CN112231370B - WebGis-based mine data visualization system and method - Google Patents
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Abstract
The invention discloses a WebGis-based mine data visualization system and a WebGis-based mine data visualization method, wherein the mine data visualization system comprises a data module, a detail display module, a statistical information display module, a comparison information display module, an evaluation result display module and a historical curve display module, the data module is used for collecting data, storing the data and transmitting the data, the detail display module is used for displaying spatial data and attribute data of a mine, and the statistical information display module is used for counting data conditions input by a client to obtain a data result summarized by statistics.
Description
Technical Field
The invention relates to the field of mine display, in particular to a WebGis-based mine data visualization system and a WebGis-based mine data visualization method.
Background
The existing mine display system is generally based on the Internet of things and the Internet to acquire mine geological environment data, the traditional method is to adopt tables and graphs to display the data, the information amount is large, the relation between the data is not visual, a large amount of manpower and material resources are needed, the data are not flexible in the display process, the traditional manual operation is adopted, the efficiency is low, mistakes are easily made, a large amount of manpower resources are wasted, the data are not easy to query, and the overall layout and the overall arrangement of the mine geological environment improvement work are not facilitated.
Disclosure of Invention
The invention aims to provide a WebGis-based mine data visualization system and a WebGis-based mine data visualization method, so as to solve the problems in the prior art.
In order to achieve the purpose, the invention provides the following technical scheme:
a WebGis-based mine data visualization system comprises a data module, a detail display module, a statistical information display module, a comparison information display module, an evaluation result display module and a historical curve display module, wherein the data module is used for collecting data, storing the data, transmitting the data and processing the data, the detail display module is used for carrying out detail display on the aspects of space and attributes of a mine clicked by a user, the statistical information display module is used for counting condition data selected by the user and rendering the result data to a user side browser in a visual mode, the comparison information display module is used for comparing different types of data input by the user and rendering the compared result data to the user side browser in a visual mode, the evaluation result display module is used for recording the evaluation data input by the user and displaying high-accuracy evaluation values to the user side browser in combination with an attribute data unit, the historical curve display unit is used for rendering mine icons which change in historical data and processing the historical data clicked by the user visually, and the historical data clicked by the user side is rendered to the mine browser in a user side mode.
Preferably, the data module comprises a data acquisition unit, a data storage unit, a data processing unit and a data transmission unit, the data acquisition unit is used for acquiring the shp file, cleaning and acquiring data information, the data acquisition unit belongs to the management server, the data storage unit is used for storing data, the data storage unit belongs to the database server, the data processing unit is used for processing data needing further calculation and obtaining a result, the data processing unit belongs to the management server, the data transmission unit is used for responding to a read command, transmitting the stored data to a reader, responding to a write command, storing the transmitted data to the writer, the data transmission unit belongs to the management server, the detail display module comprises a spatial data unit and an attribute data unit, the system comprises a spatial data unit, an attribute data unit, a statistical information display module, a condition judgment unit and a result rendering unit, wherein the spatial data unit is used for displaying the specific position, the altitude, the longitude and latitude and the scale of a mine, the attribute data unit is used for displaying the name, the serial number, the ore detail, the ore proportion, the productivity, the recovery rate, the service life, the ore price, the traffic position and the construction condition of the mine, the spatial data unit and the attribute data unit belong to a WebGis server, the statistical information display module comprises a condition judgment unit and a result rendering unit, the condition judgment unit is used for comparing the combined condition data input by a user with the data in a data storage unit one by one to judge whether the combined condition data are equal or not and outputting the equal data, the result rendering unit is used for rendering the result to a user-side browser by combining the data output by the condition judgment unit, the condition judgment unit and the result rendering unit belong to the WebGis server, and the comparison information display module comprises a comparison statistical unit, the system comprises a comparison result unit, a comparison statistical unit and an evaluation result unit, wherein the comparison statistical unit is used for recording different types of data input by a user, the comparison statistical unit is used for combining the data in the data storage unit to obtain the proportion of the different types of data in a total data storage unit, the comparison result unit is used for displaying the result on a user side browser, the evaluation result display module comprises an evaluation statistical unit and an evaluation result unit, the evaluation statistical unit is used for recording the evaluation data input by the user, processing all the evaluation data by combining an attribute data unit to obtain evaluation data with high accuracy, the evaluation result unit is used for displaying the evaluation data processed by the evaluation statistical unit to the user side browser, the evaluation statistical unit and the evaluation result unit belong to a WebGis server, the history curve display module comprises a change rendering unit and a history curve unit, the change rendering unit is used for reading and recording the data in the detail display unit, the mine with the data change is subjected to icon style change rendering, the color saturation of the mine with the data change is changed, and the history curve unit is used for displaying the data in the user side browser in a history curve manner.
A WebGis-based mine data visualization method comprises the following steps:
step S1: the management server collects data, the collected data are transmitted to the database server after being processed, the database server stores the data, and the step S2 is switched;
step S2: a user clicks a mine icon, the spatial data unit and the attribute data unit send a reading command to the data storage unit through the data transmission unit, the data transmission unit transmits corresponding spatial data and attribute data to the spatial data unit and the attribute data unit, and then the spatial data and the attribute data are displayed on a user browser, and the step S3 is executed;
and step S3: inputting various condition data by a user, transmitting the condition data to the data storage unit through the data transmission unit, comparing the condition data with the data storage unit one by one to obtain a result, rendering and displaying the result on a user browser through the result rendering unit, and turning to the step S4;
and step S4: inputting different types of data by a user, storing the data into a data storage unit through a data transmission unit, processing the data by a comparison statistical unit and the data storage unit to obtain a statistical data result, displaying the statistical data result on a user side browser through the comparison result unit, and turning to the step S5;
step S5: the user clicks the evaluation icon, the evaluation data is input, the data is stored in the data storage unit through the data transmission unit, the statistical evaluation data result is obtained through the processing of the evaluation statistical unit and the attribute data unit, the evaluation result unit displays the statistical evaluation data result on the browser of the user side, and the step S6 is executed;
step S6: the management server collects data, when the data of the same space data are updated, the change rendering unit changes the corresponding icon color, the user clicks the corresponding icon, and the historical curve unit displays the historical curve on the browser of the user side.
Preferably, the step S1 further includes:
step S11: the management server collects the shp files and obtains the column names of the shp files;
step S12: acquiring the content of the shp appointed column name file;
step S13: compiling different functions to convert corresponding number into Chinese;
step S14: and transmitting and storing the data converted into Chinese to a database server.
Preferably, the step S2 further includes:
step S21: setting the mine as a point by using a class library package, and displaying the point on a page map according to the longitude and latitude of the mine;
step S22: setting an icon style displayed on a webpage of the mine according to the attribute data and the mine category of the mine;
step S23: and clicking a mine icon on a webpage to display the name, the number, the ore type details, the ore type proportion, the productivity, the recovery rate, the service life, the ore type price, the traffic position and the construction condition of the mine.
Preferably, the step S3 further includes:
step S31: the WebGis server transmits the query conditions selected by the user to the management server by using an asynchronous webpage development technical method;
step S32: and the management server inquires a database server for storing mine data according to corresponding conditions, returns the data to the WebGis server when the data are equal, and renders and displays the data on a user browser through a result rendering unit.
Preferably, the step S4 further includes:
step S41: the user inputs mine data of different types, the WebGis server transmits the data to the management server, and the management server performs overall information statistics by combining with the database server;
step S42: and the WebGis server transmits the result to the comparison and statistics unit through the open source visual library, so that the result is displayed on the browser at the user side.
Preferably, in the steps S5 to S6, the total sum of the manual evaluation values recorded by the evaluation statistical unit is P, the total number of times of manual evaluation recorded by the evaluation statistical unit is N, the evaluation statistical unit obtains the size of the mine by using the spatial data unit as G, the evaluation statistical unit obtains the mine detail value of the mine as M, the mine capacity as C, the mine recovery rate as H, the mine service life as Y, the mine traffic location value as X, and the construction condition value as S by using the attribute data unit, and the change rendering unit records the attribute data update time as R by combining the attribute data unit;
according to the formula:
M=(J1*K1+J2*K2+J3*K3+...+Jn*Kn)*m;
wherein M represents the ore type detail value degree of the mine, J1-Jn is the current price of the belonged ore type, K1-Kn is the ratio of the belonged ore type, and M represents the ore type detail value degree coefficient of the mine;
according to the formula:
X=(M1/L1+M2/L2+M3/L3+M4/L4+...+Mn/Ln)*x;
wherein X represents the value degree of the traffic position of the mine, M1-Mn are the value degrees of the traffic position nodes of the transportation wharf, MA is the value degree of the traffic position nodes of the transportation railway station, MB is the value degree of the traffic position nodes of the high-speed toll station, MC is the value degree of the nodes of other traffic positions, MD is the shortest distance from the mine to each traffic node, and X represents the value degree coefficient of the traffic position of the mine;
according to the formula:
S=(Q1/L1+Q2/L2+Q3/L3+Q4/L4+...+Qn/Ln)*s;
wherein S represents the value degree of the construction condition of the mine, Q1-Qn is the value degree of site nodes, the value degree of industrial site nodes is QA, the value degree of barren site nodes is QB, the value degree of earth discharge site nodes is QC, the value degrees of other site nodes are QD, L1-Ln is the shortest distance from the mine to each site node, and S is the value degree coefficient of the construction condition of the mine;
according to the formula:
wherein A represents the average numerical value degree of the mine artificial evaluation, and a represents the average numerical value degree coefficient of the mine artificial evaluation;
according to the formula:
B=G*M*C*H*Y*X*S*b;
wherein B represents the value degree of the total mine value, and B represents the value degree coefficient of the total mine value;
in step S5, the numerical value Z of the mine total evaluation is:
Z=(B+A)*z;
wherein z represents a coefficient of a mine total evaluation value;
in step S6, the mine icon change color saturation T is:
T=T0+R*t;
wherein, T0 represents the saturation of the basic color without changing the attribute data, R represents the updating times of the attribute data recorded by the change rendering unit in combination with the attribute data unit, and T represents the updating times coefficient.
Compared with the prior art, the invention has the beneficial effects that: the method can realize visual display of mine data, combines spatial data and attribute data for display by using WebGis, performs various business operations based on a map, can facilitate a user to obtain multidimensional information, provides greater value for decision support, and realizes display, detail display, historical curve display and evaluation result display of various statistical information.
Drawings
FIG. 1 is a schematic block diagram of a WebGis-based mine data visualization system according to the present invention;
FIG. 2 is a schematic flow chart of the WebGis-based mine data visualization method.
Detailed Description
The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
Referring to fig. 1 to 2, in an embodiment of the present invention, a WebGis-based mine data visualization system includes a data module, a detail display module, a statistical information display module, a comparison information display module, an evaluation result display module, and a history curve display module, and is characterized in that: the data module is used for collecting data, storing data, transmitting data and processing data, the detail display module is used for displaying the details of the space aspect and the attribute aspect of a mine clicked by a user, the statistical information display module is used for counting condition data selected by the user and rendering result data to a user side browser in a visual mode, the comparison information display module is used for comparing different types of data input by the user and rendering the comparison result data to the user side browser in a visual mode, the evaluation result display module is used for recording evaluation data input by the user and displaying a high-accuracy evaluation value to the user side browser by combining with the attribute data unit, the history curve display unit is used for rendering an icon mine distinguishing the change of history data, processing the mine history data clicked by the user and rendering the mine history data to the user side browser in a visual mode.
The data module comprises a data acquisition unit, a data storage unit, a data processing unit and a data transmission unit, wherein the data acquisition unit is used for acquiring an shp file, cleaning the shp file and acquiring data information, the data acquisition unit belongs to a management server, the data storage unit is used for storing data, the data storage unit belongs to a database server, the data processing unit is used for processing data needing further calculation and obtaining a result, the data processing unit belongs to the management server, the data transmission unit is used for responding to a reading command, transmitting the stored data to a reading party, responding to a writing command, storing the transmitted data to a writing party, the data transmission unit belongs to the management server, the detail display module comprises a space data unit and an attribute data unit, the spatial data unit is used for displaying specific positions, altitude, longitude and latitude and scale of mines, the attribute data unit is used for displaying names, numbers, mine type details, capacity, recovery rate, service life, mine type price, traffic positions and construction conditions of the mines, the spatial data unit and the attribute data unit belong to a WebGis server, the statistical information display module comprises a condition judgment unit and a result rendering unit, the condition judgment unit is used for comparing combined condition data input by a user with data in the data storage unit one by one to judge whether the combined condition data are equal or not and output equal data, the result rendering unit is used for rendering results to a user-side browser by combining the data output by the condition judgment unit, the condition judgment unit and the result rendering unit belong to the WebGis server, and the comparative information display module comprises a comparative statistical unit, the system comprises a comparison result unit, a comparison statistical unit and an evaluation result unit, wherein the comparison statistical unit is used for recording different types of data input by a user, the comparison statistical unit is used for combining the data in the data storage unit to obtain the proportion of the different types of data in a total data storage unit, the comparison result unit is used for displaying the result on a user side browser, the evaluation result display module comprises an evaluation statistical unit and an evaluation result unit, the evaluation statistical unit is used for recording the evaluation data input by the user, processing all the evaluation data by combining an attribute data unit to obtain evaluation data with high accuracy, the evaluation result unit is used for displaying the evaluation data processed by the evaluation statistical unit to the user side browser, the evaluation statistical unit and the evaluation result unit belong to a WebGis server, the history curve display module comprises a change rendering unit and a history curve unit, the change rendering unit is used for reading and recording the data in the detail display unit, the mine with the data change is subjected to icon style change rendering, the color saturation of the mine with the data change is changed, and the history curve unit is used for displaying the data in the user side browser in a history curve manner.
A WebGis-based mine data visualization method comprises the following steps:
step S1: the management server collects data, the collected data are transmitted to the database server after being processed, the database server stores the data, and the step S2 is switched;
step S2: a user clicks a mine icon, the spatial data unit and the attribute data unit send a reading command to the data storage unit through the data transmission unit, the data transmission unit transmits corresponding spatial data and attribute data to the spatial data unit and the attribute data unit, and then the spatial data and the attribute data are displayed on a user browser, and the step S3 is executed;
and step S3: inputting various condition data by a user, transmitting the condition data to the data storage unit through the data transmission unit, comparing the condition data with the data storage unit one by one to obtain a result, rendering and displaying the result on a user browser through the result rendering unit, and turning to the step S4;
and step S4: inputting different types of data by a user, storing the data into a data storage unit through a data transmission unit, processing the data by a comparison statistical unit and the data storage unit to obtain a statistical data result, displaying the statistical data result on a user browser through the comparison result unit, and turning to the step S5;
step S5: the user clicks the evaluation icon, the evaluation data is input, the data is stored in the data storage unit through the data transmission unit, the statistical evaluation data result is obtained through the processing of the evaluation statistical unit and the attribute data unit, the evaluation result unit displays the statistical evaluation data result on the browser of the user side, and the step S6 is executed;
step S6: the management server collects data, when the data of the same space data are updated, the change rendering unit changes the corresponding icon color, the user clicks the corresponding icon, and the historical curve unit displays the historical curve on the browser of the user side.
The step S1 further includes:
step S11: the management server collects the shp files and obtains the column names of the shp files;
step S12: acquiring the content of the shp appointed column name file;
step S13: compiling different functions to convert corresponding number into Chinese;
step S14: the data converted into Chinese are transmitted and stored to the database server, and the independent arrangement of the database server can effectively improve the data storage capacity and is beneficial to large-scale data storage.
The step S2 further includes:
step S21: setting the mine as a point by using a class library package, and displaying the point on a page map according to the longitude and latitude of the mine;
step S22: the method comprises the steps that the icon styles displayed on the webpage of the mine are set according to the attribute data mine category of the mine, the mine with different attribute data can display different icon styles, richer information content can be displayed by using the icon styles, the attribute data can be displayed more visually and attractively, and the method is convenient for a user to use;
step S23: and clicking the mine icon on the webpage to display the name, the number, the ore detail, the productivity, the recovery rate, the service life, the ore price, the traffic position and the construction condition of the mine.
The step S3 further includes:
step S31: the WebGis server transmits the query conditions selected by the user to the management server by using an asynchronous webpage development technology method, the asynchronous webpage development technology optimizes the transmission between the server and the browser, and unnecessary data round trip is reduced;
step S32: and the management server inquires a database server for storing the mine data according to the corresponding conditions, returns the data to the WebGis server when the data are equal, and renders and displays the data on a user browser through a result rendering unit.
The step S4 further includes:
step S41: the user inputs mine data of different types, the WebGis server transmits the data to the management server, and the management server performs overall information statistics by combining with the database server;
step S42: and the WebGis server transmits the result to the comparison and statistics unit through the open source visualization library, so that the result is displayed on a browser at the user side.
In the steps S5 to S6, the total sum of the artificial evaluation values recorded by the evaluation statistical unit is P, the total number of artificial evaluations recorded by the evaluation statistical unit is N, the evaluation statistical unit acquires the size of the mine by using the spatial data unit, the evaluation statistical unit acquires the mine detail value of the mine by using the attribute data unit as M, the mine capacity as C, the mine recovery rate as H, the mine service life as Y, the mine traffic location value as X, and the construction condition value as S, and the change rendering unit records the attribute data update number as R in combination with the attribute data unit;
according to the formula:
M=(J1*K1+J2*K2+J3*K3+...+Jn*Kn)*m;
wherein M represents the ore type detail value degree of the mine, J1-Jn is the current price of the belonged ore type, K1-Kn is the ratio of the belonged ore type, and M represents the ore type detail value degree coefficient of the mine;
according to the formula:
X=(M1/L1+M2/L2+M3/L3+M4/L4+...+Mn/Ln)*x;
the method comprises the following steps that X represents the traffic position value degree of a mine, M1-Mn represents the traffic position node value degree, the transportation wharf traffic position node value degree is MA =100, the transportation railway station traffic position node value degree is MB =80, the high-speed toll station location node value degree is MC =60, the other traffic position node value degrees are MD =30, the traffic position node value degree is determined according to the optimal using transportation mode of the mine, L1-Ln represents the shortest distance from the mine to each traffic node, X represents the traffic position value degree coefficient of the mine, the number of the traffic position nodes beneficial to mine transportation is considered in the traffic of the mine, meanwhile, the distance between the traffic position nodes and the mine and the value of the attribute of the traffic position nodes are also considered, and data calculation is carried out on the three aspects so that the traffic position value degree of the mine is more reasonable;
according to the formula:
S=(Q1/L1+Q2/L2+Q3/L3+Q4/L4+...+Qn/Ln)*s;
the method comprises the following steps that S represents the construction condition value degree of a mine, Q1-Qn is the site node value degree, the industrial site node value degree is QA =100, the waste material site node value degree is QB =80, the earth discharge site node value degree is QC =60, other site node value degrees are QD =30, L1-Ln is the shortest distance from the mine to each site node, S is the construction condition value coefficient of the mine, the number of sites which are favorable for mine construction needs to be considered in the construction condition of the mine, the distance between the site and the mine and the value of the property of the site need to be considered at the same time, and data calculation is carried out from the three aspects to enable the construction condition value degree of the mine to be more reasonable;
according to the formula:
wherein A represents the average numerical value degree of value of the mine manual evaluation, a represents the average numerical value degree coefficient of value of the mine manual evaluation, the manual evaluation uses an overall average mode, so that the influence of too-low or too-high evaluation on the evaluation result is removed, and the data accuracy is ensured;
according to the formula:
B=G*M*C*H*Y*X*S*b;
b represents the value degree of the total mine value, B represents the value degree coefficient of the total mine value, and the total mine value is determined by the size G of the mine scale, the detail value degree M of mine types, the productivity C of the mine, the recovery rate H of the mine, the service life Y of the mine, the traffic position value degree X of the mine and the construction condition value degree S, so that the obtained data are more objective and the reasonability is ensured;
in step S5, the numerical value Z of the mine total evaluation is:
Z=(B+A)*z;
z represents the coefficient of the total mine evaluation value, the webgis server combines manually input evaluation data and mine attribute data, and relates to information in multiple aspects, so that real and reliable evaluation is reflected, more intuitive mine information evaluation is provided for users, and the users can compare and save time and energy conveniently;
in step S6, the mine icon change color saturation T is:
T=T0+R*t;
t0 represents the basic color saturation of unchanged attribute data, R represents the change rendering unit and records the attribute data updating times by combining the attribute data unit, T represents the updating time coefficient, and the user can more obviously distinguish the mine data change condition according to the change of the icon color saturation of the mine, so that the user can conveniently obtain information in various aspects.
It will be evident to those skilled in the art that the invention is not limited to the details of the foregoing illustrative embodiments, and that the present invention may be embodied in other specific forms without departing from the spirit or essential attributes thereof. The present embodiments are therefore to be considered in all respects as illustrative and not restrictive, the scope of the invention being indicated by the appended claims rather than by the foregoing description, and all changes which come within the meaning and range of equivalency of the claims are therefore intended to be embraced therein. Any reference sign in a claim should not be construed as limiting the claim concerned.
Claims (6)
1. The utility model provides a mine data visualization system based on WebGis, includes data module, detail show module, statistical information show module, contrast information show module, evaluation result show module, historical curve show module, its characterized in that: the data module is used for acquiring data, storing data, transmitting data and processing data, the detail display module is used for displaying the details of the space aspect and the attribute aspect of a mine clicked by a user, the statistical information display module is used for counting condition data selected by the user and rendering result data to a user side browser in a visual mode, the comparison information display module is used for comparing different types of data input by the user and rendering the compared result data to the user side browser in a visual mode, the evaluation result display module is used for recording evaluation data input by the user and displaying high-accuracy evaluation values to the user side browser by combining with an attribute data unit, the history curve display module is used for rendering mine icons for distinguishing history data changes, processing mine history data clicked by the user and rendering the history data of the mine to the user side browser in a visual mode;
the data module comprises a data acquisition unit, a data storage unit, a data processing unit and a data transmission unit, wherein the data acquisition unit is used for acquiring an shp file, cleaning the shp file and acquiring data information, the data acquisition unit belongs to a management server, the data storage unit is used for storing data, the data storage unit belongs to a database server, the data processing unit is used for processing data needing further calculation and obtaining a result, the data processing unit belongs to the management server, the data transmission unit is used for responding to a reading command, transmitting the stored data to a reading party and responding to a writing command, storing the transmitted data to a writing party, the data transmission unit belongs to the management server, the detail display module comprises a space data unit and an attribute data unit, and the space data unit is used for displaying the specific position, the altitude, the longitude and latitude and the scale of a mine, the system comprises an attribute data unit, a spatial data unit, a statistical information display module, a condition judgment unit and a result rendering unit, wherein the attribute data unit is used for displaying the name, the number, the ore category details, the ore category proportion, the productivity, the recovery rate, the service life, the ore category price, the traffic position and the construction conditions of a mine, the spatial data unit and the attribute data unit belong to a WebGis server, the statistical information display module comprises the condition judgment unit and the result rendering unit, the condition judgment unit is used for comparing combined condition data input by a user with data in a data storage unit one by one, judging whether the combined condition data are equal to the data in the data storage unit and outputting the equal data, the result rendering unit is used for rendering the result to a user side browser in combination with the data output by the condition judgment unit, the condition judgment unit and the result rendering unit belong to the WebGis server, and the comparative information display module comprises the comparative statistics unit, the system comprises a comparison result unit, a comparison and statistics unit, an evaluation result display module and a historical curve display module, wherein the comparison and statistics unit is used for recording different types of data input by a user, the comparison and statistics unit is used for combining the data in the data storage unit to obtain the occupation ratios of the different types of data in a total data storage unit, the comparison result unit is used for displaying results on a user side browser, the evaluation result display module comprises an evaluation and statistics unit and an evaluation result unit, the evaluation and statistics unit is used for recording evaluation data input by the user, all the evaluation data are processed by combining an attribute data unit to obtain evaluation data with high accuracy, the evaluation result unit is used for displaying the evaluation data processed by the evaluation and statistics unit to the user side browser, the evaluation and statistics unit and the evaluation result unit belong to a WebGis server, the historical curve display module comprises a change rendering unit and a historical curve unit, the change rendering unit is used for reading and recording the data in the detail display unit, the mine where data change occurs is rendered in an icon style change to change and the color saturation of the mine, and the historical curve unit is used for displaying the data in the Webs server in a historical curve mode change to the Webs server.
2. A mine data visualization method based on WebGis is characterized in that: the visualization method comprises the following steps:
step S1: the management server collects data, processes the collected data and transmits the processed data to the database server, and the database server stores the data and goes to the step S2;
step S2: a user clicks a mine icon, the spatial data unit and the attribute data unit send a reading command to the data storage unit through the data transmission unit, the data transmission unit transmits corresponding spatial data and attribute data to the spatial data unit and the attribute data unit, and then the spatial data and the attribute data are displayed on a user browser, and the step S3 is executed;
and step S3: inputting various condition data by a user, transmitting the condition data to the data storage unit through the data transmission unit, comparing the condition data with the data storage unit one by one to obtain a result, rendering and displaying the result on a user browser through the result rendering unit, and turning to the step S4;
and step S4: inputting different types of data by a user, storing the data into a data storage unit through a data transmission unit, processing the data by a comparison statistical unit and the data storage unit to obtain a statistical data result, displaying the statistical data result on a user browser through the comparison result unit, and turning to the step S5;
step S5: the user clicks the evaluation icon, the evaluation data is input, the data is stored in the data storage unit through the data transmission unit, the statistical evaluation data result is obtained through the processing of the evaluation statistical unit and the attribute data unit, the evaluation result unit displays the statistical evaluation data result on the browser of the user side, and the step S6 is executed;
step S6: the management server collects data, when the data of the same space data is updated, the change rendering unit changes the color of the corresponding icon, the user clicks the corresponding icon, and the historical curve unit displays the historical curve on the browser of the user side;
in the steps S5 to S6, the total sum of the artificial evaluation values recorded by the evaluation statistical unit is P, the total number of artificial evaluations recorded by the evaluation statistical unit is N, the evaluation statistical unit acquires the size of the mine by using the spatial data unit, the evaluation statistical unit acquires the mine detail value of the mine by using the attribute data unit as M, the mine capacity as C, the mine recovery rate as H, the mine service life as Y, the mine traffic location value as X, and the construction condition value as S, and the change rendering unit records the attribute data update number as R in combination with the attribute data unit;
according to the formula:
M=(J1*K1+J2*K2+J3*K3+...+Jn*Kn)*m;
wherein M represents the ore type detail value degree of the mine, J1-Jn represents the belonging ore type price, K1-Kn represents the belonging ore type proportion, and M represents the ore type detail value degree coefficient of the mine;
X=(M1/L1+M2/L2+M3/L3+M4/L4+...+Mn/Ln)*x;
wherein X represents the value degree of the traffic position of the mine, M1-Mn represents the value degree of the traffic position node, the value degree of the traffic position node of the transport wharf is MA, the value degree of the traffic position node of the transport railway station is MB, the value degree of the position node of the high-speed toll station is MC, the value degrees of the nodes of other traffic positions are MD, L1-Ln represents the shortest distance from the mine to each traffic node, and X represents the value degree coefficient of the traffic position of the mine;
S=(Q1/L1+Q2/L2+Q3/L3+Q4/L4+...+Qn/Ln)*s;
the method comprises the following steps that S represents the construction condition value degree of a mine, Q1-Qn is a site node value degree, an industrial site node value degree is QA, a waste material site node value degree is QB, an earth discharge site node value degree is QC, other site node value degrees are QD, L1-Ln are the shortest distance from the mine to each site node, and S is a construction condition value degree coefficient of the mine;
according to the formula:
wherein A represents the average numerical value degree of the mine artificial evaluation, and a represents the average numerical value degree coefficient of the mine artificial evaluation;
B=G*M*C*H*Y*X*S*b;
wherein B represents the value degree of the total mine value, and B represents the value degree coefficient of the total mine value;
in step S5, the numerical value Z of the mine total evaluation is:
Z=(B+A)*z;
wherein z represents a coefficient of a mine total evaluation value;
in the step S6, the mine icon change color saturation T is:
T=T0+R*t;
wherein, T0 represents the saturation of the basic color without changing the attribute data, R represents the updating times of the attribute data recorded by the change rendering unit in combination with the attribute data unit, and T represents the updating times coefficient.
3. The WebGis-based mine data visualization method as recited in claim 2, wherein the WebGis-based mine data visualization method comprises the following steps: the step S1 further includes:
step S11: the management server collects the shp files and obtains column names of the shp files;
step S12: acquiring the content of the shp appointed column name file;
step S13: compiling different functions to convert corresponding number into Chinese;
step S14: and transmitting and storing the data converted into Chinese to a database server.
4. The WebGis-based mine data visualization method as recited in claim 2, wherein the WebGis-based mine data visualization method comprises the following steps: the step S2 further includes:
step S21: setting the mine as a point by using a class library package, and displaying the point on a page map according to the longitude and latitude of the mine;
step S22: setting an icon style displayed on a webpage of the mine according to the attribute data and the mine type of the mine;
step S23: and clicking a mine icon on a webpage to display the name, the number, the ore type details, the ore type proportion, the productivity, the recovery rate, the service life, the ore type price, the traffic position and the construction condition of the mine.
5. The WebGis-based mine data visualization method as recited in claim 2, wherein the WebGis-based mine data visualization method comprises the following steps: the step S3 further includes:
step S31: the WebGis server transmits the query conditions selected by the user to the management server by using an asynchronous webpage development technical method;
step S32: and the management server inquires a database server for storing mine data according to corresponding conditions, returns the data to the WebGis server when the data are equal, and renders and displays the data on a user browser through a result rendering unit.
6. The WebGis-based mine data visualization method as recited in claim 2, wherein the WebGis-based mine data visualization method comprises the following steps: the step S4 further includes:
step S41: the user inputs mine data of different types, the WebGis server transmits the data to the management server, and the management server performs overall information statistics by combining with the database server;
step S42: and the WebGis server transmits the result to the comparison and statistics unit through the open source visual library, so that the result is displayed on the browser at the user side.
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Denomination of invention: A WebGis based mining data visualization system and method Granted publication date: 20230314 Pledgee: Agricultural Bank of China Limited Shanghai Huangpu Sub branch Pledgor: Aopu (Shanghai) new energy Co.,Ltd. Registration number: Y2024310000206 |