內(nèi)爬式塔式起重機(jī)支護(hù)系統(tǒng)與受力分析的研究
[Abstract]:With the rapid development of science and technology today, advanced structural theory, efficient computing technology, new construction technology and high-strength, light-weight building materials have created favorable conditions for further breakthrough in building height. And people's intense competition to the building height, promoted the renewal of the world building height ranking. Since the inner climbing tower crane can save the tower body, reduce the vertical load, and the climbing height is not limited, it is an important equipment in the construction of high-rise and super-high-rise buildings. At the same time, the climbing of the inner-climbing tower crane depends on its support system, so the research method of perfecting the super-high-rise support technology of the inner-climbing tower crane has become a new subject, which has very practical significance. The double tower of Fuhang long Square in Shenyang will reach 350 meters in height, which is the tallest building in northeast China and belongs to the super-high-rise building. In the construction of the building, two boom tower cranes are used to carry out the lifting operation. Due to the space restriction and the structural characteristics of the building itself, the tower crane (ZSL2700) must work in the wall of the core tube of the building in a way of hanging and climbing. In this paper, the internal climbing support system of the tower crane is studied, including the design and calculation of the supporting structure and the embedded parts in the wall. The main contents of this study include the following aspects: (1) according to the structure of ZSL2700 movable-arm type inner climbing tower crane and the core tube structure of Shenyang Henglong Square, the climbing plan of this tower crane is analyzed and studied; (2) according to the climbing plan and ZSL2700 tower crane's own performance and characteristics, from the two angles of force and structure arrangement of the tower crane support structure, the composition scheme of the support structure is determined. (3) according to the ZSL2700 tower crane supporting structure, in order to reduce the transfer force of the main beam structure to the building, the end bending moment weakening technology is adopted in the main beam of the structure. Ensure that the tower crane works safely in the thin wall support on the top floor of the building; (4) on the basis of determining the bracing structure, the mechanical state of the brace structure is studied by using ANSYS finite element analysis method, and the limit state of the structural force is analyzed with manual calculation method to ensure the rationality and safety and reliability of the structure; (5) the structure form of pre-buried parts with different wall thickness is studied, and the force of ZSL2700 tower crane supporting structure on the wall is analyzed to ensure the structural strength of the embedded parts. According to the results of calculation and analysis, the reasonable structural form of the embedded parts is analyzed and determined, and the rationality of the embedded parts is verified in the construction site. The support structure and pre-buried structure of the inner climbing tower crane developed by this subject are produced by Nanjing Zhongxi Construction Machinery heavy Industry Co., Ltd. It is successfully applied in the construction of the double tower building of Fuhang long Square in Shenyang City, which is undertaken by the second Construction Engineering Co., Ltd of the third Bureau of China Construction. In order to ensure the smooth construction of the double tower building in Henglong Square of Shenyang City, the research method of this subject provides theoretical technology and practical engineering experience for the support of tower cranes in the construction of similar buildings in the future.
【學(xué)位授予單位】:沈陽(yáng)建筑大學(xué)
【學(xué)位級(jí)別】:碩士
【學(xué)位授予年份】:2014
【分類號(hào)】:TU61
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