阅读说明：本技术 一种智能的抽出式低压开关柜系统的排布控制方法及装置 (Arrangement control method and device for intelligent draw-out type low-voltage switch cabinet system ) 是由 孟云鹏 李国民 高巧丽 杨俊铭 陈俊 李志� 伍婷婷 李锋 周涛 崔莹 钱捷 于 2019-11-05 设计创作，主要内容包括：本发明提供了一种智能的抽出式低压开关柜系统的排布控制方法及装置,涉及开关柜技术领域。本发明所述智能的抽出式低压开关柜系统的排布控制方法包括：获取参与开关柜排布的负荷信息和母线段数量；根据负荷信息确定每个负荷对应的排列抽屉的大小；确定每个母线段中的排列抽屉的数量和大小；识别每个开关柜中参与排列抽屉排布的区域,根据排列抽屉的数量和大小依次将所有排列抽屉排布到所述开关柜中参与排列抽屉排布的区域；根据排列抽屉的大小将每个开关柜的参与排列抽屉排布的区域中的排列抽屉进行排列,获得包括负荷信息的《盘面布置图》。本发明预先确定母线段数量以及参与排布的负荷的信息,将平面位置关系转化成抽象的数学逻辑关系,最后再重新生成平面位置图。(The invention provides an arrangement control method and device for an intelligent draw-out type low-voltage switch cabinet system, and relates to the technical field of switch cabinets. The arrangement control method of the intelligent draw-out type low-voltage switch cabinet system comprises the following steps: acquiring load information and the number of bus sections participating in switch cabinet arrangement; determining the size of the arrangement drawer corresponding to each load according to the load information; determining the number and size of the drawers arranged in each bus-section; identifying the area of each switch cabinet, which is participated in arranging the arrangement drawers, and sequentially arranging all the arrangement drawers to the area of the switch cabinet, which is participated in arranging the arrangement drawers, according to the number and the size of the arrangement drawers; and arranging the arrangement drawers in the area of each switch cabinet participating in arrangement of the arrangement drawers according to the size of the arrangement drawers to obtain a tray layout chart containing load information. The invention predetermines the number of bus segments and the information of the loads participating in the arrangement, converts the plane position relationship into an abstract mathematical logic relationship, and finally regenerates the plane position diagram.)

1. An arrangement control method of an intelligent draw-out type low-voltage switch cabinet system is characterized by comprising the following steps:

acquiring load information and the number of bus sections participating in switch cabinet arrangement, wherein each bus section comprises at least one switch cabinet;

determining the size of the arrangement drawer corresponding to each load according to the load information;

determining the number and size of the arrangement drawers in each bus-section according to the number of the bus-sections and the size of the arrangement drawers;

identifying the area of each switch cabinet, which is participated in the arrangement of the arrangement drawers, and sequentially arranging all the arrangement drawers to the area of the switch cabinet, which is participated in the arrangement of the arrangement drawers, according to the number and the size of the arrangement drawers;

and arranging the arrangement drawers in the area of each switch cabinet participating in arrangement of the arrangement drawers according to the size of the arrangement drawers to obtain a tray surface arrangement diagram including the load information.

2. The arrangement control method of the intelligent draw-out low-voltage switchgear system according to claim 1, further comprising the steps of:

determining the number and size of the spare drawers according to the load information;

determining the arrangement area of the spare drawers according to the number and the size of the spare drawers;

inserting the spare drawer into an arrangement area of the spare drawer in the switch cabinet.

3. The arrangement control method of an intelligent draw-out low-voltage switchgear system according to claim 1, wherein the obtaining of load information and the number of bus-sections participating in the switchgear arrangement specifically comprises:

acquiring all load information and load acquisition principles;

and screening the load information participating in the configuration according to the load acquisition principle.

4. The arrangement control method of the intelligent draw-out low-voltage switchgear system according to claim 1, further comprising the steps of:

acquiring the same number of the loads; when the number of the same loads is greater than or equal to 2, the same loads are respectively arranged in the areas where the different switch cabinets participate in the arrangement of the drawers.

5. The arrangement control method of the intelligent draw-out low-voltage switch cabinet system according to claim 1, wherein the switch cabinet comprises a first switch cabinet and a second switch cabinet, and the sequentially dividing all the arrangement drawers into the areas of the switch cabinet where the arrangement drawers are arranged according to the number and the size of the arrangement drawers specifically comprises:

acquiring the load capacity of the first switch cabinet, and determining the sum of the sizes of all the arranged drawers in the first switch cabinet;

when the sum of the sizes of the arranged drawers is larger than the load capacity of the first switch cabinet, dividing part of the drawers in the first switch cabinet into the second switch cabinet, and enabling the sum of the sizes of the arranged drawers to be smaller than or equal to the load capacity of the first switch cabinet.

6. The arrangement control method of an intelligent draw-out low-voltage switchgear system according to claim 1, wherein the determining the number and size of the arrangement drawers in each bus-section according to the number of bus-sections and the size of the arrangement drawers comprises:

determining the sum of the load capacities according to the size and the number of each arranged drawer, wherein the load capacity is the sum of the sizes of all the drawers;

equally dividing the arrangement drawers into each of the bus-sections according to the sum of the load capacities to obtain the number and size of the arrangement drawers in each of the bus-sections.

7. The arrangement control method of the intelligent draw-out low-voltage switchgear system according to claim 1, further comprising the steps of: and numbering all the arrangement drawers in sequence.

8. The arrangement control method of the intelligent draw-out low-voltage switchgear system according to claim 1, further comprising the steps of:

acquiring self-defined switch cabinet drawer position information according to the switch cabinet drawer panel diagram;

and adjusting the positions of the arranged drawers according to the self-defined switch cabinet drawer position information.

9. The utility model provides a draw-out type low-voltage switchgear system's of intelligence controlling means that arranges which characterized in that includes:

the acquisition module is used for acquiring load information participating in switch cabinet arrangement and the number of bus sections, and each bus section comprises at least one switch cabinet;

the conversion module is used for determining the size of the arrangement drawer corresponding to each load according to the load information;

a calculation module for determining the number and size of the alignment drawers in each bus-section according to the number of bus-sections and the size of the alignment drawers;

the dividing module is used for identifying the area participating in arrangement of the arrangement drawers in each switch cabinet and sequentially arranging all the arrangement drawers to the area participating in arrangement of the arrangement drawers in the switch cabinet according to the number and the size of the arrangement drawers;

and the arrangement module is used for arranging the arrangement drawers in the area of each switch cabinet participating in arrangement of the arrangement drawers according to the sizes of the arrangement drawers to obtain a switch cabinet drawer panel diagram including the load information.

10. Arrangement control device of an intelligent draw-out low-voltage switchgear system, characterized in that it comprises a computer readable storage medium storing a computer program and a processor, which when read and run by the processor implements the arrangement control method of an intelligent draw-out low-voltage switchgear system according to any of claims 1-8.

Technical Field

The invention relates to the technical field of switch cabinets, in particular to an arrangement control method of an intelligent draw-out type low-voltage switch cabinet system.

Background

In the actual design work of the switch cabinet, a large amount of power loads, thousands of low-voltage cables and other massive information are involved in power transformation, and designers are required to calculate, arrange and arrange in a limited time, so that a large amount of manual and mental labor and a large amount of repetitive labor are involved. Load change and increase and decrease can be inevitable to appear in the actual design flow, can influence all remaining drawer arrangements, and both the labour consuming and time consuming, inefficiency appears in the mistake easily again, delays the design progress, influences the design quality.

Disclosure of Invention

The present invention addresses at least one of the above-mentioned technical problems.

In order to solve the above problems, the invention provides an arrangement control method for an intelligent draw-out type low-voltage switch cabinet system, comprising the following steps:

acquiring load information and the number of bus sections participating in switch cabinet arrangement, wherein each bus section comprises at least one switch cabinet;

determining the size of the arrangement drawer corresponding to each load according to the load information;

determining the number and size of the arrangement drawers in each bus-section according to the number of the bus-sections and the size of the arrangement drawers;

identifying the area of each switch cabinet, which is participated in the arrangement of the arrangement drawers, and sequentially arranging all the arrangement drawers to the area of the switch cabinet, which is participated in the arrangement of the arrangement drawers, according to the number and the size of the arrangement drawers;

and arranging the arrangement drawers in the area of each switch cabinet participating in arrangement of the arrangement drawers according to the size of the arrangement drawers to obtain a tray surface arrangement diagram including the load information.

Optionally, the method further comprises the following steps:

determining the number and size of the spare drawers according to the load information;

determining the arrangement area of the spare drawers according to the number and the size of the spare drawers;

inserting the spare drawer into an arrangement area of the spare drawer in the switch cabinet.

Optionally, the step of obtaining load information and the number of bus segments participating in the switch cabinet arrangement S1 specifically includes:

acquiring all load information and load acquisition principles;

and screening the load information participating in the configuration according to the load acquisition principle.

Optionally, the method further comprises the following steps:

acquiring the same number of loads; when the number of the same loads is greater than or equal to 2, the same loads are respectively arranged in the corresponding areas of different switch cabinets.

Optionally, the switch cabinet includes a first switch cabinet and a second switch cabinet, and the sequentially dividing all the arrangement drawers into the regions corresponding to the switch cabinet according to the number and size of the arrangement drawers specifically includes:

acquiring the load capacity of the first switch cabinet, and determining and calculating the sum of the sizes of all the arranged drawers in the first switch cabinet;

when the sum of the sizes of the arranged drawers is larger than the load capacity of the first switch cabinet, dividing part of the drawers in the first switch cabinet into the second switch cabinet, and enabling the sum of the sizes of the arranged drawers to be smaller than or equal to the load capacity of the first switch cabinet.

Optionally, said determining the number and size of said alignment drawers in each said bus-section according to the number of said bus-sections and the size of said alignment drawers comprises:

determining the sum of the load capacities according to the size and the number of each arranged drawer, wherein the load capacity is the sum of the sizes of all the drawers;

equally dividing the arrangement drawers into each of the bus-sections according to the sum of the load capacities to obtain the number and size of the arrangement drawers in each of the bus-sections.

Optionally, the method further comprises the following steps: and numbering all the arrangement drawers in sequence.

Optionally, the method further comprises the following steps:

determining the position of a self-defined switch cabinet drawer according to the switch cabinet drawer panel diagram;

and adjusting the positions of the arrangement drawers according to the positions of the self-defined switch cabinet drawers.

Compared with the prior art, the arrangement control method of the intelligent draw-out type low-voltage switch cabinet system has the beneficial effects that:

the method comprises the steps of predetermining the number of bus sections and information of loads participating in arrangement, then determining the sizes of drawers corresponding to the loads participating in arrangement, further determining the sizes and the number of the drawers in each bus section, arranging the drawers in a switch cabinet in each bus section, and finally arranging the arranged drawers in sequence and outputting corresponding composite information and a switch cabinet drawer panel diagram containing the load information. And converting the plane position relationship into an abstract mathematical logic relationship, and finally regenerating a plane position diagram.

The invention also provides an arrangement control device of the intelligent draw-out type low-voltage switch cabinet system, which comprises:

the system comprises an acquisition module, a distribution module and a control module, wherein the acquisition module is used for acquiring load information participating in the distribution of the switch cabinets and the number of bus sections, and each bus section comprises at least one switch cabinet;

the conversion module is used for determining the size of the arrangement drawer corresponding to each load according to the load information;

a calculation module for determining the number and size of the alignment drawers in each bus-section according to the number of bus-sections and the size of the alignment drawers;

the dividing module is used for sequentially arranging all the arrangement drawers into the corresponding areas of the switch cabinet according to the number and the size of the arrangement drawers;

and the arrangement module is used for arranging the arrangement drawers in the area corresponding to each switch cabinet according to the sizes of the arrangement drawers to obtain a switch cabinet drawer panel diagram comprising the load information.

The invention also provides an arrangement control device of the intelligent draw-out type low-voltage switch cabinet system, which comprises a computer readable storage medium and a processor, wherein the computer readable storage medium is used for storing a computer program, and when the computer program is read and run by the processor, the arrangement control device of the intelligent draw-out type low-voltage switch cabinet system realizes any arrangement control method of the intelligent draw-out type low-voltage switch cabinet system.

The configuration control method of the intelligent draw-out type low-voltage switch cabinet system and the configuration control device of the intelligent draw-out type switch cabinet system have the same beneficial effects, and are not repeated herein.

Drawings

Fig. 1 is a flowchart of an arrangement control method of an intelligent draw-out type low-voltage switchgear system according to an embodiment of the present invention;

fig. 2 is a schematic structural diagram of an arrangement control device of an intelligent draw-out type low-voltage switch cabinet system in an embodiment of the 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 addition, all directions or positional relationships mentioned in the embodiments of the present invention are positional relationships based on the drawings, and are only for convenience of describing the present invention and simplifying the description, but do not imply or imply that the referred device or element must have a specific orientation, and are not to be construed as limiting the present invention.

One embodiment of the invention provides an arrangement control method of an intelligent draw-out type low-voltage switch cabinet system. The arrangement control method only aims at the drawer cabinet, and does not arrange the incoming line cabinet or the bus connection cabinet and the like. The draw-out type low-voltage switch cabinet system is hereinafter referred to as a switch cabinet. The method comprises the following specific steps:

s1: acquiring low-voltage load information and the number of bus sections participating in the distribution of the switch cabinet;

s2: determining the size of the drawer corresponding to each load according to the load information;

s3: determining the number and size of the arrangement drawers in each bus-section according to the number of the bus-sections and the size of the arrangement drawers;

s4: identifying the area of each switch cabinet, which is participated in the arrangement of the arrangement drawers, and sequentially arranging all the arrangement drawers to the area of the switch cabinet, which is participated in the arrangement of the arrangement drawers, according to the number and the size of the arrangement drawers;

s5: and arranging the arrangement drawers in the area of each switch cabinet participating in arrangement of the arrangement drawers according to the size of the arrangement drawers to obtain a tray surface arrangement diagram including the load information.

In this embodiment, there are one or more bus bar sections to be arranged in the switch cabinet, each section includes a multi-surface switch cabinet, each surface of the switch cabinet can accommodate a plurality of drawers, and each drawer corresponds to a power supply load.

In step S1, the number of desired bus-sections is determined, and may be set as one or two sections according to the actual conditions of the project; and acquiring information of all low-voltage loads from a power supply load table of the project, wherein the information comprises load power, voltage level, calculated current, loop type (feeder loop or motor loop), control mode and the like, and finally selecting the loads to be arranged from all the loads, wherein the selection principle of the loads participating in the switch cabinet arrangement is determined according to the specific conditions of the project. The step of S1 includes: acquiring all load information and load acquisition principles, wherein the load acquisition principles comprise screening of load names; and screening the load information participating in the configuration according to the load acquisition principle. Here, the screening of the loads participating in the arrangement according to the selection rule includes screening or filtering the loads with certain keywords in the load names. For example, an illumination maintenance section is arranged in the substation, only illumination and maintenance loads are selected in the arrangement, namely loads with illumination and maintenance characters in all names are selected, and other loads do not participate in the arrangement.

In S2, the size of the drawer required to participate in the load arrangement needs to be calculated. The size of the drawer corresponding to each load is selected according to the type, load capacity or calculation current of the loop, and different items have different selection principles and can be customized. The dimensions of the drawer are indicated by the modulus D, in this embodiment 1D equal to 200mm high, the total height of the switchgear cabinet being generally 2200mm or 2000 mm. The D number represents the capacity of the switch cabinet occupied by each drawer on the cabinet surface. In this embodiment, the total capacity of a single switch cabinet is 9D, and common drawers generally have 0.5D, 1D, 2D, 3D and the like.

In S3, the load is segmented, and a group of devices that need to be started and stopped in the project are divided into different segments. For example, a group of fire-fighting water pumps with equipment position numbers of P28501A/B, which are one on and one off, needs to distribute the two load inlet wires into two different sections so as to improve the power supply reliability; in addition, a single primary load or a single secondary load which needs to be powered by double power supplies needs to be arranged in a segmented mode, and the requirement of the grade is met. And as for the rest general loads, the loads are distributed into all the sections as evenly as possible, so that the power supply balance is met. The corresponding drawer size is selected according to the type, load capacity or calculation current of the actual loop, and the number of switch cabinets and the total number D of the drawers in each section are counted after the section is completed, so that the drawer can be used in the subsequent step S5. In said step S3, a specific load is first split and then the remaining load is split equally into each of said bus-sections. For example, the remaining generic load of drawers would have 103 drawers at 0.5D, 81 drawers at 1D, 45 drawers at 2D and 10 drawers at 3D, if distributed into two bus-sections, the result would be A-sections: 52 0.5D, 41 1D, 23 2D and 5 3D, B segments: 51 0.5D, 40 1D, 22 2D and 5 3D.

In S3, load screening is required, a group of one-on-one-standby circulating water pumps are divided into two different bus sections, for example, a group of one-on-one-standby circulating water pumps with equipment numbers P28501A and P28501B, and two loads, namely P28501A and P28501B, are required to be arranged into different bus sections, so as to improve power supply reliability; in addition, two power supplies of the dual power supply load also need to be distributed in different bus sections to meet the requirement of the power load grade. The size of the corresponding drawer is selected according to the type of the actual load, the capacity of the load or the calculation current, and the total sum of the number of all the drawers and the total D number are counted.

In the step S3, determining a total of the load capacities according to the size and the number of each of the arranged drawers, wherein the load capacity is a total of sizes of all the drawers; said alignment drawers are then equally divided into each of said bus-sections by the sum of said load capacities. That is, the load needs to be divided equally among the different bus-sections. For example, if there are a total of 103 drawers of size 0.5D, it is necessary to divide 52 of the 103 drawers into a first bus-section and the remaining 51 drawers into a second bus-section. If the drawers are of different sizes, the total number D of the drawers is divided so that the total number D of each bus-section is equal.

The method also includes the following steps in S3: determining the number and size of the spare drawers according to the load information; determining the arrangement area of the spare drawers according to the number and the size of the spare drawers; inserting the spare drawer into an arrangement area of the spare drawer in the switch cabinet. In this embodiment, all the drawers are classified and counted, the capacity of the spare drawer required by the drawer is calculated according to a certain proportion, and the spare drawer is inserted into the switch cabinet arranged in S4. And carrying out classified statistics on all the drawers according to the following classification basis: the feeder circuit is classified according to the magnitude of the thermal tripping current of the circuit breaker, and the motor circuit is classified according to the magnitude of power and a control mode; counting various drawers, and calculating the number of the required standby drawers according to the proportion. For example, if the spare drawers are calculated according to the proportion of 20%, 1.8 spare drawers with the capacity of 11kW and the control modes of LO and LP are needed; and calculating the total capacity of the spare drawers, and judging whether the residual capacity in the switch cabinet arranged in the S4 can accommodate all the spare drawers. If the capacity is insufficient, a new cabinet surface needs to be added for capacity expansion. For example, the section A is provided with 20 switch cabinets, each face is reserved with 2D capacity, and then the total spare capacity is 40D. However, assuming that the total capacity of the required spare drawer calculated according to the proportion of 20% is 50D, two new switch cabinets are required to be added to the section A; evenly segmenting the spare drawers; inserting the segmented spare drawer into the spare area in the arranged switch cabinet in the S4; the remaining switch cabinet area is filled up, for example, after two new cabinets are added in the above example, the last cabinet is only 1D of capacity, and 8D of unfilled cabinet remains, and the cabinet is filled up by randomly filling any drawer.

At S4, the switch cabinet includes a first switch cabinet and a second switch cabinet, the step S4 includes: s41: acquiring the load capacity N of the first switch cabinet, and calculating the sum M of the sizes of all the arranged drawers in the first switch cabinet; s42: and when M is larger than N, dividing part of drawers in the first switch cabinet into the second switch cabinet, so that M is smaller than or equal to N. For example, a first switch cabinet may include a capacity of 9D, where 7D is the capacity of the row of drawers and the remaining 2D is the capacity of the row of spare drawers, and then the second switch cabinet may be arranged after the first switch cabinet is filled to capacity with 7D. Assuming that the total number D of the switch cabinets already arranged in the first switch cabinet is t, the sizes of the arranged drawers include 0.5D and 1D, the sizes of the drawers are 0.5D, 1D and 1D in sequence, the arrangement of the first row of drawers in the first switch cabinet is performed first, and in this case, t is 0.5< > 7; then, the second row alignment is performed, where t is 0.5+0.5< (7); the arrangement of the drawers in each row is carried out in sequence, and when the arrangement of the drawers in the 12 th row is carried out, the total D number of the arrangement of the switch cabinets is as follows: t 0.5+0.5+0.5+0.5+0.5+0.5+0.5+0.5+0.5+1+1+ 7.5D >7D, and the total D number of the switch cabinet arrangements that have been performed exceeds the arrangement capacity of the first switch cabinet, so that the last switch cabinet needs to be arranged in the second switch cabinet, and then the total capacity of the drawers in the first switch cabinet is: and t is 0.5+0.5+0.5+0.5+0.5+0.5+0.5+0.5+0.5+1+ 6.5D, and other drawers with the size of 0.5D are obtained and arranged in the first switch cabinet, so that the arrangement of the first cabinet is finished. And sequentially, until the sizes of the drawers corresponding to the loads in all the switch cabinets are determined. And S4, when the arrangement drawers in each switch cabinet are arranged according to the sizes of the arrangement drawers, arranging all the arrangement drawers in the order from top to bottom and from small to large.

In S4, the segmented loads are arranged in segments, and the drawers are sequentially arranged in each segment of the switch cabinet, and a certain capacity is reserved for arranging spare drawers in a single switch cabinet. The step of S4 includes: s41: determining the size of the reserved capacity required by a single switch cabinet of the project; s42: and sequentially arranging the drawers in the section into the switch cabinet, if the drawer exceeds the capacity of a single cabinet by 9D, selecting a smaller drawer backwards for filling until the single-side switch cabinet is filled, and continuously arranging the next cabinet. For example, if each switchgear is provisioned to reserve 2D of spare capacity, then there is a remaining 7D capacity for normal alignment. Assuming that the sizes of the first 8 drawers to be arranged are 3D, 2D, 0.5D, 1D and 2D … … in sequence, when the drawer is arranged to the third drawer, the capacity of the first-side switch cabinet is found to overflow, namely, the capacity exceeds 7D, and then the smaller drawers are continuously selected backwards to be filled until the first-side cabinet is fully arranged at 7D. The skipped drawers are automatically arranged in the next cabinet. The final layout result is therefore: the first surface cabinet is 3D, 0.5D and 0.5D, and the second surface cabinet is 2D, 1D and 2D. The subsequent drawer arrangement method is the same as the above until the arrangement of all the drawers in the section is completed, and another section is arranged by the same method. In S4, the drawers are sequentially arranged into the switch cabinet, and the drawers are arranged on one side and then on the other side until all the drawers are arranged.

In this embodiment, before the step S4, the method further includes: acquiring the same number of loads; when the number of the same loads is greater than or equal to 2, the same loads are respectively arranged in different switch cabinets. For example, the loads include first loads, the number of the first loads is 2, and in this case, the first loads need to be arranged in different switch cabinets respectively.

Here, after the step of S5, all the arrangement drawers are numbered in turn. And sequentially numbering all the arranged drawers, and reversely filling the serial numbers of the arranged drawers of the loads into a cable list.

In step S5, the step of obtaining a drawer panel of a switch cabinet including the load information further includes: determining the position of a self-defined switch cabinet drawer according to the switch cabinet drawer panel diagram; and adjusting the positions of the arrangement drawers according to the positions of the self-defined switch cabinet drawers. That is, when the arrangement drawers are arranged in the switch cabinet, since the spare drawers are inserted, the positions of the plurality of drawers in one cabinet need to be changed manually, in this embodiment, the spare drawers are arranged on the drawers, and the arrangement drawers are arranged downward in the order from small to large. Here, the position of the arrangement drawers is adjusted in the single-sided switch cabinet as required to achieve a desired arrangement layout scheme. When the switch cabinet drawer panel images are arranged in an initial stage, the position of the arranged drawers is adjusted in a user-defined mode according to actual needs, and the position of the drawer of the user-defined switch cabinet is determined. The custom adjustment varies according to actual needs, for example, arranging the same-size arranged drawers to the same row of areas in the switch cabinet. For example: the spare drawers are arranged to the same row of zones in the switchgear cabinet. The complexity, variable factors and the like in the actual design process are considered, the artificial participation in the monitoring and feedback process is increased to the maximum extent on the premise of reducing the artificial participation in the operation process to the maximum extent, and the method is more flexibly suitable for various projects.

The method comprises the steps of predetermining the number of bus sections and information of loads participating in arrangement, then determining the sizes of drawers corresponding to the loads participating in arrangement, further determining the sizes and the number of the drawers in each bus section, arranging the drawers in a switch cabinet in each bus section, and finally arranging the arranged drawers in sequence and outputting corresponding composite information and a switch cabinet drawer panel diagram containing the load information. And converting the plane position relationship into an abstract mathematical logic relationship, and finally regenerating a plane position diagram.

In S5, the final position of the aligned drawers is adjusted, and the drawer number corresponding to each load is back-filled in the cable book. The step of S5 includes: according to project regulations or custom of designers, the position of the drawers in each switch cabinet is adjusted, for example, the expected sequence of the drawers in the switch cabinet is as follows: standby is carried out from small to large on the upper part; generating a tray surface arrangement diagram according to the final drawer position; generating the model and parameters of the circuit breaker, the contactor, the motor protector and the like required by each drawer according to the final drawer position and factory databases such as a switch cabinet, a circuit breaker and the like, and integrating all information into a primary system diagram; and reversely filling the serial number of each drawer into a cable book. For example, in a 100AL lighting distribution box in Cable Meter book, the load is located at the section A of the bus bar at the corresponding drawer position in the substation, and the 6 th drawer on the 8 th switch cabinet, the number 8AA-6 is back filled to the starting point of the cable corresponding to the load in the Cable meter book; and generating information of all cables contained in each switch cabinet into a wiring table.

The method comprises the steps of predetermining the number of bus sections and information of loads participating in arrangement, then determining the sizes of drawers corresponding to the loads participating in arrangement, further determining the sizes and the number of the drawers in each bus section, arranging the drawers in a switch cabinet in each bus section, and finally arranging the arranged drawers in sequence and outputting corresponding composite information and a switch cabinet drawer panel diagram containing the load information. And converting the plane position relationship into an abstract mathematical logic relationship, and finally regenerating a plane position diagram. The power supply load table or the cable table book of the substation is used as an input condition, and a disc surface arrangement diagram which can visually represent the disc surface arrangement of the switch cabinet and a primary system diagram which integrates all switch cabinet information are finally output. The large switch cabinet system is converted into abstract mathematical logic and then into an image floor plan.

The embodiment of the invention provides an arrangement control device of an intelligent draw-out type low-voltage switch cabinet system, which comprises:

the system comprises an acquisition module, a distribution module and a control module, wherein the acquisition module is used for acquiring load information participating in the distribution of the switch cabinets and the number of bus sections, and each bus section comprises at least one switch cabinet;

the conversion module is used for determining the size of the arrangement drawer corresponding to each load according to the load information;

a calculation module for determining the number and size of the alignment drawers in each bus-section according to the number of bus-sections and the size of the alignment drawers;

the dividing module is used for identifying the area participating in arrangement of the arrangement drawers in each switch cabinet and sequentially arranging all the arrangement drawers to the area participating in arrangement of the arrangement drawers in the switch cabinet according to the number and the size of the arrangement drawers;

and the arrangement module is used for arranging the arrangement drawers in the area of each switch cabinet participating in arrangement of the arrangement drawers according to the sizes of the arrangement drawers to obtain a switch cabinet drawer panel diagram including the load information.

The arrangement of a draw-out type low-voltage switch cabinet system relates to a large number of low-voltage loads and low-voltage cables, and requires a designer to calculate, arrange and arrange the loads within a limited time; based on the particularity of the arrangement of the draw-out type low-voltage switch cabinet system, namely the change of a single drawer affects the arrangement of the whole system (similar to the situation that when building blocks are built, one building block is drawn out, so that the whole system collapses completely), and the change of load information frequently occurring in the actual design process is added, so that a great deal of labor and a great amount of repetitive work are involved. The process is complex in steps and complex in calculation, and needs designers to plan comprehensively and change flexibly; the size of the cable is as large as the disc surface layout of the whole switch cabinet system, and the size of the cable is as small as each drawer, so that the designer can consider the cable. After the arrangement is finished, designers still need to manually fill information into a primary system diagram, and manually count the cable information contained in each switch cabinet. The whole system is arranged completely, the time is short, three days and five days are used, the time is long, and a week is needed again if the load information changes in the midway. In general, the process is time-consuming and labor-consuming, the error rate is very high, and finally the design quality is not high and the design progress is delayed. Now, with the gradual expansion of the project scale, the number of loads included in the substation in the project is increased by times, and if the original old design and arrangement method is still adopted, the whole design progress is greatly slowed down. Therefore, the design mode of the current low efficiency is changed, and a brand new device for automatically arranging and controlling the machines is created, which needs to be solved urgently.

The arrangement device of the intelligent draw-out type low-voltage switch cabinet system only needs about 10 minutes from input conditions to output results, the design time is shortened by more than 99 percent, the efficiency is improved by more than 100 times, the arrangement accuracy of the device is 100 percent, no error possibility exists, and no matter how large the load quantity is, the efficiency cannot be changed as long as the system capacity limit is met.

The present embodiment provides an arrangement control device for an intelligent draw-out low-voltage switch cabinet system, including a computer readable storage medium storing a computer program and a processor, where when the computer program is read and executed by the processor, the arrangement control device implements the arrangement control method for the intelligent draw-out low-voltage switch cabinet system according to any one of the above items. The storage medium may be a magnetic disk, an optical disk, a Read-Only Memory (ROM), a Random Access Memory (RAM), or the like.

The configuration device of the intelligent draw-out type low-voltage switch cabinet system has the same beneficial effects as the configuration control method of the intelligent draw-out type low-voltage switch cabinet system, and the detailed description is omitted here.

Although the present disclosure has been described above, the scope of the present disclosure is not limited thereto. Various changes and modifications may be effected therein by one of ordinary skill in the pertinent art without departing from the spirit and scope of the present disclosure, and these changes and modifications are intended to be within the scope of the present disclosure.