CN105169979B - A kind of automotive paints mixing color method - Google Patents

A kind of automotive paints mixing color method Download PDF

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CN105169979B
CN105169979B CN201510570143.0A CN201510570143A CN105169979B CN 105169979 B CN105169979 B CN 105169979B CN 201510570143 A CN201510570143 A CN 201510570143A CN 105169979 B CN105169979 B CN 105169979B
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CN105169979A (en
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赵勤学
杨俊杰
孔亚非
黄毅
李亚
杜文妍
黄羹墙
杨俊彬
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Shanghai University of Electric Power
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Abstract

本发明涉及一种汽车油漆颜色调配方法,包括步骤:S1:采集待补漆车辆的表面图像,并根据采集的表面图像识别得到表面颜色信息;S2:根据表面颜色信息生成对应的粗调色配方,且基于该调色配方获取指定比例的油漆色母,混合搅拌并通过反溃补偿得到所需油漆。与现有技术相比,本发明实现了待补漆车辆表面油漆颜色的自动调制,克服了人工调制凭借经验调配的效率低下及经验不足的弊端,且大大减少油漆挥发对人体造成的伤害。

The invention relates to a method for blending colors of automobile paint, comprising the steps of: S1: collecting a surface image of a vehicle to be repainted, and identifying and obtaining surface color information according to the collected surface image; S2: generating a corresponding rough color matching formula according to the surface color information , and obtain the specified proportion of paint color masterbatch based on the color formula, mix and stir to obtain the required paint through anti-collapse compensation. Compared with the prior art, the present invention realizes the automatic modulation of the paint color on the surface of the vehicle to be repainted, overcomes the disadvantages of low efficiency and insufficient experience of manual modulation based on experience, and greatly reduces the damage caused by paint volatilization to the human body.

Description

一种汽车油漆颜色调配方法A kind of automobile paint color blending method

技术领域technical field

本发明涉及汽车补漆领域,尤其是涉及一种汽车油漆颜色调配方法。The invention relates to the field of automotive paint repairs, in particular to a color blending method for automotive paint.

背景技术Background technique

近些年,汽车工业飞速发展,汽车普及速度较快,特别是家用轿车。但随着汽车产量的急剧增多,汽车表面油漆的使用也不断增加。一方面,汽车生产商生产完汽车后,需要使用特定颜色的油漆对其表面进行处理,另一方面,随着汽车不断增加,交通事故也随之骤升,汽车表面的碰损在所难免,大量汽车修理厂需要使用特定颜色的油漆对其进行处理。但现行方案是,各生产厂商或其4S店只能够根据颜色配方比例调节来获得需要的颜色,要调配颜色预先已经确定好各成分比例,而各修理厂则大量采用有一定经验技术的油漆工来人工配制所需颜色。In recent years, with the rapid development of the automobile industry, the popularization of automobiles is rapid, especially for family cars. However, with the rapid increase of automobile production, the use of automobile surface paint is also increasing. On the one hand, automobile manufacturers need to use specific color paint to treat the surface after the production of automobiles. On the other hand, as the number of automobiles continues to increase, traffic accidents also rise sharply, and collision damage to the surface of automobiles is inevitable. Lots of body shops need to treat them with a specific color of paint. However, the current plan is that each manufacturer or its 4S shop can only obtain the required color according to the ratio of the color formula. To adjust the color, the ratio of each component has been determined in advance, and each repair shop uses a large number of experienced painters. To artificially prepare the desired color.

以上做法存在着严重不足。4S店按照配方比例调制出来的颜色往往与实际车表颜色存在偏差,因为汽车在使用过程,表面颜色经受风吹日晒,与出厂颜色存在一定偏差,而修理厂采用人工配制的方法,完全凭借经验手工调试。一方面常年累月的手工调制油漆会对人体造成伤害,另一方面,油漆供应厂商众多,各厂商油漆特性不一致,种类繁多。因此,油漆工很难凭经验准确把握调配比例,存在技术上的问题,并且配制过程较慢,效率较低。There are serious deficiencies in the above approach. The color prepared by the 4S shop according to the formula ratio often deviates from the actual car color, because the surface color of the car is exposed to wind and sun during use, and there is a certain deviation from the factory color. Experience manual debugging. On the one hand, the manual preparation of paint for many years will cause harm to the human body; on the other hand, there are many paint suppliers, and the paint characteristics of each manufacturer are inconsistent and there are various types. Therefore, it is difficult for painters to accurately grasp the deployment ratio based on experience, there are technical problems, and the preparation process is slow and the efficiency is low.

发明内容Contents of the invention

本发明的目的就是为了克服上述现有技术存在的缺陷而提供一种汽车油漆颜色调配方法。Purpose of the present invention is exactly to provide a kind of automobile paint color blending method in order to overcome the defective that above-mentioned prior art exists.

本发明的目的可以通过以下技术方案来实现:The purpose of the present invention can be achieved through the following technical solutions:

一种汽车油漆颜色调配方法,包括步骤:A kind of automobile paint color blending method, comprises steps:

S1:采集待补漆车辆的表面图像,并根据采集的表面图像识别得到表面颜色信息;S1: Collect the surface image of the vehicle to be repainted, and obtain surface color information based on the collected surface image recognition;

S2:根据表面颜色信息生成对应的粗调色配方,且基于该粗调色配方获取指定比例的油漆色母,混合搅拌并通过反馈补偿得到所需油漆。S2: Generate the corresponding rough color formula according to the surface color information, and obtain the specified proportion of paint masterbatch based on the rough color formula, mix and stir, and obtain the required paint through feedback compensation.

所述步骤S2具体包括步骤:Described step S2 specifically comprises the steps:

S21:粗调:基于粗调色配方,获取指定比例的油漆色母,混合并搅拌;S21: Coarse adjustment: Based on the rough adjustment formula, obtain the paint color masterbatch in a specified ratio, mix and stir;

S22:反馈:从搅拌得到的油漆中取样得到油漆样品,并判断样品颜色与表面颜色之间的色差是否小于阈值,若为是,则调配结束,若为否,则执行步骤S23;S22: Feedback: get a paint sample from the paint obtained by stirring, and judge whether the color difference between the sample color and the surface color is less than a threshold value, if yes, the blending ends, if no, then execute step S23;

S23:微调:根据样品颜色与表面颜色之间的色差生成补偿配方,且基于该补偿配方获取指定比例的油漆色母,混合并搅拌。S23: Fine-tuning: Generate a compensation formula according to the color difference between the sample color and the surface color, and obtain a specified proportion of paint color masterbatch based on the compensation formula, mix and stir.

所述步骤S22具体包括步骤:Described step S22 specifically comprises the steps:

S221:将搅拌好的油漆涂抹于与汽车外壳同材质的采样板上获得油漆样品;S221: Apply the stirred paint on a sampling plate made of the same material as the car shell to obtain a paint sample;

S222:由颜色传感器捕捉油漆样品在基光源照射下发出的光线,根据捕捉的光线获悉样品颜色;S222: The color sensor captures the light emitted by the paint sample under the irradiation of the base light source, and learns the color of the sample according to the captured light;

S223:判断样品颜色与表面颜色之间的色差是否小于阈值,若为是,则调配结束,若为否,则执行步骤S23。S223: Judging whether the color difference between the sample color and the surface color is less than a threshold, if yes, then the blending ends, if no, then execute step S23.

所述步骤S2中得到所需油漆后,将调制日志上传上位机并进行保存。After the required paint is obtained in the step S2, the modulation log is uploaded to the host computer and saved.

所述步骤S 1中采用SVM分类器根据采集的表面图像识别得到表面颜色信息,所述SVM分类器核函数为RBF核函数。In the step S1, the SVM classifier is used to identify and obtain surface color information based on the collected surface image, and the kernel function of the SVM classifier is an RBF kernel function.

所述SVM分类器的支持向量机参数的优化过程采用基于遗传与模拟退火的混合粒子群算法进行,具体包括步骤:The optimization process of the support vector machine parameter of described SVM classifier adopts the hybrid particle swarm algorithm based on genetic and simulated annealing to carry out, specifically comprises steps:

S11:设定GA的种群规模、交叉率和变异率,最大进化代数和GA最小适应度阈值;S11: Set the population size, crossover rate and mutation rate of GA, the maximum evolutionary generation and the minimum fitness threshold of GA;

S12:生成GA的初始种群,其中,每一个GA染色体代表一组PSO加速系数;S12: Generate an initial population of GA, where each GA chromosome represents a set of PSO acceleration coefficients;

S13:计算GA的个体适应值;S13: Calculate the individual fitness value of GA;

S14:由得到的个体适应值计算每个个体的选择概率,实施选择、交叉和变异,生成新一代GA种群;S14: Calculate the selection probability of each individual from the obtained individual fitness value, implement selection, crossover and mutation, and generate a new generation of GA population;

S15:判断以下条件是否至少有一个成立:S15: Determine whether at least one of the following conditions is established:

a.进化代数达到最大进化代数,a. The evolution algebra reaches the maximum evolution algebra,

b.个体适应值达到GA最小适应度阈值,b. The individual fitness value reaches the GA minimum fitness threshold,

若为否,则返回步骤S13,若为是,则执行步骤S16;If no, then return to step S13, if yes, then perform step S16;

S16:输出最优值,为该混合粒子群算法的最优解。S16: Output the optimal value, which is the optimal solution of the hybrid particle swarm optimization algorithm.

所述步骤S13具体包括步骤:The step S13 specifically includes the steps of:

S131:设定PSO种群规模、最大迭代次数,PSO最小适应度阈值,其中每一个PSO粒子代表一组SVM分类器的优化参数;S131: Set the PSO population size, the maximum number of iterations, and the PSO minimum fitness threshold, where each PSO particle represents a set of optimized parameters for the SVM classifier;

S132:初始化加速系数、惯性权重系数,计算粒子初始速度和位置,并初始化模拟退火算法初值;S132: Initialize the acceleration coefficient and inertia weight coefficient, calculate the initial velocity and position of the particle, and initialize the initial value of the simulated annealing algorithm;

S133:更新粒子速度和位置,并计算更新前后适应值差ΔE;S133: Update the particle velocity and position, and calculate the fitness value difference ΔE before and after the update;

S134:判断适应值差是否大于0,若为是,则执行步骤S136,若否,则执行步骤S135;S134: Determine whether the fitness value difference is greater than 0, if yes, execute step S136, if not, execute step S135;

S135:判断exp(ΔE/T)>rand(0,1)是否成立,若为是,则执行步骤S136,若为否,则执行步骤S137;S135: Determine whether exp(ΔE/T)>rand(0,1) is established, if yes, execute step S136, if no, execute step S137;

S136:接受更新结果,并执行步骤S138;S136: accept the update result, and execute step S138;

S137:拒绝更新结果,回滚粒子速度和位置,并执行步骤S138;S137: Refuse to update the result, roll back particle velocity and position, and execute step S138;

S138:计算自适应权重系数,并根据适应值更新个体极值和全局极值;S138: Calculate the adaptive weight coefficient, and update the individual extremum and the global extremum according to the adaptive value;

S139:判断以下条件是否至少有一个成立:S139: Determine whether at least one of the following conditions is established:

c.迭代次数达到最大迭代次数,c. The number of iterations reaches the maximum number of iterations,

d.达到PSO最小适应度阈值,d. Reach the PSO minimum fitness threshold,

若为否,则返回步骤S133;若为是,则求出最优值,由PSO所找到的最优值即为GA的个体适应度。If no, return to step S133; if yes, find the optimal value, and the optimal value found by PSO is the individual fitness of GA.

与现有技术相比,本发明具有以下优点:Compared with the prior art, the present invention has the following advantages:

1)实现了待补漆车辆表面油漆颜色的自动调制,克服了人工调制凭借经验调制的效率低下及经验不足的弊端,且大大减少油漆挥发对人体造成的伤害。1) The automatic modulation of the paint color on the surface of the vehicle to be repainted is realized, which overcomes the disadvantages of low efficiency and insufficient experience of manual modulation based on experience modulation, and greatly reduces the damage caused by paint volatilization to the human body.

2)该装置能够根据车表颜色的实际情况进行调制,不单纯依靠已有配色方案,调制出来的颜色更加精确、可靠,减少因油漆调色不准而出现返工的现象,节约大量人力,物力。2) The device can be adjusted according to the actual situation of the color of the car watch, instead of relying solely on the existing color scheme, the color modulated is more accurate and reliable, reducing the phenomenon of rework due to inaccurate paint color matching, saving a lot of manpower and material resources .

3)在油漆调色这一特殊情况下,采用图像处理与传感器反馈补偿环节互补的方式,既能够保证调制方法的准确度,又可以减少硬件系统资源的开支,提高调制效率。3) In the special case of paint toning, the complementary method of image processing and sensor feedback compensation can not only ensure the accuracy of the modulation method, but also reduce the expenditure of hardware system resources and improve the modulation efficiency.

附图说明Description of drawings

图1为本发明的主要步骤流程示意图;Fig. 1 is a schematic flow chart of the main steps of the present invention;

图2为本发明的流程示意图;Fig. 2 is a schematic flow sheet of the present invention;

图3为本发明的方法控制流向图;Fig. 3 is a method control flow chart of the present invention;

其中1、调配机构,2、微处理器。Wherein 1, deployment mechanism, 2, microprocessor.

具体实施方式detailed description

下面结合附图和具体实施例对本发明进行详细说明。本实施例以本发明技术方案为前提进行实施,给出了详细的实施方式和具体的操作过程,但本发明的保护范围不限于下述的实施例。The present invention will be described in detail below in conjunction with the accompanying drawings and specific embodiments. This embodiment is carried out on the premise of the technical solution of the present invention, and detailed implementation and specific operation process are given, but the protection scope of the present invention is not limited to the following embodiments.

一种汽车油漆颜色调配方法,如图1和图2所示,包括步骤:A kind of automobile paint color blending method, as shown in Figure 1 and Figure 2, comprises steps:

S1:采集待补漆车辆的表面图像,并根据采集的表面图像识别得到表面颜色信息,具体包括步骤:S1: Collect the surface image of the vehicle to be repainted, and obtain surface color information based on the collected surface image recognition, specifically including steps:

步骤S1中采用SVM分类器根据采集的表面图像识别得到表面颜色信息,SVM分类器核函数为RBF核函数。In step S1, an SVM classifier is used to identify surface color information based on the collected surface image, and the kernel function of the SVM classifier is an RBF kernel function.

SVM分类器的支持向量机参数的优化过程采用基于遗传与模拟退火的混合粒子群算法进行,具体包括步骤:The optimization process of the support vector machine parameters of the SVM classifier is carried out using a hybrid particle swarm optimization algorithm based on genetics and simulated annealing, which specifically includes steps:

S11:设定GA(遗传算法)的种群规模、交叉率和变异率,最大进化代数和GA最小适应度阈值;S11: Set the population size, crossover rate and mutation rate of GA (genetic algorithm), the maximum evolutionary generation and the minimum fitness threshold of GA;

S12:生成GA的初始种群,其中,每一个GA染色体代表一组PSO(粒子群算法)加速系数;S12: Generate an initial population of GA, wherein each GA chromosome represents a set of PSO (particle swarm optimization) acceleration coefficients;

S13:计算GA的个体适应值,具体包括步骤:S13: Calculating the individual fitness value of GA, specifically including steps:

S131:设定PSO种群规模、最大迭代次数,PSO最小适应度阈值,其中每一个PSO粒子代表一组SVM分类器的优化参数,优化参数具体指RBF核函数参数和惩罚因子;S131: Set the PSO population size, the maximum number of iterations, and the PSO minimum fitness threshold, wherein each PSO particle represents a set of optimization parameters of the SVM classifier, and the optimization parameters specifically refer to RBF kernel function parameters and penalty factors;

S132:初始化加速系数、惯性权重系数,计算粒子初始速度和位置,并初始化模拟退火算法初值;S132: Initialize the acceleration coefficient and inertia weight coefficient, calculate the initial velocity and position of the particle, and initialize the initial value of the simulated annealing algorithm;

S133:更新粒子速度和位置,并计算更新前后适应值差ΔE;S133: Update the particle velocity and position, and calculate the fitness value difference ΔE before and after the update;

S134:判断适应值差是否大于0,若为是,则执行步骤S136,若否,则执行步骤S135;S134: Determine whether the fitness value difference is greater than 0, if yes, execute step S136, if not, execute step S135;

S135:判断exp(ΔE/T)>rand(0,1)是否成立,若为是,则执行步骤S136,若为否,则执行步骤S137;S135: Determine whether exp(ΔE/T)>rand(0,1) is established, if yes, execute step S136, if no, execute step S137;

S136:接受更新结果,并执行步骤S138;S136: accept the update result, and execute step S138;

S137:拒绝更新结果,回滚粒子速度和位置,并执行步骤S138;S137: Refuse to update the result, roll back particle velocity and position, and execute step S138;

S138:计算自适应权重系数,并根据适应值更新个体极值和全局极值;S138: Calculate the adaptive weight coefficient, and update the individual extremum and the global extremum according to the adaptive value;

S139:判断以下条件是否至少有一个成立:S139: Determine whether at least one of the following conditions is established:

c.迭代次数达到最大迭代次数,c. The number of iterations reaches the maximum number of iterations,

d.达到PSO最小适应度阈值,d. Reach the PSO minimum fitness threshold,

若为否,则返回步骤S133;若为是,则求出最优值,由PSO所找到的最优值即为GA的个体适应度。If no, return to step S133; if yes, find the optimal value, and the optimal value found by PSO is the individual fitness of GA.

S14:由得到的个体适应值计算每个个体的选择概率,实施选择、交叉和变异,生成新一代GA种群;S14: Calculate the selection probability of each individual from the obtained individual fitness value, implement selection, crossover and mutation, and generate a new generation of GA population;

S15:判断以下条件是否至少有一个成立:S15: Determine whether at least one of the following conditions is established:

a.进化代数达到最大进化代数,a. The evolution algebra reaches the maximum evolution algebra,

b.个体适应值达到GA最小适应度阈值,b. The individual fitness value reaches the GA minimum fitness threshold,

若为否,则返回步骤S13,若为是,则执行步骤S16;If no, then return to step S13, if yes, then perform step S16;

S16:输出最优值,为该混合粒子群算法的最优解。S16: Output the optimal value, which is the optimal solution of the hybrid particle swarm optimization algorithm.

S2:根据表面颜色信息生成对应的粗调色配方,且基于该粗调色配方获取指定比例的油漆色母,混合搅拌并通过反馈补偿得到所需油漆,具体包括步骤:S2: Generate the corresponding rough color formula according to the surface color information, and obtain the specified proportion of paint masterbatch based on the rough color formula, mix and stir, and obtain the required paint through feedback compensation, specifically including steps:

S21:粗调:基于粗调色配方,获取指定比例的油漆色母,混合并搅拌;S21: Coarse adjustment: Based on the rough adjustment formula, obtain the paint color masterbatch in a specified ratio, mix and stir;

S22:反馈:从搅拌得到的油漆中取样得到油漆样品,并判断样品颜色与表面颜色之间的色差是否小于阈值,若为是,则调配结束,若为否,则执行步骤S23,具体包括步骤:S22: Feedback: get a paint sample from the paint obtained by stirring, and judge whether the color difference between the sample color and the surface color is less than the threshold value, if yes, the blending ends, if no, then execute step S23, specifically including steps :

S221:将搅拌好的油漆涂抹于与汽车外壳同材质的采样板上获得油漆样品;S221: Apply the stirred paint on a sampling plate made of the same material as the car shell to obtain a paint sample;

S222:由颜色传感器捕捉油漆样品在基光源照射下发出的光线,根据捕捉的光线获悉样品颜色;S222: The color sensor captures the light emitted by the paint sample under the irradiation of the base light source, and learns the color of the sample according to the captured light;

S223:判断样品颜色与表面颜色之间的色差是否小于阈值,若为是,则调配结束,若为否,则执行步骤S23。S223: Judging whether the color difference between the sample color and the surface color is less than a threshold, if yes, then the blending ends, if no, then execute step S23.

S23:微调:根据样品颜色与表面颜色之间的色差生成补偿配方,且基于该补偿配方获取指定比例的油漆色母,混合并搅拌;S23: fine-tuning: generate a compensation formula according to the color difference between the sample color and the surface color, and obtain a specified proportion of paint masterbatch based on the compensation formula, mix and stir;

S24:判断该调制结果是否加入调配方案库,如果是,则进行步骤S25,若为否,则执行步骤S26;S24: Determine whether the modulation result is added to the blending scheme library, if yes, proceed to step S25, if not, proceed to step S26;

S25:该粗调色配方和补偿配方融合后得到调配方案,加入调配方案库,并执行步骤S26;S25: The blending plan is obtained after the coarse color-matching formula and the compensation formula are fused, and added to the blending plan library, and step S26 is executed;

S26:上报上位机,生成调配日志,并上传上位机进行保存。S26: Report to the host computer, generate a deployment log, and upload it to the host computer for storage.

如图3所示,该方法的实施方式如下:As shown in Figure 3, the implementation of the method is as follows:

在实施该方法的过程中,微处理器2能够控制配料机构1协调工作,调配料机构1包括所述方法中的粗调、微调、采样等环节机构。通过摄像头采集到汽车车表油漆颜色信息交由微处理器2处理,该采集过程采用一定的方式消除或大大减少光照强度、车表污渍等外部环境可能对调制过程造成影响的因素。微处理器经过图像预处理、SVM模式识别等过程生成调配方案,调配料机构进料进行粗调制,粗调完成后,对调制样品进行采样判断,为消除干扰因素,将样品喷在采样板板,将基光源打在采样板上,通过传感器分析颜色组成,而不是直接将基光源照射在样品溶液上。若分析结果显示缺少某种成分,则根据分析得到的成分比例由调配机构1进料再次调制,该过程循环进行,直到调制结果正确或者达到允许误差范围,则调配完成,根据需要将本次调配方案加入方案库,上报上位机,生成调配日志。在整个调制过程中,微处理器负责控制调配机构和各外围单元的协调工作,如进料,搅拌,触屏显示,通信等工作。需要注意的是,微处理器同时严格控制各不同化学特性油漆的组合行为,优选调配方案等机制。In the process of implementing the method, the microprocessor 2 can control the batching mechanism 1 to work in coordination, and the batching mechanism 1 includes the link mechanisms such as rough adjustment, fine adjustment, and sampling in the method. The paint color information of the car surface collected by the camera is processed by the microprocessor 2. The acquisition process uses a certain method to eliminate or greatly reduce the external environment factors such as light intensity and surface stains that may affect the modulation process. The microprocessor generates a blending plan through image preprocessing, SVM pattern recognition and other processes. The blending mechanism feeds the material for rough modulation. After the rough adjustment is completed, the modulated sample is sampled and judged. In order to eliminate interference factors, the sample is sprayed on the sampling plate. , put the base light source on the sampling plate, and analyze the color composition through the sensor, instead of directly irradiating the base light source on the sample solution. If the analysis result shows that a certain ingredient is missing, then according to the composition ratio obtained by the analysis, it will be re-modulated by the blending mechanism 1, and the process will be repeated until the modulation result is correct or reaches the allowable error range, then the blending is completed. The scheme is added to the scheme library, reported to the host computer, and the deployment log is generated. During the whole brewing process, the microprocessor is responsible for controlling the blending mechanism and the coordination of each peripheral unit, such as feeding, stirring, touch screen display, communication, etc. It should be noted that the microprocessor also strictly controls the combination behavior of paints with different chemical characteristics, and the optimal deployment scheme and other mechanisms.

Claims (5)

1. a kind of automotive paints mixing color method, it is characterised in that including step:
S1:The surface image of touch-up paint vehicle is treated in collection, and obtains surface color information according to the identification of the surface image of collection,
S2:Corresponding coarse adjustment color formula is generated according to surface color information, and designated ratio is obtained based on the coarse adjustment color formula Color masterbatch is painted, mixes and required paint is obtained by feedback compensation;
Surface color information, the SVM points are obtained according to the identification of the surface image of collection using SVM classifier in the step S1 Class device kernel function is RBF kernel functions;
The optimization process of the SVMs parameter of the SVM classifier uses the hybrid particle swarm based on heredity with simulated annealing Algorithm is carried out, and specifically includes step:
S11:Setting GA population scale, crossing-over rate and aberration rate, the minimum fitness threshold value of maximum evolutionary generation and GA,
S12:GA initial population is generated, wherein, each GA chromosome represents one group of PSO accelerator coefficient;
S13:GA individual fitness is calculated,
S14:The select probability of each individual is calculated by obtained individual fitness, implements selection, intersect and make a variation, generation new one For GA populations,
S15:Judge whether at least one sets up following condition:
A. evolutionary generation reaches maximum evolutionary generation,
B. individual fitness reaches the minimum fitness threshold values of GA,
If it has not, then return to step S13, if it has, then step S16 is performed,
S16:Optimal value is exported, for the optimal solution of the Hybrid Particle Swarm.
2. a kind of automotive paints mixing color method according to claim 1, it is characterised in that the step S2 is specifically wrapped Include step:
S21:Coarse adjustment:Based on coarse adjustment color formula, the paint color masterbatch of designated ratio is obtained, is mixed and stirred for;
S22:Feedback:Sample and obtained between paint sample, and judgement sample color and surface color in the paint obtained from stirring Aberration whether be less than threshold value, if it has, then allotment terminates, if it has not, then performing step S23;
S23:Fine setting:According to the aberration generation compensation formula between color sample and surface color, and obtained based on compensation formula The paint color masterbatch of fetching certainty ratio, is mixed and stirred for.
3. a kind of automotive paints mixing color method according to claim 2, it is characterised in that the step S22 is specific Including step:
S221:By the paint application being stirred in obtaining paint sample on the sampling plate of automobile case same material;
S222:The light that paint sample is sent under the irradiation of base light source is caught by color sensor, learned according to the light of seizure Color sample;
S223:Whether the aberration between judgement sample color and surface color is less than threshold value, if it has, then allotment terminates, if It is no, then perform step S23.
4. a kind of automotive paints mixing color method according to claim 1, it is characterised in that obtained in the step S2 After required paint, modulation daily record is uploaded into host computer and preserved.
5. a kind of automotive paints mixing color method according to claim 1, it is characterised in that the step S13 is specific Including step:
S131:PSO population scales, maximum iteration are set, PSO minimum fitness threshold values, each of which PSO particles are represented The Optimal Parameters of one group of SVM classifier;
S132:Accelerator coefficient, inertia weight coefficient are initialized, particle initial velocity and position is calculated, and initialize simulated annealing Algorithm initial value;
S133:Particle rapidity and position are updated, and calculates adaptation value difference Δ E before and after renewal;
S134:Judge to adapt to whether value difference is more than 0, if it has, then step S136 is performed, if it is not, then performing step S135;
S135:Judge whether exp (Δ E/T) > rand (0,1) set up, if it has, then step S136 is performed, if it has not, then holding Row step S137;
S136:Receive to update result, and perform step S138;
S137:Refusal updates result, rollback particle rapidity and position, and performs step S138;
S138:Adaptive weighting coefficient is calculated, and according to adaptive value more new individual extreme value and global extremum;
S139:Judge whether at least one sets up following condition:
C. iterations reaches maximum iteration,
D. the minimum fitness threshold values of PSO are reached,
If it has not, then return to step S133;It is GA individual by the PSO optimal values found if it has, then obtaining optimal value Fitness.
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