CN215331705U - Building with function conversion structure reserved - Google Patents

Building with function conversion structure reserved Download PDF

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Publication number
CN215331705U
CN215331705U CN202122397457.9U CN202122397457U CN215331705U CN 215331705 U CN215331705 U CN 215331705U CN 202122397457 U CN202122397457 U CN 202122397457U CN 215331705 U CN215331705 U CN 215331705U
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reserved
building
function conversion
conversion structure
component
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CN202122397457.9U
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刘加俊
邢辉
汪安乐
丁明华
陶亮荣
产伟
周禹
尹凡
崔永
王鹏
闫希晔
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Beijing Construction Engineering Group Co Ltd
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Beijing Construction Engineering Group Co Ltd
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Abstract

The utility model relates to the technical field of reconstruction of buildings, and discloses a building with a reserved function conversion structure, wherein each building component is classified into a basic component, a component to be disassembled, a reserved component and a component to be added according to the existence or nonexistence of each component of the building before and after reconstruction and the function change condition; the part to be disassembled is detachably connected with the other parts, an interface used for being connected with the part to be added is reserved on the reserved part, and the disassembly and the addition of the part are very quick; parts in the building before reconstruction are reserved to the maximum extent; a safety distance for avoiding secondary damage caused by construction machinery and broken materials in the dismantling process is reserved between the dismantling component and the peripheral component, so that secondary damage cannot be caused in the dismantling process; the interface on the reservation part is covered with the decorative board that easily distinguishes with the surrounding environment, conveniently seeks when rebuilding.

Description

Building with function conversion structure reserved
Technical Field
The utility model relates to the technical field of reconstruction of buildings, in particular to a building with a reserved function conversion structure.
Background
The difficulty in reconstructing a building to meet different use requirements is a worldwide problem, and the difficulty is mainly embodied in how to utilize components in the existing building as much as possible so that the components continue to play a role after conversion. At present building reconstruction in-process, take place to interfere for avoiding newly-added part and original part, can generally rebuild after all parts except that the frame is whole demolishd with old building inside, this in-process can't use large-scale construction equipment, can only rely on the manpower to demolish a bit, follow-up reconstruction in-process still can't utilize the construction entrance to a cave on the floor to transport the material like newly-built, the material is transported very difficultly, whole reconstruction process time limit for a project is extremely long, the amount of labour is very big, the cost often still is higher than newly-built.
Thus, current building reconstruction is very limited, and the functionality of the building before and after reconstruction cannot be significantly different, preferably without involving a modification of the room layout, which would otherwise be irreparable.
The most typical construction scenarios are two types, one is to reconstruct a general ward into a negative pressure ward, and the other is to reconstruct a temporarily used construction such as Olympic village for other uses. The former is generally carried out rarely due to the difficulty of the former, but a shelter hospital is temporarily built when a negative pressure ward is not enough; the latter situation is different, such as the Olympic village of Olympic Games in 2016, which is in a waste state later, the Olympic village of Olympic Games in Tokyo in 2021, which has a plan of being reconstructed into a shelter hospital (the room layout changes relatively little before and after reconstruction, and the difficulty is low), but is not completed, and more times, the Olympic village directly utilizes a nearby hotel or dormitory without new construction.
The application also relates to the reconstruction of Olympic village, namely Olympic village of the Beijing winter Olympic Committee in 2022. It is located in northern and tricyclic areas, and is distributed with a lot of universities, and is planned to be rebuilt into talent apartments after the winter Olympic meeting is finished. However, the distribution of rooms in Olympic villages is similar to that of dormitories, and the distribution of rooms in apartments is a typical distribution of commercial houses, and has great difference, high reconstruction difficulty and tight construction period, and no mature solution exists in the prior art.
SUMMERY OF THE UTILITY MODEL
The utility model provides a building with a function conversion structure reserved.
The technical problem to be solved is that: in the building reconstruction process, if the difference of the room layouts before and after reconstruction is large, the reconstruction difficulty is high, the construction period is long, and even the cost is higher than that of a newly-built building.
In order to solve the technical problems, the utility model adopts the following technical scheme: a building with a reserved function conversion structure is used for meeting the requirement of function conversion during use; the components forming the building comprise a wall body, a pipeline and an electric circuit;
the building before function conversion is recorded as a front form, and the building after function conversion is recorded as a rear form; wherein the components present and functioning in both the anterior and posterior forms are designated as base components; the parts which play a role in the front form and are removed in the rear form are marked as parts to be removed; the part existing in the front form but not playing a role and playing a role in the rear form is recorded as a reserved part; the parts which do not exist in the front form and exist and play a role in the rear form are marked as addition parts;
the disassembly-required part is detachably connected with the other parts, and a safety distance for avoiding secondary damage caused by construction machinery and broken materials in the disassembly process is reserved between the disassembly-required part and the peripheral parts;
an interface used for being connected with an application component is reserved on the reserved component; the interface on the reservation part is covered with a decorative plate which is easy to be distinguished from the surrounding environment.
Further, in the front form, the rooms are symmetrically distributed along a central axis.
Further, the safe distance comprises the safe distance between the wall body to be disassembled and the floor heating pipeline.
Furthermore, in each pipeline section, the pipeline section to be disassembled is connected with other pipeline sections through flanges.
Furthermore, in each wall body, the wall body to be disassembled is connected with the floor leveling layer and the ceiling through expansion bolts and is not connected with other wall bodies.
Furthermore, the floor heating pipeline is arranged on the floor at the position where the wall body to be added is avoided.
Further, the room without drainage requirement in the front form but with drainage requirement in the rear form is marked as the room to be changed, and the reserved part comprises a sewer pipeline leading to the room to be changed.
Compared with the prior art, the building with the reserved function conversion structure has the following beneficial effects:
according to the utility model, each building component is classified according to the existence or nonexistence of each building component before and after reconstruction and the function change condition, so that the component to be disassembled is detachably connected with the other components, an interface for connecting with the component to be added is reserved on the reserved component, and the disassembly and the addition of the component are very quick; parts in the building before reconstruction are reserved to the maximum extent;
in the utility model, a safety distance for avoiding secondary damage caused by construction machinery and broken materials in the dismantling process is reserved between the dismantling component and the peripheral component, so that secondary damage cannot be caused in the dismantling process; the interface on the reservation part is covered with the decorative board that easily distinguishes with the surrounding environment, conveniently seeks when rebuilding.
Drawings
FIG. 1 is a layout of rooms in a building, with the left side in a rear configuration and the right side in a front configuration;
FIG. 2 is a layout diagram of an electrical circuit, wherein the left side of the diagram is a rear configuration and the right side is a front configuration;
FIG. 3 is a schematic view of a wall to be disassembled in connection with a ceiling and a floor;
wherein, 1-wall body, 2-electric circuit.
Detailed Description
As shown in fig. 1, a building to be rebuilt; the components forming the building comprise a wall body 1, a pipeline and an electric circuit 2; the components to be modified are also mainly those which, as far as furniture, furnishing elements and the like are concerned, are freely transportable, wherein usually no modifications are considered.
The building before function conversion is recorded as a front form, the building after function conversion is recorded as a rear form, and all the parts are classified according to the following rules:
the components that exist and function in both the front form and the rear form are referred to as base components;
the parts which play a role in the front form and are removed in the rear form are marked as parts to be removed;
the part existing in the front form but not playing a role and playing a role in the rear form is recorded as a reserved part;
the parts which do not exist in the front form and exist and play a role in the rear form are marked as addition parts;
the classification processing is carried out on different building objects, so that the disorder condition in the conventional building reconstruction can be avoided, and each part has a respective plan in how to process.
Then, the construction is carried out according to the following sequence:
the method comprises the following steps: respectively designing a front form and a rear form, drawing a preliminary drawing, comparing each part in the front form and the rear form,
step two: respectively establishing three-dimensional models for the front form and the rear form, and performing interference inspection and 4D construction simulation;
in this embodiment, revit is used for modeling and interference checking, navis works is used for 4D construction simulation, and detailed software operation is not described here. In actual use, the BIM software can be selected according to the requirements.
Step three: deepening the preliminary drawing according to the interference checking result and the 4D construction simulation result to obtain a construction drawing;
the principle of this step is to retain as many base parts and reserve parts as possible without interference or collision.
Step four: constructing according to a construction drawing, wherein the component to be disassembled is detachably connected with the other components, and an interface used for connecting with the component to be added is reserved on the reserved component; such as various reserved pipe joints, line joints, lamp holders, door and window holes and the like.
Step five: and after the front form is used, dismantling the parts to be dismantled and installing the parts to be added according to the construction drawing, so that the whole building is converted into the rear form.
In this embodiment, what changed before and after rebuilding includes wall body 1 and various pipelines, and the pipeline specifically includes plumbing pipeline, new trend air conditioner pipeline, heating and ventilating pipeline and electric circuit 2. The main work of reconstruction is the assembly and disassembly of the wall 1 and the pipeline, wherein the modification of the wall 1 is illustrated in fig. 1, and the modification of the pipeline is illustrated in fig. 2 by the modification of the electrical circuit 2. The technical points are not related, the illustration is only used for illustration, and the change details are determined according to the reconstruction requirements during the actual construction.
The second step comprises the following concrete steps:
step 2.1: respectively establishing a three-dimensional model for the front form and the rear form;
step 2.2: performing interference inspection on the assembled parts in the front form and the rear form according to the three-dimensional model;
step 2.3: recording the state of the building as a zero form when the building is not constructed, setting the assembly sequence and the assembly track of three parts, namely a basic part, a part to be disassembled and a reserved part in the process from the zero form to the front form, and performing collision inspection on the parts in the assembly process from the zero form to the front form;
step 2.4: setting an assembly sequence and an assembly track of components to be added and a disassembly sequence and a disassembly track of the components to be disassembled in the process from the front form to the rear form;
in the assembling process from the front form to the rear form, collision conditions between each component to be disassembled and a base component, between the component to be disassembled after the component to be disassembled is disassembled, between the reserved components and between the components to be added before the component is assembled;
and in the assembling process from the front form to the rear form, collision conditions between each addition part and the base part, between the removal part with the disassembly sequence after the addition part, between the reserved part and between the addition parts with the assembly sequence before the addition part.
In this application, BIM work load is great, for reducing work load, has adopted the following method:
as shown in fig. 1-2, in the front form, each room is symmetrically distributed along a central axis, and in the preliminary drawing and the construction drawing, one side of the central axis is the drawing of the front form, and the other side is the drawing of the rear form. In this way, due to symmetry, the drawings and the models of the front form and the rear form are only used as a half, the drawings of the half side can be used for constructing the whole building during construction, the rear form can be directly changed on the basis of the front form, and the workload of drawing and BIM work can be reduced by more than half.
And a safety distance for avoiding secondary damage caused by construction machinery and broken materials in the dismantling process is reserved between the dismantling component and the peripheral component.
In this embodiment, the safe distance includes the safe distance between the wall body 1 to be dismantled and the floor heating pipeline. The largest secondary damage to the periphery in the dismantling process is the process of dismantling the wall, so that a safe distance is reserved between the wall 1 to be dismantled and the floor heating pipeline.
The interface on the reserve part is covered with a decorative plate which is easy to be distinguished from the surrounding environment. In the embodiment, the decorative plate is a stainless steel plate with the color consistent with that of the surrounding environment, and the patterns of the winter Olympic meeting are painted on the decorative plate, so that the decorative plate can be positioned quickly in the reconstruction process while the decorative plate is enabled to be in seamless connection with the surrounding environment.
In each pipeline section, the pipeline section to be disassembled is connected with other pipeline sections through flanges. Therefore, the pipeline joint is convenient to dismantle, and the pipeline joint is left after the pipeline is dismantled in sections, so that the pipeline joint is very convenient to use no matter a blind plate is used for plugging or other parts are connected.
As shown in fig. 3, in each wall 1, the wall 1 to be dismantled is connected with the floor screed and the ceiling by expansion bolts, and is not connected with other walls 1. The wall body 1 to be dismantled is an assembled wall, is not connected with a floor base layer and is not connected with other walls, and the wall body can be dismantled by taking down the expansion bolts during dismantling. The floor heating pipeline is arranged on the floor at the position where the wall body 1 to be added is avoided, so that the floor heating pipeline is prevented from being damaged when a new wall is built. In this embodiment, the wall body 1 is an assembled wall, and horizontal folded edges are anchored at both side edges of the top and both side edges of the bottom, and are respectively connected with a ceiling and a floor through expansion bolts penetrating through the folded edges. Of course, the fixing mode of the wall body 1 in actual construction is not limited to this, and can be selected according to the requirement.
The room without drainage requirement in the front form but with drainage requirement in the rear form is marked as the room to be changed, and the reserved part comprises a sewer pipe leading to the room to be changed. If the sewer pipe is not preassembled, the later installation needs to change the main structure of the building, so the sewer pipe must be preassembled. The changed room usually comprises a toilet and a kitchen, in the embodiment, the position of the toilet is not changed, so that a water pipeline is reserved at the position of the kitchen, and parts such as a water tank and the like can be installed after the original room is changed into the kitchen.
The above-mentioned embodiments are merely illustrative of the preferred embodiments of the present invention, and do not limit the scope of the present invention, and various modifications and improvements of the technical solution of the present invention by those skilled in the art should fall within the protection scope defined by the claims of the present invention without departing from the spirit of the present invention.

Claims (7)

1. A building with a reserved function conversion structure is used for meeting the requirement of function conversion during use; the components forming the building comprise a wall body (1), a pipeline and an electric circuit (2); the method is characterized in that:
the building before function conversion is recorded as a front form, and the building after function conversion is recorded as a rear form; wherein the components present and functioning in both the anterior and posterior forms are designated as base components; the parts which play a role in the front form and are removed in the rear form are marked as parts to be removed; the part existing in the front form but not playing a role and playing a role in the rear form is recorded as a reserved part; the parts which do not exist in the front form and exist and play a role in the rear form are marked as addition parts;
the disassembly-required part is detachably connected with the other parts, and a safety distance for avoiding secondary damage caused by construction machinery and broken materials in the disassembly process is reserved between the disassembly-required part and the peripheral parts;
an interface used for being connected with an application component is reserved on the reserved component; the interface on the reservation part is covered with a decorative plate which is easy to be distinguished from the surrounding environment.
2. The building with a reserved function conversion structure as claimed in claim 1, wherein the function conversion structure comprises: in the front form, the rooms are symmetrically distributed along a central axis.
3. The building with a reserved function conversion structure as claimed in claim 1, wherein the function conversion structure comprises: the safe distance comprises the safe distance between the wall body (1) to be disassembled and the floor heating pipeline.
4. The building with a reserved function conversion structure as claimed in claim 1, wherein the function conversion structure comprises: in each pipeline section, the pipeline section to be disassembled is connected with other pipeline sections through flanges.
5. The building with a reserved function conversion structure as claimed in claim 1, wherein the function conversion structure comprises: in each wall body (1), the wall body (1) to be disassembled is connected with the floor leveling layer and the ceiling through expansion bolts and is not connected with other wall bodies (1).
6. The building with a reserved function conversion structure as claimed in claim 1, wherein the function conversion structure comprises: the floor heating pipeline is arranged on the floor at the position where the wall body (1) to be added is avoided.
7. The building with a reserved function conversion structure as claimed in claim 1, wherein the function conversion structure comprises: and the room without drainage requirement in the front form but with drainage requirement in the rear form is marked as a room needing to be changed, and the reserved part comprises a sewer pipeline leading to the room needing to be changed.
CN202122397457.9U 2021-09-30 2021-09-30 Building with function conversion structure reserved Active CN215331705U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202122397457.9U CN215331705U (en) 2021-09-30 2021-09-30 Building with function conversion structure reserved

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202122397457.9U CN215331705U (en) 2021-09-30 2021-09-30 Building with function conversion structure reserved

Publications (1)

Publication Number Publication Date
CN215331705U true CN215331705U (en) 2021-12-28

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ID=79578487

Family Applications (1)

Application Number Title Priority Date Filing Date
CN202122397457.9U Active CN215331705U (en) 2021-09-30 2021-09-30 Building with function conversion structure reserved

Country Status (1)

Country Link
CN (1) CN215331705U (en)

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