CN112800529A - Method for performing derivative design of assembly type machine room based on REVIT software - Google Patents
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Abstract
The invention discloses a method for performing derivative design of an assembly type machine room based on REVIT software, which comprises the following steps: s1, constructing an equipment model library in REVIT software, S2, searching models in the equipment model database by taking operating equipment parameters of the electromechanical assembly machine room to be designed as instructions according to the composition of the electromechanical assembly machine room to be designed, and recombining the arrangement logics of the electromechanical assembly machine room to be designed to form a plurality of groups of design models of the electromechanical assembly machine room; and S3, comparing the design models of the multiple groups of electromechanical assembly type machine rooms to obtain an optimal design model. The method for performing derivative design of the assembly machine room based on the REVIT software aims to solve the technical problems that the electromechanical assembly machine room in the prior art is low in modeling efficiency and cannot rapidly acquire an optimal design model.
Description
Technical Field
The invention belongs to the technical field of information model construction, and particularly relates to a method for performing derivative design on an assembled machine room based on REVIT software.
Background
The electromechanical assembled machine room is an important component of building industrialization, and in the production process of the electromechanical assembled machine room, the modeling speed of a three-dimensional model influences the production cycle of the whole electromechanical assembled machine room in a factory.
In the prior art, three-dimensional modeling software is used for modeling parts of an electromechanical assembly type machine room one by one, and then the parts are assembled in the software, so that the three-dimensional modeling of the electromechanical assembly type machine room is completed.
The shortcoming of the prior art is that the speed of modeling seriously hinders the industrialization development speed and market expansion of the electromechanical assembly machine room. The method specifically comprises the following steps: the method has low modeling efficiency and poor reusability of the three-dimensional model, can not form a plurality of groups of comparable design models quickly, and can not obtain the optimal design model quickly.
Therefore, there is a need to provide a new method for performing an assembly room derivative design based on the REVIT software to solve the above technical problems.
Disclosure of Invention
Technical problem to be solved
Based on the method, the invention provides a method for performing assembly type machine room derivative design based on REVIT software, and aims to solve the technical problems that in the prior art, the electromechanical assembly type machine room is low in modeling efficiency and an optimal design model cannot be obtained quickly.
(II) technical scheme
In order to solve the technical problem, the invention provides a method for performing derivative design of an assembly type machine room based on REVIT software, which comprises the following steps:
s1, building an equipment model database
Constructing an equipment model library in REVIT software, modeling the models in the assembled machine room, uniquely numbering each model, binding corresponding parameters, and marking the corresponding maximum overall dimension and the size and position information of an external interface on each model;
s2, building a system architecture
Searching models in the equipment model database according to the composition of the electromechanical assembly type machine room to be designed by taking operating equipment parameters of the electromechanical assembly type machine room to be designed as instructions, and combining the models according to the arrangement logic of the electromechanical assembly type machine room to be designed to form a plurality of groups of design models of the electromechanical assembly type machine room;
s3, obtaining an optimal design model
Comparing the design models of the multiple groups of electromechanical assembly type machine rooms, and comparing the actual operation equipment parameters of the design models of the multiple groups of electromechanical assembly type machine rooms to obtain an optimal design model, wherein: the actual operation equipment parameters are parameters which need to be controlled most in the parameters of the electromechanical assembled machine room to be designed, and the operation equipment parameters are other parameters which need to be controlled except the actual operation equipment parameters in the parameters of the electromechanical assembled machine room to be designed; the operating equipment parameters are as follows: the method comprises the steps of designing a water flow rate required to be reached by a water pump room of the electromechanical assembly type machine room to be designed, and/or a lift required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, and/or a refrigerating capacity required to be reached by a refrigerating machine room of the electromechanical assembly type machine room to be designed, and/or a flow rate of a refrigerant required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, and/or a price of the electromechanical assembly type machine room to be designed, and/or an occupied area of the electromechanical assembly type machine room to be designed, and/or an occupied space of the electromechanical assembly type machine room to be designed, and/or a power of the electromechanical assembly type machine room to be designed.
Preferably, the method for performing assembly machine room derivative design based on the REVIT software further includes S4, decomposing the optimal design model and outputting a CAD drawing.
Preferably, in step S1, the corresponding parameters include the size of the model, the device operation parameters, the device name and the device price.
Preferably, in step S1, the position information of the external interface is marked in the form of three-dimensional coordinates; in step S1, the size information of the external interface is marked with a radius value or a diameter value.
Preferably, the actual operation equipment parameters are as follows: the water flow required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, or the lift required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, or the refrigerating capacity required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, or the refrigerant flow required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, or the price of the electromechanical assembly type machine room to be designed, or the floor area of the electromechanical assembly type machine room to be designed, or the occupied space of the electromechanical assembly type machine room to be designed, or the power of the electromechanical assembly type machine room to be designed.
Preferably, in step S2, the composition of the electromechanical assembled machine room refers to the equipment included in the electromechanical assembled machine room to be designed.
Preferably, in step S2, the combination is performed according to the arrangement logic of the electromechanical assembled machine room to be designed as follows: and arranging the devices from left to right and from top to bottom along the sequence of the devices passing the media in the electromechanical assembly machine room to be designed from the inlet to the outlet, and randomly combining.
Preferably, the external interface comprises an external inlet and an external outlet.
Preferably, in step S2, the multiple sets of electromechanical assembled machine rooms are all combined starting points with the origin of the three-dimensional space of the REVIT software.
Preferably, in step S3, when comparing the design models of the multiple electromechanical assembly machine rooms, comparing any two sets of design models to obtain a first comparison better model, comparing the first comparison better model with any remaining set of design models to obtain a second comparison better model, comparing the second comparison better model with any remaining set of design models to obtain a third comparison better model, and repeating the steps to obtain all the design models of the electromechanical assembly machine rooms, thereby obtaining the optimal design model.
(III) advantageous effects
Compared with the prior art, the method for performing derivative design of the assembled machine room based on the REVIT software has the advantages that:
compared with the prior art, the invention is based on the REVIT software and comprises the following steps: and (3) building an equipment model database, building a system architecture, comparing and calculating and selecting an optimal design model. The method for performing the derivative design of the assembled machine room based on the REVIT software can realize the derivative design of the assembled machine room, can greatly improve the modeling efficiency of the electromechanical assembled machine room, and can quickly obtain the optimal design model.
Drawings
The features and advantages of the present invention will be more clearly understood by reference to the accompanying drawings, which are illustrative and not to be construed as limiting the invention in any way, and in which:
fig. 1 is a schematic flow chart of a method for performing derivative design of an assembled computer room based on REVIT software according to an embodiment of the present invention;
FIG. 2 is a model in the equipment model library in the method for derivative design of an assembly machine room based on REVIT software according to the embodiment of the present invention;
fig. 3 is a flowchart for comparing design models in the method for performing derivative design of an assembly machine room based on the REVIT software according to the embodiment of the present invention.
Detailed Description
In order to make the aforementioned objects, features and advantages of the present invention comprehensible, embodiments accompanied with figures are described in detail below. In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present invention. This invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein, but rather should be construed as broadly as the present invention is capable of modification in various respects, all without departing from the spirit and scope of the present invention.
In the description of the present invention, it is to be noted that, unless otherwise explicitly specified or limited, the terms "connected" and "connected" are to be interpreted broadly, e.g., as being fixed or detachable or integrally connected; the two elements may be mechanically or electrically connected, directly or indirectly connected through an intermediate medium, or connected through the inside of the two elements, or "in transmission connection", that is, connected in a power manner through various suitable manners such as belt transmission, gear transmission, or sprocket transmission. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.
The invention will be further described with reference to the accompanying figures 1-3.
Referring to fig. 1, a method for performing derivative design of an assembled computer room based on REVIT software includes the following steps:
s1, building an equipment model database
And constructing an equipment model library in REVIT software, modeling the models in the assembled machine room, uniquely numbering each model, binding corresponding parameters, and marking the maximum outline dimension and the size and position information of the external interface on each model.
When an equipment model library is constructed in the REVIT software, classification is carried out according to the constituent elements required by different electromechanical assembly type machine rooms.
S2, building a system architecture
And searching the models in the equipment model database by taking the operating equipment parameters of the electromechanical assembly machine room to be designed as instructions according to the composition of the electromechanical assembly machine room to be designed, and combining the models according to the arrangement logic of the electromechanical assembly machine room to be designed to form a plurality of groups of design models of the electromechanical assembly machine room.
S3, obtaining an optimal design model
Comparing the design models of the multiple groups of electromechanical assembly type machine rooms, and comparing the actual operation equipment parameters of the design models of the multiple groups of electromechanical assembly type machine rooms to obtain an optimal design model, wherein: the actual operation equipment parameters are parameters which need to be controlled most in the parameters of the electromechanical assembled machine room to be designed, and the operation equipment parameters are other parameters which need to be controlled except the actual operation equipment parameters in the parameters of the electromechanical assembled machine room to be designed; the operating equipment parameters are as follows: the method comprises the steps of designing a water flow rate required to be reached by a water pump room of the electromechanical assembly type machine room to be designed, and/or a lift required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, and/or a refrigerating capacity required to be reached by a refrigerating machine room of the electromechanical assembly type machine room to be designed, and/or a flow rate of a refrigerant required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, and/or a price of the electromechanical assembly type machine room to be designed, and/or an occupied area of the electromechanical assembly type machine room to be designed, and/or an occupied space of the electromechanical assembly type machine room to be designed, and/or a power of the electromechanical assembly type machine room to be designed.
In step S2 in the above embodiment: when a system architecture is built, searching a model in the equipment model database according to the composition of the electromechanical assembly machine room to be designed, and combining according to the arrangement logic of the electromechanical assembly machine room to be designed to clearly define the positions of connection among the components and among the components of the electromechanical assembly machine room to be designed, wherein all the positions are expressed by three-dimensional coordinate points; and forming a design model of a plurality of groups of electromechanical assembled machine rooms.
The following exemplifies a specific implementation procedure of step S1 in the above embodiment.
Referring to fig. 2, a model of the electromechanical assembly machine room equipment is obtained by standardizing parameters of the equipment model and storing the parameters in a database. The model appearance parameters are [ 1081, 600, 852), (0, 300, 450, 75), (75, 300, 852, 75 ]. The concrete meanings are [ model width (1081), model depth (600), model height (852) ], (water inlet center point position (0, 300, 450), (water inlet pipe radius) (75)), (water outlet pipe center point position (75, 300, 852), (water outlet pipe radius) (75)) ].
Referring to table 1, the device model is a database parameter table of the device model, and parameters of a device name, a device number, an external dimension, main technical parameters, and a price are specifically bound in the table.
TABLE 1
Through the specific steps, library construction, parameter input, model recombination, comparative analysis and optimal result output are realized. The following is an example of the specific implementation of steps S2-S3 of the above embodiment.
If the most controlled parameter in the electromechanical assembled machine room to be designed is the price (the most controlled parameter is 1 item), the price is the actual operating equipment parameter. And if the other parameters to be controlled in the electromechanical assembled machine room to be designed are power and floor area, the operating equipment parameters are power and floor area, and range values of the power and the floor area are set.
Setting the range values of power and floor area to be controlled, wherein the power is more than Q watt and the floor area is less than W square meter.
The instructions are set to: the power of the electromechanical assembled machine room to be designed is larger than Q watt and the occupied area is smaller than W square meter, the models in the equipment model database are searched according to the composition of the electromechanical assembled machine room to be designed, the models are combined according to the arrangement logic of the electromechanical assembled machine room to be designed to form a plurality of groups of design models of the electromechanical assembled machine room, and the design models are respectively set as follows with reference to the attached figure 3: model A, model B, model C, model D, model N and model N + 1.
Wherein: the model A, the model B, the model C, the model D, the model N and the model N +1 all accord with the instruction condition that the power is larger than Q watts and the occupied area is smaller than W square meters.
Since the parameter most to be controlled is the price, the optimal design model can be obtained by comparing the prices of a plurality of schemes. The method specifically comprises the following steps: because the model in each assembly machine room is bound with the price parameter, the REVIT software can automatically acquire the whole price of the model A by overlapping the prices of all the component devices in the model A, and can also automatically acquire the whole prices of the model B and other models.
And then comparing the whole price of the model A with the whole price of the model B, and outputting the model A if the whole price of the model A is less than the whole price of the model B.
And comparing the whole price of the model A with the whole price of the model C, and outputting the model C if the whole price of the model C is less than the whole price of the model A.
And comparing the whole price of the model C with the whole price of the model D, and outputting the model C if the whole price of the model C is less than the whole price of the model D.
And comparing the whole price of the model C with the whole price of the model N, and outputting the model N if the whole price of the model N is less than that of the model C.
And comparing the overall price of the model N with the overall price of the model N +1, outputting the model N +1 if the overall price of the model N +1 is less than the overall price of the model N, and obtaining an optimal design model after the comparison of all the models is completed.
According to the specific embodiment of the invention, the method for performing the assembly machine room derivative design based on the REVIT software further comprises S4, decomposing the optimal design model and outputting a CAD drawing. The optimal design model decomposition is understood as: and decomposing the optimal design model into models corresponding to the equipment model library. Through the steps, the material and assembly list of the optimal design model and the corresponding drawing can be obtained, the design achievement can be output quickly, and the design work can be completed.
According to an embodiment of the present invention, in step S1, the corresponding parameters include the size of the model, the equipment operation parameters, the equipment name and the equipment price. It should be noted that: for different devices, the corresponding operating parameters of the devices are different, and the devices need to be supplemented according to the known parameters during design so as to meet the requirements.
According to an embodiment of the present invention, in step S1, marking the position information of the external interface in the form of three-dimensional coordinates; in step S1, the size information of the external interface is marked with a radius value or a diameter value. In the embodiment, after the position information of the external interface is marked in the form of three-dimensional coordinates, the position information of the interface can be acquired by software, so that a design model of the electromechanical assembly type machine room is formed. After the information of the size of the interface is provided, the software can select and match the equipment model from the equipment model library according to the size of the interface, and during specific implementation, the size of the external interface can be marked by a radius value or a diameter value, but the radius value or the diameter value is preferably unified into one type, so that the operation efficiency is increased, and the readability is improved.
According to the specific implementation manner of the present invention, the actual operation device parameters are: the water flow required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, or the lift required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, or the refrigerating capacity required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, or the refrigerant flow required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, or the price of the electromechanical assembly type machine room to be designed, or the floor area of the electromechanical assembly type machine room to be designed, or the occupied space of the electromechanical assembly type machine room to be designed, or the power of the electromechanical assembly type machine room to be designed.
It should be noted that, in addition to the aforementioned price, the actual operating device parameter of the electromechanical assembled machine room to be designed may also be another parameter, such as the floor space of the electromechanical assembled machine room to be designed or the floor space of the electromechanical assembled machine room to be designed. During specific implementation, the parameters of the operating equipment can be correspondingly selected according to the items to be controlled in the electromechanical assembled machine room to be designed.
During specific implementation, the logic of the components of different electromechanical assembly type machine rooms is different, and the components of equipment required by a cold water machine room, an air conditioner machine room and a fire pump room are different. During combination, the three-dimensional space (0, 0, 0) is taken as a starting point, and related equipment arrangement is carried out from left to right and from top to bottom according to the required equipment combination sequence, so that random combination is carried out.
That is, in step S2, the composition of the electromechanical assembled machine room refers to the equipment included in the electromechanical assembled machine room to be designed. The method comprises the following steps of combining according to the arrangement logic of the electromechanical assembled machine room to be designed: and arranging the devices from left to right and from top to bottom along the sequence of the devices passing the media in the electromechanical assembly machine room to be designed from the inlet to the outlet, and randomly combining.
In the above embodiment, the external interface includes an external inlet and an external outlet. In step S2, the design models of the multiple groups of electromechanical assembled machine rooms all use the origin of the three-dimensional space of the REVIT software as a combined starting point. In step S3, when comparing the design models of the multiple electromechanical assembled machine rooms, comparing any two sets of design models to obtain a first-time comparison better model, comparing the first-time comparison better model with any remaining set of design models to obtain a second-time comparison better model, comparing the second-time comparison better model with any remaining set of design models to obtain a third-time comparison better model, and repeating the steps to compare all the design models of the electromechanical assembled machine rooms to obtain the optimal design model.
Compared with the prior art, the invention is based on the REVIT software and comprises the following steps: and (3) building an equipment model database, building a system architecture, comparing and calculating and selecting an optimal design model. The method for performing the derivative design of the assembled machine room based on the REVIT software can realize the derivative design of the assembled machine room, can greatly improve the modeling efficiency of the electromechanical assembled machine room, and can quickly obtain the optimal design model.
Although the embodiments of the present invention have been described in conjunction with the accompanying drawings, those skilled in the art may make various modifications and variations without departing from the spirit and scope of the invention, and such modifications and variations fall within the scope defined by the appended claims.
Claims (10)
1. A method for carrying out derivative design of an assembled computer room based on REVIT software is characterized by comprising the following steps:
s1, building an equipment model database
Constructing an equipment model library in REVIT software, modeling the models in the assembled machine room, uniquely numbering each model, binding corresponding parameters, and marking the corresponding maximum overall dimension and the size and position information of an external interface on each model;
s2, building a system architecture
Searching models in the equipment model database according to the composition of the electromechanical assembly type machine room to be designed by taking operating equipment parameters of the electromechanical assembly type machine room to be designed as instructions, and combining the models according to the arrangement logic of the electromechanical assembly type machine room to be designed to form a plurality of groups of design models of the electromechanical assembly type machine room;
s3, obtaining an optimal design model
Comparing the design models of the multiple groups of electromechanical assembly type machine rooms, and comparing the actual operation equipment parameters of the design models of the multiple groups of electromechanical assembly type machine rooms to obtain an optimal design model, wherein: the actual operation equipment parameters are parameters which need to be controlled most in the parameters of the electromechanical assembled machine room to be designed, and the operation equipment parameters are other parameters which need to be controlled except the actual operation equipment parameters in the parameters of the electromechanical assembled machine room to be designed;
the operating equipment parameters are as follows: the method comprises the steps of designing a water flow rate required to be reached by a water pump room of the electromechanical assembly type machine room to be designed, and/or a lift required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, and/or a refrigerating capacity required to be reached by a refrigerating machine room of the electromechanical assembly type machine room to be designed, and/or a flow rate of a refrigerant required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, and/or a price of the electromechanical assembly type machine room to be designed, and/or an occupied area of the electromechanical assembly type machine room to be designed, and/or an occupied space of the electromechanical assembly type machine room to be designed, and/or a power of the electromechanical assembly type machine room to be designed.
2. The method for assembly machine room derivative design based on REVIT software as claimed in claim 1, further comprising S4, decomposing the optimal design model and outputting CAD drawing.
3. The method for assembly machine room derivative design based on REVIT software of claim 1, wherein in step S1, the corresponding parameters include size of the model, equipment operating parameters, equipment name and equipment price.
4. The method for derivative design of assembly machine room based on REVIT software as claimed in claim 1, wherein in step S1, the position information of the external interface is marked in the form of three-dimensional coordinates; in step S1, the size information of the external interface is marked with a radius value or a diameter value.
5. The method for assembly room derivative design based on REVIT software of claim 1, wherein the actual operating equipment parameters are: the water flow required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, or the lift required to be reached by the water pump room of the electromechanical assembly type machine room to be designed, or the refrigerating capacity required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, or the refrigerant flow required to be reached by the refrigerating machine room of the electromechanical assembly type machine room to be designed, or the price of the electromechanical assembly type machine room to be designed, or the floor area of the electromechanical assembly type machine room to be designed, or the occupied space of the electromechanical assembly type machine room to be designed, or the power of the electromechanical assembly type machine room to be designed.
6. The method for derivative design of an assembly machine room based on REVIT software as claimed in claim 1, wherein in step S2, the composition of the electromechanical assembly machine room refers to the equipment included in the electromechanical assembly machine room to be designed.
7. The method for derivative design of assembled computer room based on REVIT software according to claim 1, wherein in step S2, the method is combined according to the arrangement logic of the electromechanical assembled computer room to be designed as follows: and arranging the devices from left to right and from top to bottom along the sequence of the devices passing the media in the electromechanical assembly machine room to be designed from the inlet to the outlet, and randomly combining.
8. The REVIT software-based method for assembly room derivative design according to claim 1, wherein the external interface comprises an external inlet and an external outlet.
9. The method for derivative design of assembled machinery room based on REVIT software as claimed in claim 1, wherein in step S2, the design models of multiple electromechanical assembled machinery rooms are all starting points combined with the origin of the three-dimensional space of the REVIT software.
10. The method for derivative design of an assembly machine room based on REVIT software according to claim 1, wherein in step S3, when comparing the design models of multiple electromechanical assembly machine rooms, comparing any two sets of design models to obtain a first comparison better model, comparing the first comparison better model with any remaining set of design models to obtain a second comparison better model, comparing the second comparison better model with any remaining set of design models to obtain a third comparison better model, and so on, comparing all the design models of the electromechanical assembly machine rooms to obtain the optimal design model.
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