CN108647481A - A kind of rotary kiln burning zone temperature flexible measurement method - Google Patents

A kind of rotary kiln burning zone temperature flexible measurement method Download PDF

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CN108647481A
CN108647481A CN201810923361.1A CN201810923361A CN108647481A CN 108647481 A CN108647481 A CN 108647481A CN 201810923361 A CN201810923361 A CN 201810923361A CN 108647481 A CN108647481 A CN 108647481A
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model
temperature
kiln
burning zone
zone temperature
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钱锋
钟伟民
朱远明
杜文莉
梅华
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East China University of Science and Technology
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East China University of Science and Technology
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    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
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    • G06F30/20Design optimisation, verification or simulation
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
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Abstract

The invention discloses a kind of cement rotary kiln burning zone temperature flexible measurement methods.The method includes:It is basic model with rotary kiln end temperature model and kiln end temperature model, migrates to obtain rotary kiln burning zone temperature model to carry out burning zone temperature prediction by model.

Description

A kind of rotary kiln burning zone temperature flexible measurement method
Technical field
The present invention relates to automatic measurement technical field more particularly to the flexible measurement methods of rotary kiln burning zone temperature.
Background technology
Cement is one of important foundation material of architectural engineering.New dry process for cement production flow includes mainly:It is raw Expect preparation, clinker burning, cement production systD and manufacture.Wherein, clinker burning link is the important link of manufacture of cement, clinker The key of quality is the control of rotary kiln burning zone temperature.Coal dust is sprayed by rotary kiln end to be mainly used for heating cement slurry, It is allowed to temperature and reaches 1350 to 1450 degrees Celsius, rotary kiln burning zone temperature is particularly important to clinker quality, and temperature is excessively high, generates Amount of liquid phase it is excessive, viscosity is smaller, brings difficulty to sintering reaction, while excessive temperature is larger to equipment loss;Temperature mistake It is low, at amount of liquid phase it is less, sintering reaction is almost stagnated, and the clinker quality of generation is poor, not up to standard.Due to rotary kiln clinkering zone temperature Degree is in close relations with product quality and energy consumption, therefore, how burning zone temperature is effectively detected, to the refinement of manufacture of cement It is of great significance.
It is of great significance for the detection of rotary kiln burning zone temperature.First, real-time burning zone temperature value is provided, is convenient for Judgement of the operator to rotary kiln operating mode, is better achieved rotary kiln Precise control;It secondly can be by controlling rational temperature Degree is conducive to that kiln lining, stable thermal regulation is protected to extend the service life of equipment.Meanwhile greenhouse gases row can be reduced It puts, environmental protection, reduces the generation of harmful NOx and CO gases, reach the environmental protection index of requirement.
Existing rotary kiln burning zone temperature mainstream is hardware detection and software detection.Hardware detection mainly has colour temperature The methods of meter and kiln cylinder body scanning.Wherein, two-color thermometer belongs to direct detecting method, and adverse circumstances can influence colorimetric in kiln The accuracy of detection of thermometer, while sensor life-time is not grown, detectable effective range is smaller;Kiln cylinder body scanning belongs to indirect Detection, it is easy to be affected by environment, and operation conditions difference is affected to testing result in kiln.Software detection includes mainly base In the method for mechanism model and soft sensor modeling and image recognition based on data, matter is mainly passed through based on mechanism model method Amount conservation and the conservation of energy extrapolate burning zone temperature, explanatory strong, but complicated mechanism, and there are undetectable links;Base Mainly there are the methods of BP neural network, support vector machines in data-driven soft sensor modeling, is built using inputoutput data Mould, it is simple and practicable, there is stronger robustness.But the affinity information that existing method is underused between submodel is exported Estimation.
Invention content
The present invention is intended to provide a kind of rotary kiln burning zone temperature flexible measurement method based on model migration.
The present invention provides a kind of flexible measurement method of rotary kiln burning zone temperature, the method includes:With temperature of kiln head mould Type Ybase1With kiln end temperature model Ybase2For basic model, migrate to obtain burning zone temperature model Y by modelnew, to carry out Burning zone temperature is predicted;
Ybase1=f (Xbase1), Ybase2=f (Xbase2)
Ynew=f (Ybase1,Ybase2)。
In another preferred example, the temperature of kiln head model and kiln end temperature model are used according to field data respectively is based on The modeling method of least squares support of instant learning obtains.
In another preferred example, after selecting sample by instant learning (Just In Time, JIT) strategy, using minimum Two, which multiply support vector machines (Least Square SVM, LSSVM), is modeled, and kiln end temperature and temperature of kiln head model are obtained.
In another preferred example, the instant learning strategy includes step:
(a) similar samples selection;
(b) locally fine point is carried out using similar sample;With
(c) library is updated the data.
The present invention also provides a kind of flexible measurement method of rotary kiln burning zone temperature, the method includes:
(1) it chooses auxiliary variable and robust multivariable pretreatment is carried out to the process data of acquisition;
(2) after pretreated data being selected modeling sample by instant learning (Just In Time, JIT) strategy, It is modeled using least square method supporting vector machine (Least Square SVM, LSSVM), obtains temperature of kiln head model and kiln tail The model of temperature model;With
(3) it is basic model Y with temperature of kiln head model and kiln end temperature modelbase1And Ybase2, migrate to obtain by model Burning zone temperature model YnewCarry out burning zone temperature prediction;
Ybase1=f (Xbase1), Ybase2=f (Xbase2)
Ynew=f (Ybase1,Ybase2)。
In another preferred example, for kiln end temperature model, the auxiliary variable is dore furnace tremie pipe temperature, kiln tail cigarette Chamber pressure and kiln owner's electromechanics stream;For temperature of kiln head model, the auxiliary variable be kiln owner's electromechanics stream, kiln hood three times air temperature and One chamber pressure of grate-cooler.
In another preferred example, the pretreatment of the data includes carrying out abnormity point elimination to the data of acquisition;Using horse Family name describes each variable apart from (Mahalanobis Distance),
Covariance matrixes of the wherein C between input data,For the mean value of input data;
Chi square distribution is used to determine whether for outlier, ifThen it is considered outlier;IfThen it is considered normal point.
In another preferred example, the least square method supporting vector machine expression-form is Wherein K (xi,xj) it is kernel function;Kernel function is Radial basis kernel function, K (xi,xj)=exp (- (x-y)2/2δ2)。
In another preferred example, the method further includes using deviation correction method according to model predictive error to clinkering zone temperature Degree model is corrected.
Accordingly, method provided by the invention makes full use of the affinity information between submodel to carry out output estimation.
Description of the drawings
Fig. 1 is cement firing system whole process figure.
Fig. 2 is kiln end temperature soft-sensing model figure.
Fig. 3 is temperature of kiln head soft-sensing model figure.
Fig. 4 is the model migration strategy figure of Kernel-based methods similitude.
Fig. 5 is shown using robust multivariable abnormality processing to kiln end temperature abnormity point elimination effect.
Fig. 6 is shown using robust multivariable abnormality processing to temperature of kiln head abnormity point elimination effect.
Fig. 7 is kiln end temperature prediction model design sketch.
Fig. 8 is temperature of kiln head prediction model design sketch.
Fig. 9 is burning zone temperature prediction model design sketch.
Specific implementation mode
The present invention is based on " process are similar ", by the information for extracting basic model kiln end temperature and temperature of kiln head model;If Meter experiment, obtains the input/output relation of basic model;Model migration is carried out using the strategy of output planning, obtains clinkering zone temperature Spend model.On this basis, the present invention is completed.
The present invention provides a kind of rotary kiln burning zone temperature flexible measurement method migrated based on model, and the method includes such as Lower step:
Step 1, auxiliary variable are chosen:For kiln end temperature soft-sensing model, the auxiliary variable used is dore furnace blanking Tube temperature degree, kiln tail smoke-box pressure and kiln owner's electromechanics stream;For temperature of kiln head soft-sensing model, the auxiliary variable used is kiln owner's machine Electric current, kiln hood one chamber pressure of air temperature and grate-cooler three times.
Step 2, data prediction:Abnormity point elimination, this method are carried out using robust multivariable technology to the data of acquisition The correlation between variable has been fully considered when rejecting data, and traditional Pauta criterion does not account for the correlation between variable Property.
Step 3, data modeling:Modeling sample selection is carried out using instant learning strategy to pretreated data, is used Modeling method be least square method supporting vector machine, obtain kiln end temperature soft-sensing model and temperature of kiln head soft-sensing model.
Step 4, model migration:Using the migration modeling method of Kernel-based methods similitude, kiln hood, kiln end temperature mould are defined Type is basis model, and burning zone temperature model is object module, and correcting planing method using output carries out model migration, final to obtain To burning zone temperature model.
Step 5, model correction:Using the data acquired in device operational process, deviation is used according to model predictive error Correction method is corrected model.
Kiln end temperature soft-sensing model is used by the technique and process data analysis to cement firing system Auxiliary variable be dore furnace tremie pipe temperature, kiln owner's electromechanics stream and kiln tail smoke-box pressure, dore furnace tremie pipe are exactly rotary kiln Kiln tail, tremie pipe temperature directly directly influence kiln tail smoke-box temperature, and kiln owner's electromechanics stream reflects firing situation in kiln, host electric current Big expression firing situation is good, kiln tail smoke-box stress reaction kiln ventilation situation, and to sum up above several auxiliary variables influence kiln tail temperature Degree.In addition, for temperature of kiln head soft-sensing model, the auxiliary variable that uses is kiln hood air temperature, one chamber pressure of grate-cooler three times With kiln owner's electromechanics stream, the intuitive reacting replacing heat situation of air temperature, the lower pressure of Room comb reflect thickness of feed layer, affect and change kiln hood three times Thermal effect, to affect temperature of kiln head, kiln owner's electromechanics stream, which reflects, is burnt into situation in kiln, kiln owner's current of electric is bigger, firing Situation is better.Therefore these auxiliary variables have been selected in above-mentioned steps one.
In order to improve the confidence level of model data, above-mentioned steps two are using mahalanobis distance (Mahalanobis distance) To describe each variable, the covariance distance of Mahalanobis distance expression data.It is a kind of effective calculating two The method of the similarity of unknown sample collection.It is in view of contacting between various characteristics unlike Euclidean distance.Covariance matrixes of the wherein C between input data,For the mean value of input data.
Chi square distribution is used to determine whether for outlier, chi square distribution is that examine the sample of sampling whether to meet specified Probability distribution.The criterion that robust multivariable Data Preprocessing Technology uses in the present invention for:IfThen think It is outlier, removes outlier;IfThen it is considered normal point, specificallyNumerical value is by searching for card side Distribution table obtains.
Above-mentioned steps three need to complete two work, first, to pretreated data sample, using instant learning strategy into Row modeling sample screens;Second is that sample after screening is obtained kiln end temperature model and kiln hood temperature using least square method supporting vector machine Model is spent, that is, carries out two basic models of step 4.
Instant learning strategy is a kind of common Nonlinear Modeling strategy, and strategic thinking derives from database technology and part Modeling technique.Single compared to world model and traditional partial model characterization operating mode, instant learning strategy is directed to wide variation Process and the process of strong nonlinearity have good modeling effect.
Instant learning strategy basic thought is accumulated in data from history, is found out and is matched with current queries sample mode Data sample is used for locally fine point, so as to obtain better modeling accuracy.Measuring similarity between sample is frequently with Europe Family name's distance:
Wherein, xqIndicate query sample input to be predicted, the Euclidean distance between sample is bigger, shows between sample Similarity is lower, thus the possibility for being selected as locally fine point sample is lower.Instant learning strategy step is as follows:
The first step, similar samples selection, new samples and data base querying sample carry out Euclidean distance measurement, the size of distance The size of similitude is shown, Euclidean distance expression formula is such as
Second step is ranked up after calculating distance according to apart from size, cement process data characteristic is based on, in the present invention A kind of embodiment in, before selected and sorted 70% sample carry out locally fine point;
Third walks, and after selecting similar sample, removes the data for most initially entering database, adds new point and enter data Library selects 300 data points for the database volume of kiln tail, temperature of kiln head model in one embodiment of the invention, Library can be effectively updated the data, ensures effect while reducing operation time.
Kiln tail, temperature of kiln head are modeled using modeling method of least squares support method.
Least square method supporting vector machine optimization problem is solved using Lagrangian method
Least square method supporting vector machine table It is up to formWherein K (xi,xj) it is kernel function, the present invention uses kernel function for radial base core letter Number, K (xi,xj)=exp (- (x-y)2/2δ2)。
Wherein it needs to be determined that parameter be γ and δ, the present invention be directed to kiln end temperature least square method supporting vector machine parameter: γ=10, δ=10;For the least square method supporting vector machine parameter of temperature of kiln head:γ=20, δ=5.
Using the migration modeling method of Kernel-based methods similitude, kiln hood, kiln end temperature model are defined as basic model, is needed Obtained burning zone temperature model is new model, and then corrects planing method using input and output and carry out model migration.It is basic Step:The information extraction of basic model kiln end temperature and temperature of kiln head model;Contrived experiment obtains the input and output of basic model Relationship;Difference assessment is carried out to basic model and object module;Model migration is carried out using the strategy of output planning;To model into Row model is verified.
Basic model is temperature of kiln head model Ybase1With kiln end temperature model Ybase2, basic model information and new model are believed Breath has similitude, such as when klining is in order, burning zone temperature is high, while kiln hood, kiln end temperature also can be higher;Work as kiln Firing situation is poor, and burning zone temperature is low, while kiln hood, kiln end temperature also can be relatively low, therefore basic model information and new model Information has similitude.Burning zone temperature new model is rotary kiln burning zone temperature model Ynew
Ybase1=f (Xbase1), Ybase2=f (Xbase2)
Ynew=f (Ybase1,Ybase2)
Using actual field data, carried out using the least square method supporting vector machine algorithm based on instant learning strategy pre- It surveys, instant learning database selection 30, least square method supporting vector machine parameter:γ=20, δ=5.
Above-mentioned steps five are modified model using new data during model running, are adopted according to model predictive error Model is corrected with deviation correction method.
WhereinOutput valve after being corrected for current time,For the predicted value of current time model output, K is school Positive coefficient, Y (t-1) andThe predicted value exported for previous moment actual value and model.Wherein, correction coefficient is especially It is important, 6 hours are defined as a period, correction coefficient is the model error phase of present period model error and previous period Except acquiring,
Wherein Y (ti) it is data in present period,For the average value of present period interior prediction value;Y(ti- T) be before Data in one period,For the average value of previous period interior prediction value, K=mean (Ki), by KiIt is averaged and can be obtained Correction factor.
In one embodiment of the invention, model is carried out to burning zone temperature new model using test set data to test Card.
The feature that the features described above or embodiment that the present invention mentions are mentioned can be in any combination.Disclosed in this case specification All features can be used in combination with any composition form, each feature disclosed in specification, any can provide it is identical, The alternative characteristics of impartial or similar purpose replace.Therefore, it is only impartial or similar spy except having special instruction, revealed feature The general example of sign.
Main advantages of the present invention are:
1, Kernel-based methods similitude carries out model migration, can utilize less number on the basis of the model having built up According to the new model for establishing similar process.
2, using robust multivariable Data Preprocessing Technology, it is contemplated that the correlation between decision variable so that training mould Type quality of data higher.
3, instant learning strategy and modeling method of least squares support algorithm are effectively combined, enables to model more preferable Ground adapts to the frequent variation of operating mode.
4, method provided by the invention can effectively reduce hardware cost.
5, rotary kiln burning zone temperature flexible measurement method provided by the invention can be effectively predicted scene and be difficult to measure in real time Burning zone temperature.
Present invention will be further explained below with reference to specific examples.It should be understood that these embodiments are merely to illustrate the present invention Rather than it limits the scope of the invention.In the following examples, the experimental methods for specific conditions are not specified, usually according to conventional strip Part or according to the normal condition proposed by manufacturer.Unless otherwise stated, otherwise all percentage, ratio, ratio or number is pressed Weight meter.The unit in percent weight in volume in the present invention is well-known to those skilled in the art, such as refers to 100 The weight of solute in the solution of milliliter.Unless otherwise defined, all professional and scientific terms used in text and this field are ripe It is identical to practice meaning known to personnel.In addition, any method and material similar or impartial to described content all can be applied to In the method for the present invention.The preferred methods and materials described herein are for illustrative purposes only.
Embodiment 1
Fig. 5, Fig. 6 are using robust multivariable abnormality processing to kiln end temperature, temperature of kiln head abnormity point elimination effect, parameter Selection 0.95.IfThen it is considered outlier, removes outlier;IfThen it is considered just Chang Dian.Pretreated normal data is modeled for kiln end temperature and temperature of kiln head.
Embodiment 2
Fig. 7 is kiln end temperature prediction model design sketch, instant learning database selection 300, least square method supporting vector machine Parameter:γ=10, δ=10.
Embodiment 3
Fig. 8 is temperature of kiln head prediction model design sketch, instant learning database selection 300, least square method supporting vector machine Parameter:γ=20, δ=5.
Embodiment 4
Fig. 9 is burning zone temperature prediction model design sketch, the kiln end temperature model that is respectively obtained according to embodiment 2 and 3 and Temperature of kiln head model, the least square method supporting vector machine algorithm based on instant learning strategy predict burning zone temperature, i.e., When learning database selection 30, least square method supporting vector machine parameter:γ=20, δ=5.
The foregoing is merely illustrative of the preferred embodiments of the present invention, is not limited to the substantial technological content model of the present invention It encloses, substantial technological content of the invention is broadly to be defined in the right of application, any technology that other people complete Entity or method also or a kind of equivalent change, will if identical with defined in the right of application It is considered as being covered by among the right.

Claims (9)

1. a kind of flexible measurement method of rotary kiln burning zone temperature, which is characterized in that the method includes:With temperature of kiln head model Ybase1With kiln end temperature model Ybase2For basic model, migrate to obtain burning zone temperature model Y by modelnew, to be burnt At band temperature prediction;
Ybase1=f (Xbase1), Ybase2=f (Xbase2)
Ynew=f (Ybase1,Ybase2)。
2. the flexible measurement method of rotary kiln burning zone temperature as described in claim 1, which is characterized in that the temperature of kiln head mould Type and kiln end temperature model are obtained according to field data using the modeling method of least squares support based on instant learning respectively.
3. the flexible measurement method of rotary kiln burning zone temperature as claimed in claim 2, which is characterized in that pass through instant learning After (Just In Time, JIT) strategy selects sample, using least square method supporting vector machine (Least Square SVM, LSSVM it) is modeled, obtains kiln end temperature and temperature of kiln head model.
4. the flexible measurement method of rotary kiln burning zone temperature as claimed in claim 3, which is characterized in that the instant learning plan It slightly include step:
(a) similar samples selection;
(b) locally fine point is carried out using similar sample;
(c) library is updated the data.
5. a kind of flexible measurement method of rotary kiln burning zone temperature, which is characterized in that the method includes:
(1) it chooses auxiliary variable and robust multivariable pretreatment is carried out to the process data of acquisition;
(2) it after pretreated data being selected modeling sample by instant learning (Just In Time, JIT) strategy, uses Least square method supporting vector machine (Least Square SVM, LSSVM) is modeled, and temperature of kiln head model and kiln end temperature are obtained The model of model;
(3) it is basic model Y with temperature of kiln head model and kiln end temperature modelbase1And Ybase2, migrated and be burnt by model Band temperature model YnewCarry out burning zone temperature prediction;
Ybase1=f (Xbase1), Ybase2=f (Xbase2)
Ynew=f (Ybase1,Ybase2)。
6. the flexible measurement method of rotary kiln burning zone temperature as claimed in claim 5, which is characterized in that for kiln end temperature mould Type, the auxiliary variable are dore furnace tremie pipe temperature, kiln tail smoke-box pressure and kiln owner's electromechanics stream;For temperature of kiln head model, The auxiliary variable is kiln owner's electromechanics stream, kiln hood one chamber pressure of air temperature and grate-cooler three times.
7. the flexible measurement method of rotary kiln burning zone temperature as claimed in claim 5, which is characterized in that the pre- place of the data Reason includes carrying out abnormity point elimination to the data of acquisition;Each change is described using mahalanobis distance (Mahalanobis Distance) Amount,
Covariance matrixes of the wherein C between input data,For the mean value of input data;
Chi square distribution is used to determine whether for outlier, ifThen it is considered outlier;IfThen it is considered normal point.
8. the flexible measurement method of rotary kiln burning zone temperature as claimed in claim 5, which is characterized in that the least square branch Holding vector machine expression-form isWherein K (xi,xj) it is kernel function;Kernel function is radial base core letter Number, K (xi,xj)=exp (- (x-y)2/2δ2)。
9. such as the flexible measurement method of claim 5-8 any one of them rotary kiln burning zone temperatures, which is characterized in that the side Method further includes being corrected to burning zone temperature model using deviation correction method according to model predictive error.
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Application publication date: 20181012