CN1017364B - Concrete filled tube column and method of constructing same - Google Patents

Concrete filled tube column and method of constructing same

Info

Publication number
CN1017364B
CN1017364B CN88104690A CN88104690A CN1017364B CN 1017364 B CN1017364 B CN 1017364B CN 88104690 A CN88104690 A CN 88104690A CN 88104690 A CN88104690 A CN 88104690A CN 1017364 B CN1017364 B CN 1017364B
Authority
CN
China
Prior art keywords
pipe
concrete
pipe fitting
inner flange
tubular segments
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired
Application number
CN88104690A
Other languages
Chinese (zh)
Other versions
CN1032375A (en
Inventor
盐川英世
庄川选男
斉藤豊半
中村康一
渡辺泰志
池田愚一
下户芳宽
佐藤孝典
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Shimizu Construction Co Ltd
Original Assignee
Shimizu Construction Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from JP62234374A external-priority patent/JPS6480638A/en
Priority claimed from JP63080444A external-priority patent/JPH01256651A/en
Application filed by Shimizu Construction Co Ltd filed Critical Shimizu Construction Co Ltd
Publication of CN1032375A publication Critical patent/CN1032375A/en
Publication of CN1017364B publication Critical patent/CN1017364B/en
Expired legal-status Critical Current

Links

Images

Classifications

    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04CSTRUCTURAL ELEMENTS; BUILDING MATERIALS
    • E04C3/00Structural elongated elements designed for load-supporting
    • E04C3/30Columns; Pillars; Struts
    • E04C3/36Columns; Pillars; Struts of materials not covered by groups E04C3/32 or E04C3/34; of a combination of two or more materials
    • EFIXED CONSTRUCTIONS
    • E02HYDRAULIC ENGINEERING; FOUNDATIONS; SOIL SHIFTING
    • E02DFOUNDATIONS; EXCAVATIONS; EMBANKMENTS; UNDERGROUND OR UNDERWATER STRUCTURES
    • E02D5/00Bulkheads, piles, or other structural elements specially adapted to foundation engineering
    • E02D5/22Piles
    • E02D5/24Prefabricated piles
    • E02D5/30Prefabricated piles made of concrete or reinforced concrete or made of steel and concrete
    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04BGENERAL BUILDING CONSTRUCTIONS; WALLS, e.g. PARTITIONS; ROOFS; FLOORS; CEILINGS; INSULATION OR OTHER PROTECTION OF BUILDINGS
    • E04B1/00Constructions in general; Structures which are not restricted either to walls, e.g. partitions, or floors or ceilings or roofs
    • E04B1/18Structures comprising elongated load-supporting parts, e.g. columns, girders, skeletons
    • E04B1/30Structures comprising elongated load-supporting parts, e.g. columns, girders, skeletons the supporting parts being composed of two or more materials; Composite steel and concrete constructions
    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04CSTRUCTURAL ELEMENTS; BUILDING MATERIALS
    • E04C3/00Structural elongated elements designed for load-supporting
    • E04C3/30Columns; Pillars; Struts
    • E04C3/34Columns; Pillars; Struts of concrete other stone-like material, with or without permanent form elements, with or without internal or external reinforcement, e.g. metal coverings

Landscapes

  • Engineering & Computer Science (AREA)
  • Architecture (AREA)
  • Structural Engineering (AREA)
  • Civil Engineering (AREA)
  • Mining & Mineral Resources (AREA)
  • Paleontology (AREA)
  • General Life Sciences & Earth Sciences (AREA)
  • General Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Electromagnetism (AREA)
  • Rod-Shaped Construction Members (AREA)
  • Joining Of Building Structures In Genera (AREA)
  • Revetment (AREA)

Abstract

There is disclosed a concrete filled tube column which includes: an outer tube connected to beams of the structure so that an axial load is transferred from the beams and applied to the outer tube, the outer tube consisting of a plurality of tube pieces coaxially disposed in series, the tube pieces having substantially equal transverse inner sizes; a concrete core disposed within the outer tube; and a tubular member, coaxially fitting within each of the tube pieces, for transferring the axial load from the outer tube to the concrete core. The tubular member has a constant transverse outer size and a lower end portion. The lower end portion of the tubular member has a first inner peripheral face tapering upward so that the transverse inner size at the lower end of the tubular member is equal to the transverse inner size of each of the tube pieces.

Description

Concrete filled tube column and method of constructing same
The present invention relates to a kind of concrete fill pipe column, and the preparation method when using it for a part (for example pillar stake) that constitutes building frame.
Fig. 1 is to Figure 3 shows that an example that constitutes the used concrete fill pipe column of a fabric structure part.One of pillar 20 usefulness at inner filling concrete make with the steel outer tube 22 that forms concrete core 24.Outer tube 22 is made up of multistage main body pipe 26 and multistage tube connector 28.Each section tube connector 28 and 26 mutual coaxial connections of two sections adjacent main body pipes.The crossbeam 30 of fabric structure is welded on the outer wall of each tube connector 28, and axial load is delivered on the outer tube 22 from crossbeam 30.In addition, a pair of in inner flange 32 boxing that vertical direction is arranged in parallel at certain intervals on the inwall of tube connector 28, radially stretch into concrete core 24 inwardly, so that axial load is passed to post core 24 from outer tube 22.In this class pillar, the horizontal banding effect of outer tube 22 has improved the compressive strength of concrete core 24, thereby compares with the concrete post commonly used that does not have outer tube, can reduce the cross section of pillar greatly.
But, when making above-mentioned pillar, the trouble in air gap and caking district can appear easily generating in concrete core 24 because of the existence of inner flange 32.For example, when to upright outer tube 22 concrete perfusions when forming concrete core 24,32 one-tenth of inner flanges hinder that air upwards flows smoothly and the obstacle of from outer tube 22, overflowing, the concrete that the result pours into forms air-gap 34(at inner flange 32 soffits and sees Fig. 3).Except that above-mentioned example, during the concrete curing that pours into, inner flange 32 has also become the obstacle of concrete sedimentation, the i.e. obstacle that moves downward because of concrete shrinkage.This situation also can cause forming air-gap 34 below inner flange 32.These air-gaps 34 not only hinder inner flange 32 axial load are passed to post core 24 from outer tube 22, and it also reduces the compressive strength of concrete column core 24.In addition, when the concrete grout sedimentation, flow downward more smoothly than the aggregate that is contained in the concrete because of containing therein slurries, aggregate is easily assembled around inner flange 32, and forms caking distinguish 36(and see Fig. 3 concrete core 24 in).This caking district 36 can reduce the compressive strength of concrete core 24 equally.
Generation for fear of air-gap and caking district when the concrete spouting in outer tube 22 arrives the height of some inner flanges 32, promptly stops to inject concrete.After the hardening of concrete to be injected, concrete perfusion makes it reach the height of next inner flange 32 again.Yet a kind of like this process of concrete perfusion has prolonged the Production Time of pillar 20 greatly.
Therefore, an object of the present invention is to provide the concrete fill pipe column that a kind of inside does not have air-gap and caking district.
Another object of the present invention provides a kind of concrete fill pipe column, and its part that is connected with the crossbeam of framework does not have the reinforcement of evagination, but has superior mechanical strength.
Another object of the present invention provides a kind of concrete core that can prevent and produces the preparation method of the concrete fill pipe column in air-gap or caking district under the condition that does not prolong Production Time.
Another object of the present invention provides a kind of preparation method that can keep the concrete fill pipe column of pillar compressive strength reliably.
Another object of the present invention provides a kind of precast construction pipe that is used for the concrete fill pipe column, and it can prevent concrete core band air-gap and caking district.
According to these and other goal of the invention, one aspect of the present invention is to be devoted to provide a kind of like this concrete fill pipe column, its ingredient comprises: be connected with truck transom, so that axial load is passed over the outer tube that puts on itself from crossbeam, outer tube is made up of the pipe fitting of a plurality of coaxial serial connections, and the horizontal inside dimension of each pipe fitting is equal substantially; Wrap in the concrete column core in the outer tube; And being arranged on the interior tubular piece of each pipe fitting coaxially, the latter is used for giving concrete core with load transfer from outer tube.Tubular piece has constant horizontal outside dimension and a bottom.The bottom of tubular piece has the internal perisporium face of first convergent that makes progress, and the horizontal inside dimension of tubular piece lower end equates with the horizontal inside dimension of each pipe fitting.When concrete was fed into outer tube, the air that the internal perisporium face of the convergent that should make progress is made way under it successfully rose along its surface, thereby prevents to form below tubular piece air-gap.Equally, during the concrete curing that pours into, the internal perisporium face of this convergent makes concrete can be unobstructedly move and directly enter zone below the tubular piece along it.Its consequence is that the generation in air-gap and caking district is all prevented.
Tubular piece can comprise along periphery and is attached to layer of concrete on each pipe fitting inner surface in radially inwardly first inner flange and the annular on each pipe fitting inner wall.Layer of concrete has one first tubular segments, i.e. the lower end section of tubular piece, it be in first inner flange below, contact with the whole lower plane of first inner flange.Layer of concrete also has one second tubular segments, it be positioned at first inner flange above, and contact with the whole plane of going up of this first flange.This second tubular segments has the second internal perisporium face of downward convergent, and the horizontal inside dimension of tubular piece upper end equates with the horizontal inside dimension of each pipe fitting.
Tubular piece also can be that steel are made, and forms overall structure with each pipe fitting.
Another aspect of the present invention is conceived to provide a kind of precast construction pipe that is used for the concrete fill pipe column.This precast construction pipe comprises a pipe fitting with first and second end; Be installed in first inner flange that radial inward is protruded on this pipe fitting inner surface, first of this inner flange is nearer than second first end from pipe fitting; And edge circumferentially is attached to the layer of concrete on the pipe fitting inner surface.Layer of concrete comprises first tubular segments concentric with pipe fitting.First tubular segments has one first internal perisporium face.Whole first of one of two relative ends of first tubular segments and first inner flange directly contacts.First internal perisporium of first tubular segments faces the second end convergent of pipe fitting, and the horizontal inside dimension at the first tubular segments other end place equates with the horizontal inside dimension of pipe fitting.
Another aspect of the present invention is to be devoted to a kind of method of making the concrete fill pipe column.Be ready to many prefabricated structural tube earlier, second end is last then, and first end is in following prefabricated structural tube of erect.Concrete spouting is gone in the prefabricated structural tube of setting, make it in pipe, form concrete core.The crossbeam of framework is connected on the precast construction pipe of setting.Then another root precast construction pipe is connected coaxially the precast construction pipe upper end of setting, thereby described another root precast construction pipe is erected on the adjacent structural tube under it.Repeat then above-mentioned from concrete perfusion to each operating procedure that pipeline section is connected.
In the accompanying drawings:
Fig. 1 is one section an axial sectional view of the concrete fill pipe column of routine;
Fig. 2 is along the sectional view of II-II direction among Fig. 1;
Fig. 3 is the axial sectional view of the amplification of conventional concrete fill pipe column among Fig. 1;
Fig. 4 is the elevation according to one section band broken section of concrete fill pipe column of the present invention;
Fig. 5 is the axial sectional view of the amplification of concrete fill pipe column among Fig. 4;
Fig. 6 is the sectional view of the precast construction pipeline section of the concrete fill pipe column in the pie graph 4;
Fig. 7 is the axial sectional view of amplification that is welded with the tube connector of inner flange and supporting member;
Fig. 8 is the axial sectional view of amplification that has the tube connector that is configured in the layer of concrete on its inner surface;
Fig. 9 is one section the axial sectional view that is in the precast construction pipe in the concrete perfusion process;
Figure 10 is the elevation of the band broken section of another embodiment of the present invention;
Figure 11 is one section axial sectional view of amplification of concrete fill pipe column among Figure 10;
Figure 12 is one section axial sectional view of connecting portion between two precast construction pipes;
Figure 13 is the elevation of the partly cut-away of another embodiment of the present invention;
Figure 14 is the axial sectional view of the precast construction pipe that is used to make the concrete fill pipe column among Figure 13;
Figure 15 is the axial sectional view that has the pipe fitting that is coated in the separating layer on its inwall;
Figure 16 is one section axial sectional view of a kind of style of retrofiting of concrete fill pipe column among Figure 13;
Figure 17 is the axial sectional view that is used for constituting the precast construction pipe of Figure 16 concrete fill pipe column;
Figure 18 is one section axial sectional view of another embodiment of the present invention;
Figure 19 is one section axial sectional view of a kind of form of retrofiting of concrete fill pipe column among Figure 18.
Referring to Figure 14 to Figure 19, institute's target digitized representation corresponding part in each view among the figure.Just no longer repeat specification after explaining once to the implication of each label.
Figure 4 shows that according to concrete fill pipe column of the present invention, it is erected on the pedestal 40, form the part of building frame.This pillar has an outer tube 42, has wherein filled concrete, forms concrete-core column 44.Outer tube 42 is made up of the circular steel pipe fitting 46 of a plurality of coaxial serial connections.Each pipe fitting 46 comprise a tube connector 48 with one with the coaxial main body pipe 50 that links to each other in tube connector 48 lower ends.A plurality of H section steel beam supporting members 52 are welded on the outer wall of tube connector 48, stretch from this radial outward, and the crossbeam of tube connector 48 with building frame coupled together.Every H section steel beam supporting member 52 is formed (see figure 5) by upper flange 56 and lower wing plate 58 and with the web 60 that upper and lower wing plate couples together.In addition, tubular piece 62 is assemblied within the tube connector 48 coaxially, and radially stretches into inwardly in the concrete core 44 so that axial load is delivered on the stem stem 44 from tube connector 48.Tubular piece 62 comprises a pair ofly having that spaced and parallel is arranged and be welded in inner flange 64 and 66 on tube connector 48 inwalls along periphery in vertical direction, and along the strong concrete layer 68 that circumferentially is arranged on tube connector 48 inwalls.Each inner flange 64 and 66 is disks of hollow, radially protrudes inwardly from the inwall of tube connector 48 to form annulus.Last inner flange 64 is positioned on the same horizon of supporting member 52 upper flanges 56, and following inner flange 66 then is positioned on the same horizon of supporting member 52 lower wing plates.
Be clearly shown that as Fig. 5 layer of concrete 68 is made up of three tubular segments, promptly first section 70, second sections 72 and the 3rd sections 74.Under the inner flange 66, its upper surface directly contacts with the whole lower plane of first inner flange 66 under being positioned at for first section 70.This internal perisporium of first section 70 71 is convergents upwards, and the internal diameter that makes the section of winning 70 upper ends and the internal diameter of following inner flange 66 are big to equating, and the internal diameter of first section 70 lower end, promptly the internal diameter of the internal diameter of tubular piece 62 lower ends and tube connector 48 is about equally.Angle theta between internal perisporium face 71 and tube connector 48 axis 1, be preferably between 45 ° to 60 °.Extend for second section 72 between inner flange 64 and the following inner flange 66.This internal diameter of second section 72 roughly equates with the internal diameter of upper and lower flange 64 and 66.Be positioned on the inner flange 64 for the 3rd section 74, its lower surface directly contacts with the whole plane of going up of last inner flange 64.The 3rd section 74 internal perisporium face 75 is downward convergents, make the internal diameter of the 3rd section 74 lower ends and last inner flange 64 internal diameter about equally, and the 3rd section 74 upper end, be the internal diameter of tubular piece 62 upper ends and tube connector 48 internal diameter about equally, the angle theta between internal perisporium face 75 and tube connector 48 axis 2Be preferably between 45 ° to 60 °.In addition, the compressive strength rate of the strong concrete of formation layer of concrete 68 forms the compressive strength height of concrete-core column 44.
Shown in further, there is a separate layer to be clipped between the inwall of concrete-core column 44 and each pipe fitting 46 as Fig. 5, makes stem stem 44 and each pipe fitting 46 unlikely combining.This separate layer is made with the material of pitch, oil, grease, paraffin wax, vaseline, synthetic resin or paper and so on.The thickness of separate layer 76 is limit a stick-slip motion is provided can for concrete-core column 44.When using pitch, thickness is about 20 to 100 microns.In addition, main body pipe 50 is made up of last pipeline section 78 and lower tube section 80.Last pipeline section 78 and lower tube section coaxially but mutually break away from and arrange so that the axial stress of an annular gap 82 of formation reduces device between upper and lower pipeline section 78 and 80. Lower tube section 78 and 80 length should make annular gap 82 be in the middle position on each, promptly are on the moment flex point of main body pipe 50.Because separate layer 76 allows each pipe fitting 46 can move axially the axial width w of annular gap 82 with respect to concrete-core column 44 1When each pipe fitting 46 is subjected to from axial load that the crossbeam 54 of framework passes over is vicissitudinous.Like this, the axial stress that each pipe fitting 46 is born has been reduced in annular gap 82.The axial stress that concrete core 44 bears than pipe fitting 46 bear much bigger because be applied on each pipe fitting axial load by upper and lower inner flange 64 and 66 and layer of concrete 68 pass to concrete core 44.Limited the cross directional variations of concrete core yet be in, thereby increased the compressive strength of pillar effectively than the outer tube 42 under the much smaller stress of concrete core 44.
Shown in Fig. 6 to Fig. 9 is the process of construction drawing 4 concrete fill pipe columns.At first, in factory, be ready to many precast construction pipes 84.Figure 6 shows that a prefabricated structural tube 84.The preparation method of structural tube 84 is as follows: be ready to three tube connectors 48 and three main body pipes 50.By shown in Figure 7 H-shaped steel fine strain of millet supporting member 52 is welded on the outer wall of every ready tube connector 48 then, upper and lower inner flange 64 and 66 is welded on the inwall of ready tube connector 48.Subsequently, as shown in Figure 8, on the inwall of every tube connector 48, make layer of concrete 68.The method for making of this layer of concrete 68 is slowly along its rotational tube connector 48, manual simultaneously strong concrete is spread upon on the inwall of tube connector 48, makes first section 70 and the 3rd section 74 internal perisporium face 71 and 75 that forms convergent respectively at layer of concrete 68.Before smearing concrete, can be along on the inwall of tube connector 48 reinforcing bar being set so that can spread concrete.As the method that need not smear, also can be between concrete injecting tube pattern tool and tube connector 48 inwalls, this cartridge type mould is fixed on the inwall of tube connector 48 removably.Also having a kind of alternative method is to use centrifugal casting method.More particularly, can be with the mould 86 of a pair of frustoconical sheets by on the inwall that is fixed on tube connector 48 removably shown in dotted lines in Figure 8.Tube connector 48 is placed on the whirler, and its axis is horizontal basically, and it is rotated at a high speed along axis.Then quantitative in advance strong concrete is injected between two moulds 86.The result is that the concrete in the tube connector 48 is subjected to being spread over two zones between the mould 86 because tube connector 48 rotates the action of centrifugal force that produces, and forms layer of concrete.In the centrifugal forming process, can between mould 86 and corresponding inner flange, form a space 88, thereby make inner flange 64 and 66 s' concrete when tube connector 48 rotations, flow into the inboard of moulds 86 by space 88.Except space 88, also can make concrete flow into the inboard of mould 86 by the hole (not illustrating in the drawings) of opening in inner flange 64 and 66.After the layer of concrete on every tube connector 48 inwalls 68 formed, barrier material such as pitch or grease be coated in not to be provided in the every tube connector 48 on the inwall of the position of tubular piece 62.Simultaneously also coat identical barrier material, to form separate layer at the inwall of every main body pipe 50.Later, three tube connectors 48 are welded to the upper end of three main body pipes 50 respectively coaxially, form three bodys 46.In this way three bodys 46 making are connected in series coaxially, form precast construction pipe 84.In the process of above-mentioned making precast construction pipe 84 and since layer of concrete 68 inner flange 64 and 66 and H type supporting member 52 be soldered on the tube connector 48 after formation, layer of concrete 68 does not suffer the heating of welding process, thereby prevents that it from sustaining damage.
The precast construction pipe of making is as stated above transported to the building site from factory, earlier a precast construction pipe 84 is erected on the pedestal 40 there, then as shown in Figure 9, concrete is injected in the precast construction pipe 84 of setting to form concrete core 44 with elephant trunk 90.When the top of concrete in the pipe was raised to the internal perisporium face 71 of layer of concrete 68, near the air the internal perisporium face 71 of this convergent successfully upwards flowed along this internal perisporium face 71, thereby the concrete that this internal perisporium face space below 71 all is injected into is full of.In concrete curing process subsequently, concrete shrinks along the internal perisporium face 71 and 75 of layer of concrete 68 downwards smoothly, shown in arrow A among Fig. 5 and B.Like this, concrete just has been full of the space below the internal perisporium face 71 of adjacent layer of concrete 68 fully.As a result, below the internal perisporium face 71 of layer of concrete 68 and below the inner flange 64 and 66, can not produce air-gap and caking district, thereby form a concrete core 44 with reliable compressive strength.Behind the concrete curing that pours into, with suitable cutting tool every main body pipe 50 is divided into upper and lower two section 78 and 80, between them, form annulus 82.Then the crossbeam 54 of building frame is coupled together with the H type supporting member 52 of precast construction pipe 84 respectively.Then another root precast construction pipe 84 is received on the top of having poured into concrete precast construction pipe 84 coaxially.After this, repeat above-mentioned each step, make the concrete fill pipe column from concrete perfusion to connection precast construction pipe by the predetermined number of plies.
Can make the concrete fill pipe column with being less than or replacing above-described precast construction pipe 84 more than the precast construction pipe of three pipe fittings 46.In addition, can make another first concrete segment 70 and another the 3rd concrete segment 74 under the last inner flange 64 He on the following inner flange 66 respectively, so that replace second section 72 of layer of concrete 68.In addition, the concrete tube body of also can application of carbon fibres reinforcing replaces main body pipe 50.This body is made up of hollow cylindrical cement matrix and high-strength carbon fiber.Carbon fiber twine to form with the coaxial circle shape of cement matrix and imbeds cement matrix.The method of making this body is the carbon fiber circle to be immersed in to make carbon fiber circle formation drum in the cement paste of cement powder diameter less than the carbon fiber diameter.The concrete main pipe's of this carbon fiber reinforcement young's modulus of elasticity equates substantially with the young's modulus of elasticity of concrete core 44, thereby concrete core 44 is played effective banding effect, even neither establish separate layer 76 thereon, effective too when also not reducing the circumferential weld 82 of little stress.
Figure 10 and 11 is depicted as an alternative embodiment of the invention.Each pipe fitting 92 leaves layout mutually in this structure, forms annulus 82 between per two adjacent pipe fittings 92.Each pipe fitting has a tubular piece to embed the upper end of pipe fitting 92.As Figure 11 clearly shown in, this tubular piece is made up of following part: inner flange 66 that is welded in pipeline section 92 upper ends and one are positioned at the layer of concrete 70 below the inner flange 66.Separate layer 76 is clipped between that part of inwall that concrete core 44 and each pipe fitting 92 do not cover by tubular piece 94.Be welded with several supporting members 52 of being connected with building crossbeam 54 of being used on the outer wall of each pipe fitting 92.Be provided with between the pipe fitting 92 that each pipe fitting 92 is adjacent one be basically the annular separator 96 so that annulus 82 is closed.These separator 96 usefulness elastomeric materials are made, for example rubber or synthetic resin.For example epoxy resin or similar substance stick to separator 96 lower end of each pipe fitting 92 with cementing agent, this concrete fill pipe column is made of several precast construction pipes, every precast construction pipe comprises pipe fitting 92, tubular piece 94, supporting member 52, separate layer 76 and separator 96, and these members are all made in factory.Then the precast construction pipe is transported to the building site, carry out coaxial connection by the described method of a last embodiment.When a precast construction pipe being connected to the prefabricated pipe upper end of concrete perfusion, can inserting the girth member 98(that is cylinder frame shape in the bonding pad of two prefabricated pipe and see Figure 12) thus the mechanical strength of connecting portion is improved.More particularly, as shown in figure 12, the Lower Half of girth member 98 is embedded in the concrete core 44 that forms in the following prefabricated pipe 100, the first half of girth member 98 is stretched from the upper end of a following prefabricated pipe like this, then top prefabricated pipe 102 coaxially on the frame prefabricated pipe 100 below, thereby make the first half of girth member 98 prefabricated pipe 102 above inserting.Concrete perfusions in the prefabricated pipe 102 that can be upward after connecting.
Figure 13 shows that another embodiment of the present invention.Its pipe fitting 104 is by several tubes unit 106 coaxial composing in series.Every unit of pipe 106 is made up of tube connector 48 and the coaxial main body steel pipe 108 that is welded in tube connector 48 lower ends.Tube connector 48 has a plurality of H type supporting members 52 and upper and lower inner flange 64 and 66.The crossbeam 54 of building frame is connected with tube connector by H-type supporting member.Main body pipe 108 has the stress of being made up of several cannelures 118 that forms and reduces device on its outer wall.The number of cannelure 118 and axial width w thereof 2To determine according to the design condition of pillar with radial depth.On the inwall of entire body pipe 108, and on the remainder inwall of the tube connector 48 except that upper and lower inner flange 64 and 66 s' inner wall section, scribble separate layer 76.Each pipe fitting 104 also has a layer of concrete 110.This layer of concrete 110 comprises all two drum-shaped sections coaxial with pipe fitting 104, promptly first section and second section 112,114.Be positioned at for first section 112 below the following inner flange of nethermost unit of pipe 106, this upper end of first section 112 contacts with the whole lower plane of first inner flange 66 of nethermost unit of pipe 106.This first section 112 has a upwards internal perisporium face 71 of convergent.Second section following inner flange 66 from nethermost unit of pipe 106 extends to the last inner flange 64 of uppermost unit of pipe 106.This internal diameter of second section 114 equates with the internal diameter of upper and lower inner flange 64,66 haply.The upper end of the tube connector 48 of uppermost unit of pipe 106, and the inside, the bottom of nethermost unit of pipe is provided with layer of concrete 110.
Figure 14 and 15 is depicted as the manufacturing process of concrete fill pipe column shown in Figure 13.At first, in factory, be ready to many precast construction pipes 120.Such precast construction pipe 120 is shown among Figure 14, and its production routine is as follows: be ready to many tube connectors 48 and Duo Gen main body unit of pipe 108.H-type supporting member 52 is welded on the outer wall of every ready tube connector 48, more upper and lower inner flange 64,66 is welded on the inwall of every ready tube connector 48.Go out cannelure 118 in the turning of the middle part of every ready main body unit of pipe 108.Coat barrier material to form separate layer 76 at the inwall of every tube connector 48 and every main body unit of pipe 108.Subsequently by the upper end that each root tube connector 48 is welded on coaxially each root main body unit of pipe 108 respectively shown in Figure 15 to form unit of pipe 106.Then the unit of pipe of making by described process 106 is contacted coaxially and weld to form pipe fitting 104.Be that the pipeline section of making is coated layer of concrete 110 then with centrifugal casting.More particularly, frustoconical sheets hollow mould 86 by mode shown in dotted lines in Figure 14, is fixed on the inwall of nethermost unit of pipe 106 removably, pipe fitting 104 is placed on the slewing it is rotated at a high speed around its axis.Then the strong concrete that will measure in advance is added in the zone between the upper flange of mould 86 and uppermost unit of pipe 106.The result places the concrete of pipeline section 104 to form layer of concrete shown in Figure 14 110.In said process and since layer of concrete 110 inner flange 64 and 66 and H-type supporting member 52 weld after formation, layer of concrete 110 does not suffer the heating of welding process, thereby prevents that layer of concrete 110 from sustaining damage.
The precast construction pipe made as stated above 120 is transported to the building site from factory, couple together coaxially one by one by method described in first embodiment there.In the present embodiment, because the upper and lower inner flange 64 and 66 between the lower flange 66 of the upper flange 64 of uppermost unit of pipe 106 and nethermost unit of pipe 106 all is embedded in the layer of concrete 110, below all following inner flanges 66, needn't make the internal perisporium 71 of convergent.So, to compare with precast construction pipe 84, the manufacturing efficient of precast construction pipe 120 has improved.Also have, because layer of concrete 110 is neither in the upper end of the tube connector 48 of uppermost unit of pipe 106, not in the bottom of nethermost unit of pipe, layer of concrete 110 can not be subjected to the influence of the heat that produces when precast construction pipe 120 welded yet.
On inner flange 64 on the uppermost unit of pipe 106, the 3rd section of layer of concrete can be set, the 3rd section lower end directly contacts with the whole plane of going up of the last inner flange 64 of uppermost unit of pipe 106, and makes the 3rd section to have an internal perisporium face 75 of convergent down.
Shown in Figure 16 is a kind of remodeling form of the concrete fill pipe column among Figure 13.In this pattern, every main body unit of pipe 122 usefulness carbon fiber reinforced concrete above-mentioned is made.The upper and lower end section 124 of every main body unit of pipe 122 and 126 external diameter are littler than the external diameter in main body pipe stage casing.The upper end section 124 of main body unit of pipe 122 is inserted in the adjacent with it thereon tube connector 48 coaxially, and its lower end section 126 then is inserted in its adjacent with it down tube connector 48 coaxially.A coaxial connection of lower end that has cylindrical shape connector 128 with the main body unit of pipe 122 in bottom of each pipe fitting 130 of inner flange 66, and on the uppermost tube connector 48 of the pipe fitting 130 that its lower end welding is adjacent with it in its lower section.Pipe fitting 130 uppermost tube connectors 48 and connector 128 tighten up them mutually around the axially extended bracing piece of doing of distributing of the axis isogonisms of pipe fitting 130 132 by many, so just with other tube connectors 48 between uppermost tube connector 48 and connector 128 and other main body unit of pipe 122 overlappings tighten together.There is screw the upper and lower end of every bracing piece all turning, and passes all inner flanges 64 and 66 of pipe fitting 130.The threaded upper end of every bracing piece 132 upwards passes from the hole of the last inner flange 64 of uppermost tube connector 48, is fixed on by nut 134 on the last plane of inner flange 64.On the other hand, the threaded bottom of every bracing piece 132 passes downwards from the hole of the inner flange 66 of connector 128, is fixed on by nut 136 on the lower plane of inner flange 66.First section 112 of layer of concrete 110 is positioned under the inner flange 66 of connector 128, second section 114 of layer of concrete 110 then the inner flange 66 of connector 128 and topmost a tube connector 48 between the inner flange 64.Separate layer neither is set on each root pipe fitting 130 does not also reduce the groove of little stress.Make such concrete fill pipe column, in factory, make many precast construction pipe 138(earlier and see Figure 17).The method of the preparation method of every precast construction pipe 138 and making precast construction pipe 120 is that tube connector 48 and main body unit of pipe 122 replace stacked then being connected and fixed with connector 128 and bracing piece 132 much at one.Layer of concrete 110 is made the method formation of back with centrifugal forming at whole pipe fitting 130.After precast construction pipe 138 was made, bracing piece 132 and nut 134 and 136 all be embedded in the layer of concrete 110.
An alternative embodiment of the invention as shown in figure 18.Each pipe fitting 140 is made up of steel tube connector 142 and the main body pipe 50 that is welded in tube connector 142 lower ends coaxially.One tubular piece that forms one is with it arranged in the tube connector 142, and promptly tube connector 142 has the internal perisporium face 71 and 75 of the first and second convergent shapes respectively at its upper and lower end.Therefore the internal diameter of the upper and lower end of tube connector 142 equates that with the internal diameter of main body pipe 50 internal diameter of tube connector 142 middle parts is then much smaller than the internal diameter of main body pipe 50.Every tube connector 142 all is welded with several supporting members 52, and has all coated separate layer 76 on the total inner surface of every main body pipe 50.Needn't say that stress reduces groove 82 and opens middle part at every main body pipe 50.Make tube connector 142 with for example centrifugal casting, so its inwall is coarse.The length of every tube connector 142 is than the height H of each supporting member 52 1Vertical length L with each convergent shape internal perisporium face 2Summation long.Behind the precast construction pipe for preparing many tube connectors that alternately are serially connected 142 that include predetermined radical and main body pipe 50, they are transported to the building site, connect together one by one by the method identical with pillar preparation method shown in Figure 4.In this concrete fill pipe column, can prevent the generation in air-gap and caking district equally, to compare with a last embodiment, the mechanical strength of every tube connector 142 is by height.
For strengthening the tensile strength of the short-time load that the pillar opposing for example causes by reasons such as earthquakes, can be by the stiffener 144 that in concrete core 44, adds an axial arranged shape misconduct shown in Figure 19.
Though the cross section of each pipe is circular in the embodiment previously described, also can replace the circular section with polygonal cross section.Also have, can replace strong concrete with the concrete identical and make layer of concrete with constituting concrete core 44.In addition, except slit 82 and groove 118, also can use the small through hole that many rows pass tube wall.Small through hole in a row like this is that the axis around pipeline section is periphery on pipe, and two adjacent apertures in contiguous two rounds are staggeredly arranged mutually

Claims (38)

1, constitute the concrete fill pipe column of a part of building frame, the feature of this concrete fill pipe column comprises:
The outer tube that is connected with truck transom, this connection is transmitted axial load and be applied on the outer tube from crossbeam, and outer tube comprises the pipe fitting that in fact many coaxial inside dimensions that be serially connected, horizontal equate;
Be positioned at the concrete core of outer tube; And the coaxial tubular piece that is contained in each pipe fitting, in order to axial load is delivered on the concrete core from outer tube, tubular piece has first inner flange and is coated in high strength coagulating layer on the pipe fitting inner wall face along circumference, and constant horizontal outside dimension and a lower end section, the lower end section contains the upwards first internal perisporium face of convergent, and the horizontal inside dimension of each tubular piece lower end section equates with the horizontal inside dimension of each pipe fitting.
2, according to the concrete fill pipe column of claim 1, it is characterized in that each pipe fitting has an inwall, the ingredient of the tubular piece on the inwall is: one along periphery be fixed on each pipe fitting inner wall, inwardly first inner flange radially, first inner flange has one and goes up plane and a lower plane; Along the peripheral layer of concrete that is attached on each pipe fitting inner wall, layer of concrete comprises first tubular segments that is positioned under first inner flange, the mode of its layout makes first tubular segments directly contact with the whole lower plane of first inner flange, and the lower end section of this tubular piece is made up of first tubular segments of layer of concrete.
3, according to the concrete fill pipe column of claim 2, it is characterized in that each pipe fitting is divided into the upper and lower part, tubular piece is contained in the top of each pipe fitting.
4, fill up tubing string according to the concrete of claim 3, it is characterized in that it also comprises: a separate layer, it is clipped between the inwall of concrete core and each pipe fitting, uses so that concrete core separates with the inwall of each pipe fitting, and each pipe fitting is unlikely to combine with stem stem thereby make; Axial stress reduces device, it is positioned on the outer tube, comprises one along the annulus of periphery around whole outer tube, in order to the axial stress that reduces to produce in outer tube when axial load is applied on the outer tube, each pipe fitting is made by steel, and its underpart connects with the crossbeam of framework.
5, according to the concrete fill pipe column of claim 4, it is characterized in that pipe fitting axially leave mutually stacked, thereby between pipe fitting and pipe fitting, form annular gap with certain axial width, stress reduces device and is made up of these annular gaps, the annular gap changes its width when outer tube is subjected to axial load, reduce axial stress in the outer tube with this.
6, according to the concrete fill pipe column of claim 3, the top that it is characterized in that each pipe fitting is made up of the steel tube connector, tube connector has the lower end and is connected with the crossbeam of framework, and the lower part of its each pipe fitting is made up of the main body pipe that is connected with the tube connector lower end coaxially.
7, according to the concrete fill pipe column of claim 6, it is characterized in that described layer of concrete also comprises second tubular segments that is positioned on first inner flange, the residing position of this tubular segments makes it directly contact with the whole plane of going up of first inner flange, second tubular segments has second an internal perisporium face of convergent down, and the horizontal inside dimension of the upper end of this tubular piece equates with the horizontal inside dimension of each pipe fitting.
8, according to the concrete fill pipe column of claim 6, it is characterized in that described tube connector has severally stretches out from the outer wall radial outward of tube connector with the supporting member of H-section steel manufacture respectively, tube connector is connected with the crossbeam of framework by these supporting members, and supporting member reaches the web that links to each other with upper and lower wing plate by upper and lower wing plate and forms; Its tubular piece comprises that also one is fixed on second inner flange that radially protrudes on the tube connector inwall inwardly in the upper flange height location of equal with supporting member along periphery; Its first inner flange is fixed on the height tube connector inwall suitable with the position of supporting member lower wing plate; Its layer of concrete also is included in second tubular segments between first and second inner flanges, and the horizontal inside dimension of this second tubular segments is big unlike the horizontal inside dimension of first and second inner flanges.
9, concrete fill pipe column according to Claim 8 is characterized in that second inner flange has upper and lower plane; Its layer of concrete also comprises the 3rd tubular segments that is positioned on second inner flange, and the 3rd tubular segments has an internal perisporium face of convergent down, and the horizontal inside dimension in the upper end of tubular piece equates with the horizontal inside dimension of each pipe fitting.
10,, it is characterized in that the main body pipe made by carbon fiber reinforced concrete according to claim 6,7,8 or 9 concrete fill pipe column.
11, according to claim 6,7,8 or 9 concrete fill pipe column, it is characterized in that it also comprises: a separate layer, it is clipped between the inwall of concrete core and each pipe fitting, with so that concrete core separates with the inwall of each pipe fitting, each pipe fitting is unlikely to combine with concrete core thereby make; Axial stress reduces device, and it is positioned on the outer tube, comprises along the annulus of periphery around whole outer tube, in order to the axial stress that reduces to produce in outer tube when axial load puts on the outer tube; The main body pipe of wherein said concrete fill pipe column is made by steel.
12, according to the concrete fill pipe column of claim 2, it is characterized in that its each pipe fitting is made up of the unit of pipe of many coaxial serial connections, every unit of pipe is connected with the crossbeam of framework; Its first inner flange is fixed on the inwall of nethermost unit of pipe; Its tubular piece also comprises second inner flange that radially protrudes along on the peripheral every unit of pipe inwall that is fixed on except that nethermost unit of pipe inwardly; Its layer of concrete comprises that also the horizontal inside dimension of this second tubular segments is big unlike the horizontal inside dimension of first and second inner flange from second tubular segments between first inner flange to the second inner flange of uppermost unit of pipe.
13,, it is characterized in that second inner flange has upper and lower plane according to the concrete fill pipe column of claim 12; Its layer of concrete also comprises the 3rd tubular segments on second inner flange that is positioned at uppermost unit of pipe, this tubular segments directly contacts with the whole plane of going up of second inner flange, the 3rd tubular segments has second an internal perisporium face of convergent down, and the horizontal inside dimension in the upper end of tubular piece equates with the horizontal inside dimension of each pipe fitting.
14,, it is characterized in that uppermost unit of pipe has a upper end according to the concrete fill pipe column of claim 13; Its nethermost unit of pipe has a bottom; Its tubular piece is positioned at each pipe fitting except that the top and nethermost unit of pipe upper end separately and that part the bottom.
15, according to claim 12,13 or 14 concrete fill pipe column, it is characterized in that it comprises that also a separate layer and axial stress reduce device, separate layer is clipped between the inwall of layer of concrete and each pipe fitting and between the inwall of concrete core and each pipe fitting, in order to inner surface and the layer of concrete or the concrete core of isolating each pipe fitting, each pipe fitting is unlikely becomes one with layer of concrete or concrete core thereby make; This axial stress reduces device and is positioned on the outer tube, contains along the annular section of periphery around whole outer tube, in order to the axial stress that reduces to produce in outer tube when axial load acts on outer tube; The unit of pipe of wherein said concrete fill pipe column is made with steel.
16, according to the concrete fill pipe column of claim 1, it is characterized in that consisting of of each pipe fitting: the tube connector of making and having a bottom with steel; The coaxial main body pipe unit that is connected with this tube connector lower end; Its tubular piece is made with steel, and becomes one with tube connector.
17, according to the concrete fill pipe column of claim 16, it is characterized in that tubular piece has a upper end, there is second an internal perisporium face of convergent down this upper end, and the horizontal inside dimension of the upper end of tubular piece equates with the horizontal inside dimension of each pipe fitting.
18,, it is characterized in that the main body pipe makes with carbon fiber reinforced concrete according to the concrete fill pipe column of claim 16 or 17.
19, according to the concrete fill pipe column of claim 16 or 17, it is characterized in that it comprises that also a separate layer and axial stress reduce device, this separate layer is clipped between concrete core and the main body inside pipe wall, with so that concrete core and main body inside pipe wall separate, the main body pipe is unlikely to combine with concrete core thereby make; This axial stress reduces device and is positioned on the outer tube, and it contains one along the annular section of periphery around whole outer tube, in order to the axial stress that reduces to produce in outer tube when axial load puts on the outer tube; Wherein said main body pipe is made with steel.
20, as the precast construction pipe of building frame pillar part, the feature of this precast construction pipe comprises:
Pipe fitting with inwall and first, second end;
First inner flange that is fixed on the pipe fitting inner wall, radially protrudes inwardly, this first inner flange has first and second planes, and first plane is than first end of the more close pipe fitting in second plane;
Be attached to the layer of concrete of making by strong concrete on the pipe fitting inner wall along periphery, this layer of concrete comprises first tubular segments coaxial with pipe fitting, this tubular segments has the relative two ends and the first internal perisporium face, end in the relative two ends of first tubular segments directly contacts with whole first plane of first inner flange, first internal perisporium of first tubular segments faces the second end convergent of pipeline section, and the horizontal inside dimension of the other end of first tubular segments equates with the horizontal inside dimension of pipe fitting.
21,, it is characterized in that first inner flange and layer of concrete are positioned at the second end zone of pipe fitting according to the precast construction pipe of claim 20.
22, according to the precast construction pipe of claim 21, the second end that it is characterized in that pipe fitting is made up of the connection steel pipe with supporting member, each supporting member stretches out from tube connector outer wall radial outward, and the remainder of its pipe fitting is by forming with the coaxial steel main body pipe that is connected of tube connector.
23, according to the precast construction pipe of claim 22, it is characterized in that layer of concrete also comprises second tubular segments coaxial with pipe fitting, this second tubular segments has the relative two ends and the second internal perisporium face, one of second tubular segments opposite end directly contacts with whole second plane of first inner flange, second internal perisporium of second tubular segments faces the first end convergent of pipeline section, and the horizontal inside dimension of the other end of second tubular segments equates with the horizontal inside dimension of pipe fitting.
24, according to the precast construction pipe of claim 22, it is characterized in that it also comprises second inner flange that is fixed on the tube connector inner surface, radially protrudes inwardly, this second inner flange is near than first inner flange apart from second end of pipe fitting, second inner flange has first and second planes, and first plane of second inner flange is facing to second plane of first inner flange; Its supporting member is made by H-shaped steel, has first and second wing plates, and first wing plate is in and the identical position of the first inner flange height, and second wing plate is in and the identical position of the second inner flange height; That its layer of concrete also comprises is coaxial with pipe fitting, in second tubular segments of first inner flange between second inner flange, the horizontal inside dimension of second tubular segments is big unlike the horizontal inside dimension of first and second inner flange.
25, according to the precast construction pipe of claim 24, it is characterized in that layer of concrete also comprises three tubular segments coaxial with pipe fitting, the 3rd tubular segments has relative two ends and one second internal perisporium face, one of opposite end of the 3rd tubular segments directly contacts with whole second plane of second inner flange, second internal perisporium of the 3rd tubular segments faces the first end convergent of pipeline section, and the horizontal inside dimension of the other end of the 3rd tubular segments equates with the horizontal inside dimension of pipe fitting.
26, according to claim 21,22,23,24 or 25 precast construction pipe, it is characterized in that it also comprises the separate layer that is coated on the main body inside pipe wall, separate layer separates main body inside pipe wall and the concrete that injects pipe fitting, and the main body pipe is unlikely to combine with concrete thereby make.
27, according to the precast construction pipe of claim 26, it is characterized in that it also contains the device that reduces stress, this device is positioned on the outer tube, contains along the annular section of periphery around whole pipe, in order to the axial stress that reduces to produce in pipe fitting when axial load is applied on the pipe fitting.
28, according to the precast construction pipe of claim 20, it is characterized in that pipe fitting is made up of the unit of pipe of many coaxial serial connections, each unit of pipe has the supporting member that stretches out from the tube outer wall radial outward; Its first inner flange is fixed on the unit of pipe inwall of pipe fitting first end; Wherein each unit of pipe except that the unit of pipe of pipe fitting first end has along peripheral second inner flange that radially protrudes inwardly on the unit of pipe inwall that is fixed on; That its layer of concrete also comprises is coaxial with pipe fitting, second tubular segments between second inner flange that always extends to from first inner flange at the unit of pipe of pipe fitting second end, and the horizontal inside dimension of this second tubular segments is big unlike the horizontal inside dimension of first and second inner flange.
29, according to the precast construction pipe of claim 28, it is characterized in that second inner flange has first and second planes, first end of pipe fitting is more approached on first plane than second plane; Its layer of concrete also comprises three tubular segments coaxial with pipe fitting, the 3rd tubular segments has the relative two ends and the second internal perisporium face, one of the 3rd tubular segments opposite end directly contacts with whole second plane at second inner flange of pipe fitting second end, second internal perisporium of the 3rd tubular segments faces the first end convergent of pipe fitting, and the horizontal inside dimension of the other end of the 3rd tubular segments equates with the horizontal inside dimension of pipe fitting.
30,, it is characterized in that the unit of pipe that is in the unit of pipe of pipe fitting first end and is in the pipe fitting the second end has free end separately according to the precast construction pipe of claim 29; Its layer of concrete is positioned within the unit of pipe free end scope in addition that is in pipe fitting first and second ends.
31, according to claim 28,29 or 30 precast construction pipe, it is characterized in that it also comprises a separate layer, this separate layer is located at the part that pipe fitting inner wall is not installed inner flange, and separate layer is kept apart the inwall and the layer of concrete of pipe fitting, makes that layer of concrete is unlikely to combine with pipe fitting; It also comprises the device that reduces stress, and this device is positioned on the pipe fitting, contains one along the annular section of periphery around pipe, in order to the axial stress that reduces to produce in pipe fitting when axial load puts on the pipe fitting.
32, according to claim 28,29 or 30 precast construction pipe, it is characterized in that consisting of of each unit of pipe: the steel tube connector; With the concrete of carbon fiber reinforcement make and with the coaxial main body unit of pipe that links to each other of tube connector, supporting member and inner flange all are welded on the tube connector of each unit of pipe.
33, make the method for the concrete fill pipe column that constitutes a part of building frame, the feature of this preparation method is made up of following step:
(a) many precast construction pipes of preparation, every precast construction pipe comprises: the pipe fitting with inwall and first, second end; The inner flange that is fixed on the pipe fitting inner wall, radially protrudes inwardly, its first inner flange has first and second planes, and first end of pipe fitting is more approached on first plane than second plane; Along the peripheral layer of concrete that is attached on the pipe fitting inner wall, this layer of concrete comprises first tubular segments coaxial with pipe fitting, this first tubular segments has the relative two ends and the first internal perisporium face, one of opposite end of first tubular segments directly contacts with whole first plane of first inner flange, first internal perisporium of first tubular segments faces the second end convergent of pipe fitting, and the horizontal inside dimension of the first tubular segments other end equates with the horizontal inside dimension of pipe fitting;
(b) a precast construction pipe for preparing is erected, second end of this pipeline section up, first end is down;
(c) concrete perfusion in the precast construction pipe of erectting makes to form concrete core in structural tube;
(d) crossbeam with framework is connected on the precast construction pipe of setting;
(e) another root precast construction pipe is connected coaxially on the precast construction pipe of setting, this described another structural tube is erected on the adjacent with it structural tube of following that root;
(f) at completing steps (c) after (e), repeating step (c) is to (f).
34,, it is characterized in that step (a) comprises following each step according to the method for claim 33:
(g) preparation pipe fitting;
(h) first inner flange is fixed on the inwall of pipe fitting;
(i) supporting member is installed on the pipe fitting, supporting member is stretched out from the outer wall radial outward of pipe fitting;
(j) at completing steps (h) after (i), on the inwall of pipe fitting, make layer of concrete;
Wherein step (d) may further comprise the steps:
(k) crossbeam of framework is connected on the supporting member.
35, according to the method for claim 34, it is characterized in that step ((g) comprises following each step:
(l) tube connector of preparation steel;
(m) prepare the main body pipe; And
(n) tube connector is connected on the main body pipe coaxially forms pipe fitting, wherein step (n) comprises following step:
(o) first inner flange is welded on the inwall of tube connector; Wherein step (i) comprises following step;
(p) supporting member is welded on the tube connector outer wall.
36,, it is characterized in that step (j) comprises following step according to the method for claim 35:
(q) second tubular segments of making shaping layer of concrete, this second tubular segments is coaxial with pipe fitting, it has the relative two ends and the second internal perisporium face, one of relative two ends of second tubular segments directly contact with whole second plane of first inner flange, second internal perisporium of second tubular segments faces the first end convergent of pipeline section, and the horizontal inside dimension of the other end of second tubular segments equates with the horizontal inside dimension of pipe fitting.
37,, it is characterized in that step (g) comprises following each step according to the method for claim 34:
(r) a plurality of steel tube of preparation unit;
(s) with the coaxial composition pipe fitting that is connected in series of unit of pipe; Wherein step (h) comprises step:
(t) first inner flange is welded on the unit of pipe inwall at the pipe fitting first end place, wherein step (a) also comprises step:
(u) carrying out step (j) before, second inner flange is welded on the inwall of each unit of pipe except that the unit of pipe of pipe fitting first end, second flange is radially protruded inwardly from the inwall of each unit of pipe, wherein step (i) comprises step:
(v) supporting member is soldered on the outer wall of each unit of pipe, wherein step (j) comprises step:
(w) behind completing steps (s), second tubular segments, this second tubular segments of making layer of concrete are coaxial with pipe fitting, extend the total length between second flange that is welded in first flange on the pipe fitting and is welded in pipe fitting second end, the lateral dimension of second tubular segments is not more than the horizontal inside dimension of first and second inner flanges.
38,, it is characterized in that step (j) comprises following each step according to the method for claim 34 or 35:
(x) with the axis rotation of pipe fitting around itself; And
(y) concrete is injected pipe fitting, the action of centrifugal force that produces when concrete is subjected to the pipe fitting rotation like this forms the layer of concrete that spreads on the pipe fitting inner wall.
CN88104690A 1987-09-18 1988-07-30 Concrete filled tube column and method of constructing same Expired CN1017364B (en)

Applications Claiming Priority (4)

Application Number Priority Date Filing Date Title
JP234374/87 1987-09-18
JP62234374A JPS6480638A (en) 1987-09-18 1987-09-18 Connection structure of packed steel-pipe concrete post
JP80444/88 1988-04-01
JP63080444A JPH01256651A (en) 1988-04-01 1988-04-01 Steel pipe concrete pillar structure and construction thereof

Publications (2)

Publication Number Publication Date
CN1032375A CN1032375A (en) 1989-04-12
CN1017364B true CN1017364B (en) 1992-07-08

Family

ID=26421454

Family Applications (1)

Application Number Title Priority Date Filing Date
CN88104690A Expired CN1017364B (en) 1987-09-18 1988-07-30 Concrete filled tube column and method of constructing same

Country Status (5)

Country Link
EP (1) EP0308038B1 (en)
KR (1) KR940009460B1 (en)
CN (1) CN1017364B (en)
CA (1) CA1300920C (en)
DE (1) DE3884117T2 (en)

Families Citing this family (10)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CA2213831C (en) * 1996-09-09 2001-12-04 Finn A. Rasmussen Modular pillar
FI20085029L (en) * 2008-01-14 2009-07-15 Rautaruukki Oyj Method for producing a fiber concrete column to be used in the construction industry and fiber concrete columns
CN101324115B (en) * 2008-07-04 2010-06-02 华南理工大学 Steel tube regeneration mixing component
WO2011072451A1 (en) * 2009-12-17 2011-06-23 Li Wenman Panel modules for quick assembling house and house built from the same
CN102011432B (en) * 2010-11-24 2012-01-25 同济大学 Novel polygonal combined steel pipe
JP6570973B2 (en) * 2015-11-10 2019-09-04 五洋建設株式会社 Tremy tube
CN107246109B (en) * 2017-03-12 2019-04-16 东北石油大学 The frame and its construction method that real compound concrete filled steel tube coupled column combination beam is constituted
CN111005737B (en) * 2019-12-28 2021-07-23 上海建旗建筑工程设计有限公司 Tunnel type prestressed pipe curtain structure and construction method
CN113155555B (en) * 2020-01-23 2023-04-11 天津市政工程设计研究总院有限公司 Manufacturing method of magnesium alloy model for simulating concrete pipe gallery
CN111749346B (en) * 2020-06-30 2021-11-30 中国航空规划设计研究总院有限公司 Extension joint containing prefabricated concrete-filled steel tube core column component and construction method

Family Cites Families (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
GB287447A (en) * 1927-03-19 1928-07-12 Shojiro Takechi Improvements in method and apparatus for concrete piling
US3963056A (en) * 1974-01-02 1976-06-15 Nippon Concrete Kogyo Kabushiki Kaisha Concrete piles, poles or the like
DE3302075C2 (en) * 1983-01-22 1985-05-09 Rudolf Dipl.-Ing. 7000 Stuttgart Bergermann Connection for prestressed concrete or reinforced concrete bending beams
US4588327A (en) * 1984-02-28 1986-05-13 Lin Juei J Precast concrete pile and method of placing it in the ground
CA1259808A (en) * 1985-03-05 1989-09-26 Takanori Sato Concrete filled steel tube column and method of constructing same
EP0218313B1 (en) * 1985-09-24 1991-06-26 SHIMIZU CONSTRUCTION Co. LTD. Structural filler filled steel tube column

Also Published As

Publication number Publication date
EP0308038B1 (en) 1993-09-15
CN1032375A (en) 1989-04-12
KR890005360A (en) 1989-05-13
KR940009460B1 (en) 1994-10-13
DE3884117T2 (en) 1994-05-05
DE3884117D1 (en) 1993-10-21
CA1300920C (en) 1992-05-19
EP0308038A1 (en) 1989-03-22

Similar Documents

Publication Publication Date Title
CA1259808A (en) Concrete filled steel tube column and method of constructing same
CN108301317B (en) Assembled pier structure and construction method thereof
US4783940A (en) Concrete filled steel tube column and method of constructing same
US5012622A (en) Structural filler filled steel tube column
WO2021223400A1 (en) Prefabricated combined assembly-type anti-floating tensile prestressed anchor rod member and construction method therefor
EP3662122B1 (en) Foundation for a building
US4864797A (en) Concrete filled tube column and method of constructing same
CN110439758B (en) Node transition tower section of wind power steel-concrete combined tower, wind power tower and construction method of wind power tower
CN1017364B (en) Concrete filled tube column and method of constructing same
CA3050664A1 (en) Reinforcement structures for tensionless concrete pier foundations and methods of constructing the same
CN220550582U (en) Concrete pile with drum part and root pile for prefabricating pile foundation structure
US20200157759A1 (en) Foundation for a Tower of a Wind-Turbine
CN111749346A (en) Extension joint containing prefabricated concrete-filled steel tube core column component and construction method
CN110725475A (en) Prefabricated column with built-in high-corrugated pipe, frame structure of prefabricated column and construction method of prefabricated column
KR101980656B1 (en) Construction method of precast concrete column
CN114718059B (en) Tubular pile connecting structure and pile splicing method thereof
KR101954403B1 (en) Construction method of precast concrete column
GB2261456A (en) A shoe for a concrete pile
JP3585470B2 (en) Precast PC member, method of manufacturing the same, and method of joining the member to another member
CN114474361A (en) Preparation method of uplift pile
WO2022148762A1 (en) A precast concrete structure and method of forming a precast concrete structure
JP3585471B2 (en) Precast PC member, method of manufacturing the same, and method of joining the member to another member
JP2007296749A (en) Prestressed concrete-made pipe body and jacking method
CN114808928B (en) Assembled pile plate structure connecting node and construction method
CN220555813U (en) A connection structure for prefabricating tubular pile

Legal Events

Date Code Title Description
C06 Publication
PB01 Publication
C10 Entry into substantive examination
SE01 Entry into force of request for substantive examination
C13 Decision
GR02 Examined patent application
C14 Grant of patent or utility model
GR01 Patent grant
C19 Lapse of patent right due to non-payment of the annual fee
CF01 Termination of patent right due to non-payment of annual fee