CN108179877A - Mitigate the cast-in-place torsion plate circular arc track construction method of helical curve multilayer - Google Patents

Mitigate the cast-in-place torsion plate circular arc track construction method of helical curve multilayer Download PDF

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Publication number
CN108179877A
CN108179877A CN201711467184.2A CN201711467184A CN108179877A CN 108179877 A CN108179877 A CN 108179877A CN 201711467184 A CN201711467184 A CN 201711467184A CN 108179877 A CN108179877 A CN 108179877A
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CN
China
Prior art keywords
circular arc
bridge floor
helical curve
line
track
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Pending
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CN201711467184.2A
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Chinese (zh)
Inventor
陈德刚
梁顺吉
潘政业
王少文
陈聪
苏晓
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Qingjian Group Co Ltd
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Qingjian Group Co Ltd
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Priority to CN201711467184.2A priority Critical patent/CN108179877A/en
Publication of CN108179877A publication Critical patent/CN108179877A/en
Pending legal-status Critical Current

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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
    • E04G21/00Preparing, conveying, or working-up building materials or building elements in situ; Other devices or measures for constructional work

Abstract

The invention discloses a kind of cast-in-place torsion plate circular arc track construction methods of mitigation helical curve multilayer, are related to construction method, include the following steps:(1) illustraton of model I is obtained, drives piles and determine the position of central point;(2) illustraton of model II is obtained;(3) the upright bar spacing of mitigation helical curve track bridge floor outer contour is determined;(4) spacing Along ent is obtained;(5) determine that each layer installs the control point of bridge floor bottom plate and lumps of wood keel absolute altitude.The beneficial effects of the invention are as follows, successfully overcome the problems, such as that helical curve track line segment is longer in the prior art, Curvature varying is frequent, template loft is complicated using common survey instrument and computer modeling principle, accurate measure is carried out to pinpoint, the corresponding vertical linear absolute altitude of every circular arc radioactive ray can be acquired rapidly, and horizontal alignment control can then be crossed circular arc fixed point tangential method by direct cable method or decile and be acquired.

Description

Mitigate the cast-in-place torsion plate circular arc track construction method of helical curve multilayer
Technical field
The present invention relates to construction method, especially a kind of mitigation helical curve multilayer is cast-in-place to turn round plate circular arc track construction party Method.
Background technology
With the development of the social economy, Urban vehicles poputation is increasing, original open parking ground due to the use of Efficiency is low, occupies a large amount of valuable land resources and fades out gradually the sight of people, and underground parking and multi-layer underground parking building It comes into being.Wherein, underground multistory car park can rationally make full use of space due to comprehensive cost low, therefore in residential quarters Proportion increases increasingly in design.In view of the above-mentioned problems, people start with the parking lot that limited land resource is built, Vehicle can dock to each layer parking area by the screw lane car being connect with parking lot periphery.
Existing multi-layer helical curved lanes bridge floor unwrapping wire is complex, usually establishes polar coordinates using easement curve parameter It is equation, calculates the coordinate for respectively treating layout point, easement curve parametric equation is as follows:
The method is no doubt accurate, but needs to make necessary mathematics checking computations in construction, and calculation amount is larger, substantially increases and applies Workload during work reduces the construction efficiency in helical curve track.
Invention content
It is an object of the invention to solve the above-mentioned problems in the prior art, it is proposed that a kind of mitigation helical curve is more The cast-in-place torsion plate circular arc track construction method of layer, operation is simple, registration, and setting is flexible, and labor intensity is low, operation letter It is single, substantially increase construction efficiency.
The technical scheme is that:A kind of mitigation helical curve multilayer is cast-in-place to turn round plate circular arc track construction method, wherein, Include the following steps:
(1) it is modeled using CAD, obtains illustraton of model I, the coordinate at the control point in the bridge floor center of circle is exported from the illustraton of model, is beaten Stake and the position for accurately determining central point;
(2) helical curve track bridge floor will be mitigated along its lateral profile to be unfolded, the horizontal direction of lateral profile camber line will be thrown Base of the hachure as right angled triangle, using the difference in height between every layer of bridge floor as another right-angle side of right angled triangle, outside Bevel edge of the profile camber line as right angled triangle, obtains illustraton of model II;
(3) it determines the upright bar spacing of mitigation helical curve track bridge floor outer contour, by the upright bar spacing, spiral shell will be mitigated Rotation curved lanes bridge floor outer contour is divided into several sections, and every section of corresponding central angle is θ, in illustraton of model I, is justified with each bridge floor Heart point is starting point, using θ as central angle, draws several circular arc radioactive ray, and the upright bar absolute altitude on every circular arc radioactive ray is consistent, circular arc The camber line for mitigating helical curve track bridge floor outer profile is divided into several sections by radioactive ray;
(4) each section after being segmented in illustraton of model I is measured successively mitigates helical curve track bridge floor outline camber line in water Distance after flat direction projection by the base of right angled triangle of the range marker in illustraton of model II, has obtained several spacings Along ent;
(5) it does vertical line by each spacing Along ent and extends to and mitigate in the bridge floor outline camber line of helical curve track, respectively Vertical line generates intersection point with mitigating helical curve track bridge floor outline camber line, by measuring each intersection point and corresponding spacing Along ent Between high difference, with spirit level by the high difference mark in the upright bar of support system, indicate that the point of generation obtains bridge floor bottom The horizontal absolute altitude of the steel pipe support of face die plate, lumps of wood keel and supporting square timber keel, and put using this as each layer and install bridge floor bottom The control point of template die plate and lumps of wood keel absolute altitude.
In the present invention, determine and after upright bar subscript chigo difference, install from the start line in track to finishing line and vertically cut Power wall form first installs the shear wall formwork at outer contour, then installs the shear wall formwork at inner outline, installs shear wall While template, the front of timely calibration template and the verticality of side are conducive to the Integral correction of later stage template.Model sheetinstallat End is reinforced immediately.
After installing vertical shear wall form, with bamboo slab rubber by track web bottom surface Template nail in lumps of wood keel, bottom surface template After laying, horizontal alignment control point is led in the template of bottom surface, in this, as the control line for installing Side shuttering.Above-mentioned is flat Upper thread shape control point is crossed circular arc fixed point tangential method by direct cable method or decile and is determined.
The helical curve circular arc track bridge floor web takes double two-way concrete slab to bind, and transverse steel is located at longitudinal reinforcement Lower section, be in vertical distribution between transverse steel and longitudinal reinforcement, the extended line of longitudinal reinforcement be all from the center of circle radially outward.
Beneficial effects of the present invention:
Using common survey instrument and computer modeling principle successfully overcome in the prior art helical curve track line segment compared with Long, the problem of Curvature varying is frequent, template loft is complicated, carry out it is accurate measure fixed point, every circular arc radioactive ray can be acquired rapidly Corresponding vertical linear absolute altitude, and horizontal alignment control can then be crossed circular arc fixed point tangential method by direct cable method or decile and be asked .Realize that control this engineering method operation to Pavement linear is simple by controlling absolute altitude and the position of these points, registration, if It puts flexibly, labor intensity is low, easy to operate, has huge advantage on duration, quality, safety, cost etc., carries significantly High construction efficiency.
Description of the drawings
Fig. 1 is the illustraton of model I in the present invention;
Fig. 2 is the illustraton of model II in the present invention;
Fig. 3 is the structure diagram of screw lane car floor elevation;
Fig. 4 is the schematic diagram of circular arc radioactive ray segmentation helical curve track bridge floor outer profile in embodiment 1;
Fig. 5 is the schematic diagram that circular arc radioactive ray correspond to upright bar absolute altitude in embodiment 1.
In figure:1- upright bar absolute altitude control lines;2-37# circular arc radioactive ray;3-38# circular arc radioactive ray;4-39# circular arcs radiate Line;5-40# circular arc radioactive ray;6-41# circular arc radioactive ray;7-42# circular arc radioactive ray;8-43# circular arc radioactive ray;9-44# circular arcs Radioactive ray;10-45# circular arc radioactive ray;11-46# circular arc radioactive ray;12- longitudinal reinforcements;13- transverse steels;14- lumps of wood keel; 15- deck forms.
Specific embodiment
The present invention is further illustrated with reference to the accompanying drawings and examples.
The present invention is a kind of cast-in-place torsion plate circular arc track construction method of mitigation helical curve multilayer, and this method includes following step Suddenly:
The first step models multi-layer helical track using CAD, illustraton of model I as shown in Figure 1 is obtained, from the illustraton of model The coordinate at the control point in the bridge floor center of circle is exported, timber is squeezed at control point, and center position is accurately drawn in stake top, is followed closely Sub- cap exposes stake top about 1cm.
Second step, will mitigate helical curve track bridge floor along P1-P2 as shown in Figure 1-... P10-P11 outboard wheels Exterior feature expansion, using this outline camber line projection straight line in the horizontal direction as the base of right angled triangle, between every layer of bridge floor Another right-angle side of the difference in height as right angled triangle, bevel edge of the outline camber line as right angled triangle, so as to obtain such as Fig. 2 Shown illustraton of model II.
Third walks, and according to building module, determines to mitigate the upright bar spacing of helical curve track bridge floor outer contour, by this Upright bar spacing will mitigate helical curve track bridge floor outer contour and be divided into several sections, and every section of corresponding central angle is θ, such as Fig. 1 It is shown, in illustraton of model I, respectively using each bridge floor centre point as starting point, using θ as central angle, draw a plurality of circular arc radioactive ray, circular arc The camber line for mitigating helical curve track bridge floor outer profile is divided into multistage by anti-ray, and circular arc radioactive ray are upright bar mark in the present invention High control line 1.
4th step measures each section after being segmented in illustraton of model I and mitigates helical curve track bridge floor outline camber line successively Distance after projecting in the horizontal direction, the base of right angled triangle of the range marker in illustraton of model II has obtained several Spacing Along ent.
In illustraton of model II, vertical line is done by each spacing Along ent for 5th step, and is extended to and mitigated helical curve track In the outline camber line of bridge floor, each vertical line generates intersection point with mitigating the outline camber line of helical curve track bridge floor, passes through survey Measure the high difference Z between each intersection point and corresponding spacing Along enti.With spirit level by the high difference ZiMark passes through in upright bar The point obtained after mark can obtain the horizontal absolute altitude of the steel pipe support of bridge floor bottom surface template, lumps of wood keel and supporting square timber keel, And the control point that bridge floor bottom plate and lumps of wood keel absolute altitude are installed as each layer is put using this, as shown in Figure 3.
After determining and indicating the high difference of upright bar, vertical shear wall is installed from the start line in track to finishing line for 6th step Template first installs the shear wall formwork at outer contour, then installs the shear wall formwork at inner outline, installs shear wall formwork While, the front of timely calibration template and the verticality of side are conducive to the Integral correction of later stage template.Model sheetinstallat terminates It is reinforced immediately.
7th step is followed closely track web bottom surface template 15 in lumps of wood keel 14 with bamboo slab rubber, after bottom surface template 15 is laid, Horizontal alignment control point is led in bottom surface template 15, in this, as the control line for installing Side shuttering, horizontal alignment control point Circular arc fixed point tangential method can be crossed by direct cable method or decile to determine.
Side shuttering uses waste and old glued board, because old glued board plasticity is preferable, easily curves certain radian, and save Material improves template utilization rate.It after bridge floor web Side shuttering installs to a certain extent, needs to be checked in time, and in time Carry out necessary adjustment, such as the corner angle of the smooth of bottom surface template, Side shuttering composition circular arc.Finally in Side shuttering periphery One of 16 steel reinforcing of φ is added at upper and lower position respectively, as the control molding measure of Side shuttering curve.
8th step, the helical curve circular arc track bridge floor web take double two-way concrete slab to bind, and transverse steel 13 is i.e. just For moment of flexure muscle using 16 steel bar arrangements of φ under, longitudinal reinforcement 12 is that negative bending moment rib uses 14 steel bar arrangements of φ in upper, transverse steel 13 and 12 vertical distribution of longitudinal reinforcement, at the same the extended line of longitudinal reinforcement 12 be all from the center of circle radially outward.The blanking of reinforcing bar backstage It is modeled in the process using computer CAD, the overlapping part and cutting length of reinforcing bar, control is determined in strict accordance with the curvature of bridge floor web The proportion of goods damageds of prepared material.Working efficiency is not only increased, and also improves cutting stock precision.
Embodiment 1
In the present embodiment, mitigate the cast-in-place plate circular arc track construction method of turning round of helical curve multilayer and include the following steps:
The first step models multi-layer helical track using CAD, illustraton of model I as shown in Figure 1 is obtained, from the illustraton of model The coordinate at the control point in the bridge floor center of circle is exported, timber is squeezed at control point, and center position is accurately drawn in stake top, is followed closely Sub- cap exposes stake top about 1cm.
Second step, will mitigate helical curve track bridge floor along P1-P2 as shown in Figure 1-... P10-P11 outboard wheels Exterior feature expansion, using this outline camber line projection straight line in the horizontal direction as the base of right angled triangle, between every layer of bridge floor Another right-angle side of the difference in height as right angled triangle, bevel edge of the outline camber line as right angled triangle, so as to obtain such as Fig. 2 Shown illustraton of model II.
Third walks, according to building module, by the level of spigot-and-socket steel pipe form bracing system used in this present embodiment Pole length is two kinds of specifications of 850mm and 1150mm, it is contemplated that upright bar uses φ 48mm × 3.5mm steel pipes and concreting process It is constructed using automotive pump, in order to make the flexure plane of bridge floor bottom plate more smooth, the spacing of column framed bent should not be excessive, therefore mitigates spiral shell The upright bar spacing of rotation curved lanes bridge floor outer contour is set to 900mm.
Helical curve can will be mitigated using the MEASURE orders (spacing decile, 900mm) in computer AUTOCAD softwares Track bridge floor outer contour is divided into 30 sections, and every section of corresponding central angle θ is 6 ゜, using the center of circle of track bridge floor as starting point, 6 ゜ For central angle, a plurality of circular arc radioactive ray are drawn successively, and the upright bar absolute altitude on every circular arc radioactive ray is consistent.Circular arc radiation simultaneously The outline camber line for mitigating helical curve track bridge floor is uniformly divided into multistage by line.
4th step using DIST orders (measurement) in computer AUTOCAD softwares is measured and mitigates helical curve track successively The distance between each spacing Along ent, the distance measured is identified successively in illustraton of model II on bridge floor outline camber line projection line Right angled triangle base, so as to obtain multiple spacing Along ents.
5th step, excessively each spacing Along ent, which does vertical line and extends to, to be mitigated in the bridge floor outline camber line of helical curve track simultaneously Obtain a corresponding intersection point, measured automatically using DIST orders in computer AUTOCAD softwares spacing Along ent with it is corresponding The distance between intersection point obtains corresponding upright bar absolute altitude.As shown in figure 4, with 37# circular arcs radioactive ray 2 until 46# circular arcs radiate For circular arc radioactive ray between line 11, the Z in following tableiIt is worth to mitigate on the bridge floor outline camber line projection line of helical curve track Height difference between each spacing Along ent and corresponding intersection point.
With spirit level by the height difference mark in the upright bar of support system, bridge can be obtained out by the point generated after mark The horizontal absolute altitude of the steel pipe support of face bottom surface template, lumps of wood keel and supporting square timber keel, and put using this as each layer and install bridge The control point of face bottom plate and lumps of wood keel absolute altitude.
After determining and indicating the high difference of upright bar, vertical shear wall is installed from the start line in track to finishing line for 6th step Template first installs the shear wall formwork at outer contour, then installs the shear wall formwork at inner outline, installs shear wall formwork While, the front of timely calibration template and the verticality of side are conducive to the Integral correction of later stage template.Model sheetinstallat terminates It is reinforced immediately, due to being circular arc wall, reinforcing wall template can not use steel pipe, it is necessary to use the reinforcing bar of φ 16 instead.
7th step is followed closely track web bottom surface template 15 in lumps of wood keel 14 with bamboo slab rubber, after bottom surface template 15 is laid, Horizontal alignment control point is led in bottom surface template 15, in this, as the control line for installing Side shuttering, horizontal alignment control point Circular arc fixed point tangential method can be crossed by direct cable method or decile to determine.
Side shuttering uses waste and old glued board, because old glued board plasticity is preferable, easily curves certain radian, and save Material improves template utilization rate.It after bridge floor web Side shuttering installs to a certain extent, needs to be checked in time, and in time Carry out necessary adjustment, such as the corner angle of the smooth of bottom surface template, Side shuttering composition circular arc.Finally in Side shuttering periphery One of 16 steel reinforcing of φ is added at upper and lower position respectively, as the control molding measure of Side shuttering curve.
8th step, the helical curve circular arc track bridge floor web take double two-way concrete slab to bind, and transverse steel 13 is i.e. just For moment of flexure muscle using 16 steel bar arrangements of φ under, longitudinal reinforcement 12 is that negative bending moment rib uses 14 steel bar arrangements of φ in upper, transverse steel 13 and 12 vertical distribution of longitudinal reinforcement, at the same the extended line of longitudinal reinforcement 12 be all from the center of circle radially outward.The blanking of reinforcing bar backstage It is modeled in the process using computer CAD, the overlapping part and cutting length of reinforcing bar, control is determined in strict accordance with the curvature of bridge floor web The proportion of goods damageds of prepared material.Working efficiency is not only increased, and also improves cutting stock precision.
9th step, concreting.Concrete is poured using automotive pump, with reference to the layout characteristics of screw lane car, is adopted With vertical shear wall construction and the arrangement and method for construction of track web one-piece casting.Concrete is disposably poured too much to mould in order to prevent Plate generates too big pressure, and the mass defects such as mould, swollen mould are run so as to generate.On the one hand, vertical shear wall concrete takes entirety Placement layer by layer, carries out in three times, pours the terminal by runway every time to its starting point, ensures concrete in casting process by height Place freely flow to lower, prevent aggregate be packed together cause to vibrate it is unreal.On the other hand, it with reference to the layout characteristics of bridge, pours When building track web concrete, pour sequence and carried out from top to bottom along track web central axes to both sides, to ensure shuttering supporting Overall stability of the system in casting process.
Tenth step, form removal.Form removable should follow first non-weight bearing area, rear load-bearing position and top-down tear open Except principle carries out, and should symmetrically remove, so as to ensure the stabilization of entire support system.Since the span of bridge floor web is more than 8m, The concrete strength pressure testing provided according to laboratory report is needed to determine the form removable time.Therefore, concreting finishes seven In it, have to strengthen to concrete curing, appropriate temperature and enough humidity are kept, to meet the good hardening of concrete Condition.

Claims (5)

1. a kind of mitigation helical curve multilayer is cast-in-place to turn round plate circular arc track construction method, it is characterised in that includes the following steps:
(1) it is modeled using CAD, obtains illustraton of model I, the coordinate at the control point in the bridge floor center of circle is exported from the illustraton of model, piling is simultaneously The position of accurate determining central point;
(2) helical curve track bridge floor will be mitigated along its lateral profile to be unfolded, the horizontal direction of the lateral profile camber line will be projected Base of the line as right angled triangle, using the difference in height between every layer of bridge floor as another right-angle side of right angled triangle, foreign steamer Bevel edge of the wide camber line as right angled triangle, obtains illustraton of model II;
(3) it determines the upright bar spacing of mitigation helical curve track bridge floor outer contour, by the upright bar spacing, helical curve will be mitigated Line track bridge floor outer contour is divided into several sections, and every section of corresponding central angle is θ, in illustraton of model I, with each bridge floor centre point For starting point, using θ as central angle, several circular arc radioactive ray are drawn, the upright bar absolute altitude on every circular arc radioactive ray is consistent, circular arc radiation The camber line for mitigating helical curve track bridge floor outer profile is divided into several sections by line;
(4) each section after being segmented in illustraton of model I is measured successively mitigates helical curve track bridge floor outline camber line in level side Distance after projection by the base of right angled triangle of the range marker in illustraton of model II, has obtained several spacing deciles Point;
(5) it does vertical line by each spacing Along ent and extends to and mitigate in the bridge floor outline camber line of helical curve track, each vertical line Intersection point is generated with mitigating helical curve track bridge floor outline camber line, by measuring between each intersection point and corresponding spacing Along ent High difference, with spirit level by the high difference mark in the upright bar of support system, indicate that the point of generation obtains bridge floor bottom surface mould The horizontal absolute altitude of the steel pipe support of plate, lumps of wood keel and supporting square timber keel, and put using this as each layer and install bridge floor bottom plate mould The control point of plate and lumps of wood keel absolute altitude.
2. mitigation helical curve multilayer according to claim 1 is cast-in-place to turn round plate circular arc track construction method, it is characterised in that: It determines and after upright bar subscript chigo difference, vertical shear wall form is installed from the start line in track to finishing line, and first installation is outer Shear wall formwork at contour line, then the shear wall formwork at inner outline is installed, while shear wall formwork is installed, timely school The front of positive template and the verticality of side.
3. mitigation helical curve multilayer according to claim 1 is cast-in-place to turn round plate circular arc track construction method, it is characterised in that: After vertical shear wall form is installed, with bamboo slab rubber by track web bottom surface Template nail in lumps of wood keel, after bottom surface template is laid, Horizontal alignment control point is led in the template of bottom surface, in this, as the control line for installing Side shuttering.
4. mitigation helical curve multilayer according to claim 3 is cast-in-place to turn round plate circular arc track construction method, it is characterised in that: The horizontal alignment control point is crossed circular arc fixed point tangential method by direct cable method or decile and is determined.
5. mitigation helical curve multilayer according to claim 1 is cast-in-place to turn round plate circular arc track construction method, it is characterised in that: The helical curve circular arc track bridge floor web takes double two-way concrete slab to bind, and transverse steel (13) is positioned at longitudinal reinforcement (12) Lower section, be in vertical distribution between transverse steel (13) and longitudinal reinforcement (12), the extended line of longitudinal reinforcement (12) is all from circle The heart is radially outward.
CN201711467184.2A 2017-12-29 2017-12-29 Mitigate the cast-in-place torsion plate circular arc track construction method of helical curve multilayer Pending CN108179877A (en)

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110952692A (en) * 2019-12-10 2020-04-03 北京城建集团有限责任公司 S-shaped curtain wall steel keel and manufacturing method and mounting method thereof
CN111337000A (en) * 2020-04-10 2020-06-26 中国三冶集团有限公司 Rotary curved surface building construction measurement lofting technology
CN112541220A (en) * 2020-12-18 2021-03-23 沈阳建筑大学 Intelligent nonlinear building form control model and optimization method
CN114818096A (en) * 2022-06-30 2022-07-29 中国二十二冶集团有限公司 Manufacturing method of rotary steel ladder of dust remover based on BIM technology

Citations (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
GB1415511A (en) * 1972-02-08 1975-11-26 Weston M Multi-storey buildings
FR2685377A1 (en) * 1990-09-21 1993-06-25 Meillier Michel Garage for motor vehicles in the form of a hopper (silo) of vertical axis
CN202431033U (en) * 2012-02-07 2012-09-12 张锐强 Multi-storey parking lot with spiral lanes
CN102777066A (en) * 2012-08-13 2012-11-14 杭州南联土木工程科技有限公司 Spiral-tunneling reverse construction method of bucket-shaped screw-type underground garage
CN102864928A (en) * 2012-10-10 2013-01-09 江苏南通六建建设集团有限公司 Construction method for spiral stairs with large-span space
CN104533034A (en) * 2014-12-24 2015-04-22 北京凯盛建材工程有限公司 Spiral stair used for building and arrangement method thereof
CN104652878A (en) * 2015-02-28 2015-05-27 江苏省华建建设股份有限公司 Diameter-variable car ramp and construction method thereof
CN106869549A (en) * 2017-04-14 2017-06-20 陈辉敏 Eccentric screw formula sky parking and its underground construction method

Patent Citations (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
GB1415511A (en) * 1972-02-08 1975-11-26 Weston M Multi-storey buildings
FR2685377A1 (en) * 1990-09-21 1993-06-25 Meillier Michel Garage for motor vehicles in the form of a hopper (silo) of vertical axis
CN202431033U (en) * 2012-02-07 2012-09-12 张锐强 Multi-storey parking lot with spiral lanes
CN102777066A (en) * 2012-08-13 2012-11-14 杭州南联土木工程科技有限公司 Spiral-tunneling reverse construction method of bucket-shaped screw-type underground garage
CN102864928A (en) * 2012-10-10 2013-01-09 江苏南通六建建设集团有限公司 Construction method for spiral stairs with large-span space
CN104533034A (en) * 2014-12-24 2015-04-22 北京凯盛建材工程有限公司 Spiral stair used for building and arrangement method thereof
CN104652878A (en) * 2015-02-28 2015-05-27 江苏省华建建设股份有限公司 Diameter-variable car ramp and construction method thereof
CN106869549A (en) * 2017-04-14 2017-06-20 陈辉敏 Eccentric screw formula sky parking and its underground construction method

Non-Patent Citations (2)

* Cited by examiner, † Cited by third party
Title
丁建东: "《圆弧形楼梯测量放线施工技术》", 《山西建筑》 *
梁顺吉等: "《浅谈缓和曲线现浇扭板圆弧桥面施工工艺》", 《青岛理工大学学报》 *

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110952692A (en) * 2019-12-10 2020-04-03 北京城建集团有限责任公司 S-shaped curtain wall steel keel and manufacturing method and mounting method thereof
CN111337000A (en) * 2020-04-10 2020-06-26 中国三冶集团有限公司 Rotary curved surface building construction measurement lofting technology
CN111337000B (en) * 2020-04-10 2021-11-30 中国三冶集团有限公司 Rotating curved surface building construction measurement lofting method
CN112541220A (en) * 2020-12-18 2021-03-23 沈阳建筑大学 Intelligent nonlinear building form control model and optimization method
CN112541220B (en) * 2020-12-18 2023-10-24 沈阳建筑大学 Intelligent nonlinear building morphology control model and optimization method
CN114818096A (en) * 2022-06-30 2022-07-29 中国二十二冶集团有限公司 Manufacturing method of rotary steel ladder of dust remover based on BIM technology

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