CN106777652A - A kind of method for predicting blast furnace permeability - Google Patents

A kind of method for predicting blast furnace permeability Download PDF

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CN106777652A
CN106777652A CN201611131609.8A CN201611131609A CN106777652A CN 106777652 A CN106777652 A CN 106777652A CN 201611131609 A CN201611131609 A CN 201611131609A CN 106777652 A CN106777652 A CN 106777652A
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blast furnace
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CN106777652B (en
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谢皓
王劲松
徐小辉
孙小东
雷磊
张翔
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CISDI Engineering Co Ltd
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    • C21METALLURGY OF IRON
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    • C21B5/00Making pig-iron in the blast furnace

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Abstract

The present invention provides a kind of method for predicting blast furnace permeability, including:Gather the historical data of operation of blast furnace database;Analysis of history data are simultaneously pre-processed, and selection historical data obtains meeting the real data of production requirement;The factor of influence of blast furnace permeability in current slot is obtained, and factor of influence is carried out into weight sequencing by the contribution of importance;Corresponding data set is set up according to gas permeability factor of influence weight sequencing result;The factor of influence of data set is classified according to gas permeability parameter, the center of factor of influence in each classification is calculated;Based on black-box model modeling, several gas permeabilities prediction submodel is set up;The raw material and fuel quality parameter or operational control parameter after adjustment are input into corresponding gas permeability according to its corresponding categorical data as needed predict submodel;According to operation of blast furnace database gathered data frequency, dynamic is updated using latest data to model parameter.The present invention can dynamically update gas permeability model, improve precision of prediction.

Description

A kind of method for predicting blast furnace permeability
Technical field
The present invention relates to aided control technology field in blast furnace ironmaking, more particularly to a kind of side for predicting blast furnace permeability Method.
Background technology
Blast furnace permeability represents under certain condition, the ability that gas stream in the stove passes through the bed of material, and it directly determines blast furnace coal Air flow method whether rationally so that finally influence blast fumance whether stable smooth operation.Therefore in blast fumance, the conjunction of gas permeability Anticipation and effectively control are managed as one of most crucial operation link, always interested in ironmaking worker.
The change of blast furnace permeability is relevant with the factors in production, such as crude fuel, air-supply, cloth etc. all can be to saturating Gas produces influence.But since for a long time, blast furnace operating person is the passive change for deacclimatizing blast furnace permeability, by each Empirical method is planted, solves the problems, such as that gas permeability deteriorates, this often makes conditions of blast furnace fluctuation occur.In the last few years, with blast furnace The raising of automaticity and the lifting of managerial skills, blast furnace operating person have gradually paid attention to the anticipation problem in advance of gas permeability.But Research in terms of current gas permeability prediction also has that the model such as set up only possesses off-line calculation, or influence Factor chooses only consideration part and is preset parameter, it is difficult to adapt to industrial applications etc., therefore in actual production, operator couple The control of gas permeability still mostly by rule of thumb, this direct motion to blast furnace has a negative impact.
Therefore, the traditional passive reply pattern of urgent need change, then integrated information from every side, judge that blast furnace is breathed freely in advance The variation tendency of property, so that take measures to be prevented in advance,
The content of the invention
The shortcoming of prior art in view of the above, it is an object of the invention to provide a kind of side for predicting blast furnace permeability Method, for solving in existing blast fumance administrative skill, operator relies on micro-judgment and the passively change of reply gas permeability, So as to easily cause the problem of working of a furnace fluctuation.
Step one, gathers the historical data of operation of blast furnace database, and the historical data is used comprising current slot Raw material and fuel quality parameter, operational control parameter and data corresponding to gas permeability parameter;
Step 2, analysis of history data are simultaneously pre-processed, and select the reality that the historical data obtains meeting production requirement Border data;
Step 3, obtains the factor of influence of blast furnace permeability in current slot, and the factor of influence is pressed into importance Contribution carry out weight sequencing;
Step 4, according to gas permeability factor of influence weight sequencing result, the larger some factors of selection weighing factor with it is saturating Gas parameter sets up one-to-one data set;
Step 5, the factor of influence of data set is classified according to gas permeability parameter, is classified successively according to data label, The factor of influence and gas permeability data under some classifications are formed, the center of factor of influence in each classification is calculated;
Step 6, based on black-box model modeling, under some classification, sets up several gas permeabilities prediction respectively Model;
Step 7, when blast furnace permeability Long-term change trend is predicted, by the raw material and fuel quality parameter after adjustment or operation control Parameter processed, is input into corresponding gas permeability according to its corresponding categorical data and predicts submodel;
Step 8, according to the frequency of operation of blast furnace database gathered data, mould is predicted using newest data to gas permeability The parameter of type is updated.
In order to achieve the above objects and other related objects, the present invention provides a kind of method for predicting blast furnace permeability, including:
As described above, the method for dynamic evaluation conditions of blast furnace direct motion of the invention, has the advantages that:
The present invention is taking into full account that blast furnace uses crude fuel by using available data analysis mining and modeling technique On the basis of condition and operating parameter, rational factor of influence is selected with the weight of each gas permeability influence factor, and according to influence The cluster result of the factor sets up sub- forecast model, and when adjustment blast furnace raw material or operation is needed, operator only need to be by after adjustment Parameter input model, corresponding sub- forecast model is automatically selected by model according to data characteristics, you can obtain gas permeability change feelings Condition, realizes the prediction to blast furnace permeability, solves blast furnace operating personnel and blast furnace permeability is judged by rule of thumb and is brought Problem, can judge that gas permeability change direction provides support for blast furnace operating person, so as to judge whether operation adjustment rationally carries For foundation.Meanwhile, the present invention can realize the dynamic renewal of gas permeability prediction, i.e., with the refreshing of blast furnace real time data, breathe freely Property forecast model also simultaneously dynamic update, can so be obtained according to the change of the working of a furnace in time influence gas permeability factor sort And classification results, and then Optimized model precision of prediction, so as to avoid that big fluctuation occurs due to data maintenance or the working of a furnace When, predict the outcome inaccurate problem, it is easy to accomplish industrialized application.
Brief description of the drawings
Fig. 1 is shown as the flow chart of blast furnace permeability Forecasting Methodology of the invention;
Fig. 2 is shown as the schematic diagram of factor of influence data set classification of the invention;
Fig. 3 is shown as the schematic diagram that blast furnace permeability forecast model of the invention is used.
Component label instructions:
S101~S108:Step one is to step 8
Specific embodiment
Embodiments of the present invention are illustrated below by way of specific instantiation, those skilled in the art can be by this specification Disclosed content understands other advantages of the invention and effect easily.The present invention can also be by specific realities different in addition The mode of applying is embodied or practiced, the various details in this specification can also based on different viewpoints with application, without departing from Various modifications or alterations are carried out under spirit of the invention.It should be noted that, in the case where not conflicting, following examples and implementation Feature in example can be mutually combined.
It should be noted that the diagram provided in following examples only illustrates basic structure of the invention in a schematic way Think, component count, shape and size when only display is with relevant component in the present invention rather than according to actual implementation in schema then Draw, it is actual when the implementing kenel of each component, quantity and ratio can be a kind of random change, and its assembly layout kenel It is likely more complexity.
Fig. 1 is referred to, the present invention provides a kind of method flow diagram of blast furnace permeability prediction, including:
In step S101, the historical data of operation of blast furnace database is gathered, the historical data includes current slot Used raw material and fuel quality parameter, operational control parameter and data corresponding to gas permeability parameter;
Specifically, the raw material and fuel quality parameter, the coke primary quality measure used by blast fumance and sintering deposit, The primary quality measure of pellet, lump ore.Wherein, coke primary quality measure include granularmetric composition, Industrial Analysis, M40, M10, CSR, CRI etc., sintering deposit, pellet, the primary quality measure of lump ore include that chemical composition, granularmetric composition, basicity, physics are strong Degree, reproducibility etc.;
The operational control parameter, is the four big systems and the related major parameter that taps a blast furnace involved by blast fumance, including Material parameter processed, blowing system parameter, slagging regime parameter, thermal system and parameter of tapping a blast furnace etc..
The selection of gas permeability parameter is crushing, is calculated by below equation:
Wherein:S --- crushing, Pamin/Nm3;Δ P --- total head is poor, kpa;VBG--- gas flowrate in bosh, Nm3/min
The historical data, the data of the last period historical time, the point on the basis of current time for it, taking time span is The measurement of past H hours calculates data, and with M minutes moving average, as one group of data, (each parameter had 60*H/M numbers According to), wherein, 1≤H≤240,1≤M≤10;
In the present embodiment, join by the current institute's raw material and fuel quality parameter of blast furnace, operational control parameter and gas permeability Number corresponding data collection, can provide data basis for the analysis of follow-up rationally accurate data and modeling.
In step s 102, analysis of history data and pre-processed, selecting that the historical data obtains meeting production will The real data asked;
Specifically, it is described that data are screened and screened, it is the ginseng for collecting in the daily production process of blast furnace Number scope determines rational parameter threshold, and abnormal data is then judged as more than this threshold value, is rejected, it is to avoid influence gas permeability The correctness for predicting the outcome;
In the present embodiment, by using available data analytical technology, abnormal historical data is screened and filters out, it is reachable More suit the purpose of produce reality situation to making blast furnace permeability predict the outcome.
In step s 103, the factor of influence of blast furnace permeability in current slot is obtained, and the factor of influence is pressed The contribution of importance carries out weight sequencing;
Specifically, the factor of influence of the blast furnace permeability, is to adopt in the blast furnace production process being previously mentioned in step S101 Raw material and fuel quality parameter, the operational control parameter for collecting;
The factor of influence weight sequencing, is using available data digging technology, by analyzing gas permeability and factor of influence Between relation, calculate weighted index, factor of influence is ranked up successively from big to small according to weighted index;Weighted index Span 0~1, it is K to take the number of raw material and fuel quality parameter and operational control parameter, and the weighted index of each parameter is W1、 W2、…、WK, wherein, 0≤Wi≤ 1, i=1,2 ..., K and
In the present embodiment, by the weight sequencing to each gas permeability factor of influence, can reach as blast furnace permeability is predicted The purpose of precision parameter is provided.
In step S104, according to gas permeability factor of influence weight sequencing result, selection weighing factor it is larger it is some because Son starts against one-to-one data set together with gas permeability parameter;
Specifically, the selection larger some factors of weighing factor, according in step S101 the selected time then In section, according to the change of each Factor Weight sum in step S103, it is determined that raw material and fuel quality parameter, operation needed for follow-up modeling Control parameter, i.e., carry out importance screening to the various parameters listed by step S101, and screening principle is:
It is K to take the number of raw material and fuel quality parameter and operational control parameter, and the weighted index of each parameter is according to from big to small It is W1、W2、…、WK, corresponding parameter name is A1、A2、…、AK, wherein, 0≤Wi≤ 1, i=1,2 ..., K, as ∑ Wi≥0.8 When, select WiCorresponding parameter A before1、A2、…AiAs the follow-up parameter for using.
The data set, is the parameter A obtained according to weight sequencing1、A2、…、Ai, each parameter is according in step S101 It is described, by one group by data set current and that phase of history time data point is constituted before, i.e., the point on the basis of current time, It is the measurement of H hours in the past or calculating data to take time span, and with M minutes moving average, as one group of data, (each parameter had N =60*H/M data), wherein, 1≤H≤240,1≤M≤10, the concrete form of data set is as follows:
Wherein AiNRepresent parameter AiThe record value at n-th moment, SNRepresent the crushing measured value of correspondence n-hour.
In the present embodiment, the larger parameter of influence gas permeability is screened by weight sequencing, is can reach as subsequent prediction side Method reduces dimension, improves the purpose of the real-time and accuracy for calculating.
In step S105, the factor of influence of data set is classified according to gas permeability parameter, according to data label according to Subseries, forms the factor of influence and gas permeability data under some classifications, calculates the center of factor of influence in each classification;
Specifically, factor of influence classification, be by the data of the N group factors of influence in the data set in step S104, I.e.Self attributes according to each group of data are classified, class number is respectively 1,2 ... ... n, its Middle n≤5, the data set under each class is illustrated as shown in Figure 2;
The data label, corresponding moment point when being record data entry;
Described each classification factor of influence center, is, according to sorted each factor of influence parameter values, to calculate this class In each factor of influence average value, computational methods are exemplified below formula:
WhereinPresentation class for n classification in, parameter A1The center of all data, i.e., the average value of all data;A1i Represent the parameter A in the n-th class1In the value at certain moment, j is represented in the n-th class comprising parameter A1Quantity.
In the present embodiment, by determining the classification of each factor of influence, lower factor of influence of all categories and gas permeability are formed Data set, and the center of each classification factor of influence is calculated, can reach as the foundation of follow-up gas permeability forecast model is provided more The accurately purpose of data.
In step s 106, based on black-box model modeling, under some classification, several gas permeabilities are set up respectively Prediction submodel;
Specifically, several gas permeabilities prediction submodel, is according under each classification obtained in step S105 Factor of influence and gas permeability data set, set up black-box model, and each factor of influence is then as mode input parameter, gas permeability parameter Output parameter, gas permeability prediction submodel quantity need to be consistent with classification number in step S105;
In the present embodiment, by set up it is different classes of under ventilative sub-model, reach can make gas permeability predict knot The purpose of the different raw material and fuel quality parameter of really more targeted adaptation and operational control parameter type.
In step s 107, when blast furnace permeability Long-term change trend is predicted, by the raw material and fuel quality parameter after adjustment or Operational control parameter, is input into corresponding gas permeability according to its corresponding categorical data and predicts submodel;
Specifically, it is described to sort out with reference to data center, it is to join the raw material and fuel quality parameter after adjustment or operational control It is carried out traversal contrast by array into one group of new data with the factor of influence center of each classification of calculating in step S105, Using available data digging technology, its data characteristics which kind of is best suited is calculated, so as to be sorted out into that class.
The corresponding gas permeability prediction submodel of selection, according to categorization results, selects the gas permeability under its classification to predict Submodel, one group of new data is constituted as |input paramete using the raw material and fuel quality parameter after adjustment or operational control parameter, Then model can export the permeability value of prediction, and specifically used method is as shown in Figure 3.
In the present embodiment, the raw material and fuel quality parameter or operational control parameter after to adjustment are sorted out, point Prediction submodel that Shi Yong be under respective classes, can reach the purpose for more accurately predicting the outcome.
In step S108, according to the frequency of operation of blast furnace database gathered data, using newest data to gas permeability The parameter of forecast model is updated.
Specifically, the model is dynamically updated using latest data, is that model can be according to the renewal of blast furnace data collection frequently Rate, the most early stage history modeling data of corresponding duration is covered with latest data, so that model can realize mobilism again Set up.
In the present embodiment, by taking into full account the renewal frequency that blast furnace data is gathered, dynamic is predicted blast furnace permeability Model is rebuild, and can reach the purpose for ensureing prediction effect correctness, or model maintenance provides good use bar Part.
In sum, the present invention is taking into full account blast furnace institute by using available data analysis mining and modeling technique On the basis of using crude fuel condition and operating parameter, rational factor of influence is selected with the weight of each gas permeability influence factor, And sub- forecast model is set up according to the cluster result of factor of influence, when adjustment blast furnace raw material or operation is needed, operator only needs By the parameter input model after adjustment, corresponding sub- forecast model is automatically selected according to data characteristics by model, you can obtain Gas situation of change, realizes the prediction to blast furnace permeability, and solve blast furnace operating personnel is carried out to blast furnace permeability by rule of thumb The problem judged and bring, can judge that gas permeability change direction provides support for blast furnace operating person, so as to judge operation adjustment Whether foundation is rationally provided.Meanwhile, the present invention can realize the dynamic renewal of gas permeability prediction, i.e., with blast furnace real time data Refresh, also dynamic updates gas permeability forecast model simultaneously, can so be obtained influenceing gas permeability according to the change of the working of a furnace in time Factor sequence and classification results, and then Optimized model precision of prediction, so as to avoid sending out due to data maintenance or the working of a furnace When giving birth to big fluctuation, predict the outcome inaccurate problem, it is easy to accomplish industrialized application.So, the present invention effectively overcomes Various shortcoming of the prior art and have high industrial utilization.
The above-described embodiments merely illustrate the principles and effects of the present invention, not for the limitation present invention.It is any ripe The personage for knowing this technology all can carry out modifications and changes under without prejudice to spirit and scope of the invention to above-described embodiment.Cause This, those of ordinary skill in the art is complete with institute under technological thought without departing from disclosed spirit such as Into all equivalent modifications or change, should be covered by claim of the invention.

Claims (9)

1. it is a kind of predict blast furnace permeability method, it is characterised in that including:
Step one, gathers the historical data of operation of blast furnace database, and the historical data uses former combustion comprising current slot Material mass parameter, operational control parameter and data corresponding to gas permeability parameter;
Step 2, analysis of history data are simultaneously pre-processed, and select the actual number that the historical data obtains meeting production requirement According to;
Step 3, obtains the factor of influence of blast furnace permeability in current slot, and the factor of influence is pressed the tribute of importance Offering size carries out weight sequencing;
Step 4, according to gas permeability factor of influence weight sequencing result, selection weighing factor larger some factors and gas permeability Parameter sets up one-to-one data set;
Step 5, the factor of influence of data set is classified according to gas permeability parameter, is classified successively according to data label, is formed Factor of influence and gas permeability data under some classifications, calculate the center of factor of influence in each classification;
Step 6, based on black-box model modeling, under some classification, sets up several gas permeabilities prediction submodule respectively Type;
Step 7, when blast furnace permeability Long-term change trend is predicted, the raw material and fuel quality parameter after adjustment or operational control is joined Number, is input into corresponding gas permeability according to its corresponding categorical data and predicts submodel;
Step 8, according to the frequency of operation of blast furnace database gathered data, using newest data to gas permeability forecast model Parameter is updated.
2. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the step one is specifically included:
The raw material and fuel quality parameter, the coke quality index used by blast fumance and sintering deposit, pellet, the matter of lump ore Figureofmerit;
The operational control parameter, is four big systems and the parameter of tapping a blast furnace involved by blast fumance, and it includes material parameter processed, air-supply System parameter, slagging regime parameter, thermal system and parameter of tapping a blast furnace;
The selection of gas permeability parameter is crushing, is calculated by below equation:
S = Δ P V B G
Wherein:S is expressed as crushing, and its unit is Pamin/Nm3;It is poor that Δ P is expressed as total head, and its unit is kpa;VBGIt is expressed as Gas flowrate in bosh, its unit is Nm3/min;
The historical data of the current slot, the point on the basis of current time, take time span be in the past H hours measurement or Data are calculated, is one group of data (each parameter there are N=60*H/M data) with M minutes moving average, wherein, 1≤H≤ 240,1≤M≤10.
3. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the specific bag of the step 2 Include:
The historical data is screened and screened according to blast furnace default parameter threshold, judge collection furnace parameters high whether In the range of default parameter threshold, if it was not then for abnormal data is rejected.
4. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the step 3 is specifically included:
Obtain the factor of influence of blast furnace permeability in current slot, the factor of influence is to collect in blast furnace production process Raw material and fuel quality parameter, operational control parameter;
Using the relation between Analysis on Data Mining gas permeability and factor of influence, weighted index is calculated, referred to according to weight Number is ranked up to factor of influence successively from big to small;Wherein, weighted index span 0~1, take raw material and fuel quality parameter and The number of operational control parameter is K, and the weighted index of each parameter is W1、W2、…、WK, wherein, 0≤Wi≤ 1, i=1,2 ..., K And
5. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the step 4 is specifically included:
According to the change of each Factor Weight sum in current slot, it is determined that the required raw material and fuel quality parameter of follow-up modeling, Operational control parameter;
The number for obtaining raw material and fuel quality parameter and operational control parameter is K, and the weighted index of each parameter is according to being from big to small W1、W2、…、WK, corresponding parameter name is A1、A2、…、AK, wherein, 0≤Wi≤ 1, i=1,2 ..., K, as ∑ WiWhen >=0.8, Selection WiCorresponding parameter A before1、A2、…、AiAs the follow-up parameter for using.
According to the parameter A that weight sequencing is obtained1、A2、…、Ai, each parameter have one group by current slot group of data points into Data set, the concrete form of data set is as follows:
A 11 A 12 ... A 1 N A 21 A 22 ... A 2 N ... ... ... ... A i 1 A i 2 ... A i N S 1 S 2 ... S N T
Wherein AiNRepresent parameter AiThe record value at n-th moment, SNRepresent the crushing measured value of correspondence n-hour.
6. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the step 5 is specifically included:
The data of N groups factor of influence in the data set, the self attributes according to each group of data are classified, class number point Wei 1,2 ... ... n, wherein n≤5;
The data label, corresponding moment point when being record data entry;
According to sorted each factor of influence parameter values, the average value of each classification factor of influence is calculated using equation below,
A 1 n ‾ = Σ i = 1 j A 1 i ‾
WhereinPresentation class for n classification in, parameter A1The center of all data, i.e., the average value of all data;A1iRepresent The parameter A in the n-th class1In the value at certain moment, j is represented in the n-th class comprising parameter A1Quantity.
7. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the step 6 is specifically included:
Using black-box model according to the factor of influence under each classification and gas permeability data set, correspond to each classification and build one thoroughly Gas predicts submodel, wherein, used as mode input parameter, gas permeability parameter is then output parameter to factor of influence.
8. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the step 7 is specifically included:
Raw material and fuel quality parameter after adjustment or operational control parameter are constituted into one group of new data, every group of new data and each class Other factor of influence center carries out traversal contrast, calculates its data characteristics which kind of is best suited and is sorted out;
The gas permeability under its classification is selected to predict submodel according to categorization results, by the raw material and fuel quality parameter after adjustment or behaviour Make control parameter as |input paramete, the then permeability value that the output of gas permeability forecast model is predicted.
9. it is according to claim 1 prediction blast furnace permeability method, it is characterised in that the step 8 is specifically included:
The frequency of latest data is gathered according to operation of blast furnace database, the most early stage history of corresponding duration is covered using latest data The data of modeling, dynamic updates the latest data of gas permeability forecast model.
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CN111680932A (en) * 2020-06-23 2020-09-18 武汉钢铁有限公司 Method and device for acquiring cause of abnormal furnace condition of blast furnace
CN111680932B (en) * 2020-06-23 2023-04-07 武汉钢铁有限公司 Method and device for acquiring cause of abnormal furnace condition of blast furnace
CN114264585A (en) * 2020-09-16 2022-04-01 宝山钢铁股份有限公司 Method for simulating and measuring air permeability of carbon-iron composite furnace charge for production
CN114264585B (en) * 2020-09-16 2023-11-14 宝山钢铁股份有限公司 Method for simulating and measuring air permeability of carbon-iron composite furnace burden for production
CN116340795A (en) * 2023-05-29 2023-06-27 山东一然环保科技有限公司 Operation data processing method for pure oxygen combustion heating furnace

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