CN109025262B - Construction method for one-time pouring forming of concrete flanging - Google Patents

Construction method for one-time pouring forming of concrete flanging Download PDF

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Publication number
CN109025262B
CN109025262B CN201810955217.6A CN201810955217A CN109025262B CN 109025262 B CN109025262 B CN 109025262B CN 201810955217 A CN201810955217 A CN 201810955217A CN 109025262 B CN109025262 B CN 109025262B
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concrete
cross beam
pouring
supporting
ribs
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CN109025262A (en
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刘钊
姚禹
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China Metallurgical Construction Engineering Group Co Ltd
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China Metallurgical Construction Engineering Group Co Ltd
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    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04GSCAFFOLDING; FORMS; SHUTTERING; BUILDING IMPLEMENTS OR AIDS, OR THEIR USE; HANDLING BUILDING MATERIALS ON THE SITE; REPAIRING, BREAKING-UP OR OTHER WORK ON EXISTING BUILDINGS
    • E04G11/00Forms, shutterings, or falsework for making walls, floors, ceilings, or roofs
    • E04G11/36Forms, shutterings, or falsework for making walls, floors, ceilings, or roofs for floors, ceilings, or roofs of plane or curved surfaces end formpanels for floor shutterings
    • E04G11/48Supporting structures for shutterings or frames for floors or roofs
    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04GSCAFFOLDING; FORMS; SHUTTERING; BUILDING IMPLEMENTS OR AIDS, OR THEIR USE; HANDLING BUILDING MATERIALS ON THE SITE; REPAIRING, BREAKING-UP OR OTHER WORK ON EXISTING BUILDINGS
    • E04G21/00Preparing, conveying, or working-up building materials or building elements in situ; Other devices or measures for constructional work
    • E04G21/02Conveying or working-up concrete or similar masses able to be heaped or cast

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  • Engineering & Computer Science (AREA)
  • Architecture (AREA)
  • Mechanical Engineering (AREA)
  • Civil Engineering (AREA)
  • Structural Engineering (AREA)
  • Forms Removed On Construction Sites Or Auxiliary Members Thereof (AREA)
  • On-Site Construction Work That Accompanies The Preparation And Application Of Concrete (AREA)

Abstract

The invention discloses a construction method for one-time pouring and forming of concrete flanges, which is characterized by comprising the steps of paving a main structure template and a main concrete rib of a main structure, measuring and setting out the pouring position of the concrete flange to be poured according to a drawing, and determining a pouring construction area; assembling a suspension mould for pouring the concrete flanging in the pouring construction area, and checking and accepting the suspension mould template; after the suspended formwork template is qualified, pouring the main structure, and pouring the turned edge within 20-30 minutes after the main structure concrete is poured; and removing the formwork after the concrete reaches the formwork removal strength. The invention has the advantages of one-step forming of concrete flanging, saving of working procedures, improvement of construction precision and quality and the like.

Description

Construction method for one-time pouring forming of concrete flanging
Technical Field
The invention relates to the technical field of building construction, in particular to a construction method for one-time pouring and forming of concrete flanging.
Background
Concrete flanges are generally treated to prevent rain from leaking into or to cover the top of the concrete flange or the edge of the concrete flange. In the traditional construction engineering, concrete flanging is performed in two ways, one is to support a template after floor slab pouring is completed and pour flanging is performed, but the combination of the new concrete surface and the old concrete surface is not compact enough, so that the problems of water seepage, water backflow and the like are easily caused in the engineering, and the water seepage causes serious mildew and other diseases. The other type is that the concrete flanging and the structural floor are constructed in one-step forming mode, although the waterproof capability of the concrete flanging can be ensured, the suspended mould is easy to run and expand, the fixing difficulty is high, and the precision is not suitable to be controlled.
Disclosure of Invention
Aiming at the defects of the prior art, the technical problems to be solved by the invention are as follows: how to provide a concrete flanging one-time pouring forming construction method which can form the concrete flanging one time, is beneficial to saving working procedures and improving construction precision and quality.
In order to solve the technical problems, the invention adopts the following technical scheme:
a construction method for one-time pouring and forming of concrete flanges is characterized in that a main structure template and main concrete ribs of a main structure are paved, measurement and paying-off are carried out on pouring positions of the concrete flanges to be poured according to a drawing, and a pouring construction area is determined; assembling a suspension mould for pouring the concrete flanging in the pouring construction area, and checking and accepting the suspension mould template; after the suspended formwork template is qualified, pouring the main structure, and pouring the turned edge within 20-30 minutes after the main structure concrete is poured; and removing the formwork after the concrete reaches the formwork removal strength.
Like this, pour the turn-ups in pouring 20 ~ 30 minutes after pouring the major structure, can make the concrete of major structure have certain intensity promptly, provide the support for the pouring of turn-ups. And the cast flanged concrete can be mixed with the concrete of the main body structure before solidification, so that the concrete is finally cast and molded at one time.
Further, the hanging die comprises a die plate assembly and a supporting assembly for supporting the die plate assembly, wherein the die plate assembly comprises side wall die plates positioned on two sides of the width direction of the flanging to be cast and a cross beam fixedly connected above the two side wall die plates; the supporting assembly comprises supporting ribs vertically arranged between the two side wall templates, the lower ends of the supporting ribs are fixedly connected to the concrete main ribs, the upper ends of the supporting ribs are fixedly supported below the cross beams, and at least two supporting ribs are arranged below each cross beam along the length direction.
In the structure, the supporting ribs are vertically fixed on the concrete main ribs, then the cross beam is supported on at least two supporting ribs, so that the cross beam and the side wall template connected with the cross beam can be fixed, the template running is prevented when concrete is poured, the construction precision is convenient to control, and the concrete forming quality is improved. After the concrete is formed, the supporting ribs are also solidified in the forming flanging, and because the supporting ribs are vertically arranged, the supporting ribs cannot transversely run through the flanging, so that water seepage at the joint of the supporting ribs and the concrete can be avoided, and the waterproof performance of the flanging is improved. Above-mentioned structural design is ingenious, and easy dismounting is convenient for realize the turn-ups and the integrative construction of pouring of floor main part, and the construction precision is high, is favorable to improving turn-ups waterproof performance.
Furthermore, the length of the cross beam is greater than the width of the flanging to be poured, the two ends of the cross beam extend to the outer side of the side wall template to form a cantilever, and an inclined strut which is obliquely arranged is connected between the cantilever of the cross beam and the lower end of the side wall template.
For guaranteeing the waterproof performance after the turn-ups shaping, when setting up the template, do not allow to use the wall and wear pull bolt or iron wire etc. to consolidate the template for the lower extreme of lateral wall template forms cantilever structure, and when concrete placement smashes, the lateral wall template can receive the extrusion of concrete, causes the lower extreme of lateral wall template outwards to expand and cause the mould that expands, influences construction quality. In the structure, the two ends of the cross beam extend outwards to form the cantilever, and the inclined strut is supported between the cantilever and the lower end of the side wall formwork, so that the strength of the lower end of the side wall formwork can be improved, the formwork expansion is prevented, and the construction quality is improved.
Furthermore, two ends of the inclined strut are respectively hinged to the cross beam and the side wall template; the inclined strut comprises sleeve pipes positioned at two ends and an adjusting threaded rod connected between the two sleeve pipes, wherein the two ends of the adjusting threaded rod are respectively provided with reversely arranged threads, and the middle part of the adjusting threaded rod is provided with a vertically arranged torsion bar; and the inner holes of the two sleeves are respectively provided with an internal thread which is correspondingly arranged with the adjusting threaded rod.
Like this, just can change the length of bracing through rotating the adjusting threaded rod, both can realize supporting the regulation of the effort size on the lateral wall template, can also adapt to the lateral wall template on the different positions according to the width of different turn-ups.
Furthermore, the support assembly also comprises a steel bar seat which is formed by vertically bending two ends of a steel bar downwards symmetrically into a door shape, wherein the height of the support legs at two sides of the steel bar seat is greater than that of the concrete main bar, so that when the support legs of the steel bar seat are vertically supported on a horizontal template of a floor slab, a gap is formed between the upper part of the concrete main bar and the steel bar seat; the support bars are welded on the bar reinforcement seats and are fixedly connected to the concrete main bars through the bar reinforcement seats.
Because the reinforcing steel bar seat is formed by vertically bending two ends of a reinforcing steel bar downwards, the reinforcing steel bar seat can be conveniently inserted into the gap of the concrete main bar. And when the vertical bracing of reinforcing bar seat was on horizontal template, the clearance had between the top of concrete owner muscle and the reinforcing bar seat, like this, just can guarantee that the upper end of reinforcing bar seat remains the horizontality throughout, further guarantees the vertical setting of brace rod, can support the crossbeam level to can improve the construction precision at horizontal direction control template.
Furthermore, the support assembly comprises two groups of the steel bar seats arranged side by side and support bars welded on the steel bar seats; the supporting component is arranged on the two reinforcing steel bar seats respectively, and transverse bars are welded between the two supporting bars which are arranged just opposite to each other, so that the supporting component forms a stable frame structure.
Because the supporting component comprises two reinforcing steel bar seats, the supporting component is provided with four supporting feet, and can be more stably supported on the horizontal template of the floor slab, so that the operation is more convenient. The transverse ribs are welded between the supporting ribs, and the supporting ribs are positioned in the flanges to be poured, so that the condition of interference with the concrete main ribs cannot exist.
Furthermore, longitudinal bars are welded between the supporting bars on the same reinforcing bar seat, and reinforcing bars are welded between the adjacent longitudinal bars and the adjacent transverse bars.
In this way, the frame stability of the support assembly may be improved.
Furthermore, the height of the supporting rib is lower than the height of a to-be-poured flanging by 5-20 mm, ejector rods which are arranged corresponding to the supporting rib are arranged below the cross beam, a sleeve is connected between the supporting rib and the corresponding ejector rod, a partition plate is arranged in the middle of the sleeve, and the diameters of the two ends of the partition plate are respectively consistent with the diameters of the corresponding supporting rib and the corresponding ejector rod.
Because the height of the supporting rib is slightly lower than that of the flange, and the supporting rib is connected with the ejector rod at the bottom of the cross beam through the sleeve and supported below the cross beam, after the concrete is solidified, the lower end of the sleeve is solidified in the concrete, and the ejector rod can be pulled out from the sleeve, so that the template is very convenient to disassemble. After the pouring construction is finished, only the sleeve is left to stretch out the flanging, the sleeve is of a thin-wall structure, the strength is low, and the brick axe or the nail hammer can be used for flattening by the way when a wall body is built, so that the later-stage building is not influenced, the later-stage steel bar cutting work is saved, the construction process is simplified, and the construction efficiency is improved.
Furthermore, the side wall template is an aluminum alloy template and comprises longitudinal ribs arranged along the length direction, transverse ribs arranged along the width direction and panels paved on the longitudinal ribs and the transverse ribs, and the longitudinal ribs and the transverse ribs are provided with bolt holes arranged at equal intervals; the cross beam is made of aluminum alloy rectangular tubes, a sliding seat is slidably sleeved on the cross beam, the lower end of the sliding seat extends outwards along the width direction of the cross beam to form a connecting part, and a vertical through bolt hole is formed in the connecting part of the sliding seat; the side wall template is fixedly connected to the sliding seat through a pin and a matched arc-shaped pin sheet; the upper end of the sliding seat is also provided with a locking bolt arranged towards the cross beam, and the locking bolt abuts against the cross beam.
Like this, utilize the slide can conveniently adjust the interval between two lateral wall templates to make its turn-ups that is applicable to different width, improve the suitability. In addition, the aluminum alloy template has stable structure and relatively light weight, is favorable for reducing the difficulty of formwork support and improving the forming quality of concrete. The repeated utilization rate is high, and the construction cost is favorably reduced.
Furthermore, two ends of the cross beam are respectively provided with a balancing weight and are respectively positioned at the outer sides of the two sliding seats; the middle part of the balancing weight is provided with a through hole matched with the cross beam, and the balancing weight can be slidably sleeved on the cross beam.
In conclusion, the concrete flanging forming die has the advantages that the concrete flanging can be formed at one time, the working procedures are saved, the construction precision and quality are improved, and the like.
Drawings
Fig. 1 is a schematic structural view of an integrated pouring construction template of a reversed ridge of a toilet.
Fig. 2 is a schematic structural view of the support assembly.
Fig. 3 is a schematic structural view of the diagonal brace.
Fig. 4 is a schematic structural view of the sidewall template.
Fig. 5 is a schematic structural view of the inside corner mold plate.
Detailed Description
The present invention will be described in detail with reference to an integrally cast construction form for a back sill of a toilet and a construction method thereof.
In the specific implementation: as shown in fig. 1 to 5, an integral pouring construction formwork structure for a back sill of a toilet includes a formwork assembly 1 and a supporting assembly 2 for supporting the formwork assembly 1, where the formwork assembly 1 includes side wall formworks 11 located at two sides of the width direction of the back sill to be poured, and a beam 12 fixedly connected above the two side wall formworks 11; the supporting assembly 2 comprises supporting ribs 21 vertically arranged between the two side wall templates 11, the lower ends of the supporting ribs 21 are fixedly connected to concrete main ribs, the upper ends of the supporting ribs 21 are fixedly supported below the cross beams 12, and at least two supporting ribs 21 are arranged below each cross beam 12 along the length direction; the lower end of the side wall template 11 positioned on the inner side of the toilet is also connected with an internal corner template 16, the internal corner template 16 is provided with two forming surfaces which are vertical to each other, one forming surface is flush with the forming surface of the side wall template 11, and the other forming surface is flush with the upper surface of a floor slab to be formed; the juncture of the two molding surfaces of the internal corner template 16 is arc-shaped, and the radius of the juncture is consistent with the radius of a wall corner plastering arc of the wall body to be poured.
In the structure, the supporting ribs are vertically fixed on the concrete main ribs, then the cross beam is supported on at least two supporting ribs, so that the cross beam and the side wall template connected with the cross beam can be fixed, the template running is prevented when concrete is poured, the construction precision is convenient to control, and the concrete forming quality is improved. After the concrete molding, the brace rod also solidifies in the anti-bank of shaping, because the vertical setting of brace rod, can not form on anti-bank and transversely run through to can avoid brace rod and concrete junction infiltration, improve the waterproof performance of anti-bank. Above-mentioned structural design is ingenious, and easy dismounting is convenient for realize anti-bank and the integrative construction of pouring of floor main part, and the construction precision is high, is favorable to improving the waterproof performance of anti-bank. Meanwhile, the internal corner template can be used for forming the arc of the wall corner in one step during pouring, the strength is good, the waterproof performance is good, and the later-stage arc construction cost can be saved.
During specific implementation, the distance from the support ribs positioned on the two sides to the outer side of the reverse ridge to be poured is 2-4 cm. Therefore, the supporting ribs can be guaranteed to be integrally wrapped in the formed reversed ridges.
Specifically, the length of the beam 12 is greater than the width of the inverted sill to be poured, both ends of the beam extend to the outside of the side wall formwork 11 to form a cantilever, and an inclined strut 13 which is obliquely arranged is further connected between the cantilever of the beam 12 and the lower end of the side wall formwork 11.
For the waterproof performance after guaranteeing anti-bank shaping, when setting up the template, do not allow to use the wall and wear pull bolt or iron wire etc. to consolidate the template for the lower extreme of lateral wall template forms cantilever structure, when concrete placement, and the lateral wall template can receive the extrusion of concrete, causes the outside expansion of the lower extreme of lateral wall template and causes the mould that expands, influences construction quality. In the structure, the two ends of the cross beam extend outwards to form the cantilever, and the inclined strut is supported between the cantilever and the lower end of the side wall formwork, so that the strength of the lower end of the side wall formwork can be improved, the formwork expansion is prevented, and the construction quality is improved.
As shown in fig. 3, two ends of the inclined strut 13 are respectively hinged to the cross beam 12 and the side wall formwork 11; the inclined strut 13 comprises sleeves at two ends and an adjusting threaded rod connected between the two sleeves, wherein two ends of the adjusting threaded rod are respectively provided with reversely arranged threads, and the middle part of the adjusting threaded rod is provided with a vertically arranged torsion bar; and the inner holes of the two sleeves are respectively provided with an internal thread which is correspondingly arranged with the adjusting threaded rod.
Like this, just can change the length of bracing through rotating the adjusting threaded rod, both can realize supporting the regulation of the effort size on the lateral wall template, can also adapt to the lateral wall template in the different positions according to the width of different anti-banks.
As shown in fig. 2, the support assembly 2 further includes a reinforcement seat 22 formed by vertically bending two ends of a reinforcement downward symmetrically into a "door" shape, wherein the height of the legs on both sides of the reinforcement seat 22 is greater than the height of the concrete main reinforcement, so that when the legs of the reinforcement seat 22 are vertically supported on the horizontal formwork of the floor slab, a gap is formed between the upper side of the concrete main reinforcement and the reinforcement seat 22; the support bars 21 are welded to the bar bases 22 and are fixedly connected to the concrete main bars through the bar bases 22.
Because the reinforcing steel bar seat is formed by vertically bending two ends of a reinforcing steel bar downwards, the reinforcing steel bar seat can be conveniently inserted into the gap of the concrete main bar. And when the vertical bracing of reinforcing bar seat was on horizontal template, the clearance had between the top of concrete owner muscle and the reinforcing bar seat, like this, just can guarantee that the upper end of reinforcing bar seat remains the horizontality throughout, further guarantees the vertical setting of brace rod, can support the crossbeam level to can improve the construction precision at horizontal direction control template. In specific implementation, the height of the support legs of the steel bar seat is 2-10 mm greater than that of the main concrete bar. Like this, can guarantee the concrete placement back, the reinforcing bar seat is whole to be wrapped up in the concrete, need not the later stage and carries out the cutting operation, is favorable to reducing the construction process, saves construction cost.
Specifically, the support assembly 2 includes two sets of the reinforcement seats 22 arranged side by side and the support bars 21 welded on the reinforcement seats 22; the two transverse bars 23 are welded between the two oppositely arranged support bars 21 and are respectively positioned on the two bar seats 22, so that the support component 2 forms a stable frame structure.
Because the supporting component comprises two reinforcing steel bar seats, the supporting component is provided with four supporting feet, and can be more stably supported on the horizontal template of the floor slab, so that the operation is more convenient. The transverse ribs are welded between the supporting ribs, and the supporting ribs are located in the inverted ridges to be poured, so that the condition of interference with the main concrete ribs cannot exist.
During implementation, longitudinal bars 24 are welded between the support bars 21 on the same steel bar seat 22, reinforcing bars are welded between the adjacent longitudinal bars 24 and the adjacent transverse bars 23, and two longitudinal bars and two transverse bars are vertically arranged.
In this way, the frame stability of the support assembly may be improved.
During implementation, the height of the support rib 21 is 5-20 mm lower than the height of a to-be-poured reversed ridge, the ejector rods 14 corresponding to the support rib 21 are arranged below the cross beam 12, a sleeve 3 is connected between the support rib 21 and the corresponding ejector rod 14, a partition plate is arranged in the middle of the sleeve 3, and the diameters of the two ends of the partition plate are respectively consistent with the diameters of the corresponding support rib 21 and the ejector rod 14. When the sleeve 3 is sleeved on the support rib 21, the upper end of the sleeve 3 is higher than the reverse ridge.
Because the height of the supporting rib is slightly lower than that of the inverted ridge, and the supporting rib is connected with the ejector rod at the bottom of the cross beam through the sleeve and supported below the cross beam, after the concrete is solidified, the lower end of the sleeve is solidified in the concrete, and the ejector rod can be pulled out of the sleeve, so that the template is very convenient to disassemble. After the pouring construction is finished, only the sleeve is left to extend out of the reverse bank, the sleeve is of a thin-wall structure, the strength is low, and the brick axe or the nail hammer can be used for flattening during wall building, so that the later-stage building is not influenced, the later-stage steel bar cutting work is saved, the construction process is simplified, and the construction efficiency is improved.
In specific implementation, the sleeve 3 can also be a round table type metal casting block with the whole size being larger than the whole size, a layer of release agent is coated on the outer round surface of the sleeve during construction, and the sleeve can be pulled out of concrete after the concrete is formed and can be recycled. The sleeve 3 can also be made of plastics, the sleeve made of plastics has lower strength, and when a brick wall is built, a brick cutter can be used for directly cutting.
As shown in fig. 4 and 5, the side wall formworks 11 and the internal corner formworks are both aluminum alloy formworks, and each aluminum alloy formwork comprises a longitudinal rib arranged along the length direction, a transverse rib arranged along the width direction, and a panel laid on the longitudinal rib and the transverse rib, and the longitudinal rib and the transverse rib are both provided with bolt holes arranged at equal intervals; the beam 12 is made of an aluminum alloy rectangular tube, a sliding seat 15 is slidably sleeved on the beam, the lower end of the sliding seat 15 extends outwards along the width direction of the beam 12 to form a connecting part, and a vertical through bolt hole is formed in the connecting part of the sliding seat 15; the side wall template 11 is fixedly connected to the sliding seat 15 through a pin and a matched arc-shaped pin sheet; the upper end of the carriage 15 also has a locking bolt arranged towards the cross beam 12, which locking bolt abuts against the cross beam 12.
Therefore, the distance between the two side wall templates can be conveniently adjusted by utilizing the sliding seat, so that the side wall templates are suitable for the reversed ridges with different widths, and the applicability is improved. In addition, the aluminum alloy template has stable structure and relatively light weight, is favorable for reducing the difficulty of formwork support and improving the forming quality of concrete. The repeated utilization rate is high, and the construction cost is favorably reduced.
In practice, the two ends of the beam 12 are further provided with movable weights 17.
Because the lower extreme that is located the inboard lateral wall template in bathroom still installs reentrant corner template for the weight unbalance of the template of both sides causes easily that the hanging die appears the mode phenomenon of running. The balance at two ends of the cross beam can be adjusted through the movable balancing weight on the cross beam, the cross beam and the template can be stably supported on the supporting ribs, the template is prevented from running, the stability of the suspended template is improved, and the construction quality is improved.
In implementation, two ends of the cross beam 12 are respectively provided with one balancing weight 17 and are respectively located at the outer sides of the two sliding seats 15; the middle part of the balancing weight 17 is provided with a through hole matched with the cross beam 12, and the balancing weight can be slidably sleeved on the cross beam 12.
During construction, the following steps are adopted:
firstly, measuring and paying off the pouring position of the reverse sill of the toilet according to a drawing, and determining a construction area for pouring the reverse sill;
arranging the supporting components in the construction area along the length direction of the inverted ridge to be poured at equal intervals, enabling the supporting legs of the supporting components to vertically penetrate through the concrete main reinforcement and be supported on the horizontal template below the concrete main reinforcement, and fixedly binding the supporting components on the concrete main reinforcement by using iron wires;
assembling the side wall template, the internal corner template and the beam in sections, lifting and hanging the assembled side wall template, the internal corner template and the beam onto a supporting assembly, coaxially connecting the ejector rods of the beam with the supporting ribs by using sleeves, and checking and accepting the templates after the templates are integrally assembled;
when pouring, the main structure is poured, and within 30 minutes after the main structure concrete pouring is finished, the reverse ridge is poured and the steel bars are inserted and compacted; and (5) removing the template after the concrete reaches the template removal strength, and finishing the pouring construction. The reinforcing steel bars are adopted for compaction, so that the influence of vibration on the suspended die, die running and die expansion can be avoided.
The above description is only exemplary of the present invention and should not be taken as limiting, and any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims (8)

1. A construction method for one-time pouring and forming of concrete flanges is characterized in that a main structure template and main concrete ribs of a main structure are paved, measurement and paying-off are carried out on pouring positions of the concrete flanges to be poured according to a drawing, and a pouring construction area is determined; assembling a suspension mould for pouring the concrete flanging in the pouring construction area, and checking and accepting the suspension mould template; after the suspended formwork template is qualified, pouring the main structure, and pouring the turned edge within 20-30 minutes after the main structure concrete is poured; removing the formwork after the concrete reaches the formwork removal strength;
the hanging die comprises a template assembly (1) and a supporting assembly (2) for supporting the template assembly (1), wherein the template assembly (1) comprises side wall templates (11) positioned on two sides of a flanging to be poured in the width direction and a cross beam (12) fixedly connected above the two side wall templates (11); the supporting assembly (2) comprises supporting ribs (21) vertically arranged between the two side wall templates (11), the lower ends of the supporting ribs (21) are fixedly connected to a concrete main rib, the upper ends of the supporting ribs are fixedly supported below the cross beams (12), and at least two supporting ribs (21) are arranged below each cross beam (12) along the length direction;
the support assembly (2) further comprises a reinforcing steel bar seat (22) formed by vertically bending two ends of a reinforcing steel bar downwards symmetrically into a door shape, wherein the heights of the support legs on two sides of the reinforcing steel bar seat (22) are larger than the height of the concrete main bar, so that when the support legs of the reinforcing steel bar seat (22) are vertically supported on a horizontal formwork of a floor slab, a gap is formed between the upper part of the concrete main bar and the reinforcing steel bar seat (22); the support bars (21) are welded on the bar base (22) and fixedly connected on the concrete main bar through the bar base (22).
2. The construction method for one-time pouring forming of the concrete flanging according to claim 1, wherein the length of the cross beam (12) is larger than the width of the flanging to be poured, two ends of the cross beam extend to the outside of the side wall formwork (11) to form a cantilever, and an inclined strut (13) which is obliquely arranged is further connected between the cantilever of the cross beam (12) and the lower end of the side wall formwork (11).
3. The construction method for one-time pouring and forming of the concrete flanging according to claim 2, characterized in that two ends of the inclined strut (13) are respectively hinged on the cross beam (12) and the side wall formwork (11); the inclined strut (13) comprises sleeve pipes positioned at two ends and an adjusting threaded rod connected between the two sleeve pipes, wherein the two ends of the adjusting threaded rod are respectively provided with reversely arranged threads, and the middle part of the adjusting threaded rod is provided with a vertically arranged torsion bar; and the inner holes of the two sleeves are respectively provided with an internal thread which is correspondingly arranged with the adjusting threaded rod.
4. The construction method for one-time pouring and forming of the concrete flanging according to claim 1, wherein the supporting assembly (2) comprises two groups of the reinforcement seats (22) which are arranged side by side and supporting ribs (21) welded on the reinforcement seats (22); the supporting components (2) are positioned on the two reinforcing steel bar seats (22) respectively, and transverse bars (23) are welded between the two oppositely-arranged supporting bars (21), so that the supporting components (2) form a stable frame structure.
5. The construction method for one-time pouring and forming of the concrete flanging as claimed in claim 4, wherein longitudinal ribs (24) are welded between the support ribs (21) on the same reinforcement seat (22), and reinforcing ribs are welded between the adjacent longitudinal ribs (24) and the adjacent transverse ribs (23).
6. The construction method for one-time pouring forming of the concrete flanging according to claim 1, wherein the height of the supporting rib (21) is 5-20 mm lower than the height of the flanging to be poured, a top rod (14) arranged corresponding to the supporting rib (21) is arranged below the cross beam (12), a sleeve (3) is connected between the supporting rib (21) and the corresponding top rod (14), a partition plate is arranged in the middle of the sleeve (3), and the aperture of each of two ends of the partition plate is consistent with the diameter of the corresponding supporting rib (21) and the diameter of the corresponding top rod (14).
7. The construction method for one-time pouring and forming of the concrete flanging according to claim 1, wherein the side wall formwork (11) is an aluminum alloy formwork and comprises longitudinal ribs arranged along the length direction, transverse ribs arranged along the width direction and panels paved on the longitudinal ribs and the transverse ribs, and the longitudinal ribs and the transverse ribs are respectively provided with bolt holes arranged at equal intervals; the cross beam (12) is made of aluminum alloy rectangular tubes, a sliding seat (15) is slidably sleeved on the cross beam, the lower end of the sliding seat (15) extends outwards along the width direction of the cross beam (12) to form a connecting part, and a vertical through pin hole is formed in the connecting part of the sliding seat (15); the side wall template (11) is fixedly connected to the sliding seat (15) through a pin and a matched arc-shaped pin sheet; the upper end of the sliding seat (15) is also provided with a locking bolt arranged towards the cross beam (12), and the locking bolt is abutted against the cross beam (12).
8. The construction method for one-time pouring forming of the concrete flanging according to claim 7, characterized in that two ends of the cross beam (12) are respectively provided with a balancing weight (17) and are respectively positioned at the outer sides of the two sliding seats (15); the middle part of the balancing weight (17) is provided with a through hole matched with the cross beam (12) and can be sheathed on the cross beam (12) in a sliding way.
CN201810955217.6A 2018-08-21 2018-08-21 Construction method for one-time pouring forming of concrete flanging Active CN109025262B (en)

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