Auxiliary forming device for cement pole production

Abstract

The invention relates to the field of cement pole production, in particular to an auxiliary forming device for cement pole production, which comprises a centrifugal device, an auxiliary forming device and an auxiliary forming device, the lubricating mechanism comprises a support mounted on the base, a smearing assembly used for smearing lubricating oil on the rotating wheel is arranged on the support, a mounting groove is formed in the support, and a driving assembly used for driving the smearing assembly to ascend and descend is arranged in the mounting groove; and an oil conveying assembly used for injecting lubricating oil into the smearing assembly is arranged between the smearing assembly and the driving assembly, through the arrangement of the lubricating mechanism, automatic cleaning of the rotating wheel is achieved, good cooperation between the rotating wheel and the mold is ensured, friction is reduced, and it is avoided that centrifugation of centrifugal equipment on the mold is affected, and consequently production of concrete poles is affected.

Description

Technical Field

[0001] The invention relates to the field of cement pole production, in particular to an auxiliary forming device for cement pole production. Background Art

[0002] Cement poles, also commonly known as concrete poles or utility poles, are vertical structures widely used for a variety of purposes such as power transmission and distribution systems, communication lines, traffic signal support, etc. Their main function is to support wires, cables or related equipment.

[0003] When processing cement poles, first make the steel wire into a wire cage, then place the wire cage in the lower mold, move the lower mold to the bottom of the discharge port, fill the wire cage and the lower mold with cement, and when filled with concrete, cover the upper mold, tighten the screws, and place it on a centrifuge. The centrifuge will rotate at a certain speed and high speed for a period of time, so that the cement is all attached to the surroundings, and the inside of the cement pole becomes hollow. Then the mold is hoisted into the steam curing room to solidify the concrete, and then the mold is taken down to complete the production.

[0004] When the centrifuge drives the mold to rotate centrifugally through the rotor, due to the heavy dust in the factory, a lot of dust will adhere to the mold and the rotor on the centrifuge, resulting in greater friction when the rotor drives the mold to rotate centrifugally, affecting the centrifugal force of the centrifuge on the mold, thereby affecting the production of cement poles.

[0005] Therefore, an automatic pouring device for cement pole processing is proposed. Summary of the invention In view of the problem in the above or prior art that when the centrifuge drives the mold to rotate and centrifuge through the rotor, due to the large amount of dust in the factory, a lot of dust will adhere to the mold and the rotor on the centrifuge, resulting in large friction when the rotor drives the mold to rotate and centrifuge, affecting the centrifugation of the centrifuge on the mold, thereby affecting the production of cement poles, the present invention is proposed.

[0006] Therefore, the object of the present invention is to provide a cement pole production auxiliary forming device.

[0007] In order to solve the above technical problems, the present invention provides the following technical solutions: comprising: A centrifugal device comprises a base, a driving motor is mounted on the base, and a rotating wheel is connected to the output end of the driving motor; The lubrication mechanism comprises a bracket installed on a base, the bracket is provided with an application component for applying lubricating oil to the rotating wheel, the bracket is provided with a mounting groove, a driving component for driving the application component to rise and fall is provided inside the mounting groove, and an oil delivery component for injecting lubricating oil into the application component is provided between the application component and the driving component.

[0008] As a preferred solution of the cement pole production auxiliary forming device of the present invention, the coating component includes a coating arranged on the top of the rotating wheel, and a cross frame is connected to the coating, and the coating and the cross frame are detachably connected.

[0009] As a preferred solution of the cement pole production auxiliary forming device of the present invention, the coating material is a thermoplastic elastomer.

[0010] As a preferred solution of the cement pole production auxiliary forming device of the present invention, the driving assembly includes a heat-conducting member arranged on one side of the rotating wheel, one end of the heat-conducting member is close to the rotating wheel, and the other end of the heat-conducting member extends to the inside of the mounting groove, a control member is arranged inside the mounting groove, one side of the control member is in contact with the top of the heat-conducting member, and a piston is arranged on the other side of the control member, two flow-conducting members are arranged inside the bracket, the piston is connected to the cross frame by a sling, and the sling is passed through the two flow-conducting members; The heat conducting member does not contact the rotating wheel; The bracket is in the shape of a letter "7", consisting of a horizontal section and a vertical section, and the two guide members are both located in the horizontal section.

[0011] As a preferred solution of the cement pole production auxiliary forming device of the present invention, the gravity of the piston is greater than the total gravity of the coating and cross frame.

[0012] As a preferred solution of the cement pole production auxiliary forming device of the present invention, the control element is heat-sensitive wax.

[0013] As a preferred embodiment of the cement pole production auxiliary forming device of the present invention, the coating is in the shape of a hollow bag with mesh; The oil delivery assembly includes an oil pipe communicating with the interior of the coating, the oil pipe is fixedly connected to the coating, and one end of the oil pipe away from the coating extends to the interior of the oil storage tank; The oil storage tank is installed on the cross frame.

[0014] As a preferred solution of the cement pole production auxiliary forming device of the present invention, the oil delivery assembly further comprises a conduit disposed at the bottom of the oil storage tank, the conduit is communicated with the inside of the oil storage tank, the conduit is sleeved on the oil through pipe, and the oil through pipe is slidably connected with the conduit, a through hole is opened on the surface of the oil through pipe, the through holes are all communicated with the inside of the oil through pipe, and a sealing cover is disposed at the end of the conduit, and the size of the sealing cover is larger than the port size of the conduit; The oil delivery component also includes a raised block installed on the rotating wheel, and the top of the raised block is a curved surface.

[0015] As a preferred solution of the cement pole production auxiliary forming device of the present invention, a boss is arranged inside the conduit, the top of the boss is an arc-shaped inclined surface, and the inner ring of the boss is slidably connected to the oil pipe through a sealing ring.

[0016] As a preferred solution of the cement pole production auxiliary forming device of the present invention, wherein: a plurality of through holes are provided, and the plurality of through holes are distributed in a net-like shape on the oil pipe; The plurality of through holes match the moving track of the oil pipe.

[0017] The beneficial effects of the cement pole production auxiliary forming device of the present invention are as follows: through the setting of the coating component, the surface of the rotating wheel can be cleaned. With the cooperation of the driving component, when the rotational friction between the rotating wheel and the mold is large, the temperature of the rotating wheel rises. At this time, the driving component automatically turns on, drives the coating component to descend and fit with the surface of the rotating wheel to clean the surface of the rotating wheel. When the cleaning is completed and the friction between the rotating wheel and the mold is normal, the temperature of the rotating wheel decreases, and the driving component automatically turns off, so that the coating component rises and the coating component no longer contacts the rotating wheel, thereby reducing the wear of the coating component. Through the setting of the oil delivery component, when the coating component descends to a suitable height and the impeller continues to rotate, the oil delivery component provides lubricating oil to the coating component, so that the coating component coats the lubricating oil on the surface of the impeller, forming an oil film on the surface of the impeller, thereby reducing the friction between the impeller and the mold in direct contact, thereby reducing the wear rate, extending the service life of the impeller and the mold, and avoiding affecting the centrifugal operation of the centrifugal equipment on the mold, thereby affecting the production of cement poles. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0019] Figure 1 This is a schematic diagram of the overall structure of the auxiliary forming device for cement pole production; Figure 2 Auxiliary forming device for cement pole production Figure 1 A schematic diagram of the enlarged structure of position A in FIG. Figure 3 This is a schematic diagram of the cross-sectional structure of the lubrication mechanism of the auxiliary forming device for cement pole production; Figure 4 This is a schematic diagram of the cross-sectional structure of the oil delivery component of the auxiliary molding device for cement pole production.

[0020] In the figure: 100, centrifugal device; 101, base; 102, drive motor; 103, rotor; 200, lubrication mechanism; 201, bracket; 202, coating assembly; 202a, coating; 202b, cross frame; 203, mounting groove; 204, driving assembly; 204a, heat conductor; 204b, control member; 204c, piston; 204d, sling; 204e, flow guide; 205, oil delivery assembly; 205a, oil pipe; 205b, oil storage tank; 205c, conduit; 205c-1, boss; 205c-2, sealing ring; 205d, through hole; 205e, sealing cover; 205f, raised block. DETAILED DESCRIPTION

[0021] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are described in detail below in conjunction with the accompanying drawings.

[0022] Example 1, reference Figures 1 to 4 , is the first embodiment of the present invention, which provides a cement pole production auxiliary forming device, including a centrifugal device 100, which includes a base 101, a driving motor 102 is installed on the top of the base 101 by bolts, and the output end of the driving motor 102 is connected to a rotating wheel 103, and a lubrication mechanism 200 is also installed on the base 101, which includes a bracket 201 fixedly installed on the base 101, and a coating component 202 for coating the rotating wheel 103 is arranged on the bracket 201, and a mounting groove 203 is opened on the bracket 201, and a driving component 204 for driving the coating component 202 to rise and fall is arranged inside the mounting groove 203, and an oil delivery component 205 for injecting lubricating oil into the coating component 202 is arranged between the coating component 202 and the driving component 204; Among them, two centrifugal devices 100 are provided, and the end of the cross section of the runner 103 is concave. When in use, the staff puts the end of the mold in the concave, and drives the two runners 103 to rotate through the two centrifugal devices 100, thereby driving the mold to rotate, and realizing centrifugal molding of concrete inside the mold, which is a very mature existing technology; By setting the coating component 202, the surface of the rotating wheel 103 can be cleaned. With the cooperation of the driving component 204, when the rotational friction between the rotating wheel 103 and the mold is large, the temperature of the rotating wheel 103 increases. At this time, the driving component 204 automatically turns on, drives the coating component 202 to descend and fit with the surface of the rotating wheel 103, and cleans the surface of the rotating wheel 103. When the cleaning is completed and the friction between the rotating wheel 103 and the mold is normal, the temperature of the rotating wheel 103 decreases, and the driving component 204 automatically turns off, so that the coating component 202 rises, and the coating component 202 no longer contacts the rotating wheel 103, thereby reducing the wear of the coating component 202. By setting the oil delivery component 205, when the coating component 202 descends to a suitable height and the impeller 103 continues to rotate, the oil delivery component 205 provides lubricating oil to the coating component 202, so that the coating component 202 coats the lubricating oil on the surface of the impeller 103, and forms an oil film on the surface of the impeller 103, thereby reducing the friction between the impeller 103 and the mold in direct contact, thereby reducing the wear rate, extending the service life of the impeller 103 and the mold, and avoiding affecting the centrifugal operation of the centrifugal device 100 on the mold, thereby affecting the production of cement poles.

[0023] Furthermore, the coating assembly 202 includes a coating 202a disposed on the top of the rotating wheel 103, and a horizontal frame 202b is connected to the coating 202a, and the coating 202a and the horizontal frame 202b are detachably connected; The coating 202a and the cross frame 202b may be connected by Velcro or by a clamp, and it is only necessary to ensure that the coating 202a can be quickly replaced after being worn to a certain extent.

[0024] Furthermore, the material of coating 202a is thermoplastic elastomer (TPE). TPE is a thermoplastic elastomer material with good colorability, environmental protection and non-toxicity, a wide range of hardness, soft touch, weather resistance, fatigue resistance, temperature resistance and excellent processing performance. TPE has good oil resistance and wear resistance, and relatively low cost.

[0025] In this embodiment, the horizontal frame 202b is connected to the bracket 201, and the two can be fixedly connected or bolted, and in the initial state, the coating 202a is in contact with the surface of the rotating wheel 103; During use, when the drive motor 102 is turned on, the drive motor 102 drives the wheel 103 to rotate, and the wheel 103 drives the mold to rotate centrifugally, and the wheel 103 contacts the coating 202a when rotating, so that the coating 202a cleans the surface of the wheel 103, avoiding dust and the like from adhering to the wheel 103, causing greater friction between the wheel 103 and the mold, thereby causing greater wear between the wheel 103 and the mold.

[0026] In summary, in the prior art, there is a lot of dust in the cement pole production factory, so it is easy for a lot of dust to adhere to the surface of the wheel 103 and the mold. When the wheel 103 drives the mold to rotate centrifugally, the coating 202a contacts the wheel 103 and continuously cleans the surface of the wheel 103, thereby reducing the wear between the wheel 103 and the mold.

[0027] Example 2, reference Figures 1 to 4, which is the second embodiment of the present invention. Different from the previous embodiment, the driving assembly 204 in this embodiment includes a heat conducting member 204a disposed on one side of the rotating wheel 103, one end of the heat conducting member 204a is close to the rotating wheel 103, and the other end of the heat conducting member 204a extends to the inside of the mounting groove 203, a control member 204b is disposed inside the mounting groove 203, one side of the control member 204b is in contact with the top of the heat conducting member 204a, and a piston 204c is disposed on the other side of the control member 204b, two flow guide members 204e are disposed inside the bracket 201, the piston 204c is connected to the cross frame 202b by a sling 204d, and the sling 204d is passed through the two flow guide members 204e; The heat conducting member 204a does not contact the rotating wheel 103, so as to reduce the wear of the heat conducting member 204a. The material of the heat conducting member 204a may be diamond or aluminum. The bracket 201 is in the shape of a letter "7", which consists of a horizontal section and a vertical section. The two guide members 204e are both located in the horizontal section, one of which is located at the top of the runner 103, and the other is located at the connection between the horizontal section and the vertical section. Among them, the piston 204c matches the installation groove 203, and the piston 204c plays a certain sealing role; The guide member 204e may be a rotating wheel 103, or may be any other device such as an angle bracket that can guide the sling 204d.

[0028] Furthermore, the weight of the piston 204c is greater than the total weight of the coating 202a and the cross frame 202b.

[0029] Furthermore, the control member 204b is thermosensitive wax, which is a special material. Its characteristic is that when it changes from solid to liquid by heat, its volume expansion can reach 13% to 15%. When the heat conductor 204a introduces the high temperature of the rotating wheel 103 into the thermosensitive wax, the thermosensitive wax expands, and the thermosensitive wax can push the piston 204c to move upward. When the temperature decreases, the thermosensitive wax changes from liquid to solid, and under the action of the gravity of the piston 204c, the piston 204c automatically resets. The melting point of the thermosensitive wax is selected according to the actual temperature of the heat-conducting member 204a, etc., which is a very mature prior art.

[0030] Different from the first embodiment, in this embodiment, the horizontal frame 202b is not connected to the bracket 201, and in the initial state, the coating 202a is located on the top of the rotating wheel 103, and the coating 202a is not in contact with the surface of the rotating wheel 103; The rest of the structure is the same as that of Example 1.

[0031] During use, when the friction between the rotating wheel 103 and the mold is large, the temperature of the rotating wheel 103 increases, so that the temperature around the rotating wheel 103 also increases, and the heat conducting member 204a transfers the temperature to the thermosensitive wax, so that the thermosensitive wax changes from solid to liquid, and the volume of the thermosensitive wax increases, driving the piston 204c to move upward, and the piston 204c drives one end of the sling 204d to move upward, and under the cooperation of the cross frame 202b and the gravity of the coating 202a and the guide member 204e, the coating 202a descends and contacts the surface of the rotating wheel 103, so that when the rotating wheel 103 continues to rotate, the coating 202a cleans the surface of the rotating wheel 103, thereby reducing the friction between the rotating wheel 103 and the mold; When the wheel 103 and the mold are relatively clean and the friction is small, the temperature of the wheel 103 decreases, and the temperature of the thermosensitive wax transmitted by the heat conductor 204a decreases, the thermosensitive wax changes from liquid to solid and the volume decreases. At this time, under the action of the gravity of the piston 204c, the piston 204c descends and the piston 204c pulls the cross frame 202b and the coating 202a to rise through the sling 204d, so that the coating 202a does not contact the surface of the wheel 103, reducing the wear of the coating 202a.

[0032] In summary, unlike the first embodiment in which the rotating wheel 103 is always in contact with the coating 202a, in this embodiment, the surface cleaning of the rotating wheel 103 is further optimized. When the friction of the rotating wheel 103 is large, the coating 202a automatically descends and contacts with the surface of the rotating wheel 103. When the cleaning of the rotating wheel 103 is completed, the coating 202a automatically rises and does not contact with the surface of the rotating wheel 103, thereby realizing automatic cleaning and reducing the contact time between the coating 202a and the rotating wheel 103, thereby reducing the wear of the coating 202a and saving resources.

[0033] Example 3, reference Figures 1 to 4 , which is the third embodiment of the present invention. Different from the previous embodiment, the coating 202a in this embodiment is a hollow bag with mesh holes, and the holes are located at the bottom of the coating 202a; The oil delivery assembly 205 includes an oil pipe 205a communicating with the interior of the coating 202a. The oil pipe 205a is fixedly connected to one side of the coating 202a. One end of the oil pipe 205a away from the coating 202a extends to the interior of the oil storage tank 205b. The oil storage tank 205b is installed on the cross frame 202b. Among them, a refueling hole is opened on the oil storage tank 205b, and a twist cap is arranged on the refueling hole. When the lubricating oil in the oil storage tank 205b is less or there is no lubricating oil, the twist cap is twisted off and the lubricating oil is injected into the oil storage tank 205b through the refueling hole.

[0034] Furthermore, the oil delivery component 205 also includes a conduit 205c disposed at the bottom of the oil storage tank 205b, the conduit 205c is communicated with the inside of the oil storage tank 205b, the conduit 205c is sleeved on the oil pipe 205a, and the oil pipe 205a is slidably connected with the conduit 205c, the surface of the oil pipe 205a is provided with a through hole 205d, the through holes 205d are all communicated with the inside of the oil pipe 205a, and the end of the conduit 205c is provided with a sealing cover 205e, the size of the sealing cover 205e is larger than the port size of the conduit 205c, and the oil delivery component 205 also includes a raised block 205f installed on the rotating wheel 103, and the top of the raised block 205f is a curved surface; The size of the raised block 205f depends on the amount of oil flowing into the conduit 205c from the gap between the conduit 205c and the oil pipe 205a when the sealing cover 205e no longer blocks the conduit 205c when the oil pipe 205a rises. It is preferred to set a smaller size because after applying lubricating oil, although the friction is reduced, it takes time for the temperature of the runner 103 to drop. During the time when the temperature drops, the runner 103 will drive the raised block 205f to contact the oil pipe 205a multiple times. If it is set larger, the inflow will lead to excessive oil flow, resulting in waste, and may even affect the rotation of the mold driven by the runner 103. Among them, the protruding block 205f and the oil pipe 205a are both made of aluminum alloy. Aluminum alloy has high strength (σb is 110-270MPa), specific strength is close to high alloy steel, specific stiffness exceeds steel, cost is relatively low, and can withstand continuous impact.

[0035] Furthermore, a boss 205c-1 is provided inside the conduit 205c, the top of the boss 205c-1 is an arc-shaped inclined surface, and the inner ring of the boss 205c-1 is slidably connected to the oil pipe 205a through a sealing ring 205c-2.

[0036] Furthermore, a plurality of through holes 205d are provided, and a plurality of through holes 205d are distributed in a net-like manner on the oil pipe 205a. The plurality of through holes 205d matches the moving trajectory of the oil pipe 205a. When the oil pipe 205a moves up and down, the plurality of through holes 205d are always located inside the oil pipe 205a.

[0037] Different from the second embodiment, in this embodiment, the gravity of the piston 204c is greater than the total gravity of the coating 202a, the cross frame 202b and the oil storage assembly.

[0038] The rest of the structure is the same as that of Example 2.

[0039] During use, when the temperature of the rotating wheel 103 is high, the driving assembly 204 drives the coating 202a and the cross frame 202b to descend, and makes the surface of the rotating wheel 103 fit. At this time, the oil pipe 205a corresponds to the position of the protruding block 205f. When the rotating wheel 103 drives the protruding block 205f to rotate, the protruding block 205f contacts the oil pipe 205a, driving the oil pipe 205a to rise. Since the coating 202a is a thermoplastic elastomer, it can be deformed, and under the restriction of the conduit 205c, the oil pipe 205a can only move up and down in the vertical direction, so the coating 202a will The oil pipe 205a is deformed toward one side. When the oil pipe 205a rises, the cover does not block the conduit 205c. The oil flows into the conduit 205c along the port of the conduit 205c, and flows into the oil pipe 205a along the inclined surface on the boss 205c-1 and the multiple through holes 205d arranged in an annular manner on the oil pipe 205a, and flows into the coating 202a through the oil pipe 205a. Since the coating 202a is pulled at this time, the coating 202a has a larger arc at one end close to the oil pipe 205a, which is convenient for the oil to be quickly introduced into the bottom of the coating 202a. When the raised block 205f is not in contact with the bottom of the oil pipe 205a, the oil pipe 205a is reset under the action of gravity, and the oil pipe 205a drives the cap to block the port of the conduit 205c to stop the oil supply. The lubricating oil inside the conduit 205c is smeared on the surface of the runner 103 through the coating 202a, and an oil film is formed on the surface of the runner 103, which reduces the friction between the runner 103 and the mold, thereby reducing the wear rate and extending the service life of the runner 103 and the mold. At the same time, when the runner 103 is in contact with the mold, the lubricating oil on its surface will also be transferred to the mold, and then transferred to the other runner 103 through the mold.

[0040] In summary, the lubrication mechanism 200 proposed in the present invention is used to assist the centrifugal forming of cement poles. Adding the lubrication mechanism 200 will not have an adverse effect on the driving of the mold by the wheel 103. On the contrary, it can reduce the friction between the wheel 103 and the mold, reduce wear, improve the operating efficiency and safety of the equipment, ensure good coordination between the wheel 103 and the mold, reduce vibration and noise caused by friction, thereby improving the stability of the production process and product quality. At the same time, good lubrication also helps to reduce the maintenance requirements of the equipment and extend the service life of the equipment. At the same time, the lubrication mechanism 200 proposed in the present invention can automatically lubricate when the equipment is started. When the friction is large and the wheel 103 overheats, it is not necessary to stop the operation of the centrifugal equipment 100 and then apply lubricating oil, thereby reducing unnecessary waste of working time.

[0041] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. A cement pole production auxiliary forming device, characterized in that: include, A centrifugal device (100) comprises a base (101), a driving motor (102) being mounted on the base (101), and an output end of the driving motor (102) being connected to a rotating wheel (103); The lubrication mechanism (200) comprises a bracket (201) mounted on a base (101), a coating component (202) for coating a rotating wheel (103) with lubricating oil being disposed on the bracket (201), a mounting groove (203) being provided on the bracket (201), a driving component (204) for driving the coating component (202) to move up and down being disposed inside the mounting groove (203), and an oil delivery component (205) for injecting lubricating oil into the coating component (202) being disposed between the coating component (202) and the driving component (204).

2. The cement pole production auxiliary forming device according to claim 1, characterized in that: The coating assembly (202) comprises a coating (202a) arranged on the top of the rotating wheel (103); a cross frame (202b) is connected to the coating (202a); and the coating (202a) and the cross frame (202b) are detachably connected.

3. The cement pole production auxiliary forming device according to claim 2, characterized in that: The coating (202a) material is a thermoplastic elastomer.

4. The cement pole production auxiliary forming device according to claim 2 or 3, characterized in that: The driving assembly (204) comprises a heat conducting member (204a) arranged on one side of the rotating wheel (103), one end of the heat conducting member (204a) being close to the rotating wheel (103), and the other end of the heat conducting member (204a) extending to the inside of the mounting groove (203), a control member (204b) being arranged inside the mounting groove (203), one side of the control member (204b) being in contact with the top of the heat conducting member (204a), and a piston (204c) being arranged on the other side of the control member (204b), two flow guiding members (204e) being arranged inside the bracket (201), the piston (204c) being connected to the cross frame (202b) via a sling (204d), and the sling (204d) being passed through the two flow guiding members (204e); The heat conducting member (204a) does not contact the rotating wheel (103); The support (201) is in the shape of a letter "7", and is composed of a horizontal section and a vertical section, and the two flow guides (204e) are both located in the horizontal section.

5. The cement pole production auxiliary forming device according to claim 4, characterized in that: The weight of the piston (204c) is greater than the total weight of the coating (202a) and the cross frame (202b).

6. The cement pole production auxiliary forming device according to claim 5, characterized in that: The control element (204b) is heat-sensitive wax.

7. The cement pole production auxiliary forming device according to claim 6, characterized in that: The coating (202a) is in the shape of a hollow bag with mesh; The oil delivery component (205) comprises an oil pipe (205a) in communication with the interior of the coating (202a); the oil pipe (205a) is fixedly connected to the coating (202a); an end of the oil pipe (205a) away from the coating (202a) extends to the interior of the oil storage tank (205b); The oil storage tank (205b) is installed on the cross frame (202b).

8. The cement pole production auxiliary forming device according to claim 7, characterized in that: The oil delivery assembly (205) further comprises a conduit (205c) disposed at the bottom of the oil storage tank (205b), the conduit (205c) being in communication with the interior of the oil storage tank (205b), the conduit (205c) being sleeved on the oil passage pipe (205a), and the oil passage pipe (205a) and the conduit (205c) being slidably connected, a through hole (205d) being provided on the surface of the oil passage pipe (205a), the through holes (205d) being in communication with the interior of the oil passage pipe (205a), and a sealing cover (205e) being provided at the end of the conduit (205c), the size of the sealing cover (205e) being larger than the port size of the conduit (205c); The oil delivery component (205) further comprises a raised block (205f) mounted on the rotating wheel (103), wherein the top of the raised block (205f) is a curved surface.

9. The cement pole production auxiliary forming device according to claim 8, characterized in that: A boss (205c-1) is arranged inside the conduit (205c); the top of the boss (205c-1) is an arc-shaped inclined surface, and the inner ring of the boss (205c-1) is slidably connected to the oil passage (205a) via a sealing ring (205c-2).

10. The cement pole production auxiliary forming device according to claim 9, characterized in that: A plurality of through holes (205d) are provided, and the plurality of through holes (205d) are distributed in a net-like shape on the oil passage pipe (205a); The plurality of through holes (205d) match the movement trajectory of the oil through pipe (205a).

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