Slip form forming device for concrete strip body on inclined working face and using method of slip form forming device

Abstract

The invention discloses a concrete strip slip-form forming device used on an inclined working face and a using method, the concrete strip slip-form forming device comprises a slip-form body (1) installed on a moving arm, a first hopper (2) arranged on the slip-form body (1) and a second hopper (3) arranged on the slip-form body (1), concrete mortar is gathered and formed through the slip-form body (1) to prepare concrete strips, and the slip-form body (1) and the second hopper (3) are arranged on the slip-form body (1). Concrete mortar is injected into the slip form body (1) through the first hopper (2), the excessive part of the concrete mortar injected into the slip form body (1) is stored through the second hopper (3), and the concrete mortar for performing slip form forming on a concrete strip body on an inclined working face is in a replenishment balance state under the self-weight effect. The technical problem that the concrete slip form is on a continuous and flat construction surface is solved, so that the construction effect of the concrete strip body on the inclined working surface is improved.

Description

Technical Field

[0001] The invention relates to a concrete strip slipform forming device and a use method, in particular to a concrete strip slipform forming device and a use method for an inclined working surface. Background Art

[0002] Concrete strips need to be constructed on road slopes and other inclined surfaces to meet the needs of buildings on road slopes and other inclined surfaces. Therefore, a concrete strip slipform forming device is an important construction device. Among the existing concrete strip slipform forming devices used on inclined working surfaces, there is no concrete strip slipform forming device used on inclined working surfaces. The concrete slipforms are all on a continuous and flat construction surface. When slipform paving is performed on an inclined working surface, the gravity on which the concrete is subjected will have a sliding component force, causing the risk of concrete collapse, thereby affecting the concrete strip construction effect on the inclined working surface. In addition, if curved sliding is performed on an inclined working surface, there may be two situations where the sliding direction is the same as or opposite to the gravity direction. In the former, there may be problems such as untimely feeding and concrete cracking. In the latter, the extrusion force provided by the rear concrete may be partially offset by the concrete gravity, resulting in difficulty in discharging. The present invention has a technical feature that the concrete mortar is in a replenishment balance state under the action of its own weight during the concrete strip slipform forming on the inclined working surface, and has effectively explored and studied the technical problem that the concrete slipform is on a continuous and flat construction surface at the technical level. The statements here only provide background technology related to the present invention and do not necessarily constitute prior art. The technical solution of the present invention is made based on the technical briefing document provided by the applicant on December 3, 2024, which solves actual technical problems in the work process, and the existing technical problems, technical features and technical effects in similar patent documents and background technologies obtained through retrieval. Summary of the invention

[0003] The object of the present invention is a concrete strip slip-form forming device for use on an inclined working surface. The object of the present invention is a method for using a concrete strip slipform forming device on an inclined working surface.

[0004] In order to overcome the above technical disadvantages, the purpose of the present invention is to provide a concrete strip slipform forming device and a use method for an inclined working surface, thereby improving the construction effect of the concrete strip on the inclined working surface.

[0005] To achieve the above-mentioned purpose, the technical solution adopted by the present invention is: a concrete strip slipform forming device for an inclined working surface, comprising a slipform body installed on a movable arm, a first hopper arranged on the slipform body, and a second hopper arranged on the slipform body.

[0006] Due to the design of the slipform body, the first hopper and the second hopper, the concrete mortar can be gathered and formed into concrete strips through the slipform body, the concrete mortar can be injected into the slipform body through the first hopper, and the excess concrete mortar injected into the slipform body can be stored through the second hopper, so that the concrete mortar slipformed into the concrete strips on the inclined working surface is in a replenishment balance state under the action of its own weight, which solves the technical problem that the concrete slipform is on a continuous and flat construction surface, thereby improving the construction effect of the concrete strips on the inclined working surface.

[0007] The present invention is designed to connect the sliding form body, the first hopper and the second hopper to each other in such a way that the concrete mortar for sliding form forming of concrete strips on the inclined working surface is in a replenishment balance state under the action of its own weight.

[0008] The present invention is designed to connect the second hopper to the slipform body and the first hopper in a manner that the excess portion of the injected concrete mortar is stored.

[0009] The technical effects of the above three technical solutions are: realizing excessive concrete mortar replenishment for the concrete strip, and preventing collapse due to insufficient concrete mortar replenishment.

[0010] The present invention is designed to further include a first accessory device, and the first accessory device is arranged in the second hopper, and the first accessory device is arranged as a material level sensor.

[0011] The present invention is designed to further include a second accessory device, and the second accessory device is arranged in the sliding mold body, and the second accessory device is arranged as a power spiral blade.

[0012] The present invention is designed to further include a third accessory device, and the third accessory device is arranged in the sliding form body, and the third accessory device is arranged as a sliding plate.

[0013] The present invention is designed to further include a fourth accessory device, and the fourth accessory device is arranged in the sliding mold body, and the fourth accessory device is arranged as a front end head component.

[0014] The present invention is designed to further include a fifth accessory device, and the fifth accessory device is arranged in the sliding mold body, and the fifth accessory device is arranged as a rear end head assembly.

[0015] The technical effects of the above five technical solutions are: realizing the integrated installation of other components, and expanding the technical effects of the present invention.

[0016] The present invention is designed that a first hopper, a sliding plate, a front end head assembly and a rear end head assembly are respectively arranged on the sliding mold body, a power spiral blade is arranged between the first hopper and the sliding plate, and a second hopper is arranged between the power spiral blade and the first hopper, and a material level sensor is arranged in the second hopper.

[0017] The technical effect of the above technical scheme is that the basic technical scheme of the present invention is formed by the sliding mold body, the first hopper, the second hopper, the power spiral blade, the sliding plate, the front end head assembly, the rear end head assembly and the material level sensor, which solves the technical problem of the present invention.

[0018] The present invention designs that a bar block with an arched skeleton having a step surface body at the upper end face and a sloped surface body at the heightened side face is arranged on the inclined working surface.

[0019] The present invention designs that the step surface body is set as an L-shaped step surface and the inclined surface body is set as an inner swing surface inclined inwardly.

[0020] The technical effect of the above two technical solutions is that the attached concrete strips are achieved.

[0021] The present invention is designed that the sliding mold body is configured to include a front section and a rear section, and the inner end port of the front section is configured to be connected to the inner end port of the rear section, one side upper end surface of the front section is configured to be connected to a first hopper and the other side upper end surface of the front section is configured to be connected to a second hopper, the inner end of the inner side surface of the middle vertical portion of the front section is configured to be connected to a sliding plate and the outer port of the front section is configured to be connected to a front end head assembly, the front vertical portion of the front section is configured to be connected to a power spiral blade and the outer side of the front vertical portion of the rear section is configured to be connected to a rear end head assembly.

[0022] The present invention designs that the front section is configured as a zigzag groove body with a Z-shaped upper end surface, and the rear section has a Z-shaped upper end surface and a zigzag groove body with a front vertical portion inclined outward.

[0023] The technical effects of the above two technical solutions are: realizing the segmented implementation of concrete mortar injection and molding of concrete strips, improving the flow and aggregation performance of concrete mortar, and improving the construction efficiency of concrete strips on inclined working surfaces.

[0024] The present invention designs that the first hopper is configured as a conical bucket-shaped body having a rectangular tube at the lower end and the rectangular tube port of the first hopper is configured to be connected to the sliding mold body in a communicating manner, and the rectangular tube ports of the first hopper are respectively configured to be distributed corresponding to the power spiral blades.

[0025] The technical effect of the above technical solution is that the flow injection of stored concrete mortar into the slipform body is realized.

[0026] The present invention is designed that the second hopper is configured to include a cylinder shell I, a cylinder shell II and a screw portion, and a receiving groove body is arranged on the left and right outer sides of the cylinder shell I, the cylinder shell I is configured to be connected with the cylinder shell II in a through-type connection and the screw portion is configured to be threadedly connected with the cylinder shell II, the inner end head of the screw portion is configured to be embeddedly connected with the receiving groove body and the lower port of the cylinder shell I is configured to be connected in a communicating manner with the sliding mold body, the lower port of the cylinder shell I is configured to be distributed corresponding to the power spiral blade and the upper part of the inner wall of the cylinder shell I is configured to be connected with the material level sensor.

[0027] The present invention designs that the cylinder shell I and the cylinder shell II are respectively configured as rectangular tubular bodies, the screw rod portion is configured as a hexagon socket bolt, and the accommodating groove body is configured as a U-shaped groove body.

[0028] The technical effect of the above two technical solutions is that the storage of the remaining concrete mortar is realized.

[0029] The present invention provides that the housing of the material level sensor is arranged to be connected to the second hopper.

[0030] The technical effect of the above technical solution is: realizing the storage quantity signal picking of the replenishment balance concrete mortar.

[0031] The present invention is designed that the power spiral blade is configured as a conical spiral blade and the power shafts located on the power spiral blade are respectively configured to be rotatably connected to the sliding form body, the driving motor housing located on the power shaft of the power spiral blade is configured to be connected to the sliding form body through an intermediate connecting rod and the inner end of the power spiral blade is configured to be distributed corresponding to the second hopper, and the peripheral side surface of the power spiral blade is configured to be distributed corresponding to the sliding plate and the front end head assembly.

[0032] The technical effect of the above technical solution is to achieve accelerated lateral flow injection of concrete mortar in the slipform body.

[0033] The present invention is designed that the sliding plate is configured to include a plate portion I and a rod portion I, and one end of the rod portion I is configured to be connected to the upper end surface of the plate portion I, another end of the rod portion I is configured to be connected to the sliding form body, and one side surface of the plate portion I is configured to be distributed corresponding to the sliding form body, and another side surface of the plate portion I is configured to be distributed corresponding to the power spiral blade.

[0034] The present invention designs that the plate portion I is configured as a C-shaped sheet body and the rod portion I is configured as a rod body.

[0035] The technical effect of the above technical solution is that it realizes the outward lateral flow guidance of the concrete mortar in the slipform body.

[0036] The present invention is designed that the front end head assembly is configured to include a plate portion II, an ear seat portion, a rod portion II and a spring portion I, and the rod portion II is respectively configured to be through-connected with the spring portion I and the ear seat portion, one of the ends of the spring portion I is configured to be contact-connected with the inner end face of the ear seat portion and the other end of the spring portion I is configured to be contact-connected with the flange body of the rod portion II, the inner end face of the rod portion II is configured to be connected with the upper part of the inner end face of the plate portion II and the lower part of the inner end face of the plate portion II is configured to be contact-connected with the sliding mold body, the lower part of the inner end face of the plate portion II is configured to be distributed corresponding to the power spiral blade and the lower end face of the ear seat portion is configured to be connected with the sliding mold body.

[0037] The present invention designs that the plate part II is set as a sheet body and the ear seat part is set as a single plate ear seat with a through hole body, the through hole body of the ear seat part is set to be connected with the rod part II and the rod part II is set as a T-shaped rod body, and the spring part I is set as a column spring.

[0038] The technical effect of the above two technical solutions is that the concrete mortar in the slipform body is sealed.

[0039] The present invention is designed that the rear end head assembly is configured to include a column head, a rod portion III, a rod portion IV and a spring portion II, and the rod portion IV is configured to be through-connected with the lower end head of the vertical portion of the rod portion III and the spring portion II, the inner end face of the rod portion IV is configured to be connected with the notched vertical portion of the column head, and the flange body of the rod portion IV is configured to be contact-connected with the lower portion of the outer end face of the vertical portion of the rod portion III, one of the ends of the spring portion II is configured to be contact-connected with the lower portion of the inner end face of the vertical portion of the rod portion III, and the other end of the spring portion II is configured to be contact-connected with the notched vertical portion of the column head, and the transverse end face of the rod portion III is configured to be connected with the sliding mold body.

[0040] The present invention is designed that the column head is set as a circular rod-shaped body with a 90° notch and the rod portion III is set as an L-shaped rod-shaped body with a through hole at the lower end of the vertical portion, the through hole body of the rod portion III is set to be connected to the rod portion IV and the rod portion IV is set as a T-shaped rod-shaped body, and the spring portion II is set as a columnar spring.

[0041] The technical effect of the above two technical solutions is that compaction treatment is achieved at the joint between the inclined surface body and the inclined working surface.

[0042] The present invention is designed that the sliding form body and the first hopper and the second hopper are arranged to be distributed in a double-bin storage manner, and the sliding form body, the first hopper and the second hopper and the material level sensor are arranged to be distributed in a manner of picking up storage quantity signals, the sliding form body, the first hopper and the second hopper and the powered spiral blade and the sliding plate are arranged to be distributed in the manner of a built-in conveying part, and the sliding form body, the first hopper and the second hopper and the powered spiral blade and the front end head assembly and the rear end head assembly are arranged to be distributed in the manner of an external end head section.

[0043] The present invention is designed that the center line of the first hopper, the center line of the second hopper and the center line of the power spiral blade are arranged on the same straight line, the rod part III is arranged to be connected with the rear section, and the plate part II, the ear seat part, the rod part I and the cylinder shell I are respectively arranged to be connected with the front section.

[0044] The present invention provides a method for using a slipform forming device for concrete strips on an inclined working surface, the steps of which are: the slipform body is used to gather and form concrete mortar to obtain a concrete strip, the first hopper is used to inject concrete mortar into the slipform body, the second hopper is used to store excess concrete mortar injected into the slipform body, and the concrete mortar slipformed on the inclined working surface is in a replenishment balance state under the action of its own weight.

[0045] The technical effect of the above technical scheme is: highlighting the technical feature that the concrete mortar is in a replenishment balance state under the action of its own weight during the slipform forming of concrete strips on an inclined working surface, and introducing the application in the technical field of the use method of the slipform forming device for concrete strips on an inclined working surface.

[0046] The present invention is designed, and its steps are: when it is necessary to slip-form the concrete strip on the inclined working surface, draw the construction line of the concrete strip on the inclined working surface, make the screw part rotate on the cylinder shell II, separate the inner end of the screw part from the containing tank body, lift the cylinder shell II, make the storage capacity of the second hopper correspond to the remaining storage of the concrete mortar injected into the slip-form body, wait until the lifting of the cylinder shell II is completed, make the screw part rotate in the opposite direction on the cylinder shell II, make the inner end of the screw part act on the containing tank body, connect the rectangular tube body of the first hopper with the moving arm, put the lower opening of the front section and the lower opening of the rear section on the concrete strip forming station, make the driving motor located on the power shaft of the power spiral blade in a working state, pour the concrete mortar into the first hopper, the front section and the rear section move along the construction line of the concrete strip, the concrete mortar in the first hopper is injected into the front section, and the power spiral blade is in a rotating state. The concrete mortar in the front section is transported inwards, and the transported concrete mortar flows into the rear section through the plate part I, and the concrete mortar is formed by the rear section. A step surface body is made from the Z-shaped upper end face of the rear section, and a sloped body is made from the outwardly inclined front vertical part of the rear section. The excess part of the transported concrete mortar enters the cylinder shell I and the cylinder shell II, and the storage amount signal of the concrete mortar in the cylinder shell I and the cylinder shell II is picked up through the material level sensor. Under the energy storage action of the spring part II, the column head is placed on the joint between the sloped body and the inclined working surface, and the concrete strip is pressed. At the spring part I, the plate part II is placed on the front end opening of the front section to block the concrete mortar flowing forward. After the concrete strip on the inclined working surface is completed by slip-forming, the driving motor located on the power shaft of the power spiral blade is placed in a non-working state, and the lower opening of the front section and the lower opening of the rear section are taken out from the concrete strip forming station.

[0047] The technical effect of the above technical solution is that: the step surface body and the inclined surface body forming operation is realized on the concrete mortar on the inclined working surface.

[0048] In the present technical scheme, the sliding mold body, the first hopper and the second hopper are basic components and are also the necessary technical features of the present invention. The power spiral blade, the sliding plate, the front end head assembly, the rear end head assembly and the material level sensor are functional components and are the features for realizing other technical effects of the present invention. The designs of the technical features such as the step surface body, the inclined surface body, the front section, the rear section, the cylinder shell I, the cylinder shell II, the screw portion, the accommodating trough body, the plate portion I, the rod portion I, the plate portion II, the ear seat portion, the rod portion II, the spring portion I, the column head portion, the rod portion III, the rod portion IV and the spring portion II are technical features that comply with the Patent Law and its implementing rules.

[0049] In the technical solution, the concrete mortar for slip-formed concrete strips on the inclined working surface is in a replenishment balance state under the action of its own weight, which is realized by the first and second hoppers.

[0050] In the present technical scheme, the concrete mortar for slipform forming of concrete strips on an inclined working surface is in a state of replenishment balance under the action of its own weight, the slipform body, the first hopper and the second hopper are important technical features. In the technical field of slipform forming devices and methods of use for concrete strips on an inclined working surface, it has novelty, creativity and practicality. The terms in the present technical scheme can be explained and understood using patent documents in this technical field. BRIEF DESCRIPTION OF THE DRAWINGS

[0051] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0052] Figure 1 FIG. 1 is a schematic diagram of a first embodiment of a concrete strip slipform forming device for an inclined working surface according to the present invention. Figure 2 Schematic diagram of the connection relationship between the step surface body 10 and the inclined surface body 20 of the present invention, Figure 3 It is a schematic diagram of the connection relationship between the sliding mold body 1, the first hopper 2, the second hopper 3, the power spiral blade 4, the sliding plate 5 and the material level sensor 8 of the present invention. Figure 4 It is a cross-sectional schematic diagram of the front section 11 of the present invention, Figure 5 It is a cross-sectional schematic diagram of the rear section 12 of the present invention, Figure 6 is a schematic structural diagram of the rear end head assembly 7 of the present invention, Sliding mold body-1, first hopper-2, second hopper-3, powered spiral blade-4, sliding plate-5, front end head assembly-6, rear end head assembly-7, material level sensor-8, step surface body-10, inclined surface body-20, front section-11, rear section-12, cylinder shell I-31, cylinder shell II-32, screw part-33, accommodating trough body-34, plate part I-51, rod part I-52, plate part II-61, ear seat part-62, rod part II-63, spring part I-64, column head part-71, rod part III-72, rod part IV-73, spring part II-74. DETAILED DESCRIPTION

[0053] According to the Examination Guidelines, terms such as “having”, “including” and “comprising” used in the present invention should be understood as not dispensing with the existence or addition of one or more other elements or combinations thereof.

[0054] In the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicating the orientation or positional relationship, are based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, the terms "first", "second", and "third" are used for descriptive purposes only, and cannot be understood as indicating or implying relative importance.

[0055] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "connected", and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0056] In addition, the technical features involved in the different embodiments of the present invention described below can be combined with each other as long as they do not conflict with each other. In addition, unless otherwise specified, the equipment and materials used in the following examples are commercially available. If the processing conditions are not clearly stated, please refer to the purchased product manual or proceed according to conventional methods in the art.

[0057] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0058] A concrete strip slipform forming device for an inclined working surface, Figure 1This is one of the first embodiments of the present invention. This embodiment is specifically described in conjunction with the accompanying drawings. It includes a sliding mold body 1, a first hopper 2, a second hopper 3, a power spiral blade 4, a sliding plate 5, a front end head assembly 6, a rear end head assembly 7 and a material level sensor 8. The first hopper 2, the sliding plate 5, the front end head assembly 6 and the rear end head assembly 7 are respectively arranged on the sliding mold body 1, a power spiral blade 4 is arranged between the first hopper 2 and the sliding plate 5, and a second hopper 3 is arranged between the power spiral blade 4 and the first hopper 2, and a material level sensor 8 is arranged in the second hopper 3.

[0059] The second embodiment of the present invention is described in detail with reference to the accompanying drawings. In this embodiment, a bar having an arched skeleton with a stepped surface body 10 at the upper end face and a sloped surface body 20 at the raised side face is arranged on the inclined working surface.

[0060] In this embodiment, the step surface body 10 is configured as an L-shaped step surface and the inclined surface body 20 is configured as an inner swing surface inclined inwardly.

[0061] The technical purpose is to realize the construction of buildings on an inclined working surface.

[0062] In this embodiment, the sliding mold body 1 is configured to include a front section 11 and a rear section 12 and the inner end port of the front section 11 is configured to be connected to the inner end port of the rear section 12, one side upper end surface of the front section 11 is configured to be connected to the first hopper 2 and the other side upper end surface of the front section 11 is configured to be connected to the second hopper 3, the inner end of the inner side surface of the middle vertical portion of the front section 11 is configured to be connected to the sliding plate 5 and the outer port of the front section 11 is configured to be connected to the front end head assembly 6, the front vertical portion of the front section 11 is configured to be connected to the power spiral blade 4 and the outer side of the front vertical portion of the rear section 12 is configured to be connected to the rear end head assembly 7.

[0063] Through the sliding form body 1, supporting connection points for the first hopper 2, the second hopper 3, the power spiral blade 4, the sliding plate 5, the front end head assembly 6 and the rear end head assembly 7 are formed. The front section 11 realizes connection with the first hopper 2, the second hopper 3, the power spiral blade 4, the sliding plate 5, and the front end head assembly 6. The rear section 12 realizes connection with the rear end head assembly 7. The technical purpose is to serve as a supporting carrier for the first hopper 2, the second hopper 3, the power spiral blade 4, the sliding plate 5, the front end head assembly 6 and the rear end head assembly 7.

[0064] In this embodiment, the front section 11 is configured as a zigzag groove body having a Z-shaped upper end surface, and the rear section 12 has a Z-shaped upper end surface and a zigzag groove body having a front vertical portion inclined outward.

[0065] The technical purpose is to realize the shaping of concrete strips.

[0066] In this embodiment, the first hopper 2 is configured as a conical bucket-shaped body with a rectangular tube at the lower end, and the rectangular tube body port of the first hopper 2 is configured to be connected to the sliding mold body 1, and the rectangular tube body ports of the first hopper 2 are respectively configured to be distributed corresponding to the power spiral blades 4.

[0067] A supporting connection point for the slipform body 1 and the power spiral blade 4 is formed through the first hopper 2. The first hopper 2 realizes connection with the slipform body 1 and the power spiral blade 4. Its technical purpose is to be used as a component for injecting concrete mortar into the slipform body 1.

[0068] In this embodiment, the second hopper 3 is configured to include a cylinder shell I 31, a cylinder shell II 32 and a screw portion 33 and a receiving groove body 34 is provided on the left and right outer sides of the cylinder shell I 31, the cylinder shell I 31 is configured to be through-connected with the cylinder shell II 32 and the screw portion 33 is configured to be threadedly connected with the cylinder shell II 32, the inner end head of the screw portion 33 is configured to be embeddedly connected with the receiving groove body 34 and the lower port of the cylinder shell I 31 is configured to be connected in a communicating manner with the sliding mold body 1, the lower port of the cylinder shell I 31 is configured to be distributed corresponding to the power spiral blade 4 and the upper portion of the inner wall of the cylinder shell I 31 is provided with a connection with the material level sensor 8.

[0069] Through the second hopper 3, a supporting connection point for the slipform body 1, the powered spiral blade 4 and the material level sensor 8 is formed. The cylinder shell I 31 realizes the connection with the slipform body 1, the powered spiral blade 4, and the material level sensor 8. The cylinder shell II 32, the screw portion 33 and the accommodating trough body 34 realize the capacity increase of the cylinder shell I 31. The technical purpose is to be used as a component for storing the surplus of concrete mortar injected into the slipform body 1.

[0070] In this embodiment, the cylinder shell I 31 and the cylinder shell II 32 are respectively configured as rectangular tubular bodies, the screw rod portion 33 is configured as a hexagon socket bolt, and the receiving groove body 34 is configured as a U-shaped groove body.

[0071] The technical purpose is to realize the storage of the surplus of the multi-section pipe body when the concrete mortar is injected into the slipform body 1.

[0072] In this embodiment, the housing of the material level sensor 8 is configured to be connected to the second hopper 3 .

[0073] A support connection point for the second hopper 3 is formed by the material level sensor 8 , and the connection with the second hopper 3 is realized by the material level sensor 8 . Its technical purpose is to be used as a component for picking up the concrete mortar stock signal in the second hopper 3 .

[0074] In this embodiment, the power spiral blade 4 is configured as a conical spiral blade and the power shafts located on the power spiral blade 4 are respectively configured to be rotatably connected to the slide mold body 1, the driving motor housing located on the power shaft of the power spiral blade 4 is configured to be connected to the slide mold body 1 through an intermediate connecting rod and the inner end of the power spiral blade 4 is configured to be distributed corresponding to the second hopper 3, and the peripheral side surfaces of the power spiral blade 4 are configured to be distributed corresponding to the sliding plate 5 and the front end head assembly 6.

[0075] The power spiral blade 4 forms a support connection point for the slipform body 1, the second hopper 3 and the sliding plate 5. The power spiral blade 4 realizes the connection with the slipform body 1, the connection with the second hopper 3, the connection with the sliding plate 5, and the connection with the front end head assembly 6. Its technical purpose is to serve as a component for powered transportation of concrete mortar injected into the slipform body 1.

[0076] In this embodiment, the sliding plate 5 is configured to include a plate portion Ⅰ51 and a rod portion Ⅰ52, and one of the ends of the rod portion Ⅰ52 is configured to be connected to the upper end surface of the plate portion Ⅰ51, another end of the rod portion Ⅰ52 is configured to be connected to the sliding form body 1, and one of the side surfaces of the plate portion Ⅰ51 is configured to be distributed corresponding to the sliding form body 1, and another side surface of the plate portion Ⅰ51 is configured to be distributed corresponding to the power spiral blade 4.

[0077] A supporting connection point for the slipform body 1 and the power spiral blade 4 is formed by the sliding plate 5. The connection with the slipform body 1 is realized by the plate portion Ⅰ51 and the rod portion Ⅰ52. The connection with the power spiral blade 4 is realized by the plate portion Ⅰ51. The technical purpose is to be used as a component for guiding and diverting the concrete mortar in the slipform body 1.

[0078] In this embodiment, the plate portion I51 is configured as a C-shaped sheet body and the rod portion I52 is configured as a rod body.

[0079] The technical purpose is to achieve curved surface guiding and diversion of concrete mortar in the slipform body 1.

[0080] In the present embodiment, the front end head assembly 6 is configured to include a plate portion II 61, an ear seat portion 62, a rod portion II 63 and a spring portion I 64, and the rod portion II 63 is respectively configured to be through-connected with the spring portion I 64 and the ear seat portion 62, one of the ends of the spring portion I 64 is configured to be contact-connected with the inner end face of the ear seat portion 62, and the other end of the spring portion I 64 is configured to be contact-connected with the flange body of the rod portion II 63, the inner end face of the rod portion II 63 is configured to be connected with the upper inner end face of the plate portion II 61, and the lower inner end face of the plate portion II 61 is configured to be contact-connected with the sliding mold body 1, the lower inner end face of the plate portion II 61 is configured to be distributed corresponding to the power spiral blade 4, and the lower end face of the ear seat portion 62 is configured to be connected with the sliding mold body 1.

[0081] Through the front end head assembly 6, a supporting connection point for the sliding form body 1 and the power spiral blade 4 is formed, and the connection with the sliding form body 1 is realized by the plate part Ⅱ 61 and the ear seat part 62. The connection with the power spiral blade 4 is realized by the plate part Ⅱ 61. The reset connection processing between the plate part Ⅱ 61 and the ear seat part 62 is realized by the rod part Ⅱ 63 and the spring part Ⅰ 64. Its technical purpose is to be used as a component for sealing the concrete mortar in the sliding form body 1.

[0082] In this embodiment, the plate portion II 61 is configured as a sheet-like body and the ear seat portion 62 is configured as a single plate ear seat with a through hole body, the through hole body of the ear seat portion 62 is configured to be connected to the rod portion II 63 and the rod portion II 63 is configured as a T-shaped rod-like body, and the spring portion I 64 is configured as a columnar spring.

[0083] The technical purpose is to achieve the resetting plate body sealing treatment of the concrete mortar in the slipform body 1.

[0084] In this embodiment, the rear end head assembly 7 is configured to include a column head 71, a rod portion III 72, a rod portion IV 73 and a spring portion II 74, and the rod portion IV 73 is configured to be through-connected with the lower end head of the vertical portion of the rod portion III 72 and the spring portion II 74, the inner end face of the rod portion IV 73 is configured to be connected to the notched vertical portion of the column head 71, and the flange body of the rod portion IV 73 is configured to be contact-connected with the lower portion of the outer end face of the vertical portion of the rod portion III 72, one of the ends of the spring portion II 74 is configured to be contact-connected with the lower portion of the inner end face of the vertical portion of the rod portion III 72, and the other end of the spring portion II 74 is configured to be contact-connected with the notched vertical portion of the column head 71, and the transverse end face of the rod portion III 72 is configured to be connected to the sliding mold body 1.

[0085] A supporting connection point for the slide form body 1 is formed by the rear end head assembly 7, the connection with the slide form body 1 is realized by the rod portion III 72, the pressing treatment of the joint between the inclined body 20 and the inclined working surface is realized by the column head 71, and the reset connection treatment between the column head 71 and the rod portion III 72 is realized by the rod portion IV 73 and the spring portion II 74. The technical purpose is to be used as a component for edge pressing treatment of concrete strips.

[0086] In this embodiment, the column head 71 is configured as a circular rod-shaped body with a 90° notch and the rod portion III 72 is configured as an L-shaped rod-shaped body with a through hole at the lower end of the vertical portion, the through hole body of the rod portion III 72 is configured to be connected to the rod portion IV 73 and the rod portion IV 73 is configured as a T-shaped rod-shaped body, and the spring portion II 74 is configured as a columnar spring.

[0087] The technical purpose is to realize the arc-shaped edge pressing treatment of the concrete strip.

[0088] In this embodiment, the sliding form body 1 and the first hopper 2 and the second hopper 3 are arranged to be distributed in a double-bin storage manner, and the sliding form body 1, the first hopper 2, the second hopper 3 and the material level sensor 8 are arranged to be distributed in a manner of picking up storage volume signals, the sliding form body 1, the first hopper 2, the second hopper 3 and the power spiral blade 4 and the sliding plate 5 are arranged to be distributed in a manner of a built-in conveying part, and the sliding form body 1, the first hopper 2, the second hopper 3 and the power spiral blade 4 and the front end head assembly 6 and the rear end head assembly 7 are arranged to be distributed in a manner of an external end head, the center line of the first hopper 2, the center line of the second hopper 3 and the center line of the power spiral blade 4 are arranged on the same straight line, the rod portion III 72 is arranged to be connected to the rear section 12, and the plate portion II 61, the ear seat portion 62, the rod portion I 52 and the cylinder shell I 31 are respectively arranged to be connected to the front section 11.

[0089] The present invention is further described below in conjunction with examples. The following examples are intended to illustrate the present invention rather than to further limit the present invention.

[0090] A method for using a concrete strip slipform forming device on an inclined working surface, the steps of which are: when a concrete strip slipform is required on an inclined working surface, a concrete strip construction line is drawn on the inclined working surface, the screw part 33 is rotated on the cylinder shell II 32, the inner end of the screw part 33 is separated from the receiving tank body 34, the cylinder shell II 32 is lifted, and the storage capacity of the second hopper 3 corresponds to the storage of the remaining amount of concrete mortar injected into the slipform body 1, etc. After the cylinder shell II 32 is lifted, the screw part 33 is rotated in the opposite direction on the cylinder shell II 32, so that the inner end of the screw part 33 acts on the receiving tank 34, the rectangular tube of the first hopper 2 is connected to the moving arm, the lower opening of the front section 11 and the lower opening of the rear section 12 are placed on the concrete strip forming station, the driving motor on the power shaft of the power spiral blade 4 is in working state, and the concrete mortar is poured into the first hopper 2. The front section 11 and the rear section 12 are connected to the first hopper 2. 2 moves along the construction line of the concrete strip, the concrete mortar in the first hopper 2 is injected into the front section 11, the power spiral blade 4 is in a rotating state, and the concrete mortar in the front section 11 is transported inward, and the transported concrete mortar flows into the rear section 12 through the plate part I51, and the concrete mortar is formed by the rear section 12, and the step surface body 10 is made from the Z-shaped upper end surface of the rear section 12, and the inclined surface body 20 is made from the outward inclined front vertical part of the rear section 12. The excess part of the transported concrete mortar enters the barrel shell I31 and the barrel shell II32. The material level sensor 8 picks up the concrete mortar storage signal in the barrel shell I31 and the barrel shell II32. Under the energy storage action of the spring part II74, the column head 71 is placed on the joint between the inclined body 20 and the inclined working surface to perform edge pressing on the concrete strip. At the spring part I64, the plate part II61 is placed on the front end opening of the front section 11 to block the concrete mortar flowing forward. After the concrete strip slipform forming on the inclined working surface is completed, the driving motor located on the power shaft of the power spiral blade 4 is placed in a non-working state, and the lower opening of the front section 11 and the lower opening of the rear section 12 are taken out from the concrete strip forming station.

[0091] When verifying the present invention, the inventors abandoned the prior art feature that the concrete slipforms are all on a continuous and flat construction surface, and first proposed a technical feature in which the concrete mortar is in a replenishment balance state under the action of its own weight during the slipform forming of concrete strips on an inclined working surface, and obtained the first unexpected technical effect: it is possible to obtain concrete strips on the inclined working surface, so that the concrete strips are attached to the inclined working surface, and the construction efficiency of the concrete strips is improved; the second unexpected technical effect is obtained: it is possible to perform anisotropic treatment of the concrete strips by the step surface body 10 and the inclined surface body 20, and the strength of the concrete strips is improved; the third unexpected technical effect is obtained: it is possible to support the first hopper 2, the second hopper 3, the power spiral blade 4 and the sliding plate 5 as the front-stage feeding components by the slipform body 1, and form the concrete strips at the rear stage, and improve the support strength of the slipform body 1 and the concrete strip forming accuracy; the fourth unexpected technical effect is obtained: it is possible to Bucket 3 stores excess concrete mortar in variable capacity, expanding the requirements for the specifications of the concrete strip, and achieving the fifth unexpected technical effect: the material level sensor 8 enables online monitoring of the storage volume of concrete mortar in the second hopper 3, thereby improving the effect of concrete mortar injection, and achieving the sixth unexpected technical effect: the power spiral blade 4 and the sliding plate 5 redirect the flow direction of the concrete mortar in the slipform body 1, and achieve S-shaped concrete mortar injection into the rear section 12, thereby increasing the saturation of the concrete mortar in the rear section 12, and achieving the seventh unexpected technical effect: the front end head assembly 6 seals the concrete mortar in the slipform body 1, thereby increasing the distributed flow speed of the concrete mortar in the front section 11 and the rear section 12, and achieving the seventh unexpected technical effect: the rear end head assembly 7 compacts the joint between the inclined surface 20 and the inclined working surface, thereby improving the stability of the concrete strip on the inclined working surface.

[0092] In the second embodiment of the present invention, the slipform body 1, the first hopper 2 and the second hopper 3 are connected to each other in such a way that the concrete mortar for slipform forming of concrete strips on the inclined working surface is in a replenishment balance state under the action of its own weight.

[0093] In this embodiment, the second hopper 3 is connected to the slipform body 1 and the first hopper 2 in such a way that the excess portion of the injected concrete mortar is stored.

[0094] In this embodiment, a first accessory device is further included and is arranged in the second hopper 3 . The first accessory device is arranged as a material level sensor 8 .

[0095] In this embodiment, a second accessory device is also included and is arranged in the sliding mold body 1 , and the second accessory device is arranged as a power spiral blade 4 .

[0096] In this embodiment, a third accessory device is further included and is arranged in the sliding form body 1 , and the third accessory device is arranged as a sliding plate 5 .

[0097] In this embodiment, a fourth accessory device is further included and is arranged in the sliding mold body 1 , and the fourth accessory device is arranged as a front end head assembly 6 .

[0098] In this embodiment, a fifth accessory device is further included and is arranged in the sliding mold body 1 , and the fifth accessory device is arranged as a rear end head assembly 7 .

[0099] The second embodiment of the present invention is based on the first embodiment. The second embodiment of the present invention comprises the following steps: the slipform body 1 is used to gather and shape concrete mortar to obtain a concrete strip, the first hopper 2 is used to inject concrete mortar into the slipform body 1, the second hopper 3 is used to store excess concrete mortar injected into the slipform body 1, and the concrete mortar slipformed into the concrete strip on the inclined working surface is in a replenishment balance state under the action of its own weight.

[0100] The second embodiment of the present invention is based on the first embodiment.

[0101] The present invention has the following characteristics: 1. Due to the design of the slipform body 1, the first hopper 2 and the second hopper 3, the slipform body 1 is used to gather and shape the concrete mortar to obtain the concrete strip, the first hopper 2 is used to inject the concrete mortar into the slipform body 1, and the second hopper 3 is used to store the excess concrete mortar injected into the slipform body 1, so that the concrete mortar slipformed on the inclined working surface is in a replenishment balance state under the action of its own weight, which solves the technical problem that the concrete slipform is on a continuous and flat construction surface, thereby improving the construction effect of the concrete strip on the inclined working surface.

[0102] 2. Due to the design of the material level sensor 8, the concrete mortar material level signal in the second hopper 3 can be picked up.

[0103] 3. Due to the design of the powered spiral blade 4, the concrete mortar in the slipform body 1 can be poweredly transported.

[0104] 4. Due to the design of the sliding plate 5, the concrete mortar in the slipform body 1 can be diverted and transported.

[0105] 5. Due to the design of the front end head assembly 6, outflow blocking of the concrete mortar in the slipform body 1 is achieved.

[0106] 6. Due to the design of the rear end head assembly 7, the edge pressing treatment of the concrete strip is achieved.

[0107] 7. Since the design limits the numerical range of the structural shape, the numerical range is the technical feature in the technical solution of the present invention, rather than a technical feature calculated by a formula or obtained through a limited number of tests. Tests have shown that the technical feature of this numerical range has achieved good technical effects.

[0108] 8. Due to the design of the technical features of the present invention, the effects of the individual and combined technical features have been shown through experiments to have various performance indicators of the present invention that are at least 1.7 times the existing performance indicators, and have been evaluated to have good market value.

[0109] There are other technical features of the connection between the sliding form body 1, the first hopper 2 and the second hopper 3 in which the concrete mortar for sliding forming of concrete strips on the inclined working surface is in a replenishment balance state under the action of its own weight, which are all one of the embodiments of the present invention, and the various technical features of the above-mentioned embodiments can be combined arbitrarily. In order to meet the requirements of the Patent Law, the Patent Implementing Rules and the Examination Guidelines, all possible combinations of the various technical features in the above-mentioned embodiments will no longer be described.

[0110] The above embodiment is only one implementation form of the concrete strip slipform forming device and the method of use for the inclined working surface provided by the present invention. Other variations of the scheme provided by the present invention, adding or reducing the components or steps therein, or using the present invention in other technical fields close to the present invention, all fall within the scope of protection of the present invention.

Claims

1. A concrete strip slipform forming device for an inclined working surface, characterized in that: The invention comprises a sliding mold body (1) installed on a movable arm, a first hopper (2) arranged on the sliding mold body (1), and a second hopper (3) arranged on the sliding mold body (1).

2. The concrete strip slipform forming device for an inclined working surface according to claim 1 is characterized in that: The sliding form body (1), the first hopper (2) and the second hopper (3) are connected to each other in such a way that the concrete mortar for sliding formwork of concrete strips on an inclined working surface is in a replenishment balance state under the action of its own weight.

3. The concrete strip slipform forming device for an inclined working surface according to claim 2 is characterized in that: The second hopper (3) is connected to the slipform body (1) and the first hopper (2) in such a way that the excess amount of injected concrete mortar is stored.

4. The concrete strip slipform forming device for an inclined working surface according to claim 1 is characterized in that: It also includes a first accessory device and the first accessory device is arranged in the second hopper (3), and the first accessory device is arranged as a material level sensor (8). Or, it further comprises a second accessory device and the second accessory device is arranged in the sliding mold body (1), and the second accessory device is arranged as a power spiral blade (4), Or, it further comprises a third accessory device and the third accessory device is arranged in the sliding form body (1), and the third accessory device is arranged as a sliding plate (5), Or, it further comprises a fourth accessory device and the fourth accessory device is arranged in the sliding mold body (1), and the fourth accessory device is arranged as a front end head assembly (6), Or, it further comprises a fifth accessory device and the fifth accessory device is arranged in the sliding mold body (1), and the fifth accessory device is arranged as a rear end head assembly (7).

5. The concrete strip slipform forming device for an inclined working surface according to claim 4 is characterized in that: A first hopper (2), a sliding plate (5), a front end head assembly (6) and a rear end head assembly (7) are respectively arranged on a sliding mold body (1); a power spiral blade (4) is arranged between the first hopper (2) and the sliding plate (5); a second hopper (3) is arranged between the power spiral blade (4) and the first hopper (2); and a material level sensor (8) is arranged in the second hopper (3).

6. The concrete strip slipform forming device for an inclined working surface according to claim 5 is characterized in that: A bar block having an arched frame with a stepped surface body (10) at the upper end face and a sloped surface body (20) at the raised side face is arranged on the inclined working surface. Alternatively, the step surface body (10) is configured as an L-shaped step surface and the inclined surface body (20) is configured as an inner swing surface inclined inwardly.

7. The concrete strip slipform forming device for an inclined working surface according to claim 5, characterized in that: The sliding mold body (1) is configured to include a front section (11) and a rear section (12), and the inner end port of the front section (11) is configured to be connected to the inner end port of the rear section (12), one side upper end surface of the front section (11) is configured to be connected to the first hopper (2), and the other side upper end surface of the front section (11) is configured to be connected to the second hopper (3), the inner end of the inner side surface of the middle vertical portion of the front section (11) is configured to be connected to the sliding plate (5), and the outer end port of the front section (11) is configured to be connected to the front head assembly (6), the front vertical portion of the front section (11) is configured to be connected to the power spiral blade (4), and the outer side of the front vertical portion of the rear section (12) is configured to be connected to the rear head assembly (7), Or, the front section (11) is configured as a zigzag-shaped groove body having a Z-shaped upper end surface, and the rear section (12) has a Z-shaped upper end surface and a zigzag-shaped groove body having a front vertical portion inclined outward, Alternatively, the first hopper (2) is configured as a conical bucket-shaped body having a rectangular tube at the lower end, and the rectangular tube port of the first hopper (2) is configured to be connected to the sliding mold body (1), and the rectangular tube ports of the first hopper (2) are respectively configured to be distributed corresponding to the power spiral blades (4). Or, the second hopper (3) is configured to include a barrel shell I (31), a barrel shell II (32) and a screw portion (33), and a receiving groove body (34) is provided on the left and right outer sides of the barrel shell I (31), the barrel shell I (31) is configured to be connected to the barrel shell II (32) in a through-type manner, and the screw portion (33) is configured to be connected to the barrel shell II (32) in a threaded manner, the inner end of the screw portion (33) is configured to be embedded in the receiving groove body (34), and the lower port of the barrel shell I (31) is configured to be connected in a communicating manner to the sliding mold body (1), the lower port of the barrel shell I (31) is configured to be distributed correspondingly to the power spiral blade (4), and the upper part of the inner wall of the barrel shell I (31) is provided with a connection to the material level sensor (8), Or, the cylinder shell I (31) and the cylinder shell II (32) are respectively configured as rectangular tubular bodies, the screw rod portion (33) is configured as a hexagon socket bolt, and the receiving groove body (34) is configured as a U-shaped groove body, Alternatively, the housing of the material level sensor (8) is arranged to be connected to the second hopper (3), Alternatively, the power spiral blade (4) is configured as a conical spiral blade and the power shafts located on the power spiral blade (4) are respectively configured to be rotatably connected to the slide mold body (1), the driving motor housing located on the power shaft of the power spiral blade (4) is configured to be connected to the slide mold body (1) via an intermediate connecting rod, and the inner end of the power spiral blade (4) is configured to be distributed correspondingly to the second hopper (3), and the peripheral side surface of the power spiral blade (4) is configured to be distributed correspondingly to the sliding plate (5) and the front end head assembly (6), Or, the sliding plate (5) is configured to include a plate portion I (51) and a rod portion I (52), and one end of the rod portion I (52) is configured to be connected to the upper end surface of the plate portion I (51), the other end of the rod portion I (52) is configured to be connected to the sliding form body (1), and one side surface of the plate portion I (51) is configured to be distributed corresponding to the sliding form body (1), and the other side surface of the plate portion I (51) is configured to be distributed corresponding to the power spiral blade (4), Alternatively, the plate portion I (51) is configured as a C-shaped sheet and the rod portion I (52) is configured as a rod. Or, the front end head assembly (6) is configured to include a plate portion II (61), an ear seat portion (62), a rod portion II (63) and a spring portion I (64), and the rod portion II (63) is respectively configured to be connected to the spring portion I (64) and the ear seat portion (62) in a through-type manner, one end of the spring portion I (64) is configured to be connected in a contact manner to the inner end face of the ear seat portion (62), and the other end of the spring portion I (64) is configured to be connected in a contact manner to the flange body of the rod portion II (63), the inner end face of the rod portion II (63) is configured to be connected to the upper part of the inner end face of the plate portion II (61), and the lower part of the inner end face of the plate portion II (61) is configured to be connected in a contact manner to the sliding mold body (1), the lower part of the inner end face of the plate portion II (61) is configured to be distributed correspondingly to the power spiral blade (4), and the lower end face of the ear seat portion (62) is configured to be connected to the sliding mold body (1), Or, the plate portion II (61) is configured as a sheet-like body and the ear seat portion (62) is configured as a single plate ear seat having a through hole body, the through hole body of the ear seat portion (62) is configured to be connected to the rod portion II (63) and the rod portion II (63) is configured as a T-shaped rod-like body, and the spring portion I (64) is configured as a columnar spring, Or, the rear end head assembly (7) is configured to include a column head (71), a rod portion III (72), a rod portion IV (73) and a spring portion II (74), and the rod portion IV (73) is configured to be connected to the lower end of the vertical portion of the rod portion III (72) and the spring portion II (74) in a through-type connection, the inner end face of the rod portion IV (73) is configured to be connected to the notched vertical portion of the column head (71), and the flange body of the rod portion IV (73) is configured to be connected to the lower part of the outer end face of the vertical portion of the rod portion III (72) in a contacting manner, one end of the spring portion II (74) is configured to be connected to the lower part of the inner end face of the vertical portion of the rod portion III (72), and the other end of the spring portion II (74) is configured to be connected to the notched vertical portion of the column head (71), and the transverse end face of the rod portion III (72) is configured to be connected to the sliding mold body (1), Alternatively, the column head (71) is configured as a circular rod-shaped body with a 90° notch and the rod portion III (72) is configured as an L-shaped rod-shaped body with a through hole at the lower end of the vertical portion, the through hole of the rod portion III (72) is configured to be connected to the rod portion IV (73) and the rod portion IV (73) is configured as a T-shaped rod-shaped body, and the spring portion II (74) is configured as a columnar spring.

8. The concrete strip slipform forming device for an inclined working surface according to any one of claims 1 to 7, characterized in that: The slide mold body (1) and the first hopper (2) and the second hopper (3) are arranged to be distributed in a double-bin storage manner, and the slide mold body (1), the first hopper (2) and the second hopper (3) and the material level sensor (8) are arranged to be distributed in a manner of picking up storage quantity signals, the slide mold body (1), the first hopper (2) and the second hopper (3) and the power spiral blade (4) and the sliding plate (5) are arranged to be distributed in a manner of a built-in conveying portion, and the slide mold body (1), the first hopper (2) and the second hopper (3) and the power spiral blade (4) and the front end head assembly (6) and the rear end head assembly (7) are arranged to be distributed in a manner of an external end head portion, Alternatively, the center line of the first hopper (2), the center line of the second hopper (3) and the center line of the power spiral blade (4) are arranged on the same straight line, the rod portion III (72) is arranged to be connected to the rear section (12), and the plate portion II (61), the ear seat portion (62), the rod portion I (52) and the cylinder shell I (31) are respectively arranged to be connected to the front section (11).

9. A method for using a concrete strip slipform forming device for an inclined working surface, characterized in that the steps are: The sliding form body (1) enables the concrete mortar to be gathered and formed into a concrete strip, the first hopper (2) enables the concrete mortar to be injected into the sliding form body (1), and the second hopper (3) enables the excess portion of the concrete mortar injected into the sliding form body (1) to be stored, so that the concrete mortar sliding-formed into the concrete strip on the inclined working surface is in a replenishment balance state under the action of its own weight.

10. The method for using the concrete strip slipform forming device for an inclined working surface according to claim 1, characterized in that the steps are: When it is necessary to form a concrete strip on the inclined working surface, a line is drawn on the inclined working surface for the concrete strip construction, and the screw portion (33) is rotated on the cylinder shell II (32) to separate the inner end of the screw portion (33) from the receiving tank body (34), and the cylinder shell II (32) is lifted so that the storage capacity of the second hopper (3) corresponds to the remaining storage of the concrete mortar injected into the sliding form body (1). After the cylinder shell II (32) is lifted, the screw portion (33) is rotated in the opposite direction on the cylinder shell II (32) to make the inner end of the screw portion (33) move upward. The invention is used on a receiving tank body (34), connects the rectangular tube body of the first hopper (2) with the moving arm, places the lower opening of the front section (11) and the lower opening of the rear section (12) on a concrete strip forming station, makes the driving motor on the power shaft of the power spiral blade (4) in a working state, pours concrete mortar into the first hopper (2), and the front section (11) and the rear section (12) move along the construction line of the concrete strip. The concrete mortar in the first hopper (2) is injected into the front section (11), and the power spiral blade (4) is in a rotating state, and the front section (1 1) is transported inwardly, and the transported concrete mortar flows into the rear section (12) through the plate section I (51), and the concrete mortar is formed by the rear section (12). The step surface body (10) is obtained by the Z-shaped upper end surface of the rear section (12), and the inclined surface body (20) is obtained by the outwardly inclined front vertical part of the rear section (12). The excess part of the transported concrete mortar enters the barrel shell I (31) and the barrel shell II (32). The concrete mortar storage amount signal in the barrel shell I (31) and the barrel shell II (32) is picked up by the material level sensor (8), and the spring section Under the action of the energy storage of Ⅱ (74), the column head (71) is placed on the joint between the inclined body (20) and the inclined working surface to perform edge pressing on the concrete strip. At the spring part Ⅰ (64), the plate part Ⅱ (61) is placed on the front end opening of the front section (11) to block the concrete mortar flowing forward. After the concrete strip is slip-formed on the inclined working surface, the driving motor on the power shaft of the power spiral blade (4) is placed in a non-working state, and the lower opening of the front section (11) and the lower opening of the rear section (12) are taken out from the concrete strip forming station.

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