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CN109934377A - A kind of the interaction factor control analysis of industrial pollution source synthesis and prediction technique of fine particle - Google Patents

A kind of the interaction factor control analysis of industrial pollution source synthesis and prediction technique of fine particle Download PDF

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CN109934377A
CN109934377A CN201811638904.1A CN201811638904A CN109934377A CN 109934377 A CN109934377 A CN 109934377A CN 201811638904 A CN201811638904 A CN 201811638904A CN 109934377 A CN109934377 A CN 109934377A
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data
analysis
fine particle
model
pollution
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廖鹰
黄训诚
田园
艾未华
易卓
吴善明
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Duan Wenxu
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Duan Wenxu
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Abstract

The invention discloses a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle and prediction technique, the first step, the related datas such as acquisition related data parameter, including industrial production data, meteorological data, environmental monitoring data and geographic information data;Each data are carried out real-time big data analysis by second step alone or in combination, the analysis model for being spread and being polymerize with the remote dynamic that this big data analysis result establishes corresponding fine particle industrial pollution discharge;Pollution source data is loaded into above-mentioned big data model, quantitatively calculates its influence to any longitude and latitude of metropolitan district, the fine particle concentration of arbitrary height by third step.This method realizes air pollution in the diffusion polymerization of specified space-time.The visualization of the big datas such as the following pollution prediction is presented based on GIS technology, realizes the dynamic interaction of current and future air pollution;By the customizable and dynamic interaction of air pollution regulation and control scheme, the soundness verification of pollution regulation and control scheme is realized.

Description

A kind of the interaction factor control analysis of industrial pollution source synthesis and prediction of fine particle Method
Technical field
The present invention relates to air pollution analysis and prediction field, in particular to the industrial pollution source of a kind of fine particle is comprehensive Interaction factor control analysis and prediction technique.
Background technique
But that there are prevention and control targets is single for existing air contamination analysis equation, regulation and control scheme is dedicated, modification scope limitation, implements The problems such as process is complicated, when establishing model, only in accordance with point, line, source linear superposition, that is, Gauss diffusion model is folded Add.
Summary of the invention
For above-mentioned there are problem, the comprehensive interaction factor control analysis of the industrial pollution source of a kind of fine particle and pre- is proposed Survey method.
A kind of the interaction factor control analysis of industrial pollution source synthesis and prediction technique of fine particle,
The first step acquires related data parameter, including industrial production data, meteorological data, environmental monitoring data and geographical letter Cease the related datas such as data;
Each data are carried out real-time big data analysis by second step alone or in combination, establish phase with this big data analysis result The analysis model for answering the remote dynamic of fine particle industrial pollution discharge to spread and polymerize;
Pollution source data is loaded into above-mentioned big data model by third step, quantitatively calculate its to any longitude and latitude of metropolitan district, The influence of the fine particle concentration of arbitrary height.
Further, single discharge of pollutant sources data of the controlled monitoring of environmental protection administration, i.e. flue dust, sulfur dioxide and nitrogen oxidation are utilized Three kinds of data of object, are loaded into the analysis model of above-mentioned diffusion and polymerization, obtain single discharge of pollutant sources to any position and The fine particle concentration of elevation influences.
Further, in monitoring space, each individual pollution source effect particle related data is loaded into diffusion and polymerization Analysis model carry out independent analysis, obtain analyze data accordingly, then, in conjunction with particulate matter quantity rank factor integrate divide Analysis, considers seasonal factor later, and analysis obtains influential effect of the respective pollution sources in space, and it is more that the above results are added to The non-linear interactive Additive Model of pollution sources show that Nonlinear Superposition analyzes result.
Further, the particulate matter quantity rank factor is the factors such as quantity, size and the quality of particulate matter;The season Section factor is the factors such as wind direction, wind speed, temperature and humidity and distance.
Further, in conjunction with the special case in city and the current intelligence of time, it is above-mentioned more that data loading will be acquired accordingly Pollution sources Nonlinear Superposition model obtains analysis result in real time.
Further, city is monitored the landform in space to classify, monitoring data is loaded into the analysis of diffusion and polymerization Model and the non-linear interactive Additive Model of multiple pollutant sources, obtain corresponding model data, and by the data investigation to various species Landform on, obtain the expanding effect result in the Particulate Pollution source of different terrain.
Further, the transfer between each model is determined by Markov transferring matrix, transition probability dynamic change.
Further, the non-linear interactive Additive Model of the multiple pollutant sources is using overall fit method, i.e., according to region institute Some elevation point datas are fitted unified ground elevation curved surface with fourier series and high-order moment.
Further, the non-linear interactive Additive Model of the multiple pollutant sources is local fit method, by earth's surface complex surface point Partitioned searching is carried out at the roughly equal irregular area of square regular domain or area, shape is fitted according to limited point At elevation curved surface.
Further, using the composite framework air combined based on extremely short timing ARIMA built-up pattern and BP neural network Pollution prediction.
Further, it is described based on extremely short timing ARIMA built-up pattern to city air pressure in recent years, temperature, humidity, wind direction It is trained with data such as wind speed, establishes the shallow-layer prediction model of Air Pollution Forecast, realize the short-term forecast of air pollution.
Further, binding time sequence and Multi-layer BP Neural Network are based on data of short-time series and neural network design air The high-speed decision mechanism of pollution establishes the sky of composite framework by the other intensive training study of phase sorting, feedback and assessment Model is strengthened in gas pollution prediction, realizes the Air Pollution Forecast to the short, medium and long phase and assessment.
Further, for the prediction of PM2.5, trend is extracted first with higher order polynomial, residual error is examined to meet zero-mean Then stationary time series uses feature ARIMA Combined model forecast PM2.5 predicted value variation tendency.
Further, using piecewise differentiable function, according to the history number including air pressure, temperature, humidity, wind direction, wind speed factor According to the feature of research object is divided into different parts or incited somebody to action by the segmentation feature of consideration each stage factor of piecewise smooth function One feature is divided into different piece, by segmentation feature, more fully understands characteristic related with identification feature, thus more accurately into Row identification object or feature identification, and the influence to PM2.5, using it is ultrashort when ARIMA combined method to carry out PM2.5 pre- in short term It surveys, based on history air pollution data, settling time series model carries out the air pollution mould of arbitrary point on map It is quasi-.
Further, 3 layers or more of neural network and the neuron number of enough hidden layers, model is arranged in BP neural network Some can be accomplished to approach with enough precision with limited discontinuous point, the i.e. nonlinear function of dirichlet condition.
This method supervises industrial pollution discharge situation, ground transaucer atmospheric environment using multiple pollutant sources diffusion Additive Model The high-speed parallel of the atmospheric environment Value of Remote Sensing Data of measured data and optics and microwave is analyzed, and realizes air pollution when specified Empty diffusion polymerization.It is big to environment monitoring, meteorology, air pollution and geographical location and the following pollution prediction etc. based on GIS technology The visualization of data is presented, and realizes the dynamic interaction of current and future air pollution;Pass through determining for air pollution regulation and control scheme System and dynamic interaction realize the soundness verification of pollution regulation and control scheme.
Specific embodiment
Based on data such as industrial production, meteorology, environmental monitoring, geography information, dynamic big data analysis in real time is carried out, is built The remote dynamic diffusion of vertical emission of industrial pollutants and polymerization model, quantitatively calculate its to any longitude and latitude of metropolitan district, times The influence of the fine particle concentration for height of anticipating, comprising the following steps:
(1) to the quantitative analysis of single industrial pollution source emission, using the controlled monitoring data of environmental protection administration, (measurement point is polluting Source, merely with three kinds of flue dust, sulfur dioxide, nitrogen oxides monitoring data), diffusion, polymerization and the chemical combination established by this method Model show that single discharge of pollutant sources influences the fine particle concentration on any position and elevation in conjunction with big data analysis.This Step only completes the data collection of the space-pollution point of the blowdown stack of single pollution sources.
(2) after the dynamic analysis for completing single pollution sources, the multiple relatively independent industrial pollution of secondary consideration Reciprocal effect between source emission, including diffusion, polymerization and industrial conspiracy relation between pollutant, to be studied The effect of specific area of space, pollution belongs to the fine grain comprehensive reciprocation of each pollution sources polluting effect, it is necessary to will They carry out effect decomposition, obtain the quantitative analysis of the individual effect of each pollution sources, interactive model algorithm is by each dirt Particle diameter, quantity of the polluting effect in dye source according to its emission, the personality factors such as quality size are divided into several numbers Measure grade, and (1) obtained aggregation of data correspondence analysis, it is also contemplated that the wind direction, wind speed of seasonal effect, warm and humid in real time The setting of the factors such as degree, distance, decomposites each pollution sources in the respective influential effect of spatial domain, then recycles this method The multiple pollution sources pollution sources non-linear interactive Additive Models proposed carry out the Nonlinear Superposition of multiple pollutant sources pollution effect, Rather than only in accordance with (Gauss diffusion model) point, line, source linear superposition;
The hierarchical environmental message processing flow for supporting space partition zone control, time upper dynamical feedback, realization have also been devised simultaneously The air quality data of efficiently and accurately is handled and monitoring is traced to the source, and is realized to surrounding city or even provincial and area above multiplexing industry It is quantitative that discharge of pollutant sources influences progress dynamic space.
(3) then it is also contemplated that due to complicated landform institute caused by hypsography, rough and uneven in surface and surface buildings The diffusion of bring contaminant particle changes, and thinking is that topography variation is summarized as to several feature terrains, all complexity Landform is the combined result of these feature terrains nothing but, then (1) (2) obtained contaminative diffusion model is added in the ground of feature In shape, the pollutant diffusion effect in each height of complicated landform is obtained.Transfer between each model is by Ma Erke Husband's transfer matrix is determining, transition probability dynamic change.The model supports landform, urban architecture, weather environment dynamic change and The interactive Nonlinear Superposition of multiple pollution sources polluting effects, assembly effect realize the dynamic that multiple pollutant sources dynamic spreads, polymerize Trace simulation.
So the program of interactive algorithm design is: acquiring the data acquisition system of single pollution sources;From the certain of area of space Point acquires the comprehensive function of multiple pollution sources polluting effects, it be a multifactor interaction influence as a result, therefore it is necessary to Effect decomposition is carried out, is then superimposed, this is a non-linear, adaptive model.
(4) in industrial pollution, pollution that caused by coal burning is important component part.For prevention and control in existing air pollution descriptive equation The problems such as target is single, regulation and control scheme is dedicated, modification scope limits to, implementation process is complicated, proposes the work driven based on big data Industry pollution prevention intelligence aided decision mechanism;Establish collection multi-source polluted information acquisition with processing, intellectual analysis and deduce decision, It pollutes regulation and control scheme formulation and air pollution prevention and control is applied to the air pollution assistant decision support system of one, support comprehensive, more The automation and intelligent industrial air pollution prevention and control of mode, multi-scheme, multiple target;It is proposed what forward and reverse analysis combined Regulate and control thinking, i.e., since pollution sources polymerization and chemical combination analysis, analyze pollution sources to space arbitrary point influence (divide elevation, can Specified arbitrary height), utilize the monitoring data of mobile and fixed air station, the influence of backtracking analysis pollution sources.
It is granular material discharged for starting point based on PM2.5 to reduce, comprehensively consider intercity equilibrium, Region homogenization, area Interior industrial production is balanced, discharge of industrial wastes transformation is horizontal and production economy, proposes reasonable Coal-fired capacity distribution and industrial Scheduling strategy.Asking for production and energy-saving and emission-reduction is influenced for many-sided complicated factor such as industrial production, Coal-fired capacity and disposal of pollutants Topic establishes the Coal-fired capacity distribution model based on robust optimization, proposes the industrial production adjustment intelligence based on Coal-fired capacity distribution Aid decision reduces coal consumption amount and pollutant emission.Based on the inter-provincial Coal-fired capacity point with the adjustment of ground section and industry environmental protection nargin Match, industry environmental protection nargin and industrial production time and locating spatial position factor comprehensively consider, carried out industrial coal ring It protects consumption prediction to calculate, the correlation model between each pollution sources in metropolitan district periphery is established, using Air Quality Forecast as a result, reality Show the science of the production plan of industry, effectively prescribed, reduces the particulate matter based on PM2.5 as much as possible to the shadow of metropolitan district It rings.
For the problem that existing Air Pollution Forecast real-time is poor, accuracy is low, propose subregion, distinguish at times into The method of row analysis and processing.Namely for the further improvement of Gauss diffusion model, Gauss model considers three-dimensional space Plume contamination object is normal distribution, and consider the wind speed for influencing diffusion be it is uniform, it is stable, continuous conservation, this reality Be on border it is very inappeasable, only in time, spatially, be split, study respectively, corresponding control just can be with so control Method processed is actually the control strategy and behavior after the detailed parsing of apparent pollution sources, is expanded by the pollution that front is described Scattered mechanism, it is recognised that the variation of pollution sources be it is cracking, have extremely short periodicity, short time interval tendency and randomness Effect.The method for relying solely on traditional simple regression analysis is obviously difficult to meet, so, when this method devises multiple extremely short Between series model, feature short run models, using a variety of very short time series arrangements, combination, constructed have it is manifold The composite framework Air Pollution Forecast method that ARIMA and BP neural network combine.When establishing the combination of air quality index Between sequence Controlling model, combined based on very short time series model, track the cyclically-varying rule of dispersion of pollutants, realize empty The cyclic forecast of makings amount.
The feasibility problems of built-up pattern: for nonlinear function, gradation study can be carried out to it, as long as it meets Di Family name's condition (Dirichlet condition) can accomplish to approach some with enough precision with the non-thread of limited removable discontinuity point Property function.Therefore, this combined prediction algorithm can satisfy calculating demand.
The data such as air pressure, temperature, humidity, wind direction, wind speed based on extremely short ARIMA built-up pattern to city in recent years carry out Training, establishes the shallow-layer prediction model of Air Pollution Forecast, realizes the short-term forecast of air pollution.Binding time sequence and multilayer BP neural network, the composite framework Air Pollution Forecast method of proposition are dirty based on data of short-time series and neural network design air The high-speed decision mechanism of dye establishes the air of composite framework by the other intensive training study of phase sorting, feedback and assessment Model is strengthened in pollution prediction, realizes the Air Pollution Forecast to the short, medium and long phase and assessment:
(1) contamination data according to key cities in recent years, for statistical analysis, research contamination data becomes with the variation in season Gesture carries out Controlling model design using short time interval Feature Selection.Reason there are three doing so: simplified model is allowed to be easier to In research and understand, shorten the training time, improves versatility, reduction over-fitting (i.e. reduction variance) establishes multiple extremely short spies Sign selection Time Series Analysis Model, is combined using the method that extremely short trend prediction, cycle analysis in short-term are combined with ARIMA Innovative approach carries out the prediction of longer period of time to PM2.5 pollution condition;Using extremely short period, short time period trends combination prediction side Method extracts trend first with higher order polynomial, residual error is examined to meet the stationary time series of zero-mean, then uses feature ARIMA Combined model forecast PM2.5 predicted value variation tendency.
(2) function that piecewise smooth function (piecewise smooth function) refers to piecewise differential is pollution The popularization of object Controlling model smooth function.Controlling model is according to the history number including air pressure, temperature, humidity, wind direction, wind speed factor According to the feature of research object is divided into different parts or incited somebody to action by the segmentation feature of consideration each stage factor of piecewise smooth function One feature is divided into different piece.By segmentation feature, more fully understand characteristic related with identification feature, thus more accurately into Row identification object or feature identification, and the influence to PM2.5, using it is ultrashort when ARIMA combined method to carry out PM2.5 pre- in short term It surveys, based on history air pollution data, settling time series model carries out the air pollution mould of arbitrary point on map It is quasi-, the scientific forecasting of multicycle is carried out to the following air quality.The prediction algorithm time granularity that this method proposes is thinner, realizes The prediction of minute dimension accuracy, and ARIMA method and BP neural network are that sectionally smooth carries out
(3) it theoretically can sufficiently prove and have the neural network more than having three layers, as long as the neuron number for meeting hidden layer is enough When, model can accomplish to approach some with enough precision with the non-thread of limited discontinuous point (Dirichlet dirichlet condition) Property function.Therefore, BP combinational algorithm can satisfy calculating demand.
By Data Analysis Model according to meteorology, motor vehicle flow, geography, industrial production, dust from construction sites and all movements Environmental protection prison equipment carries out the knot that automatic big data calculates selection short time interval ARIMA combined method or the prediction of BP combination neural net Fruit is exported, and precision of prediction is higher, and prediction result exports faster.
For complexity, the uncertainty, dynamic of air pollution diffusion polymerization, propose folded based on multiple pollutant sources diffusion Add the three-dimension GIS dynamic deduction method of model.
The representation method of digital elevation model: mathematically expressing, and can use overall fit method, i.e., according to area All elevation point datas in domain, unified ground elevation curved surface is fitted with fourier series and high-order moment.Part can also be used Earth's surface complex surface is divided into square regular domain or the roughly equal irregular area of area carries out piecemeal and searches by approximating method Rope is fitted to form elevation curved surface according to limited point.
As previously mentioned, having studied the decomposition of the comprehensive function of the coupling interaction of multiple pollution source points first, obtain each The independent polluting effect and cross staining effect of pollution sources, secondly, analyzing feature selecting, the feature of the certain points of Polluted area Extraction and feature learning have constructed the combination of Short Time Domain ARIMA model and neural network model based on feature, disclose pollutant The problem of particles diffusion contains is essential.The following image understanding is the important applied field of machine theory, Feature Engineering It is natural to occupy very important status in whole image understanding.(in recent years, the research of image overall scenario items and engineering practice In illustrate brilliant performance, the model based on probability theory and graph theory can portray this globality well, become current The model generallyd use in overall scenario understanding.) but understand that (conspicuousness is examined using the method for probability graph model development overall scenario Survey, scene classification, multiclass image segmentation, model integrated etc.) research, data needed for obtaining overall scenario understanding are to extract related spy Sign be it is highly difficult, therefore, primary basic work is exactly the interaction data by the pollution particle in the extremely short period with three-dimensional GIS dynamic, which is deduced, combines closely, and mutual seamless insertion, this, which is one, has challenge and initiative work.
This method supervises industrial pollution discharge situation, ground transaucer atmospheric environment using multiple pollutant sources diffusion Additive Model The high-speed parallel of the atmospheric environment Value of Remote Sensing Data of measured data and optics and microwave is analyzed, and realizes air pollution when specified Empty diffusion polymerization.It is big to environment monitoring, meteorology, air pollution and geographical location and the following pollution prediction etc. based on GIS technology The visualization of data is presented, and realizes the dynamic interaction of current and future air pollution;Pass through determining for air pollution regulation and control scheme System and dynamic interaction realize the soundness verification of pollution regulation and control scheme.
The aforementioned description to specific exemplary embodiment of the invention is in order to illustrate and illustration purpose.These descriptions It is not wishing to limit the invention to disclosed precise forms, and it will be apparent that according to the above instruction, can much be changed And variation.The purpose of selecting and describing the exemplary embodiment is that explaining specific principle of the invention and its actually answering With so that those skilled in the art can be realized and utilize a variety of different exemplary implementation schemes of the invention and Various chooses and changes.The scope of the present invention is intended to be limited by claims and its equivalents.

Claims (10)

1. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle and prediction technique, it is characterised in that:
The first step acquires related data parameter, including industrial production data, meteorological data, environmental monitoring data
And the related datas such as geographic information data;
Each data are carried out real-time big data analysis by second step alone or in combination, with this big data analysis knot
The remote dynamic that fruit establishes corresponding fine particle industrial pollution discharge is spread and the analysis model of polymerization;
Pollution source data is loaded into above-mentioned big data model, quantitatively calculates it and appoint to metropolitan district by third step
The influence of the fine particle concentration of meaning longitude and latitude, arbitrary height.
2. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 1 and prediction side Method, it is characterised in that: utilize single discharge of pollutant sources data of the controlled monitoring of environmental protection administration, i.e. flue dust, sulfur dioxide and nitrogen oxidation Three kinds of data of object, are loaded into the analysis model of above-mentioned diffusion and polymerization, obtain single discharge of pollutant sources to any position and The fine particle concentration of elevation influences;In monitoring space, each individual pollution source effect particle related data is loaded into and is expanded It dissipates and the analysis model of polymerization carries out independent analysis, obtain analyzing data accordingly, then, in conjunction with particulate matter quantity rank factor Comprehensive analysis considers seasonal factor later, and analysis obtains influential effect of the respective pollution sources in space, and the above results are folded It is added to the non-linear interactive Additive Model of multiple pollutant sources, show that Nonlinear Superposition analyzes result.
3. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 2 and prediction side Method, it is characterised in that: the particulate matter quantity rank factor is the factors such as quantity, size and the quality of particulate matter;The season Section factor is the factors such as wind direction, wind speed, temperature and humidity and distance;In conjunction with the special case in city and the current intelligence of time, Corresponding acquisition data are loaded into above-mentioned multiple pollutant sources Nonlinear Superposition model and obtain analysis result in real time.
4. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 3 and prediction side Method, it is characterised in that: city is monitored into the landform in space and is classified, monitoring data are loaded into the analysis mould of diffusion and polymerization Type and the non-linear interactive Additive Model of multiple pollutant sources, obtain corresponding model data, and by the data investigation to various species In landform, the expanding effect result in the Particulate Pollution source of different terrain is obtained.
5. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 4 and prediction side Method, it is characterised in that: the transfer between each model determines by Markov transferring matrix, transition probability dynamic change;It is described The non-linear interactive Additive Model of multiple pollutant sources is using overall fit method, i.e., elevation point datas all according to region uses Fu Vertical leaf sum of series high-order moment is fitted unified ground elevation curved surface.
6. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 5 and prediction side Method, it is characterised in that: the non-linear interactive Additive Model of multiple pollutant sources is local fit method, and earth's surface complex surface is divided into Square regular domain or the roughly equal irregular area of area carry out partitioned searching, are fitted to be formed according to limited point Elevation curved surface.
7. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 1-6 And prediction technique, it is characterised in that: using the composite frame combined based on extremely short timing ARIMA built-up pattern and BP neural network Structure Air Pollution Forecast.
8. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 7 and prediction side Method, it is characterised in that: it is described based on extremely short timing ARIMA built-up pattern to city air pressure in recent years, temperature, humidity, wind direction It is trained with data such as wind speed, establishes the shallow-layer prediction model of Air Pollution Forecast, realize the short-term forecast of air pollution;Knot Time series and Multi-layer BP Neural Network are closed, the high-speed decision machine polluted based on data of short-time series and neural network design air System strengthens mould by the other intensive training study of phase sorting, feedback and assessment, the Air Pollution Forecast for establishing composite framework Type realizes the Air Pollution Forecast to the short, medium and long phase and assessment.
9. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 8 and prediction side Method, it is characterised in that: the prediction for PM2.5 extracts trend first with higher order polynomial, and residual error is examined to meet the flat of zero-mean Then steady time series uses feature ARIMA Combined model forecast PM2.5 predicted value variation tendency;Using piecewise differentiable function, According to the historical data including air pressure, temperature, humidity, wind direction, wind speed factor, point of each stage factor of piecewise smooth function is considered The feature of research object is divided into different part or a feature is divided into different piece by Duan Tezheng, by segmentation feature, Characteristic related with identification feature is more fully understood, to more accurately carry out identification object or feature identification, and to PM2.5's Influence, using it is ultrashort when ARIMA combined method carry out PM2.5 short-term forecast, based on history air pollution data, when establishing Between series model, carry out map on arbitrary point air pollution simulation.
10. a kind of comprehensive interaction factor control analysis of the industrial pollution source of fine particle according to claim 7 and prediction Method, it is characterised in that: 3 layers or more of neural network and the neuron number of enough hidden layers, mould is arranged in BP neural network Type can accomplish to approach some with enough precision with limited discontinuous point, the i.e. nonlinear function of dirichlet condition.
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