JP2018145781A - A kind of beam-column node structure and built-up house - Google Patents

A kind of beam-column node structure and built-up house Download PDF

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JP2018145781A
JP2018145781A JP2018022597A JP2018022597A JP2018145781A JP 2018145781 A JP2018145781 A JP 2018145781A JP 2018022597 A JP2018022597 A JP 2018022597A JP 2018022597 A JP2018022597 A JP 2018022597A JP 2018145781 A JP2018145781 A JP 2018145781A
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plate
steel
prefabricated
connection
steel plate
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JP6351198B1 (en
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葉茂
Mao Ye
傅継陽
Jiyang Fu
劉愛栄
Airong Liu
呉玖栄
Jiurong Wu
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Guangzhou University
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    • 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
    • E04B1/20Structures comprising elongated load-supporting parts, e.g. columns, girders, skeletons the supporting parts consisting of concrete, e.g. reinforced concrete, or other stonelike material
    • E04B1/21Connections specially adapted therefor
    • 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
    • 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
    • E04B1/20Structures comprising elongated load-supporting parts, e.g. columns, girders, skeletons the supporting parts consisting of concrete, e.g. reinforced concrete, or other stonelike material
    • E04B1/21Connections specially adapted therefor
    • E04B1/215Connections specially adapted therefor comprising metallic plates or parts
    • 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
    • E04B1/38Connections for building structures in general
    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04BGENERAL BUILDING CONSTRUCTIONS; WALLS, e.g. PARTITIONS; ROOFS; FLOORS; CEILINGS; INSULATION OR OTHER PROTECTION OF BUILDINGS
    • E04B5/00Floors; Floor construction with regard to insulation; Connections specially adapted therefor
    • E04B5/02Load-carrying floor structures formed substantially of prefabricated units
    • E04B5/04Load-carrying floor structures formed substantially of prefabricated units with beams or slabs of concrete or other stone-like material, e.g. asbestos cement
    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04BGENERAL BUILDING CONSTRUCTIONS; WALLS, e.g. PARTITIONS; ROOFS; FLOORS; CEILINGS; INSULATION OR OTHER PROTECTION OF BUILDINGS
    • E04B5/00Floors; Floor construction with regard to insulation; Connections specially adapted therefor
    • E04B5/02Load-carrying floor structures formed substantially of prefabricated units
    • E04B5/10Load-carrying floor structures formed substantially of prefabricated units with metal beams or girders, e.g. with steel lattice girders
    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04HBUILDINGS OR LIKE STRUCTURES FOR PARTICULAR PURPOSES; SWIMMING OR SPLASH BATHS OR POOLS; MASTS; FENCING; TENTS OR CANOPIES, IN GENERAL
    • E04H9/00Buildings, groups of buildings or shelters adapted to withstand or provide protection against abnormal external influences, e.g. war-like action, earthquake or extreme climate
    • E04H9/02Buildings, groups of buildings or shelters adapted to withstand or provide protection against abnormal external influences, e.g. war-like action, earthquake or extreme climate withstanding earthquake or sinking of ground
    • E04H9/021Bearing, supporting or connecting constructions specially adapted for such buildings
    • EFIXED CONSTRUCTIONS
    • E04BUILDING
    • E04BGENERAL BUILDING CONSTRUCTIONS; WALLS, e.g. PARTITIONS; ROOFS; FLOORS; CEILINGS; INSULATION OR OTHER PROTECTION OF BUILDINGS
    • E04B2103/00Material constitution of slabs, sheets or the like
    • E04B2103/02Material constitution of slabs, sheets or the like of ceramics, concrete or other stone-like material

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  • Engineering & Computer Science (AREA)
  • Architecture (AREA)
  • Civil Engineering (AREA)
  • Structural Engineering (AREA)
  • Physics & Mathematics (AREA)
  • Electromagnetism (AREA)
  • Business, Economics & Management (AREA)
  • Emergency Management (AREA)
  • Environmental & Geological Engineering (AREA)
  • Joining Of Building Structures In Genera (AREA)
  • Building Environments (AREA)
  • Vibration Prevention Devices (AREA)
  • Vibration Dampers (AREA)
  • Buildings Adapted To Withstand Abnormal External Influences (AREA)

Abstract

PROBLEM TO BE SOLVED: To provide a beam-column joint configuration in which a large load can be received on beam-column nodes and where a house can be mounted by a built-up manner.SOLUTION: A beam-column joint configuration comprises prefabrication nodes, first connection joints, a prefabrication stage 22, and second connection joints. The first connection joint has a first connection body, a first intermediate body, and a first fitted body integrally formed to a prefabrication joint, and the second connection joint has a second connection body, a second intermediate body, and a second fitted body integrally formed to the prefabrication stage. The first connection body is provided on one end of the first intermediate body; the first fitted body is provided on the other end of the first intermediate body; the second connection body is provided on one end of the second intermediate body; and the second fitted body is provided on the other end of the second intermediate body. The first connection body includes a steel column and a plurality of first steel blocks, and the second connection body includes a plurality of second steel blocks. A steel column recess is formed at the second steel block, to fit into the steel column, the steel column is inserted into a vacancy of the steel column, and the first steel block and the second steel block are fixed with bolts.SELECTED DRAWING: Figure 24

Description

本発明は家屋建築の分野に関し、特に一種の梁柱ノード構造と組立式家屋に関する。 The present invention relates to the field of house construction, and more particularly to a kind of beam column node structure and a prefabricated house.

データによると、改革開放以来、中国は世界中において毎年の建築量が一番大きく、全世界におけるセメント鋼材の消費量が一番多く、産生した建築ごみの量が一番多い国であり、建物の寿命は平均で25〜30年しかない。そして、中国に広い田舎地区があり、伝統に基づいて、毎世代の人は大きい経済負担を受けて新しい家を建てる。この時、前世代の人が多く消費し建てた古い家が廃棄物になって、何の価値もない。このように繰り返すと、農村地区の家屋の寿命が短く、環境資源の圧力は大きいだけでなく、住民に大きい経済圧力をもたらした。現在、中国の都市農村建設の方式は粗く、エネルギー資源の消耗が高く、利用効率が低い。規模を重視し効率を軽視する、外観を重視し品質を軽視する、建築を重視し管理を軽視する、建築の使用寿命は設計使用年数よりもはるかに低いという問題が存在する。実情に即して都市農村建設をエコロジー、リサイクル、低炭素の科学的な発展路線に推進する必要があり、経済社会の全面的な、協調、持続可能な発展を促進する。 According to the data, China has been the largest building in the world every year since the reform opening, the largest consumption of cement steel in the world, the largest amount of building waste produced, Has an average life span of only 25-30 years. And China has a large countryside, and based on tradition, people of every generation build new homes under great economic burden. At this time, an old house that was consumed and built by a large number of people of the previous generation becomes waste and has no value. Repeated in this way, the life of rural houses was short and the pressure on environmental resources was great, and it brought great economic pressure to the residents. At present, the urban and rural construction methods in China are rough, energy resources are high, and utilization efficiency is low. There is a problem that importance is placed on the scale and the efficiency is neglected, the appearance is emphasized and the quality is neglected, the architecture is emphasized and the management is neglected, and the service life of the architecture is much lower than the design life. It is necessary to promote urban and rural construction on ecological, recycling and low-carbon scientific development lines in accordance with the actual situation, and promote full-scale, cooperative and sustainable development of economic society.

現在の材料科学と接続技術の成果に基づいて、「全組立全解体」の建築構造を実現する接続技術条件はすでに備え、ある学者も「乾接続」がプレハブ組立式コンクリート構造の今後の主な発展と研究する一つの方向だと考える。「乾接続」の研究成果は相対的に少なく、特に「全組立全解体」に関するプレハブ組立式コンクリートノード接続方式がもっと少なく、また研究する必要な問題が多くある。ある人は組立式コンクリート構造が「積み木をして遊ぶように家屋建てる、車を製造するように家屋を造る」と形容する。現在の注目点が「組立」にあり、後続の「解体と取替」に対する注目が少ない。 Based on the results of current material science and connection technology, there is already a connection technology condition to realize a building structure of “all assembly and dismantling”, and some scholars also believe that “dry connection” will be the main future of prefabricated prefabricated concrete structures. I think this is one direction of development and research. There are relatively few research results on “dry connection”, especially fewer prefabricated prefabricated concrete node connection methods for “all assembly and disassembly”, and there are many problems that need to be studied. Some people describe the prefabricated concrete structure as “building a house to play with building blocks, building a house to make a car”. The current attention is on “assembly”, and there is little attention on the subsequent “disassembly and replacement”.

現在のほとんどのプレハブ組立式コンクリート構造の梁柱接続箇所の構成が複雑で、工事が難しく、同時にノード位置が受ける荷重が大きく複雑で、ノードが全体の軸組組立式コンクリート構造を弱くさせる。現状では、ノードを研究と応用する重点は現場打ち(濡接続)にあり、主に「強いノード」の設計目標を実現するため、「強い柱弱いはり、強いノード弱い部材」の構造耐震設計の基本原則を体現する。 Most current prefabricated concrete structures have complicated beam-column connection locations, making the construction difficult, and at the same time the load on the node position is large and complex, and the nodes weaken the entire frame-assembled concrete structure. At present, the focus on research and application of nodes is on-site (wet connection), and mainly to achieve the design goal of “strong nodes”, the structural seismic design of “strong pillar weak beam, strong node weak members” Embody basic principles.

中国特許出願公開第105696705号明細書Chinese Patent Application No. 105696705 Specification 中国特許第103195172号明細書Chinese Patent No. 103195172

既存の技術に存在する技術問題に対して、本発明の目的は、一種の梁柱節点構成を提供することにあり、梁柱ノードが大きい荷重を受けることができ、家屋が組立式で取り付けられる。 In order to solve the technical problems existing in the existing technology, an object of the present invention is to provide a kind of beam column node configuration, in which the beam column node can receive a large load, and the house is mounted in an assembly type. .

上記目的を達成するために、本発明は、以下のような態様を採用する。 In order to achieve the above object, the present invention employs the following aspects.

梁柱節点構成であって、プレハブ節点と、第一の接続継手と、プレハブ段と、第二の接続継手とを含み、第一の接続継手は第一の接続体と、第一の中間体と、プレハブ節点に一体形成された第一の嵌込体とを含み、第二の接続継手は第二の接続体と、第二の中間体と、プレハブ段に一体形成された第二の嵌込体とを含み、第一の接続体は第一の中間体の一端に設けられ、第一の嵌込体は第一の中間体の他端に設けられ、第二の接続体は第二の中間体の一端に設けられ、第二の嵌込体は第二の中間体の他端に設けられ、第一の接続体は鋼柱と鋼柱の円周側面に均一に分布された複数の第一の鋼ブロックとを含み、第二の接続体は円周方向に均一に分布された複数の第二の鋼ブロックを含み、複数の第二の鋼ブロックに鋼柱に嵌合される鋼柱凹部が形成され、鋼柱は鋼柱空位内に挿入され、相互に接触する第一の鋼ブロックと第二の鋼ブロックとはボルトによって固定され、更には、第一の鋼ブロックは相互に固定される第一の鋼板と第一の突出鋼板とを含み、第一の鋼板の一端は鋼柱に固定され、第一の鋼板の他側は第一の突出鋼板と直交し、第二の鋼ブロックは相互に固定される第二の鋼板と第二の突出鋼板とを含み、第二の突出鋼板は第二の鋼板の一端と直交し、相互に接触する第一の鋼板と第二の鋼板とはボルトに固定され、梁柱節点構成はさらに補強鋼板と側方ホルダーとを含み、側方ホルダーの一端はいずれかの第一の鋼板に固定され、側支持子の他端はこのいずれかの第一の鋼板と隣り合う第二の鋼板又は第一の鋼板に固定され、補強鋼板はボルトによって第一の突出鋼板の端面と第二の突出鋼板の端面に固定され、第一鋼板と第二鋼板がボルトを通じて接続し、第一接続体と第二接続体の相互の固定を実現し、強化鋼板と側支持体が接続を強化することができ、第一接続体と第二接続体をもっと堅固に固定させる。 Beam column node configuration comprising a prefabricated node, a first connecting joint, a prefabricated stage, and a second connecting joint, wherein the first connecting joint is a first connecting body and a first intermediate body. And a first fitting body integrally formed at the prefabricated node, and the second connecting joint is a second fitting body, a second intermediate body, and a second fitting integrally formed at the prefabricated stage. A first connection body is provided at one end of the first intermediate body, a first fitting body is provided at the other end of the first intermediate body, and a second connection body is the second connection body. Provided at one end of the intermediate body, the second fitting body is provided at the other end of the second intermediate body, and the first connecting body is a plurality of steel columns and a plurality of members distributed uniformly on the circumferential side surface of the steel column. The second connecting body includes a plurality of second steel blocks uniformly distributed in the circumferential direction and is fitted to the steel pillars by the plurality of second steel blocks. Steel column recess The formed steel column is inserted into the steel column cavity, and the first steel block and the second steel block that are in contact with each other are fixed by bolts, and further, the first steel block is fixed to each other Including a first steel plate and a first protruding steel plate, one end of the first steel plate is fixed to a steel column, the other side of the first steel plate is orthogonal to the first protruding steel plate, and the second steel block is A second steel plate and a second protruding steel plate, which are fixed to each other, the second protruding steel plate being orthogonal to one end of the second steel plate and the first steel plate and the second steel plate contacting each other; The beam column node configuration further includes a reinforcing steel plate and a side holder, one end of the side holder is fixed to one of the first steel plates, and the other end of the side support is The first steel plate is fixed to the second steel plate or the first steel plate adjacent to the first steel plate, and the reinforcing steel plate is the first protruding steel by a bolt. The first steel plate and the second steel plate are connected through bolts, and the first connection body and the second connection body are mutually fixed, and the strengthened steel plate and the side support body Can strengthen the connection and make the first and second connections more secure.

更には、第一の中間体の一端の周りは延伸鋼板から延出され、第一の嵌込体はH鋼状を呈しており、第一の嵌込体の側面に複数の鋼釘が設けられ、第一の中間体の端面に複数の鋼釘と複数本の受力鋼筋とが設けられ、第一の嵌込体の側面上における鋼釘と第一の中間体の端面上における鋼釘とは相互に直交し、第一の中間体と第二の中間体とは同様の構成を有し、延長鋼板が一部分のコンクリートを第一中間体の中に位置させ、コンクリート(プレハブノード或いはプレハブ段)が第一中間体と堅固に固定させ、注入する前に、応力鉄筋と鋼釘がと第一中間体が固定され、応力鉄筋と鋼釘が違う方向にコンクリートと固定し、全体の構造の堅固性と強度をさらに強化させる。 Furthermore, one end of the first intermediate body is extended from the drawn steel plate, the first fitting body has an H-steel shape, and a plurality of steel nails are provided on the side surface of the first fitting body. A plurality of steel nails and a plurality of force-receiving steel bars are provided on the end face of the first intermediate body, and the steel nails on the side face of the first fitting body and the steel nails on the end face of the first intermediate body Are perpendicular to each other, and the first intermediate body and the second intermediate body have the same configuration, and the extension steel plate places a part of concrete in the first intermediate body, and the concrete (prefabricated node or prefabricated node). (Stage) is firmly fixed to the first intermediate and before the injection, the stress rebar and steel nail are fixed to the first intermediate, the stress rebar and steel nail are fixed to the concrete in different directions, and the whole structure Further strengthen the firmness and strength of the.

更には、プレハブノードは注入成形し互いに垂直に交差するプレハブノード柱とプレハブノードはりを含み、プレハブ段はプレハブ柱またプレハブはりで、プレハブノードが第一連結装置と一体に注入され、プレハブ段が第二連結装置と一体に注入される。注入する方式はコンクリートと連結装置の間の接続強度をもっと向上させる。 Furthermore, the prefabricated node includes a prefabricated node column and a prefabricated node beam that are injection molded and perpendicularly intersect with each other, the prefabricated column is a prefabricated column or a prefabricated beam, and the prefabricated node is injected integrally with the first connecting device, It is injected integrally with the second connecting device. The method of pouring further improves the connection strength between the concrete and the coupling device.

更には、第一の中間体と第二の中間体の間に第一の接続体と第二の接続継手を保護するための保護カバーが設けられ、外保護カバーが美観の向上と第一接続体と第二接続体を保護する作用を果たす。 Further, a protective cover for protecting the first connecting body and the second connecting joint is provided between the first intermediate body and the second intermediate body, and the outer protective cover improves the aesthetic appearance and the first connection. Acts to protect the body and the second connector.

更には、プレハブ節点に減衰器が取り付けられ、減衰器は外弧板と、内弧板と、外側板と、内側板と、粘弾性材料層と、回転部品と、せん断鋼板と、第一の接続板と、第二の接続板と、滑動回転軸とを含み、第一の接続板及び第二の接続板はプレハブ節点に固定され、外弧板の一端と第一の接続板とは相互に固定され、外弧板の他端と第二の接続板の間に隙間が設けられ、内弧板の一端と第二の接続板とは相互に固定され、内弧板の他端と第一の接続板の間に隙間が設けられ、外側板は外弧板の側端面に設けられ、外側板と第二の接続板の間に隙間が設けられ、内側板は内弧板の側端面に設けられ、内側板と第一の接続板の間に隙間が設けられ、外側板と内側板がそれぞれ外弧板の両側に位置し、回転部品は回転軸と、接続鋼板と、複数個の回転鋼板とを含み、回転軸は外弧板に取り付けられ、接続鋼板の一端は回転軸と接触され、複数個の回転鋼板は接続鋼板の他端に設けられ、滑動回転軸は内弧板に回転的に取り付けられ、滑動回転軸に対して滑動する接続鋼板は滑動回転軸に挿通し、二枚の粘弾性材料層の間に回転鋼板又はせん断鋼板が設けられ、せん断鋼板と第二の接続板とは相互に固定され、外側板と一方の粘弾性材料層とは相互に固定され、内側板と他方の粘弾性材料層とは相互に固定され、更には、外側板と内側板は相応する粘弾性材料層に変形を発生され、もっと良い制振効果を達成させる。外弧板に第一の回転溝が設けられ、回転軸は第一の回転溝内に設置され、構造が簡単で、回転組立部品の重量を積載することができ、全体の制振装置が制振効果を果たす重要な条件である。内弧板に第二の回転溝が設けられ、滑動回転軸は第二の回転溝内に回転的に設置され、接続鋼板がスライド回転軸の軸線に沿って回転し、同時に接続鋼板がスライド回転軸を相対にスライドして、最後に制振効果を達する。 Further, an attenuator is attached to the prefabricated node, and the attenuator includes an outer arc plate, an inner arc plate, an outer plate, an inner plate, a viscoelastic material layer, a rotating part, a shear steel plate, A connecting plate, a second connecting plate, and a sliding rotary shaft, wherein the first connecting plate and the second connecting plate are fixed to the prefabricated nodes, and one end of the outer arc plate and the first connecting plate are mutually connected A gap is provided between the other end of the outer arc plate and the second connection plate, the one end of the inner arc plate and the second connection plate are fixed to each other, the other end of the inner arc plate and the first connection plate A gap is provided between the connection plates, the outer plate is provided on the side end surface of the outer arc plate, a gap is provided between the outer plate and the second connection plate, the inner plate is provided on the side end surface of the inner arc plate, and the inner plate And a first connecting plate, the outer plate and the inner plate are respectively located on both sides of the outer arc plate, the rotating component is a rotating shaft, a connecting steel plate, and a plurality of A rotating shaft is attached to the outer arc plate, one end of the connecting steel plate is in contact with the rotating shaft, a plurality of rotating steel plates are provided at the other end of the connecting steel plate, and the sliding rotating shaft is attached to the inner arc plate The connecting steel plate that is rotationally attached and slides with respect to the sliding rotating shaft is inserted through the sliding rotating shaft, and a rotating steel plate or a shearing steel plate is provided between the two viscoelastic material layers, and the second connection with the shearing steel plate. The plate is fixed to each other, the outer plate and one viscoelastic material layer are fixed to each other, the inner plate and the other viscoelastic material layer are fixed to each other, and the outer plate and the inner plate are The viscoelastic material layer is deformed to achieve a better vibration damping effect. The outer arc plate is provided with the first rotation groove, the rotation shaft is installed in the first rotation groove, the structure is simple, the weight of the rotating assembly can be loaded, and the whole vibration damping device is controlled. This is an important condition for achieving the vibration effect. The inner arc plate is provided with a second rotation groove, the sliding rotation shaft is rotatably installed in the second rotation groove, the connecting steel plate rotates along the axis of the slide rotation shaft, and at the same time, the connecting steel plate slides and rotates. Slide the shaft relative to reach the damping effect at the end.

更には、滑動回転軸に接続鋼板を挿通させる挿通孔が設けられ、接続鋼板が揺れ動く時、スライド回転軸を動かして内弧板を相対に回転する。同時に接続鋼板がスライド回転軸を相対にスライドする。接続鋼板の端部に複数の欠口が設けられ、複数個の回転鋼板は前記接続鋼板の欠口に嵌合され、接続鋼板が回転鋼板との固定方式が簡単で堅固である。接続鋼板にせん断鋼板を挿通させる中部欠口が設けられ、剪断鋼板が回転組立部品と相対変位を発生する時、剪断鋼板が接続鋼板の中部のギャップから通り抜け、剪断鋼板が接続鋼板に触れることを避ける。 Furthermore, an insertion hole for inserting the connecting steel plate into the sliding rotation shaft is provided, and when the connecting steel plate swings, the slide rotation shaft is moved to relatively rotate the inner arc plate. At the same time, the connecting steel plate slides relative to the slide rotation axis. A plurality of notches are provided at the ends of the connecting steel plates, and the plurality of rotating steel plates are fitted into the notches of the connecting steel plates, so that the connecting steel plates can be easily and firmly fixed to the rotating steel plates. The connection steel plate is provided with a middle notch through which the shear steel plate is inserted, and when the shear steel plate generates relative displacement with the rotating assembly part, the shear steel plate passes through the gap in the middle of the connection steel plate and the shear steel plate touches the connection steel plate. avoid.

更には、第一の接続板と第二の接続板とが回転支座によって接続され、回転支座は第一の接続板に設けられる第一の支座と第二の接続板に設けられる第二の支座とを含み、第二の支座は第一の支座に回転的に取り付けられ、家屋梁柱ノードが垂直ではない状況でも、この制振装置は適用である。 Furthermore, the first connecting plate and the second connecting plate are connected by a rotating support, and the rotating support is provided on the first connecting plate provided on the first connecting plate and the second connecting plate provided on the second connecting plate. This damping device is applicable even in a situation where the second support is rotationally attached to the first support and the house beam column node is not vertical.

一種の組立式の家屋構造は、梁柱節点構成と、プレハブ節点壁板と、プレハブ壁板とを含み、プレハブ節点壁板の一端は一の梁柱節点構成に接続され、プレハブ節点壁板の他端は隣り合う別の梁柱節点構成に接続され、プレハブ壁板の前後両端がプレハブ節点壁板に接続され、プレハブ壁板の側端はプレハブ節点壁板の側端又は隣り合うプレハブ壁板の側端に接続され、プレハブ壁板とプレハブ節点壁板はともに支持鋼骨に一体形成されたコンクリート板とを含み、支持鋼骨に鋼釘と受力鋼筋が内設され、支持鋼骨の周りの側壁に接続突板が設けられ、プレハブ節点梁の上端にプレハブ節点梁板が設けられ、プレハブ節点梁板の側壁に接続突板が設けられ、プレハブ節点梁板の接続突板とプレハブ節点壁板の接続突板とは接続ブロックによって固定され、プレハブ節点壁板の接続突板とプレハブ壁板の接続突板とはボルトによって固定され、隣り合う二個のプレハブ壁板の接続突板はボルトによって固定される。 A kind of prefabricated house structure includes a beam column node configuration, a prefabricated node wall plate, and a prefabricated wall plate, and one end of the prefabricated node wall plate is connected to one beam column node configuration. The other end is connected to another adjacent beam column node configuration, the front and rear ends of the prefabricated wall plate are connected to the prefabricated node wall plate, and the side end of the prefabricated wall plate is the side end of the prefabricated node wall plate or the adjacent prefabricated wall plate The prefabricated wall plate and the prefabricated node wall plate both include a concrete plate integrally formed with the supporting steel frame, and the supporting steel frame is provided with steel nails and force-bearing reinforcing bars. A connection projecting plate is provided on the surrounding side wall, a prefabricated node beam plate is provided at the upper end of the prefabricated node beam, a connection projecting plate is provided on the side wall of the prefabricated node beam plate, and the connection projection plate of the prefabricated node beam plate and the prefabricated node wall plate The connection veneer is connected to the connection block. Fixed, the prefabricated node wallboard connections veneer and prefabricated wall panel connection veneer is fixed by a bolt, connected Veneer of two prefabricated wallboard adjacent fixed by bolts.

要約すると、本発明は以下の長点を有する。 In summary, the present invention has the following advantages.

本発明は梁柱接続箇所を梁段、柱段と全体がプレハブし、プレハブはりとプレハブ柱はプレハブノードで接続し、根源から組立式コンクリート軸組構造の、「強い柱弱いはり、強いノード弱い部材」の構造耐震設計の基本原則を実現する。組立式家屋の構造が簡単で、事前に工場で全体をプレハブさせることができ、工事が比較的に簡単で、大きい荷重を耐えることができる。ノード位置で制振装置を付け加えると有効的にプレハブ組立式コンクリート構造のノードの耐震性能を高めることができ、制振装置の減衰効果は顕著な拡大効果がある。第一接続板と第二接続板が少し相対回転角変位を発生する時、回転鋼板の回転を通じて、回転鋼板と粘弾性材料層に大きい相対変位を発生させ、これによりもっと良い制振効果を達する。本発明の材料が簡単で、製造しやすく、組立と解体が便利で、ヒステリシス効果が安定で、交換しやすく、重要な経済と使用価値があり、構造耐震分野に広い応用の見通しがある。 In the present invention, the beam column connection part is prefabricated in the beam step, the column step and the whole, and the prefabricated beam and the prefabricated column are connected by a prefab node. From the root of the assembled concrete frame structure, “strong column weak beam, strong node weak Realize the basic principle of structural seismic design of “members”. The structure of the assembly-type house is simple, the whole can be prefabricated in the factory in advance, the construction is relatively simple, and it can bear a large load. If a damping device is added at the node position, the seismic performance of the prefabricated concrete structure node can be effectively improved, and the damping effect of the damping device has a significant expansion effect. When the first connecting plate and the second connecting plate generate a little relative rotational angular displacement, a large relative displacement is generated in the rotating steel plate and the viscoelastic material layer through the rotation of the rotating steel plate, thereby achieving a better damping effect. . The material of the present invention is simple, easy to manufacture, convenient to assemble and disassemble, has a stable hysteresis effect, is easy to replace, has significant economic and utility value, and has wide application prospects in the structural seismic field.

図1は、制振装置の正面図である。FIG. 1 is a front view of the vibration damping device. 図2は、制振装置第一方向の立体図である。FIG. 2 is a three-dimensional view of the vibration damping device in the first direction. 図3は、制振装置第二方向の立体図である。FIG. 3 is a three-dimensional view of the vibration damping device in the second direction. 図4は、第一接続板、第二接続板、粘弾性材料層、回転組立部品、スライド回転軸、剪断鋼板組立の構造概略図である。FIG. 4 is a structural schematic diagram of a first connection plate, a second connection plate, a viscoelastic material layer, a rotary assembly component, a slide rotary shaft, and a sheared steel plate assembly. 図5は、外弧板と内弧板の構造概略図である。FIG. 5 is a schematic structural diagram of the outer arc plate and the inner arc plate. 図6は、回転組立部品の第一種方式の構造概略図である。FIG. 6 is a schematic diagram of the structure of the first type of rotating assembly component. 図7は、スライド回転軸、粘弾性材料層、剪断鋼板の構造概略図である。FIG. 7 is a schematic structural view of a slide rotation shaft, a viscoelastic material layer, and a sheared steel plate. 図8は、回転組立部品の第二種方式の構造概略図である。FIG. 8 is a schematic structural view of the second type of rotating assembly part. 図9は、プレハブノード、第一連結装置、第二連結装置、プレハブ段の構造概略図ある。FIG. 9 is a structural schematic diagram of the prefab node, the first connecting device, the second connecting device, and the prefabricated stage. 図10は、プレハブノード、応力鉄筋、第一連結装置の構造概略図である。FIG. 10 is a structural schematic diagram of the prefabricated node, the stress rebar, and the first coupling device. 図11は、第一連結装置第一方向の構造概略図である。FIG. 11 is a schematic structural view of the first connecting device in the first direction. 図12は、第一連結装置第二方向の構造概略図である。FIG. 12 is a structural schematic diagram of the first connecting device in the second direction. 図13は、プレハブ段、応力鉄筋、第二連結装置の構造概略図である。FIG. 13 is a schematic structural diagram of the prefabricated stage, the stress rebar, and the second coupling device. 図14は、第二連結装置第一方向の構造概略図である。FIG. 14 is a schematic structural diagram of the second connecting device in the first direction. 図15は、第二連結装置第二方向の構造概略図である。FIG. 15 is a structural schematic diagram of the second connecting device in the second direction. 図16は、第一連結装置と第二連結装置組立の構造概略図である。FIG. 16 is a structural schematic diagram of the first coupling device and the second coupling device assembly. 図17は、第一接続体と第二接続体組立の構造概略図である。FIG. 17 is a structural schematic diagram of the first connection body and the second connection body assembly. 図18は、プレハブノードと第一連結装置が全体がプレハブされた後にその中の一種の構造概略図である。FIG. 18 is a schematic diagram of a kind of structure after the prefabricated node and the first connecting device are prefabricated as a whole. 図19は、多くのプレハブノード、第一連結装置、第二連結装置、プレハブ段が組み立てられた後の一種の支持体系を示す図である。FIG. 19 shows a kind of support system after many prefabricated nodes, first coupling devices, second coupling devices and prefabricated stages have been assembled. 図20は、プレハブノードと制振装置が組み立てられた後の構造概略図である。FIG. 20 is a structural schematic diagram after the prefab node and the vibration damping device are assembled. 図21は、プレハブノード、プレハブ段、プレハブノード床スラブ、プレハブ床スラブの構造概略図である。FIG. 21 is a schematic structural diagram of a prefabricated node, a prefabricated stage, a prefabricated node floor slab, and a prefabricated floor slab. 図22は、プレハブノード、プレハブ段、プレハブノード床スラブ、プレハブ床スラブが組み立てられた後の構造概略図である。FIG. 22 is a structural schematic diagram after the prefab node, prefab stage, prefab node floor slab, and prefab floor slab are assembled. 図23は、プレハブノード床スラブまたプレハブ床スラブの構造概略図である。FIG. 23 is a structural schematic diagram of a prefabricated node floor slab or a prefabricated floor slab. 図24は、梁柱ノード構造、プレハブノード床スラブ、プレハブ床スラブが組み立てられた後の構造概略図である。FIG. 24 is a structural schematic diagram after the beam column node structure, the prefabricated node floor slab, and the prefabricated floor slab are assembled.

1は家屋のはり、2は家屋の柱、3は第一接続板、4は第二接続板、5は外弧板、6は内弧板、7は外側板、8は内側板、9は回転軸。10は接続鋼板、11は回転鋼板、12は粘弾性材料層、13は剪断鋼板、14は第一回転溝、15は第二回転溝、16はスライド回転軸、17はスライド回転軸の上のスルーホール、18は接続鋼板の上の中部のギャップ、19はプレハブノード、20は第一連結装置、21は第二連結装置、22はプレハブ段、23は外保護カバー、24は第一埋め込み体、25は第一中間体、26は第一鋼ブロック、27は鋼柱、28は応用鉄筋、29は鋼釘、30は延長鋼板、31は第一突出鋼板、32は第一鋼板、33は第二鋼ブロック、34は第二中間体、35は第二埋め込み体、36は鋼柱空き席、37は第二鋼板、38は第二突出鋼板、39は強化鋼板、40は側支持体、41は制振装置、42はプレハブノード床スラブ、43はプレハブノード梁板、44は接続ブロック、45はプレハブ床スラブ、46はコンクリート板、47は支持鉄骨、48は連続突板である。 1 is the beam of the house, 2 is the pillar of the house, 3 is the first connection plate, 4 is the second connection plate, 5 is the outer arc plate, 6 is the inner arc plate, 7 is the outer plate, 8 is the inner plate, 9 is Axis of rotation. 10 is a connecting steel plate, 11 is a rotating steel plate, 12 is a viscoelastic material layer, 13 is a sheared steel plate, 14 is a first rotating groove, 15 is a second rotating groove, 16 is a slide rotating shaft, and 17 is above the sliding rotating shaft. Through hole, 18 is a middle gap on the connecting steel plate, 19 is a prefabricated node, 20 is a first coupling device, 21 is a second coupling device, 22 is a prefabricated stage, 23 is an outer protective cover, and 24 is a first embedded body. , 25 is a first intermediate, 26 is a first steel block, 27 is a steel column, 28 is an applied reinforcing bar, 29 is a steel nail, 30 is an extended steel plate, 31 is a first protruding steel plate, 32 is a first steel plate, 33 is The second steel block, 34 is a second intermediate body, 35 is a second embedded body, 36 is an empty steel pillar seat, 37 is a second steel plate, 38 is a second protruding steel plate, 39 is a reinforced steel plate, 40 is a side support, 41 is a vibration control device, 42 is a prefabricated node floor slab, 43 is a prefabricated floor slab De beam plate, the connection block 44, 45 is prefabricated floor slabs, 46 concrete plate, 47 supporting steel frame, 48 is a continuous veneer.

下記は図面と具体的な実施方式を結合し本発明をもっと詳しく説明する。 The following is a more detailed description of the present invention in conjunction with the drawings and specific implementation methods.

図9から図24に示されたように,梁柱節点構成と、プレハブ節点壁板と、プレハブ壁板とを含み、同じプレハブノード床スラブにとって、プレハブノード床スラブの一端は一つの梁柱ノード構造と接続し、プレハブノード床スラブのもう一端が隣接するもう一つの梁柱ノード構造と接続し、つまり隣接する二つの梁柱ノード構造がプレハブノード床スラブを通じて相互に接続する。プレハブノード床スラブとプレハブ床スラブが大体に長方形を呈して、長方形の二本の短い辺は上下両端で、長方形の二本の長い辺は側端である。プレハブ床スラブの上下両端がプレハブノード床スラブと接続し、プレハブ床スラブの側端がプレハブノード床スラブの側端または隣接するプレハブ床スラブの側端と接続する。つまりプレハブ床スラブの上端が一つのプレハブノード床スラブの側端と接続し、プレハブ床スラブの下端がもう一つのプレハブノード床スラブの側端と接続し、プレハブ床スラブの両側端が隣接するプレハブ床スラブの側端と接続する。もし端面に位置するプレハブ床スラブにとって、プレハブ床スラブの一つの側端が隣接するプレハブ床スラブの側端と接続し、プレハブ床スラブのもう一つの側端が隣接するプレハブ床スラブの側端と接続する。 As shown in FIG. 9 to FIG. 24, for the same prefabricated node floor slab, one end of the prefabricated node floor slab is one beam column node, including a beam column node configuration, a prefabricated node wallboard, and a prefabricated wallboard. Connected to the structure, the other end of the prefabricated node floor slab is connected to another adjacent beam column node structure, that is, two adjacent beam column node structures are connected to each other through the prefabricated node floor slab. The prefabricated node floor slab and the prefabricated floor slab are roughly rectangular, with the two short sides of the rectangle at the top and bottom ends, and the two long sides of the rectangle are the side ends. The upper and lower ends of the prefabricated floor slab are connected to the prefabricated node floor slab, and the side edge of the prefabricated floor slab is connected to the side edge of the prefabricated node floor slab or the side edge of the adjacent prefabricated floor slab. That is, the upper end of the prefabricated floor slab is connected to the side edge of one prefabricated node floor slab, the lower end of the prefabricated floor slab is connected to the side edge of the other prefabricated node floor slab, and both ends of the prefabricated floor slab are adjacent to each other. Connect to the side edge of the floor slab. For a prefabricated floor slab located on the end face, one side edge of the prefabricated floor slab connects to the side edge of the adjacent prefabricated floor slab and the other side edge of the prefabricated floor slab contacts the side edge of the adjacent prefabricated floor slab. Connecting.

梁柱節点構成であって、プレハブ節点と、第一の接続継手と、プレハブ段と、第二の接続継手とを含み、第一の接続継手は第一の接続体と、第一の中間体と、プレハブ節点に一体形成された第一の嵌込体とを含み、第二の接続継手は第二の接続体と、第二の中間体と、プレハブ段に一体形成された第二の嵌込体とを含み、第一の接続体は第一の中間体の一端に設けられ、第一の嵌込体は第一の中間体の他端に設けられ、第二の接続体は第二の中間体の一端に設けられ、第二の嵌込体は第二の中間体の他端に設けられ、つまり第一接続体と第一埋め込み体が別に第一中間体の両端に位置し、第二接続体が第二中間体の一端で設置され、第二埋め込み体が第二中間体のもう一端で設置され、つまり第二接続体と第二埋め込み体が別に第二中間体の両端に位置する。第一の接続体は鋼柱と鋼柱の円周側面に均一に分布された複数の第一の鋼ブロックとを含み、第二の接続体は円周方向に均一に分布された複数の第二の鋼ブロックを含み、複数の前記第二の鋼ブロックに鋼柱に嵌合される鋼柱凹部が形成され、鋼柱は前記鋼柱空位内に挿入され、相互に接触する前記第一の鋼ブロックと前記第二の鋼ブロックとはボルトによって固定され、第一接続体、第一中間体、第一埋め込み体は互いに固定される一体構造で、第二接続体、第二中間体、第二埋め込み体も互いに固定される一体構造である。 Beam column node configuration comprising a prefabricated node, a first connecting joint, a prefabricated stage, and a second connecting joint, wherein the first connecting joint is a first connecting body and a first intermediate body. And a first fitting body integrally formed at the prefabricated node, and the second connecting joint is a second fitting body, a second intermediate body, and a second fitting integrally formed at the prefabricated stage. A first connection body is provided at one end of the first intermediate body, a first fitting body is provided at the other end of the first intermediate body, and a second connection body is the second connection body. Provided at one end of the intermediate body, the second fitting body is provided at the other end of the second intermediate body, that is, the first connection body and the first embedded body are located at both ends of the first intermediate body separately, The second connecting body is installed at one end of the second intermediate body, and the second embedded body is installed at the other end of the second intermediate body, that is, the second connecting body and the second embedded body are separately provided in the second intermediate body. Located at the end. The first connection body includes a steel column and a plurality of first steel blocks uniformly distributed on a circumferential side surface of the steel column, and the second connection body includes a plurality of first connection blocks uniformly distributed in the circumferential direction. A plurality of the second steel blocks are formed with steel column recesses that are fitted to the steel columns, and the steel columns are inserted into the steel column voids and contact each other. The steel block and the second steel block are fixed by bolts, and the first connection body, the first intermediate body, and the first embedded body are integrated with each other, and the second connection body, the second intermediate body, The two embedded bodies are also an integral structure fixed to each other.

第一鋼ブロックは互いに固定される第一鋼板と第一突出鋼板を含み、第一鋼板と第一突出鋼板がL型構造を呈して、第一鋼板の一端は鋼柱で固定され、第一鋼板のもう一端は第一突出鋼板と垂直交差する。第二鋼ブロックは互いに固定される第二鋼板と第二突出鋼板を含み、第二鋼板と第二突出鋼板がL型構造を呈して、第二突出鋼板が第二鋼板の一端と垂直交差する。隣接する第一鋼板と第二鋼板はボルトを通じて固定される。第一鋼ブロックは四つがあり、第二鋼ブロックの数も四つである。鋼柱が鋼柱空き席に挿し込んだ後、一つの第一鋼ブロックは対応する第二鋼ブロックと立てかけ、立てかける第一鋼ブロックと第二鋼ブロックにとって、第一突出鋼板と第二突出鋼板の向きが逆である。 The first steel block includes a first steel plate and a first protruding steel plate that are fixed to each other, the first steel plate and the first protruding steel plate have an L-shaped structure, and one end of the first steel plate is fixed by a steel column, The other end of the steel plate intersects the first protruding steel plate perpendicularly. The second steel block includes a second steel plate and a second projecting steel plate fixed to each other, the second steel plate and the second projecting steel plate exhibit an L-shaped structure, and the second projecting steel plate perpendicularly intersects one end of the second steel plate. . The adjacent first steel plate and second steel plate are fixed through bolts. There are four first steel blocks and there are four second steel blocks. After the steel column is inserted into the empty column, one first steel block leans against the corresponding second steel block, and for the first steel block and the second steel block to lean against, the first protruding steel plate and the second protruding steel plate The direction of is opposite.

梁柱ノード構造も強化鋼板と側支持体を含み、側支持体が弧形構造を呈して、側支持体の一端はボルトを通じてある第一鋼板で固定され、側支持体のもう一端はボルトを通じてこの第一鋼板と隣接する第二鋼板また第一鋼板で固定される。つまり互いに隣接する第一鋼板と第二鋼板が一組の隣接構造を形成し、本発明の中に互いに隣接する第一鋼板と第二鋼板が四組の隣接構造を形成し、側支持体の一端はある組の隣接構造の第一鋼板で固定され、側支持体のもう一端はもう一組の隣接構造の第一鋼板また第二鋼板で固定される。互いに隣接する第一鋼板と第二鋼板にとって、第一突出鋼板と第二突出鋼板が互いに触る。補強鋼板はボルトによって第一の突出鋼板の端面と第二の突出鋼板の端面に固定される。 The beam column node structure also includes a reinforced steel plate and a side support, the side support has an arc-shaped structure, one end of the side support is fixed by a first steel plate through a bolt, and the other end of the side support is through a bolt. It fixes with the 2nd steel plate adjacent to this 1st steel plate, or a 1st steel plate. That is, the first steel plate and the second steel plate adjacent to each other form a set of adjacent structures, and the first steel plate and the second steel plate adjacent to each other in the present invention form four sets of adjacent structures, One end is fixed with a first steel plate of a set of adjacent structures, and the other end of the side support is fixed with a first steel plate or a second steel plate of another set of adjacent structures. For the first steel plate and the second steel plate adjacent to each other, the first protruding steel plate and the second protruding steel plate touch each other. The reinforcing steel plate is fixed to the end surface of the first protruding steel plate and the end surface of the second protruding steel plate by bolts.

第一の中間体の一端の周りは延伸鋼板から延出され、第一の嵌込体はH鋼状を呈しており、第一の嵌込体の側面に複数の鋼釘が設けられ、第一の中間体の端面に複数の鋼釘と複数本の受力鋼筋とが設けられ、第一の嵌込体の側面上における鋼釘と第一の中間体の端面上における鋼釘とは相互に直交し、第一埋め込み体、応力鉄筋、鋼釘は第一中間体の同じ端にあり、第一の中間体と第二の中間体とは同様の構成を有し、第一の嵌込体と第二の嵌込体とは同様の構成を有し、つまり第二中間体一端の周囲に延長鋼板が伸びて、第二埋め込み体がI型鋼を呈して、第二埋め込み体の側面で多くの鋼釘が設置され、第二中間体の端面の上で多くの鋼釘と応力鉄筋が設置され、多くの鋼釘と応力鉄筋が互いに平行し、第二埋め込み体の側面の鋼釘と第二中間体端面の鋼釘と互いに直交し、第二埋め込み体、応力鉄筋、鋼釘は第二中間体の同じ端にある。 The one end of the first intermediate body is extended from the drawn steel plate, the first fitting body has an H steel shape, a plurality of steel nails are provided on the side surface of the first fitting body, A plurality of steel nails and a plurality of force-receiving steel bars are provided on the end face of one intermediate body, and the steel nails on the side face of the first fitting body and the steel nails on the end face of the first intermediate body are mutually The first embedded body, the stress rebar, and the steel nail are at the same end of the first intermediate body, the first intermediate body and the second intermediate body have the same configuration, and the first fitting The body and the second fitting body have the same configuration, that is, the extended steel plate extends around one end of the second intermediate body, the second embedded body exhibits I-shaped steel, and the side surface of the second embedded body Many steel nails are installed, many steel nails and stress rebars are installed on the end face of the second intermediate body, many steel nails and stress rebars are parallel to each other, and the steel nails on the side of the second embedded body second Orthogonal to each other with steel nail between body end face, the second buried body, stress rebar, steel nails are in the same end of the second intermediate.

第一の中間体と第二の中間体の間に第一の接続体と第二の接続継手を保護するための保護カバーが設けられる。 A protective cover for protecting the first connection body and the second connection joint is provided between the first intermediate body and the second intermediate body.

プレハブノードは注入し成形されかつ互いに垂直に交差するプレハブノード柱とプレハブノード梁を含み、プレハブ段はプレハブ柱またプレハブ梁で、プレハブノードが第一連結装置と一体に注入され、プレハブ段が第二連結装置と一体に注入される。プレハブノードと第一連結装置が事前に工場で注入し成形され、つまりまずは工場で全体がプレハブされ、一つのプレハブノードは対応して多くの第一連結装置とプレハブし成形される。プレハブ柱またプレハブ梁と第二連結装置が事前に工場で注入し成形され、つまりまずは工場で全体がプレハブされ、一本のプレハブ段は対応して二つの第二連結装置とプレハブし成形される。全体をプレハブさせるプレハブノードとプレハブ段を重ね継ぎ、プレハブ梁またプレハブ柱と第二連結装置がプレハブし成形された後、同時にプレハブノードも第二接続体とプレハブし成形された後、第一接続体と第二連結装置を組み立て接続し、一つの支持体系を構成することができる。図19に示す通りである。 The prefabricated node includes a prefabricated node column and a prefabricated node beam that are injected and molded and perpendicularly intersect with each other, the prefabricated step is a prefabricated column or prefabricated beam, the prefabricated node is injected integrally with the first coupling device, It is injected as one piece with the two connecting devices. The prefab node and the first coupling device are pre-injected and molded at the factory, that is, first the whole is prefabricated at the factory, and one prefab node is correspondingly prefabricated with many first coupling devices. The prefabricated column or beam and the second connecting device are pre-injected and molded in the factory, that is, the whole is first prefabricated in the factory, and one prefabricated stage is prefabricated with two corresponding second connecting devices. . After prefabricated prefabricated nodes and prefabricated stages, the prefabricated beams or prefabricated columns and the second connecting device are prefabricated and molded, and at the same time the prefabricated nodes are prefabricated and molded with the second connector, and then the first connection The body and the second coupling device can be assembled and connected to form a single support system. As shown in FIG.

プレハブ壁板とプレハブ節点壁板はともに支持鋼骨に一体形成されたコンクリート板とを含み、支持鋼骨に鋼釘と受力鋼筋が内設され、コンクリートが鉄骨で注入され、コンクリートと支持鉄骨を一つの全体にさせ、鋼釘と応力鉄筋が接続を強化する作用を果たす。支持鋼骨の周りの側壁に接続突板が設けられ、プレハブ節点梁の上端にプレハブ節点梁板が設けられ、プレハブ節点梁板の側壁に接続突板が設けられ、プレハブ節点梁板の接続突板とプレハブ節点壁板の接続突板とは接続ブロックによって固定され、接続ブロックがプレハブノード梁板の接続突板とプレハブノード床スラブの接続突板で重ねて置いて、ボルトを通じて相互に固定される。プレハブ節点壁板の接続突板とプレハブ壁板の接続突板とはボルトによって固定され、隣り合う二個のプレハブ壁板の接続突板はボルトによって固定される、プレハブノード床スラブとプレハブ梁は一体に注入し成形される。プレハブ梁はプレハブノード床スラブを支持する。プレハブノード梁板もプレハブノード床スラブと同じ構造を使うことができる。 Both the prefabricated wall plate and the prefabricated nodal wall plate include a concrete plate integrally formed on the supporting steel frame, and a steel nail and a receiving steel bar are installed in the supporting steel frame, the concrete is injected with the steel frame, and the concrete and the supporting steel frame The steel nails and the stress reinforce reinforce the connection. A connection projecting plate is provided on the side wall around the supporting steel frame, a prefabricated node beam plate is provided on the upper end of the prefabricated node beam, a connection projecting plate is provided on the side wall of the prefabricated node beam plate, and the connection projection plate and the prefab of the prefabricated node beam plate are provided. The connection veneer of the node wall plate is fixed by a connection block, and the connection block is placed on the connection veneer of the prefab node beam plate and the connection veneer of the prefab node floor slab, and is fixed to each other through bolts. The connecting projection plate of the prefabricated node wall plate and the connecting projection plate of the prefabricated wall plate are fixed by bolts, and the connecting projection plate of two adjacent prefabricated wall plates are fixed by bolts, the prefabricated node floor slab and the prefabricated beam are injected integrally Then molded. The prefabricated beam supports the prefabricated node floor slab. The prefabricated node beam plate can use the same structure as the prefabricated node floor slab.

図20に示されたように、プレハブノードで一つの制振装置を取り付けることができ、全体の支持体系に衝撃吸収の効果を与える。下記に制振装置について詳しく説明する。 As shown in FIG. 20, one damping device can be attached at the prefabricated node, giving an impact absorbing effect to the entire support system. The vibration damping device will be described in detail below.

説明を分かりやすくするため、下記の方位を次のように定める。すなわち、下記の上下左右前後は、図1の投影関係の上下左右前後と一致する。 In order to make the explanation easy to understand, the following directions are defined as follows. That is, the following up / down / left / right front / rear coincides with up / down / left / right front / rear of the projection relationship in FIG.

図1から図7に示されたように、制振装置は家屋梁柱ノードに用いて、制振装置外側曲面板、内側曲面板、外板、内板、粘弾性材料層、回転アセンブリ、せん断鋼板、第一接続板、第二接続板、外側板、内側板、粘弾性材料層、せん断鋼板を全部垂直方向に設置し、粘弾性材料層は通常扇形でり、正面から見ると、外側曲面板の円心と内側曲面板の円心が同じ点にある。第一接続板と第二接続板はプレハブノードで固定され、つまりもし第一接続板がプレハブノード柱で固定されたら、第二接続板がプレハブノード梁で固定される。外側曲面板の一端が(図1の外側曲面板の下端)第一連結板と相互固定され、外側曲面板の他端(図1の外側曲面板の上端)と第二連結板の間に隙間があり、外側曲面板と第二連結板は接触していない。内側曲面板の一端(図1の内側曲面板の上端)は第二連結板と相互固定し、内側曲面板の他端(図1の内側曲面板の下端)と第一連結板の間に隙間があり、内側曲面板と第一連結板は接触していない。外側板は、外側曲面板の側面(前面)に固定され、外板と第二接続板の間に隙間があり、外側曲面板の左側と第二接続板は接触しない。内側曲面板の側面(後面)に固定され,内板と第一接続板の間に隙間があり、内側板の下側と第一接続板は接触しない。外板と内板が外側曲面板の両側にそれぞれ位置され、すなわち、外側板は外側曲面板の前端に位置しており、内側板は外側曲面板の後に位置しており、内側板も外側板の後に位置している。回転アセンブリが回転軸、接続鋼板、マルチブロック回転鋼板を有し、接続鋼板と回転鋼板は一体に形成されている,回転軸は各鋼板に対して接続することができる。回転軸を連結鋼板と相互固定することも可能であり、外側曲面板が回転する時、外側曲面板の作用により連結鋼板がスリップシャフトをめぐって軸線回転を行い、連結鋼板がスリップシャフトに対してスライドするように、回転アセンブリーを設計しなければならない。回転軸を外側曲面板に設置し、連結鋼板の一端(図1の連結鋼板の上端)が回転軸と相互連結し、複数の回転鋼板を連結鋼板の他端(図1の連結鋼板の下端)に設置し、スリップシャフトを内側曲面板に回転自在に設置し、スリップシャフトに対してスライドする連結鋼板がスリップシャフトを貫通し、二つの粘弾性材料層の間に回転鋼板やせん断鋼板を設置し、せん断鋼板と第二連結板を相互固定し、外側板と粘弾性材料層を相互固定し、内側板と粘弾性材料層を相互固定する。粘弾性材料層と回転鋼板は、第一連結板および第二連結板と接触しない。 As shown in Fig. 1 to Fig. 7, the damping device is used for house beam column node, damping device outer curved plate, inner curved plate, outer plate, inner plate, viscoelastic material layer, rotating assembly, shear The steel plate, the first connection plate, the second connection plate, the outer plate, the inner plate, the viscoelastic material layer, and the sheared steel plate are all installed in the vertical direction, and the viscoelastic material layer is generally fan-shaped. The center of the face plate and the center of the inner curved plate are at the same point. The first connection plate and the second connection plate are fixed by a prefab node, that is, if the first connection plate is fixed by a prefab node pillar, the second connection plate is fixed by a prefab node beam. One end of the outer curved plate is fixed to the first connecting plate (the lower end of the outer curved plate in FIG. 1), and there is a gap between the other end of the outer curved plate (the upper end of the outer curved plate in FIG. 1) and the second connecting plate The outer curved plate and the second connecting plate are not in contact. One end of the inner curved plate (the upper end of the inner curved plate in FIG. 1) is fixed to the second connecting plate, and there is a gap between the other end of the inner curved plate (the lower end of the inner curved plate in FIG. 1) and the first connecting plate. The inner curved plate and the first connecting plate are not in contact. The outer plate is fixed to the side surface (front surface) of the outer curved plate, there is a gap between the outer plate and the second connecting plate, and the left side of the outer curved plate and the second connecting plate do not contact each other. It is fixed to the side surface (rear surface) of the inner curved plate, there is a gap between the inner plate and the first connection plate, and the lower side of the inner plate and the first connection plate do not contact each other. The outer plate and the inner plate are located on both sides of the outer curved plate, that is, the outer plate is located at the front end of the outer curved plate, the inner plate is located after the outer curved plate, and the inner plate is also the outer plate. Is located after. The rotating assembly includes a rotating shaft, a connecting steel plate, and a multi-block rotating steel plate. The connecting steel plate and the rotating steel plate are integrally formed. The rotating shaft can be connected to each steel plate. It is also possible to mutually fix the rotating shaft with the connecting steel plate. When the outer curved plate rotates, the connecting steel plate rotates around the slip shaft by the action of the outer curved plate, and the connecting steel plate slides with respect to the slip shaft. As such, the rotating assembly must be designed. The rotating shaft is installed on the outer curved plate, and one end of the connecting steel plate (the upper end of the connecting steel plate in FIG. 1) is interconnected with the rotating shaft, and the other rotating steel plate is connected to the other end of the connecting steel plate (the lower end of the connecting steel plate in FIG. 1). The slip shaft is rotatably installed on the inner curved plate, the connecting steel plate that slides against the slip shaft penetrates the slip shaft, and the rotating steel plate or shear steel plate is installed between the two viscoelastic material layers. The shear plate and the second connecting plate are fixed to each other, the outer plate and the viscoelastic material layer are fixed to each other, and the inner plate and the viscoelastic material layer are fixed to each other. The viscoelastic material layer and the rotating steel plate do not contact the first connecting plate and the second connecting plate.

図5に示されたように、外側曲面板に第一回転槽が設置され、回転軸が第一回転槽に設置され。実際には、回転軸が外側曲面板に対して回転でき、回転軸も外側曲面板と相互固定することができる。また、外側曲面板に二つの軸受けを設置してもよく、二つの軸受けを回転軸の両端に覆設する。 As shown in FIG. 5, the first rotating tank is installed on the outer curved plate, and the rotating shaft is installed in the first rotating tank. In practice, the rotating shaft can rotate relative to the outer curved plate, and the rotating shaft can also be fixed to the outer curved plate. Further, two bearings may be installed on the outer curved plate, and the two bearings are covered on both ends of the rotating shaft.

図5に示されたように、内側曲面板に第二回転槽が設置され、スリップシャフトが回転式で第二回転槽内に設置され、内側曲面板に二つの軸受けを設置してもよく、二つの軸受けをスリップシャフトの両端に覆設する。 As shown in FIG. 5, the second rotating tank is installed on the inner curved plate, the slip shaft is installed in the second rotating tank in a rotary manner, and two bearings may be installed on the inner curved plate, Two bearings are installed on both ends of the slip shaft.

図7に示されたように、スリップシャフトに接続鋼板の貫通に用いる貫通孔があり。連結鋼板は板状であり、スリップシャフトに正方形穴を設置し、連結鋼板がスリップシャフトの正方形穴を貫通する。連結鋼板が揺れ動くと、スリップシャフトを作動させて、内側曲面板に対して回転させ、連結鋼板がスリップシャフトに対してスライドする。 As shown in FIG. 7, the slip shaft has a through hole used to penetrate the connecting steel plate. The connecting steel plate is plate-shaped, and a square hole is provided in the slip shaft, and the connecting steel plate penetrates the square hole of the slip shaft. When the connecting steel plate swings, the slip shaft is operated to rotate with respect to the inner curved plate, and the connecting steel plate slides with respect to the slip shaft.

図6に示されたように、接続鋼板の端部(図1の連結鋼板の下端)に複数のノッチ付き槽が設置され、マルチブロック回転鋼板が接続鋼板のノッチ上に象眼され、図8に示されたように、連結鋼板にノッチ付き槽を設置しなくてもよく、溶接やその他方式で連結鋼板と回転鋼板の接続部位を固定する。 As shown in FIG. 6, a plurality of notched tanks are installed at the end of the connecting steel plate (the lower end of the connecting steel plate in FIG. 1), and the multi-block rotating steel plate is inlaid on the notch of the connecting steel plate. As shown, it is not necessary to install a notched tank in the connecting steel plate, and the connecting portion between the connecting steel plate and the rotating steel plate is fixed by welding or other methods.

図6に示されたように、接続鋼板にせん断鋼板の貫通に用いる中部ノッチが設置され。せん断鋼板と回転アセンブリーの間に相対変位が発生すると、せん断鋼板が連結鋼板の中部ノッチを貫通して、せん断鋼板が連結鋼板に接触することを避けられる。 As shown in FIG. 6, the connecting steel plate is provided with a middle notch used for penetration of the shear steel plate. When a relative displacement occurs between the sheared steel plate and the rotating assembly, the sheared steel plate can be prevented from penetrating through the middle notch of the connecting steel plate and coming into contact with the connecting steel plate.

二つの粘弾性材料層の間に一つのせん断鋼板や一つの回転鋼板を設置しなければならない、本発明では、粘弾性材料層が4個あり、せん断鋼板が1個あり、回転鋼板が2個あり、粘弾性材料層、回転鋼板、粘弾性材料層、せん断鋼板、粘弾性材料層、回転鋼板、粘弾性材料層が前から後への順に並ばれ、粘弾性材料層、せん断鋼板、回転鋼板の間の接続方式が硫化接続であり、粘弾性材料層と回転鋼板は、第一連結板および第二連結板と接触しなく、最前面の粘弾性材料層が外側板と相互固定され、最後面の粘弾性材料層が内側板と相互固定する。実際に使用する時は、実際の状況に基づいて粘弾性材料層、せん断鋼板、回転鋼板の数量を選択する。 One shear steel plate or one rotating steel plate must be installed between two viscoelastic material layers. In the present invention, there are four viscoelastic material layers, one shear steel plate, and two rotating steel plates. Yes, viscoelastic material layer, rotating steel plate, viscoelastic material layer, sheared steel plate, viscoelastic material layer, rotating steel plate, viscoelastic material layer are arranged in order from front to back, viscoelastic material layer, sheared steel plate, rotating steel plate The connection method between the two is a sulfide connection, the viscoelastic material layer and the rotating steel plate are not in contact with the first connecting plate and the second connecting plate, the frontmost viscoelastic material layer is mutually fixed with the outer plate, and finally The viscoelastic material layer of the surface is fixed to the inner plate. When actually used, the quantity of viscoelastic material layer, sheared steel plate, and rotating steel plate is selected based on the actual situation.

通常、住宅の梁は水平に設置し、住宅の柱は垂直に設置し、住宅の梁と柱のノードが垂直の状況で、つまりプレハブノード梁が水平に設置され、プレハブノード柱が垂直に設置される。この時、第一接続板が水平に固定され、第二接続板が固定に固定される。家屋の梁に一定の傾斜角度がある時、第一接続板と第二接続板が回転支承を通じて接続することができる。回転支承は第一接続板に設置される第一支承と第二接続板に設置される第二支承を含み、第二支承が回転式で第一支承の上で取り付けられる。第一支承と第二支承の取付方式は軸と軸受の組立方式と類似しており、第一支承と第二支承はそのほかの方式を使って取り付けることができる。 Typically, the residential beams are installed horizontally, the residential columns are installed vertically, and the residential beams and column nodes are vertical, that is, the prefabricated node beams are installed horizontally, and the prefabricated node columns are installed vertically. Is done. At this time, the first connection plate is fixed horizontally and the second connection plate is fixedly fixed. When the beam of the house has a certain inclination angle, the first connection plate and the second connection plate can be connected through the rotating support. The rotary bearing includes a first bearing installed on the first connecting plate and a second bearing installed on the second connecting plate, and the second bearing is rotary and attached on the first bearing. The mounting method of the first and second bearings is similar to the shaft and bearing assembly method, and the first and second bearings can be mounted using other methods.

地震が起こって、家屋の梁と家屋の柱は相対的な回転が起こる時、例えば、家屋の梁が上に回転する時、家屋の梁が上への回転変位また回転傾向が第一接続板を上に回転させ、第一接続板が外弧板を連れて上に回転し、外弧板が接続鋼板を押してスライド回転軸の軸線に沿って回転し、同時に接続鋼板がスライド回転軸と相対的にスライドする。更には回転鋼板と粘弾性材料層の間に相対角変位が発生して、せん断鋼板、回転鋼板および粘弾性材料層の三者の間に相対角変位が発生し、粘弾性材料層が変形し、粘弾性材料層が回転鋼板とせん断鋼板の間で変形し、地震エネルギーを吸収して、衝撃吸収効果を得る。外側板を第一連結板に固定し、外側板と最前面の粘弾性材料層が互いに緊密に連結しているため、第一連結板の回転によって外側板が回転し始め、最前面の粘弾性材料層が変形し、より良い衝撃吸収効果を得る。 When an earthquake occurs and the house beam and the house column rotate relative to each other, for example, when the house beam rotates up, the house beam rotates upward or the tendency to rotate is the first connecting plate The first connecting plate rotates upward with the outer arc plate, the outer arc plate pushes the connecting steel plate and rotates along the axis of the slide rotation axis, and at the same time the connecting steel plate is relative to the slide rotation axis. Slide. Furthermore, a relative angular displacement occurs between the rotating steel plate and the viscoelastic material layer, and a relative angular displacement occurs between the shear steel plate, the rotating steel plate, and the viscoelastic material layer, and the viscoelastic material layer is deformed. The viscoelastic material layer is deformed between the rotating steel plate and the shearing steel plate to absorb the seismic energy and obtain an impact absorbing effect. The outer plate is fixed to the first connecting plate, and the outer plate and the viscoelastic material layer on the foreground are intimately connected to each other. The material layer is deformed and a better shock absorbing effect is obtained.

また、家屋の柱が下に回転する時、家屋の柱が下への回転変位また回転傾向が第二接続板を下に回転させ、第二接続板が剪断鋼板と内弧板を連れて下に回転し、内弧板が接続鋼板を押してスライド回転軸の軸線に沿って回転し、同時に接続鋼板がスライド回転軸と相対的にスライドする。せん断鋼板、回転鋼板および粘弾性材料層の三者の間に相対角変位が発生し、粘弾性材料層が変形し、粘弾性材料層が回転鋼板とせん断鋼板の間で変形し、地震エネルギーを吸収して、衝撃吸収効果を得る。内側板を第二連結板に固定し、内側板と最後面の粘弾性材料層が互いに緊密に連結しているため、第二連結板の回転によって内側板が回転し、最後面の粘弾性材料層が変形し、より良い衝撃吸収効果を得る。 Also, when the house column rotates down, the house column rotates downward or the rotation tendency causes the second connection plate to rotate down, and the second connection plate moves down with the shear steel plate and the inner arc plate. The inner arc plate pushes the connecting steel plate and rotates along the axis of the slide rotation shaft, and at the same time the connecting steel plate slides relative to the slide rotation shaft. A relative angular displacement occurs between the shear steel plate, rotating steel plate, and viscoelastic material layer, the viscoelastic material layer is deformed, the viscoelastic material layer is deformed between the rotating steel plate and the shear steel plate, and seismic energy is reduced. Absorb and get shock absorption effect. Since the inner plate is fixed to the second connecting plate and the inner plate and the viscoelastic material layer on the rearmost surface are closely connected to each other, the inner plate is rotated by the rotation of the second connecting plate, and the viscoelastic material on the rearmost surface is rotated. The layer is deformed and a better shock absorbing effect is obtained.

外側板と第二連結板の間に十分な隙間があり、内側板と第一連結板の間に十分な隙間があるため、地震が発生した時、外側板が第二連結板と接触せず、内側板が第一連結板に接触せず、ダンパーの故障を避けられる。 There is a sufficient gap between the outer plate and the second connecting plate, and there is a sufficient gap between the inner plate and the first connecting plate, so when an earthquake occurs, the outer plate does not contact the second connecting plate, and the inner plate A failure of the damper can be avoided without contacting the first connecting plate.

このダンパーは拡大効果があり、第一連結板と第二連結板の間に一点角変位が発生すると、回転鋼板の回転を通じて、回転鋼板と粘弾性材料層の間にかなり大きな相対角変位が発生するが、言い換えれば、回転鋼板と粘弾性材料層の間の変位が拡大され、より良い衝撃吸収効果を得る。 This damper has an expansion effect, and if a single point angular displacement occurs between the first connecting plate and the second connecting plate, a considerably large relative angular displacement occurs between the rotating steel plate and the viscoelastic material layer through the rotation of the rotating steel plate. In other words, the displacement between the rotating steel plate and the viscoelastic material layer is enlarged, and a better shock absorbing effect is obtained.

前記実施形態は、本発明のかなり優れた実施方式であるが、これら実施形態を使用した目的は、本発明を説明するためであり、本発明を限定するのではない。本発明の原則と原理を違反しないことを前提に行った変更、修正、代替、簡略化は、全部同等の置換方式として取り扱うものとし、全部本発明の保護範囲に含まれる。 The above-described embodiments are considerably superior implementation modes of the present invention, but the purpose of using these embodiments is to explain the present invention and not to limit the present invention. All changes, modifications, substitutions and simplifications made on the assumption that the principles and principles of the present invention are not violated shall be treated as equivalent replacement methods, and all fall within the protection scope of the present invention.

1は家屋のはり、2は家屋の柱、3は第一接続板、4は第二接続板、5は外弧板、6は内弧板、7は外側板、8は内側板、9は回転軸。10は接続鋼板、11は回転鋼板、12は粘弾性材料層、13は剪断鋼板、14は第一回転溝、15は第二回転溝、16は滑動回転軸、17はスライド回転軸の上のスルーホール、18は接続鋼板の上の中部のギャップ、19はプレハブノード、20は第一連結装置、21は第二連結装置、22はプレハブ段、23は外保護カバー、24は第一埋め込み体、25は第一中間体、26は第一鋼ブロック、27は鋼柱、28は受力鋼筋、29は鋼釘、30は延伸鋼板、31は第一突出鋼板、32は第一鋼板、33は第二鋼ブロック、34は第二中間体、35は第二埋め込み体、36は鋼柱空き席、37は第二鋼板、38は第二突出鋼板、39は補強鋼板、40は側方ホルダー(側支持子)、41は減衰器、42はプレハブノード床スラブ、43はプレハブノード梁板、44は接続ブロック、45はプレハブ床スラブ、46はコンクリート板、47は支持鉄骨、48は連続突板である。なお、鋼柱凹部は図示していない。 1 is the beam of the house, 2 is the pillar of the house, 3 is the first connection plate, 4 is the second connection plate, 5 is the outer arc plate, 6 is the inner arc plate, 7 is the outer plate, 8 is the inner plate, 9 is Axis of rotation. 10 is a connecting steel plate, 11 is a rotating steel plate, 12 is a viscoelastic material layer, 13 is a sheared steel plate, 14 is a first rotating groove, 15 is a second rotating groove, 16 is a sliding rotating shaft , and 17 is a sliding rotating shaft. Through hole, 18 is a middle gap on the connecting steel plate, 19 is a prefabricated node, 20 is a first coupling device, 21 is a second coupling device, 22 is a prefabricated stage, 23 is an outer protective cover, and 24 is a first embedded body. , 25 is a first intermediate, 26 is a first steel block, 27 is a steel column, 28 is a receiving steel bar , 29 is a steel nail, 30 is a drawn steel plate , 31 is a first protruding steel plate, 32 is a first steel plate, 33 Is a second steel block, 34 is a second intermediate body, 35 is a second embedded body, 36 is an empty steel pillar seat, 37 is a second steel plate, 38 is a second protruding steel plate, 39 is a reinforcing steel plate , and 40 is a side holder. (Side support) , 41 is an attenuator , 42 is a prefabricated node floor slab, 43 is A prefabricated node beam plate, 44 is a connection block, 45 is a prefabricated floor slab, 46 is a concrete plate, 47 is a supporting steel frame, and 48 is a continuous protruding plate. The steel column recess is not shown.

Claims (2)

梁柱節点構成であって、プレハブ節点と、第一の接続継手と、プレハブ段と、第二の接続継手とを含み、前記第一の接続継手は第一の接続体と、第一の中間体と、前記プレハブ節点に一体形成された第一の嵌込体とを含み、前記第二の接続継手は第二の接続体と、第二の中間体と、前記プレハブ段に一体形成された第二の嵌込体とを含み、前記第一の接続体は前記第一の中間体の一端に設けられ、前記第一の嵌込体は前記第一の中間体の他端に設けられ、前記第二の接続体は前記第二の中間体の一端に設けられ、前記第二の嵌込体は前記第二の中間体の他端に設けられ、前記第一の接続体は鋼柱と前記鋼柱の円周側面に均一に分布された複数の第一の鋼ブロックとを含み、前記第二の接続体は円周方向に均一に分布された複数の第二の鋼ブロックを含み、複数の前記第二の鋼ブロックに前記鋼柱に嵌合される鋼柱凹部が形成され、前記鋼柱は前記鋼柱空位内に挿入され、相互に接触する前記第一の鋼ブロックと前記第二の鋼ブロックとはボルトによって固定され、前記第一の鋼ブロックは相互に固定される前記第一の鋼板と第一の突出鋼板とを含み、前記第一の鋼板の一端は前記鋼柱に固定され、前記第一の鋼板の他側は前記第一の突出鋼板と直交し、前記第二の鋼ブロックは相互に固定される前記第二の鋼板と第二の突出鋼板とを含み、前記第二の突出鋼板は前記第二の鋼板の一端と直交し、相互に接触する前記第一の鋼板と前記第二の鋼板とは前記ボルトに固定され、前記梁柱節点構成はさらに補強鋼板と側方ホルダーとを含み、前記側方ホルダーの一端はいずれかの前記第一の鋼板に固定され、前記側支持子の他端はこのいずれかの前記第一の鋼板と隣り合う前記第二の鋼板又は前記第一の鋼板に固定され、前記補強鋼板は前記ボルトによって前記第一の突出鋼板の端面と前記第二の突出鋼板の端面に固定され、前記第一の中間体の一端の周りは延伸鋼板から延出され、前記第一の嵌込体はH鋼状を呈しており、前記第一の嵌込体の側面に複数の鋼釘が設けられ、前記第一の中間体の端面に複数の前記鋼釘と複数本の受力鋼筋とが設けられ、前記第一の嵌込体の側面上における前記鋼釘と前記第一の中間体の端面上における前記鋼釘とは相互に直交し、前記第一の中間体と前記第二の中間体とは同様の構成を有し、前記第一の嵌込体と前記第二の嵌込体とは同様の構成を有し、前記プレハブ節点は注入形成され且つ相互に直交するプレハブ節点柱とプレハブ節点梁を含み、プレハブ段はプレハブ柱又はプレハブ梁であり、前記プレハブ節点は前記第一の接続継手と一体に注入形成され、前記プレハブ段は前記第二の接続継手と一体に注入形成され、前記第一の中間体と前記第二の中間体の間に前記第一の接続体と前記第二の接続継手を保護するための保護カバーが設けられ、前記プレハブ節点に減衰器が取り付けられ、前記減衰器は外弧板と、内弧板と、外側板と、内側板と、粘弾性材料層と、回転部品と、せん断鋼板と、第一の接続板と、第二の接続板と、滑動回転軸とを含み、第一の接続板及び第二の接続板は前記プレハブ節点に固定され、前記外弧板の一端と前記第一の接続板とは相互に固定され、前記外弧板の他端と前記第二の接続板の間に隙間が設けられ、前記内弧板の一端と前記第二の接続板とは相互に固定され、前記内弧板の他端と前記第一の接続板の間に隙間が設けられ、前記外側板は外弧板の側端面に設けられ、前記外側板と前記第二の接続板の間に隙間が設けられ、前記内側板は前記内弧板の側端面に設けられ、前記内側板と前記第一の接続板の間に隙間が設けられ、前記外側板と前記内側板がそれぞれ前記外弧板の両側に位置し、前記回転部品は回転軸と、接続鋼板と、複数個の回転鋼板とを含み、前記回転軸は前記外弧板に取り付けられ、前記接続鋼板の一端は前記回転軸と接触され、複数個の前記回転鋼板は前記接続鋼板の他端に設けられ、前記滑動回転軸は前記内弧板に回転的に取り付けられ、前記滑動回転軸に対して滑動する前記接続鋼板は前記滑動回転軸に挿通し、二枚の前記粘弾性材料層の間に前記回転鋼板又は前記せん断鋼板が設けられ、前記せん断鋼板と前記第二の接続板とは相互に固定され、前記外側板と一方の前記粘弾性材料層とは相互に固定され、前記内側板と他方の前記粘弾性材料層とは相互に固定され、前記外弧板に前記第一の回転溝が設けられ、前記回転軸は前記第一の回転溝内に設置され、前記内弧板に前記第二の回転溝が設けられ、前記滑動回転軸は前記第二の回転溝内に回転的に設置され、前記滑動回転軸に前記接続鋼板を挿通させる挿通孔が設けられ、前記接続鋼板の端部に複数の欠口が設けられ、複数個の前記回転鋼板は前記接続鋼板の欠口に嵌合され、前記接続鋼板に前記せん断鋼板を挿通させる中部欠口が設けられ、前記第一の接続板と前記第二の接続板とが回転支座によって接続され、前記回転支座は前記第一の接続板に設けられる第一の支座と前記第二の接続板に設けられる第二の支座とを含み、前記第二の支座は前記第一の支座に回転的に取り付けられる、ことを特徴とする梁柱節点構成。 Beam column node configuration comprising a prefabricated node, a first connecting joint, a prefabricated step, and a second connecting joint, wherein the first connecting joint is a first connecting body and a first intermediate A first fitting body integrally formed with the prefabricated node, and the second connection joint is integrally formed with the second connection body, the second intermediate body, and the prefabricated stage. A first fitting body provided at one end of the first intermediate body, and the first fitting body provided at the other end of the first intermediate body, The second connecting body is provided at one end of the second intermediate body, the second fitting body is provided at the other end of the second intermediate body, and the first connecting body is a steel column and A plurality of first steel blocks uniformly distributed on a circumferential side surface of the steel column, and the second connecting body includes a plurality of second steel blocks uniformly distributed in the circumferential direction. A plurality of the second steel blocks are formed with steel column recesses that are fitted into the steel columns, and the steel columns are inserted into the steel column voids and contact each other. The block and the second steel block are fixed by bolts, the first steel block includes the first steel plate and the first protruding steel plate fixed to each other, and one end of the first steel plate is Fixed to the steel column, the other side of the first steel plate is orthogonal to the first protruding steel plate, and the second steel block is fixed to each other, the second steel plate and the second protruding steel plate The second protruding steel plate is orthogonal to one end of the second steel plate, the first steel plate and the second steel plate contacting each other are fixed to the bolt, and the beam column node configuration is Furthermore, a reinforcing steel plate and a side holder are included, and one end of the side holder is either of the first The other end of the side support is fixed to the second steel plate or the first steel plate adjacent to any one of the first steel plates, and the reinforcing steel plate is fixed to the first steel plate by the bolt. Fixed to the end surface of the projecting steel plate and the end surface of the second projecting steel plate, one end of the first intermediate body is extended from the stretched steel plate, and the first fitting body has an H steel shape A plurality of steel nails are provided on a side surface of the first fitting body, and a plurality of the steel nails and a plurality of force-receiving steel reinforcing bars are provided on an end surface of the first intermediate body. The steel nail on the side surface of the fitting body and the steel nail on the end surface of the first intermediate body are orthogonal to each other, and the first intermediate body and the second intermediate body have the same configuration. The first fitting body and the second fitting body have the same configuration, and the prefabricated node is formed by injection and A prefabricated nodal column and a prefabricated nodal beam, wherein the prefabricated step is a prefabricated post or prefabricated beam, the prefabricated node is integrally formed with the first connection joint, and the prefabricated step is formed by the second connection. A protective cover for protecting the first connecting body and the second connecting joint is formed between the first intermediate body and the second intermediate body; An attenuator is attached to the node, and the attenuator includes an outer arc plate, an inner arc plate, an outer plate, an inner plate, a viscoelastic material layer, a rotating component, a shear steel plate, and a first connecting plate. The first connecting plate and the second connecting plate are fixed to the prefabricated nodes, and one end of the outer arc plate and the first connecting plate are mutually connected. And a gap is provided between the other end of the outer arc plate and the second connection plate. One end of the inner arc plate and the second connection plate are fixed to each other, a gap is provided between the other end of the inner arc plate and the first connection plate, and the outer plate is an outer arc plate. Provided on a side end surface of the inner arc plate, and a gap is provided between the outer plate and the second connection plate. The inner plate is provided on a side end surface of the inner arc plate, and a gap is provided between the inner plate and the first connection plate. The outer plate and the inner plate are respectively located on both sides of the outer arc plate, the rotating component includes a rotating shaft, a connecting steel plate, and a plurality of rotating steel plates, and the rotating shaft is the outer plate. Attached to the arc plate, one end of the connecting steel plate is in contact with the rotating shaft, a plurality of the rotating steel plates are provided at the other end of the connecting steel plate, and the sliding rotating shaft is rotationally attached to the inner arc plate The connecting steel plate sliding with respect to the sliding rotation shaft is inserted through the sliding rotation shaft. The rotating steel plate or the shearing steel plate is provided between the two viscoelastic material layers, the shearing steel plate and the second connection plate are fixed to each other, and the outer plate and one of the viscoelastic material layers Are fixed to each other, the inner plate and the other viscoelastic material layer are fixed to each other, the outer arc plate is provided with the first rotating groove, and the rotating shaft is the first rotating groove The second rotating groove is provided in the inner arc plate, the sliding rotating shaft is rotatably installed in the second rotating groove, and the connecting steel plate is inserted through the sliding rotating shaft. An insertion hole is provided, a plurality of notches are provided at an end of the connecting steel plate, a plurality of the rotating steel plates are fitted in the notch of the connecting steel plate, and a middle portion for inserting the shearing steel plate into the connecting steel plate A notch is provided, and the first connecting plate and the second connecting plate are rotating supports. Thus, the rotation support is comprised of a first support provided on the first connection plate and a second support provided on the second connection plate, and the second support is Beam column node configuration, characterized in that it is rotationally attached to the first fulcrum. 組立式家屋であって、前記梁柱節点構成と、プレハブ節点壁板と、プレハブ壁板とを含み、前記プレハブ節点壁板の一端は一の前記梁柱節点構成に接続され、前記プレハブ節点壁板の他端は隣り合う別の前記梁柱節点構成に接続され、前記プレハブ壁板の前後両端が前記プレハブ節点壁板に接続され、前記プレハブ壁板の側端は前記プレハブ節点壁板の側端又は隣り合う前記プレハブ壁板の側端に接続され、前記プレハブ壁板と前記プレハブ節点壁板はともに支持鋼骨に一体形成されたコンクリート板とを含み、前記支持鋼骨に前記鋼釘と前記受力鋼筋が内設され、前記支持鋼骨の周りの側壁に接続突板が設けられ、前記プレハブ節点梁の上端にプレハブ節点梁板が設けられ、前記プレハブ節点梁板の側壁に前記接続突板が設けられ、前記プレハブ節点梁板の前記接続突板と前記プレハブ節点壁板の前記接続突板とは前記接続ブロックによって固定され、前記プレハブ節点壁板の前記接続突板と前記プレハブ壁板の前記接続突板とは前記ボルトによって固定され、隣り合う二個の前記プレハブ壁板の前記接続突板は前記ボルトによって固定される、ことを特徴とする組立式家屋。 A prefabricated house comprising the beam column node configuration, a prefabricated node wall plate, and a prefabricated wall plate, wherein one end of the prefabricated node wall plate is connected to one beam column node configuration, and the prefabricated node wall The other end of the plate is connected to another adjacent beam column node configuration, the front and rear ends of the prefabricated wall plate are connected to the prefabricated node wall plate, and the side end of the prefabricated wall plate is the side of the prefabricated node wall plate The prefabricated wall plate and the prefabricated nodal wall plate are connected to the end or a side end of the adjacent prefabricated wall plate, and each of the prefabricated node wall plates includes a concrete plate integrally formed with a supporting steel frame, The receiving steel bars are installed inside, a connection projecting plate is provided on a side wall around the support steel frame, a prefabricated node beam plate is provided on an upper end of the prefabricated node beam, and the connection projecting plate is provided on a side wall of the prefabricated node beam plate. Is provided. The connection projecting plate of the hub node beam plate and the connection projecting plate of the prefabricated node wall plate are fixed by the connection block, and the connection projecting plate of the prefabricated node wall plate and the connection projecting plate of the prefabricated wall plate are secured by the bolts. The assembly type house characterized in that the connection projecting plates of the two adjacent prefabricated wall plates are fixed by the bolts.
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