Rapid forming device for concrete of concrete pole

Abstract

The invention discloses a cement pole concrete rapid forming device, and relates to the technical field of cement pole forming, the cement pole concrete rapid forming device comprises a V-shaped scraping plate, the V-shaped scraping plate is used for conducting scraping type cleaning on the position, about to be in contact with the surface of a semi-arc long shell and the surface of an electric roller, of the V-shaped scraping plate, and the outer surface of the V-shaped scraping plate is fixedly connected with a slope brush. According to the concrete pole concrete rapid forming device, when the semi-arc long shell and the electric rolling wheel rotate, the V-shaped scraping plate conducts scraping type cleaning on the surface of the concrete pole concrete rapid forming device; the situation that redundant pug is often accumulated and attached to the surface, making contact with the rolling wheel, of the shell surface of the electric pole steel film composite film after the electric pole steel film composite film is used for many times, and the follow-up centrifugal rotation effect is affected is avoided, and an inclined face brush on the outer surface of a V-shaped scraping plate conducts friction sweeping on the outer surface of a semi-arc long shell and the outer surface of the electric rolling wheel; pug particles which cannot be scraped clean by the V-shaped scraper blade are prevented from remaining on the outer surface of the semi-arc long shell and the outer surface of the electric roller to increase the friction loss of the electric roller.

Description

Technical Field

[0001] The invention relates to the technical field of cement pole molding, and in particular to a cement pole concrete rapid molding device. Background Art

[0002] Cement pole is the common name of reinforced concrete pole. Rebar and concrete are cast in a centrifugal rolling machine. Reinforced concrete poles are divided into three types: ordinary type, prestressed type and partially prestressed type. Prestressed poles stretch the steel bars during the manufacturing process. After pouring concrete, the tensile stress is still maintained in the steel bars, which compresses the concrete and improves its strength. Therefore, the cross-section of the steel bars used in prestressed poles can be slightly smaller than that of ordinary poles, and the wall thickness of the pole body is also thinner, and the surface of the pole body is smooth and crack-free. At present, when cement poles are produced, the pole steel mold is generally opened first, and then a steel cage is built inside the pole steel mold, and then concrete is poured into the pole steel mold through a pouring device. After pouring is completed and leveled, the pole steel mold is closed, and then the pole steel mold is hoisted on the centrifugal forming machine, and the pole steel mold is driven to rotate by the centrifugal forming machine, so that the concrete is formed into a pole inside the pole steel mold by using centrifugal force; When the pole steel membrane after pouring concrete is centrifugally formed, the pole steel membrane is usually driven to rotate by rollers. However, after repeated use, the outer surface of the pole steel membrane and the surface in contact with the rollers often accumulate excess mud, affecting the effect of subsequent centrifugal rotation. Therefore, we proposed a cement pole concrete rapid forming device. Summary of the invention

[0003] In order to solve the above technical problems, the present invention provides a cement pole concrete rapid prototyping device, comprising: A base, wherein the top of the base is provided with an electric slide rail; A vertical support plate, one side of which is provided with an electric roller; A semi-arc long shell, which is used to close the steel membrane of the electric pole that is about to be centrifugally formed; A cleaning mechanism, which is used to clean the contact position between the semi-arc length shell and the electric roller surface; A material leveling mechanism, which is used to evenly spread the unformed mud material on the inner side of the pole steel membrane everywhere, and a vertical slide plate is provided at the bottom of the material leveling mechanism; The top of the base is fixedly connected to the bottom of the electric slide rail, the top of the electric slide rail is fixedly connected to the bottom of the cleaning mechanism, the top of the electric slide rail is slidably connected to the bottom of the vertical slide plate, the top of the vertical slide plate is fixedly connected to the bottom of the material leveling mechanism, the bottom of the vertical support plate is fixedly connected to the top of the base, one side of the vertical support plate is rotatably connected to one side of the electric roller through a rotating bolt, a plurality of the electric rollers are provided, and the plurality of electric rollers are respectively arranged at positions near both sides of the bottom of the semi-arc long shell; Wherein, the cleaning mechanism comprises: V-shaped scraper, which is used to scrape and clean the position where the semi-arc long shell and the electric roller are about to contact. When the semi-arc long shell and the electric roller rotate, the V-shaped scraper scrapes and cleans their surfaces to prevent the surface of the outer shell of the electric pole steel film and the surface in contact with the roller from being often accumulated with excess mud after repeated use, affecting the effect of subsequent centrifugal rotation; The outer surface of the V-shaped scraper is fixedly connected with an inclined brush, and the inclined brush on the outer surface of the V-shaped scraper rubs and cleans the outer surface of the semi-arc-length shell and the outer surface of the electric roller, preventing the outer surface of the semi-arc-length shell and the outer surface of the electric roller from being left with mud particles that the V-shaped scraper has not scraped clean, thereby increasing the friction loss of the electric roller. The bottom of the V-shaped scraper is provided with a V-shaped bottom groove. By providing the V-shaped bottom groove at the bottom of the V-shaped scraper, it is convenient to discharge the mud accumulated on the inner side of the V-shaped scraper, and prevent a part of the scraped mud from continuously accumulating on the inner side of the V-shaped scraper and being difficult to handle, affecting the subsequent scraping efficiency. A circular connecting rod is fixedly connected to one side of the V-shaped scraper, and an arc-shaped collecting shell is fixedly connected to the bottom of the circular connecting rod. By arranging an arc-shaped collecting shell at the bottom of the V-shaped scraper, the collected mud is guided to both sides for discharge, preventing the mud scraped off by the V-shaped scraper from directly falling and accumulating in the slide groove of the electric slide rail, affecting the movement of the vertical slide plate. The bottom of the arc-shaped collecting shell is fixedly connected with a bottom connecting rod. The bottom of the bottom connecting rod is fixedly connected to the top of the electric slide rail, and a plurality of V-shaped scrapers are provided, and the plurality of V-shaped scrapers are respectively distributed at both ends of the circular connecting rod; There are multiple bevel brushes, and the multiple bevel brushes are distributed on the V-shaped scraper. There are multiple arc-shaped collecting shells, and the multiple arc-shaped collecting shells are distributed on the bottom of the circular connecting rod.

[0004] Furthermore, the material leveling mechanism includes a side sealing cover plate, one side of the side sealing cover plate is fixedly connected to a servo motor, the driving shaft of the servo motor passes through the side sealing cover plate and is fixedly connected to a threaded long rod, the end of the threaded long rod away from the servo motor is rotatably connected to a side circular plate through a rotating bolt, the side of the side circular plate close to the threaded long rod is fixedly connected to a limiting long rod, one end of the limiting long rod passes through and is slidably connected to a circular slide, when the circular slide moves, the mud material is scraped against the inner wall of the pole steel film so that the unformed mud material is evenly distributed everywhere, thereby preventing the pole steel from being stuck. The uneven distribution of mud at various places on the inner wall of the membrane causes different thicknesses of the inner wall of the pole after the final centrifugal forming, which affects its use. Fine crushing components are fixedly connected to both sides of the circular slide. Waveform ring pieces are fixedly connected to both sides of the circular slide. Waveform ring pieces are arranged on both sides of the circular slide to cooperate with the movement of the circular slide to retract and wrap the threaded long rod and the limiting long rod at all times, so as to prevent the unformed mud on the inner side of the pole steel membrane from falling and accumulating on the threaded long rod and the limiting long rod, affecting the movement of the circular slide. The parts on both sides of the circular slide between the limiting long rod and the waveform ring pieces The plastic strip is fixedly connected with the circular slide, and when the plastic strip is gradually bent by the push of the circular slide, it is gradually propped up from the inner side of the corrugated ring piece so that the corrugated ring piece expands and bulges outwards, so as to prevent the corrugated ring piece from being gradually compressed and having multiple corrugated grooves, which may easily clamp the mud materials accidentally mixed in and make it difficult to handle. Both ends of the limiting long rod are fixedly connected with small clamping blocks, and two small clamping blocks are arranged at the end of the limiting long rod to limit the plastic strip that is resisted, so as to prevent the plastic strip from deviating to the surrounding direction when it is pushed and bent, and it is difficult to achieve the effect of continuous bending outwards. The bottom of the side sealing cover plate is fixedly connected to the top of the vertical skateboard, one end of the threaded long rod passes through the circular skateboard and is threadedly connected to the circular skateboard, the end of the limiting long rod away from the side circular plate is fixedly connected to the inner wall of the side sealing cover plate, a plurality of the corrugated ring sheets are provided, and the sides of the plurality of corrugated ring sheets away from the circular skateboard are respectively fixedly connected to the inner wall of the side sealing cover plate and one side of the side circular skateboard, a plurality of the small clamping blocks are provided, and the plurality of the small clamping blocks are respectively distributed at both ends of the limiting long rod, and the end of the plastic strip away from the circular skateboard is located between the two small clamping blocks.

[0005] Furthermore, the crushing component includes a side ring plate, one side of the side ring plate is fixedly connected with an arc-shaped connecting block, and both sides of the arc-shaped connecting block are fixedly connected with side thorn blocks, and the side thorn blocks are arranged on both sides of the arc-shaped connecting block to perform puncturing and fine crushing on the mud material that is continuously centrifugally rotated and falls away from the inner wall of the steel membrane of the pole, thereby preventing a part of the mud material that is not close to the inner wall of the steel membrane of the pole from being difficult to be crushed by the top thorn blocks. The top of the arc-shaped connecting block is fixedly connected with the top thorn block, and the top thorn block performs puncturing and fine crushing on the unformed mud material close to the inner wall of the steel membrane of the pole as the arc-shaped connecting block moves, thereby preventing the unformed mud material on the inner wall of the steel membrane of the pole from gathering in one piece and being difficult to distribute evenly at various positions of the inner wall of the steel membrane of the pole. The side ring plate is fixedly connected with an annular arc sheet on one side close to the arc-shaped connecting block, and when the annular arc sheet is bent outward by thrust, the arc-shaped connecting block is separated from the corrugated ring sheet to avoid The arc-shaped connecting block is provided with an inner arc groove on one side of the annular arc plate, and an inner arc groove aligned with the arc-shaped connecting block is provided at a position of the annular arc plate close to the side ring plate to facilitate the passage of mud between the annular arc plate and the arc-shaped connecting block, so as to prevent the finely crushed mud from being mixed between the bottom of the arc-shaped connecting block and the annular arc plate when the annular arc plate is bent outward by thrust, and being difficult to handle. The side of the side ring plate away from the arc-shaped connecting block is fixedly connected to one side of the circular slide plate, and a plurality of the arc-shaped connecting blocks are provided, and the plurality of the arc-shaped connecting blocks are distributed on the side of the side ring plate away from the circular slide plate, and the annular arc plate is provided at a position on one side of the side ring plate between the plurality of arc-shaped connecting blocks, and a plurality of the inner arc grooves are provided, and the plurality of the inner arc grooves are respectively aligned with the arc-shaped connecting blocks.

[0006] The present invention has the beneficial effects: 1. The present invention uses a V-shaped scraper to scrape and clean the surface of the semi-arc long shell and the electric roller when the shell and the roller are rotating, so as to prevent the accumulation of excess mud on the outer surface of the pole steel film and the surface in contact with the roller after repeated use, which affects the effect of subsequent centrifugal rotation. When the circular slide moves, the mud on the inner wall of the pole steel film is scraped so that the unformed mud is evenly distributed everywhere, which prevents the uneven distribution of mud on the inner wall of the pole steel film, resulting in different thicknesses of the inner wall of the pole after the final centrifugal forming, which affects the use. When the top thorn block moves with the arc connecting block, it punctures and crushes the unformed mud near the inner wall of the pole steel film, which prevents the unformed mud on the inner wall of the pole steel film from gathering together and making it difficult to evenly distribute it on various positions of the inner wall of the pole steel film.

[0007] 2. The present invention provides a cleaning mechanism. When the semi-arc-length shell and the electric roller rotate, the V-shaped scraper cleans their surfaces by scraping, thereby preventing excess mud from accumulating on the outer surface of the pole steel membrane and the surface in contact with the roller after repeated use, affecting the effect of subsequent centrifugal rotation. The inclined brush on the outer surface of the V-shaped scraper frictionally cleans the outer surface of the semi-arc-length shell and the outer surface of the electric roller, thereby preventing mud particles that the V-shaped scraper fails to scrape off from remaining on the outer surface of the semi-arc-length shell and the outer surface of the electric roller, thereby increasing the friction loss of the electric roller. A V-shaped bottom groove is provided at the bottom of the V-shaped scraper to facilitate the discharge of mud accumulated on the inner side of the V-shaped scraper, thereby preventing a part of the scraped mud from continuously accumulating on the inner side of the V-shaped scraper and being difficult to handle, affecting the subsequent scraping efficiency. An arc-shaped collecting shell is provided at the bottom of the V-shaped scraper to guide the collected mud to both sides for discharge, thereby preventing mud scraped off by the V-shaped scraper from directly falling and accumulating in the slide groove of the electric slide rail, affecting the movement of the vertical slide plate.

[0008] 3. The present invention provides a material leveling mechanism, and when the circular slide moves, the mud is scraped against the inner wall of the pole steel film so that the unformed mud is evenly distributed everywhere, so as to prevent the uneven distribution of mud at various places on the inner wall of the pole steel film, resulting in different thicknesses of the inner wall of the pole after the final centrifugal forming, which affects the use. By arranging corrugated ring pieces on both sides of the circular slide to cooperate with the movement of the circular slide to retract and wrap the threaded long rod and the limiting long rod at all times, it is prevented that the unformed mud on the inner side of the pole steel film falls and accumulates on the threaded long rod and the limiting long rod, affecting the movement of the circular slide. By arranging two small blocks at the end of the limiting long rod to limit the resisted plastic long strip, it is prevented that the plastic long strip deviates in the surrounding direction when it is pushed and bent, and it is difficult to achieve the effect of continuous bending outward. When the plastic long strip is gradually bent by the pushing of the circular slide, it is gradually propped up from the inner side of the corrugated ring piece so that the corrugated ring piece expands and bulges outward, so as to prevent the corrugated ring piece from being gradually compressed and having multiple corrugated grooves, which easily clamp the mud accidentally mixed in and make it difficult to handle.

[0009] 4. The present invention provides a fine crushing component. When the top thorn block moves with the arc-shaped connecting block, it punctures and crushes the unformed mud near the inner wall of the pole steel film, preventing the unformed mud on the inner wall of the pole steel film from gathering together and being difficult to evenly distribute it on various positions of the inner wall of the pole steel film. By providing side thorn blocks on both sides of the arc-shaped connecting block, the mud that continuously rotates centrifugally and falls away from the inner wall of the pole steel film is punctured and crushed, preventing a part of the mud that is not close to the inner wall of the pole steel film from being difficult to be crushed by the top thorn block. When the annular arc piece is bent outward by thrust, the arc connecting block is separated from the corrugated ring piece to avoid contact, to prevent the corrugated ring piece from being bulged and expanded continuously until it is close to the arc connecting block and its surface is squeezed and contacted by the top thorn block and the side thorn block and being punctured and damaged. By providing an inner arc groove aligned with the arc connecting block at a position of the annular arc piece close to the side ring plate, it is convenient for mud material between the annular arc piece and the arc connecting block to pass through, to prevent the finely processed mud material from being mixed between the bottom of the arc connecting block and the annular arc piece and being difficult to handle when the annular arc piece is bent outward by thrust. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] Figure 1 This is a schematic structural diagram of a cement pole concrete rapid prototyping device according to the present invention; Figure 2 It is a schematic diagram of the local structure of the bottom of the cement pole concrete rapid prototyping device of the present invention; Figure 3 This is a schematic diagram of the bottom structure of the cleaning mechanism of the present invention; Figure 4 It is a schematic diagram of the cleaning mechanism structure of the present invention; Figure 5 It is a schematic diagram of the structure of the material mixing mechanism of the present invention; Figure 6 It is a schematic diagram of a partial side section structure of the material leveling mechanism of the present invention; Figure 7 This is a schematic diagram of the structure of the crushing component of the present invention; Figure 8 This is an enlarged structural diagram of the crushing component A of the present invention; In the figure: 1, base; 2, electric slide rail; 3, vertical support plate; 4, electric roller; 5, semi-arc long shell; 6, cleaning mechanism; 7, material leveling mechanism; 8, vertical slide plate; 601, V-shaped scraper; 602, inclined brush; 603, V-shaped bottom groove; 604, circular connecting rod; 605, arc collecting shell; 606, bottom connecting rod; 701, side sealing cover plate; 702, servo motor; 703, threaded long rod; 704, side circular plate; 705, limit long rod; 706, circular slide plate; 707, fine crushing component; 708, corrugated ring piece; 709, plastic long strip; 710, small clamping block; 7071, side ring plate; 7072, arc connecting block; 7073, side thorn block; 7074, top thorn block; 7075, annular arc piece; 7076, inner arc groove. DETAILED DESCRIPTION

[0011] The present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. The embodiments of the present invention are provided for the purpose of illustration and description, and are not intended to be exhaustive or to limit the present invention to the disclosed forms. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments are selected and described in order to better illustrate the principles and practical applications of the present invention, and to enable those of ordinary skill in the art to understand the present invention and thereby design various embodiments with various modifications suitable for specific uses.

[0012] For the first embodiment, please refer to Figure 1-Figure 4 The present invention is a cement pole concrete rapid prototyping device, comprising: A base 1, the top of which is provided with an electric slide rail 2; A vertical support plate 3, one side of which is provided with an electric roller 4; A semi-arc long shell 5, which is used to close the electric pole steel membrane that is about to be centrifugally formed; A cleaning mechanism 6, which is used to clean the contact position between the semi-arc long shell 5 and the electric roller 4; A material leveling mechanism 7, which is used to evenly spread the unformed mud material inside the pole steel film everywhere, and a vertical slide plate 8 is provided at the bottom of the material leveling mechanism 7; The top of the base 1 is fixedly connected to the bottom of the electric slide rail 2, the top of the electric slide rail 2 is fixedly connected to the bottom of the cleaning mechanism 6, the top of the electric slide rail 2 is slidably connected to the bottom of the vertical slide plate 8, the top of the vertical slide plate 8 is fixedly connected to the bottom of the material leveling mechanism 7, the bottom of the vertical support plate 3 is fixedly connected to the top of the base 1, one side of the vertical support plate 3 is rotatably connected to one side of the electric roller 4 through a rotating bolt, a plurality of electric rollers 4 are provided, and the plurality of electric rollers 4 are respectively arranged at the bottom of the semi-arc long shell 5 near both sides; Wherein, the cleaning mechanism 6 comprises: A V-shaped scraper 601, which is used to scrape and clean the position where the semi-arc long shell 5 and the electric roller 4 are about to contact each other; The outer surface of the V-shaped scraper 601 is fixedly connected with a bevel brush 602, the bottom of the V-shaped scraper 601 is provided with a V-shaped bottom groove 603, one side of the V-shaped scraper 601 is fixedly connected with a circular connecting rod 604, the bottom of the circular connecting rod 604 is fixedly connected with an arc-shaped collecting shell 605, and the bottom of the arc-shaped collecting shell 605 is fixedly connected with a bottom connecting rod 606; The bottom of the bottom connecting rod 606 is fixedly connected to the top of the electric slide rail 2, and a plurality of V-shaped scrapers 601 are provided, and the plurality of V-shaped scrapers 601 are respectively distributed at both ends of the circular connecting rod 604; There are multiple inclined brushes 602, and multiple inclined brushes 602 are distributed on the V-shaped scraper 601. There are multiple arc-shaped collecting shells 605, and multiple arc-shaped collecting shells 605 are distributed at the bottom of the circular connecting rod 604. When in use, the two material-splitting mechanisms 7 are adjusted to move outward by the electric slide rail 2 until the distance between the two material-splitting mechanisms 7 is enough to the length of the pole steel film, and the installed pole steel film is placed on the inner side of the semi-arc long shell 5, and then another semi-arc long shell 5 is placed on the pole steel film, and the two semi-arc long shells 5 are bolted together. The installation is to close the pole steel membrane. After the installation is completed, the two material leveling mechanisms 7 are adjusted to move inwards by the electric slide rail 2 again until the two material leveling mechanisms 7 are respectively in contact with the two ends of the pole steel membrane and cover and seal the two ends of the semi-arc long shell 5. The semi-arc long shell 5 is driven to rotate by the electric roller 4. When the semi-arc long shell 5 rotates, the internal pole steel membrane is driven to rotate at a high speed. When the pole steel membrane rotates at a high speed, the centrifugal force causes the concrete to form a pole inside the pole steel membrane. When the semi-arc long shell 5 rotates with the electric roller 4, the cleaning mechanism 6 in contact with it cleans the semi-arc long shell 5 and the electric roller 4 are about to contact the surface by scraping cleaning, and at the same time, the unformed mud on the inner wall of the pole steel film is evenly scraped and leveled at various positions by the material leveling mechanism 7. When the electric roller 4 drives the semi-arc long shell 5 to rotate, the V-shaped scraper 601 is always in contact with the outer surface of the semi-arc long shell 5 and the outer surface of the electric roller 4. When the semi-arc long shell 5 and the electric roller 4 rotate, the V-shaped scraper 601 scrapes and cleans their surfaces. At the same time, the hard bevel brush 602 on the outer surface of the V-shaped scraper 601 is also always in friction contact with the outer surface of the semi-arc long shell 5 and the outer surface of the electric roller 4 The inclined brush 602 on the outer surface of the V-shaped scraper 601 frictionally cleans the outer surface of the semi-arc shell 5 and the outer surface of the electric roller 4, scrapes off the mud that falls on the inner side of the V-shaped scraper 601 and drops into the arc-shaped collecting shell 605 through the V-shaped bottom groove 603 and slides to both sides along the arc-shaped path of the arc-shaped collecting shell 605 for discharge. By opening a V-shaped bottom groove 603 at the bottom of the V-shaped scraper 601, the mud accumulated on the inner side of the V-shaped scraper 601 is easily discharged. By setting an arc-shaped collecting shell 605 at the bottom of the V-shaped scraper 601, the collected mud is guided to both sides for discharge.

[0013] For the second embodiment, please refer to Figure 1-Figure 8The present invention provides a cement pole concrete rapid prototyping device: the material leveling mechanism 7 includes a side sealing cover plate 701, one side of the side sealing cover plate 701 is fixedly connected to a servo motor 702, the driving shaft of the servo motor 702 penetrates the side sealing cover plate 701 and is fixedly connected to a threaded long rod 703, the end of the threaded long rod 703 away from the servo motor 702 is rotatably connected to a side circular plate 704 through a rotating bolt, the side of the side circular plate 704 close to the threaded long rod 703 is fixedly connected to a limiting long rod 705, one end of the limiting long rod 705 penetrates and is slidably connected to a circular slide 706, both sides of the circular slide 706 are fixedly connected to fine crushing components 707, both sides of the circular slide 706 are fixedly connected to corrugated ring pieces 708, and both sides of the circular slide 706 are located between the limiting long rod 705 and the corrugated ring piece 708 The part between them is fixedly connected with a plastic strip 709, and both ends of the limiting long rod 705 are fixedly connected with small blocks 710. The bottom of the side sealing cover plate 701 is fixedly connected to the top of the vertical slide 8. One end of the threaded long rod 703 passes through the circular slide 706 and is threadedly connected to the circular slide 706. One end of the limiting long rod 705 away from the side circular plate 704 is fixedly connected to the inner wall of the side sealing cover plate 701. A plurality of corrugated ring pieces 708 are provided, and the sides of the plurality of corrugated ring pieces 708 away from the circular slide 706 are respectively fixedly connected to the inner wall of the side sealing cover plate 701 and one side of the side circular plate 704. A plurality of small blocks 710 are provided, and the plurality of small blocks 710 are respectively distributed at both ends of the limiting long rod 705. One end of the plastic long strip 709 away from the circular slide 706 is located between the two small blocks 710. The crushing component 707 includes a side ring plate 7071, one side of the side ring plate 7071 is fixedly connected with an arc-shaped connecting block 7072, both sides of the arc-shaped connecting block 7072 are fixedly connected with side thorn blocks 7073, the top of the arc-shaped connecting block 7072 is fixedly connected with a top thorn block 7074, the side of the side ring plate 7071 close to the arc-shaped connecting block 7072 is fixedly connected with an annular arc piece 7075, the side of the annular arc piece 7075 close to the side ring plate 7071 is provided with an inner arc groove 7076, the side of the side ring plate 7071 away from the arc-shaped connecting block 7072 is fixedly connected to one side of the circular slide 706, a plurality of arc-shaped connecting blocks 7072 are provided, and the plurality of arc-shaped connecting blocks 7072 are distributed on the side of the side ring plate 7071 away from the circular slide 706, and the annular arc piece 7075 is fixedly connected with the side of the circular slide 706. 75 is arranged at a position between a plurality of arc-shaped connecting blocks 7072 on one side of the side ring plate 7071, a plurality of inner arc grooves 7076 are arranged, and the plurality of inner arc grooves 7076 are respectively aligned with the arc-shaped connecting blocks 7072. When in use, the semi-arc long shell 5 rotates at a high speed to drive the internal pole steel membrane to form concrete, and the servo motor 702 is started to drive the threaded long rod 703 to rotate. When the threaded long rod 703 rotates, it drives the circular slide plate 706 which is threadedly matched with it and is penetrated and limited by the limited long rod 705 to move in a direction away from the servo motor 702. The outer diameter of the circular slide plate 706 is slightly smaller than the inner diameter of the pole steel membrane. When the circular slide plate 706 moves, the mud material is scraped on the inner wall of the pole steel membrane so that the unformed mud material is evenly distributed everywhere. When 706 moves, it drives the corrugated ring piece 708 on the side close to the servo motor 702 to stretch, and pushes the corrugated ring piece 708 on the side close to the side circular plate 704 to shrink in a corrugated shape. By arranging corrugated ring pieces 708 on both sides of the circular slide 706 to cooperate with the movement of the circular slide 706 to retract and expand, the threaded long rod 703 and the limiting long rod 705 are always wrapped. When the circular slide 706 moves toward the side circular plate 704, it drives the plastic strip 709 on one side to move together. As the circular slide 706 moves, the plastic strip 709 is inserted between the two small blocks 710 and contacts with one side of the side circular plate 704. When the circular slide 706 continues to move, it pushes the contacted plastic strip 709 to bend outward near the position of the corrugated ring piece 708 , by setting two small blocks 710 at the end of the limiting long rod 705 to limit the resisted plastic strip 709, when the plastic strip 709 is pushed and gradually bent by the circular slide 706, it is gradually propped up from the inner side of the corrugated ring piece 708 so that the corrugated ring piece 708 expands and bulges outward, and when the circular slide 706 moves, it drives the fine crushing components 707 on both sides to crush the unformed rotating mud close to the inner wall of the pole steel film, and when the circular slide 706 moves, it drives the side ring plates 7071 on both sides to move together, and when the side ring plates 7071 move, it drives the arc-shaped connecting block 7072 and the annular arc piece 7075 on one side to move together, and when the arc-shaped connecting block 7072 moves, it drives the top thorn block 7074 and the side thorn blocks 7073 on both sides to move together,The top thorn block 7074 punctures and crushes the unformed mud near the inner wall of the pole steel film as the arc-shaped connecting block 7072 moves. At the same time, the side thorn blocks 7073 on both sides of the arc-shaped connecting block 7072 squeeze and contact with the mud that is constantly centrifugally rotating and falling. By arranging the side thorn blocks 7073 on both sides of the arc-shaped connecting block 7072, the mud that is constantly centrifugally rotating and falling away from the inner wall of the pole steel film is punctured and crushed. The plastic strip 709 gradually supports the corrugated ring piece 708 When the annular arc piece 7075 expands and bulges outward, it will contact with the annular arc piece 7075 and push the annular arc piece 7075 to bend outward together. When the annular arc piece 7075 is pushed outward, it separates the arc-shaped connecting block 7072 from the corrugated ring piece 708 to avoid contact. By providing an inner arc groove 7076 aligned with the arc-shaped connecting block 7072 at a position of the annular arc piece 7075 close to the side ring plate 7071, it is convenient for the mud between the annular arc piece 7075 and the arc-shaped connecting block 7072 to pass through.

[0014] When the present invention is in operation, the two material leveling mechanisms 7 are adjusted to move outwards by the electric slide rail 2 until the distance between the two material leveling mechanisms 7 is sufficient to be the length of the pole steel film, and then the installed pole steel film is placed on the inner side of the semi-arc long shell 5, and then another semi-arc long shell 5 is placed on the pole steel film, and the two semi-arc long shells 5 are bolted and installed to close the pole steel film. After the installation is completed, the two material leveling mechanisms 7 are adjusted to move inwards again by the electric slide rail 2 until the two material leveling mechanisms 7 are respectively in contact with the two ends of the pole steel film and cover and seal the two ends of the semi-arc long shell 5, and the semi-arc long shell 5 is driven to rotate by the electric roller 4. When the semi-arc long shell 5 rotates, it drives the internal pole steel film to rotate at high speed, and the pole steel film is centrifuged when it rotates at high speed The force causes the concrete to form an electric pole inside the steel membrane of the electric pole. When the semi-arc long shell 5 and the electric roller 4 rotate, the cleaning mechanism 6 in contact with them scrapes and cleans the surface that the semi-arc long shell 5 and the electric roller 4 are about to contact. At the same time, the unformed mud on the inner wall of the steel membrane of the electric pole is evenly scraped and leveled at various positions through the material leveling mechanism 7. When the electric roller 4 drives the semi-arc long shell 5 to rotate, the V-shaped scraper 601 is always in contact with the outer surface of the semi-arc long shell 5 and the outer surface of the electric roller 4. When the semi-arc long shell 5 and the electric roller 4 rotate, the V-shaped scraper 601 scrapes and cleans their surface. At the same time, the hard inclined brush 602 on the outer surface of the V-shaped scraper 601 is also in friction contact with the outer surface of the semi-arc long shell 5 and the outer surface of the electric roller 4 at all times. The inclined surface of the outer surface of the V-shaped scraper 601 The brush 602 performs friction cleaning on the outer surface of the semi-arc long shell 5 and the outer surface of the electric roller 4, scrapes off the mud that falls on the inner side of the V-shaped scraper 601, drops into the arc-shaped collecting shell 605 through the V-shaped bottom groove 603, and slides to both sides along the arc path of the arc-shaped collecting shell 605 for discharge. The V-shaped bottom groove 603 is provided at the bottom of the V-shaped scraper 601 to facilitate the discharge of the mud accumulated on the inner side of the V-shaped scraper 601. The arc-shaped collecting shell 605 is provided at the bottom of the V-shaped scraper 601 to guide the collected mud to both sides for discharge. When the semi-arc long shell 5 rotates at a high speed to drive the internal pole steel membrane to form concrete, the servo motor 702 is started to drive the threaded long rod 703 to rotate. When the threaded long rod 703 rotates, it drives the threaded long rod 705 that cooperates with it and is limited to penetrate the limit The circular slide 706 at the position moves in the direction away from the servo motor 702. The outer diameter of the circular slide 706 is set to be slightly smaller than the inner diameter of the pole steel film. When the circular slide 706 moves, the mud material is scraped on the inner wall of the pole steel film so that the unformed mud material is evenly distributed everywhere. When the circular slide 706 moves, it drives the corrugated ring piece 708 close to the side of the servo motor 702 to stretch, and pushes the corrugated ring piece 708 close to the side of the side circular plate 704 to perform corrugated contraction. By arranging corrugated ring pieces 708 on both sides of the circular slide 706 to cooperate with the movement of the circular slide 706 to perform expansion and contraction, the threaded long rod 703 and the limiting long rod 705 are always wrapped. When the circular slide 706 moves toward the side circular plate 704, it drives the plastic long strip 709 on one side to move together.As the circular slide 706 moves, the plastic strip 709 is inserted between the two small blocks 710 and contacts with one side of the side circular plate 704. When the circular slide 706 continues to move, it pushes the resisted plastic strip 709 to bend outward near the position of the corrugated ring piece 708. By setting two small blocks 710 at the end of the limiting long rod 705, the resisted plastic strip 709 is limited. When the plastic strip 709 is pushed by the circular slide 706 and gradually bends, it moves from the corrugated ring piece 708. 08 is gradually propped up on the inside so that the corrugated ring piece 708 expands and bulges outwards. When the circular slide plate 706 moves, it drives the fine crushing components 707 on both sides to crush the unformed rotating mud close to the inner wall of the pole steel film. When the circular slide plate 706 moves, it drives the side ring plates 7071 on both sides to move together. When the side ring plates 7071 move, it drives the arc-shaped connecting block 7072 and the annular arc piece 7075 on one side to move together. When the arc-shaped connecting block 7072 moves, it drives the top thorn block 7074 and the two sides. The side thorn blocks 7073 move together with the arc-shaped connecting block 7072, and the top thorn block 7074 punctures and crushes the unformed mud near the inner wall of the pole steel film as the arc-shaped connecting block 7072 moves. At the same time, the side thorn blocks 7073 on both sides of the arc-shaped connecting block 7072 will squeeze and contact with the mud that is constantly centrifugally rotating and falling. By arranging the side thorn blocks 7073 on both sides of the arc-shaped connecting block 7072, the mud that is constantly centrifugally rotating and falling away from the inner wall of the pole steel film is punctured and crushed, and the plastic strip 709 is gradually supported. When the corrugated ring piece 708 bulges outward, it will contact the annular arc piece 7075 and push the annular arc piece 7075 to bend outward together. When the annular arc piece 7075 is pushed outward, it separates the arc-shaped connecting block 7072 from the corrugated ring piece 708 to avoid contact. By providing an inner arc groove 7076 aligned with the arc-shaped connecting block 7072 at a position of the annular arc piece 7075 close to the side ring plate 7071, it is convenient for mud materials between the annular arc piece 7075 and the arc-shaped connecting block 7072 to pass through.

[0015] Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field and related fields without creative work should fall within the scope of protection of the present invention. The structures, devices and operating methods not specifically described and explained in the present invention are implemented according to the conventional means in the field unless otherwise specified and limited.

Claims

1. A cement pole concrete rapid prototyping device, characterized in that: include: A base (1), wherein an electric slide rail (2) is arranged on the top of the base (1); A vertical support plate (3), wherein a motorized roller (4) is provided on one side of the vertical support plate (3); A semi-arc long shell (5), the semi-arc long shell (5) is used to close the electric pole steel membrane that is about to be centrifugally formed; A cleaning mechanism (6), the cleaning mechanism (6) being used to clean a position where the semi-arc length housing (5) and the electric roller (4) contact each other; A material leveling mechanism (7), the material leveling mechanism (7) is used to evenly spread the unformed mud material on the inner side of the pole steel membrane at various locations, and a vertical slide plate (8) is provided at the bottom of the material leveling mechanism (7); The top of the base (1) is fixedly connected to the bottom of the electric slide rail (2), the top of the electric slide rail (2) is fixedly connected to the bottom of the cleaning mechanism (6), the top of the electric slide rail (2) is slidably connected to the bottom of the vertical slide plate (8), the top of the vertical slide plate (8) is fixedly connected to the bottom of the material leveling mechanism (7), the bottom of the vertical support plate (3) is fixedly connected to the top of the base (1), one side of the vertical support plate (3) is rotatably connected to one side of the electric roller (4) via a rotating bolt, a plurality of the electric rollers (4) are provided, and the plurality of electric rollers (4) are respectively provided at positions near both sides of the bottom of the semi-arc long shell (5); Wherein, the cleaning mechanism (6) comprises: A V-shaped scraper (601) is used to scrape and clean the position where the semi-arc long shell (5) and the electric roller (4) are about to contact each other.

2. A cement pole concrete rapid prototyping device according to claim 1, characterized in that: The outer surface of the V-shaped scraper (601) is fixedly connected to a bevel brush (602), the bottom of the V-shaped scraper (601) is provided with a V-shaped bottom groove (603), one side of the V-shaped scraper (601) is fixedly connected to a circular connecting rod (604), the bottom of the circular connecting rod (604) is fixedly connected to an arc-shaped collecting shell (605), and the bottom of the arc-shaped collecting shell (605) is fixedly connected to a bottom connecting rod (606).

3. A cement pole concrete rapid prototyping device according to claim 2, characterized in that: The bottom of the bottom connecting rod (606) is fixedly connected to the top of the electric slide rail (2), and a plurality of V-shaped scrapers (601) are provided, and the plurality of V-shaped scrapers (601) are respectively distributed at both ends of the circular connecting rod (604).

4. A cement pole concrete rapid prototyping device according to claim 2, characterized in that: A plurality of the inclined brushes (602) are provided, and the plurality of the inclined brushes (602) are distributed on the V-shaped scraper (601); a plurality of the arc-shaped collecting shells (605) are provided, and the plurality of the arc-shaped collecting shells (605) are distributed at the bottom of the circular connecting rod (604).

5. The cement pole concrete rapid prototyping device according to claim 1, characterized in that: The material leveling mechanism (7) comprises a side sealing cover plate (701), one side of the side sealing cover plate (701) is fixedly connected to a servo motor (702), a drive shaft of the servo motor (702) passes through the side sealing cover plate (701) and is fixedly connected to a threaded long rod (703), one end of the threaded long rod (703) away from the servo motor (702) is rotatably connected to a side connecting circular plate (704) via a rotating bolt, and a side of the side connecting circular plate (704) close to the threaded long rod (703) is fixedly connected to a limiting long rod (705). One end of the limiting long rod (705) passes through and is slidably connected to a circular slide plate (706), both sides of the circular slide plate (706) are fixedly connected to fine crushing components (707), both sides of the circular slide plate (706) are fixedly connected to corrugated ring pieces (708), both sides of the circular slide plate (706) are fixedly connected to plastic strips (709) located between the limiting long rod (705) and the corrugated ring pieces (708), and both ends of the limiting long rod (705) are fixedly connected to small clamping blocks (710).

6. A cement pole concrete rapid prototyping device according to claim 5, characterized in that: The bottom of the side cover plate (701) is fixedly connected to the top of the vertical slide plate (8), one end of the threaded long rod (703) passes through the circular slide plate (706) and is threadedly connected to the circular slide plate (706), and one end of the limiting long rod (705) away from the side circular plate (704) is fixedly connected to the inner wall of the side cover plate (701).

7. The cement pole concrete rapid prototyping device according to claim 5, characterized in that: A plurality of the corrugated ring pieces (708) are provided, and the sides of the plurality of corrugated ring pieces (708) away from the circular slide (706) are respectively fixedly connected to the inner wall of the side cover plate (701) and one side of the side circular plate (704); a plurality of the small clamping blocks (710) are provided, and the plurality of the small clamping blocks (710) are respectively distributed at both ends of the limiting long rod (705); and the end of the plastic long strip (709) away from the circular slide (706) is located between the two small clamping blocks (710).

8. The cement pole concrete rapid prototyping device according to claim 5, characterized in that: The crushing component (707) comprises a side ring plate (7071), one side of the side ring plate (7071) is fixedly connected to an arc-shaped connecting block (7072), both sides of the arc-shaped connecting block (7072) are fixedly connected to side thorn blocks (7073), the top of the arc-shaped connecting block (7072) is fixedly connected to a top thorn block (7074), and a side of the side ring plate (7071) close to the arc-shaped connecting block (7072) is fixedly connected to an annular arc piece (7075), and a side of the annular arc piece (7075) close to the side ring plate (7071) is provided with an inner arc groove (7076).

9. A cement pole concrete rapid prototyping device according to claim 8, characterized in that: The side of the side ring plate (7071) away from the arc-shaped connecting block (7072) is fixedly connected to one side of the circular slide plate (706), and a plurality of the arc-shaped connecting blocks (7072) are provided, and the plurality of the arc-shaped connecting blocks (7072) are distributed on the side of the side ring plate (7071) away from the circular slide plate (706).

10. The cement pole concrete rapid prototyping device according to claim 8, characterized in that: The annular arc piece (7075) is arranged on one side of the side ring plate (7071) at a position between the plurality of arc-shaped connecting blocks (7072), a plurality of inner arc grooves (7076) are provided, and the plurality of inner arc grooves (7076) are respectively aligned with the arc-shaped connecting blocks (7072).

Images