CN111061871B - Method for analyzing tendency of government and enterprise service text - Google Patents

Method for analyzing tendency of government and enterprise service text Download PDF

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CN111061871B
CN111061871B CN201911170332.3A CN201911170332A CN111061871B CN 111061871 B CN111061871 B CN 111061871B CN 201911170332 A CN201911170332 A CN 201911170332A CN 111061871 B CN111061871 B CN 111061871B
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郭肇禄
陈远存
张文生
谭力江
罗云
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Abstract

The invention discloses a method for analyzing the tendency of a government and enterprise service text, which optimizes and designs the parameters of a government and enterprise service text classifier by applying a combined sine and cosine algorithm and then analyzes the tendency of the government and enterprise service text by utilizing the optimized government and enterprise service text classifier. In the combined sine and cosine algorithm, a combination factor is generated according to the current evolution state, excellent information extracted from the population is fused by using the combination factor to generate a new individual, and the searching performance of the algorithm is enhanced, so that the efficiency of the text tendency analysis of the government and enterprise services is improved.

Description

Method for analyzing tendency of government and enterprise service text
Technical Field
The invention relates to the field of text mining, in particular to a method for analyzing text tendency of government and enterprise services.
Background
In order to make enterprise service work more efficient, relevant functional departments establish a government and enterprise service information system. Due to the continuous improvement of the government and enterprise service information system, on one hand, enterprises can consult related functional departments about the handling process of related business on the internet; on the other hand, due to the advanced innovation of related functional departments, more and more businesses such as enterprise support declaration and the like can be handled on the internet. In the system of the government and enterprise service information, a large amount of text of the government and enterprise service is generated, such as business consultation text, consultation reply text, service evaluation text and the like. How to improve the enterprise service level by utilizing the accumulated government and enterprise service texts is a technical challenge faced by the current government and enterprise service information system.
In order to improve the efficiency of the government and enterprise service information system, the tendency of some government and enterprise service texts is often needed to be analyzed, for example, the analysis service evaluates whether the texts are positive, negative or neutral. System design developers typically analyze the tendencies of the text of a government enterprise service by using text classification techniques in artificial intelligence. When the text classification technology is used, parameters of a text classifier are required to be optimally designed, and the optimization result of the parameters of the text classifier can influence the analysis accuracy of the text tendency of the government and enterprise services to a great extent. The sine and cosine algorithm is an effective text classifier parameter optimization design algorithm [ Mirjalli, S. (2016.) SCA: a sine cosine algorithm for optimizing presentation Systems, knowledge-Based Systems,96,120 and 133 ], and achieves certain effects when parameters of a plurality of text classifiers are optimally designed. However, when the parameters of the text classifier of the government and enterprise services are optimally designed by the traditional sine and cosine algorithm, the shortcoming of low convergence speed is easy to occur, and the efficiency of the text tendency analysis of the government and enterprise services is greatly influenced.
Disclosure of Invention
The invention aims to provide a method for analyzing the text tendency of the government and enterprise service. The method overcomes the defect that the convergence speed is low easily when the traditional sine and cosine algorithm is applied to the tendency analysis of the government and enterprise service texts to a certain extent, and can improve the efficiency of the tendency analysis of the government and enterprise service texts.
The technical scheme of the invention is as follows: a method for analyzing text tendency of government and enterprise services comprises the following steps:
step 1, collecting a government and enterprise service text;
step 2, preprocessing the collected government and enterprise service texts to generate a government and enterprise service text data set;
step 3, dividing the government and enterprise service text data set into a training data set and a testing data set;
step 4, determining a government and enterprise service text classifier, and determining parameters of the optimal design required by the government and enterprise service text classifier;
step 5, solving parameters of the optimal design required by the government and enterprise service text classifier by using a combined sine and cosine algorithm;
step 6, utilizing the optimized text classifier of the government and enterprise service to realize the tendency analysis of the text of the government and enterprise service;
the step 5 of solving the parameters of the optimized design required by the text classifier of the government and enterprise service by using the combined sine and cosine algorithm comprises the following steps:
step 5.1, setting the population size MPsize and the maximum search algebra MXG;
step 5.2, setting the current search algebra t to be 0;
step 5.3, randomly generating MPsize individuals to form a population, wherein each individual in the population stores parameters of the optimal design required by the text classifier of the government and enterprise service;
step 5.4, calculating the adaptive value of each individual in the population;
step 5.5, storing the optimal individual SGX in the population;
step 5.6, setting a buffer value kc ═ rand (0,1), wherein rand is a random real number generation function;
step 5.7, setting a threshold probability vp ═ rand (0, 1);
step 5.8, calculating a combination factor vc according to the formula (1):
Figure BDA0002288537920000021
wherein the inertia weight kw is a random number between [0,0.2 ];
step 5.9, set the scaling factor
Figure BDA0002288537920000022
Setting the zoom angle scag to [0,2 x π]Random real numbers in between; set the spreading factor ser to [0,2]Random real numbers in between;
step 5.10, setting an operator probability value ecp ═ rand (0, 1);
step 5.11, if ecp is less than 0.4, go to step 5.13, otherwise go to step 5.12;
step 5.12, go to step 5.15 if ecp is less than 0.8, otherwise go to step 5.17;
step 5.13, executing a sine search operator according to the formula (2):
Figure BDA0002288537920000031
wherein the subscript i ═ 1,2, …, MPsize;
Figure BDA0002288537920000032
representing the ith individual in the population;
Figure BDA0002288537920000033
representing the ith individual in the new generation of population; sin is a sine function;
step 5.14, go to step 5.19;
step 5.15, executing a cosine search operator according to the formula (3):
Figure BDA0002288537920000034
wherein cos is a cosine function;
step 5.16, go to step 5.19;
step 5.17, executing a combined search operator according to the formula (4):
Figure BDA0002288537920000035
wherein PLB is the current search lower bound of the population; PUB is the current search upper bound of the population; the inverse learning factor kow is a random real number between [0,1 ];
step 5.18, if
Figure BDA0002288537920000036
Is less than PIi tIf the adaptive value is not the same as the adaptive value, setting a cache value kc as vc, otherwise, keeping kc unchanged;
step 5.19, if
Figure BDA0002288537920000037
Is less than
Figure BDA0002288537920000038
The adaptive value of (1) is then utilized
Figure BDA0002288537920000039
Replacement of
Figure BDA00022885379200000310
Otherwise, it keeps
Figure BDA00022885379200000311
The change is not changed;
step 5.20, storing the optimal individual SGX in the population, and then setting the current search algebra t to t + 1;
step 5.21, if the current search algebra t is smaller than MXG, turning to step 5.7, otherwise, turning to step 5.22;
and 5.22, extracting parameters of the optimized design of the government and enterprise service text classifier from the optimal individual SGX.
The method applies a combined sine and cosine algorithm to optimally design the parameters of the text classifier of the government and enterprise services, and then analyzes the tendency of the text of the government and enterprise services by utilizing the optimally designed text classifier of the government and enterprise services. In the combined sine and cosine algorithm, a combination factor is adaptively generated by utilizing feedback information in the searching process, and then the combination factor is utilized to fuse beneficial information of general reverse learning individuals and optimal individuals in a population, so that the local searching capability of the algorithm is enhanced, the convergence speed of the algorithm is accelerated, a optimally designed government and enterprise service text classifier is obtained, and the efficiency of the analysis of the tendency of the government and enterprise service text is improved.
Drawings
FIG. 1 is a flow chart of a combined sine and cosine algorithm.
Detailed Description
The technical scheme of the invention is further specifically described by the following embodiments and the accompanying drawings.
Example (b):
in this embodiment, as shown in fig. 1 of the accompanying drawings, the specific implementation steps of the present invention are as follows:
step 1, collecting a government and enterprise service text;
step 2, preprocessing the collected government and enterprise service texts to generate a government and enterprise service text data set, wherein the government and enterprise service text data set consists of 6800 government and enterprise service text samples; the sample of the government and enterprise service text comprises a feature vector of the government and enterprise service text and a tendency category of the government and enterprise service text; the propensity categories for the text of the government enterprise service include, but are not limited to: a positive category, a negative category, and a neutral category; the government and enterprise service text comprises a business consultation text, a consultation reply text and a service evaluation text; the government and enterprise service text can be exported from a government and enterprise service information system;
step 3, dividing the government and enterprise service text data set into a training data set and a testing data set;
step 4, determining that the government and enterprise service text classifier is XGboost, wherein the input variable of the XGboost is a feature vector of the government and enterprise service text, and the output of the XGboost is the tendency category of the government and enterprise service text; determining the learning rate of XGboost, the maximum depth of the decision tree and the number of the decision trees as the parameters of the optimal design required by the government and enterprise service text classifier;
and 5, solving parameters of the optimal design required by the text classifier of the government and enterprise service by using a combined sine and cosine algorithm: the learning rate of the XGboost, the maximum depth of the decision tree and the number of the decision trees;
step 6, utilizing the optimized text classifier of the government and enterprise service to realize the tendency analysis of the text of the government and enterprise service;
the step 5 of solving the parameters of the optimized design required by the text classifier of the government and enterprise service by using the combined sine and cosine algorithm comprises the following steps:
step 5.1, setting the population size MPsize to be 30 and the maximum search algebra MXG to be 5000;
step 5.2, setting the current search algebra t to be 0;
and 5.3, randomly generating MPsize individuals to form a population, wherein each individual in the population stores parameters of the optimized design required by the text classifier XGboost of the government and enterprise services: learning rate, maximum depth of decision tree and number of decision trees;
step 5.4, calculating the adaptive value of each individual in the population, wherein the method for calculating the adaptive value comprises the following steps: extracting the learning rate of the XGboost, the maximum depth of the decision tree and the number of the decision trees from the individual; then, training an enterprise service text classifier XGboost on a training data set by using the extracted learning rate of the XGboost, the maximum depth of the decision trees and the number of the decision trees, calculating the classification error xgb _ err of the trained enterprise service text classifier XGboost on a testing data set, and setting xgb _ err as an individual adaptive value;
step 5.5, storing the optimal individual SGX in the population;
step 5.6, setting a buffer value kc ═ rand (0,1), wherein rand is a random real number generation function;
step 5.7, setting a threshold probability vp ═ rand (0, 1);
step 5.8, calculating a combination factor vc according to the formula (1):
Figure BDA0002288537920000051
wherein the inertia weight kw is a random number between [0,0.2 ];
step 5.9, set the scaling factor
Figure BDA0002288537920000052
Setting the zoom angle scag to [0,2 x π]Random real numbers in between; set the spreading factor ser to [0,2]Random real numbers in between;
step 5.10, setting an operator probability value ecp as rand (0,1), wherein the rand function is a random number function, and the parameter of the rand function is the range generated by the random number;
step 5.11, if ecp is less than 0.4, go to step 5.13, otherwise go to step 5.12;
step 5.12, go to step 5.15 if ecp is less than 0.8, otherwise go to step 5.17;
step 5.13, executing a sine search operator according to the formula (2):
Figure BDA0002288537920000061
wherein the subscript i ═ 1,2, …, MPsize;
Figure BDA0002288537920000062
representing the ith individual in the population;
Figure BDA0002288537920000063
representing the ith individual in the new generation of population; sin is a sine function;
step 5.14, go to step 5.19;
step 5.15, executing a cosine search operator according to the formula (3):
Figure BDA0002288537920000064
wherein cos is a cosine function;
step 5.16, go to step 5.19;
step 5.17, executing a combined search operator according to the formula (4):
Figure BDA0002288537920000065
wherein PLB is the current search lower bound of the population; PUB is the current search upper bound of the population; the inverse learning factor kow is a random real number between [0,1 ];
step 5.18, if
Figure BDA0002288537920000066
Is less than
Figure BDA0002288537920000067
If the adaptive value is not the same as the adaptive value, setting a cache value kc as vc, otherwise, keeping kc unchanged;
step 5.19, if
Figure BDA0002288537920000068
Is less than
Figure BDA0002288537920000069
The adaptive value of (1) is then utilized
Figure BDA00022885379200000610
Replacement of
Figure BDA00022885379200000611
Otherwise, it keeps
Figure BDA00022885379200000612
The change is not changed;
step 5.20, storing the optimal individual SGX in the population, and then setting the current search algebra t to t + 1;
step 5.21, if the current search algebra t is smaller than MXG, turning to step 5.7, otherwise, turning to step 5.22;
and 5.22, extracting parameters of the optimized design of the government and enterprise service text classifier from the optimal individual SGX.
The optimized text classifier of the government and enterprise services is obtained by an optimally designed parameter setting classifier, and the classifier comprises but is not limited to XGboost.

Claims (1)

1. A method for analyzing the tendency of a text of a government and enterprise service is characterized by comprising the following steps:
step 1, collecting a government and enterprise service text;
step 2, preprocessing the collected government and enterprise service texts to generate a government and enterprise service text data set;
step 3, dividing the government and enterprise service text data set into a training data set and a testing data set;
step 4, determining a government and enterprise service text classifier, and determining parameters of the optimal design required by the government and enterprise service text classifier;
step 5, solving parameters of the optimal design required by the government and enterprise service text classifier by using a combined sine and cosine algorithm;
step 6, utilizing the optimized text classifier of the government and enterprise service to realize the tendency analysis of the text of the government and enterprise service;
the step 5 of solving the parameters of the optimized design required by the text classifier of the government and enterprise service by using the combined sine and cosine algorithm comprises the following steps:
step 5.1, setting the population size MPsize and the maximum search algebra MXG;
step 5.2, setting the current search algebra t to be 0;
step 5.3, randomly generating MPsize individuals to form a population, wherein each individual in the population stores parameters of the optimal design required by the text classifier of the government and enterprise service;
step 5.4, calculating the adaptive value of each individual in the population;
step 5.5, storing the optimal individual SGX in the population;
step 5.6, setting a buffer value kc ═ rand (0,1), wherein rand is a random real number generation function;
step 5.7, setting a threshold probability vp ═ rand (0, 1);
step 5.8, calculating a combination factor vc according to the formula (1):
Figure FDA0002288537910000011
wherein the inertia weight kw is a random number between [0,0.2 ];
step 5.9, set the scaling factor
Figure FDA0002288537910000012
Setting the zoom angle scag to [0,2 x π]Random real numbers in between; set the spreading factor ser to [0,2]Random real numbers in between;
step 5.10, setting an operator probability value ecp ═ rand (0, 1);
step 5.11, if ecp is less than 0.4, go to step 5.13, otherwise go to step 5.12;
step 5.12, go to step 5.15 if ecp is less than 0.8, otherwise go to step 5.17;
step 5.13, executing a sine search operator according to the formula (2):
Figure FDA0002288537910000021
wherein the subscript i ═ 1,2, …, MPsize;
Figure FDA0002288537910000022
representing the ith individual in the population;
Figure FDA0002288537910000023
representing the ith individual in the new generation of population; sin is a sine function;
step 5.14, go to step 5.19;
step 5.15, executing a cosine search operator according to the formula (3):
Figure FDA0002288537910000024
wherein cos is a cosine function;
step 5.16, go to step 5.19;
step 5.17, executing a combined search operator according to the formula (4):
Figure FDA0002288537910000025
wherein PLB is the current search lower bound of the population; PUB is the current search upper bound of the population; the inverse learning factor kow is a random real number between [0,1 ];
step 5.18, if
Figure FDA0002288537910000026
Is less than
Figure FDA0002288537910000027
If the adaptive value is not the same as the adaptive value, setting a cache value kc as vc, otherwise, keeping kc unchanged;
step 5.19, if
Figure FDA0002288537910000028
Is less than
Figure FDA0002288537910000029
The adaptive value of (1) is then utilized
Figure FDA00022885379100000210
Replacement of
Figure FDA00022885379100000211
Otherwise, it keeps
Figure FDA00022885379100000212
The change is not changed;
step 5.20, storing the optimal individual SGX in the population, and then setting the current search algebra t to t + 1;
step 5.21, if the current search algebra t is smaller than MXG, turning to step 5.7, otherwise, turning to step 5.22;
and 5.22, extracting parameters of the optimized design of the government and enterprise service text classifier from the optimal individual SGX.
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Denomination of invention: A Tendency Analysis Method of Government Enterprise Service Text

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