CN114510595A - Intelligent data analysis system based on big data - Google Patents
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Abstract
Description
技术领域technical field
本发明涉及图像处理技术领域,具体为基于大数据的智能数据分析系统。The invention relates to the technical field of image processing, in particular to an intelligent data analysis system based on big data.
背景技术Background technique
在日常生活中,衣食住行为人类最基本的需求,是必不可少的生活需求,但是随着生活条件的提高,人们对日常穿搭的要求也越来越高,在一些不同的场合需要不同的装扮效果。人们在衣帽间换好合适的衣服后,同样需要去鞋柜挑选对应的鞋类,以符合整体穿搭出行。In daily life, the basic needs of human beings are the basic needs of clothing, food, shelter and behavior. However, with the improvement of living conditions, people have higher and higher requirements for daily wear. Different occasions require different Dress up effect. After changing into suitable clothes in the cloakroom, people also need to go to the shoe cabinet to select the corresponding footwear to suit the overall outfit and travel.
随着社会的不断进步和人们生活水平的不断提高,人们对美的追求越来越高,鞋柜内鞋子数量变得越来越多,但是无论是衣物还是鞋类都整体分为商务类、休闲类和运动类三大类,其中商务类衣服多为西服,版型平滑,服饰轮廓较直,休闲类整体版型风格多样,服饰轮廓存在波折且较为密集,而运动类服饰较为宽松,服饰轮廓在弯折处呈大波浪形规律变化。With the continuous progress of society and the continuous improvement of people's living standards, people's pursuit of beauty is getting higher and higher, and the number of shoes in the shoe cabinet is becoming more and more. However, both clothing and footwear are generally divided into business, leisure There are three categories of clothing and sports. Among them, business clothing is mostly suits, with a smooth shape and a straight silhouette. The overall shape and style of leisure clothing are diverse, with twists and turns and dense clothing outlines, while sports clothing is looser and has more outlines. It changes regularly in a large wave shape at the bend.
然而城市生活节奏不断加快,很多时候人们在衣帽间搭配好衣物准备出门时,却因鞋柜内鞋子众多,一眼难以辨别和寻找出与衣物搭配的鞋类,需要耗费大量时间在鞋柜内翻找,严重浪费出门时间,甚至造成行程迟到。因此,设计实用性强和可根据衣着智能推出鞋类的基于大数据的智能数据分析系统是很有必要的。However, the pace of urban life is accelerating. Many times, when people are in the cloakroom and ready to go out, there are many shoes in the shoe cabinet. It is difficult to identify and find the shoes that match the clothes at a glance. , a serious waste of time to go out, and even cause the trip to be late. Therefore, it is necessary to design an intelligent data analysis system based on big data that has strong practicability and can intelligently launch footwear according to clothing.
发明内容SUMMARY OF THE INVENTION
本发明的目的在于提供基于大数据的智能数据分析系统,以解决上述背景技术中提出的问题。The purpose of the present invention is to provide an intelligent data analysis system based on big data to solve the problems raised in the above background art.
为了解决上述技术问题,本发明提供如下技术方案:基于大数据的智能数据分析系统,包括大数据更新库、衣着分类模块和出鞋控制模块,所述大数据更新库用于大数据学习更新衣服类型特征,所述衣着分类模块用于分析个人当天穿着所属类型并判断个人当前出行行程类型,所述出鞋控制模块用于根据个人出行行程控制对应类型鞋子所在鞋柜处推行伸出,便于个人直接在符合行程类型的鞋子中任意挑选,所述大数据更新库与衣着分类模块电连接,所述衣着分类模块与出鞋控制模块电连接。In order to solve the above technical problems, the present invention provides the following technical solutions: an intelligent data analysis system based on big data, including a big data update library, a clothing classification module and a shoe control module, the big data update library is used for big data learning and updating clothes Type features, the clothing classification module is used to analyze the type of personal wear on the day and determine the type of the individual's current travel itinerary, and the shoe out control module is used to control the corresponding type of shoes according to the personal travel itinerary. The shoes that conform to the itinerary type are directly selected arbitrarily, the big data update library is electrically connected with the clothing classification module, and the clothing classification module is electrically connected with the shoe output control module.
根据上述技术方案,所述大数据更新库包括数据采集模块和特征学习模块,所述数据采集模块用于通过网络采集不同类型服饰的主要轮廓特征,所述特征学习模块与数据采集模块电连接,所述特征学习模块用于学习整理不同类型衣服综合特征轮廓曲线数据。According to the above technical solution, the big data update library includes a data acquisition module and a feature learning module, the data acquisition module is used to collect main outline features of different types of clothing through a network, and the feature learning module is electrically connected to the data acquisition module, The feature learning module is used for learning and sorting out the comprehensive feature contour curve data of different types of clothes.
根据上述技术方案,所述衣着分类模块包括光敏拍摄单元、成像数据分析模块和逻辑判断模块,所述光敏拍摄单元用于根据光敏变换信号触发拍摄图像,所述成像数据分析模块与光敏拍摄单元电连接,所述成像数据分析模块用于根据成像信息分析计算当前个人穿着所属服饰类型,所述逻辑判断模块与成像数据分析模块以及大数据更新库电连接,所述逻辑判断模块用于根据服饰类型分析判断个人当前出行行程类型。According to the above technical solution, the clothing classification module includes a photosensitive photographing unit, an imaging data analysis module and a logic judgment module, the photosensitive photographing unit is used to trigger the photographing of an image according to the photosensitive transformation signal, and the imaging data analysis module is electrically connected to the photosensitive photographing unit. connected, the imaging data analysis module is used to analyze and calculate the type of clothing that the current individual wears according to the imaging information, the logic judgment module is electrically connected with the imaging data analysis module and the big data update library, and the logic judgment module is used for according to the clothing type. Analyze and determine the current travel itinerary type of an individual.
根据上述技术方案,所述出鞋控制模块包括感应标签单元和执行单元,所述感应标签单元用于记录鞋类数据,并与鞋柜贴合感应传输,所述执行单元用于控制鞋柜在对应鞋类处的底部移动,使对应鞋类从鞋柜内部挪出。According to the above technical solution, the shoe output control module includes an inductive label unit and an execution unit, the inductive label unit is used to record the footwear data, and fit with the shoe cabinet for inductive transmission, and the execution unit is used to control the shoe cabinet in The bottom of the corresponding shoe is moved, so that the corresponding shoe is moved out from the inside of the shoe cabinet.
根据上述技术方案,所述成像数据分析模块包括识别抠图子模块、轮廓拟合子模块和数据计算子模块,所述识别抠图子模块用于对成像画面进行服饰轮廓扣剪,所述轮廓拟合子模块用于对扣剪后的服饰画面轮廓拟合轮廓线,所述数据计算子模块用于计算轮廓线的波动数值并分析判断服饰类型。According to the above technical solution, the imaging data analysis module includes a recognizing and matting sub-module, a contour fitting sub-module and a data calculation sub-module, and the recognizing and matting sub-module is used to perform clothing outline clipping on the imaging picture, and the outline The fitting sub-module is used for fitting the contour line to the outline of the clothing picture after buttoning and cutting, and the data calculating sub-module is used for calculating the fluctuation value of the contour line and analyzing and judging the clothing type.
根据上述技术方案,所述基于大数据的智能数据分析系统的运行方法包括以下步骤:According to the above technical solution, the operation method of the intelligent data analysis system based on big data includes the following steps:
步骤S1:大数据更新库不断更新当下不同类型的服饰主体样式数据,并整理学习主体样式特征数据,得到不同类型服饰的主要特征数据库;Step S1: the big data update library continuously updates the current clothing body style data of different types, and organizes the learning body style feature data to obtain the main feature database of different types of clothing;
步骤S2:个人起床后,根据当前的行程类型进入衣帽间换好与行程搭配的服饰类型,并在镜子面前整理衣着;Step S2: After getting up, the individual enters the cloakroom according to the current itinerary type to change the type of clothing that matches the itinerary, and arranges his clothes in front of the mirror;
步骤S3:当个人在镜子处时,衣着分类模块拍摄当前个人图像,并分析判断服饰类型,判断个人当前出行的行程类型,并将判断结果以电信号形式传送至出鞋控制模块;Step S3: when the individual is at the mirror, the clothing classification module captures the current individual image, analyzes and judges the clothing type, judges the current travel type of the individual, and transmits the judgment result to the shoe control module in the form of an electrical signal;
步骤S4:出鞋控制模块根据当前行程类型,匹配相同类型的感应标签单元,并对相同感应标签单元所在鞋柜处执行移动,控制对应类型的鞋从鞋柜内部挪出。Step S4: The shoe-out control module matches the same type of sensing tag units according to the current itinerary type, and executes movement at the shoe cabinet where the same sensing tag unit is located, so as to control the corresponding type of shoes to be removed from the inside of the shoe cabinet.
根据上述技术方案,所述步骤S3进一步包括以下步骤:According to the above technical solution, the step S3 further includes the following steps:
步骤S31:光敏拍摄单元实时感应环境光,并将感应光敏信号转换为电信号;Step S31: the photosensitive photographing unit senses ambient light in real time, and converts the sensed photosensitive signal into an electrical signal;
步骤S32:当个人在镜子处后,身体遮挡住衣帽间内的灯光源,光敏拍摄单元感应光线变弱触发电信号进行拍摄,并将拍摄图像电信号传输至成像数据分析模块;Step S32: when the individual is at the mirror, the body blocks the light source in the cloakroom, the photosensitive shooting unit senses the weakening of the light and triggers the electrical signal to shoot, and transmits the electrical signal of the captured image to the imaging data analysis module;
步骤S33:成像数据分析模块获取个人在镜子面前的服饰穿着图像数据,对图像数据进行数据分析后将数据分析结果电信号传输至逻辑判断模块;Step S33: the imaging data analysis module obtains the image data of the clothing worn by the individual in front of the mirror, and after performing data analysis on the image data, transmits the electrical signal of the data analysis result to the logic judgment module;
步骤S34:逻辑判断模块获取大数据更新库不同类型服饰的主要特征数据和对当前个人所穿着服饰的数据分析结果做判断,判断当前个人服饰类型后得到个人当前出行的行程类型。Step S34: The logic judgment module obtains the main characteristic data of different types of clothing in the big data update database and judges the data analysis results of the clothing currently worn by the individual, and obtains the current travel itinerary type of the individual after judging the current personal clothing type.
根据上述技术方案,所述步骤S33进一步包括以下步骤:According to the above technical solution, the step S33 further includes the following steps:
步骤S331:获取光敏拍摄单元拍摄的图像数据后,识别抠图子模块对图像进行智能识别;Step S331: After acquiring the image data captured by the photosensitive capturing unit, the recognition and matting sub-module intelligently recognizes the image;
步骤S332:根据图像中个人与背景景深度不同对图像中个人画面进行抠图;Step S332: according to the difference in depth of field between the person and the background in the image, matting the picture of the person in the image;
步骤S333:抠图后的图像为个人身体图像,轮廓拟合子模块对个人身体图像轮廓按固定间隔距离进行标定,并将标定后的点连线形成个人身体轮廓拟合线;Step S333: the image after the cutout is a personal body image, and the contour fitting submodule calibrates the contour of the personal body image at a fixed interval distance, and connects the calibrated points to form a personal body contour fitting line;
步骤S334:数据计算模块截取一段个人身体拟合线,并以线段两端点连线得到标准线,依次测量此段个人身体拟合线中所有标定点值至标准线的距离;Step S334: the data calculation module intercepts a segment of the personal body fitting line, and connects the two ends of the line segment to obtain a standard line, and sequentially measures the distances from all calibration point values in this segment of the personal body fitting line to the standard line;
步骤S335:以标准线一侧为正,另一侧为负,得到所有标定点至标准线距离数列{l1、l2、l3...ln};Step S335: Taking one side of the standard line as positive and the other side as negative, obtain a sequence of distances {l 1 , l 2 , l 3 ...l n } from all calibration points to the standard line;
步骤S336:随机获取数列中任意数值,当与其两侧数值互为正负时,对当前数值进行标记,最终得到当前数列中被标记数值的数量m,并通过被标记的数值m与所有标定点n的比值得到当前轮廓的波动频率H;Step S336: Randomly obtain any value in the sequence, and when the values on both sides of it are positive and negative, mark the current value, and finally obtain the number m of marked values in the current sequence, and pass the marked value m and all calibration points. The ratio of n gets the fluctuation frequency H of the current contour;
步骤S337:通过方差公式计算个人身体拟合线中所有标定点相对标准线的波动程度S2。Step S337: Calculate the fluctuation degree S 2 of all calibration points in the personal body fitting line relative to the standard line by using the variance formula.
根据上述技术方案,所述步骤S336中当前轮廓的波动频率H的计算公式为:According to the above technical solution, the calculation formula of the fluctuation frequency H of the current contour in the step S336 is:
式中,当被标记数值的数量m越大时,则数列中更多相邻的数值互为正负,则相对标准线波动频率更高。In the formula, when the number m of marked values is larger, more adjacent values in the sequence are positive and negative, and the fluctuation frequency is higher relative to the standard line.
所述步骤S337中个人身体拟合线中所有标定点相对标准线的波动程度S2的计算公式为:In the step S337, the calculation formula of the fluctuation degree S2 of all the calibration points in the personal body fitting line relative to the standard line is:
式中,通过方差公式计算数列相对标准线的波动程度,当标定点整体与标准线离散程度大时,则波动程度更大。In the formula, the degree of fluctuation of the sequence relative to the standard line is calculated by the variance formula. When the degree of dispersion between the calibration point as a whole and the standard line is large, the degree of fluctuation is greater.
根据上述技术方案,所述步骤S34进一步包括:According to the above technical solution, the step S34 further includes:
步骤S341:逻辑判断模块通过获取大数据更新库,分别得到商务类、休闲类和运动类服饰所对应的服饰主体样式的波动频和波动程度标准;Step S341: The logic judgment module obtains the fluctuation frequency and fluctuation degree standards of the main clothing styles corresponding to the business, leisure and sports clothing respectively by acquiring the big data update library;
步骤S342:获取当前数据计算子模块分析计算的数据;Step S342: Obtain the data analyzed and calculated by the current data calculation sub-module;
步骤S343:当波动频率H较大时,逻辑判断模块判断为休闲类服饰,输出自由出行的行程类型;Step S343: when the fluctuation frequency H is relatively large, the logic judgment module judges that it is casual clothing, and outputs the itinerary type of free travel;
步骤S344:当波动频率H较小且波动程度S2较大时,逻辑判断模块判断为运动类服饰,输出运动出行的行程类型;Step S344: when the fluctuation frequency H is small and the fluctuation degree S2 is large, the logic judgment module judges that it is sports clothing, and outputs the itinerary type of the sports trip ;
步骤S345:当波动频率H较小且波动程度S2较小时,逻辑判断模块判断为商务类服饰,输出商务出行的行程类型。Step S345: When the fluctuation frequency H is small and the fluctuation degree S2 is small, the logic judgment module judges that it is business clothing, and outputs the itinerary type of business travel.
与现有技术相比,本发明所达到的有益效果是:本发明,通过设置有大数据更新库、衣着分类模块和出鞋控制模块,可以监测每日穿着服饰,判断穿着服饰类型并自动控制鞋柜移出相同类型的鞋子,供个人直接拿起穿着搭配,大大减少了出行时因翻找符合搭配的鞋子而耽误的时间,提高了出行效率。Compared with the prior art, the beneficial effects achieved by the present invention are: the present invention, by being provided with a big data update library, a clothing classification module and a shoe output control module, can monitor daily clothing, judge the type of clothing and automatically control The shoe cabinet removes the same type of shoes for individuals to directly pick up and wear them, which greatly reduces the time wasted by rummaging for matching shoes when traveling, and improves travel efficiency.
附图说明Description of drawings
附图用来提供对本发明的进一步理解,并且构成说明书的一部分,与本发明的实施例一起用于解释本发明,并不构成对本发明的限制。在附图中:The accompanying drawings are used to provide a further understanding of the present invention, and constitute a part of the specification, and are used to explain the present invention together with the embodiments of the present invention, and do not constitute a limitation to the present invention. In the attached image:
图1是本发明的系统模块组成示意图。FIG. 1 is a schematic diagram of the composition of the system modules of the present invention.
具体实施方式Detailed ways
下面将结合本发明实施例中的附图,对本发明实施例中的技术方案进行清楚、完整地描述,显然,所描述的实施例仅仅是本发明一部分实施例,而不是全部的实施例。基于本发明中的实施例,本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例,都属于本发明保护的范围。The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, but not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.
请参阅图1,本发明提供技术方案:基于大数据的智能数据分析系统,包括大数据更新库、衣着分类模块和出鞋控制模块,大数据更新库用于大数据学习更新衣服类型特征,衣着分类模块用于分析个人当天穿着所属类型并判断个人当前出行行程类型,出鞋控制模块用于根据个人出行行程控制对应类型鞋子所在鞋柜处推行伸出,便于个人直接在符合行程类型的鞋子中任意挑选,大数据更新库与衣着分类模块电连接,衣着分类模块与出鞋控制模块电连接;通过设置有大数据更新库、衣着分类模块和出鞋控制模块,可以监测每日穿着服饰,判断穿着服饰类型并自动控制鞋柜移出相同类型的鞋子,供个人直接拿起穿着搭配,大大减少了出行时因翻找符合搭配的鞋子而耽误的时间,提高了出行效率。Please refer to FIG. 1, the present invention provides a technical solution: an intelligent data analysis system based on big data, including a big data update library, a clothing classification module and a shoe control module, the big data update library is used for big data to learn and update clothing type characteristics, clothing The classification module is used to analyze the type of personal wear on the day and determine the current travel itinerary type of the individual. The shoe out control module is used to control the shoe cabinet where the corresponding type of shoes is located according to the personal travel itinerary. Arbitrary selection, the big data update library is electrically connected with the clothing classification module, and the clothing classification module is electrically connected with the shoe control module; by setting the big data update library, the clothing classification module and the shoe control module, the daily clothing can be monitored and judged. Wear the type of clothing and automatically control the shoe cabinet to remove the same type of shoes for individuals to directly pick up and wear them, which greatly reduces the time wasted by rummaging for matching shoes when traveling, and improves travel efficiency.
大数据更新库包括数据采集模块和特征学习模块,数据采集模块用于通过网络采集不同类型服饰的主要轮廓特征,特征学习模块与数据采集模块电连接,特征学习模块用于学习整理不同类型衣服综合特征轮廓曲线数据。The big data update library includes a data acquisition module and a feature learning module. The data acquisition module is used to collect the main outline features of different types of clothing through the network. The feature learning module is electrically connected to the data acquisition module. The feature learning module is used to learn to organize different types of clothing. Characteristic profile curve data.
衣着分类模块包括光敏拍摄单元、成像数据分析模块和逻辑判断模块,光敏拍摄单元用于根据光敏变换信号触发拍摄图像,成像数据分析模块与光敏拍摄单元电连接,成像数据分析模块用于根据成像信息分析计算当前个人穿着所属服饰类型,逻辑判断模块与成像数据分析模块以及大数据更新库电连接,逻辑判断模块用于根据服饰类型分析判断个人当前出行行程类型。The clothing classification module includes a photosensitive shooting unit, an imaging data analysis module and a logic judgment module. The photosensitive shooting unit is used for triggering the shooting of images according to the photosensitive transformation signal, the imaging data analysis module is electrically connected with the photosensitive shooting unit, and the imaging data analysis module is used according to the imaging information. Analyzing and calculating the clothing type currently worn by the individual, the logic judgment module is electrically connected with the imaging data analysis module and the big data update library, and the logic judgment module is used for analyzing and judging the current travel itinerary type of the individual according to the clothing type.
出鞋控制模块包括感应标签单元和执行单元,感应标签单元用于记录鞋类数据,并与鞋柜贴合感应传输,执行单元用于控制鞋柜在对应鞋类处的底部移动,使对应鞋类从鞋柜内部挪出。The shoe-out control module includes an inductive label unit and an execution unit. The inductive label unit is used to record the shoe data and inductively transmit with the shoe cabinet. The execution unit is used to control the bottom movement of the shoe cabinet at the corresponding shoe, so that the corresponding shoe Classes are removed from the inside of the shoe cabinet.
成像数据分析模块包括识别抠图子模块、轮廓拟合子模块和数据计算子模块,识别抠图子模块用于对成像画面进行服饰轮廓扣剪,轮廓拟合子模块用于对扣剪后的服饰画面轮廓拟合轮廓线,数据计算子模块用于计算轮廓线的波动数值并分析判断服饰类型。The imaging data analysis module includes a recognizing and matting sub-module, a contour fitting sub-module and a data computing sub-module. The recognizing and matting sub-module is used to perform clothing contour clipping on the imaging picture, and the contour fitting sub-module is used for clipping and clipping. The outline of the clothing picture fits the outline, and the data calculation sub-module is used to calculate the fluctuation value of the outline and analyze and judge the type of clothing.
基于大数据的智能数据分析系统的运行方法包括以下步骤:The operation method of the intelligent data analysis system based on big data includes the following steps:
步骤S1:大数据更新库不断更新当下不同类型的服饰主体样式数据,并整理学习主体样式特征数据,得到不同类型服饰的主要特征数据库;Step S1: the big data update library continuously updates the current clothing body style data of different types, and organizes the learning body style feature data to obtain the main feature database of different types of clothing;
步骤S2:个人起床后,根据当前的行程类型进入衣帽间换好与行程搭配的服饰类型,并在镜子面前整理衣着;Step S2: After getting up, the individual enters the cloakroom according to the current itinerary type to change the type of clothing that matches the itinerary, and arranges his clothes in front of the mirror;
步骤S3:当个人在镜子处时,衣着分类模块拍摄当前个人图像,并分析判断服饰类型,判断个人当前出行的行程类型,并将判断结果以电信号形式传送至出鞋控制模块;Step S3: when the individual is at the mirror, the clothing classification module captures the current individual image, analyzes and judges the clothing type, judges the current travel type of the individual, and transmits the judgment result to the shoe control module in the form of an electrical signal;
步骤S4:出鞋控制模块根据当前行程类型,匹配相同类型的感应标签单元,并对相同感应标签单元所在鞋柜处执行移动,控制对应类型的鞋从鞋柜内部挪出;进而大大减少了出行时在鞋柜挑选查找相应类型鞋子的时间,有效避免耽误出行的行程。Step S4: the shoe-out control module matches the same type of sensing tag unit according to the current itinerary type, and executes movement to the shoe cabinet where the same sensing tag unit is located, so as to control the corresponding type of shoes to be moved out from the inside of the shoe cabinet; thereby greatly reducing travel When choosing the time to find the corresponding type of shoes in the shoe cabinet, it can effectively avoid delaying the travel itinerary.
步骤S3进一步包括以下步骤:Step S3 further includes the following steps:
步骤S31:光敏拍摄单元实时感应环境光,并将感应光敏信号转换为电信号;Step S31: the photosensitive photographing unit senses ambient light in real time, and converts the sensed photosensitive signal into an electrical signal;
步骤S32:当个人在镜子处后,身体遮挡住衣帽间内的灯光源,光敏拍摄单元感应光线变弱触发电信号进行拍摄,并将拍摄图像电信号传输至成像数据分析模块;Step S32: when the individual is at the mirror, the body blocks the light source in the cloakroom, the photosensitive shooting unit senses the weakening of the light and triggers the electrical signal to shoot, and transmits the electrical signal of the captured image to the imaging data analysis module;
步骤S33:成像数据分析模块获取个人在镜子面前的服饰穿着图像数据,对图像数据进行数据分析后将数据分析结果电信号传输至逻辑判断模块;Step S33: the imaging data analysis module obtains the image data of the clothing worn by the individual in front of the mirror, and after performing data analysis on the image data, transmits the electrical signal of the data analysis result to the logic judgment module;
步骤S34:逻辑判断模块获取大数据更新库不同类型服饰的主要特征数据和对当前个人所穿着服饰的数据分析结果做判断,判断当前个人服饰类型后得到个人当前出行的行程类型。Step S34: The logic judgment module obtains the main characteristic data of different types of clothing in the big data update database and judges the data analysis results of the clothing currently worn by the individual, and obtains the current travel itinerary type of the individual after judging the current personal clothing type.
步骤S33进一步包括以下步骤:Step S33 further includes the following steps:
步骤S331:获取光敏拍摄单元拍摄的图像数据后,识别抠图子模块对图像进行智能识别;Step S331: After acquiring the image data captured by the photosensitive capturing unit, the recognition and matting sub-module intelligently recognizes the image;
步骤S332:根据图像中个人与背景景深度不同对图像中个人画面进行抠图;Step S332: according to the difference in depth of field between the person and the background in the image, matting the picture of the person in the image;
步骤S333:抠图后的图像为个人身体图像,轮廓拟合子模块对个人身体图像轮廓按固定间隔距离进行标定,并将标定后的点连线形成个人身体轮廓拟合线;Step S333: the image after the cutout is a personal body image, and the contour fitting submodule calibrates the contour of the personal body image at a fixed interval distance, and connects the calibrated points to form a personal body contour fitting line;
步骤S334:数据计算模块截取一段个人身体拟合线,并以线段两端点连线得到标准线,依次测量此段个人身体拟合线中所有标定点值至标准线的距离;Step S334: the data calculation module intercepts a segment of the personal body fitting line, and connects the two ends of the line segment to obtain a standard line, and sequentially measures the distances from all calibration point values in this segment of the personal body fitting line to the standard line;
步骤S335:以标准线一侧为正,另一侧为负,得到所有标定点至标准线距离数列{l1、l2、l3...ln};Step S335: Taking one side of the standard line as positive and the other side as negative, obtain a sequence of distances {l 1 , l 2 , l 3 ...l n } from all calibration points to the standard line;
步骤S336:随机获取数列中任意数值,当与其两侧数值互为正负时,对当前数值进行标记,最终得到当前数列中被标记数值的数量m,并通过被标记的数值m与所有标定点n的比值得到当前轮廓的波动频率H;Step S336: Randomly obtain any value in the sequence, and when the values on both sides of it are positive and negative, mark the current value, and finally obtain the number m of marked values in the current sequence, and pass the marked value m and all calibration points. The ratio of n gets the fluctuation frequency H of the current contour;
步骤S337:通过方差公式计算个人身体拟合线中所有标定点相对标准线的波动程度S2。Step S337: Calculate the fluctuation degree S 2 of all calibration points in the personal body fitting line relative to the standard line by using the variance formula.
步骤S336中当前轮廓的波动频率H的计算公式为:The calculation formula of the fluctuation frequency H of the current contour in step S336 is:
式中,当被标记数值的数量m越大时,则数列中更多相邻的数值互为正负,则相对标准线波动频率更高。In the formula, when the number m of marked values is larger, more adjacent values in the sequence are positive and negative, and the fluctuation frequency is higher relative to the standard line.
步骤S337中个人身体拟合线中所有标定点相对标准线的波动程度S2的计算公式为:In step S337, the calculation formula of the fluctuation degree S2 of all calibration points in the personal body fitting line relative to the standard line is:
式中,通过方差公式计算数列相对标准线的波动程度,当标定点整体与标准线离散程度大时,则波动程度更大。In the formula, the degree of fluctuation of the sequence relative to the standard line is calculated by the variance formula. When the degree of dispersion between the calibration point as a whole and the standard line is large, the degree of fluctuation is greater.
步骤S34进一步包括:Step S34 further includes:
步骤S341:逻辑判断模块通过获取大数据更新库,分别得到商务类、休闲类和运动类服饰所对应的服饰主体样式的波动频和波动程度标准;Step S341: The logic judgment module obtains the fluctuation frequency and fluctuation degree standards of the main clothing styles corresponding to the business, leisure and sports clothing respectively by acquiring the big data update library;
步骤S342:获取当前数据计算子模块分析计算的数据;Step S342: Obtain the data analyzed and calculated by the current data calculation sub-module;
步骤S343:当波动频率H较大时,逻辑判断模块判断为休闲类服饰,输出自由出行的行程类型;Step S343: when the fluctuation frequency H is relatively large, the logic judgment module judges that it is casual clothing, and outputs the itinerary type of free travel;
步骤S344:当波动频率H较小且波动程度S2较大时,逻辑判断模块判断为运动类服饰,输出运动出行的行程类型;Step S344: when the fluctuation frequency H is small and the fluctuation degree S2 is large, the logic judgment module judges that it is sports clothing, and outputs the itinerary type of the sports trip ;
步骤S345:当波动频率H较小且波动程度S2较小时,逻辑判断模块判断为商务类服饰,输出商务出行的行程类型。Step S345: When the fluctuation frequency H is small and the fluctuation degree S2 is small, the logic judgment module judges that it is business clothing, and outputs the itinerary type of business travel.
实施例:个人起床后,当前的行程为出行商务洽谈,进入衣帽间换好正装后,在镜子面前整理衣着,衣着分类模块拍摄当前个人图像,并进行抠图计算图像数据,得到穿着正装下,身体轮廓的波动频率H=4%,波动程度S2=3cm,通过大数据库得到波动频率在30%以上属于较大,波动程度在10cm以上数据较大,因4%<30%,且3cm<10cm,逻辑判断模块判断为商务类服饰,输出商务出行的行程类型,随即鞋柜处匹配商务类鞋子的感应标签所在处,最后鞋柜在商务鞋类处的底部移动,使商务鞋类从鞋柜内部挪出。Example: After the individual wakes up, the current itinerary is for travel and business negotiation. After entering the cloakroom and changing into formal clothes, he arranges his clothes in front of the mirror. The clothes classification module captures the current personal image, and performs a cutout to calculate the image data. The fluctuation frequency of the contour is H = 4%, and the fluctuation degree S 2 = 3 cm. It is obtained from the large database that the fluctuation frequency is greater than 30%, and the fluctuation degree is greater than 10 cm. The data is larger, because 4% < 30%, and 3 cm < 10 cm , the logic judgment module judges that it is business clothing, outputs the itinerary type of business travel, and then matches the location of the sensor tag of the business shoes at the shoe cabinet, and finally the shoe cabinet moves at the bottom of the business shoes, so that the business shoes are removed from the shoe cabinet. Move out inside.
需要说明的是,在本文中,诸如第一和第二等之类的关系术语仅仅用来将一个实体或者操作与另一个实体或操作区分开来,而不一定要求或者暗示这些实体或操作之间存在任何这种实际的关系或者顺序。而且,术语“包括”、“包含”或者其任何其他变体意在涵盖非排他性的包含,从而使得包括一系列要素的过程、方法、物品或者设备不仅包括那些要素,而且还包括没有明确列出的其他要素,或者是还包括为这种过程、方法、物品或者设备所固有的要素。It should be noted that, in this document, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any relationship between these entities or operations. any such actual relationship or sequence exists. Moreover, the terms "comprising", "comprising" or any other variation thereof are intended to encompass a non-exclusive inclusion such that a process, method, article or device that includes a list of elements includes not only those elements, but also includes not explicitly listed or other elements inherent to such a process, method, article or apparatus.
最后应说明的是:以上所述仅为本发明的优选实施例而已,并不用于限制本发明,尽管参照前述实施例对本发明进行了详细的说明,对于本领域的技术人员来说,其依然可以对前述各实施例所记载的技术方案进行修改,或者对其中部分技术特征进行等同替换。凡在本发明的精神和原则之内,所作的任何修改、等同替换、改进等,均应包含在本发明的保护范围之内。Finally, it should be noted that the above descriptions are only preferred embodiments of the present invention, and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, the The technical solutions described in the foregoing embodiments may be modified, or some technical features thereof may be equivalently replaced. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.
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