CN113762936B - Internet-based hook reclamation field check management method - Google Patents

Internet-based hook reclamation field check management method Download PDF

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CN113762936B
CN113762936B CN202111316756.3A CN202111316756A CN113762936B CN 113762936 B CN113762936 B CN 113762936B CN 202111316756 A CN202111316756 A CN 202111316756A CN 113762936 B CN113762936 B CN 113762936B
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intelligent terminal
reclamation
mobile intelligent
server
checking
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CN113762936A (en
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王亚毛
吴剑
蒋爱华
彭艳鹏
李永刚
曹建华
李峥
穆超
邵泽兴
杨莉
殷家林
谢菲
胡海潮
陈继培
夏宇航
高珅
张高娜
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Hubei Institute Of Land Surveying And Mapping
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Hubei Institute Of Land Surveying And Mapping
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    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q10/00Administration; Management
    • G06Q10/10Office automation; Time management
    • G06Q10/103Workflow collaboration or project management
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q10/00Administration; Management
    • G06Q10/06Resources, workflows, human or project management; Enterprise or organisation planning; Enterprise or organisation modelling
    • G06Q10/063Operations research, analysis or management
    • G06Q10/0631Resource planning, allocation, distributing or scheduling for enterprises or organisations
    • G06Q10/06311Scheduling, planning or task assignment for a person or group
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q50/00Systems or methods specially adapted for specific business sectors, e.g. utilities or tourism
    • G06Q50/02Agriculture; Fishing; Mining
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q50/00Systems or methods specially adapted for specific business sectors, e.g. utilities or tourism
    • G06Q50/10Services
    • G06Q50/16Real estate
    • G06Q50/165Land development

Abstract

The invention is suitable for the technical field of surveying and mapping geographic information systems, and provides an internet-based hook reclamation field check management method, which comprises the following steps: the method comprises the steps of making a work base map and releasing services, distributing checking tasks, preparing checking work, developing field checking and exporting achievements. According to the invention, a set of complete technical processes of reclamation pattern spot check field data acquisition, transmission, internal processing and information management are constructed, so that the efficiency of internal and external workers is effectively improved, the informatization management level is improved, and the trace of the check process and the management decision are realized; the invention has the remarkable effects of convenient carrying, simple operation, complete functions, accurate data acquisition, close coordination between internal and external industries, high efficiency, flexibility and the like.

Description

Internet-based hook reclamation field check management method
Technical Field
The invention belongs to the technical service field of surveying and mapping geographic information systems, and particularly relates to an internet-based hook reclamation field check management method.
Background
Along with economic construction's continuous development, the demand of each industry to the construction land is bigger and bigger, leads to the mole shield of people to be more and more outstanding: on one hand, the demand of the development of various industries on the land is increased, and on the other hand, the cultivated land is protected and the vital interests of farmers are maintained.
The increase and decrease of the hooks are effective ways for exploring and solving the problems, and the starting point is to arrange a large amount of idle construction land in the rural area into cultivated land through measures such as land demolition, land arrangement and reclamation and the like, and to promote comprehensive treatment of the field, water, road and forest in a matching manner, so that the reduction of the construction land in the rural area and the increase of the cultivated land are realized. The area that reduces the rural construction land is "gettered with the area that urban construction land increases," the construction land total amount does not increase, and the arable land area does not reduce and arable land quality grade does not reduce, and urban and rural land overall arrangement is more reasonable, improves the target of urban and rural economic development level. Meanwhile, by increasing or decreasing the hooks, saved land indexes are adjusted to be used in cities and towns, land income is obtained to feed back rural areas, and the problem of 'shortage of capital' in new rural construction can be effectively solved.
The on-site inspection of the hook-increasing and-decreasing reclamation land is mainly to check whether buildings in the land are dismantled or not, whether building rubbish is removed completely or not, whether the cultivated land area in the reclamation land is increased or not, whether the thickness of the cultivated land surface layer of the reclamation land meets the requirement or not, and the inspection result is used as an important basis for issuing the index of the hook by a higher-level executive department. The increase and decrease of the hook reclamation land has the characteristics of large quantity, wide distribution, small area of a single pattern spot and remote position, and brings great pressure to the work of checking and managing the reclamation land.
The existing increase and decrease couple reclamation check mode adopts paper drawing to look over on the spot more, and measuring instrument auxiliary actual measurements such as total powerstation, GPS, unmanned aerial vehicle, the camera cooperation is taken a picture and is collected evidence, and the mode of literal content record is checked and is collected evidence, though can master on-the-spot true condition, still has following drawback:
(1) position determination is inaccurate: by means of on-site checking of paper drawings, a checker cannot visually judge the current position of the checker and needs to have professional image recognizing and identifying capabilities;
(2) the examiner is required to have professional mapping knowledge: the field inspector can perform auxiliary actual measurement on the reclamation field through measuring instruments such as a total station, a GPS, an unmanned aerial vehicle and the like only by having professional surveying and mapping knowledge;
(3) the efficiency is low: the method carries out verification by filling in a paper form, drawing a sketch by hands, carrying a large amount of equipment on site, taking pictures by a camera and the like, and has low verification efficiency;
(4) the information recording is not standardized: the method is characterized in that verification and registration are carried out through modes such as character paper recording, and the like, so that recorded information and font styles cannot be standardized and unified, and the method is convenient to identify;
(5) photographing and obtaining evidence are not strict: because the scene picture shot by the camera can not record the shooting position coordinate and the shooting azimuth angle, the evidence obtaining mode is not strict;
(6) problems cannot be found on site in time: the coordinate data acquired by checking in the reclamation site can only be subjected to data analysis after going home, and problems cannot be found in time on the site;
(7) incoordination between internal and external industries is not tight: because no internal and external coordination mechanism is established, a management department cannot know the specific situation of the site at the first time, the internal and external work coordination is not tight, and the real-time and accurate decision can not be made according to the situation of the site;
(8) the work report is not intuitive: the contents of drawings, photos, coordinate points, character attributes and the like collected and drawn by reclamation check are independent of each other, no incidence relation is established, and the actual situation of each increase and decrease hook reclamation pattern spot cannot be visually and completely displayed when work is reported.
Therefore, an inspection scheme which is convenient to carry, simple to operate, complete in function, accurate in data acquisition and harmonious and compact in internal and external industries plays an important role in improving the inspection efficiency of the increase and decrease hook reclamation site.
Disclosure of Invention
In view of the above problems, the present invention is to provide an internet-based hook reclamation field audit management method, and aims to solve the above technical problems.
The invention adopts the following technical scheme:
the Internet-based hook reclamation site check management method comprises the following steps:
s1, collecting the work base drawings of the drawing data making server and the mobile intelligent terminal required by the hook reclamation field check, and simultaneously publishing the work base drawings of the server and encrypting the work base drawings of the mobile intelligent terminal;
step S2, registering the mobile intelligent terminal and the checking personnel at the server side, distributing the role authority of the checking personnel, authorizing the mobile intelligent terminal and assigning a checking task;
step S3, importing the encrypted working base map on the mobile intelligent terminal, setting a thematic map configuration template as a field check working base map, connecting a positioning device, and acquiring real-time positioning information;
step S4, logging in the mobile intelligent terminal, synchronously receiving the checking task, completing reclamation field data acquisition according to the checking task, and packaging and submitting the final checking acquisition result to the server after the electronic signature is confirmed;
and step S5, the server examines the compliance of site house demolition and land reclamation, the attribute authenticity of land patches in accordance with reclamation and the accuracy of land patches area in emergency inspection according to the inspection and collection results to obtain examination opinions, the examination opinions are synthesized, the internal industry judges the qualification of the reclamation patches, and qualified results are derived according to the regulations.
Further, the step S1 specifically includes:
s11, collecting the data of the electronic drawing of the depreciation and reclamation range line, the administrative area boundary line and the completion measurement drawing in the working area range, uniformly performing coordinate conversion and data format conversion, and making a working base drawing of the server and the mobile intelligent terminal;
s12, adding work base map data of the server in a Geoserver map server of the server, setting a layer style and issuing the work base map;
s13, encrypting the working base map of the mobile intelligent terminal, wherein the encryption process is as follows: and finally, carrying out exclusive OR operation on the encryption key stream and the vector data stream of the work base map byte by byte to finish the encryption of the work base map data file.
Further, the step S2 specifically includes:
s21, setting a user account and a password of a checker at the server, allocating user role authority of the checker, and registering the android ID and the initial registration date of the mobile intelligent terminal for equipment registration;
s22, selecting the registered mobile intelligent terminal, inputting an authorization day variable, combining according to the android ID of the mobile intelligent terminal and the authorization day variable to obtain a character string C, encrypting the character string C to obtain an authorization code, and storing the authorization code;
s23, drawing a task range on the work base diagram issued by the server, selecting a checker, adding task attribute information, producing a checking task and assigning;
further, the step S3 specifically includes:
s31, encapsulating a special communication tunnel for data transmission between the server and the mobile intelligent terminal in the server through a third layer tunnel protocol, and accessing the mobile intelligent terminal to the Internet to be in network connection with the server;
s32, importing the encrypted work base map vector map data into a folder designated by the mobile intelligent terminal, and decrypting the imported processed work map by the mobile intelligent terminal;
s33, respectively setting five global variable parameters including a display sequence, a layer name, a vector map file name, a loading state and a transparency value for the decrypted vector map data in the mobile intelligent terminal, and performing map template configuration;
and S34, starting the Bluetooth pairing of the positioning equipment to establish connection with the intelligent terminal equipment, inputting a cross-source resource sharing CORS account, configuring NTRIP parameters, and acquiring high-precision positioning coordinates in real time.
Further, the step S4 specifically includes:
s41, logging in the mobile intelligent terminal in an online or offline mode, wherein the mobile intelligent terminal needs to log in online for the first use, and performs equipment authorization authentication and work task synchronization;
s42, automatically and synchronously downloading the checking task distributed corresponding to the login account after the online login of the mobile intelligent terminal is successful;
s43, judging the position of the checking site according to the checking task, checking the land reclamation and old demolition householder information, shooting a picture of the land reclamation site for evidence collection, collecting land reclamation plot land reclamation type boundary lines and marking actual land reclamation, after collection, screenshot the collected contents of the land reclamation plot displayed on a screen of the mobile intelligent device, and the checker performs electronic signature confirmation, packages and submits the final checking and collecting results to the server.
Further, in step S41, regarding the online login method, the process is as follows:
according to the set virtual private network, VPN connection is carried out in the mobile intelligent terminal, a server IP address, a user account and a password are input for login, comparison is carried out on the server IP address, the user account and the password with registered user account, the password and android ID, whether the number of days authorized by equipment is expired or not is judged, if the number of days authorized by the user account and the password is consistent and the number of days is not expired, login is successful, and for the first login, an encrypted authorization code and the user account and the password which are set by the server side are synchronously downloaded into a mobile intelligent terminal database;
for the offline login mode, comparing the user account and the password input by login with the user account and the password stored in the local database, decrypting the encrypted authorization code when the comparison is consistent, and judging whether the authorization days of the equipment are expired or not, wherein if the authorization days are not expired, the login is successful.
Further, the step S43 specifically includes the following steps:
s431, displaying the current positioning position and direction on the working base map of the mobile intelligent terminal in real time, assisting field inspectors to quickly identify the current position of the inspectors, and judging the position of the reclaimed land;
s432, checking the reclamation pattern spot attribute, checking whether the names of the old demolded house owners in the attribute are consistent with the names of the actual old demolded houses on site, and modifying the inconsistency according to actual investigation conditions;
s433, shooting panoramic photos reflecting the whole appearance of the reclaimed land, close-range photos reflecting the thickness of a soil layer, and characteristic photos reflecting the cleaning conditions of construction waste and surface soil, wherein at least one photo is adopted for each type, each photo is displayed in a working base map of the mobile intelligent terminal device in a direction-indicating arrow mode, and the shot photos are compressed and stored by adopting a Luban algorithm;
s434, marking in a working base map of a screen of the mobile intelligent terminal device according to the actual situation of a reclamation site, and collecting inflection point coordinates of the inner ground boundary of a reclamation map spot;
s435, zooming the working base image to a proper size in the screen of the mobile intelligent terminal and carrying out screenshot;
s436, receiving an electronic signature drawn by an inspector on the mobile intelligent terminal to obtain a signature picture;
and S437, packaging and arranging the checked and acquired result and the signature picture, encrypting data by adopting a mode of combining symmetric encryption and asymmetric encryption, and finally uploading the encrypted data result to a server for data submission.
Further, in the step S437, packing and sorting, the reclaimed patches are taken as a unit, and the checked acquisition results are compressed and packed in a compressed file form; the packaging and sorting data encryption process is as follows: the mobile intelligent terminal firstly uses a DES algorithm and a randomly generated key Dk to symmetrically encrypt packed and sorted data to obtain encrypted data MA, then uses an RSA algorithm and a public key Rk1 to encrypt the key Dk to obtain Dke, and the MA and Dke are transmitted to the server.
Further, the specific process of step S5 is as follows:
s51, selecting a reclamation checking plot from a server, calling a checking acquisition result of the plot number, displaying the position and direction of a shot photo in the checking acquisition result on a working base diagram of the server by a direction arrow, checking the integrity of field acquisition data, checking whether the photo is clear, whether the shot position meets the requirement, whether the shot content can completely reflect the reclamation plot condition, whether a reclamation field house is completely dismantled, whether construction waste is cleaned up, whether the thickness of a reclamation layer reaches the standard, checking whether a site inflection point and annotation content acquired on the field are consistent with a site boundary and a site name in a completion measurement diagram, obtaining a checking opinion, and judging the qualification of the reclamation result in the industry;
and S52, deriving a qualified result WORD table containing the number of the image spots, the coordinates of the central point, the area of each region, the on-site inspection photo and the personnel signature information for the qualified result by taking the image spots as units.
The invention has the beneficial effects that: the technical scheme of the invention can realize three-terminal cooperation and data transmission of the server, the intelligent mobile terminal and the positioning device, changes the increase and decrease of hook reclamation check acquisition and processing from the traditional multi-form, multi-acquisition device, multi-data source and the like into a digital, visual, intelligent and standardized mode, and effectively improves the efficiency of personnel in and out industries, improves the informatization management level, and realizes that the trace is left in the check process and the management decision has basis by constructing a set of complete technical processes of reclamation pattern spot check field data acquisition, transmission, inner industry processing and information management; the invention has the remarkable effects of convenient carrying, simple operation, complete functions, accurate data acquisition, close coordination between internal and external industries, high efficiency, flexibility and the like.
Drawings
FIG. 1 is a block diagram of a management system provided by an embodiment of the present invention;
fig. 2 is a flowchart of an on-site check management method for increasing and decreasing hook reclamation provided by an embodiment of the invention on the internet.
Detailed Description
In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention is described in further detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.
The method is realized based on a management system formed by the positioning equipment, the server and the mobile intelligent terminal. As shown in fig. 1, the mobile intelligent terminal is in communication connection with both the positioning device and the server. The positioning equipment has the main function of transmitting the acquired position information to the mobile intelligent terminal; the mobile intelligent terminal is provided with a positioning equipment access port and a server access port and is used for navigation positioning, synchronous loading and decryption of working area data, on-site condition check acquisition confirmation, problem remote assistance, position sharing of the mobile intelligent terminal and the like; the server is mainly used for encrypting and publishing work data, is provided with an access port of the mobile intelligent terminal, is used for equipment authentication and data transmission of the mobile intelligent terminal, distributes a checking task, displays a field checking acquisition result, is used for position sharing among workers and communication with a consultation and counts the work completion condition.
Based on the management system, the embodiment provides an increase and decrease hook reclamation field check management method based on the internet, a mobile intelligent terminal is used as an increase and decrease hook reclamation field check acquisition tool to acquire information such as reclamation pattern spot field photos, videos, coordinate points and land attributes, the data acquisition efficiency is improved, coordinate acquisition is assisted by an external positioning device, a server end builds a unified data management and sharing platform, the server end is realized, the intelligent mobile terminal and the positioning device cooperate with three ends of the server end and transmit data, check acquisition and processing are converted from traditional multi-form, multi-acquisition device and multi-data source into a digital, visual, intelligent and standardized mode, and a set of complete technical process system for collection, transmission, internal processing and information management of reclamation pattern spot check field data is constructed.
In order to explain the technical means of the present invention, the following description will be given by way of specific examples.
Fig. 2 shows a flow of an internet-based method for managing the reclamation site of the hooks according to an embodiment of the present invention, and for convenience of description, only the parts related to the embodiment of the present invention are shown.
As shown in fig. 2, the method for on-site audit management of hook reclamation based on internet according to this embodiment includes the following steps:
and step S1, making a work base map and issuing a service. And collecting work base drawings of the increase and decrease hook reclamation site check required drawing data making server and the mobile intelligent terminal, simultaneously publishing the work base drawings of the server, and encrypting the work base drawings of the mobile intelligent terminal.
The method mainly realizes the steps of manufacturing a server and a work base map of the mobile intelligent terminal, issuing the work base map at the server side, and encrypting the work base map of the mobile intelligent terminal. The specific implementation process is as follows:
and S11, making a work base map. Collecting the data of the electronic drawing of the demolishing and reclamation range line, the administrative area boundary line and the completion measurement diagram in the working area range, uniformly performing coordinate conversion and data format conversion, and manufacturing a working base diagram of the server and the mobile intelligent terminal. After the electronic drawing data are collected, the electronic drawing data with different data formats and coordinate systems are converted into SHP format in CGCS2000 coordinate system.
And S12, releasing the server-side work base map. And adding the work base map data of the server in a Geoserver map server of the server, setting a layer style and issuing the work base map. And the service addresses of different layers in the issued work base map are used as global variables for the server to call.
And S13, encrypting the work map of the mobile intelligent terminal. Encrypting a work base map of the mobile intelligent terminal, wherein the encryption process is as follows: and finally, carrying out exclusive OR operation on the encryption key stream and the vector data stream of the work base map byte by byte to finish the encryption of the work base map data file. The specific implementation process of the step is as follows:
step 131: generating an initial key; the server side runs an encryption program, randomly inputs a password character string A as an encrypted password, converts the password character string A into ASCII (American standard code for information interchange) codes corresponding to all characters, and then contracts and arranges the ASCII codes to form a real number F between (0 and 1) as an initial key;
step 132: generating an encryption key stream; using X with initial key F as initial valuek+1=μXk(1-Xk) The algorithm iterates over an initial key F, μ being the prefix of the International System of units, representing one million, where X0= F, generating a random sequence { X) of sufficient lengthkK =0, 1, 2, 3, … … }, for XkStarting from the first non-0 digit after the decimal point, 12 digits are sequentially taken to form long integer data SZkAnd the modulo 255 operation is performed to obtain a [0, 255 ]]Integer data Z betweenkAfter all elements of the random sequence are processed according to the bit-taking method, an integer data sequence { Z is obtainedkK =0, 1, 2, 3, … … } as an encryption key stream;
step 133: carrying out file encryption operation; converting the vector map data file of the working base map into a binary file format, and sequentially taking out byte streams { T }kK =0, 1, 2, 3, … … and encryption key stream { N }kK =0, 1, 2, 3, … …, and exclusive-or operation is performed to generate a ciphertext stream { M } in a scrambled formkK =0, 1, 2, 3, … … }, the encryption of the entire data file is completed.
And step S2, allocating checking tasks. Registering the mobile intelligent terminal and the checking personnel at the server side, simultaneously distributing role authority of the checking personnel, authorizing the mobile intelligent terminal and assigning a checking task.
The specific implementation process is as follows:
and S21, registering the personnel and the equipment. And setting a user account and a password of the checker at the server, distributing user role authority of the checker, registering the android ID and the initial registration date of the mobile intelligent terminal, and performing equipment registration.
And S22, generating the equipment authorization code. Selecting a registered mobile intelligent terminal, inputting an authorization day variable, combining according to the android ID of the mobile intelligent terminal and the authorization day variable to obtain a character string C, encrypting the character string C to obtain an authorization code, and storing the authorization code. Setting an authorization day variable as D (D >0), forming a character string variable B according to the android ID of the mobile intelligent terminal and the authorization day variable D, taking the first two characters in the character string B, reversing the sequence of the first two characters, placing the first two characters behind the last two bits of the character string B to form a new character string C, encrypting the character string C by using a BASE64 coding algorithm to obtain an authorization code G, and storing the generated authorization code G in a database.
And S23, assigning a checking task. And drawing a task range on a work base diagram issued by the server, selecting an inspector, adding task attribute information, producing an inspection task and assigning the inspection task.
And step S3, importing the encrypted working base map on the mobile intelligent terminal, setting a thematic map configuration template as a field check working base map, connecting the positioning device, and acquiring real-time positioning information.
The method mainly comprises the steps of realizing data transmission sharing and work task synchronization of a mobile intelligent terminal and a server by configuring a virtual private network of the server, importing an encrypted work map file on the mobile intelligent terminal, setting a thematic map configuration template as a site checking work base map, connecting positioning equipment and acquiring real-time positioning information. The specific implementation process is as follows:
s31, virtual private network configuration. And a special communication tunnel for data transmission between the server and the mobile intelligent terminal is encapsulated in the server through a third layer tunnel protocol, and the mobile intelligent terminal is accessed to the Internet and is in network connection with the server.
And S32, importing the encrypted work map. And importing the encrypted work base map vector map data into a folder appointed by the mobile intelligent terminal, and decrypting the imported processed work map by the mobile intelligent terminal. Specifically, the mobile intelligent terminal decrypts the imported processing map by adopting the operation steps opposite to the server encryption.
And S33, setting a thematic map template. Respectively setting five global variable parameters including a display sequence, a layer name, a vector map file name, a loading state and a transparency value for the decrypted vector map data in the mobile intelligent terminal, and carrying out map template configuration; the value of the transparency value here ranges between 0 and 1.
And S34, connecting the positioning connection equipment. The method comprises the steps of starting Bluetooth pairing of the positioning equipment to establish connection with the intelligent terminal equipment, inputting a cross-source resource sharing CORS account, configuring NTRIP parameters and acquiring high-precision positioning coordinates in real time.
The specific process is as follows: starting the positioning equipment, connecting WIFI of the positioning equipment with a network hotspot of the mobile intelligent terminal, carrying out Bluetooth pairing with the mobile intelligent terminal equipment, and establishing real-time contact between the equipment; and inputting a CORS account number into the positioning equipment, configuring NTRIP parameters, accessing network differential positioning data, and transmitting positioning coordinates, positioning states and the number of received satellites serving as variables back to the mobile intelligent terminal in real time.
And step S4, developing field check. Logging in the mobile intelligent terminal, synchronously receiving the checking task, finishing reclamation field data acquisition according to the checking task, and packaging and submitting the final checking acquisition result to the server after the electronic signature is confirmed. And the field data acquisition comprises information such as a reclamation field photo, attributes, land types, coordinate points and the like, after the acquisition is finished, field personnel sign and confirm the working result, and finally, the acquisition result is checked, packed and submitted to be transmitted back to the server.
The specific implementation process of the step is as follows:
and S41, logging in by the mobile intelligent terminal user. Logging in the mobile intelligent terminal in an online or offline mode, wherein the mobile intelligent terminal must be logged in online for the first use, and performing equipment authorization authentication and work task synchronization.
The login is divided into an online mode and an offline mode, the system needs to log in online for the first use, the equipment authorization authentication and the work task synchronization are carried out, the offline login can be carried out after the online login is successful, and the work task synchronization and the data result uploading cannot be carried out through the offline login.
For the online login mode, the process is as follows: according to the set virtual private network, VPN connection is carried out in the mobile intelligent terminal, a related APP program is checked in operation, a server IP address, a user account and a password are input for login, an android ID of the mobile intelligent terminal and the user account and the password input in login are used as variables to be transmitted back to the server, the server compares the variables with the registered user account, the password and the android ID, whether the equipment authorization days are overdue or not is judged, the login is successful if the user account and the password are consistent and the days are not authorized to be overdue, the login is failed if the days are overdue, and for the first login, an encrypted authorization code G and the user account and the password set by the server end are synchronously downloaded into a mobile intelligent terminal database.
For the offline login mode, comparing the user account and the password input by login with the user account and the password stored in the local database, decrypting the encrypted authorization code when the comparison is consistent, judging whether the authorization days of the equipment are expired or not, if so, failing to login, and if not, successfully logging in.
And S42, task synchronization. After the on-line login of the mobile intelligent terminal is successful, automatically and synchronously downloading the verification task distributed corresponding to the login account; offline login cannot synchronously download the verification task data.
And S43, checking and collecting on site. Judging the position of the checking site according to the checking task, checking the information of the reclaimed old householder, shooting a picture of the reclamation site for evidence obtaining, collecting the underground boundary of the reclamation land block in combination with the site condition and marking the actual land class, capturing the collected contents of the reclamation land block displayed on a screen of the mobile intelligent device after collection, confirming the electronic signature by a checker, and packaging and submitting the final checking collection result to the server. The specific implementation process of the step is as follows:
s431, field direction judgment: the current positioning position and the direction are displayed on a working base map of the mobile intelligent terminal in real time, and the field inspector is assisted to quickly identify the current position of the field inspector and judge the position of the reclamation land.
S432, old user master information dismantling checking: and checking the reclamation pattern spot attribute, checking whether the names of the old demolished householders in the attribute are consistent with the names of the actual old demolished householders on site, and modifying the inconsistency according to the actual investigation condition.
S433, evidence-demonstrating photo collection: the method comprises the steps of shooting a panoramic photo reflecting the overall appearance of a reclaimed land block, a close-range photo reflecting the thickness of a soil layer, and a characteristic photo reflecting the cleaning condition of construction waste and surface soil, wherein at least one photo is of each type, each photo is displayed in a working base map of the mobile intelligent terminal device in a direction-indicating arrow mode, and the shot photos are compressed and stored by adopting a Luban algorithm.
All photos are when shooting, the exposure degree should be noticed, light can not be too strong, can not take light, wherein the location coordinate warp and weft value that will automatic record passback when the photo is shot and the angle value of the direction sensor of mobile intelligent terminal equipment, and show in the work base map of mobile intelligent terminal equipment with the mode of showing to the arrow, verify the shooting rationality of proving the photo with this, and adopt Luban's algorithm to compress the storage to the photo of shooting, when guaranteeing the photo definition, reduce photo storage capacity, promote the speed that mobile intelligent terminal transmitted the verification photo to the server side.
S434, land marking and boundary line collection: according to the actual situation of the reclamation site, marking is carried out in a working base map of a screen of the mobile intelligent terminal device, and inflection point coordinates of the ground boundary in the reclamation map spot are collected.
According to the actual condition of a reclamation site, selecting a corresponding land type name from the data dictionary, clicking a screen of the mobile intelligent terminal device to label on the working base map, and acquiring inflection point coordinates of a land type boundary in a reclamation map spot according to the actual condition of the reclamation site, wherein the coordinate data value is derived from the returned positioning coordinate value.
S435, screenshot: and zooming the working base map to a proper size in the screen of the mobile intelligent terminal for screenshot.
After the operation of the land marking and the boundary line acquisition is finished, zooming the working map to a proper size (the acquired content can be completely and clearly displayed) in the screen of the mobile intelligent terminal, and calling a screen capture interface of the android system to capture the image.
S436, field signature: and receiving the electronic signature drawn by the checker on the mobile intelligent terminal to obtain a signature picture.
And (4) signing on the mobile intelligent terminal equipment by the checker, and compressing and storing the signature result in a picture mode.
S437, result submission. And packaging and arranging the checked and acquired result and the signature picture, encrypting data by adopting a mode of combining symmetric encryption and asymmetric encryption, and finally uploading the encrypted data result to a server for data submission.
The packing and sorting is realized by taking the reclamation pattern spots as a unit and carrying out compression and packing on the checked acquisition results in a compressed file form; the packaging and sorting data encryption process is as follows: the mobile intelligent terminal firstly uses a DES algorithm and a randomly generated key Dk to symmetrically encrypt packed and sorted data to obtain encrypted data MA, then uses an RSA algorithm and a public key Rk1 to encrypt the key Dk to obtain Dke, and the MA and Dke are transmitted to the server. The server firstly decrypts Dke by using an RSA algorithm and a private key Rk2 (stored in the server side in advance) to obtain a symmetric key Dk, then decrypts the MA by using a DES algorithm and the symmetric key Dk, and finally obtains a decrypted checking acquisition result. The server decrypts Dke by using an RSA algorithm and a private key Rk2 (stored in the server side in advance) to obtain a symmetric key Dk, decrypts the MA by using a DES algorithm and the symmetric key Dk, and finally obtains a decrypted checking acquisition result.
Step S5, result auditing and exporting: and the server examines the conformity of site house demolition and land reclamation, the authenticity of the attributes of the land patches conforming to reclamation and the accuracy of the areas of the land patches in emergency inspection according to the inspection acquisition results to obtain examination opinions, synthesizes the examination opinions, judges the qualification of the land patches in the interior industry, and derives qualified results according to the regulations.
S51, judging the internal qualification: selecting a reclamation checking land parcel in a server, calling a checking acquisition result of a land parcel number, displaying the position and the direction of a shot photo in the checking acquisition result on a working base diagram of the server by a direction arrow, checking the integrity of field acquisition data, checking whether the photo is clear, whether the shot position meets the requirement, whether shot content can completely reflect the reclamation land parcel condition, whether a reclamation field house is completely dismantled, whether construction waste is cleaned up, whether the thickness of a reclamation layer reaches the standard, checking whether a ground inflection point and annotation content collected on the field are consistent with a ground boundary and a ground name in a completion measuring diagram, obtaining a checking opinion, and judging the qualification of a reclamation result by internal industry;
s52, outcome derivation: and for the qualified results, deriving a qualified result WORD table containing the number of the image spots, the coordinates of the central point, the area of each region, the on-site check photo and the personnel signature information by taking the image spots as units.
In conclusion, the invention provides an internet-based method for examining and managing an increase and decrease hook reclamation site, which is characterized in that a mobile intelligent terminal is used as an examination and acquisition tool for examining and acquiring the increase and decrease hook reclamation site, the information of reclamation spot site photos, videos, coordinate points, land attributes and the like is acquired, the data acquisition efficiency is improved, the server end is used for building a unified data management and sharing platform by means of auxiliary coordinate acquisition of an external positioning device, the cooperation and data transmission of the server end, the intelligent mobile terminal and the positioning device are realized, the examination acquisition and processing are converted from the traditional multi-form, multi-acquisition device, multi-data source and the like into a digital, visual, intelligent and standardized mode, and a set of complete technical process system for examining the collection, transmission, internal processing and information management of reclamation spots and the field work is built.
The above description is only for the purpose of illustrating the preferred embodiments of the present invention and is not to be construed as limiting the invention, and any modifications, equivalents and improvements made within the spirit and principle of the present invention are intended to be included within the scope of the present invention.

Claims (4)

1. An internet-based hook reclamation field check management method is characterized by comprising the following steps:
s1, collecting the work base drawings of the drawing data making server and the mobile intelligent terminal required by the hook reclamation field check, and simultaneously publishing the work base drawings of the server and encrypting the work base drawings of the mobile intelligent terminal;
step S2, registering the mobile intelligent terminal and the checking personnel at the server side, distributing the role authority of the checking personnel, authorizing the mobile intelligent terminal and assigning a checking task;
step S3, importing the encrypted working base map on the mobile intelligent terminal, setting a thematic map configuration template as a field check working base map, connecting a positioning device, and acquiring real-time positioning information;
step S4, logging in the mobile intelligent terminal, synchronously receiving the checking task, completing reclamation field data acquisition according to the checking task, and packaging and submitting the final checking acquisition result to the server after the electronic signature is confirmed;
step S5, the server examines the compliance of site house demolition and land reclamation, the attribute authenticity of land classes conforming to reclamation map patches and the accuracy of the area of the land classes of the inspection map patches according to the inspection acquisition results to obtain examination opinions, the examination opinions are integrated, the qualification of the reclamation map patches is judged by internal industry, and qualified results are derived according to the regulations;
wherein the step S1 specifically includes:
s11, collecting the data of the electronic drawing of the depreciation and reclamation range line, the administrative area boundary line and the completion measurement drawing in the working area range, uniformly performing coordinate conversion and data format conversion, and making a working base drawing of the server and the mobile intelligent terminal;
s12, adding work base map data of the server in a Geoserver map server of the server, setting a layer style and issuing the work base map;
s13, encrypting the working base map of the mobile intelligent terminal, wherein the encryption process is as follows: generating an initial key, mapping the initial key into an encryption key stream through a random sequence, and finally performing exclusive OR operation on the encryption key stream and a vector data stream of the work base map byte by byte to finish the encryption of the work base map data file;
wherein the step S2 specifically includes:
s21, setting a user account and a password of a checker at the server, allocating user role authority of the checker, and registering the android ID and the initial registration date of the mobile intelligent terminal for equipment registration;
s22, selecting the registered mobile intelligent terminal, inputting an authorization day variable, combining according to the android ID of the mobile intelligent terminal and the authorization day variable to obtain a character string C, encrypting the character string C to obtain an authorization code, and storing the authorization code;
s23, drawing a task range on the work base diagram issued by the server, selecting a checker, adding task attribute information, producing a checking task and assigning;
wherein the step S3 specifically includes:
s31, encapsulating a special communication tunnel for data transmission between the server and the mobile intelligent terminal in the server through a third layer tunnel protocol, and accessing the mobile intelligent terminal to the Internet to be in network connection with the server;
s32, importing the encrypted work base map vector map data into a folder designated by the mobile intelligent terminal, and decrypting the imported work base map by the mobile intelligent terminal;
s33, respectively setting five global variable parameters including a display sequence, a layer name, a vector map file name, a loading state and a transparency value for the decrypted vector map data in the mobile intelligent terminal, and performing map template configuration;
s34, starting the Bluetooth pairing of the positioning equipment to establish connection with the intelligent terminal equipment, inputting a cross-source resource sharing CORS account, configuring NTRIP parameters, and acquiring high-precision positioning coordinates in real time;
wherein the step S4 specifically includes:
s41, logging in the mobile intelligent terminal in an online or offline mode, wherein the mobile intelligent terminal needs to log in online for the first use, and performs equipment authorization authentication and work task synchronization;
s42, automatically and synchronously downloading the checking task distributed corresponding to the login account after the online login of the mobile intelligent terminal is successful;
s43, judging the position of the checking site according to the checking task, checking the old land reclamation owner information, shooting a picture of the land reclamation site for evidence collection, collecting land reclamation type boundaries in a land reclamation land block in combination with the field condition and marking actual land reclamation, capturing the collected contents of the land reclamation land block displayed on a screen of a mobile intelligent device after collection is completed, carrying out electronic signature confirmation by a checker, and packaging and submitting final checking collection results to a server;
the specific process of step S5 is as follows:
s51, selecting a reclamation checking plot from a server, calling a checking acquisition result of the plot number, displaying the position and direction of a shot photo in the checking acquisition result on a working base diagram of the server by a direction arrow, checking the integrity of field acquisition data, checking whether the photo is clear, whether the shot position meets the requirement, whether the shot content can completely reflect the reclamation plot condition, whether a reclamation field house is completely dismantled, whether construction waste is cleaned up, whether the thickness of a reclamation layer reaches the standard, checking whether a site inflection point and annotation content acquired on the field are consistent with a site boundary and a site name in a completion measurement diagram, obtaining a checking opinion, and judging the qualification of the reclamation result in the industry;
and S52, deriving a qualified result WORD table containing the number of the image spots, the coordinates of the central point, the area of each region, the on-site inspection photo and the personnel signature information for the qualified result by taking the image spots as units.
2. The internet-based hook reclamation on-site audit management method of claim 1, wherein in step S41, for the on-line login method, the process is as follows:
according to the set virtual private network, VPN connection is carried out in the mobile intelligent terminal, a server IP address, a user account and a password are input for login, comparison is carried out on the server IP address, the user account and the password with registered user account, the password and android ID, whether the number of days authorized by equipment is expired or not is judged, if the number of days authorized by the user account and the password is consistent and the number of days is not expired, login is successful, and for the first login, an encrypted authorization code and the user account and the password which are set by the server side are synchronously downloaded into a mobile intelligent terminal database;
for the offline login mode, comparing the user account and the password input by login with the user account and the password stored in the local database, decrypting the encrypted authorization code when the comparison is consistent, and judging whether the authorization days of the equipment are expired or not, wherein if the authorization days are not expired, the login is successful.
3. The internet-based hook reclamation on-site audit management method of claim 2, wherein the step S43 is as follows:
s431, displaying the current positioning position and direction on the working base map of the mobile intelligent terminal in real time, assisting field inspectors to quickly identify the current position of the inspectors, and judging the position of the reclaimed land;
s432, checking the reclamation pattern spot attribute, checking whether the names of the old demolded house owners in the attribute are consistent with the names of the actual old demolded houses on site, and modifying the inconsistency according to actual investigation conditions;
s433, shooting panoramic photos reflecting the whole appearance of the reclaimed land, close-range photos reflecting the thickness of a soil layer, and characteristic photos reflecting the cleaning conditions of construction waste and surface soil, wherein at least one photo is adopted for each type, each photo is displayed in a working base map of the mobile intelligent terminal device in a direction-indicating arrow mode, and the shot photos are compressed and stored by adopting a Luban algorithm;
s434, marking in a working base map of a screen of the mobile intelligent terminal device according to the actual situation of a reclamation site, and collecting inflection point coordinates of the inner ground boundary of a reclamation map spot;
s435, zooming the working base image to a proper size in the screen of the mobile intelligent terminal and carrying out screenshot;
s436, receiving an electronic signature drawn by an inspector on the mobile intelligent terminal to obtain a signature picture;
and S437, packaging and arranging the checked and acquired result and the signature picture, encrypting data by adopting a mode of combining symmetric encryption and asymmetric encryption, and finally uploading the encrypted data result to a server for data submission.
4. The Internet-based hook reclamation field audit management method according to claim 3, wherein the packing and sorting in step S437 is to compress and pack the checked acquisition results in the form of compressed files in a reclamation chart spot unit; the packaging and sorting data encryption process is as follows: the mobile intelligent terminal firstly uses a DES algorithm and a randomly generated key Dk to symmetrically encrypt packed and sorted data to obtain encrypted data MA, then uses an RSA algorithm and a public key Rk1 to encrypt the key Dk to obtain Dke, and the MA and Dke are transmitted to the server.
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