一种柔性悬挂式模块建筑结构Flexible hanging module building structure
本发明属于土建技术领域，具体是一种柔性悬挂式模块建筑结构。The invention belongs to the technical field of civil engineering, in particular to a flexible suspended module building structure.
模块建筑是一种预制装配式三维盒子单元，一个单元里一般是1-3个房间，模块单元一般采用钢结构制造，模块制作及设备安装占总建造工程量的90％，均在工厂流水线上完成，机械化和工业化程度高，并降低污染排放。制造厂家把外墙、装修、家具、设备等全部整合到这个盒子单元(模块)中，运往现场进行吊装拼接，不仅结构部分施工便捷，还免去了后期的装修等工作。The module building is a prefabricated three-dimensional box unit. One unit is usually 1-3 rooms. The module unit is generally made of steel structure. The module production and equipment installation account for 90% of the total construction work, all on the factory assembly line. Completed, mechanized and industrialized, and reduced pollution emissions. The manufacturer integrates the exterior wall, decoration, furniture, equipment, etc. into the box unit (module), and transports it to the site for hoisting and splicing. Not only the structural part is convenient to construct, but also the post-renovation work is eliminated.
相对于其他预制装配结构，模块建筑的优点主要有以下几方面：由于高度整合，免去了后续的装修、设备管线安装等工序，进一步缩短建造时间、节省现场人力；每个模块自成结构体系，无论是运输、吊装还是就位，都无须额外的支撑件，可以采用较为便捷的堆放式就位；工厂的流水线式装修、安装设备的方式，进一步提高室内品质，更符合商品住宅的市场要求。Compared with other prefabricated assembly structures, the advantages of modular building mainly include the following aspects: due to the high integration, the subsequent decoration, equipment pipeline installation and other processes are eliminated, further shortening the construction time and saving the manpower on site; each module has its own structural system. Whether it is transportation, hoisting or in place, no additional support is needed, and it can be conveniently placed in place; the factory's assembly line decoration and installation equipment can further improve the indoor quality and meet the market requirements of commercial housing. .
基于以上几方面的优点，模块建筑适用于但不限于以下场合：工期紧迫的工程，例如需要按期住进新生的学校宿舍；人手奇缺的工程，例如边远地区的成规模建设；气候恶劣的工程，例如冬季施工；对装修品质有特殊要求的工程，例如是星级酒店等。Based on the advantages of the above aspects, the modular building is applicable to, but not limited to, the following occasions: projects with tight schedules, such as the need to live in new school quarters on schedule; projects that are lacking in manpower, such as scale construction in remote areas; For example, winter construction; works with special requirements for decoration quality, such as star-rated hotels.
然而，模块内部的构件限于空间要求、连接方便的要求及自重限制，构件尺寸有限，无法达到很高的水平向承载力，因而在目前实际工程应用中，多高层模块建筑需要外加抗水平力结构，以帮助模块建筑承载，可以是混凝土核心筒或其它形式。模块把所受到的水平向荷载通过有效连接传递给核心筒，模块本身仅承受竖向荷载以及极小量的水平荷载。因此，在高层的模块建筑案例中，模块+混凝土核心筒的结构形式被普遍采用，抗水平地震力体系仅有核心筒一道防线，是较为不合理的结构形式。模块给核心筒传递过大的水平荷载，往往造成很大的材料用量。另一方面，在高层的模块建筑案例中，模块的自重直接向下传递，底部的模块承受过大的竖向荷载，增加了模块内部构件尺寸，进而又增加结构自重，影响使用功能。However, the components inside the module are limited by space requirements, convenient connection requirements and self-weight restrictions. The components are limited in size and cannot achieve high horizontal bearing capacity. Therefore, in current practical engineering applications, multi-high-rise module buildings need to be added with horizontal force resistance structure. To help the module building load, it can be a concrete core tube or other form. The module transmits the horizontal load received to the core barrel through an effective connection, and the module itself is only subjected to vertical loads and a very small amount of horizontal load. Therefore, in the case of high-rise modular construction, the structural form of the module + concrete core tube is generally adopted, and the horizontal seismic force system only has a core tube and a line of defense, which is a relatively unreasonable structural form. The module delivers excessive horizontal loads to the core barrel, often resulting in large material usage. On the other hand, in the high-rise module construction case, the self-weight of the module is directly transmitted downward, and the module at the bottom is subjected to excessive vertical load, which increases the size of the internal components of the module, thereby increasing the structural weight and affecting the use function.
发明内容Summary of the invention
发明目的：为了克服现有技术中存在的不足，本发明提供一种柔性悬挂式模块建筑结构。OBJECT OF THE INVENTION: To overcome the deficiencies in the prior art, the present invention provides a flexible suspension module building structure.
混凝土核心筒有效连接，悬挑于核心筒结构之外，转换层下方悬吊有多个相互之间预留一定空间的模块，竖向相邻模块之间通过一组悬吊杆件连接，各悬吊杆件上端活动连接位于上方模块的天花梁，下端活动连接位于下方模块的天花梁；位于最上方的模块，设置在其上的悬吊杆件与转换层活动连接，各个模块的楼面与核心筒结构之间设有阻尼器。活动连接即是“铰接”“柔性连接”或“悬吊杆件内不产生弯矩式的连接。Technical Solution: In order to solve the above technical problem, a flexible suspension module building structure of the present invention comprises a vertically arranged concrete core tube structure, and a conversion layer is arranged at an upper end of the core tube structure, and the conversion layer is composed of a rigid truss, and
The concrete core tube is effectively connected and cantilevered outside the core tube structure, and a plurality of modules with a certain space reserved between each other are suspended below the conversion layer, and the vertically adjacent modules are connected by a set of suspension rods, each of which is connected The upper end of the suspension rod is connected to the ceiling beam of the upper module, and the lower end is connected to the ceiling beam of the lower module; the module at the top is connected with the suspension layer and the conversion layer, and the floor of each module A damper is provided between the core barrel structure and the core tube structure. The articulated connection is a "hinged" "flexible connection" or "a bending-type connection within the suspension member.
其中，竖向相邻模块之间设有限位缓冲装置，限位缓冲装置用于避免竖向相邻模块在水平相对位移较大时发生竖向碰撞。Wherein, a limit buffer device is arranged between the vertically adjacent modules, and the limit buffer device is used to prevent vertical collision of the vertically adjacent modules when the horizontal relative displacement is large.
其中，限位缓冲装置包括两个相互连接的杆件，各杆件的自由端分别连接竖向相邻模块，其中一根杆件连接位于上方模块的底角，另一根杆件连接位于下方模块与上方模块竖向相邻的顶角，两个杆件之间设有钢丝绳，在杆件之间的位置处于初始状态时，钢丝绳是松弛的状态。Wherein, the limiting buffer device comprises two interconnecting rods, wherein the free ends of the rods are respectively connected to the vertically adjacent modules, wherein one of the rods is connected at the bottom corner of the upper module, and the other rod is connected below. The module is vertically adjacent to the top corner of the module, and a wire rope is disposed between the two bars. When the position between the bars is in an initial state, the wire rope is in a relaxed state.
其中，各个模块天花梁在梁柱节点之外设置一段外延段，悬吊杆件的端部连接一个万向接头，万向接头连接T形连接钢板的腹板，T形连接钢板的翼缘与模块天花梁的外延段焊接。Wherein, each module of the ceiling beam is provided with an extension section outside the beam-column joint, the end of the suspension rod is connected with a universal joint, the universal joint is connected with the web of the T-shaped connecting steel plate, and the flange of the T-shaped connecting steel plate is The epitaxial section of the module ceiling beam is welded.
其中，各个模块与核心筒结构之间设有可滑动的预制楼板，预制楼板一端与模块楼面处的梁柱节点连接，另一端置于核心筒结构的楼板上。Wherein, a slidable prefabricated slab is arranged between each module and the core tube structure, one end of the prefabricated slab is connected with the beam column node at the module floor, and the other end is placed on the floor slab of the core tube structure.
其中，预制楼板内预埋槽钢，槽钢与连接钢板螺栓连接，连接钢板跟模块楼面处的梁柱节点焊接，预制楼板另一端搁放在核心筒结构楼板的凹槽上，搁放接触面的两侧均设有预埋接触钢板；在凹槽的竖向端面设置预埋防碰撞钢板，接触钢板与防碰撞钢板焊接在预制楼板的预埋锚筋上。Wherein, the pre-cast slab is pre-buried with channel steel, the channel steel is connected with the connecting steel plate bolt, the connecting steel plate is welded with the beam-column joint at the module floor, and the other end of the prefabricated slab is placed on the groove of the core tube structure floor, and the contact is placed Both sides of the surface are provided with a pre-embedded contact steel plate; a pre-buried anti-collision steel plate is arranged on the vertical end surface of the groove, and the contact steel plate and the anti-collision steel plate are welded on the pre-embedded anchor rib of the prefabricated floor slab.
其中，在竖向相邻两模块之间设有模块层间阻尼器，模块层间阻尼器两端分别连接上方模块的楼面梁柱节点与下方模块的天花梁柱节点。设置层间阻尼器的目的在于，在罕遇地震下，当其他阻尼器因超出行程而破坏，退出工作后，模块层间阻尼器因其相对运动较小，仍在工作行程之内，为结构继续提供必要的耗能途径。Wherein, a module interlayer damper is arranged between the vertically adjacent modules, and the two ends of the module interlayer damper are respectively connected to the floor beam column node of the upper module and the ceiling beam column node of the lower module. The purpose of setting the interlayer damper is that under the rare earthquake, when other dampers are destroyed due to the over-travel, after exiting the work, the inter-layer damper of the module is still within the working stroke due to its relative motion, which is the structure. Continue to provide the necessary energy consuming pathways.
其中，在设置核心层结构的地面基础上设有自下而上堆放的多个模块组成的模块组，堆放的多个模块之间以及位于地面基础的模块与地面基础之间相互连接，堆放的模块不多于4层。Wherein, on the ground provided with the core layer structure, a module group composed of a plurality of modules stacked from bottom to top is provided, and a plurality of stacked modules and a module located on the ground foundation and the ground foundation are connected to each other, and stacked. The module has no more than 4 layers.
有益效果：本发明的一种柔性悬挂式模块建筑结构，具有以下有益效果：Advantageous Effects: A flexible suspension module building structure of the present invention has the following beneficial effects:
1、采用悬挂减振技术，显著减小模块向核心筒结构输入的水平荷载，节约核心筒结构材料用量。1. Suspension damping technology is adopted to significantly reduce the horizontal load input from the module to the core tube structure, saving the amount of material used in the core tube structure.
2. The module building allows the displacement between the substructures to avoid the damage of the non-structural members, and relaxes the limit of the displacement between the substructures, thereby improving the efficiency of energy dissipation.
3、采用万向接头式的柔性悬挂方案，仅由阻尼器和悬挂件轴力提供水平刚度，水平向位移开展时悬挂件仅受轴力，保持弹性；相对于其他柔性悬挂方案，本方案在竖向地震时，竖向具有一定钢性，不至于过分放大竖向响应。3. Adopting the universal joint type flexible suspension scheme, the horizontal stiffness is only provided by the damper and the suspension member axial force. When the horizontal displacement is carried out, the suspension member is only subjected to the axial force and maintains the elasticity; compared with other flexible suspension schemes, the scheme is In vertical earthquakes, the vertical direction has a certain degree of rigidity, so as not to excessively amplify the vertical response.
4、结合创新的限位缓冲装置，合理控制模块间相对运动，避免碰撞。4. Combine the innovative limit buffer device to reasonably control the relative movement between modules to avoid collision.
图1为本发明柔性悬挂式模块建筑结构的整体立面布局示意图；1 is a schematic view showing the overall façade layout of a flexible suspension module building structure of the present invention;
图2为图1所示结构的模块层间构造示意图；2 is a schematic structural view of a module layer of the structure shown in FIG. 1;
图3为图2所示层间构造中的限位缓冲装置示意图；3 is a schematic view of a limit buffer device in the inter-layer structure shown in FIG. 2;
图4为图1所示结构的悬吊杆件连接结构示意图；Figure 4 is a schematic view showing the connection structure of the suspension rods of the structure shown in Figure 1;
图5为图2所示层间构造的带可滑动预制楼板以及模块层间阻尼器的优选方案示意图；Figure 5 is a schematic view showing a preferred embodiment of the slidable prefabricated floor slab and the inter-layer damper of the inter-layer structure shown in Figure 2;
图6为图5所示优选方案的可滑动预制楼板设置示意图；Figure 6 is a schematic view showing the arrangement of the slidable prefabricated floor slab of the preferred embodiment shown in Figure 5;
图7为图1所示结构的部分模块堆放式优选方案示意图；7 is a schematic diagram of a partial module stacking type of the structure shown in FIG. 1;
图8为图1所示结构的错位堆放式就位实施方案示意图；Figure 8 is a schematic view of a misplaced stacked in-position embodiment of the structure shown in Figure 1;
图9为图1所示结构的悬挑式就位实施方案示意图。Figure 9 is a schematic illustration of a cantilevered seating embodiment of the structure of Figure 1.
图中：1-核心筒结构，2-转换层，3-模块，4-悬吊杆件，5-阻尼器，6-对角支撑件，7-限位缓冲装置，8-杆件，9-钢丝绳，10-天花梁，11-模块柱，12-加劲肋，13-万向接头，14-T形连接钢板，15-预制楼板，16-模块层间阻尼器，17-核心筒楼板，18-高强螺栓，19-连接钢板，20-预埋槽钢，21-预埋接触钢板，22-预埋防碰撞钢板，23-预埋锚筋，24-模块组，25-可顶升的平台，26-预埋连接件。In the picture: 1-core tube structure, 2-conversion layer, 3-module, 4-suspension rod, 5-damper, 6-diagonal support, 7-position cushioning device, 8-bar, 9 - wire rope, 10-ceiling beam, 11-module column, 12- stiffener, 13-universal joint, 14-T joint steel plate, 15-precast slab, 16-module interlayer damper, 17-core tube floor, 18-high strength bolt, 19-joint steel plate, 20-pre-buried channel steel, 21-pre-embedded contact steel plate, 22-pre-buried anti-collision steel plate, 23-pre-embedded anchor rib, 24-module set, 25-upliftable Platform, 26-pre-embedded connectors.
下面结合附图对本发明作更进一步的说明。The present invention will be further described below in conjunction with the accompanying drawings.
7包括两个相互连接的杆件8，各杆件8的自由端分别连接竖向相邻模块3，其中一根杆件8连接位于上方模块3的底角，另一根杆件8连接位于下方模块3与上方模块3竖向相邻的顶角。两个杆件8之间设置钢丝绳9，在杆件8之间的位置处于初始状态时，钢丝绳9是松弛的状态，两杆件与初状态是松弛的钢丝绳9组成的一个“A”型装置，这种A型杆件组起到杠杆作用，目的是按比例缩小钢丝绳伸长量，避免过早拉断。各个模块3的楼面通过阻尼器5与核心筒结构1相连，阻尼器5在模块3与核心筒结构1相对运动时起到主要的耗能作用，阻尼器5具有一定的弹性刚度，以提供模块3结构的水平方向刚度。此外，当仅有风荷载作用时，由于阻尼器5起滑荷载效应，阻尼器5不产生滑动，可以把风荷载直接传递到核心筒结构1。如图4所示，模块的天花梁10在梁柱节点之外设置一段外延段，天花梁在相应位置设置加劲肋12，悬吊杆件4一般为空心圆钢管，其端部连接一个万向接头13，万向接头13通过螺栓连接T形连接钢板14的腹板，T形连接钢板14的翼缘与模块天花梁10的外延段焊接，焊接按刚接的要求进行。模块的天花梁外延段起到了允许悬吊杆件4在一定范围内摆动而不产生碰撞的作用。在各个模块3内还设置有对角支撑件6，对角支撑件6从内部加强模块的结构。如图5所示，各个模块3与核心筒结构1之间设置可滑动的预制楼板15，使两者相对运动的同时，可保持人员通行。预制楼板15内预埋槽钢20，预埋之前槽钢20与连接钢板19已采用高强螺栓18连接，连接钢板19跟模块楼面处的梁柱节点进行现场焊接，预制楼板15另一端搁放在核心筒楼板17的凹槽上，搁放接触面的两侧均设置有预埋接触钢板21，可以形成摩擦滑动。在凹槽的竖向端面设置预埋防碰撞钢板22，以上预埋件均带有焊接在其上的预埋锚筋23。在竖向相邻两模块3之间还设置模块层间阻尼器16，模块层间阻尼器16两端分别连接上方模块3的楼面梁柱节点与下方模块3的天花梁5柱节点。A flexible suspension module building structure as shown in FIGS. 1 to 3 includes a vertically arranged core tube structure 1 which is a key force system that bears all horizontal loads and vertical loads of the entire structure. The upper end of the core tube structure 1 is provided with a conversion layer 2, and a plurality of modules 3 reserved with a certain space between each other are suspended below the conversion layer 2, and the vertically adjacent modules 3 are connected by a set of suspension rods 4, each of which is connected The upper end of the suspension rod 4 is movably connected to the ceiling beam 5 of the upper module 3, and the lower end is movably connected to the ceiling beam 5 of the lower module 3, the ceiling beam 5 is the beam on the top surface of the module 3; the module 3 located at the top is set in The suspension bar 4 is movably connected to the conversion layer 2, and a damper 5 is disposed between the floor of each module 3 and the core tube structure 1. Each damper 5 plays a role when the module 3 and the core tube structure 1 move relative to each other. The damper 5 also has a certain elastic stiffness to provide the horizontal stiffness of the module 3 structure. A limit buffer device 7 is disposed between the vertically adjacent modules 3, and the limit buffer device 7 is used to prevent the vertical adjacent module 3 from colliding vertically when the horizontal relative displacement is large. Specifically, as shown in FIG. 3, the limit buffer device
7 comprises two interconnected rods 8, the free ends of which are respectively connected to the vertically adjacent modules 3, one of which is connected to the bottom corner of the upper module 3 and the other of which is connected The lower corner of the lower module 3 and the upper module 3 are vertically adjacent. A wire rope 9 is disposed between the two rod members 8, and when the position between the rod members 8 is in an initial state, the wire rope 9 is in a relaxed state, and the two rod members are an "A" type device composed of a wire rope 9 whose initial state is slack. This type A rod set acts as a lever to reduce the elongation of the wire rope proportionally and avoid premature breakage. The floor of each module 3 is connected to the core tube structure 1 through a damper 5, and the damper 5 plays a major energy-consuming role when the module 3 and the core tube structure 1 move relative to each other. The damper 5 has a certain elastic rigidity to provide The horizontal stiffness of the module 3 structure. Further, when only the wind load acts, since the damper 5 acts as a sliding load, the damper 5 does not slip, and the wind load can be directly transmitted to the core barrel structure 1. As shown in FIG. 4, the ceiling beam 10 of the module is provided with an extension section outside the beam-column node, and the ceiling beam is provided with a stiffener 12 at a corresponding position. The suspension rod 4 is generally a hollow circular steel tube, and the end is connected with a universal joint. The joint 13 and the universal joint 13 are connected to the web of the T-shaped connecting steel plate 14 by bolts, and the flange of the T-shaped connecting steel plate 14 is welded to the epitaxial section of the module ceiling beam 10, and the welding is performed as required. The epitaxial section of the ceiling beam of the module acts to allow the suspension rod 4 to oscillate within a certain range without causing a collision. A diagonal support member 6 is also provided in each module 3, and the diagonal support member 6 reinforces the structure of the module from the inside. As shown in FIG. 5, a slidable prefabricated floor slab 15 is disposed between each module 3 and the core tube structure 1 so that the two can move relative to each other while maintaining relative movement. The channel steel 20 is pre-embedded in the prefabricated floor panel 15. Before the pre-buried channel steel 20 and the connecting steel plate 19 have been connected by high-strength bolts 18, the steel plate 19 is connected with the beam-column joints at the module floor for on-site welding, and the other end of the prefabricated floor panel 15 is placed. On the groove of the core tube floor panel 17, both sides of the resting contact surface are provided with a pre-embedded contact steel plate 21, which can form a frictional sliding. A pre-buried anti-collision steel plate 22 is disposed on the vertical end surface of the groove, and the above embedded parts each have a pre-embedded anchor rib 23 welded thereto. A module interlayer damper 16 is further disposed between the vertically adjacent modules 3, and the two ends of the module interlayer damper 16 are respectively connected to the floor beam column node of the upper module 3 and the ceiling beam 5 column node of the lower module 3.
如图6所示，作为另一种优选的实施方式，主要出于调整悬挂质量比的目的，在设置核心层结构的地面基础上设有自下而上堆放的模块组24，堆放的多个模块之间以及位于地面基础的模块与地面基础之间相互连接，堆放的模块不多于4层。As shown in FIG. 6 , as another preferred embodiment, mainly for the purpose of adjusting the suspension mass ratio, a module group 24 stacked from the bottom up is provided on the ground provided with the core layer structure, and a plurality of stacked modules are stacked. The modules and the ground-based modules are interconnected with the ground foundation, and the stacked modules are no more than 4 layers.
为提供示例性的实施方式，以下阐述三种悬挂段模块安装就位的方法：To provide an exemplary embodiment, the following describes a method of installing three suspension segment modules in place:
方法一，对正堆放式就位：Method one, the right stack is in place:
1、底层平台的安装就位，此平台的作用是承受其上模块的临时竖向荷载。如结构的底层设计有堆放性的模块，则直接安装底层模块。1. The installation of the underlying platform is in place. The purpose of this platform is to withstand the temporary vertical loads of the modules above it. If the bottom layer of the structure is designed with stacking modules, the underlying modules are directly installed.
2、下方一层的模块或平台安装完毕后，安装临时垫块，垫块的作用是预留竖向空间，使最后成型的体系里，模块竖向不接触；并在垫块安装找平后，吊装就位本层的模块。2. After the module or platform on the lower layer is installed, install the temporary pad. The function of the pad is to reserve the vertical space, so that the module does not touch vertically in the final formed system; and after the pad is installed and leveled, Lift the module in this layer.
与模块之间的阻尼器，连接其他管线。3. After the modules of each layer are in place, install the suspension rods and the limit buffer device to install the core tube structure.
A damper between the module and other pipes.
4、从上到下地撤去临时垫块，最后拆除底部平台。4. Remove the temporary block from top to bottom and finally remove the bottom platform.
方法二，错位堆放式就位，如图7所示：Method 2, the misplaced stacking is in place, as shown in Figure 7:
1、可顶升的平台25的安装就位，此平台带有顶升装置，能平稳地整体顶升，所需行程较小。可顶升的平台25与悬挂转换层的距离，稍大于整个悬挂段的高度减去模块之间的竖向空间之和。也就是说，按照模块沿竖向紧密堆放、不设垫块的方案，并预留与转换层之间的一点距离，作为操作空间。1. The installation of the liftable platform 25 is in place. The platform is equipped with a jacking device, which can smoothly ascend the whole and requires less travel. The distance between the jackable platform 25 and the suspension conversion layer is slightly greater than the height of the entire suspension segment minus the sum of the vertical spaces between the modules. That is to say, according to the scheme in which the modules are closely stacked in the vertical direction without spacers, a distance from the conversion layer is reserved as an operation space.
2、下方一层的模块或平台安装完毕后，吊装就位本层的模块，并连接悬吊杆件。两层模块竖向紧密堆放，水平向形成一定的错位，错位的距离大小按能够准确连接悬吊杆件的标准来确定。2. After the module or platform on the lower layer is installed, lift the module in the layer and connect the suspension rod. The two-layer modules are stacked vertically and form a certain misalignment in the horizontal direction. The distance of the misalignment is determined according to the standard that can accurately connect the suspension rods.
3、各层的模块依次就位完毕后，安装顶层悬吊杆件，然后利用底层平台的顶升装置，平稳地使平台下降，直到悬挂端模块自然悬垂。撤去平台。3. After the modules of each layer are in place, install the top suspension rods, and then use the jacking device of the bottom platform to smoothly lower the platform until the suspension module naturally hangs. Remove the platform.
4、安装限位缓冲装置，安装核心筒结构与模块之间的阻尼器，连接其他管线。4. Install the limit buffer device, install the damper between the core tube structure and the module, and connect other pipelines.
方法三，悬挑式就位，如图8所示：Method three, overhanging in place, as shown in Figure 8:
1、核心筒结构相应位置应设有预埋件26，能跟模块有效连接，使模块临时性地悬挑在核心筒之外。顶层预埋件位置按能够准确地与转换层连接悬吊杆件的标准来确定，并从上到下按此标准依次计算确定预埋件位置。1. The corresponding position of the core tube structure should be provided with an embedded part 26, which can be effectively connected with the module, so that the module can be temporarily overhanged outside the core tube. The position of the top part of the embedded part is determined according to the standard that can accurately connect the suspension rod to the conversion layer, and the position of the embedded part is determined in order from top to bottom according to this standard.
2、利用转换层起吊模块，先吊装顶层模块并与预埋件连接，并安装悬吊杆，形成临时固定。2. Using the conversion layer lifting module, first lift the top layer module and connect with the embedded parts, and install the suspension rod to form a temporary fixing.
3、从上到下依次重复步骤“2”。3. Repeat step "2" from top to bottom.
4、解除最上面两层悬吊模块与预埋件的临时固定，让其形成机构，在重力作用下自动就位，即水平摆动到相应的位置。就位后安装顶层模块的限位缓冲装置和阻尼器。4. Disarm the temporary suspension of the top two suspension modules and the embedded parts, and let them form a mechanism, which is automatically seated under the action of gravity, that is, horizontally oscillated to the corresponding position. Install the limit buffer and damper of the top module after seating.
5、从上到下，逐步解除一层模块的临时固定，让其就位后，安装其上面一层模块的限位缓冲装置和阻尼器。5. From top to bottom, gradually remove the temporary fixing of one layer of module, and let it be in place, install the limit buffer device and damper of the module above it.
6、安装底层模块的限位缓冲装置和阻尼器，连接其他管线。6. Install the limit buffer and damper of the bottom module to connect other pipelines.
The above description is only a preferred embodiment of the present invention, and it should be noted that those skilled in the art can also make several improvements and retouchings without departing from the principles of the present invention. It should be considered as the scope of protection of the present invention.