CN103898971B - A kind of many high-rise assembling type steel structure systems of modularization realizing rigid joint connection - Google Patents
A kind of many high-rise assembling type steel structure systems of modularization realizing rigid joint connection Download PDFInfo
- Publication number
- CN103898971B CN103898971B CN201410105171.0A CN201410105171A CN103898971B CN 103898971 B CN103898971 B CN 103898971B CN 201410105171 A CN201410105171 A CN 201410105171A CN 103898971 B CN103898971 B CN 103898971B
- Authority
- CN
- China
- Prior art keywords
- secondary beam
- plate
- girder
- connecting plate
- long
- 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 - Fee Related
Links
- 229910000831 Steel Inorganic materials 0.000 title claims abstract description 112
- 239000010959 steel Substances 0.000 title claims abstract description 112
- 238000003466 welding Methods 0.000 claims abstract description 46
- 238000000034 method Methods 0.000 claims description 24
- 238000010276 construction Methods 0.000 claims description 12
- 210000001015 abdomen Anatomy 0.000 claims 3
- 230000000712 assembly Effects 0.000 claims 1
- 238000000429 assembly Methods 0.000 claims 1
- 239000000203 mixture Substances 0.000 claims 1
- 238000004519 manufacturing process Methods 0.000 abstract description 10
- 238000003912 environmental pollution Methods 0.000 abstract description 2
- 230000007613 environmental effect Effects 0.000 abstract 1
- 238000010586 diagram Methods 0.000 description 9
- 238000013461 design Methods 0.000 description 2
- 238000005516 engineering process Methods 0.000 description 2
- 230000009286 beneficial effect Effects 0.000 description 1
- 239000004566 building material Substances 0.000 description 1
- 239000000470 constituent Substances 0.000 description 1
- 230000000694 effects Effects 0.000 description 1
- 238000005265 energy consumption Methods 0.000 description 1
- 238000009776 industrial production Methods 0.000 description 1
- 230000010354 integration Effects 0.000 description 1
- 239000000463 material Substances 0.000 description 1
- 238000009417 prefabrication Methods 0.000 description 1
- 238000009877 rendering Methods 0.000 description 1
Landscapes
- Joining Of Building Structures In Genera (AREA)
Abstract
一种节点刚接的模块化装配式钢结构体系,属于结构工程技术领域。所述结构体系是由装配式楼板和装配式法兰柱采用螺栓装配而成;所述装配式楼板可拼接成需要规模,装配式楼板之间采用螺栓进行拼接,形成建筑物的整层楼板。本发明的钢结构体系实现了工厂化生产,现场快速装配,同时本发明完全采用高强螺栓进行现场装配,避免了混凝土浇筑和钢材焊接造成的环境污染,结构构件拆除时,可以高效的回收利用,真正的实现了绿色环保的理念,是一种绿色的结构体系。
A modular assembly steel structure system with nodes rigidly connected belongs to the technical field of structural engineering. The structural system is formed by assembling the prefabricated floor slab and the prefabricated flange column with bolts; the prefabricated floor slab can be spliced to a required scale, and the prefabricated floor slabs are spliced with bolts to form the entire floor of the building. The steel structure system of the present invention realizes factory production and rapid on-site assembly. At the same time, the present invention completely uses high-strength bolts for on-site assembly, avoiding environmental pollution caused by concrete pouring and steel welding. When the structural components are removed, they can be recycled efficiently. It is a green structural system that truly realizes the concept of green environmental protection.
Description
技术领域 technical field
本发明涉及一种实现刚性节点连接的模块化多高层装配式钢结构体系,属于结构工程技术领域。 The invention relates to a modular multi-high-rise assembled steel structure system for realizing rigid node connections, belonging to the technical field of structural engineering.
背景技术 Background technique
我国每年城乡新建房屋面积20亿平方米,其中80%以上为高能耗建筑,我国单位建筑面积能耗是发达国家的2倍以上。据中国钢协统计,据国家统计局公布,2013年我国钢产量首次突破10亿吨大关,达10.6762亿吨,居世界各国钢产量首位,美国钢结构建筑面积占总建筑面积50%以上,日本占到80%,而我国不到4%。中国作为世界上钢材产量大国,钢结构住宅的发展严重滞后。 my country's annual urban and rural housing area is 2 billion square meters, of which more than 80% are high-energy buildings, and the energy consumption per unit building area in my country is more than twice that of developed countries. According to the statistics of the China Steel Association and the National Bureau of Statistics, in 2013, my country's steel production exceeded 1 billion tons for the first time, reaching 1.06762 billion tons, ranking first in the world's steel production. The steel structure building area in the United States accounts for more than 50% of the total building area. Japan accounts for 80%, while our country is less than 4%. China, as a big steel production country in the world, lags far behind in the development of steel structure housing.
2013年1月1日,国务院办公厅以国办发〔2013〕1号转发国家发展改革委、住房城乡建设部制订的《绿色建筑行动方案》。其规定的重要任务中明确提出:大力发展绿色建材,推动建筑工业化。要求住房城乡建设等部门要加快建立促进建筑工业化的设计、施工、部品生产等环节的标准体系,推动结构件、部品、部件的标准化,丰富标准件的种类,提高通用性和可置换性。推广适合工业化生产的预制钢结构等建筑体系,加快发展建设工程的预制和装配技术,提高建筑工业化技术集成水平。支持集设计、生产、施工于一体的工业化基地建设,开展工业化建筑示范试点。预制装配式钢结构住宅能够更好的体现绿色建筑的本质,“绿色建筑行动”为我国房屋钢结构相应体系 创新及产业化提供了重大机遇。 On January 1, 2013, the General Office of the State Council forwarded the "Green Building Action Plan" formulated by the National Development and Reform Commission and the Ministry of Housing and Urban-Rural Development with Guobanfa [2013] No. 1. It clearly stated in the important tasks stipulated that: Vigorously develop green building materials and promote the industrialization of construction. Housing, urban and rural construction and other departments are required to speed up the establishment of a standard system for the design, construction, and production of parts to promote industrialization of construction, promote the standardization of structural parts, parts, and components, enrich the types of standard parts, and improve versatility and replaceability. Promote construction systems such as prefabricated steel structures suitable for industrial production, accelerate the development of prefabrication and assembly technologies for construction projects, and improve the integration level of construction industrialization technology. Support the construction of industrialized bases that integrate design, production, and construction, and carry out demonstration and pilot projects of industrialized buildings. Prefabricated steel structure residences can better reflect the essence of green buildings, and the "Green Building Action" provides a major opportunity for the innovation and industrialization of the corresponding system of steel structures in my country.
我国已有的模块化多高层装配式钢结构体系的问题在于楼板及梁柱连接的节点,仅仅依靠有限数目的高强螺栓是无法实现节点的刚性连接,不利于结构的受力。本发明采用的拼接形式可以有效的实现节点的刚性连接,克服现有体系的不足。 The problem with the existing modular multi-high-rise fabricated steel structure system in my country lies in the nodes connected by floor slabs and beams and columns. The rigid connection of nodes cannot be realized only by a limited number of high-strength bolts, which is not conducive to the stress of the structure. The splicing form adopted by the invention can effectively realize the rigid connection of the nodes and overcome the shortcomings of the existing system.
发明内容 Contents of the invention
本发明提出了一种属于结构工程技术领域的模块化多高层装配式钢结构体系。 The invention proposes a modular multi-high-rise assembled steel structure system belonging to the technical field of structural engineering.
本发明的技术方案如下: Technical scheme of the present invention is as follows:
所述模块化多高层装配式钢结构体系由装配式楼板和装配式法兰柱采用螺栓装配而成;所述钢结构体系的梁柱节点与框架的连接是在工厂焊接而成,能够实现刚性连接;所述装配式楼板由A板、B板、C板、D板、E板和F板6种装配式楼板组合拼接而成; The modular multi-high-rise prefabricated steel structure system is assembled by prefabricated floor slabs and prefabricated flange columns using bolts; the beam-column nodes of the steel structure system are connected to the frame by welding in the factory, which can achieve rigidity Connection; the prefabricated floor is spliced by six types of prefabricated floors: A board, B board, C board, D board, E board and F board;
所述A板由短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6、柱座7、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述A板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成所述装配式楼板A;短主梁Ⅱ2和次梁Ⅰ3垂直摆放,通过柱座7和连接板Ⅰ15将短主梁Ⅱ2和次梁Ⅰ3进行连接,短主梁Ⅱ2和次梁Ⅰ3连接在柱座7的方钢管Ⅰ(12)上,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅱ2和次梁Ⅰ3的翼缘相连,两块连接板Ⅰ15分别连接在短主梁Ⅱ2和次梁Ⅰ3上翼缘和下翼缘上,所有的连接部位均为焊接;短主梁Ⅰ1和短主梁Ⅱ2放置在同 一条直线上,通过柱座7相连,短主梁Ⅰ1和短主梁Ⅱ2连接在柱座7的方钢管Ⅰ(12)上,所有的连接部位均采用为焊接;次梁Ⅱ4与次梁Ⅰ3平行,与短主梁Ⅰ1和短主梁Ⅱ2垂直,通过柱座7和连接板Ⅰ15与短主梁Ⅰ1和短主梁Ⅱ2相连,连接在柱座7的方钢管Ⅰ(12)上,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1、短主梁Ⅱ2和次梁Ⅱ4的翼缘相连,两块连接板Ⅰ15分别连接在短主梁Ⅰ1、短主梁Ⅱ2和次梁Ⅱ4的上翼缘和下翼缘上,所有的连接部位均采用为焊接;次梁Ⅲ5与次梁Ⅱ4平行,与短主梁Ⅰ1和短主梁Ⅱ2垂直,通过连接板Ⅰ15与短主梁Ⅰ1相连,短主梁Ⅰ1上伸出的板的三个侧面同次梁Ⅲ5的上下翼缘及腹板相连,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅲ5的翼缘相连,两块连接板Ⅰ15分别连接在上翼缘和下翼缘上,所有的连接部位均采用为焊接;长主梁Ⅰ6平行于短主梁Ⅰ1和短主梁Ⅱ2,垂直于次梁Ⅰ3,通过连接板Ⅰ15和连接板Ⅱ16与次梁Ⅰ3、次梁Ⅱ4和次梁Ⅲ5进行连接,所述连接板Ⅱ16位于次梁Ⅰ3和次梁Ⅱ4的端部,连接板Ⅱ16的上下端与次梁Ⅰ3和次梁Ⅱ4的翼缘相连,一个侧边与次梁Ⅰ3的腹板相连,另一个侧边同长主梁Ⅰ6的腹板连接,所述连接板Ⅰ15的两个侧面连接长主梁Ⅰ6、次梁Ⅰ3、次梁Ⅱ4和次梁Ⅲ5的翼缘,连接板Ⅰ15分别连接在长主梁Ⅰ6、次梁Ⅰ3、次梁Ⅱ4和次梁Ⅲ5的上翼缘和下翼缘上,所有的连接部位均采用为焊接;楼板17采用抗剪键拼接在由短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6围成的平面上; The A plate is composed of short main beam I1, short main beam II2, secondary beam I3, secondary beam II4, secondary beam III5, long main beam I6, column seat 7, connection plate I15, connection plate II16 and floor slab 17; All components of slab A are processed and manufactured in the factory, and then assembled into the prefabricated floor A by welding and shear key connection; The plate I15 connects the short main beam II2 and the secondary beam I3, and the short main beam II2 and the secondary beam I3 are connected to the square steel pipe I (12) of the column seat 7, and the two sides of the connecting plate I15 are respectively connected to the short main beam II2 is connected to the flange of the secondary beam I3, and two connecting plates I15 are respectively connected to the upper and lower flanges of the short main beam II2 and the secondary beam I3, and all the connection parts are welded; the short main beam I1 and the short main beam The beam II2 is placed on the same straight line and connected by the column base 7, the short main beam I1 and the short main beam II2 are connected on the square steel pipe I (12) of the column base 7, and all the connection parts are welded; the secondary beam II4 Parallel to secondary beam I3, perpendicular to short main beam I1 and short main beam II2, connected to short main beam I1 and short main beam II2 through column base 7 and connecting plate I15, square steel pipe I (12) connected to column base 7 Above, the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam I1, the short main beam II2 and the secondary beam II4, and the two connecting plates I15 are respectively connected to the short main beam I1, the short main beam II2 and the secondary On the upper and lower flanges of beam Ⅱ4, all the connection parts are welded; the secondary beam Ⅲ5 is parallel to the secondary beam Ⅱ4, perpendicular to the short main beam Ⅰ1 and short main beam Ⅱ2, and connected to the short main beam through the connecting plate Ⅰ15 I1 is connected, the three sides of the plate protruding from the short main beam I1 are connected with the upper and lower flanges and the web of the secondary beam III5, and the two sides of the connecting plate I15 are respectively connected with the wings of the short main beam I1 and the secondary beam III5 The two connecting plates I15 are respectively connected to the upper flange and the lower flange, and all the connecting parts are welded; the long main beam I6 is parallel to the short main beam I1 and short main beam II2, and perpendicular to the secondary beam I3 , connect with the secondary beam I3, secondary beam II4 and secondary beam III5 through the connecting plate I15 and the connecting plate II16, the connecting plate II16 is located at the end of the secondary beam I3 and the secondary beam II4, the upper and lower ends of the connecting plate II16 and the secondary beam I3 is connected to the flange of the secondary beam II4, one side is connected to the web of the secondary beam I3, and the other side is connected to the web of the long main beam I6, and the two sides of the connecting plate I15 are connected to the long main beam I6 , the flanges of secondary beam I3, secondary beam II4 and secondary beam III5, and the connection plate I15 is respectively connected to the upper and lower flanges of long main beam I6, secondary beam I3, secondary beam II4 and secondary beam III5, all The connection parts are all welded; the floor 17 is spliced on the plane surrounded by the short main beam I1, the short main beam II2, the secondary beam I3, the secondary beam II4, the secondary beam III5 and the long main beam I6 by using shear keys;
所述B板由次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅳ9、次梁 Ⅴ10、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述B板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成所述装配式楼板B;长主梁Ⅰ6和次梁Ⅳ9、次梁Ⅴ10垂直摆放,通过连接板Ⅰ15和连接板Ⅱ16将两个长主梁Ⅰ6和次梁Ⅳ9、次梁Ⅴ10在梁端部进行连接,形成矩形框架,所述连接板Ⅱ16位于次梁Ⅳ9的端部,连接板Ⅱ16的上下端与次梁Ⅳ9、次梁Ⅴ10的翼缘相连,一个侧边与次梁Ⅳ9和次梁Ⅴ10的腹板相连,另一个侧面与长主梁Ⅰ6腹板连接,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅳ9、长主梁Ⅰ6和次梁Ⅴ10的翼缘相连,设置的两块连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅳ9、长主梁Ⅰ6和次梁Ⅴ10上翼缘和下翼缘上,所有的连接部位均为焊接;所述长主梁Ⅱ8与长主梁Ⅰ6平行,与次梁Ⅴ10垂直放置,长主梁Ⅱ8位于两个长主梁Ⅰ6的正中间,长主梁Ⅱ8的两个端部分别通过连接板Ⅰ15连接于次梁Ⅳ9、次梁Ⅴ10的中部,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅱ8和次梁Ⅳ9、长主梁Ⅱ8和次梁Ⅴ10的翼缘相连,长主梁Ⅱ8的两个端部伸出部分分别同次梁Ⅳ9、次梁Ⅴ10的中部腹板相连,设置的两块连接板Ⅰ15分别连接在长主梁Ⅱ8、次梁Ⅳ9和次梁Ⅴ10的上翼缘和下翼缘上,所有的连接部位均为焊接;所述次梁Ⅱ4与次梁Ⅴ10平行,与长主梁Ⅰ6和长主梁Ⅱ8垂直放置,通过连接板Ⅰ15将次梁Ⅱ4的梁端连接于长主梁Ⅰ6和长主梁Ⅱ8的中部,次梁Ⅱ4与长主梁Ⅰ6相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,设置的两块连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6的上翼缘和下 翼缘上,次梁Ⅱ4与长主梁Ⅱ8相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅱ8的翼缘相连,设置的两块连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅱ8的上翼缘和下翼缘上,次梁Ⅱ4两端伸出部分与长主梁Ⅰ6和长主梁Ⅱ8的中部腹板相连接,所有的连接部位均为焊接;楼板17采用抗剪键拼接在由次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅳ9、次梁Ⅴ10围成的框架上; The B-board is composed of secondary beam II4, long main beam I6, long main beam II8, secondary beam IV9, secondary beam V10, connecting plate I15, connecting plate II16 and floor 17; all components of the B-plate are processed in the factory After the fabrication is completed, each component is assembled into the prefabricated floor B by welding and shear key connections; the long main beam I6, the secondary beam IV9, and the secondary beam V10 are placed vertically, and the two The long main beam I6 is connected with the secondary beam IV9 and the secondary beam V10 at the ends of the beams to form a rectangular frame. one side is connected with the web of secondary beam IV9 and secondary beam V10, the other side is connected with the web of long main beam I6, and the two sides of the connecting plate I15 are respectively connected with long main beam I6 and secondary The flanges of beam IV9, long main beam I6 and secondary beam V10 are connected, and two connecting plates I15 are set to connect respectively to the upper and lower flanges of long main beam I6 and secondary beam IV9, long main beam I6 and secondary beam V10 Above, all the connection parts are welded; the long main beam II8 is parallel to the long main beam I6, and placed vertically with the secondary beam V10, the long main beam II8 is located in the middle of the two long main beams I6, and the long main beam II8 The two ends are respectively connected to the middle parts of the secondary beam IV9 and the secondary beam V10 through the connecting plate I15, and the two sides of the connecting plate I15 are respectively connected with the long main beam II8 and the secondary beam IV9, the long main beam II8 and the secondary beam V10 The flanges are connected, and the two end extensions of the long main beam Ⅱ8 are respectively connected with the middle webs of the secondary beams Ⅳ9 and Ⅴ10, and the two connecting plates Ⅰ15 are connected to the long main beam Ⅱ8, secondary beam Ⅳ9 and On the upper flange and the lower flange of the secondary beam V10, all the connection parts are welded; the secondary beam II4 is parallel to the secondary beam V10, placed vertically with the long main beam I6 and the long main beam II8, and connected by the connecting plate I15 The beam end of the secondary beam II4 is connected to the middle of the long main beam I6 and the long main beam II8, and the two sides of the connecting plate I15 at the end connecting the secondary beam II4 and the long main beam I6 are respectively connected to the wings of the secondary beam II4 and the long main beam I6. The two connecting plates I15 are connected to the upper and lower flanges of the secondary beam II4 and the long main beam I6 respectively, and the two sides of the connecting plate I15 at the end of the secondary beam II4 and the long main beam II8 are respectively It is connected with the flanges of the secondary beam Ⅱ4 and the long main beam Ⅱ8, and the two connecting plates Ⅰ15 are respectively connected to the upper and lower flanges of the secondary beam Ⅱ4 and the long main beam Ⅱ8, and the protruding parts at both ends of the secondary beam Ⅱ4 It is connected with the middle web of the long main beam I6 and the long main beam II8, and all the connection parts are welded; the floor 17 is spliced by the secondary beam II4, the long main beam I6, the long main beam II8, the secondary On the frame surrounded by Ⅳ9 and secondary beam Ⅴ10;
所述C板由短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、长主梁Ⅰ6、柱座7、次梁Ⅴ10、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述C板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成所述装配式楼板C;所述两个次梁Ⅰ3放置在同一直线上,通过柱座7进行连接,连接在柱座7的方钢管Ⅰ(12)上,作为矩形装配式楼板C板的两条对边,所有连接均为焊接;所述长主梁Ⅰ6与次梁Ⅰ3垂直放置,作为矩形装配式楼板C板的另外两条对边,所有连接均为焊接;通过连接板Ⅰ15和连接板Ⅱ16将C板的四条边进行连接,形成矩形框架,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅰ3的翼缘相连,两块连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅰ3上翼缘和下翼缘上,所有的连接部位均为焊接,所述连接板Ⅱ16位于次梁Ⅰ3与长主梁Ⅰ6相连接的一端,连接板Ⅱ16的上下端与次梁Ⅰ3的翼缘相连,一个侧边与次梁Ⅰ3的腹板相连,所有的连接部位均为焊接;短主梁Ⅰ1、短主梁Ⅱ2和两个次梁Ⅱ4的一端分别连接在柱座7的四个侧面上,短主梁Ⅰ1、短主梁Ⅱ2和两个次梁Ⅱ4连接在柱座7的方钢管Ⅰ12上,两个短主梁在一条直线上, 两个次梁在一条直线上,柱座7位于C板的中心,相邻的短主梁和次梁之间通过连接板Ⅰ15进行连接,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅱ4的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅰ1和次梁Ⅱ4上翼缘和下翼缘上,所述短主梁Ⅰ1的另一端连接在次梁Ⅴ10中部,短主梁Ⅰ1的伸出部分三个侧面分别与次梁Ⅴ10的翼缘和腹板连接,短主梁Ⅰ1通过连接板Ⅰ15与在次梁Ⅴ10边相连,连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅴ10的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅰ1和次梁Ⅴ10上翼缘和下翼缘上,所有的连接部位均为焊接,所述短主梁Ⅱ2的另一端通过柱座7和连接板Ⅰ15与两个次梁Ⅰ3相连接,连接在柱座7的方钢管Ⅰ(12)上,连接板Ⅰ15的两个侧面分别与短主梁Ⅱ2和次梁Ⅰ3的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅱ2和次梁Ⅰ3上翼缘和下翼缘上,所有的连接部位均为焊接,所述次梁Ⅱ4的另一端连接在长主梁Ⅰ6的中部,采用连接板Ⅰ15进行连接,次梁Ⅱ4的伸出部分三个侧面分别与长主梁Ⅰ6的翼缘和腹板连接,连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6上翼缘和下翼缘上,所有的连接部位均为焊接;楼板17采用抗剪键拼接在短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、长主梁Ⅰ6所围成的框架上; The C plate is composed of short main beam I1, short main beam II2, secondary beam I3, secondary beam II4, long main beam I6, column seat 7, secondary beam V10, connection plate I15, connection plate II16 and floor slab 17; All the components of the C slab are processed and manufactured in the factory, and then assembled into the prefabricated floor C by welding and shear key connections; the two secondary beams I3 are placed on the same straight line, and the Connection, connected on the square steel pipe I (12) of the column base 7, as the two opposite sides of the rectangular prefabricated floor plate C, all connections are welded; the long main beam I6 and the secondary beam I3 are placed vertically, as a rectangular The other two opposite sides of the C-plate of the prefabricated floor are all connected by welding; the four sides of the C-plate are connected through the connecting plate I15 and the connecting plate II16 to form a rectangular frame, and the two sides of the connecting plate I15 are respectively connected to The flanges of the long main beam I6 and the secondary beam I3 are connected, and two connecting plates I15 are respectively connected to the upper and lower flanges of the long main beam I6 and the secondary beam I3, and all the connecting parts are welded. Ⅱ16 is located at the end where the secondary beam Ⅰ3 is connected with the long main beam Ⅰ6, the upper and lower ends of the connecting plate Ⅱ16 are connected with the flange of the secondary beam Ⅰ3, and one side is connected with the web of the secondary beam Ⅰ3, and all the connection parts are welded; One end of the short main beam I1, the short main beam II2 and two secondary beams II4 are respectively connected to the four sides of the column base 7, and the short main beam I1, the short main beam II2 and the two secondary beams II4 are connected to the four sides of the column base 7 On the square steel pipe I12, two short main beams are on a straight line, two secondary beams are on a straight line, the column seat 7 is located in the center of the C plate, and the adjacent short main beams and secondary beams are connected through the connecting plate I15 , the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam I1 and the secondary beam II4, and the connecting plate I15 is respectively connected to the upper and lower flanges of the short main beam I1 and the secondary beam II4. The other end of the short main beam I1 is connected to the middle of the secondary beam V10, and the three sides of the protruding part of the short main beam I1 are respectively connected to the flange and web of the secondary beam V10, and the short main beam I1 is connected to the secondary beam through the connecting plate I15 V10 sides are connected, the two sides of connecting plate I15 are respectively connected with the flanges of short main beam I1 and secondary beam V10, and connecting plate I15 is respectively connected with the upper and lower flanges of short main beam I1 and secondary beam V10, all The connection parts of the main beam II2 are all welded, and the other end of the short main beam II2 is connected to the two secondary beams I3 through the column base 7 and the connecting plate I15, connected to the square steel pipe I (12) of the column base 7, and the connecting plate I15 The two side faces of the short main beam II2 and the flange of the secondary beam I3 are connected respectively, and the connecting plate I15 is respectively connected to the upper and lower flanges of the short main beam II2 and the secondary beam I3, and all the connection parts are welded. The other end of the secondary beam II4 is connected to the middle part of the long main beam I6, and is connected by a connecting plate I15, and the three sides of the protruding part of the secondary beam II4 are respectively connected with the flange and the web of the long main beam I6, and the connecting plate The two sides of I15 are respectively connected to the flanges of the secondary beam II4 and the long main beam I6, and the connection plate I15 is respectively connected to the upper and lower flanges of the secondary beam II4 and the long main beam I6 Above, all the connection parts are welded; the floor 17 is spliced on the frame surrounded by the short main beam I1, the short main beam II2, the secondary beam I3, the secondary beam II4 and the long main beam I6 by using shear keys;
所述D板由短主梁Ⅰ1、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6、柱座7、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述D板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装 成所述装配式楼板D;短主梁Ⅰ1和次梁Ⅲ5垂直摆放,通过连接板Ⅰ15将短主梁Ⅰ1与次梁Ⅲ5进行连接,短主梁Ⅰ1的伸出部分与次梁Ⅲ5的端部腹板连接,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅲ5的翼缘相连,两块连接板Ⅰ15分别连接在上翼缘和下翼缘上,所有的连接部位均为焊接;两个短主梁Ⅰ1放置在同一条直线上,通过柱座7相连,两个短主梁Ⅰ1连接在柱座7的方钢管Ⅰ12上,所有的连接部位均采用为焊接;次梁Ⅱ4与次梁Ⅲ5平行,与两个短主梁Ⅰ1垂直,通过柱座7和连接板Ⅰ15与两个短主梁Ⅰ1相连,连接在柱座7的方钢管Ⅰ12上,所述连接板Ⅰ15的两个侧面分别与两个短主梁Ⅰ1和次梁Ⅱ4的翼缘相连,连接板Ⅰ15分别连接在两个短主梁Ⅰ1和次梁Ⅱ4的上翼缘和下翼缘上,所有的连接部位均采用为焊接;长主梁Ⅰ6平行于两个短主梁Ⅰ1,垂直于次梁Ⅱ4,通过连接板Ⅰ15和连接板Ⅱ16与两端的次梁Ⅱ4和次梁Ⅲ5进行连接,所述连接板Ⅱ16位于次梁Ⅱ4和次梁Ⅲ5的端部,连接板Ⅱ16的上下端与次梁Ⅱ4和次梁Ⅲ5的翼缘相连,一个侧边与次梁Ⅱ4和次梁Ⅲ5的腹板相连,另一个侧边同长主梁Ⅰ6的腹板连接,所述连接板Ⅰ15的两个侧面连接长主梁Ⅰ6和次梁Ⅱ4和次梁Ⅲ5的翼缘,连接板Ⅰ15分别连接在长主梁Ⅰ6、次梁Ⅱ4和次梁Ⅲ5上翼缘和下翼缘上,长主梁Ⅰ6的中部腹板与次梁Ⅱ4的伸出部分连接,所有的连接部位均采用为焊接;楼板17采用抗剪键拼接在短主梁Ⅰ1、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6所围成的框架上; The D plate is composed of short main beam I1, secondary beam II4, secondary beam III5, long main beam I6, column seat 7, connection plate I15, connection plate II16 and floor slab 17; all components of the D plate are processed in the factory After the fabrication is completed, each component is assembled into the prefabricated floor D by welding and shear key connection; the short main beam I1 and the secondary beam III5 are placed vertically, and the short main beam I1 and the secondary beam III5 are connected through the connecting plate I15 , the protruding part of the short main beam I1 is connected to the end web of the secondary beam III5, and the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam I1 and the secondary beam III5, and the two connecting plates I15 are respectively It is connected to the upper flange and the lower flange, and all the connection parts are welded; the two short main beams I1 are placed on the same straight line and connected by the column base 7, and the two short main beams I1 are connected to the base of the column base 7. On the square steel pipe I12, all the connection parts are welded; the secondary beam II4 is parallel to the secondary beam III5, perpendicular to the two short main beams I1, connected to the two short main beams I1 through the column seat 7 and the connecting plate I15, and connected On the square steel pipe I12 of the column base 7, the two sides of the connecting plate I15 are respectively connected to the flanges of the two short main beams I1 and the secondary beam II4, and the connecting plate I15 is connected to the two short main beams I1 and the secondary beams respectively. On the upper and lower flanges of the beam II4, all the connection parts are welded; the long main beam I6 is parallel to the two short main beams I1, perpendicular to the secondary beam II4, and connected to the two main beams through the connecting plate I15 and the connecting plate II16. The secondary beam II4 at the end is connected with the secondary beam III5. The connecting plate II16 is located at the end of the secondary beam II4 and the secondary beam III5. The upper and lower ends of the connecting plate II16 are connected with the flanges of the secondary beam II4 and the secondary beam III5. One side It is connected with the web of secondary beam II4 and III5, and the other side is connected with the web of long main beam I6, and the two sides of the connecting plate I15 are connected with long main beam I6, secondary beam II4 and secondary beam III5 Flanges, connecting plate I15 are respectively connected to the upper and lower flanges of the long main beam I6, secondary beam II4 and secondary beam III5, the middle web of the long main beam I6 is connected to the protruding part of the secondary beam II4, all The connection parts are all welded; the floor slab 17 is spliced on the frame surrounded by the short main beam I1, the secondary beam II4, the secondary beam III5 and the long main beam I6 by means of shear keys;
所述E板由次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅴ10、连 接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述E板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成装配式楼板E;长主梁Ⅰ6和次梁Ⅴ10垂直摆放,通过连接板Ⅰ15和连接板Ⅱ16将长主梁Ⅰ6和次梁Ⅴ10在梁端部进行连接,形成矩形框架,所述连接板Ⅱ16位于次梁的端部,连接板Ⅱ16的上下端与次梁Ⅴ10的翼缘相连,一个侧边与次梁Ⅴ10的腹板相连,另一个侧面与长主梁Ⅰ6腹板连接,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅴ10的翼缘相连,设置的连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅴ10的上翼缘和下翼缘上,所有的连接部位均为焊接;所述长主梁Ⅱ8与长主梁Ⅰ6平行,与次梁Ⅴ10垂直放置,长主梁Ⅱ8位于两个长主梁Ⅰ6的正中间,长主梁Ⅱ8的两个端部分别通过连接板Ⅰ15连接于次梁Ⅴ10的中部,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅱ8和次梁Ⅴ10的翼缘相连,长主梁Ⅱ8的两个端部伸出部分两端次梁Ⅴ10的中部腹板相连,设置的连接板Ⅰ15分别连接在长主梁Ⅱ8和次梁Ⅴ10的上翼缘和下翼缘上,所有的连接部位均为焊接;所述次梁Ⅱ4与次梁Ⅴ10平行,与长主梁Ⅰ6和长主梁Ⅱ8垂直放置,通过连接板Ⅰ15将次梁Ⅱ4的梁端连接于长主梁Ⅰ6和长主梁Ⅱ8的中部,次梁Ⅱ4与长主梁Ⅰ6相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,设置的连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6上翼缘和下翼缘上,次梁Ⅱ4与长主梁Ⅱ8相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅱ8的翼缘相连,设置的两块连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅱ8上翼缘 和下翼缘上,次梁Ⅱ4两端伸出部分与两侧长主梁Ⅰ6和长主梁Ⅱ8的中部腹板相连接,所有的连接部位均为焊接;楼板17采用抗剪键拼接在次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅴ10所围成的框架上; The E-board is composed of the secondary beam II4, the long main beam I6, the long main beam II8, the secondary beam V10, the connection plate I15, the connection plate II16 and the floor 17; The components are assembled into a prefabricated floor E by welding and shear key connections; the long main beam I6 and the secondary beam V10 are placed vertically, and the long main beam I6 and the secondary beam V10 are placed at the end of the beam through the connecting plate I15 and the connecting plate II16 Connect to form a rectangular frame, the connecting plate II16 is located at the end of the secondary beam, the upper and lower ends of the connecting plate II16 are connected to the flange of the secondary beam V10, one side is connected to the web of the secondary beam V10, and the other side is connected to the web of the secondary beam V10 The long main beam I6 is connected with the web, and the two sides of the connecting plate I15 are respectively connected with the flanges of the long main beam I6 and the secondary beam V10. On the flange and the lower flange, all the connection parts are welded; the long main beam II8 is parallel to the long main beam I6, placed perpendicular to the secondary beam V10, and the long main beam II8 is located in the middle of the two long main beams I6 , the two ends of the long main beam II8 are respectively connected to the middle part of the secondary beam V10 through the connecting plate I15, and the two sides of the connecting plate I15 are respectively connected with the flanges of the long main beam II8 and the secondary beam V10, and the long main beam The protruding parts of the two ends of II8 are connected to the middle webs of the secondary beam V10 at both ends, and the connecting plate I15 is connected to the upper and lower flanges of the long main beam II8 and secondary beam V10 respectively. All are welded; the secondary beam II4 is parallel to the secondary beam V10, placed vertically with the long main beam I6 and the long main beam II8, and the beam end of the secondary beam II4 is connected to the long main beam I6 and the long main beam II8 through the connecting plate I15 The two sides of the connecting plate I15 at the end connecting the secondary beam II4 and the long main beam I6 are respectively connected to the flanges of the secondary beam II4 and the long main beam I6, and the set connecting plate I15 is connected to the secondary beam II4 and the long main beam respectively. On the upper and lower flanges of beam I6, the two sides of the connecting plate I15 at the end where the secondary beam II4 is connected to the long main beam II8 are respectively connected to the flanges of the secondary beam II4 and the long main beam II8, and two connecting plates are set Ⅰ15 is respectively connected to the upper and lower flanges of the secondary beam Ⅱ4 and the long main beam Ⅱ8. The connection parts are all welded; the floor 17 is spliced on the frame surrounded by the secondary beam II4, the long main beam I6, the long main beam II8 and the secondary beam V10 by using shear keys;
所述F板由短主梁Ⅰ1、次梁Ⅱ4、长主梁Ⅰ6、柱座7、次梁Ⅴ10、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述F板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成装配式楼板F;长主梁Ⅰ6和次梁Ⅴ10垂直摆放,通过连接板Ⅰ15和连接板Ⅱ16将长主梁Ⅰ6和次梁Ⅴ10在梁端部进行连接,形成矩形框架,所述连接板Ⅱ16位于次梁的端部,连接板Ⅱ16的上下端与次梁Ⅴ10的翼缘相连,一个侧边与次梁Ⅴ10的腹板相连,另一个侧面与长主梁Ⅰ6腹板连接,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅴ10的翼缘相连,设置的连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅴ10上翼缘和下翼缘上,所有的连接部位均为焊接;两个短主梁Ⅰ1和两个次梁Ⅱ4的一端分别连接在柱座7的四个侧面上,两个短主梁Ⅰ1和两个次梁Ⅱ4连接在柱座7的方钢管Ⅰ12上,两个短主梁在一条直线上,两个次梁在一条直线上,柱座7位于F板的中心,相邻的短主梁和次梁之间通过连接板Ⅰ15进行连接,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅱ4的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅰ1和次梁Ⅱ4上翼缘和下翼缘上,所述短主梁Ⅰ1的另一端连接在次梁Ⅴ10中部,短主梁Ⅰ1的伸出部分的三个侧面分别与次梁Ⅴ10中部的翼缘和腹板连接,短主梁Ⅰ1通过连接板Ⅰ15与次梁Ⅴ10相连,连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和 次梁Ⅴ10的翼缘相连,连接板Ⅰ15分别连接在上翼缘和下翼缘上,所述次梁Ⅱ4的另一端连接在长主梁Ⅰ6的中部,采用连接板Ⅰ15进行连接,次梁Ⅱ4的伸出部分三个侧面分别与长主梁Ⅰ6中部的翼缘和腹板连接,连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6的上翼缘和下翼缘上,所有的连接部位均为焊接;楼板17采用抗剪键拼接在短主梁Ⅰ1、次梁Ⅱ4、长主梁Ⅰ6、柱座7、次梁Ⅴ10所围成的框架上; The F-slab is composed of short main beam I1, secondary beam II4, long main beam I6, column base 7, secondary beam V10, connection plate I15, connection plate II16 and floor slab 17; all components of the F-slab are processed in the factory After the fabrication is completed, each component is assembled into a prefabricated floor F by welding and shear key connection; the long main beam I6 and the secondary beam V10 are placed vertically, and the long main beam I6 and the secondary beam V10 are connected through the connecting plate I15 and the connecting plate II16 Connect at the end of the beam to form a rectangular frame, the connecting plate II16 is located at the end of the secondary beam, the upper and lower ends of the connecting plate II16 are connected with the flange of the secondary beam V10, and one side is connected with the web of the secondary beam V10, The other side is connected to the web of the long main beam I6, and the two sides of the connecting plate I15 are respectively connected to the flanges of the long main beam I6 and the secondary beam V10, and the set connecting plate I15 is respectively connected to the long main beam I6 and the secondary On the upper and lower flanges of beam V10, all the connection parts are welded; one end of two short main beams I1 and two secondary beams II4 are respectively connected to the four sides of column base 7, and the two short main beams Ⅰ1 and two secondary beams Ⅱ4 are connected to the square steel pipe Ⅰ12 of the column base 7, the two short main beams are on a straight line, the two secondary beams are on a straight line, the column base 7 is located in the center of the F plate, and the adjacent short The main beam and the secondary beam are connected through the connecting plate I15, the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam I1 and the secondary beam II4, and the connecting plate I15 is connected to the short main beam I1 and the secondary beam respectively. On the upper and lower flanges of the beam II4, the other end of the short main beam I1 is connected to the middle part of the secondary beam V10, and the three sides of the protruding part of the short main beam I1 are respectively connected to the flange and the web of the middle part of the secondary beam V10. Plate connection, the short main beam I1 is connected to the secondary beam V10 through the connecting plate I15, the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam I1 and the secondary beam V10, and the connecting plate I15 is connected to the upper flange and the lower flange respectively. On the flange, the other end of the secondary beam II4 is connected to the middle part of the long main beam I6, and the connecting plate I15 is used for connection. The three sides of the protruding part of the secondary beam II4 are respectively connected to the flange and web Plate connection, the two sides of the connecting plate I15 are respectively connected with the flanges of the secondary beam II4 and the long main beam I6, and the connecting plate I15 is respectively connected with the upper and lower flanges of the secondary beam II4 and the long main beam I6, all The connection parts are all welded; the floor 17 is spliced on the frame surrounded by the short main beam I1, the secondary beam II4, the long main beam I6, the column base 7, and the secondary beam V10 by using shear keys;
所述装配式楼板A板与所述装配式楼板B板进行拼接,拼接方式是将A板的长主梁Ⅰ6和B板的长主梁Ⅰ6进行拼接,所有的拼接均采用螺栓进行现场拼接;所述装配式楼板B板与所述装配式楼板C板进行拼接,拼接方式是将B板的长主梁Ⅰ6和C板的长主梁Ⅰ6进行拼接,所有的拼接均采用螺栓进行现场拼接;所述装配式楼板D板与所述装配式楼板E板进行拼接,拼接方式是将D板的长主梁Ⅰ6和E板的长主梁Ⅰ6进行拼接,所述装配式楼板E板与所述装配式楼板F板进行拼接,拼接方式是将E板的长主梁Ⅰ6和F板的长主梁Ⅰ6进行拼接所有的拼接均采用螺栓进行现场拼接;所述装配式楼板A板与所述装配式楼板D板进行拼接,拼接方式是将A板的次梁Ⅴ10和D板的次梁Ⅴ10进行拼接,所有的拼接均采用螺栓进行现场拼接;所述装配式楼板B板与所述装配式楼板E板进行拼接,拼接方式是将B板的次梁Ⅴ10和E板的次梁Ⅴ10进行拼接,所述装配式楼板C板与所述装配式楼板F板进行拼接,拼接方式是将C板的次梁Ⅴ10和F板的次梁Ⅴ10进行拼接,所有的拼接均采用螺栓进行现场拼接; The prefabricated floor plate A is spliced with the prefabricated floor plate B, and the splicing method is to splice the long main beam I6 of the A plate and the long main beam I6 of the B plate, and all the splicing uses bolts for on-site splicing; The prefabricated floor plate B is spliced with the prefabricated floor plate C, and the splicing method is to splice the long main beam I6 of the B plate and the long main beam I6 of the C plate, and all the splicing uses bolts for on-site splicing; The prefabricated floor board D is spliced with the prefabricated floor E board, and the splicing method is to splice the long main beam I6 of the D board and the long main beam I6 of the E board, and the prefabricated floor E board and the The prefabricated floor F-slab is spliced, and the splicing method is to splice the long main beam I6 of the E-slab and the long main beam I6 of the F-slab. All the splicing uses bolts for on-site splicing; The D-slab of the prefabricated floor is spliced, and the splicing method is to splice the secondary beam V10 of the A-slab and the secondary beam V10 of the D-slab, and all the splicing uses bolts for on-site splicing; The E board is spliced, the splicing method is to splice the secondary beam V10 of the B board and the secondary beam V10 of the E board, and the prefabricated floor C board is spliced with the prefabricated floor F board, and the splicing method is to splice the C board Secondary beam Ⅴ10 and secondary beam Ⅴ10 of F-slab are spliced, and all the splicing is carried out on-site with bolts;
所述装配式楼板体系的基本组成单元为A板、B板、C板、D板、E板和F板;在横向上装配式楼板体系的两端为A板和D板,B板和C板拼接到一起可组成一个模块,此模块可相互拼接,根据建筑要求的面积,增加此模块的数量与A板拼接;E板和F板拼接到一起可组成另一个模块,此模块可相互拼接,根据建筑要求的面积,增加此模块的数量与D板拼接;纵向上装配式楼板体系的两端为A板、B板和C板,通过增加D板、E板和F板组成的中间模块,进行拼接来增大建筑面积;实现模块化拼接; The basic constituent units of the prefabricated floor system are A board, B board, C board, D board, E board and F board; the two ends of the prefabricated floor system in the horizontal direction are A board and D board, B board and C board The boards are spliced together to form a module, which can be spliced with each other. According to the area required by the building, the number of this module can be increased to splice with the A board; the E board and the F board can be spliced together to form another module, and the modules can be spliced with each other , according to the area required by the building, increase the number of this module to splice with the D board; the two ends of the prefabricated floor system in the longitudinal direction are A board, B board and C board, and the middle module composed of D board, E board and F board is added , splicing to increase the building area; realize modular splicing;
所述柱座7由两个法兰板11和一个方钢管Ⅰ12组成,两个法兰板11分别位于方钢管Ⅰ12的两个端部上,所有连接均采用焊接;所述法兰柱13由一个方钢管Ⅱ14和两个法兰板11组成,两个法兰板11分别位于方钢管Ⅱ14的两个端部上,所有连接均采用焊接;所述法兰柱13与柱座7进行连接,形成钢框架结构体系,所有连接均采用螺栓连接。 The column seat 7 is made up of two flange plates 11 and a square steel pipe I12, the two flange plates 11 are respectively located on the two ends of the square steel pipe I12, and all connections are welded; the flange column 13 is composed of A square steel pipe II14 and two flange plates 11 are formed, and the two flange plates 11 are respectively located on the two ends of the square steel pipe II14, and all connections are welded; the flange column 13 is connected with the column seat 7, A steel frame structure system is formed, and all connections are bolted.
所述短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、长主梁Ⅱ8、次梁Ⅳ9是H型钢,或者是两个槽钢背对背拼接而成的等效H型钢,或者是两个T型钢拼接而成的等效H型钢,或者是四个角钢拼接而成的等效H型钢;所述次梁Ⅲ5、长主梁Ⅰ6、次梁Ⅴ10是槽钢,或者是两个角钢拼接而成的等效槽钢。 The short main beam I1, the short main beam II2, the secondary beam I3, the secondary beam II4, the long main beam II8, and the secondary beam IV9 are H-shaped steel, or the equivalent H-shaped steel formed by splicing two channel steels back to back, or The equivalent H-shaped steel spliced by two T-shaped steels, or the equivalent H-shaped steel spliced by four angle steels; the secondary beam III5, the long main beam I6, and the secondary beam V10 are channel steels, or two angle steels Spliced equivalent channel steel.
所有的梁是型钢梁,或者是在梁的腹板处开设洞口的蜂窝钢梁,便于各种管线穿过。 All the beams are shaped steel beams, or honeycomb steel beams with openings at the webs of the beams, which are convenient for various pipelines to pass through.
本发明提出的模块化多高层装配式钢结构体系中,所述装配式法兰柱和装配式柱座均在工厂加工制作完成,然后通过螺栓连接各个构件拼装成所述装配式楼板。 In the modularized multi-story fabricated steel structure system proposed by the present invention, the fabricated flange column and the fabricated column base are all processed and manufactured in a factory, and then each component is connected by bolts to assemble the fabricated floor slab.
所有的梁是型钢梁,或者是在梁的腹板处开设洞口的蜂窝钢梁,便于各种管线穿过,既节省钢材,又有效的提高房屋的净高。 All the beams are shaped steel beams, or honeycomb steel beams with openings at the webs of the beams, which are convenient for various pipelines to pass through, which not only saves steel materials, but also effectively increases the net height of the house.
有益效果:本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系是装配式高层建筑钢结构体系中的创新的结构体系。其将模块化,工厂化和装配化相结合,实现了工厂化生产,现场快速装配,提高施工速度,缩短施工工期,降低工程造价,减少环境污染,拆除后钢材可回收利用,是一种绿色环保的结构体系。 Beneficial effects: the modularized multi-high-rise assembled steel structure system for realizing rigid node connection proposed by the present invention is an innovative structural system in the assembled high-rise building steel structure system. It combines modularization, factoryization and assembly, realizes factory production, rapid assembly on site, improves construction speed, shortens construction period, reduces project cost, reduces environmental pollution, and the steel can be recycled after dismantling. It is a green Environmentally friendly structural system.
附图说明 Description of drawings
图1是本发明的装配式楼板拼接平面布置图 Fig. 1 is the splicing plane layout diagram of the assembled floor slab of the present invention
图2是本发明的装配式楼板A板的示意图 Fig. 2 is the schematic diagram of prefabricated floor A plate of the present invention
图3是本发明的装配式楼板A板的单元分解图 Fig. 3 is the unit exploded view of prefabricated floor A plate of the present invention
图4是本发明的装配式楼板B板的示意图 Fig. 4 is the schematic diagram of the prefabricated floor B board of the present invention
图5是本发明的装配式楼板B板的单元分解图 Fig. 5 is the unit exploded view of the prefabricated floor B board of the present invention
图6是本发明的装配式楼板C板的示意图 Fig. 6 is the schematic diagram of the prefabricated floor C plate of the present invention
图7是本发明的装配式楼板C板的单元分解图 Fig. 7 is the unit exploded view of the prefabricated floor C plate of the present invention
图8是本发明的装配式楼板D板的示意图 Fig. 8 is the schematic diagram of the prefabricated floor D plate of the present invention
图9是本发明的装配式楼板D板的单元分解图 Fig. 9 is a unit exploded view of the prefabricated floor D board of the present invention
图10是本发明的装配式楼板E板的示意图 Fig. 10 is the schematic diagram of the prefabricated floor E board of the present invention
图11是本发明的装配式楼板E板的单元分解图 Fig. 11 is the unit exploded view of the prefabricated floor E board of the present invention
图12是本发明的装配式楼板F板的示意图 Fig. 12 is the schematic diagram of the prefabricated floor F board of the present invention
图13是本发明的装配式楼板F板的单元分解图 Fig. 13 is the unit exploded view of the prefabricated floor F board of the present invention
图14是本发明的装配式楼板柱座单元分解图 Fig. 14 is an exploded view of the assembled floor column base unit of the present invention
图15是本发明的装配式法兰柱单元分解图 Fig. 15 is an exploded view of the assembled flange column unit of the present invention
图16是本发明的装配式楼板中的梁的开洞示意图 Figure 16 is a schematic diagram of the opening of the beam in the prefabricated floor slab of the present invention
图17是本发明的模块化多高层装配式钢结构体系的装配效果图 Fig. 17 is an assembly effect diagram of the modular multi-high-rise assembled steel structure system of the present invention
其中:1—短主梁Ⅰ,2—短主梁Ⅱ,3—次梁Ⅰ,4—次梁Ⅱ,5—次梁Ⅲ,6—长主梁Ⅰ,7—柱座,8—长主梁Ⅱ,9—次梁Ⅳ,10—次梁Ⅴ,11—法兰板,12—方钢管Ⅰ,13—法兰柱,14—方钢管Ⅱ,15—连接板Ⅰ,16—连接板Ⅱ,17—楼板 Among them: 1—short main beam Ⅰ, 2—short main beam Ⅱ, 3—secondary beam Ⅰ, 4—secondary beam Ⅱ, 5—secondary beam Ⅲ, 6—long main beam Ⅰ, 7—column seat, 8—long main beam Beam II, 9—secondary beam IV, 10—secondary beam V, 11—flange plate, 12—square steel pipe I, 13—flange column, 14—square steel pipe II, 15—connection plate I, 16—connection plate II , 17—floor
具体实施方式 detailed description
下面结合附图对本发明进行详细说明: The present invention is described in detail below in conjunction with accompanying drawing:
如附图1所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述模块化多高层装配式钢结构体系由装配式楼板和装配式法兰柱采用螺栓装配而成;所述装配式楼板体系的基本组成单元为A板、B板、C板、D板、E板和F板。 As shown in accompanying drawing 1, in the modularized multi-high-rise fabricated steel structure system that realizes rigid node connections proposed by the present invention, the modularized multi-high-rise fabricated steel structure system consists of fabricated floor slabs and fabricated flange columns using bolts Assembled; the basic components of the prefabricated floor system are A board, B board, C board, D board, E board and F board.
如附图2和附图3所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述A板由短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6、柱座7、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述A板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成所述装配式楼 板A。短主梁Ⅱ2和次梁Ⅰ3垂直摆放,通过柱座7和连接板Ⅰ15将短主梁Ⅱ2和次梁Ⅰ3进行连接,短主梁Ⅱ2和次梁Ⅰ3连接在柱座7的方钢管Ⅰ12上,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅱ2和次梁Ⅰ3的翼缘相连,两块连接板Ⅰ15分别连接在短主梁Ⅱ2和次梁Ⅰ3上翼缘和下翼缘上,所有的连接部位均为焊接;短主梁Ⅰ1和短主梁Ⅱ2放置在同一条直线上,通过柱座7相连,短主梁Ⅰ1和短主梁Ⅱ2连接在柱座7的方钢管Ⅰ12上,所有的连接部位均采用为焊接;次梁Ⅱ4与次梁Ⅰ3平行,与短主梁Ⅰ1和短主梁Ⅱ2垂直,通过柱座7和连接板Ⅰ15与短主梁Ⅰ1和短主梁Ⅱ2相连,连接在柱座7的方钢管Ⅰ12上,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1、短主梁Ⅱ2和次梁Ⅱ4的翼缘相连,两块连接板Ⅰ15分别连接在短主梁Ⅰ1、短主梁Ⅱ2和次梁Ⅱ4的上翼缘和下翼缘上,所有的连接部位均采用为焊接;次梁Ⅲ5与次梁Ⅱ4平行,与短主梁Ⅰ1和短主梁Ⅱ2垂直,通过连接板Ⅰ15与短主梁Ⅰ1相连,短主梁Ⅰ1上伸出的板的三个侧面同次梁Ⅲ5的上下翼缘及腹板相连,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅲ5的翼缘相连,两块连接板Ⅰ15分别连接在上翼缘和下翼缘上,所有的连接部位均采用为焊接;长主梁Ⅰ6平行于短主梁Ⅰ1和短主梁Ⅱ2,垂直于次梁Ⅰ3,通过连接板Ⅰ15和连接板Ⅱ16与次梁Ⅰ3、次梁Ⅱ4和次梁Ⅲ5进行连接,所述连接板Ⅱ16位于次梁Ⅰ3和次梁Ⅱ4的端部,连接板Ⅱ16的上下端与次梁Ⅰ3和次梁Ⅱ4的翼缘相连,一个侧边与次梁Ⅰ3的腹板相连,另一个侧边同长主梁Ⅰ6的腹板连接,所述连接板Ⅰ15的两个侧面连接长主梁Ⅰ 6、次梁Ⅰ3、次梁Ⅱ4和次梁Ⅲ5的翼缘,连接板Ⅰ15分别连接在长主梁Ⅰ6、次梁Ⅰ3、次梁Ⅱ4和次梁Ⅲ5的上翼缘和下翼缘上,所有的连接部位均采用为焊接;楼板17采用抗剪键拼接在由短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6围成的平面上。 As shown in accompanying drawing 2 and accompanying drawing 3, in the modular multi-high-rise assembled steel structure system that realizes rigid joint connection proposed by the present invention, the A plate is composed of short main beam I1, short main beam II2, secondary beam I3, Secondary beam Ⅱ4, secondary beam Ⅲ5, long main beam Ⅰ6, column base 7, connecting plate Ⅰ15, connecting plate Ⅱ16 and floor slab 17; The connection assembles each component into the prefabricated floor A. The short main beam II2 and the secondary beam I3 are placed vertically, and the short main beam II2 and the secondary beam I3 are connected through the column base 7 and the connecting plate I15, and the short main beam II2 and the secondary beam I3 are connected to the square steel pipe I12 of the column base 7 , the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam II2 and the secondary beam I3, and the two connecting plates I15 are connected to the upper and lower flanges of the short main beam II2 and the secondary beam I3 respectively, All the connection parts are welded; the short main beam I1 and the short main beam II2 are placed on the same straight line and connected by the column base 7, and the short main beam I1 and the short main beam II2 are connected to the square steel pipe I12 of the column base 7, All the connection parts are welded; the secondary beam II4 is parallel to the secondary beam I3, perpendicular to the short main beam I1 and the short main beam II2, and connected to the short main beam I1 and the short main beam II2 through the column seat 7 and the connecting plate I15, Connected to the square steel pipe I12 of the column base 7, the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam I1, the short main beam II2 and the secondary beam II4, and the two connecting plates I15 are connected to the short main beam respectively. On the upper and lower flanges of beam Ⅰ1, short main beam Ⅱ2 and secondary beam Ⅱ4, all joints are welded; secondary beam Ⅲ5 is parallel to secondary beam Ⅱ4, and perpendicular to short main beam Ⅰ1 and short main beam Ⅱ2 , connected with the short main beam I1 through the connecting plate I15, the three sides of the plate protruding from the short main beam I1 are connected with the upper and lower flanges and the web of the secondary beam III5, and the two sides of the connecting plate I15 are respectively connected with the short main beam The flanges of the main beam I1 and the secondary beam III5 are connected, and two connecting plates I15 are respectively connected to the upper flange and the lower flange, and all the connection parts are welded; the long main beam I6 is parallel to the short main beam I1 and the short The main beam II2 is perpendicular to the secondary beam I3, and is connected with the secondary beam I3, secondary beam II4 and secondary beam III5 through the connecting plate I15 and the connecting plate II16, and the connecting plate II16 is located at the ends of the secondary beam I3 and the secondary beam II4, The upper and lower ends of the connecting plate II16 are connected with the flanges of the secondary beam I3 and secondary beam II4, one side is connected with the web of the secondary beam I3, and the other side is connected with the web of the long main beam I6, and the connecting plate I15 The two sides of the main girder Ⅰ6, the secondary beam Ⅰ3, the secondary beam Ⅱ4 and the flange of the secondary beam Ⅲ5 are connected, and the connecting plate Ⅰ15 is respectively connected to the long main beam Ⅰ6, the secondary beam Ⅰ3, the secondary beam Ⅱ4 and the secondary beam Ⅲ5 On the flange and the lower flange, all the connection parts are welded; the floor 17 is spliced by the short main beam I1, the short main beam II2, the secondary beam I3, the secondary beam II4, the secondary beam III5, the long main beam On the plane surrounded by beam I6.
如附图4和附图5所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述B板由次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅳ9、次梁Ⅴ10、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述B板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成所述装配式楼板B。长主梁Ⅰ6和次梁Ⅳ9、次梁Ⅴ10垂直摆放,通过连接板Ⅰ15和连接板Ⅱ16将两个长主梁Ⅰ6和次梁Ⅳ9、次梁Ⅴ10在梁端部进行连接,形成矩形框架,所述连接板Ⅱ16位于次梁Ⅳ9的端部,连接板Ⅱ16的上下端与次梁Ⅳ9、次梁Ⅴ10的翼缘相连,一个侧边与次梁Ⅳ9和次梁Ⅴ10的腹板相连,另一个侧面与长主梁Ⅰ6腹板连接,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅳ9、长主梁Ⅰ6和次梁Ⅴ10的翼缘相连,设置的两块连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅳ9、长主梁Ⅰ6和次梁Ⅴ10上翼缘和下翼缘上,所有的连接部位均为焊接;所述长主梁Ⅱ8与长主梁Ⅰ6平行,与次梁Ⅴ10垂直放置,长主梁Ⅱ8位于两个长主梁Ⅰ6的正中间,长主梁Ⅱ8的两个端部分别通过连接板Ⅰ15连接于次梁Ⅳ9、次梁Ⅴ10的中部,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅱ8和次梁Ⅳ9、长主梁Ⅱ8和次梁Ⅴ10的翼缘相连,长主梁Ⅱ8的两个端部伸出部分分别同次梁Ⅳ9、次梁Ⅴ10的中部腹 板相连,设置的两块连接板Ⅰ15分别连接在长主梁Ⅱ8、次梁Ⅳ9和次梁Ⅴ10的上翼缘和下翼缘上,所有的连接部位均为焊接;所述次梁Ⅱ4与次梁Ⅴ10平行,与长主梁Ⅰ6和长主梁Ⅱ8垂直放置,通过连接板Ⅰ15将次梁Ⅱ4的梁端连接于长主梁Ⅰ6和长主梁Ⅱ8的中部,次梁Ⅱ4与长主梁Ⅰ6相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,设置的两块连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6的上翼缘和下翼缘上,次梁Ⅱ4与长主梁Ⅱ8相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅱ8的翼缘相连,设置的两块连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅱ8的上翼缘和下翼缘上,次梁Ⅱ4两端伸出部分与长主梁Ⅰ6和长主梁Ⅱ8的中部腹板相连接,所有的连接部位均为焊接;楼板17采用抗剪键拼接在由次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅳ9、次梁Ⅴ10围成的框架上。 As shown in accompanying drawing 4 and accompanying drawing 5, in the modularized multi-high-rise assembled steel structure system that realizes rigid node connections proposed by the present invention, the B plate is composed of secondary beam II4, long main beam I6, long main beam II8, It consists of secondary beam IV9, secondary beam V10, connection plate I15, connection plate II16 and floor slab 17; all the components of the B plate are processed and manufactured in the factory, and then the components are assembled into the assembly by welding and shear key connection. type floor B. The long main beam I6, the secondary beam IV9, and the secondary beam V10 are placed vertically, and the two long main beams I6, secondary beam IV9, and secondary beam V10 are connected at the ends of the beams through the connecting plate I15 and the connecting plate II16 to form a rectangular frame. The connecting plate II16 is located at the end of the secondary beam IV9, the upper and lower ends of the connecting plate II16 are connected with the flanges of the secondary beam IV9 and V10, one side is connected with the webs of the secondary beam IV9 and V10, and the other The side is connected to the web of the long main beam I6, and the two sides of the connecting plate I15 are respectively connected to the flanges of the long main beam I6 and the secondary beam IV9, the long main beam I6 and the secondary beam V10, and the two connecting plates I15 are set They are respectively connected to the upper and lower flanges of the long main beam I6 and secondary beam IV9, the long main beam I6 and the secondary beam V10, and all the connection parts are welded; the long main beam II8 is parallel to the long main beam I6, Placed perpendicular to the secondary beam Ⅴ10, the long main beam Ⅱ8 is located in the middle of the two long main beams Ⅰ6, and the two ends of the long main beam Ⅱ8 are respectively connected to the middle parts of the secondary beam Ⅳ9 and the secondary beam Ⅴ10 through the connecting plate Ⅰ15. The two sides of the connecting plate Ⅰ15 are respectively connected with the flanges of the long main beam Ⅱ8 and the secondary beam Ⅳ9, the long main beam Ⅱ8 and the secondary beam Ⅴ10, and the protruding parts of the two ends of the long main beam Ⅱ8 are connected with the secondary beam Ⅳ9 and The middle web of the beam V10 is connected, and the two connecting plates I15 are respectively connected to the upper and lower flanges of the long main beam II8, secondary beam IV9 and secondary beam V10, and all the connection parts are welded; The secondary beam Ⅱ4 is parallel to the secondary beam Ⅴ10, placed vertically with the long main beam Ⅰ6 and the long main beam Ⅱ8, and the beam end of the secondary beam Ⅱ4 is connected to the middle part of the long main beam Ⅰ6 and the long main beam Ⅱ8 through the connection plate Ⅰ15, and the secondary beam Ⅱ4 The two sides of the connecting plate I15 at one end connected to the long main beam I6 are respectively connected to the flanges of the secondary beam II4 and the long main beam I6, and the two connecting plates I15 are respectively connected to the upper sides of the secondary beam II4 and the long main beam I6. On the flange and the lower flange, the two sides of the connection plate I15 at the end where the secondary beam II4 is connected to the long main beam II8 are respectively connected to the flanges of the secondary beam II4 and the long main beam II8, and the two connecting plates I15 are respectively connected On the upper and lower flanges of the secondary beam II4 and the long main beam II8, the protruding parts at both ends of the secondary beam II4 are connected with the middle webs of the long main beam I6 and the long main beam II8, and all the connecting parts are Welding; the floor slab 17 is spliced on the frame surrounded by secondary beams II4, long main beams I6, long main beams II8, secondary beams IV9 and secondary beams V10 using shear keys.
如附图6和附图7所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述C板由短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、长主梁Ⅰ6、柱座7、次梁Ⅴ10、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述C板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成所述装配式楼板C。所述两个次梁Ⅰ3放置在同一直线上,通过柱座7进行连接,连接在柱座7的方钢管Ⅰ(12)上,作为矩形装配式楼板C板的两条对边,所有连接均为焊接;所述长主梁Ⅰ6与次梁Ⅰ3垂直放置,作为矩形装配式楼板C板的另外两条对边,所有连接均为焊接;通过连接 板Ⅰ15和连接板Ⅱ16将C板的四条边进行连接,形成矩形框架,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅰ3的翼缘相连,两块连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅰ3上翼缘和下翼缘上,所有的连接部位均为焊接,所述连接板Ⅱ16位于次梁Ⅰ3与长主梁Ⅰ6相连接的一端,连接板Ⅱ16的上下端与次梁Ⅰ3的翼缘相连,一个侧边与次梁Ⅰ3的腹板相连,所有的连接部位均为焊接;短主梁Ⅰ1、短主梁Ⅱ2和两个次梁Ⅱ4的一端分别连接在柱座7的四个侧面上,短主梁Ⅰ1、短主梁Ⅱ2和两个次梁Ⅱ4连接在柱座7的方钢管Ⅰ(12)上,两个短主梁在一条直线上,两个次梁在一条直线上,柱座7位于C板的中心,相邻的短主梁和次梁之间通过连接板Ⅰ15进行连接,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅱ4的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅰ1和次梁Ⅱ4上翼缘和下翼缘上,所述短主梁Ⅰ1的另一端连接在次梁Ⅴ10中部,短主梁Ⅰ1的伸出部分三个侧面分别与次梁Ⅴ10的翼缘和腹板连接,短主梁Ⅰ1通过连接板Ⅰ15与在次梁Ⅴ10边相连,连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅴ10的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅰ1和次梁Ⅴ10上翼缘和下翼缘上,所有的连接部位均为焊接,所述短主梁Ⅱ2的另一端通过柱座7和连接板Ⅰ15与两个次梁Ⅰ3相连接,连接在柱座7的方钢管Ⅰ12上,连接板Ⅰ15的两个侧面分别与短主梁Ⅱ2和次梁Ⅰ3的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅱ2和次梁Ⅰ3上翼缘和下翼缘上,所有的连接部位均为焊接,所述次梁Ⅱ4的另一端连接在长主梁Ⅰ6的中部,采用连接板Ⅰ15进行连接,次梁 Ⅱ4的伸出部分三个侧面分别与长主梁Ⅰ6的翼缘和腹板连接,连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6上翼缘和下翼缘上,所有的连接部位均为焊接;楼板17采用抗剪键拼接在短主梁Ⅰ1、短主梁Ⅱ2、次梁Ⅰ3、次梁Ⅱ4、长主梁Ⅰ6所围成的框架上。 As shown in accompanying drawings 6 and 7, in the modularized multi-high-rise assembled steel structure system for realizing rigid node connection proposed by the present invention, the C-plate is composed of short main beam I1, short main beam II2, secondary beam I3, Secondary beam II4, long main beam I6, column base 7, secondary beam V10, connecting plate I15, connecting plate II16 and floor slab 17; The connection assembles each component into the prefabricated floor C. The two secondary beams I3 are placed on the same straight line, connected through the column base 7, and connected to the square steel pipe I (12) of the column base 7, as two opposite sides of the rectangular prefabricated floor plate C, all connections are For welding; the long main beam I6 and the secondary beam I3 are vertically placed as the other two opposite sides of the C-plate of the rectangular prefabricated floor, and all connections are welded; the four sides of the C-plate are connected through the connecting plate I15 and the connecting plate II16 Connect to form a rectangular frame, the two sides of the connecting plate I15 are respectively connected to the flanges of the long main beam I6 and the secondary beam I3, and the two connecting plates I15 are respectively connected to the upper flanges of the long main beam I6 and the secondary beam I3 And on the lower flange, all the connection parts are welded, the connecting plate II16 is located at the end where the secondary beam I3 is connected with the long main beam I6, the upper and lower ends of the connecting plate II16 are connected with the flange of the secondary beam I3, and one side The side is connected with the web of the secondary beam I3, and all the connecting parts are welded; one end of the short main beam I1, the short main beam II2 and the two secondary beams II4 are respectively connected to the four sides of the column base 7, and the short main beam Ⅰ1, the short main beam Ⅱ2 and the two secondary beams Ⅱ4 are connected to the square steel pipe I (12) of the column base 7, the two short main beams are on a straight line, the two secondary beams are on a straight line, and the column base 7 is located at C In the center of the slab, the adjacent short main beams and secondary beams are connected through the connecting plate I15. Connected to the upper and lower flanges of the short main beam I1 and the secondary beam II4, the other end of the short main beam I1 is connected to the middle of the secondary beam V10, and the three sides of the protruding part of the short main beam I1 are respectively connected to the secondary beam The flange of V10 is connected to the web, the short main beam I1 is connected to the side of the secondary beam V10 through the connecting plate I15, and the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam I1 and the secondary beam V10, and the connecting plate I15 They are respectively connected to the upper and lower flanges of the short main beam I1 and the secondary beam V10. All the connection parts are welded. The other end of the short main beam II2 is connected to the two secondary beams through the column base 7 and the connecting plate I15. I3 is connected to the square steel pipe I12 of the column base 7, the two sides of the connecting plate I15 are respectively connected to the flanges of the short main beam II2 and the secondary beam I3, and the connecting plate I15 is respectively connected to the short main beam II2 and the secondary beam On the upper flange and the lower flange of I3, all the connecting parts are welded, and the other end of the secondary beam II4 is connected to the middle of the long main beam I6, and the connecting plate I15 is used for connection, and the protruding part of the secondary beam II4 is three The two sides are respectively connected with the flange and web of the long main beam I6, the two sides of the connecting plate I15 are respectively connected with the flange of the secondary beam II4 and the long main beam I6, and the connecting plate I15 is respectively connected with the secondary beam II4 and the long main beam On the upper and lower flanges of beam I6, all the connection parts are welded; the floor 17 is spliced on the short main beam I1, short main beam II2, secondary beam I3, secondary beam II4, and long main beam I6 by using shear keys. on the surrounding frame.
如附图8和附图9所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述D板由短主梁Ⅰ1、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6、柱座7、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述D板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成所述装配式楼板D。短主梁Ⅰ1和次梁Ⅲ5垂直摆放,通过连接板Ⅰ15将短主梁Ⅰ1与次梁Ⅲ5进行连接,短主梁Ⅰ1的伸出部分与次梁Ⅲ5的端部腹板连接,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅲ5的翼缘相连,两块连接板Ⅰ15分别连接在上翼缘和下翼缘上,所有的连接部位均为焊接;两个短主梁Ⅰ1放置在同一条直线上,通过柱座7相连,两个短主梁Ⅰ1连接在柱座7的方钢管Ⅰ12上,所有的连接部位均采用为焊接;次梁Ⅱ4与次梁Ⅲ5平行,与两个短主梁Ⅰ1垂直,通过柱座7和连接板Ⅰ15与两个短主梁Ⅰ1相连,连接在柱座7的方钢管Ⅰ12上,所述连接板Ⅰ15的两个侧面分别与两个短主梁Ⅰ1和次梁Ⅱ4的翼缘相连,连接板Ⅰ15分别连接在两个短主梁Ⅰ1和次梁Ⅱ4的上翼缘和下翼缘上,所有的连接部位均采用为焊接;长主梁Ⅰ6平行于两个短主梁Ⅰ1,垂直于次梁Ⅱ4,通过连接板Ⅰ15和连接板Ⅱ16与两端的次 梁Ⅱ4和次梁Ⅲ5进行连接,所述连接板Ⅱ16位于次梁Ⅱ4和次梁Ⅲ5的端部,连接板Ⅱ16的上下端与次梁Ⅱ4和次梁Ⅲ5的翼缘相连,一个侧边与次梁Ⅱ4和次梁Ⅲ5的腹板相连,另一个侧边同长主梁Ⅰ6的腹板连接,所述连接板Ⅰ15的两个侧面连接长主梁Ⅰ6和次梁Ⅱ4和次梁Ⅲ5的翼缘,连接板Ⅰ15分别连接在长主梁Ⅰ6、次梁Ⅱ4和次梁Ⅲ5上翼缘和下翼缘上,长主梁Ⅰ6的中部腹板与次梁Ⅱ4的伸出部分连接,所有的连接部位均采用为焊接;楼板17采用抗剪键拼接在短主梁Ⅰ1、次梁Ⅱ4、次梁Ⅲ5、长主梁Ⅰ6所围成的框架上。 As shown in accompanying drawings 8 and 9, in the modularized multi-high-rise assembled steel structure system that realizes rigid joint connections proposed by the present invention, the D-slab consists of short main beam I1, secondary beam II4, secondary beam III5, long Main girder I6, column base 7, connecting plate I15, connecting plate II16 and floor slab 17; all components of the D plate are processed and manufactured in the factory, and then assembled into the assembly by welding and shear key connection. type floor D. The short main beam I1 and the secondary beam III5 are placed vertically, and the short main beam I1 and the secondary beam III5 are connected through the connecting plate I15, and the protruding part of the short main beam I1 is connected with the end web of the secondary beam III5. The two sides of the plate I15 are respectively connected with the flanges of the short main beam I1 and the secondary beam III5. The beam Ⅰ1 is placed on the same straight line and connected by the column base 7. The two short main beams Ⅰ1 are connected to the square steel pipe Ⅰ12 of the column base 7, and all the connection parts are welded; the secondary beam Ⅱ4 is parallel to the secondary beam Ⅲ5, It is perpendicular to the two short main beams I1, connected to the two short main beams I1 through the column base 7 and the connecting plate I15, and connected to the square steel pipe I12 of the column base 7. The two sides of the connecting plate I15 are respectively connected to the two The flanges of the short main beam I1 and the secondary beam II4 are connected, and the connecting plate I15 is respectively connected to the upper and lower flanges of the two short main beam I1 and the secondary beam II4, and all the connection parts are welded; the long main beam The beam I6 is parallel to the two short main beams I1 and perpendicular to the secondary beam II4. It is connected to the secondary beam II4 and the secondary beam III5 at both ends through the connecting plate I15 and the connecting plate II16. The connecting plate II16 is located between the secondary beam II4 and the secondary beam The end of Ⅲ5, the upper and lower ends of the connecting plate Ⅱ16 are connected with the flanges of the secondary beam Ⅱ4 and Ⅲ5, one side is connected with the web of the secondary beam Ⅱ4 and Ⅲ5, and the other side is connected with the long main beam Ⅰ6 Web connection, the two sides of the connecting plate I15 are connected to the flanges of the long main beam I6, the secondary beam II4 and the secondary beam III5, and the connecting plate I15 is respectively connected to the upper wings of the long main beam I6, secondary beam II4 and secondary beam III5 On the flange and the lower flange, the middle web of the long main beam I6 is connected to the protruding part of the secondary beam II4, and all the connection parts are welded; the floor 17 is spliced to the short main beam I1 and the secondary beam II4 by using shear keys , secondary beam III5, and long main beam I6 on the frame.
如附图10和附图11所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述E板由次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅴ10、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述E板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成装配式楼板E。长主梁Ⅰ6和次梁Ⅴ10垂直摆放,通过连接板Ⅰ15和连接板Ⅱ16将长主梁Ⅰ6和次梁Ⅴ10在梁端部进行连接,形成矩形框架,所述连接板Ⅱ16位于次梁的端部,连接板Ⅱ16的上下端与次梁Ⅴ10的翼缘相连,一个侧边与次梁Ⅴ10的腹板相连,另一个侧面与长主梁Ⅰ6腹板连接,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅴ10的翼缘相连,设置的连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅴ10的上翼缘和下翼缘上,所有的连接部位均为焊接;所述长主梁Ⅱ8与长主梁Ⅰ6平行,与次梁Ⅴ10垂直放置,长主梁Ⅱ8位于两个长主梁Ⅰ6的正中间,长主梁Ⅱ8的两个端部分别通过连接板Ⅰ15连接于次梁Ⅴ10的中部,所述连接板Ⅰ15 的两个侧面分别与长主梁Ⅱ8和次梁Ⅴ10的翼缘相连,长主梁Ⅱ8的两个端部伸出部分两端次梁Ⅴ10的中部腹板相连,设置的连接板Ⅰ15分别连接在长主梁Ⅱ8和次梁Ⅴ10的上翼缘和下翼缘上,所有的连接部位均为焊接;所述次梁Ⅱ4与次梁Ⅴ10平行,与长主梁Ⅰ6和长主梁Ⅱ8垂直放置,通过连接板Ⅰ15将次梁Ⅱ4的梁端连接于长主梁Ⅰ6和长主梁Ⅱ8的中部,次梁Ⅱ4与长主梁Ⅰ6相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,设置的连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6上翼缘和下翼缘上,次梁Ⅱ4与长主梁Ⅱ8相连一端的连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅱ8的翼缘相连,设置的两块连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅱ8上翼缘和下翼缘上,次梁Ⅱ4两端伸出部分与两侧长主梁Ⅰ6和长主梁Ⅱ8的中部腹板相连接,所有的连接部位均为焊接;楼板17采用抗剪键拼接在次梁Ⅱ4、长主梁Ⅰ6、长主梁Ⅱ8、次梁Ⅴ10所围成的框架上。 As shown in accompanying drawing 10 and accompanying drawing 11, in the modular multi-high-rise assembled steel structure system that realizes rigid joint connection proposed by the present invention, the E-plate is composed of secondary beam II4, long main beam I6, long main beam II8, The secondary beam V10, the connection plate I15, the connection plate II16 and the floor 17 are composed; all the components of the E-slab are processed and manufactured in the factory, and then each component is assembled into a prefabricated floor E by welding and shear key connection. The long main beam I6 and the secondary beam V10 are vertically placed, and the long main beam I6 and the secondary beam V10 are connected at the end of the beam through the connecting plate I15 and the connecting plate II16 to form a rectangular frame. The connecting plate II16 is located at the end of the secondary beam The upper and lower ends of the connecting plate II16 are connected to the flange of the secondary beam V10, one side is connected to the web of the secondary beam V10, and the other side is connected to the web of the long main beam I6, and the two sides of the connecting plate I15 They are respectively connected to the flanges of the long main girder I6 and the secondary girder V10, and the set connecting plate I15 is respectively connected to the upper and lower flanges of the long main girder I6 and the secondary girder V10, and all the connection parts are welded; The long main beam Ⅱ8 is parallel to the long main beam Ⅰ6 and placed vertically with the secondary beam Ⅴ10. The long main beam Ⅱ8 is located in the middle of the two long main beams Ⅰ6. The two ends of the long main beam Ⅱ8 are respectively connected to the The middle part of the secondary beam V10, the two sides of the connecting plate I15 are respectively connected with the flanges of the long main beam II8 and the secondary beam V10, and the two ends of the long main beam II8 protrude from the middle web of the secondary beam V10 at both ends. The connecting plate I15 is connected to the upper flange and the lower flange of the long main beam II8 and the secondary beam V10 respectively, and all the connection parts are welded; the secondary beam II4 is parallel to the secondary beam V10, and the long The main beam I6 and the long main beam II8 are placed vertically, and the beam end of the secondary beam II4 is connected to the middle of the long main beam I6 and the long main beam II8 through the connecting plate I15, and the connecting plate I15 at one end of the secondary beam II4 is connected to the long main beam I6 The two side surfaces of the two sides are respectively connected with the flanges of the secondary beam II4 and the long main beam I6, and the set connecting plate I15 is respectively connected with the upper and lower flanges of the secondary beam II4 and the long main beam I6, and the secondary beam II4 is connected with the long main beam The two sides of the connecting plate I15 at one end of the beam II8 are respectively connected to the flanges of the secondary beam II4 and the long main beam II8, and the two connecting plates I15 are respectively connected to the upper flange and the lower flange of the secondary beam II4 and the long main beam II8. On the flange, the protruding parts at both ends of the secondary beam Ⅱ4 are connected to the middle webs of the long main beam Ⅰ6 and long main beam Ⅱ8 on both sides, and all the connection parts are welded; the floor 17 is spliced to the secondary beam Ⅱ4 with shear keys , Long main beam I6, long main beam II8, and secondary beam V10 on the frame.
如附图12和附图13所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述F板由短主梁Ⅰ1、次梁Ⅱ4、长主梁Ⅰ6、柱座7、次梁Ⅴ10、连接板Ⅰ15、连接板Ⅱ16和楼板17构成;所述F板的所有构件均在工厂加工制作完成,然后通过焊接和抗剪键连接将各个构件拼装成装配式楼板F。长主梁Ⅰ6和次梁Ⅴ10垂直摆放,通过连接板Ⅰ15和连接板Ⅱ16将长主梁Ⅰ6和次梁Ⅴ10在梁端部进行连接,形成矩形框架,所述连接板Ⅱ16位于次梁的端部,连接板Ⅱ16的上下端与次梁Ⅴ10的翼缘相连,一个侧边与次梁 Ⅴ10的腹板相连,另一个侧面与长主梁Ⅰ6腹板连接,所述连接板Ⅰ15的两个侧面分别与长主梁Ⅰ6和次梁Ⅴ10的翼缘相连,设置的连接板Ⅰ15分别连接在长主梁Ⅰ6和次梁Ⅴ10上翼缘和下翼缘上,所有的连接部位均为焊接;两个短主梁Ⅰ1和两个次梁Ⅱ4的一端分别连接在柱座7的四个侧面上,两个短主梁Ⅰ1和两个次梁Ⅱ4连接在柱座7的方钢管Ⅰ12上,两个短主梁在一条直线上,两个次梁在一条直线上,柱座7位于F板的中心,相邻的短主梁和次梁之间通过连接板Ⅰ15进行连接,所述连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅱ4的翼缘相连,连接板Ⅰ15分别连接在短主梁Ⅰ1和次梁Ⅱ4上翼缘和下翼缘上,所述短主梁Ⅰ1的另一端连接在次梁Ⅴ10中部,短主梁Ⅰ1的伸出部分的三个侧面分别与次梁Ⅴ10中部的翼缘和腹板连接,短主梁Ⅰ1通过连接板Ⅰ15与次梁Ⅴ10相连,连接板Ⅰ15的两个侧面分别与短主梁Ⅰ1和次梁Ⅴ10的翼缘相连,连接板Ⅰ15分别连接在上翼缘和下翼缘上,所述次梁Ⅱ4的另一端连接在长主梁Ⅰ6的中部,采用连接板Ⅰ15进行连接,次梁Ⅱ4的伸出部分三个侧面分别与长主梁Ⅰ6中部的翼缘和腹板连接,连接板Ⅰ15的两个侧面分别与次梁Ⅱ4和长主梁Ⅰ6的翼缘相连,连接板Ⅰ15分别连接在次梁Ⅱ4和长主梁Ⅰ6的上翼缘和下翼缘上,所有的连接部位均为焊接;楼板17采用抗剪键拼接在短主梁Ⅰ1、次梁Ⅱ4、长主梁Ⅰ6、柱座7、次梁Ⅴ10所围成的框架上。 As shown in accompanying drawing 12 and accompanying drawing 13, in the modular multi-high-rise assembled steel structure system that realizes rigid node connection proposed by the present invention, the F-plate is composed of short main beam I1, secondary beam II4, long main beam I6, Column base 7, secondary beam V10, connection plate I15, connection plate II16 and floor 17; all components of the F-slab are processed and manufactured in the factory, and then assembled into a prefabricated floor by welding and shear key connection F. The long main beam I6 and the secondary beam V10 are vertically placed, and the long main beam I6 and the secondary beam V10 are connected at the end of the beam through the connecting plate I15 and the connecting plate II16 to form a rectangular frame. The connecting plate II16 is located at the end of the secondary beam The upper and lower ends of the connecting plate II16 are connected to the flange of the secondary beam V10, one side is connected to the web of the secondary beam V10, and the other side is connected to the web of the long main beam I6, and the two sides of the connecting plate I15 They are respectively connected to the flanges of the long main girder I6 and the secondary girder V10, and the set connecting plate I15 is respectively connected to the upper and lower flanges of the long main girder I6 and the secondary girder V10, and all the connection parts are welded; the two One end of the short main beam I1 and two secondary beams II4 are respectively connected to the four sides of the column base 7, the two short main beams I1 and the two secondary beams II4 are connected to the square steel pipe I12 of the column base 7, and the two short The main beam is on a straight line, the two secondary beams are on a straight line, the column seat 7 is located in the center of the F plate, and the adjacent short main beams and secondary beams are connected through the connecting plate I15, and the two connecting plates I15 The two sides are respectively connected to the flanges of the short main beam I1 and the secondary beam II4, and the connecting plate I15 is respectively connected to the upper and lower flanges of the short main beam I1 and the secondary beam II4, and the other end of the short main beam I1 is connected to In the middle of the secondary beam V10, the three sides of the protruding part of the short main beam I1 are respectively connected with the flange and the web in the middle of the secondary beam V10, the short main beam I1 is connected with the secondary beam V10 through the connecting plate I15, and the connecting plate I15 The two sides are respectively connected to the flanges of the short main beam I1 and the secondary beam V10, the connecting plate I15 is respectively connected to the upper flange and the lower flange, and the other end of the secondary beam II4 is connected to the middle of the long main beam I6, The connecting plate I15 is used for connection, the three sides of the protruding part of the secondary beam II4 are respectively connected with the flange and the web in the middle of the long main beam I6, and the two sides of the connecting plate I15 are respectively connected with the secondary beam II4 and the long main beam I6 The flanges are connected, and the connecting plate I15 is respectively connected to the upper and lower flanges of the secondary beam II4 and the long main beam I6, and all the connection parts are welded; the floor 17 is spliced on the short main beam I1, the secondary On the frame surrounded by beam II4, long main beam I6, column base 7, and secondary beam V10.
本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述装配式楼板A板与所述装配式楼板B板进行拼接,拼接 方式是将A板的长主梁Ⅰ6和B板的长主梁Ⅰ6进行拼接,所有的拼接均采用螺栓进行现场拼接;所述装配式楼板B板与所述装配式楼板C板进行拼接,拼接方式是将B板的长主梁Ⅰ6和C板的长主梁Ⅰ6进行拼接,所有的拼接均采用螺栓进行现场拼接;所述装配式楼板D板与所述装配式楼板E板进行拼接,拼接方式是将D板的长主梁Ⅰ6和E板的长主梁Ⅰ6进行拼接,所述装配式楼板E板与所述装配式楼板F板进行拼接,拼接方式是将E板的长主梁Ⅰ6和F板的长主梁Ⅰ6进行拼接所有的拼接均采用螺栓进行现场拼接;所述装配式楼板A板与所述装配式楼板D板进行拼接,拼接方式是将A板的次梁Ⅴ10和D板的次梁Ⅴ10进行拼接,所有的拼接均采用螺栓进行现场拼接;所述装配式楼板B板与所述装配式楼板E板进行拼接,拼接方式是将B板的次梁Ⅴ10和E板的次梁Ⅴ10进行拼接,所述装配式楼板C板与所述装配式楼板F板进行拼接,拼接方式是将C板的次梁Ⅴ10和F板的次梁Ⅴ10进行拼接,所有的拼接均采用螺栓进行现场拼接。 In the modularized multi-high-rise assembled steel structure system that realizes rigid node connections proposed by the present invention, the assembled floor slab A and the assembled floor slab B are spliced, and the splicing method is to combine the long main beam I6 of the A slab and the assembled floor slab B. The long main beam I6 of the B-slab is spliced, and all the splicing is carried out on-site with bolts; the prefabricated floor B-slab is spliced with the said prefabricated floor C-slab, and the splicing method is to combine the long main beam I6 of the B-slab and the C-slab of the prefabricated floor. The long main beam I6 of the C plate is spliced, and all the splicing is carried out on-site splicing with bolts; the prefabricated floor D plate is spliced with the prefabricated floor E plate, and the splicing method is to combine the long main beam I6 of the D plate and the prefabricated floor E plate. The long main beam I6 of the E-slab is spliced, and the prefabricated floor E-slab is spliced with the prefabricated floor F-slab. The splicing method is to splice the long main beam I6 of the E-slab and the long main beam I6 of the F-slab. bolts are used for on-site splicing; the prefabricated floor plate A is spliced with the prefabricated floor plate D, and the splicing method is to splice the secondary beam V10 of the A plate and the secondary beam V10 of the D plate, and all the splicing Bolts are used for on-site splicing; the prefabricated floor slab B is spliced with the prefabricated floor slab E, and the splicing method is to splice the secondary beam V10 of the B slab and the secondary beam V10 of the E slab. The C plate is spliced with the prefabricated floor F plate. The splicing method is to splice the secondary beam V10 of the C plate and the secondary beam V10 of the F plate. All the splicing uses bolts for on-site splicing.
如附图14和附图15所示,本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系中,所述柱座7由两个法兰板11和一个方钢管Ⅰ12组成,两个法兰板11分别位于方钢管Ⅰ12的两个端部上,所有连接均采用焊接;所述法兰柱13由一个方钢管Ⅱ14和两个法兰板11组成,两个法兰板11分别位于方钢管Ⅱ14的两个端部上,所有连接均采用焊接;所述法兰柱13与柱座7进行连接,形成钢框架结构体系,所有连接均采用螺栓连接。 As shown in accompanying drawings 14 and 15, in the modularized multi-story fabricated steel structure system for realizing rigid node connection proposed by the present invention, the column base 7 is composed of two flange plates 11 and a square steel pipe I12, The two flange plates 11 are respectively located on the two ends of the square steel pipe I12, and all connections are welded; the flange column 13 is composed of a square steel pipe II14 and two flange plates 11, and the two flange plates 11 They are respectively located at the two ends of the square steel pipe II14, and all connections are welded; the flange column 13 is connected with the column base 7 to form a steel frame structure system, and all connections are bolted.
如附图16所示,本发明提出的实现刚性节点连接的模块化多高 层装配式钢结构体系中,所述所有的梁,均可采用在梁的腹板处开设洞口的蜂窝钢梁,便于各种管线穿过。 As shown in accompanying drawing 16, in the modularized multi-high-rise assembled steel structure system that realizes rigid node connection proposed by the present invention, all the beams mentioned above can adopt honeycomb steel beams with openings at the webs of the beams, which is convenient Various pipelines run through.
如附图17所示,本发明的装配效果图。 As shown in accompanying drawing 17, the assembly rendering of the present invention.
本发明提出的实现刚性节点连接的模块化多高层装配式钢结构体系是对传统的钢结构住宅建筑的颠覆,充分发挥了钢结构住宅的优势。 The modular multi-high-rise assembled steel structure system proposed by the invention to realize rigid node connections is a subversion of traditional steel structure residential buildings, and fully exerts the advantages of steel structure residential buildings.
Claims (3)
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN201410105171.0A CN103898971B (en) | 2014-03-20 | 2014-03-20 | A kind of many high-rise assembling type steel structure systems of modularization realizing rigid joint connection |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN201410105171.0A CN103898971B (en) | 2014-03-20 | 2014-03-20 | A kind of many high-rise assembling type steel structure systems of modularization realizing rigid joint connection |
Publications (2)
Publication Number | Publication Date |
---|---|
CN103898971A CN103898971A (en) | 2014-07-02 |
CN103898971B true CN103898971B (en) | 2016-08-17 |
Family
ID=50990522
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
CN201410105171.0A Expired - Fee Related CN103898971B (en) | 2014-03-20 | 2014-03-20 | A kind of many high-rise assembling type steel structure systems of modularization realizing rigid joint connection |
Country Status (1)
Country | Link |
---|---|
CN (1) | CN103898971B (en) |
Families Citing this family (1)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN105522500B (en) * | 2016-01-28 | 2017-03-29 | 中交第二航务工程局有限公司 | Steel beam column non-detachable mold massing polish positioner |
Citations (6)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
US5333426A (en) * | 1993-01-06 | 1994-08-02 | Forintek Canada Corporation | Wood frame construction system with prefabricated components |
JPH06280307A (en) * | 1993-03-29 | 1994-10-04 | Sumitomo Metal Ind Ltd | Column beam joint part |
CN101748903A (en) * | 2009-12-31 | 2010-06-23 | 宝业集团浙江建设产业研究院有限公司 | Structural system of industrial low storied dwelling |
CN201785865U (en) * | 2010-09-28 | 2011-04-06 | 杨峰 | Structure and system for house combining external prestress post tensioning method steel beam and pretensioning method prestress composite beam |
CN102995743A (en) * | 2012-11-26 | 2013-03-27 | 北京工业大学 | Multi-high-rise assembly type steel structure system |
CN103334491A (en) * | 2013-06-24 | 2013-10-02 | 北京工业大学 | Multi-story high-rise fabricated steel-structure special-shaped column framework supporting system |
-
2014
- 2014-03-20 CN CN201410105171.0A patent/CN103898971B/en not_active Expired - Fee Related
Patent Citations (6)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
US5333426A (en) * | 1993-01-06 | 1994-08-02 | Forintek Canada Corporation | Wood frame construction system with prefabricated components |
JPH06280307A (en) * | 1993-03-29 | 1994-10-04 | Sumitomo Metal Ind Ltd | Column beam joint part |
CN101748903A (en) * | 2009-12-31 | 2010-06-23 | 宝业集团浙江建设产业研究院有限公司 | Structural system of industrial low storied dwelling |
CN201785865U (en) * | 2010-09-28 | 2011-04-06 | 杨峰 | Structure and system for house combining external prestress post tensioning method steel beam and pretensioning method prestress composite beam |
CN102995743A (en) * | 2012-11-26 | 2013-03-27 | 北京工业大学 | Multi-high-rise assembly type steel structure system |
CN103334491A (en) * | 2013-06-24 | 2013-10-02 | 北京工业大学 | Multi-story high-rise fabricated steel-structure special-shaped column framework supporting system |
Also Published As
Publication number | Publication date |
---|---|
CN103898971A (en) | 2014-07-02 |
Similar Documents
Publication | Publication Date | Title |
---|---|---|
CN102995743B (en) | Multi-high-rise assembly type steel structure system | |
CN103206014B (en) | Multi-high-rise assembled steel structure frame supporting system capable of realizing rigid connection of joints | |
CN102979164B (en) | Multi-story high-rise assembled steel structure eccentrically-braced system | |
CN103184762B (en) | Multi-story/high-rise fabricated steel structural prestressed supporting system capable of realizing rigid connection of joints | |
CN102979167B (en) | Multi-story high-rise assembled steel structure prestressed centrally-braced system | |
CN102979170B (en) | Multi-story high-rise assembled steel structure prestressed eccentrically-braced system | |
CN103334491B (en) | One how high-rise assembling type steel structure hetero-columns frame support system | |
CN103334488B (en) | Assembled steel structure deformed column framework support system | |
CN103195163B (en) | Multiple high-level assembly steel structure system capable of realizing rigid node connections | |
CN102979169A (en) | Multi-story high-rise assembled steel structure centrally-braced system | |
CN102979174B (en) | Multi-story high-rise assembled steel structure frame system | |
CN103898971B (en) | A kind of many high-rise assembling type steel structure systems of modularization realizing rigid joint connection | |
CN103866853B (en) | The many high-rise assembling type steel structure frame systems of a kind of industrialized modular | |
CN103882941B (en) | Modular many high-rise assembling type steel structure frame center support systems | |
CN103882948B (en) | Industrialized modular how high-rise assembling type steel structure prestressing force eccentrical braces | |
CN103882951B (en) | The many high-rise assembling type steel structure eccentrical braces of the moudle type of a kind of industrialization | |
CN103898969B (en) | A kind of assembled steel framework accentric support occlusion splicing system of rigid joint | |
CN103882952B (en) | Modular how high-rise assembling type steel structure prestressing force center support system | |
CN103866860B (en) | A kind of how high-rise assembling type steel structure prestressing force eccentrical braces being engaged splicing | |
CN103882943B (en) | The modular assembly formula steel construction central supported system that a kind of node has just connect | |
CN103882946B (en) | Modular multi-story prefabricated steel structure prestressed eccentric support system | |
CN104032830B (en) | Rigid joint type modular assembling type steel structural eccentric supporting system | |
CN103882955B (en) | A kind of how high-rise assembling type steel structure eccentrical braces being engaged splicing | |
CN103882950B (en) | The many high-rise assembling type steel structure prestressing force central supported systems of industrialized modular | |
CN103882983B (en) | The modular assembly formula steel construction prestressing force eccentrical braces that a kind of node has just connect |
Legal Events
Date | Code | Title | Description |
---|---|---|---|
C06 | Publication | ||
PB01 | Publication | ||
C10 | Entry into substantive examination | ||
SE01 | Entry into force of request for substantive examination | ||
C14 | Grant of patent or utility model | ||
GR01 | Patent grant | ||
TR01 | Transfer of patent right | ||
TR01 | Transfer of patent right |
Effective date of registration: 20200717 Address after: 050000 room 2103, unit 2, building 17, Everest international, No.180, Zhufeng street, hi tech Zone, Shijiazhuang City, Hebei Province Patentee after: Hebei Hao Zhen Intellectual Property Agency Service Co.,Ltd. Address before: 100124 Chaoyang District, Beijing Ping Park, No. 100 Patentee before: Beijing University of Technology |
|
TR01 | Transfer of patent right | ||
TR01 | Transfer of patent right |
Effective date of registration: 20201012 Address after: 244000 No. 316, building A, hi tech Innovation Service Center, Anhui, Tongling Patentee after: TONGLING XIANGYU COMMERCE AND TRADE Co.,Ltd. Address before: 050000 room 2103, unit 2, building 17, Everest international, No.180, Zhufeng street, hi tech Zone, Shijiazhuang City, Hebei Province Patentee before: Hebei Hao Zhen Intellectual Property Agency Service Co.,Ltd. |
|
CF01 | Termination of patent right due to non-payment of annual fee | ||
CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20160817 |