Welding conveying device for iron tower steel frame machining

Abstract

The invention relates to the technical field of iron tower steel frame machining equipment, and discloses an iron tower steel frame machining welding conveying device which comprises a lubricating mechanism, a temperature control mechanism is arranged in the lubricating mechanism, a cushioning mechanism is arranged at the bottom of the temperature control mechanism, and the top of the cushioning mechanism is fixedly connected with the bottom of the lubricating mechanism. And the outer surface of the temperature control mechanism is fixedly connected with the lubricating mechanism. According to the welding conveying device for iron tower steel frame machining, whether lubricating oil is needed or not can be automatically judged through the lubricating mechanism, a proper amount of lubricating oil is sprayed at the accurate position, the used lubricating oil is automatically recycled, and the problems that in the long-term tooth groove meshing transmission process, the lubricating oil needs to be used regularly for maintenance, and the maintenance time is shortened are solved. Otherwise, the problems of gradual material loss, tooth shape change and transmission precision reduction caused by friction of the tooth surface are solved, the overall conveying speed and the use convenience of the equipment are improved, and manual maintenance is not needed.

Description

Technical Field

[0001] The present invention relates to the technical field of tower steel frame processing equipment, and specifically provides a welding and conveying device for tower steel frame processing. Background Technique

[0002] With the development of the times and the progress of informatization, the current communication and power tower construction has been gradually improved. During the construction of towers, steel structures are used for erection, so it is necessary to weld and assemble steel frames. When welding the steel frames of some large towers, it is necessary to weld ear plates and bases on circular steel pipes. During the welding process, it is necessary to perform welding and conveying on the steel pipes to be welded.

[0003] A patent with the Chinese patent publication number CN118977023A discloses a welding and conveying device for tower steel frame processing, including a guide rail, on which a double-layer sliding disk is slidably installed. A walking mechanism for conveying steel frame pipes is installed on the double-layer sliding disk. A transmission mechanism for driving the walking mechanisms on both sides of the guide rail to move is installed on the double-layer sliding disk. A deflection mechanism for deflecting the steel frame pipes during conveying is installed on the double-layer sliding disk. In the present invention, through the settings of gear rollers, driving wheels, chains, chassis, rotating shafts, rotating seats, etc., it is realized that during the welding and conveying of tower steel frame pipes, the rotation of the gear rollers drives individual steel pipes to be conveyed on the guide rail, so as to realize that the subsequent steel pipe conveying is not affected during the welding process, improve the conveying speed and use convenience of the equipment, and through the setting of the rotating seat, it is convenient to deflect the steel pipe longitudinally to prevent the irregular shape after welding from affecting the conveying, and further improve the use convenience of the equipment.

[0004] However, the above-mentioned equipment still has the following problems in actual use: During the long-term tooth groove meshing transmission process, it is necessary to regularly maintain it with lubricating oil. Otherwise, the tooth surface will gradually wear due to friction, changing the tooth shape, reducing the transmission accuracy, generating periodic impacts, and causing vibration and noise. Summary of the Invention

[0005] The purpose of the present invention is to provide a welding and conveying device for tower steel frame processing to solve the problems raised in the above background technique.

[0006] To solve the above technical problems, the present invention provides the following technical solution: A welding and conveying device for tower steel frame processing, including a lubrication mechanism, inside which a temperature control mechanism is arranged. A shock absorption mechanism is arranged at the bottom of the temperature control mechanism, and the top of the shock absorption mechanism is fixedly connected to the bottom of the lubrication mechanism. The outer surface of the temperature control mechanism is fixedly connected to the lubrication mechanism; The lubrication mechanism includes a guide rail, on the top of which is fitted the main body of the walking mechanism. On the top of the main body of the walking mechanism is installed a double-layer sliding disc. The main body of the walking mechanism includes a gear roller. At the bottom of the guide rail is fixedly connected a base. On the top of the base is fixedly connected a limiting plate. On the top of the limiting plate is fixedly connected an oil inlet pipe. On the side of the oil inlet pipe close to the guide rail are fixedly connected two atomizing nozzles, and both of the two atomizing nozzles are adapted to the gear roller; The temperature control mechanism includes a wind frame, inside which is fixedly connected a blower. The output port of the blower is fixedly connected with a first air duct. An installation groove is formed inside the base, and the installation groove is fixedly connected with the first air duct. On the top of the first air duct is fixedly connected a second air duct. On the side of the second air duct close to the guide rail are fixedly connected a plurality of direct current nozzles, and all of the plurality of direct current nozzles are fixedly connected inside the limiting plate.

[0007] Among them, the main body of the walking mechanism, the double-layer sliding disc, and the guide rail are all prior arts, adopting the patent with the patent publication number of CN118977023A.

[0008] Preferably, there are two limiting plates. On the top of one limiting plate is fixedly connected a laser transmitter, and on the top of the other limiting plate is fixedly connected a laser receiver. The laser transmitter is adapted to the laser receiver. Inside the base is installed a noise detector. The laser receiver is electrically connected to the noise detector, and the laser receiver is electrically connected to the oil inlet pipe.

[0009] Preferably, a chute is formed at the bottom of the inner wall of the base. At the bottom of the gear roller is fixedly connected a positioning roller. The chute is adapted to the positioning roller. Teeth are formed on the outer surface of the positioning roller. Continuous tooth grooves are respectively formed on both sides of the inner wall of the chute. The teeth are meshed with the continuous tooth grooves.

[0010] Preferably, an oil collecting pipe is arranged at the bottom of the chute. The oil collecting pipe is fixedly connected with the base. An inlet is formed at the top of the oil collecting pipe. A screen is fixedly connected inside the inlet. The top of the screen is in contact with the bottom of the positioning roller.

[0011] Preferably, an electric valve is fixedly connected to the top of the first air duct. The electric valve is installed on the second air duct, and the electric valve is electrically connected to the noise detector.

[0012] Preferably, the shock absorption mechanism includes a rubber plate. At the bottom of the rubber plate is fixedly connected a rubber net. At the bottom of the rubber net is fixedly connected a bottom plate. On the top of the bottom plate is fixedly connected a double-layer rubber rod, and the double-layer rubber rod is fixedly connected to the rubber plate.

[0013] Preferably, an installation groove is formed inside the bottom plate. A cylinder is fixedly connected inside the installation groove. The output port of the cylinder is fixedly connected with a rubber pad, and the top of the rubber pad is fixedly connected with a rubber plate.

[0014] Preferably, a plurality of double-layer rubber rods are provided, and spiral steel spring columns are installed inside each of the plurality of double-layer rubber rods.

[0015] Preferably, two rubber pads are provided. A second connecting plate is fixedly connected between the two rubber pads. A double-layer rubber rod is fixedly connected to the outer surface of the second connecting plate. A second connecting plate is fixedly connected between the plurality of double-layer rubber rods. Two ends of the second connecting plate are respectively fixedly connected to the middle of the first connecting plate.

[0016] Compared with the prior art, the beneficial effects achieved by the present invention are as follows: First, in the present invention, the walking mechanism body, the double-layer sliding disc, and the guide rail are all prior arts. The patent with the patent announcement number CN118977023A is adopted. The movement path is stabilized by the meshing of the positioning roller and the continuous tooth grooves in the chute. The position of the gear roller is sprayed with mist-like lubricating oil through the oil inlet pipe and the atomizing nozzle, and due to its adhesiveness, the gear roller can contaminate the lubricating oil on the subsequent tooth surfaces during the continuous meshing movement, playing a lubricating role. The limiting plate is used to limit the position of the gear roller and prevent the lubricating oil from being sprayed outside. The laser transmitter and the laser receiver are used to determine whether the walking mechanism body passes by, and the noise detector is used to control the switch. When lubrication is lacking, the meshing is dry, the friction on the tooth surface increases, and noise is generated. The noise is collected by the noise detector through the conduction of the base. The noise detector turns on the laser receiver to judge whether there is a walking mechanism body at the position of the corresponding atomizing nozzle at present. When the laser of the laser transmitter is normally received by the laser receiver, the oil inlet pipe is closed. Without additional water pressure, the atomizing nozzle will not seep out lubricating oil. When the walking mechanism body passes by, the laser receiver cannot receive the laser, then the oil inlet pipe is opened, and the lubricating oil is sprayed from the atomizing nozzle through the water pressure. The excess or residual lubricating oil after use will flow downward along the gravity and fall into the sunken chute. It is collected through the inlet opened at the top of the oil collecting pipe in the chute. These used lubricating oils are recycled. The screen is used to prevent sundries from falling into the oil collecting pipe and causing damage. Through the lubricating mechanism, it can automatically judge whether lubricating oil is needed, spray an appropriate amount of lubricating oil at the accurate position, and automatically recycle the used lubricating oil, improving the overall conveying speed and use convenience of the equipment, without the need for manual maintenance, and solving the problem that during the long-term tooth groove meshing transmission process, lubricating oil needs to be used regularly for maintenance, otherwise the tooth surface will gradually wear due to friction, the tooth shape will change, the transmission accuracy will be reduced, and periodic impacts will be generated, causing vibration and noise.

[0017] Second, in the present invention, air flow is introduced into the first air duct by a blower within the air frame. The first air duct is made of stainless steel, which has good corrosion resistance and relatively good heat conduction performance. It can transfer the low temperature of the external air flow to the inside of the base, used to cool the guide rail that generates heat due to gear meshing friction above. The electric valve is controlled by a noise detector. When lacking lubrication, the meshing becomes dry and the tooth surface friction increases, generating noise. The noise detector collects the noise and opens the electric valve, allowing the air flow in the first air duct to be blown into the space between the limit plate and the guide rail through the second air duct by a DC nozzle. The cold air flow blows the atomized lubricating oil, expanding the coverage range of the lubricating oil, enabling the lubricating oil to evenly cover the gear rollers and the continuous tooth grooves on the outer side of the guide rail, expanding the working coverage area of the lubricating oil while cooling.

[0018] Third, in the present invention, the rubber plate serves as the first layer of buffer for the bottom support. The rubber net does not have the supporting ability and only functions to block debris. It can stretch along with the adjustment of the space between the bottom plate and the rubber plate without affecting its performance of blocking debris. The double-layer rubber rod and the rubber pad serve as the second layer of buffer. The height of the upper equipment can be adjusted by the push of the cylinder, making it more flexible in use. The rubber pad and the double-layer rubber rod are connected to each other through the first connecting plate and the second connecting plate, evenly sharing the bearing pressure and shock absorption. When the rubber pad rises or falls, the spiral steel spring columns installed inside the double-layer rubber rod will contract correspondingly, enabling the double-layer rubber rod to maintain shock absorption and a certain supporting ability while adjusting its own length following the rise and fall of the rubber pad. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 is a three-dimensional schematic diagram of the overall structure of the present invention; Figure 2 is a three-dimensional schematic diagram of the lubrication mechanism of the present invention; Figure 3 is a partial disassembled schematic diagram of the lubrication mechanism of the present invention; Figure 4 is a three-dimensional schematic diagram of the temperature control mechanism of the present invention; Figure 5 is a partial disassembled schematic diagram of the temperature control mechanism of the present invention; Figure 6 is a three-dimensional schematic diagram of the shock absorption mechanism of the present invention; Figure 7 is a disassembled schematic diagram of the shock absorption mechanism of the present invention.

[0020] LEGEND DESCRIPTION: 1. Lubrication mechanism; 101. Guide rail; 102. Double-layer sliding disc; 103. Walking mechanism body; 104. Gear roller; 105. Base; 106. Positioning roller; 107. Limit plate; 108. Laser transmitter; 109. Laser receiver; 110. Noise detector; 111. Oil inlet pipe; 112. Atomizing nozzle; 113. Oil collecting pipe; 114. Screen 2. Temperature control mechanism; 201. Air frame; 202. Fan; 203. First air duct; 204. Electric valve; 205. Second air duct; 206. DC nozzle 3. Shock absorption mechanism; 301. Rubber plate; 302. Rubber mesh; 303. Bottom plate; 304. Cylinder; 305. Rubber pad; 306. First connecting plate; 307. Second connecting plate; 308. Double-layer rubber rod; 309. Spiral steel spring column Specific implementation manner

[0021] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0022] As Figure 1 、 Figure 2 、 Figure 3 、 Figure 4 、 Figure 5 、 Figure 6 and Figure 7 shown, the present invention provides a technical solution: a welding and conveying device for processing a steel tower frame, including a lubrication mechanism 1, a temperature control mechanism 2 is arranged inside the lubrication mechanism 1, a shock absorption mechanism 3 is arranged at the bottom of the temperature control mechanism 2, the top of the shock absorption mechanism 3 is fixedly connected to the bottom of the lubrication mechanism 1, and the outer surface of the temperature control mechanism 2 is fixedly connected to the lubrication mechanism 1; The lubrication mechanism 1 includes a guide rail 101, a walking mechanism body 103 is attached to the top of the guide rail 101, a double-layer sliding disc 102 is installed on the top of the walking mechanism body 103, the walking mechanism body 103 includes a gear roller 104, the bottom of the guide rail 101 is fixedly connected to a base 105, a limit plate 107 is fixedly connected to the top of the base 105, an oil inlet pipe 111 is fixedly connected to the top of the limit plate 107, and two atomizing nozzles 112 are fixedly connected to the side of the oil inlet pipe 111 close to the guide rail 101, and both atomizing nozzles 112 are adapted to the gear roller 104.

[0023] There are two limit plates 107. A laser transmitter 108 is fixedly connected to the top of one of the limit plates 107, and a laser receiver 109 is fixedly connected to the top of the other limit plate 107. The laser transmitter 108 is adapted to the laser receiver 109. A noise detector 110 is installed inside the base 105. The laser receiver 109 is electrically connected to the noise detector 110, and the laser receiver 109 is electrically connected to the oil inlet pipe 111.

[0024] A chute is formed at the bottom of the inner wall of the base 105. A positioning roller 106 is fixedly connected to the bottom of the gear roller 104. The chute is adapted to the positioning roller 106. Teeth are formed on the outer surface of the positioning roller 106, and continuous tooth grooves are respectively formed on both sides of the inner wall of the chute. The teeth are meshed with the continuous tooth grooves.

[0025] An oil collecting pipe 113 is arranged at the bottom of the chute. The oil collecting pipe 113 is fixedly connected to the base 105. An inlet is formed at the top of the oil collecting pipe 113, and a screen 114 is fixedly connected inside the inlet. The top of the screen 114 is in contact with the bottom of the positioning roller 106.

[0026] Among them, the movement path is stabilized by the engagement of the positioning roller 106 with the continuous tooth grooves in the chute. The position of the gear roller 104 is sprayed with atomized lubricating oil through the oil inlet pipe 111 and the atomizing nozzle 112. Due to its adhesiveness, during the continuous meshing movement of the gear roller 104, the lubricating oil can be contaminated on the subsequent tooth surfaces, playing a lubricating role. The limiting plate 107 is used to limit the position of the gear roller 104 and prevent the lubricating oil from being sprayed outside. The laser transmitter 108 and the laser receiver 109 are used to determine whether the walking mechanism body 103 passes by, and the noise detector 110 is used to control the switch. When lubrication is lacking, the meshing is dry, the tooth surface friction increases and generates noise. The noise is collected by the noise detector 110 through the conduction of the base 105. The noise detector 110 turns on the laser receiver 109 to judge whether there is a walking mechanism body 103 at the position corresponding to the atomizing nozzle 112. When the laser of the laser transmitter 108 is normally received by the laser receiver 109, the oil inlet pipe 111 is closed. Without additional water pressure, the atomizing nozzle 112 will not seep out lubricating oil. When the walking mechanism body 103 passes by, the laser receiver 109 cannot receive the laser, then the oil inlet pipe 111 is opened, and the lubricating oil is sprayed from the atomizing nozzle 112 through water pressure. The excess or residual lubricating oil after use will flow downward along the gravity and fall into the sunken chute. It is collected through the inlet opened at the top of the oil collecting pipe 113 in the chute. The screen 114 is used to prevent sundries from falling into the oil collecting pipe 113 and causing damage. Through the lubrication mechanism 1, it can automatically judge whether lubricating oil is needed, spray an appropriate amount of lubricating oil at the accurate position, and automatically recycle the used lubricating oil, improving the overall conveying speed and use convenience of the equipment, without the need for manual maintenance, solving the problem that during the long-term tooth groove meshing transmission process, lubricating oil needs to be used regularly for maintenance, otherwise the tooth surface will gradually wear due to friction, change the tooth shape, reduce the transmission accuracy, and generate periodic impacts, causing vibration and noise.

[0027] The temperature control mechanism 2 includes a wind frame 201. A blower 202 is fixedly connected inside the wind frame 201. The output port of the blower 202 is fixedly connected with a first air duct 203. An installation groove is opened inside the base 105, and the installation groove is fixedly connected with the first air duct 203. The top of the first air duct 203 is fixedly connected with a second air duct 205. A plurality of DC nozzles 206 are fixedly connected to the side of the second air duct 205 close to the guide rail 101. A plurality of DC nozzles 206 are all fixedly connected inside the limiting plate 107.

[0028] The top of the first air duct 203 is fixedly connected with an electric valve 204. The electric valve 204 is installed with the second air duct 205, and the electric valve 204 is electrically connected with the noise detector 110.

[0029] Airflow is introduced into the first air duct 203 by the fan 202 in the air frame 201. The first air duct 203 is made of stainless steel, which has good corrosion resistance and relatively good heat conduction performance. It can apply the low temperature of the external air flow to the inside of the base 105 to cool the guide rail 101 that generates heat due to gear meshing friction above. The electric valve 204 is controlled by the noise detector 110. When there is a lack of lubrication, the meshing is dry, the tooth surface friction increases and generates noise. The noise detector 110 collects the noise and opens the electric valve 204, allowing the air flow in the first air duct 203 to be blown into the space between the limit plate 107 and the guide rail 101 through the second air duct 205 by the DC nozzle 206. The cold air flow blows the atomized lubricating oil to expand the coverage range of the lubricating oil, enabling the lubricating oil to evenly cover the continuous tooth grooves on the outer sides of the gear roller 104 and the guide rail 101, expanding the working coverage area of the lubricating oil while cooling.

[0030] The shock absorption mechanism 3 includes a rubber plate 301. A rubber net 302 is fixedly connected to the bottom of the rubber plate 301. A bottom plate 303 is fixedly connected to the bottom of the rubber net 302. A double-layer rubber rod 308 is fixedly connected to the top of the bottom plate 303, and the double-layer rubber rod 308 is fixedly connected to the rubber plate 301.

[0031] An installation groove is formed inside the bottom plate 303. A cylinder 304 is fixedly connected inside the installation groove. An output port of the cylinder 304 is fixedly connected to a rubber pad 305, and the top of the rubber pad 305 is fixedly connected to the rubber plate 301.

[0032] There are multiple double-layer rubber rods 308, and spiral steel spring columns 309 are installed inside all of the multiple double-layer rubber rods 308.

[0033] There are two rubber pads 305. A second connecting plate 307 is fixedly connected between the two rubber pads 305. The outer surface of the second connecting plate 307 is fixedly connected to the double-layer rubber rod 308. The second connecting plate 307 is fixedly connected between multiple double-layer rubber rods 308, and both ends of the second connecting plate 307 are fixedly connected to the middle of the first connecting plate 306.

[0034] The first layer of buffering for bottom support is provided by the rubber plate 301. The rubber mesh 302 has no supporting ability and only functions to block debris. It can stretch along with the adjustment of the space between the bottom plate 303 and the rubber plate 301 without affecting its performance of blocking debris. The second layer of buffering is provided by the double-layer rubber rod 308 and the rubber pad 305. The height of the upper equipment can be adjusted by the push of the cylinder 304, making it more flexible in use. Among them, the rubber pad 305 and the double-layer rubber rod 308 are interconnected through the first connecting plate 306 and the second connecting plate 307, evenly distributing the bearing pressure and shock absorption. When the rubber pad 305 rises or falls, the spiral steel spring column 309 installed inside the double-layer rubber rod 308 will shrink correspondingly, enabling the double-layer rubber rod 308 to maintain shock absorption and a certain supporting ability while adjusting its own length following the rise and fall of the rubber pad 305.

[0035] During use, the movement path is stabilized by the engagement of the positioning roller 106 with the continuous tooth grooves in the chute. The gear roller 104 is sprayed with atomized lubricating oil through the oil inlet pipe 111 and the atomizing nozzle 112. Due to its adhesiveness, when the gear roller 104 continuously meshes and moves, the lubricating oil can contaminate the subsequent tooth surfaces, playing a lubricating role. The limiting plate 107 is used to limit the position of the gear roller 104 and prevent the lubricating oil from being sprayed outside. The laser transmitter 108 and the laser receiver 109 are used to determine whether the traveling mechanism body 103 passes by, and the noise detector 110 is used to control the switch. When there is a lack of lubrication, the meshing is dry, the tooth surface friction increases and generates noise. The noise is collected by the noise detector 110 through the conduction of the base 105. The noise detector 110 turns on the laser receiver 109 to judge whether there is a traveling mechanism body 103 at the position corresponding to the atomizing nozzle 112. When the laser of the laser transmitter 108 is normally received by the laser receiver 109, the oil inlet pipe 111 is closed. Without additional water pressure, the atomizing nozzle 112 will not seep out lubricating oil. When the traveling mechanism body 103 passes by, the laser receiver 109 cannot receive the laser, then the oil inlet pipe 111 is opened, and the lubricating oil is sprayed from the atomizing nozzle 112 through the water pressure. The excess or residual lubricating oil after use will flow downward along the gravity and fall into the sunken chute. It is collected through the inlet opened at the top of the oil collecting pipe 113 in the chute. The used lubricating oil is recycled. The screen 114 is used to prevent sundries from falling into the oil collecting pipe 113 and causing damage. Through the lubrication mechanism 1, it can automatically judge whether lubricating oil is needed, spray an appropriate amount of lubricating oil at the accurate position, and automatically recycle the used lubricating oil, improving the overall conveying speed and use convenience of the equipment, without the need for manual maintenance. It solves the problem that during the long-term tooth groove meshing transmission process, lubricating oil needs to be used regularly for maintenance. Otherwise, the tooth surface will gradually wear due to friction, changing the tooth shape, reducing the transmission accuracy, generating periodic impacts, and causing vibration and noise. Airflow is introduced into the first air duct 203 by the fan 202 in the air frame 201. The first air duct 203 is made of stainless steel, which has good corrosion resistance and relatively good heat conduction performance. It can apply the low temperature of the external air flow to the inside of the base 105 to cool the guide rail 101 that generates heat due to gear meshing friction above. The electric valve 204 is controlled by the noise detector 110. When there is a lack of lubrication, the meshing is dry, the tooth surface friction increases and generates noise. The noise detector 110 collects the noise and opens the electric valve 204, allowing the airflow in the first air duct 203 to be blown into the space between the limiting plate 107 and the guide rail 101 through the second air duct 205 and the DC nozzle 206. The cold air flow blows the atomized lubricating oil to expand the coverage range of the lubricating oil, enabling the lubricating oil to evenly cover the continuous tooth grooves on the outer sides of the gear roller 104 and the guide rail 101, expanding the working coverage area of the lubricating oil while cooling.The first layer of buffering for bottom support is provided by the rubber plate 301. The rubber mesh 302 has no supporting ability and only functions to block sundries. It can stretch along with the adjustment of the space between the bottom plate 303 and the rubber plate 301 without affecting its performance of blocking sundries. The second layer of buffering is provided by the double-layer rubber rod 308 and the rubber pad 305. The height of the upper equipment can be adjusted by the push of the air cylinder 304, making it more flexible during use. Among them, the rubber pad 305 and the double-layer rubber rod 308 are connected to each other through the first connecting plate 306 and the second connecting plate 307, evenly sharing the bearing pressure and shock absorption. When the rubber pad 305 rises or falls, the spiral steel spring column 309 installed inside the double-layer rubber rod 308 will shrink correspondingly. While the double-layer rubber rod 308 adjusts its own length following the rise and fall of the rubber pad 305, it still maintains shock absorption and a certain supporting ability.

[0036] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principle and spirit. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A welding and conveying device for processing iron tower steel frames, including a lubricating mechanism (1), characterized in that: Inside the lubrication mechanism (1), a temperature control mechanism (2) is provided. At the bottom of the temperature control mechanism (2), a shock absorption mechanism (3) is provided. The top of the shock absorption mechanism (3) is fixedly connected to the bottom of the lubrication mechanism (1), and the outer surface of the temperature control mechanism (2) is fixedly connected to the lubrication mechanism (1). The lubrication mechanism (1) includes a guide rail (101). The top of the guide rail (101) is fitted with a walking mechanism body (103). The top of the walking mechanism body (103) is equipped with a double-layer sliding disc (102). The walking mechanism body (103) includes a gear roller (104). The bottom of the guide rail (101) is fixedly connected to a base (105). The top of the base (105) is fixedly connected to a limiting plate (107). The top of the limiting plate (107) is fixedly connected to an oil inlet pipe (111). On the side of the oil inlet pipe (111) close to the guide rail (101), two atomizing nozzles (112) are fixedly connected. Both of the two atomizing nozzles (112) are adapted to the gear roller (104). The temperature control mechanism (2) includes a wind frame (201). Inside the wind frame (201), a fan (202) is fixedly connected. The output port of the fan (202) is fixedly connected to a first air duct (203). An installation groove is formed inside the base (105), and the installation groove is fixedly connected to the first air duct (203). The top of the first air duct (203) is fixedly connected to a second air duct (205). On the side of the second air duct (205) close to the guide rail (101), a plurality of direct current nozzles (206) are fixedly connected. All of the plurality of direct current nozzles (206) are fixedly connected to the inside of the limiting plate (107).

2. A welding and conveying device for processing a steel tower frame according to claim 1, characterized in that: There are two limiting plates (107). On the top of one limiting plate (107), a laser transmitter (108) is fixedly connected. On the top of the other limiting plate (107), a laser receiver (109) is fixedly connected. The laser transmitter (108) is adapted to the laser receiver (109). Inside the base (105), a noise detector (110) is installed. The laser receiver (109) is electrically connected to the noise detector (110), and the laser receiver (109) is electrically connected to the oil inlet pipe (111).

3. A welding and conveying device for processing a steel tower frame according to claim 1, characterized in that: At the bottom inner wall of the base (105), a chute is formed. At the bottom of the gear roller (104), a positioning roller (106) is fixedly connected. The chute is adapted to the positioning roller (106). Teeth are formed on the outer surface of the positioning roller (106). Continuous tooth grooves are respectively formed on both sides of the inner wall of the chute. The teeth are meshed with the continuous tooth grooves.

4. A welding and conveying device for processing a steel tower frame according to claim 3, characterized in that: At the bottom of the chute, an oil collecting pipe (113) is provided. The oil collecting pipe (113) is fixedly connected to the base (105). An inlet is formed at the top of the oil collecting pipe (113). A screen (114) is fixedly connected inside the inlet. The top of the screen (114) is in contact with the bottom of the positioning roller (106).

5. A welding and conveying device for processing a steel tower frame according to claim 2, characterized in that: The top of the first air duct (203) is fixedly connected with an electric valve (204). The electric valve (204) is installed on the second air duct (205), and the electric valve (204) is electrically connected with a noise detector (110).

6. The welding and conveying device for processing a steel tower frame according to claim 1, wherein: The shock absorption mechanism (3) includes a rubber plate (301). The bottom of the rubber plate (301) is fixedly connected with a rubber net (302). The bottom of the rubber net (302) is fixedly connected with a bottom plate (303). The top of the bottom plate (303) is fixedly connected with a double-layer rubber rod (308), and the double-layer rubber rod (308) is fixedly connected with the rubber plate (301).

7. A welding and conveying device for processing a steel tower frame according to claim 6, characterized in that: An installation groove is formed in the interior of the bottom plate (303). A cylinder (304) is fixedly connected in the installation groove. The output port of the cylinder (304) is fixedly connected with a rubber pad (305), and the top of the rubber pad (305) is fixedly connected with the rubber plate (301).

8. A welding and conveying device for processing a steel tower frame according to claim 6, characterized in that: A plurality of double-layer rubber rods (308) are provided, and spiral steel spring columns (309) are installed inside each of the plurality of double-layer rubber rods (308).

9. A welding and conveying device for processing a steel tower frame according to claim 7, characterized in that: Two rubber pads (305) are provided. A second connecting plate (307) is fixedly connected between the two rubber pads (305). The outer surface of the second connecting plate (307) is fixedly connected with a double-layer rubber rod (308). A second connecting plate (307) is fixedly connected between the plurality of double-layer rubber rods (308). The two ends of the second connecting plate (307) are respectively fixedly connected with the middle part of a first connecting plate (306).

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