in the middle of the construction drill positioning hole (49). The top outlet (50) cooperates with the ejection component. The oscillating feeding assembly includes a feeding control base plate (24) rotatably disposed on one side of two sets of feeding funnels (16). The feeding control base plate (24) is located at the connection between the intermittent feeding channel (22) and the feeding funnel (16). Multiple feeding control baffles (25) are installed at equal intervals in a ring on the outer circumferential direction of the feeding control base plate (24). A feeding control baffle slot (23) is opened in the intermittent feeding channel (22) located at the feeding control baffle (25). When the feeding control baffle (25) rotates with the feeding control base plate (24), it passes through the inside of the feeding control baffle slot (23). The adjacent feeding control baffles (25) are provided with feeding ports (26) with the same diameter as the feeding control baffle slot (23) at intervals. The upper side of the feed control base plate (24) is equipped with a ring of rotating grooves (27) at equal intervals. The number of rotating grooves (27) is the same as that of the feed control baffle (25). One of the feed control baffles (25) is equipped with a set of right-angled triangular teeth (31) in a swinging manner. The top of the teeth (31) is connected to a tooth base plate (30). A connecting block (28) is connected to one side of the tooth base plate (30). An inclined swing connecting rod (29) is connected to the lower part of the side wall of the connecting block (28). A connecting sleeve (32) is connected to the end of the swing connecting rod (29). A swing rod (33) is fitted in the middle of the connecting sleeve (32). A V-shaped swing disk (34) is connected to one end of the swing rod (33). A drive spindle (35) is installed in the middle of the V-shaped swing disk (34). A main servo motor (37) is connected to one end of the drive spindle (35). The main servo motor (37) is fixed on the inner wall of the cleaning tank (17). The magnetic assembly includes two lifting ports (20) located on the lower inner side of the magnetic positioning output frame (18). The lifting ports (20) are directly above the two construction drill positioning holes (49) below the magnetic positioning output frame (18). The construction drill (21) that bounces up and moves upward passes through the lifting ports (20) and moves into the magnetic positioning output frame (18). A strong magnet (19) is installed at the top of the magnetic positioning output frame (18) directly above the lifting ports (20). The cylindrical end of the drill rod of the construction drill (21) is magnetically connected to the strong magnet (19). The pop-up assembly includes a lead screw (41) rotatably mounted inside the construction drill positioning transmission belt (14) directly below the magnetic positioning output frame (18). Lead screw (41) has lead screw end rods (39) installed at both ends. One end rod (39) is rotatably connected to the adjacent belt shaft (15) via a transmission belt II (40), while the other end rod (39) is fixed to the inner wall of the cleaning tank (17) via a support sleeve. A nut (42) is threaded onto the lead screw (41), and the nut (42) has a guide device to limit its rotation. The length of the lead screw (41) is equal to that of the two sets of transmission belts II (40). The distance between the two top outlets (50) can be controlled by the nut (42) to switch between each top outlet (50) as the construction drill positioning transmission plate belt (14) advances a certain distance. The nut (42) has a buffer cylinder (43) with a top opening installed on its top. The buffer cylinder (43) is elastically connected to the limit block (46) through the buffer spring (47). The limit block (46) is connected to the top of the top of the buffer rod (44) with a buffer rod (45) installed on its top. The end of the push rod (45) is set with an arc structure. When the push rod (45) is in a free state, its top is in compression contact with the inner upper surface of the construction drill positioning transmission plate belt (14).

2. The ultrasonic cleaning equipment for construction drilling production according to claim 1, characterized in that, The magnetic positioning output frame (18) is a rectangular structure with one side open. Both sides of the magnetic positioning output frame (18) are fixed to the inner wall of the cleaning tank (17) by fixing rods (48).

3. The ultrasonic cleaning equipment for construction drilling production according to claim 2, characterized in that, The construction drill positioning and transmission plate (14) is provided with belt shafts (15) at both ends, and the ends of the belt shafts (15) are fixed to the bottom of the cleaning tank (17) by support sleeves.

4. The ultrasonic cleaning equipment for construction drilling production according to claim 3, characterized in that, Transmission guide rods (38) are installed at both ends of the belt shaft (15) near the side of the feed hopper (16). The belt shaft (15) at the end of the construction drill positioning transmission plate belt (14) located on the side of the feed hopper (16) is rotatably connected to the drive spindle (35) through the transmission belt I (36).

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