KR102625547B1 - Restricted Breeding Restricted Area Search System Using Open Source - Google Patents

Abstract

The present invention is a search server that collects information on administrative districts and restricted areas for livestock rearing and displays restricted areas for livestock rearing to facilitate search, and is network-connected to the open space equipped with a stake installation unit that displays the restricted area. A source-based livestock farming restricted area search system is provided.

Description

Open source-based livestock breeding restricted area search system {Restricted Breeding Restricted Area Search System Using Open Source}

The present invention relates to an open source-based livestock breeding restricted area search system. More specifically, a search server and network that collects information on administrative districts and livestock breeding restricted areas and displays livestock breeding restricted areas to facilitate search. This is about an open source-based livestock breeding restricted area search system equipped with stake installation units that are connected to each other to indicate restricted areas.

Livestock farming is an important industrial sector worldwide, producing a variety of products such as meat, milk, and leather, and providing jobs for many people.

However, raising livestock can also cause a variety of problems, including environmental pollution, animal disease, and food safety.

To alleviate these problems, selection of aviary location is important.

To solve this problem, many countries are enacting laws restricting livestock raising in certain areas.

These laws are usually based on administrative districts and specify the types and numbers of livestock allowed in each district.

However, finding this information is not easy. Information on administrative districts and restricted livestock areas is often distributed across a variety of public data sources.

This information is usually stored in public databases, but using these databases requires specialized skills.

Additionally, this data is often incomplete or out of date, making it difficult for users to obtain accurate information.

Moreover, livestock restricted areas may change over time, making tracking these changes more difficult.

Therefore, a simple and efficient system is needed to collect information on administrative districts and restricted livestock breeding areas and provide it to users.

Registered Patent Publication No. 10-2396172 Registered Patent Publication No. 10-2234508

The present invention was created to solve the above problems, and the purpose of the present invention is to provide an open source-based livestock breeding restriction system equipped with a search server that collects and provides information on administrative districts and restricted livestock breeding areas and its functional units. It provides a zone search system.

Another object of the present invention is to provide an open source-based livestock breeding restricted area search system equipped with a stake installation unit that is networked with a search server and installs stakes to indicate the livestock breeding restricted area.

The object of the present invention is not limited to the problems mentioned above, and other problems not mentioned will be clearly understood by those skilled in the art from the description below.

The open source-based livestock breeding restricted area search system according to an embodiment of the present invention to solve the above problems includes a search server that collects information on administrative districts and livestock breeding restricted areas and provides the information according to the user's request. can do.

In one embodiment, the search server includes a data collection unit that collects information on administrative districts and restricted livestock breeding areas from a plurality of sources, converts and stores the information, and manages the data collected in the data collection unit. , a database unit that stores the information in a searchable form, a search unit that accepts the user's search request and retrieves the requested information from the database unit, and a GIS that geographically visualizes and analyzes the information retrieved from the database unit and provides it to the user. It includes a base engine unit and an algorithm unit that finds highly relevant livestock breeding restricted areas in the database unit according to a user's search request, and the data collection unit regularly collects information on administrative districts and livestock breeding restricted areas from a plurality of public data sources. The search unit analyzes the user's search request and searches for information matching the request in the database unit, and the GIS-based engine unit visually visualizes the search results geographically and provides them to the user, The algorithm unit identifies and provides livestock breeding restricted areas that are highly relevant to the user's search request, and the data collection unit regularly collects information on administrative districts and livestock breeding restricted areas through the public data API, and transfers this information to the database unit. The data collection unit includes a data verification algorithm for the recency and accuracy of the collected information, the database unit stores the collected information in a preset format, and transmits the information to the search unit according to a search request. , the search unit receives the user's request through a website or mobile application, and in response, searches for and returns the requested information from the database unit, and the search unit parses the user's search request and queries based on it. creates and communicates with the database unit, the GIS-based engine unit visualizes the search results in a geographical context and provides them to the user, and the algorithm unit finds restricted livestock breeding areas that are highly relevant to the user's search request, and It may include the feature of analyzing a user's search request, identifying matching information in the database unit, and providing the information to the user through the GIS-based engine unit.

In one embodiment, the open source-based livestock breeding restricted area search system includes a stake installation unit for installing a stake equipped with a GPS sensor to indicate a livestock breeding restricted area, and the stake installation unit is installed at a predetermined distance from the ground. A unit support frame provided in a vertical direction and equipped with wheels so as to be movable along the ground, a unit base plate installed in a horizontal direction to connect upper ends of the unit support frames at regular intervals and having a hole in the center so that a pile can move, the unit A pile seating portion provided to seat a pile at the upper center of the base plate, a pile guide portion installed on the back of the unit base plate to guide the pile seated on the pile seating portion toward the ground, and a pile guide portion of the unit base plate. A pile placement unit installed at a predetermined interval at the top and arranged to place the pile seated on the pile seating unit toward the pile guide unit, and integrally disposed with the pile placement unit on the upper part of the unit base plate to seat the pile. It may include a pile striking unit provided to strike a pile seated in the unit, and a striking guide unit installed from the lower portion of the pile guide unit toward the ground and arranged to place the pile struck by the pile striking unit in a vertical direction on the ground. there is.

In one embodiment, the striking guide unit includes a guide unit housing installed at a lower portion of the pile guide unit and supported on the ground, a rotating ball support unit installed on the inner upper surface of the guide unit housing, and a rotating ball support unit that can be rotated on the rotating ball support unit. A fastened guide portion rotating ball, a rotating ball connection shaft installed in a vertical direction at the lower portion of the guide portion rotating ball, a guide portion cylinder inserted into the peripheral portion of the rotating ball connecting shaft, and a guide portion cylinder inserted and fixed to the peripheral portion of the guide portion cylinder. A frame portion support ring, a pivoting frame portion installed to enable piston movement from the inner upper surface of the guide portion housing toward a circumference of the frame portion support ring, a guide portion shaft provided to be insertable in a vertical direction toward the guide portion cylinder, A guide part elastic ball made of an elastic material installed at the lower end of the guide part shaft, an elastic ball support shaft installed at the lower part of the guide part elastic ball, and horizontally installed at the lower part of the elastic ball support shaft to support the upper part of the pile. A pile support plate provided, an elastic ball housing installed on the upper part of the pile support plate to protect the guide elastic ball, the elastic ball support shaft, and an elastic ball housing installed on the elastic ball housing so that the pile striking unit strikes the pile into the ground. It includes a pile fixer provided toward the ground, wherein the pile fixer includes a fixer plate supported and fixed in a horizontal direction on the upper part of the elastic ball housing, and capable of being unwound and wound downward from both sides of the rear portion of the fixer plate. A fastened fixing part wire, a wire roller rotatably provided to unwind and wind the fixing part wire, a roller rotation shaft horizontally inserted into one side of the wire roller and provided to rotate the wire roller, and the roller rotation shaft A rotating shaft gear is fastened to the distal end of the roller and is provided to rotate the roller rotating shaft, the rotating shaft gear is built in the upper part and a fixed cylinder is provided so as to be placed on the ground, and is rotatably disposed inside the fixed cylinder. A fixed gear provided to engage with the rotating shaft gear in a vertical direction, a first gear installed downward from the fixed gear, rotating integrally with the fixed gear, and inserted into the peripheral portion at regular intervals to enable excavation of the ground. It includes a fixing shaft provided with an excavation wing and a second excavation wing, and the striking guide part is configured such that after the pile striking part strikes the pile toward the ground and fixes it, the roller rotation axis moves in the longitudinal direction of the fixing part cylinder by control. As the fixing part wire is wound by the rotation of the wire roller while descending, the fixing part plate causes the pile to descend toward the ground, and the fixing part shaft rotates so that the first digging blade and the second digging blade It may further include a feature of excavating the ground and fixing the fixture cylinder to the ground.

In one embodiment, the pile arrangement unit is provided with a placement unit rotation axis rotatably installed at regular intervals on the upper part of the unit base plate, and is fastened to the upper end of each placement unit rotation axis to rotate integrally with the placement unit rotation axis. A placement unit connecting member, a placement unit rotation frame extending to both sides of the placement unit connection member and configured to rotate integrally with the placement unit connection member, and one installed at a distal end of the placement unit rotation frame to seat the pile on the pile. It includes a seating precision unit provided to adjust the arrangement in the unit, a position guide unit installed at the distal end of the rotation frame of the other placement unit and provided to guide the position of the pile from the pile seating unit to the striking guide unit, The seated precision unit includes a precision unit rotary shaft rotatably fastened to the distal end of the placement unit rotation frame, a precision unit housing fastened to a peripheral portion of the precision unit rotation shaft, and built into the precision unit rotation shaft to generate a driving force. A precision unit drive motor, a motor connection shaft protruding toward the precision unit drive motor and provided to transmit driving force, and a precision unit rotation frame fastened to the motor connection shaft and rotated by the driving force of the precision unit drive motor. , a precision rotary shaft rotatably fastened to the distal end of the precision rotary frame and with a precision rotary wing formed along the circumference, a foreign matter installed at the distal end of the precision rotary shaft to remove foreign substances from the periphery of the pile. It includes a removal unit, wherein the foreign matter removal unit is formed to extend integrally with the removal unit rotation ball and the removal unit rotation ball fastened to the distal end of the precision unit rotation shaft so as to be rotatable at various angles, and a removal unit groove is formed on the side. A removal part shaft provided, a removal part rotating shaft inserted so as to penetrate the distal end of the removal part shaft and rotatably provided, and a removal part rotating shaft fastened to the removal part rotating shaft so that it can rotate integrally with the removal part rotating shaft to remove foreign substances from the pile. A removal unit head provided for removal, a removal unit spring inserted into the circumference of the removal unit rotation shaft and provided to elastically support the removal unit head, and installed in the removal unit groove at regular intervals to prevent the inflow of removed foreign substances. It includes an inflow prevention unit provided to do so, wherein the inflow prevention unit includes a prevention unit support shaft installed at regular intervals in the removal unit groove, a prevention unit bracket installed at regular intervals on a periphery of the prevention unit support shaft, and each of the prevention units. It includes a prevention unit rotation frame rotatably fastened to a bracket, a prevention member formed on a periphery of the prevention unit rotation frame and provided to prevent foreign matter from entering, and the position guide unit rotates at a distal end of the placement unit rotation frame. A guide part rotating roller that can be fastened, a guide part rotating shaft inserted to penetrate the central part of the guide rotating roller, and a guide member inserted in the peripheral part of the guide rotating shaft to guide the position of the pile so that a guide member is formed on the peripheral part. A guide roller provided, a rotation axis adjustment member installed at the lower end of the guide rotation axis to adjust the position of the guide rotation axis, inserted into the circumference of the guide rotation shaft and disposed on the upper part of the guide rotation roller. It includes a guide unit support roller, a lower end of the guide unit rotation axis, a guide unit fixing member installed on an upper end of the guide unit rotation axis, and a guide unit body installed so that the guide unit fixing member is fixed to the inner upper and lower surfaces, and the pile. In the placement unit, when a pile is seated on the pile seating unit, the rotation axis of the placement unit rotates under control so that the seating precision unit adjusts the seating position, the foreign matter removal unit removes foreign substances around the pile, and the position guide unit moves the pile. It may further include a feature that directs the pile guide portion.

According to the present invention, a search server is provided that collects information on administrative districts and restricted areas for livestock rearing and displays restricted areas for livestock rearing to facilitate search, and is equipped with a stake installation unit networked thereto to display the restricted area. An open source-based livestock breeding restricted area search system is provided.

Efficient information collection and conversion: The system of the present invention collects and converts information about administrative districts and livestock breeding restrictions from various public data sources. This reduces the effort for users to manually search through multiple data sources and extract information.

User-friendly information access: Collected information is stored in a form that users can easily access and search. Users can submit requests through the website or mobile application and easily receive information on livestock farming restrictions that match their requests.

Geographic information visualization: The system of the present invention uses a GIS-based engine to geographically visualize search results. Through this, users can visually identify restricted areas for livestock raising and understand more clearly the possibilities for livestock raising in a specific area.

Guaranteed accuracy and up-to-dateness: The data collection department regularly collects information through the public data API and uses a data verification algorithm to ensure the up-to-dateness and accuracy of the information. This ensures that users always have access to up-to-date and accurate information.

Marking restricted areas for livestock raising: Restricted areas for livestock raising can be physically marked using stakes equipped with GPS sensors. Through this, users can intuitively understand and identify restricted areas for livestock raising.

The effects according to the present invention are not limited to the details exemplified above, and further various effects are included within the present invention.

Figure 1 shows the overall relationship diagram of the open source-based livestock breeding restricted area search system according to the present invention.
Figures 2 to 5 show the overall flow chart of the open source-based livestock breeding restricted area search system according to the present invention.
Figure 6 shows an overall embodiment of the pile installation unit of the open source-based livestock breeding restricted area search system according to the present invention.
Figure 7 shows detailed configurations of the pile placement unit of the open source-based livestock breeding restricted area search system according to the present invention.
Figure 8 shows the detailed configuration of the striking guide unit of the open source-based livestock breeding restricted area search system according to the present invention.

Hereinafter, various embodiments will be described in more detail with reference to the attached drawings. The embodiments described herein may be modified in various ways. Specific embodiments may be depicted in the drawings and described in detail in the detailed description. However, the specific embodiments disclosed in the attached drawings are only intended to facilitate understanding of the various embodiments. Therefore, the technical idea is not limited to the specific embodiments disclosed in the attached drawings, and it should be understood that all equivalents or substitutes included in the spirit and technical scope of the invention are included.

Terms containing ordinal numbers, such as first, second, etc., may be used to describe various components, but these components are not limited by the above-mentioned terms. The above-mentioned terms are used only for the purpose of distinguishing one component from another.

In this specification, terms such as “comprise” or “have” are intended to indicate the presence of features, numbers, steps, operations, components, parts, or combinations thereof described in the specification, but are not intended to indicate the presence of one or more other features. It should be understood that this does not exclude in advance the possibility of the existence or addition of elements, numbers, steps, operations, components, parts, or combinations thereof. When a component is said to be "connected" or "connected" to another component, it is understood that it may be directly connected to or connected to the other component, but that other components may exist in between. It should be. On the other hand, when it is mentioned that a component is “directly connected” or “directly connected” to another component, it should be understood that there are no other components in between.

Meanwhile, a “module” or “unit” for a component used in this specification performs at least one function or operation. And the “module” or “unit” may perform a function or operation by hardware, software, or a combination of hardware and software. Additionally, a plurality of “modules” or a plurality of “units” excluding a “module” or “unit” that must be performed on specific hardware or performed on at least one processor may be integrated into at least one module. Singular expressions include plural expressions unless the context clearly dictates otherwise.

In addition, when describing the present invention, if it is determined that a detailed description of a related known function or configuration may unnecessarily obscure the gist of the present invention, the detailed description thereof is abbreviated or omitted.

Before describing the technical features of the present invention in detail, the task details for creating a topographic map for the livestock breeding restricted area are presented in accordance with the relevant laws as follows.

1. Task regulations

Prepared mutatis mutandis in accordance with the ‘Guidelines for the preparation of topographical maps of regions, districts, etc.’ (Ministry of Land, Infrastructure and Transport Notice No. 2022-274) pursuant to Article 8, Paragraph 7 of the Framework Act on Land Use Regulation and Article 7, Paragraph 10 of the Enforcement Decree of the same Act. notice

2. Detailed task details

go. Location/area linear confirmation

1) Cadastres corresponding to residential buildings through on-site confirmation are extracted from KRAS cadastral records and considered as residential area boundaries.

2) Areas with more than 5 households maintaining a certain distance from the boundary of residential housing are considered dense residential areas.

3) Based on the boundary of the confirmed livestock rearing restriction area, the separation distance by livestock species and size is linearized and the boundary line is overlapped with the continuous cadastral map to include only the parcels within the separation distance as the restricted area. (However, when necessary, a supervisor must be installed. Confirmed after consultation with.)

me. Handling of inconsistencies in data supply and topography, cadastral status, etc.

1) Computerized data registered and operated by KRAS

2) If it is deemed necessary to supplement and secure the completeness of the database, our county's land ledger, building ledger, publicly announced land price ledger, etc. can be provided for use in the task.

3) Boundary joints that can be handled through simple editing among non-conformities such as topography and cadastral status should be handled by the recipient through consultation with the supervisor.

4) In case of non-conformity in topography, cadastral status, etc., which arises due to differences in notification scale, notification type (cadastral/topographical/registered record), timing of notification, interpretation of relevant laws, etc., and a separate notification or administrative adjustment is required, A list of cases is prepared and submitted to the relevant department via the supervisory department, and any adjustments made during the task period are revised and reflected.

all. Guidelines for computerizing topographic maps

1) Common input information

○ In principle, the computerization of topographic maps is carried out in accordance with the provisions of the ‘Guidelines for the preparation of topographic maps of regions, districts, etc.’ (Ministry of Land, Infrastructure and Transport Notification No. 2022-274) (hereinafter referred to as the Guidelines).

○ Using the database registered in the National Land Use Information System, enter geometric and attribute data according to the type, such as topography, cadastral status, and administrative district.

○ If the boundary of the restricted livestock area matches the lot boundary, copy the lot boundary from the cadastral map and enter it.

○ In cases where the boundary of the restricted livestock area passes through the parcel, adjust the parcel boundary of the image data obtained based on the parcel boundary of the cadastral map using the rubber plate technique, then input the boundary of the restricted area for livestock from the adjusted video data. do.

2) Writing procedure

○ Work plan establishment and preparation stage: preparation of implementation plan, selection of data collection target, data request

○ Data collection: Collect drawings, computer files, records/ledgers

○ Data input stage

○ Geometry data input: In the case of a drawing, scanning, geometric correction, and vectorizing are performed. In the case of a computerized file, the data is converted to fit the data format of the National Land Use Information System and the geometry is input according to the topography, cadastral, and administrative district standards.

○ Attribute data input: Enter attribute data for the livestock breeding restriction area, such as designating authority, code, and administrative district code.

○ Inspection and maintenance stage

○ Inspection: Inspection of shapes, properties and production process, preparation of inspection report

○ Data maintenance: Reorganize by deriving logical inconsistencies and inconsistencies between data on restricted livestock breeding areas.

○ Registration and notification stage

○ Registration in the national land use information system: Confirmation and notification of topographic maps, etc., registration of topographic maps, etc. in the national land use information system.

3) Work plan and preparation

○ Work plan and preparation procedures

○ Preparation of work plan → Selection of data collection target → Request for data → Receipt of data → Inspection of data receipt → Data input preparation completed

○ List of basic materials needed to produce topographical maps, etc.

○ Original drawing of livestock breeding restricted area designation

○ Wonsi ledger designating restricted areas for livestock raising

○ National Land Use Information System Database

○ Other reference topics

○ Select input drawing

○ Use drawings with legal effect as input drawings

○ Use large-scale drawings and the most recently produced drawings as input drawings.

○ Use the drawing with the best maintenance and storage status as the input drawing.

○ For the matters presented above and other matters, select a drawing in consultation with the supervisor.

4) Data input procedure

○ Receiving computerized file data → Inspection and classification → Input of records and ledger data → Input of attribute data → Completion of data input

5) Data input method

A) Input of geometric data

○ If the geometric data matches or includes the lot boundary of the livestock breeding restricted area, copy and enter the relevant parcel boundary. If not, the boundary of the livestock breeding restricted area must be entered upon confirmation by the inspector, and the following procedures are followed. Follow.

○ If the geometric data matches the parcel boundary, copy and enter the parcel boundary from the National Land Use Information System. (However, if the cadastral standard graphic data includes the entire boundary of some parcels, enter the relevant parcel boundary as is and enter it in the remaining areas. (Follow the inspector’s confirmation procedures.)

B) Input of records and ledger data

○ If the parcel in the record or ledger includes the entire boundary of the livestock breeding restricted area, the relevant parcel must be entered first and the inspector's confirmation procedure for the area partially included in the parcel must be followed.

c) Input of attribute data

○ After the input of the geometric data is completed, perform structured editing to have a topological structure, then enter the following information for each layer. Comprehensive land information network guidelines are applied, but items can be added according to the characteristics of the livestock breeding restriction zone. there is.

○ Statutory administrative district code/designating authority/designation date/notice date/notice number/livestock breeding restricted area classification code/drawing indication number/remarks

○ Inputting attribute data into the GIS database follows the standards below.

○ The name of the file shall be the legal administrative district code + livestock rearing restriction zone code.

○ Newly created livestock breeding restriction areas must exist as individual SHAPE files.

○ The SHAPE file must include shape information, index information, and attribute information.

○ Attribute values must be composed of individual fields and stored in the dbf file.

○ Inputting attribute data of CAD computer files follows the standards below.

○ The name of the DXF file should be the legal administrative district code + livestock rearing restriction zone code.

○ Newly created livestock breeding restriction areas must be individual DXF layers.

○ One DXF file must contain only one layer for one region or district.

○ DXF file version should be AutoCAD R13 or higher.

Next, the breeding restrictions for each livestock species and size are as shown in the table below.

Next, the following table shows the restricted distance from the boundary of a single-family home.

Figure 1 shows the overall relationship diagram of the open source-based livestock breeding restricted area search system according to the present invention.

Referring to FIG. 1, the open source-based livestock farming restricted area search system may include a search server 10 that collects information on administrative districts and livestock farming restricted areas and provides the information according to user requests.

The search server 10 may include a data collection unit 11, a database unit 12, a search unit 13, a GIS-based engine unit 14, and an algorithm unit 15.

The data collection unit 11 can collect information on administrative districts and livestock breeding restriction areas from a plurality of sources, convert the information, and store it.

The database unit 12 can manage the data collected by the data collection unit 11 and store it in a searchable form.

The search unit 13 can accept the user's search request and search the requested information in the database unit 12.

The GIS-based engine unit 14 can geographically visualize, analyze, and provide information retrieved from the database unit 12 to users.

The algorithm unit 15 can find highly relevant livestock breeding restricted areas in the database unit 12 according to the user's search request.

The data collection unit 11 may regularly collect and update information on administrative districts and restricted livestock breeding areas from a plurality of public data sources.

The search unit 13 can analyze the user's search request and search for information matching the request in the database unit 12.

The GIS-based engine unit 14 can visualize search results geographically and provide them to the user.

The algorithm unit 15 can identify and provide restricted livestock breeding areas that are highly relevant to the user's search request.

The data collection unit 11 regularly collects information on administrative districts and restricted livestock breeding areas through the public data API, and can transmit this to the database unit 12.

The data collection unit 11 may include a data verification algorithm to ensure the up-to-dateness and accuracy of the collected information.

The database unit 12 stores the collected information in a preset format and can transmit the information to the search unit 13 according to a search request.

The search unit 13 may receive a user's request through a website or mobile application, and in response, may search for and return the requested information from the database unit 12.

The search unit 13 may parse the user's search request, create a query based on it, and communicate with the database unit 12.

The GIS-based engine unit 14 can visualize search results in a geographic context and provide them to the user.

The algorithm unit 15 finds restricted areas for livestock raising that are highly related to the user's search request. To this end, it analyzes the user's search request, identifies matching information in the database unit 12, and retrieves the information. It can be provided to the user through the GIS-based engine unit 14.

Figures 2 to 5 show the overall flow chart of the open source-based livestock breeding restricted area search system according to the present invention.

[Example 1]

The data collection unit 11 regularly collects information on administrative districts and livestock breeding restriction areas through the public data API and transmits this to the database unit 12. The data collection unit 11 also includes a data verification algorithm to ensure the up-to-dateness and accuracy of this information.

[Example 2]

The database unit 12 stores the collected information in an appropriate format and transmits this information to the search unit 13 in response to a search request. The database unit 12 also applies methodologies for data management and security.

[Example 2-1]

The “appropriate format” may vary depending on the type and nature of the data. For example, administrative district data may typically be stored in the form of a table containing a unique identifier (ID), district name, boundary coordinates, etc. On the other hand, livestock breeding restricted area data may include information such as the unique identifier of the area, restriction type, restriction start date, and restriction end date. Such data can be stored by applying database design techniques such as normalization and indexing to perform effective queries and determine relevance.

[Example 2-2]

“Methodology” includes several techniques used to manage and secure data. For example, for data management, techniques such as Data Lifecycle Management (DLM) and Data Quality Management (DQM) can be applied. For data security, security practices such as access control, encryption, backup and recovery can be applied. These methodologies contribute to ensuring data integrity, availability, and security, and are essential for providing stable and reliable services to users.

[Example 3]

The search unit 13 receives the user's request through a website, mobile application, etc., and in response, searches for and returns the requested information from the database unit 12. The search unit 13 parses the user's search request, creates an appropriate query based on it, and communicates with the database unit 12.

[Example 4]

The GIS-based engine unit 14 visualizes search results in a geographic context and provides them to the user. This makes search results easier to understand and provides the information requested by the user in connection with the actual geographical situation.

[Example 5]

The algorithm unit 15 serves to find the livestock breeding restricted area most relevant to the user's search request. It analyzes the user's search request, identifies information that best matches it in the database unit 12, and provides this to the user through the GIS-based engine unit 14.

Figure 6 shows an overall embodiment of the pile installation unit of the open source-based livestock breeding restricted area search system according to the present invention.

Referring to FIG. 6, the open source-based livestock breeding restricted area search system may include a stake installation unit 100 for installing a stake equipped with a GPS sensor to indicate a livestock farming restricted area.

The pile installation unit 100 includes a unit support frame 110, a unit base plate 120, a pile seating portion 130, a pile guide portion 140, a pile placement portion 200, a pile striking portion 300, and a striking portion. It may include a guide part 400.

The unit support frame 110 may be provided in a vertical direction at a certain distance from the ground and may be equipped with wheels so that it can move along the ground.

The unit base plate 120 may be installed in a horizontal direction to connect the upper ends of the unit support frames 110 at regular intervals and may be provided with a hole in the center to allow the pile to move.

The pile seating portion 130 may be provided to seat a pile on the central upper part of the unit base plate 120.

The pile guide unit 140 may be installed on the rear portion of the unit base plate 120 to guide the pile seated on the pile seating unit 130 toward the ground.

The pile placement unit 200 may be installed at regular intervals on the upper part of the unit base plate 120 to arrange the pile seated on the pile seating unit 130 toward the pile guide unit 140. there is.

The pile striking unit 300 may be integrally disposed with the pile placement unit 200 on the upper part of the unit base plate 120 and may be provided to strike the pile seated on the pile seating unit 130.

Figure 8 shows the detailed configuration of the striking guide unit of the open source-based livestock breeding restricted area search system according to the present invention.

Referring to FIG. 8, the striking guide unit 400 is installed from the lower portion of the pile guide unit 140 toward the ground and is provided to place the pile struck by the pile striking unit 300 in a vertical direction on the ground. You can.

In addition, the hitting guide unit 400 includes a guide unit housing 410, a rotating ball support unit 420, a guide rotating ball 430, a rotating ball connection shaft 440, a guide cylinder 450, and a frame supporting ring. (460), rotating frame part 470, guide part shaft 480, guide part elastic ball 490, elastic ball support shaft 500, pile support plate 510, elastic ball housing 520, pile fixing part It may include (530).

The guide housing 410 may be installed below the pile guide unit 140 and supported on the ground.

The rotating ball support unit 420 may be installed on the inner upper surface of the guide housing 410.

The guide portion rotating ball 430 may be provided to be rotatably fastened to the rotating ball support portion 420.

The rotating ball connection shaft 440 may be installed vertically below the guide rotating ball 430.

The guide cylinder 450 may be provided to be inserted into the peripheral portion of the rotating ball connection shaft 440.

The frame portion support ring 460 may be provided to be inserted and fixed to the circumference of the guide portion cylinder 450.

The rotating frame unit 470 may be installed to enable piston movement from the inner upper surface of the guide unit housing 410 toward the circumference of the frame unit support ring 460.

The guide shaft 480 may be provided to be insertable in a vertical direction toward the guide portion cylinder 450.

The guide part elastic ball 490 may be made of an elastic material installed at the lower end of the guide part shaft 480.

The elastic ball support shaft 500 may be installed below the guide elastic ball 490.

The pile support plate 510 may be installed horizontally at the lower part of the elastic ball support shaft 500 to support the upper part of the pile.

The elastic ball housing 520 may be installed on the pile support plate 510 to protect the guide elastic ball 490 and the elastic ball support shaft 500.

The pile fixing unit 530 may be installed in the elastic ball housing 520 so that the pile striking unit 300 is provided toward the ground to strike the pile to the ground.

In addition, the pile fixing part 530 includes a fixing part plate 531, a fixing part wire 532, a wire roller 533, a roller rotation shaft 534, a rotating shaft gear 535, a fixing part cylinder 536, and a fixing part. It may include a gear 537 and a fixed shaft 538.

The fixing plate 531 may be provided to be supported and fixed to the upper part of the elastic ball housing 520 in a horizontal direction.

The fixing part wire 532 may be provided so that it can be unwound and wound downward from both sides of the rear part of the fixing part plate 531.

The wire roller 533 may be rotatably provided to unwind and wind the fixing part wire 532.

The roller rotation shaft 534 may be horizontally inserted into one side of the wire roller 533 to rotate the wire roller 533.

The rotation shaft gear 535 may be fastened to the distal end of the roller rotation shaft 534 to rotate the roller rotation shaft 534.

The fixing cylinder 536 has the rotating shaft gear 535 built into its upper portion and can be arranged to be placed on the ground.

The fixed portion gear 537 may be rotatably disposed inside the fixed portion cylinder 536 and may be provided to engage with the rotating shaft gear 535 in a vertical direction.

The fixed shaft 538 is installed downward from the fixed gear 537, rotates integrally with the fixed gear 537, and is inserted into the circumferential portion at regular intervals to enable excavation of the ground. (538a) and a second digging wing (538b) may be provided.

The assembly relationships according to the above configurations and the effects of the embodiments are described in detail based on the drawings as follows.

In the pile installation unit 100, unit support frames 110 are installed in a vertical direction on both sides of the rear surface based on the horizontal unit base plate 120.

Subsequently, the upper part of the pile guide portion 140 is attached to the central portion of the back of the unit base plate 120.

The pile seating portion 130 is attached to the central portion of the upper surface of the unit base plate 120, and the central portion penetrates through the pile seating portion 130 to the striking guide portion 400 to move the pile.

The assembly relationships according to the above configurations and the effects of the embodiments are described in detail based on the drawings as follows.

In the striking guide portion 400, the bottom portion of the pile guide portion 140 is fastened to the upper portion of the guide portion housing 410 in a vertical direction.

The upper end of the rotating ball support unit 420 is installed at the inner upper center of the guide housing 410.

The guide rotating ball 430 is rotatably fastened to the lower end of the rotating ball support unit 420.

The upper end of the rotating ball connection shaft 440 is rotatably fastened to the guide rotating ball 430.

A rotating ball connection shaft 440 is inserted into the upper part of the guide cylinder 450 where the frame support ring 460 is inserted into the peripheral portion.

The pivoting frame portion 470 is fastened to the frame portion support ring 460 toward both sides of the inner upper surface of the guide portion housing 410 to enable piston movement.

The upper part of the guide part shaft 480 is inserted into the lower part of the guide part cylinder 450.

The guide part elastic ball 490 is fastened to the lower end of the guide part shaft 480.

An elastic ball support shaft 500 is installed in a vertical direction on the central upper surface based on the horizontal pile support plate 510 supporting the upper part of the pile, the lower end of the elastic ball housing 520 is installed on the upper surface, and the upper part is installed at the upper end. The fixing plate 531 is installed in a horizontal direction.

Based on the above shape, the guide elastic ball 490 is seated on the upper end of the elastic ball support shaft 500.

In the pile fixing part 530, fixing part wires 532 are fastened to both sides of the lower surface of the fixing part plate 531.

The fixing part shaft 538 is built based on the fixing part cylinder 536 arranged in the vertical direction.

The second digging blades 538b are inserted into the peripheral portion of the fixed shaft 538, and the first digging blades 538a are inserted at regular intervals along the longitudinal direction of the peripheral portion.

The central portion of the fixed gear 537 is inserted into the upper end of the fixed shaft 538.

The roller rotation shaft 534 is inserted to penetrate the side of the fixing cylinder 536 and can move up and down along the longitudinal direction of the fixing cylinder 536.

The central portion of the rotation shaft gear 535 is inserted into one end of the roller rotation shaft 534, is built into the interior of the fixation cylinder 536, and is disposed to engage with the fixation gear 537 in a vertical direction.

The wire roller 533 is rotatably fastened to the other end of the roller rotation shaft 534 so that the fixing part wire 532 can be unwound and wound.

In one embodiment, the pile striking unit 300 may primarily fix the pile mounted on the pile guide unit 140 by striking it toward the ground.

In one embodiment, the roller rotation axis 534 of the striking guide unit 400 is controlled to descend along the longitudinal direction of the fixing part cylinder 536, and the fixing part wire 532 is moved by rotation of the wire roller 533. As it is wound, the fixing plate 531 sequentially presses the elastic ball housing 520 and the pile support plate 510 to lower the pile toward the ground, thereby secondaryly fixing it.

In one embodiment, when the pile fixing position from the ground is not in the vertical direction, the rotating frame unit 470 rotates on the inner upper surface of the guide unit housing 410, and the rotating balls are connected by the guide unit rotating ball 430. The shaft 440 rotates to match the angle of the guide cylinder 450 to the fixing angle of the pile, and the up and down movement of the guide shaft 480 can fix the pile according to the vertical angle from the ground.

In one embodiment, the impact caused by the movement of the guide shaft 480 can be alleviated by the elastic force of the guide portion elastic ball 490, and the elastic ball housing 520 can protect the guide portion elastic ball 490. You can.

In one embodiment, the fixture shaft 538 rotates so that the first digging blade 538a and the second digging blade 538b dig the ground to further secure the fixture cylinder 536 to the ground. can do.

Figure 7 shows detailed configurations of the pile placement unit of the open source-based livestock breeding restricted area search system according to the present invention.

Referring to FIG. 7, the pile placement unit 200 includes a placement unit rotation axis 210, a placement unit connection member 220, a placement unit rotation frame 230, a seating precision unit 240, and a position guide unit 260. It can be included.

The placement unit rotation axis 210 may be installed on the upper part of the unit base plate 120 to be rotatable at regular intervals.

The placement unit connection member 220 may be fastened to the upper end of each placement unit rotation axis 210 and rotate integrally with the placement unit rotation axis 210 .

The placement unit rotation frame 230 may extend to both sides of the placement unit connecting member 220 and rotate integrally with the placement unit connecting member 220 .

The seating precision part 240 may be installed at the distal end of the placement unit rotation frame 230 to adjust the placement of the pile in the pile seating unit 130.

In addition, the seated precision unit 240 includes a precision unit rotation shaft 241, a precision unit housing 242, a precision unit drive motor 243, a motor connecting shaft 244, a precision unit rotation frame 245, and a precision unit rotation shaft. (246) and may include a foreign matter removal unit 250.

The precision unit rotation shaft 241 may be provided to be rotatably fastened to the distal end of the placement unit rotation frame 230.

The precision unit housing 242 may be provided to be fastened to the periphery of the precision unit rotation shaft 241.

The precision unit drive motor 243 may be built into the precision unit rotation shaft 241 to generate driving force.

The motor connecting shaft 244 may be inserted to protrude toward the precision unit driving motor 243 and may be provided to transmit driving force.

The precision unit rotation frame 245 may be fastened to the motor connection shaft 244 and rotated by the driving force of the precision unit drive motor 243.

The precision unit rotation shaft 246 may be rotatably fastened to the distal end of the precision unit rotation frame 245 and may be provided so that precision unit rotation wings 246a are formed along the circumference.

The foreign matter removal unit 250 may be installed at the distal end of the precision rotating shaft 246 to remove foreign substances from the periphery of the pile.

In addition, the foreign matter removal unit 250 includes a removal unit rotating ball 251, a removal unit shaft 252, a removal unit rotation shaft 253, a removal unit head 254, a removal unit spring 255, and an inflow prevention unit ( 256) may be included.

The removal unit rotation ball 251 may be provided to be fastened to the distal end of the precision unit rotation shaft 246 so as to be rotatable at multiple angles.

The removal unit shaft 252 may be formed to extend integrally with the removal unit rotation ball 251, and may be provided with a removal unit groove 252a formed on the side.

The removal part rotation shaft 253 may be inserted so as to penetrate the distal end of the removal part shaft 252 and be rotatable.

The removal unit head 254 is fastened to the removal unit rotation shaft 253 and can be rotated integrally with the removal unit rotation shaft 253 to remove foreign substances from the pile.

The removal unit spring 255 may be inserted into the circumference of the removal unit rotation shaft 253 to elastically support the removal unit head 254.

The inflow prevention portion 256 may be installed at regular intervals in the removal portion groove 252a to prevent the inflow of removed foreign substances.

Additionally, the inflow prevention unit 256 may include a prevention unit support shaft 2561, a prevention unit bracket 2562, a prevention unit rotation frame 2563, and a prevention member 2564.

The prevention portion support shaft 2561 may be installed at regular intervals in the removal portion groove 252a.

The prevention unit bracket 2562 may be installed on the circumference of the prevention unit support shaft 2561 at regular intervals.

The prevention unit rotation frame 2563 may be provided to be rotatably fastened to each of the prevention unit brackets 2562.

The prevention member 2564 may be formed around the prevention unit pivoting frame 2563 to prevent foreign substances from entering.

The position guide unit 260 may be installed at the distal end of the placement unit rotation frame 230 to guide the position of the pile from the pile seating unit 130 to the striking guide unit 400.

In addition, the position guide unit 260 includes a guide unit rotation roller 261, a guide unit rotation axis 262, a guide roller 263, a rotation axis adjustment member 264, a guide unit support roller 265, and a guide unit fixing member ( 266), and may include a guide body 267.

The guide rotation roller 261 may be provided to be rotatably fastened to the distal end of the arrangement rotation frame 230.

The guide rotation shaft 262 may be inserted to penetrate the central portion of the guide rotation roller 261.

The guide roller 263 may be inserted into the peripheral portion of the guide rotation axis 262 so that a guide member 263a is formed on the peripheral portion to guide the position of the pile.

The rotation axis adjustment member 264 may be installed at the lower end of the guide rotation axis 262 to adjust the position of the guide rotation axis 262.

The guide portion support roller 265 may be inserted into the peripheral portion of the guide portion rotation shaft 262 and disposed on an upper portion of the guide portion rotation roller 261.

The guide part fixing member 266 may be installed at the lower end of the guide part rotation axis 262 and the upper end of the guide part rotation axis 262.

The guide part body 267 may be installed so that the guide part fixing member 266 is fixed to the inner upper and lower surfaces.

Subsequently, the pile placement units 200 are installed on both upper sides of the unit base plate 120, and the pile striking unit 300 is rotated toward the pile seating unit 130 at the top of each pile placement unit 200. Possibly installed.

In the pile placement unit 200, a placement unit connection member 220 is installed at the upper end based on the placement unit rotation axis 210 that can be rotated in the vertical direction.

At this time, the placement unit connection member 220 may be inserted into the upper peripheral portion of the placement unit rotation axis 210.

Next, the placement unit rotation frame 230 is formed in a horizontal direction on both sides based on the placement unit connecting member 220.

Subsequently, the seating precision part 240 is installed on one end of the rotation frame 230 of one arrangement part, and the position guide part 260 is installed on one end of the rotation frame 230 of the other arrangement part.

At this time, the other end of one arrangement part rotation frame 230 and the other end of the other arrangement part rotation frame 230 are integrally connected to the arrangement part connecting member 220.

In the seating precision unit 240, the precision unit rotation shaft 241 is rotatably fastened to one end of the placement unit rotation frame 230.

The central portion of the precision unit housing 242 is inserted into the peripheral part of the precision unit rotation axis 241.

At this time, the precision housing 242 may be provided in a 'two' shape with open sides.

One end of the motor connecting shaft 244 protrudes and the other end is inserted based on the precision driving motor 243, and one end of the precision rotating frame 245 is fastened to one end of the motor connecting shaft 244.

At this time, the precision rotation frame 245 is arranged in the horizontal direction with respect to the motor connecting shaft 244.

One end of the precision unit rotation shaft 246 is fastened to the other end of the precision unit rotation frame 245 in a vertical direction.

At this time, a precision rotary blade 246a is protruding and provided around the precision rotary shaft 246 to be wound around the precision rotary shaft 246.

A foreign matter removal unit 250 is installed at the other end of the precision rotating shaft 246.

Next, each precision unit drive motor 243 is built into the precision unit rotation shaft 241 at regular intervals.

In the foreign matter removal unit 250, a removal unit rotation ball 251 is fastened to the other end of each precision unit rotation shaft 246 so as to be rotatable at multiple angles.

One end of the removal unit shaft 252 is formed integrally with the removal unit rotation ball 251 in the horizontal direction.

Removal grooves 252a are formed on both sides of the removal shaft 252, and inflow prevention portions 256 are installed in each removal groove 252a at regular intervals.

The removal unit rotation shaft 253 is inserted so as to penetrate the other end of the removal unit shaft 252.

The removal unit head 254 is rotatably fastened to both circumferences of the removal unit rotation shaft 253, and the removal unit spring 255 is elastically supported and inserted into the central circumference of the removal unit rotation shaft 253. can support the removal head 254.

In the inflow prevention portion 256, a prevention portion support shaft 2561 is installed to protrude into each removal portion groove 252a.

Prevention brackets 2562 are installed on the circumference of the prevention portion support shaft 2561 at regular intervals.

One end of the prevention portion rotation frame 2563 on which the prevention member 2564 is formed on the periphery is rotatably fastened to the prevention portion bracket 2562.

In the position guide unit 260, the guide unit rotation roller 261 is rotatably fastened to one end of the other placement unit rotation frame 230.

At this time, the guide body 267 is installed so that the guide rotation roller 261 is embedded.

Next, the guide rotation shaft 262 is inserted so as to penetrate the central portion of the guide rotation roller 261, and the rotation shaft adjustment member 264 is installed on one end of the guide rotation shaft 262.

At this time, the guide part fixing member 266 is fastened so that the rotation axis adjustment member 264 is fixed to the guide part body 267, and the guide part fixing member 266 is fastened to the other end of the guide part rotation axis 262.

Next, the guide roller 263, in which guide members 263a are formed at regular intervals on the circumference, is inserted into the circumference of the guide rotation shaft 262.

The guide unit support roller 265 is inserted into the peripheral portion of the guide unit rotation shaft 262 and can support the internal components of the guide unit body 267 so that they do not come off.

At this time, the guide member 263a may be in contact with the peripheral portion of the pile.

In one embodiment, a pile may be seated on the pile seating portion 130.

In one embodiment, each placement unit rotation axis 210 rotates under the control of the search server 10 so that the seating precision unit 240 can finely adjust the pile seating position on the pile seating unit 130.

In one embodiment, following the above embodiment, the precision part rotation shaft 241 rotates and the precision part rotation frame 245 rotates due to the dynamics of the precision part drive motor 243, so that the precision part rotary blade 246a is connected to the pile. The pile seating position can be adjusted by precisely rotating it in contact with the circumference.

In one embodiment, following the above embodiment, the foreign matter removal unit 250 may remove foreign matter around the pile.

In one embodiment, while the removal unit rotation ball 251 rotates the removal unit shaft 252, the removal unit head 254 removes foreign substances around the pile, and the rotation of the removal unit rotation shaft 253 and the removal unit spring ( It can rotate flexibly due to the elastic force of 255).

In one embodiment, the prevention portion rotation frame 2563 of the inflow prevention portion 256 is rotated by the prevention portion bracket 2562 to prevent foreign substances removed by the above embodiment from floating, thereby forming the prevention member 2564. Can block foreign substances.

In one embodiment, following the above embodiment, each placement unit rotates so that the position guide unit 260 directs the pile seated on the pile seating unit 130 to the pile guide unit 140.

In one embodiment, the plurality of guide members 263a come into contact with the peripheral portion of the pile seated on the pile seating portion 130, and the guide roller 263 moves up and down along the guide portion rotation axis 262 to guide the pile. It can be directed to section 140.

In one embodiment, for the above embodiment, the rotation axis adjustment member 264 may adjust the height of the guide rotation axis 262 to raise and lower the guide roller 263.

A comprehensive example is as follows.

Transmission of pile installation location from search server 10: After the user searches for information on administrative districts and restricted livestock farming areas and visualizes the information through a GIS-based engine, the search server 10 identifies the restricted livestock farming areas. do. At this time, the algorithm unit 15 finds the most relevant livestock breeding restricted area and provides it to the user. Based on this information, the user determines a location to raise livestock or a location to restrict livestock breeding, and this location information is transmitted to the search server 10. The search server 10 transmits this to the pile installation unit 100, and the pile installation unit 100 installs a pile equipped with a GPS sensor at this location.

Operation of the pile installation unit 100: The pile installation unit 100 installs piles based on location information received from the search server 10. After moving to the designated position using the wheels of the unit support frame 110, a stake is placed in the center of the unit base plate 120. The pile seated on the pile seating unit 130 is arranged to face the ground by the pile guide unit 140 and the pile placement unit 200, and the pile striking unit 300 strikes the pile and installs it on the ground. In this process, the striking guide unit 400 helps the pile to be placed vertically on the ground.

Information return after completion of pile installation: When the pile is successfully installed, the pile with the GPS sensor transmits information about its location to the search server 10. The search server 10 stores the location information in the database unit 12 and delivers it to the user to inform that the stake has been correctly installed in the livestock breeding restricted area.

Although preferred embodiments of the present invention have been shown and described above, the present invention is not limited to the specific embodiments described above, and may be used in the technical field to which the invention pertains without departing from the gist of the invention as claimed in the claims. Of course, various modifications can be made by those skilled in the art, and these modifications should not be understood individually from the technical idea or perspective of the present invention.

Search Server(10)
Data collection unit (11)
Database section (12)
Search section (13)
GIS-based engine unit (14)
Algorithm Department (15)
Piling installation unit (100)
Unit support frame (110)
Unit base plate (120)
Pile seating part (130)
Pile guide part (140)
Pile placement unit (200)
Placement rotation axis (210)
Placement connection member (220)
Placement rotation frame (230)
Seating precision part (240)
Precision rotation axis (241)
Precision housing (242)
Precision drive motor (243)
Motor connection shaft (244)
Precision Rotating Frame (245)
Precision Rotating Shaft (246)
Precision rotary blade (246a)
Foreign matter removal unit (250)
Removal rotating ball (251)
Removal shaft (252)
Removal section groove (252a)
Removal part rotation shaft (253)
Removal head (254)
Removal spring (255)
Inflow prevention unit (256)
Prevention support shaft (2561)
Prevention bracket (2562)
Prevention rotating frame (2563)
Prevention member (2564)
Position guide unit (260)
Guide rotating roller (261)
Guide rotation axis (262)
Guide Roller(263)
Guide member (263a)
Rotation axis adjustment member (264)
Guide support roller (265)
Guide fixing member (266)
Guide body (267)
Pile striking unit (300)
Hitting guide unit (400)
Guide housing (410)
Rotating ball support (420)
Guide rotating ball (430)
Rotating ball connection shaft (440)
Guide cylinder (450)
Frame support ring (460)
Rotating frame part (470)
Guide shaft (480)
Guide elastic ball (490)
Elastic ball support shaft (500)
Pile support plate (510)
Elastic ball housing (520)
Pile fixing unit (530)
Fixing plate (531)
Fixture wire (532)
Wire Roller(533)
Roller rotation shaft (534)
Rotating shaft gear (535)
Fixed cylinder (536)
Stationary gear (537)
Fixed shaft (538)
First digging wing 538a
Second digging wing 538b

Claims (3)

delete delete A stake installation unit for installing stakes equipped with GPS sensors to mark restricted areas for livestock farming;
In the open source-based livestock breeding restricted area search system including,
The pile installation unit,
A unit support frame provided in a vertical direction at a certain distance from the ground and equipped with wheels so as to be movable along the ground;
A unit base plate installed horizontally to connect upper ends of the unit support frames at regular intervals and having a hole in the center so that a pile can move;
A pile seating portion provided to seat a pile on the central upper part of the unit base plate;
A pile guide unit installed on the rear surface of the unit base plate to guide the pile seated on the pile seating unit toward the ground;
A pile placement unit installed on the upper part of the unit base plate at regular intervals to place the pile seated on the pile seating unit toward the pile guide unit;
A pile striking unit disposed integrally with the pile placement unit on the upper part of the unit base plate and provided to strike a pile seated on the pile seating unit;
A striking guide unit installed from the lower part of the pile guide unit toward the ground and provided to place the pile struck by the pile striking unit in a vertical direction on the ground;
Including,
The hitting guide part,
A guide unit housing installed below the pile guide unit and supported on the ground;
a rotating ball support unit installed on the inner upper surface of the guide housing;
a guide rotating ball rotatably fastened to the rotating ball support;
a rotating ball connection shaft installed in a vertical direction below the rotating ball of the guide part;
a guide cylinder inserted into the circumference of the rotating ball connection shaft;
A frame portion support ring inserted and fixed to a peripheral portion of the guide portion cylinder;
a pivoting frame portion installed to enable piston movement from the inner upper surface of the guide portion housing toward a peripheral portion of the frame portion support ring;
a guide shaft provided to be insertable in a vertical direction toward the guide portion cylinder;
A guide part elastic ball made of elastic material installed at the lower end of the guide part shaft;
An elastic ball support shaft installed below the elastic ball of the guide part;
A pile support plate installed horizontally on the lower part of the elastic ball support shaft to support the upper part of the pile;
An elastic ball housing installed on an upper portion of the pile support plate to protect the guide elastic ball and the elastic ball support shaft;
A pile fixing part installed in the elastic ball housing and facing the ground so that the pile hitting part strikes the pile into the ground;
Including,
The pile fixing part,
A fixing plate supported and fixed in a horizontal direction on the upper part of the elastic ball housing;
a fixing part wire fastened to be unwound and wound downward on both sides of the rear part of the fixing part plate;
a wire roller rotatably provided to unwind and wind the fixing part wire;
a roller rotation shaft inserted horizontally into one side of the wire roller to rotate the wire roller;
a rotation shaft gear coupled to a distal end of the roller rotation shaft to rotate the roller rotation shaft;
a fixed portion cylinder in which the rotating shaft gear is built in the upper portion and is disposed on the ground;
a fixed gear rotatably disposed inside the fixed cylinder and engaged with the rotating shaft gear in a vertical direction;
a fixed shaft provided with first and second digging blades that are installed downward from the fixed gear, rotate integrally with the fixed gear, and are inserted into the circumferential portion at regular intervals to enable excavation of the ground;
Including,
The hitting guide part,
After the pile striking unit fixes the pile by striking it toward the ground, the roller rotation axis is lowered along the longitudinal direction of the fixer cylinder by control, and the fixer wire is wound by rotation of the wire roller, and the fixer plate is Lower the pile toward the ground,
An open source-based livestock breeding restricted area search system further comprising a feature in which the fixture shaft rotates so that the first digging blade and the second digging blade excavate the ground, thereby fixing the fixture cylinder to the ground.