CN112330362A - Rapid data intelligent analysis method for internet mall user behavior habits - Google Patents

Rapid data intelligent analysis method for internet mall user behavior habits Download PDF

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CN112330362A
CN112330362A CN202011218995.0A CN202011218995A CN112330362A CN 112330362 A CN112330362 A CN 112330362A CN 202011218995 A CN202011218995 A CN 202011218995A CN 112330362 A CN112330362 A CN 112330362A
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朱博
袁云燕
左翌
张雨钊
蔡文华
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Abstract

本发明涉及网络营销和人工智能技术领域,尤其是一种用于互联网商城用户行为习惯的快速数据智能分析方法,包括互联网商城用户行为模式序列、编码模块、空间池模块和时间模块。依据用户当前的行为,给出更具针对性的销售推荐;利用HTM中微柱包含多个细胞所具有的优势,可以对输入的位置信息进行区分,重置输入的活跃细胞集为学习细胞集,使得HTM在线学习时,能够针对当前输入序列进行学习,提高学习效率;在学习重复序列过程中,缩减数量的活跃细胞集,也能有效减少自身关联的细胞数量,降低循环预测出现的可能,提高HTM的学习效果;本发明将新增树突分支中的突触值设定在连通阈值以上,提高HTM的学习效率。

Figure 202011218995

The invention relates to the technical fields of network marketing and artificial intelligence, in particular to a fast data intelligent analysis method for user behavior habits of Internet malls, including a sequence of user behavior patterns of Internet malls, a coding module, a space pool module and a time module. According to the user's current behavior, more targeted sales recommendations are given; using the advantage that the micro-column in HTM contains multiple cells, the input location information can be distinguished, and the input active cell set can be reset to the learning cell set , so that when HTM is learning online, it can learn for the current input sequence and improve the learning efficiency; in the process of learning repeated sequences, reducing the number of active cell sets can also effectively reduce the number of self-associated cells and reduce the possibility of loop prediction. The learning effect of the HTM is improved; the present invention sets the synapse value in the newly added dendritic branch above the connection threshold, thereby improving the learning efficiency of the HTM.

Figure 202011218995

Description

用于互联网商城用户行为习惯的快速数据智能分析方法Fast data intelligent analysis method for user behavior habits of Internet malls

技术领域technical field

本发明涉及网络营销和人工智能技术领域,尤其是一种用于互联网商城用户行为习惯的快速数据智能分析方法。The invention relates to the technical fields of network marketing and artificial intelligence, in particular to a fast data intelligent analysis method for the behavior habits of users in Internet malls.

背景技术Background technique

互联网商城用户行为习惯都是在特定的场景下进行的,用户也是透过场景来认知产品的,在不同的场景下具有不同的需求。如果将产品卖点与用户需求相对接,利用场景有效地触动用户的痛点,引起消费者的情感共鸣,激发购买欲望,则可建立起良好的互动关系,进而形成消费者黏性和忠诚度。对于初始用户或者消费信息不多的用户,由于用户信息不充分,很难挖掘出用户的消费习惯,进而很难给用户提供针对性的推荐和提高商品的成交率。而场景营销则可以依据前后因果关系或者功能构建商品的展示顺序,进而根据用户的当前选择给出更具针对性的推荐,因此如何能够快速构建场景的记忆,并将该记忆作为后续用户行为习惯统计的基础,成为快速智能分析的基础。Internet mall user behavior habits are carried out in specific scenarios, users also recognize products through scenarios, and have different needs in different scenarios. If the selling point of the product is connected with the user's needs, and the user's pain point is effectively touched by the use of the scene, the emotional resonance of the consumer is aroused, and the desire to buy can be stimulated. For initial users or users with little consumption information, due to insufficient user information, it is difficult to dig out the consumption habits of users, and it is difficult to provide users with targeted recommendations and improve the transaction rate of products. Scenario marketing can build the display order of products based on the causal relationship or function, and then give more targeted recommendations based on the user's current selection. Therefore, how to quickly build the memory of the scene and use the memory as the follow-up user behavior habits The basis of statistics becomes the basis for fast intelligent analysis.

类脑学习是当前人工智能和机器学习领域研究的热点。层级时序记忆HTM(Hierarchical Temporal Memory)是一种通过模拟大脑皮层细胞的组织和机构,模仿人脑对信息的处理机制的机器学习技术。HTM本质上讲是一个基于记忆的系统。HTM网络被大量具有时间性的数据训练而成,存储着大量的模式序列,通过记忆的模式序列预测下一次可能的输入。Brain-like learning is a hot research topic in the field of artificial intelligence and machine learning. Hierarchical Temporal Memory HTM (Hierarchical Temporal Memory) is a machine learning technology that simulates the information processing mechanism of the human brain by simulating the organization and mechanism of cerebral cortex cells. HTM is essentially a memory-based system. The HTM network is trained by a large amount of temporal data, stores a large number of pattern sequences, and predicts the next possible input through the memorized pattern sequence.

与现有的人工神经网络不同,HTM以细胞为基本单位,并使用层级方式进行管理;首先将几个细胞组成一个微柱,再由这些微柱构成HTM网络空间。空间池算法和时间池算法是训练HTM时的两个重要步骤,首先使用空间池算法,从所有微柱中选择出部分被激活微柱以对应当前的输入。再使用时间池算法从这些微柱中选择部分激活的细胞表达输入所处位置信息,通过调整这些活跃细胞上相关的树突分支,构建输入与输入之间的关联,进行学习;同时利用活跃细胞和已构建的树突分支,对下一时刻的输入进行预测。Different from the existing artificial neural network, HTM takes cells as the basic unit and is managed in a hierarchical manner; first, several cells are formed into a micro-column, and then these micro-columns constitute the HTM network space. The spatial pooling algorithm and the temporal pooling algorithm are two important steps in training HTM. First, the spatial pooling algorithm is used to select some activated micropillars from all the micropillars to correspond to the current input. Then use the time pooling algorithm to select partially activated cells from these microcolumns to express the location information of the input, and by adjusting the relevant dendritic branches on these active cells, build the correlation between the input and the input, and learn; at the same time, use the active cells and the constructed dendritic branches to make predictions about the input at the next moment.

当前的时间池算法仅使用简单的Hebbian规则,通过调整树突分支中突触的连接值,建立前后相邻的两个时刻活跃细胞之间的关联,学习序列的特性;并只有在树突分支中连通突触累积到一定阈值后,才能完成序列的学习任务。如果想要构建快速学习模型,则必须设计新型的时间池算法,提高HTM学习序列的效率与效果。The current time pooling algorithm only uses the simple Hebbian rule to establish the association between the active cells at two adjacent moments before and after by adjusting the connection value of the synapses in the dendritic branch, and learn the characteristics of the sequence; and only in the dendritic branch The sequence of learning tasks can only be completed after the middle-connected synapses accumulate to a certain threshold. If you want to build a fast learning model, you must design a new type of time pooling algorithm to improve the efficiency and effect of the HTM learning sequence.

发明内容SUMMARY OF THE INVENTION

本发明要解决的技术问题是:为了解决上述背景技术中存在的问题,提供一种改进的用于互联网商城用户行为习惯的快速数据智能分析方法,解决HTM(HierarchicalTemporal Memory)快速训练时学习效率低和学习效果差的问题。The technical problem to be solved by the present invention is: in order to solve the problems existing in the above background technology, an improved fast data intelligent analysis method for Internet mall user behavior habits is provided, which solves the problem of low learning efficiency during HTM (Hierarchical Temporal Memory) fast training. and poor learning outcomes.

本发明解决其技术问题所采用的技术方案是:一种用于互联网商城用户行为习惯的快速数据智能分析方法,包括互联网商城用户行为模式序列、编码模块、空间池模块和时间模块,所述的时间模块包括获取输入激活的微柱集合、生成学习细胞集、调整树突分支、调整活跃细胞集和预测单元,包括如下步骤:The technical solution adopted by the present invention to solve the technical problem is as follows: a fast data intelligent analysis method for user behavior habits of Internet malls, comprising a sequence of user behavior patterns of Internet malls, a coding module, a space pool module and a time module. The temporal module includes acquiring the set of micropillars activated by the input, generating the learning cell set, adjusting the dendritic branches, adjusting the active cell set and the prediction unit, including the following steps:

步骤1,针对互联网商城的场景,构建用户行为顺序,形成不同的用户行为组合时序模式;Step 1, according to the scenario of the Internet mall, construct the user behavior sequence, and form different user behavior combination timing patterns;

步骤2,针对不同的互联网商城营销场景,将具有时序特性的用户行为组合模式作为HTM快速训练模型的训练对象;Step 2, for different Internet shopping mall marketing scenarios, use the user behavior combination mode with time sequence characteristics as the training object of the HTM fast training model;

步骤3,利用空间池算法从所有微柱中选择部分微柱进行激活,并将激活微柱对应当前用户行为模式中的某个商品;Step 3, use the space pool algorithm to select some micro-pillars from all the micro-pillars for activation, and make the activated micro-pillars correspond to a certain commodity in the current user behavior pattern;

步骤4,利用输入的位置信息,在被激活微柱上生成学习细胞集和临时活跃细胞集,能够让学习过程针对当前位置的序列进行,提高HTM学习准确性,并在在学习重复序列过程中,有效减少自身关联的细胞数量,降低循环预测出现的可能性,提高HTM的学习效果;Step 4: Use the input position information to generate a learning cell set and a temporary active cell set on the activated micropillars, which enables the learning process to be carried out for the sequence of the current position, improves the accuracy of HTM learning, and in the process of learning repeated sequences , effectively reducing the number of self-associated cells, reducing the possibility of loop prediction, and improving the learning effect of HTM;

步骤5,对学习细胞上关联相邻输入的树突分支进行调整,并针对在线学习的特点,将新增树突分支中的突触值设定为连通值,使得时间池算法通过一次训练,快速形成对序列的记忆和学习,提高HTM的学习效率;Step 5: Adjust the dendritic branches associated with adjacent inputs on the learning cell, and set the synaptic value in the newly added dendritic branch as the connectivity value according to the characteristics of online learning, so that the time pooling algorithm can pass one training. Quickly form memory and learning of sequences, and improve the learning efficiency of HTM;

步骤6,利用调整过的活跃细胞集对下一时刻的商品进行预测,并设置为推荐商品。Step 6, use the adjusted active cell set to predict the commodity at the next moment, and set it as the recommended commodity.

进一步地,所述的空间池模块用于获取激活的微柱集合,所述时间池模块包括生成学习细胞集单元,所述学习细胞集单元的输入端连接空间池模块的输出端,所述学习细胞集单元的输出端依次连接调整树突分支单元和预测单元。Further, the space pool module is used to obtain an activated micro-pillar set, and the time pool module includes a generation learning cell set unit, and the input end of the learning cell set unit is connected to the output end of the space pool module, and the learning The output end of the cell set unit is connected to the adjustment dendritic branch unit and the prediction unit in turn.

本发明的有益效果是:The beneficial effects of the present invention are:

1、针对互联网商城的场景,构建用户行为的关联模式,对于无法获取历史信息的用户,可依据用户当前的行为,给出更具针对性的销售推荐;1. For the scenario of the Internet mall, build a correlation model of user behavior. For users who cannot obtain historical information, more targeted sales recommendations can be given based on the user's current behavior;

2、本发明在生成学习细胞时,利用HTM中微柱包含多个细胞所具有的优势,可以对输入的位置信息进行区分,重置输入的活跃细胞集为学习细胞集,预测时用于表达输入的当前位置信息,便于后续学习内容与当前位置的输入建立关联,使得HTM在线学习时,能够针对当前输入序列进行学习,提高学习效率;在学习重复序列过程中,缩减数量的活跃细胞集,也能有效减少自身关联的细胞数量,降低循环预测出现的可能,提高HTM的学习效果;2. When generating learning cells, the present invention utilizes the advantage that the micro-columns in HTM contain multiple cells, and can distinguish the input position information, reset the input active cell set as the learning cell set, and use it to express when predicting. The input current position information facilitates the association between the subsequent learning content and the input of the current position, so that when HTM learns online, it can learn for the current input sequence and improve the learning efficiency; in the process of learning the repeated sequence, the number of active cell sets is reduced, It can also effectively reduce the number of cells associated with itself, reduce the possibility of loop prediction, and improve the learning effect of HTM;

3、本发明只对关联相邻输入的树突分支进行调整,并针对快速训练的特点,将新增树突分支中的突触值设定在连通阈值以上,使得算法通过一次训练,便可形成对模式序列的记忆和学习,提高HTM的学习效率。3. The present invention only adjusts the dendritic branches associated with adjacent inputs, and according to the characteristics of rapid training, the synapse value in the newly added dendritic branches is set above the connectivity threshold, so that the algorithm can be trained through one training. Form the memory and learning of the pattern sequence, and improve the learning efficiency of HTM.

附图说明Description of drawings

下面结合附图和实施例对本发明进一步说明。The present invention will be further described below in conjunction with the accompanying drawings and embodiments.

图1是本发明的分析方法流程图。Fig. 1 is the flow chart of the analysis method of the present invention.

具体实施方式Detailed ways

现在结合附图对本发明作进一步详细的说明。这些附图均为简化的示意图,仅以示意方式说明本发明的基本结构,因此其仅显示与本发明有关的构成。The present invention will now be described in further detail with reference to the accompanying drawings. These drawings are all simplified schematic diagrams, and only illustrate the basic structure of the present invention in a schematic manner, so they only show the structures related to the present invention.

实施例1:Example 1:

图1所示的用于互联网商城用户行为习惯的快速数据智能分析方法,包括互联网商城用户行为模式序列、编码模块、空间池模块和时间模块,所述的时间模块包括获取输入激活的微柱集合、生成学习细胞集、调整树突分支、调整活跃细胞集并进行预测六个步骤:The fast data intelligent analysis method for Internet mall user behavior and habits shown in FIG. 1 includes a sequence of Internet mall user behavior patterns, a coding module, a space pool module, and a time module, and the time module includes a collection of micro-columns that obtains input activation. , generate learning cell sets, adjust dendritic branches, adjust active cell sets and make predictions in six steps:

步骤1,利用场景,构建商品顺序,形成不同的商品组合时序模式。Step 1. Use the scene to construct the sequence of commodities and form different timing patterns of commodity combinations.

步骤2,针对不同的营销场景,将具有时序特性的用户行为组合模式作为HTM快速训练模型的训练对象;Step 2, for different marketing scenarios, the user behavior combination mode with time sequence characteristics is used as the training object of the HTM fast training model;

步骤3,获取输入激活的微柱集合可由空间池算法产生,从所有微柱中选择部分微柱进行激活,并将激活微柱对应当前的输入;In step 3, the set of micro-columns activated by the input can be generated by the space pool algorithm, and some micro-columns are selected from all the micro-columns for activation, and the activated micro-columns are corresponding to the current input;

步骤4,生成学习细胞集要依赖上一时刻的预测细胞集,对于未预测激活微柱,挑选出的学习细胞能够表达输入的当前位置信息,使得学习过程更针对当前位置上的序列;具体地,Step 4, the generation of the learning cell set depends on the predicted cell set at the previous moment. For the unpredicted activated micropillars, the selected learning cells can express the input current position information, so that the learning process is more specific to the sequence at the current position; specifically ,

步骤4.1,生成学习细胞集的方法为:Step 4.1, the method of generating the learning cell set is:

步骤41.1,若被激活微柱上的细胞被上一时刻的输入预测到,则该细胞被设为当前输入的学习细胞,表示为:Step 41.1, if the cell on the activated micro-column is predicted by the input at the previous moment, the cell is set as the current input learning cell, which is expressed as:

Figure BDA0002761412590000041
Figure BDA0002761412590000041

步骤4.1.2,若被激活微柱上的细胞全都未被上一时刻的输入预测到,则随机选择该微柱上所有细胞中树突分支数量最少的细胞设为学习细胞,表示为:Step 4.1.2, if all cells on the activated micro-column are not predicted by the input at the previous moment, then randomly select the cell with the least number of dendritic branches among all the cells on the micro-column as the learning cell, which is expressed as:

Figure BDA0002761412590000051
Figure BDA0002761412590000051

由上述方法选出的学习细胞构成学习细胞集;其中,

Figure BDA0002761412590000052
为t时刻第j个微柱上第i个细胞被选为学习细胞,i为微柱上细胞的编号,j是微柱的编号,Wt为t时刻输入激活的微柱集合,
Figure BDA0002761412590000053
为t-1时刻的预测细胞矩阵;minj(the segment′s number of celli,j)为第j个微柱上包含最少树突分支的细胞编号;The learning cells selected by the above method constitute a learning cell set; wherein,
Figure BDA0002761412590000052
is the i-th cell on the j-th micro-column at time t is selected as the learning cell, i is the number of the cell on the micro-column, j is the number of the micro-column, W t is the set of activated micro-columns at time t,
Figure BDA0002761412590000053
is the predicted cell matrix at time t-1; min j (the segment's number of cell i, j ) is the number of the cell containing the least dendritic branches on the jth micropillar;

步骤4.2,在空间池算法筛选出的被激活微柱中,使用以下规则生成活跃细胞,若被激活的微柱上有预测细胞,则该细胞被设为活跃细胞,若被激活的微柱上没有预测细胞,则微柱上所有的细胞被设为活跃细胞。Step 4.2, in the activated microcolumns screened by the spatial pool algorithm, use the following rules to generate active cells. If there are predicted cells on the activated microcolumn, the cell is set as an active cell. With no predicted cells, all cells on the microcolumn are set as active cells.

Figure BDA0002761412590000054
Figure BDA0002761412590000054

将上述方法选出的活跃细胞构成临时活跃细胞集;其中

Figure BDA0002761412590000055
表示t时刻第j个微柱上第i个细胞被置为活跃细胞,i为微柱上细胞的编号,j是微柱的编号,Wt为t时刻输入激活的微柱集合,
Figure BDA0002761412590000056
表示第j个微柱上第i个细胞为t-1时刻的预测细胞;The active cells selected by the above method constitute a temporary active cell set; wherein
Figure BDA0002761412590000055
Indicates that the i-th cell on the j-th micro-column at time t is set as an active cell, i is the number of the cell on the micro-column, j is the number of the micro-column, W t is the set of activated micro-columns at time t,
Figure BDA0002761412590000056
Indicates that the i-th cell on the j-th micro-column is the predicted cell at time t-1;

将活跃细胞集中非学习细胞置为非活跃状态,用于准确表达输入的当前位置信息,主要操作如下:Set the non-learning cells in the active cell set to the inactive state to accurately express the current position information of the input. The main operations are as follows:

Figure BDA0002761412590000061
Figure BDA0002761412590000061

其中,At代表t时刻输入产生的活跃细胞矩阵,

Figure BDA0002761412590000062
代表t时刻输入对应的学习细胞矩阵;Among them, At represents the active cell matrix generated by the input at time t ,
Figure BDA0002761412590000062
Represents the input of the corresponding learning cell matrix at time t;

步骤5,调整树突分支步骤中,需要调整的树突分支要么是活跃的,要么在学习细胞上新增树突分支,构建前后输入之间的关联,并将新增树突分支中突触值设为连通阈值及以上的数值,提高学习的效率;具体地,步骤3中调整树突分支的过程为:Step 5. In the step of adjusting dendritic branches, the dendritic branches that need to be adjusted are either active, or new dendritic branches are added to the learning cells, the association between the front and rear inputs is constructed, and the synapses in the new dendritic branches are added. The value is set to a value above the connectivity threshold to improve the efficiency of learning; specifically, the process of adjusting dendritic branches in step 3 is:

步骤5.1,若当前处理的学习细胞是被上一时刻输入预测到的细胞,则调整该细胞上活跃的树突分支,加强与上一时刻输入之间的关联,该细胞上活跃树突分支选择条件为:Step 5.1, if the currently processed learning cell is a cell predicted by the input at the previous moment, adjust the active dendritic branch on the cell to strengthen the correlation with the input at the previous moment, and select the active dendritic branch on the cell. The conditions are:

Figure BDA0002761412590000063
Figure BDA0002761412590000063

步骤5.2,若当前处理的学习细胞不是被上一时刻输入预测到的细胞,则在该细胞上新增树突分支,构建与上一时刻输入学习细胞之间的突触,形成与上一时刻输入之间的关联,新增树突分支表示为:Step 5.2, if the currently processed learning cell is not the cell predicted by the input at the previous moment, add a dendritic branch on the cell to build a synapse with the input learning cell at the previous moment, and form a synapse with the input learning cell at the previous moment. The association between inputs, the newly added dendritic branch is expressed as:

Figure BDA0002761412590000064
Figure BDA0002761412590000064

其中,

Figure BDA0002761412590000065
为第j个微柱中第i个细胞上所具有的第k个树突分支的连通性矩阵,activeThreshold为树突分支的活跃阈值,
Figure BDA0002761412590000066
是在第j个微柱中第i个细胞上新增的树突分支,CONNECTED_PERMANANCE为树突分支中突触的连通阈值;
Figure BDA0002761412590000067
为t-1时刻输入对应的学习细胞矩阵。in,
Figure BDA0002761412590000065
is the connectivity matrix of the kth dendritic branch on the ith cell in the jth microcolumn, activeThreshold is the active threshold of the dendritic branch,
Figure BDA0002761412590000066
is the newly added dendritic branch on the i-th cell in the j-th microcolumn, CONNECTED_PERMANANCE is the connectivity threshold of the synapse in the dendritic branch;
Figure BDA0002761412590000067
Enter the corresponding learning cell matrix for time t-1.

步骤6,调整活跃细胞集并进行预测,通过缩减范围的活跃细胞进行预测,能提高后续输入产生学习细胞对位置信息的区分能力,同时便于后续学习内容与当前位置的输入建立关联;该算法针对快速训练的特点,提高了HTM对序列的学习效果和效率。Step 6, adjust the active cell set and make predictions, and make predictions by reducing the range of active cells, which can improve the ability of the subsequent input to generate learning cells to distinguish the position information, and at the same time facilitate the association between the subsequent learning content and the input of the current position; The characteristics of fast training improve the learning effect and efficiency of HTM on sequences.

基于上述方法,本发明还提出了一种分析互联网商城用户行为习惯途径的快速数据智能分析方法,包括空间池模块和时间池模块,所述空间池模块用于获取激活的微柱集合;所述时间池模块包括生成学习细胞集单元,所述学习细胞集单元的输入端连接空间池模块的输出端,学习细胞集单元的输出端依次连接调整树突分支单元和预测单元。Based on the above method, the present invention also proposes a fast data intelligent analysis method for analyzing the behavior and habits of Internet mall users, including a space pool module and a time pool module, and the space pool module is used to obtain an activated set of micropillars; the The time pooling module includes a generating learning cell set unit, the input end of the learning cell set unit is connected to the output end of the spatial pooling module, and the output end of the learning cell set unit is sequentially connected to the adjustment dendritic branch unit and the prediction unit.

实施例2:Example 2:

在本实施例中,以“abab”作为本发明快速训练时的输入序列为例,首先通过空间池的学习,假设输入a会激活1、3号微柱,b会激活2、4号微柱,且每个微柱上有4个细胞,并设置树突的连通阈值为0.8。以下描述在线学习时的过程:In this embodiment, taking "abab" as an example of the input sequence in the rapid training of the present invention, first through the learning of the space pool, it is assumed that the input a will activate the micropillars 1 and 3, and the micropillars b will activate the micropillars 2 and 4. , and there are 4 cells on each microcolumn, and set the connectivity threshold of dendrites to 0.8. The following describes the process when studying online:

对于序列中第一个输入a,因为没有上下文环境,假设时间池产生该输入的学习细胞为:cell1,1和cell3,1,分别代表1号微柱的第一个细胞和3号微柱的第一个细胞,并且没有树突分支需要调整,同时将活跃细胞也重置为cell1,1和cell3,1For the first input a in the sequence, because there is no context, it is assumed that the learning cells that the time pool generates this input are: cell 1, 1 and cell 3 , 1, representing the first cell of micro-column No. 1 and micro-column No. 3 respectively. The first cell of the column, and no dendritic branches to adjust, also reset the active cells to cell 1,1 and cell 3,1 .

对于序列中第二个输入b,上一时刻的活跃细胞没有被预测到当前输入,所以激活的微柱上没有预测细胞,假设时间池产生该输入的学习细胞为:cell2,1和cell4,1,分别代表2号微柱的第一个细胞和4号微柱的第一个细胞,在这两个细胞上都新增树突分支,分别为[cell1,1=0.8,cell3,1=0.8],表明这两个细胞都建立突触连接到cell1,1和cell3,1,并且突触处于连通状态。同时将活跃细胞也重置为cell2,1和Cell4,1For the second input b in the sequence, the active cell at the previous moment is not predicted to the current input, so there is no predicted cell on the activated micro-column, assuming that the learning cells that generate this input by the time pool are: cell 2 , 1 and cell 4 , 1 , respectively represent the first cell of No. 2 micro-column and the first cell of No. 4 micro-column, and new dendritic branches are added to these two cells, respectively [cell 1, 1 = 0.8, cell 3 , 1 = 0.8], indicating that both cells have established synaptic connections to cell 1,1 and cell 3,1 , and the synapses are in a connected state. Also reset the active cells to cell 2,1 and Cell 4,1 .

对于序列中第三个输入a,上一时刻的活跃细胞没有被预测到当前输入,所以激活的微柱上没有预测细胞,假设时间池产生该输入的学习细胞为:cell1,2和cell3,2,分别代表1号微柱的第二个细胞和3号微柱的第二个细胞,在这两个细胞上都新增树突分支,分别为[cell2,1=0.8,cell4,1=0.8],表明这两个细胞都建立突触连接到cell2,1和cell4,1,并且突触处于连通状态。同时将活跃细胞也重置为cell1,2和cell3,2For the third input a in the sequence, the active cell at the previous moment is not predicted to the current input, so there is no predicted cell on the activated micro-column. It is assumed that the learning cells that generate this input by the time pool are: cell 1, 2 and cell 3 , 2 , respectively represent the second cell of No. 1 micro-column and the second cell of No. 3 micro-column, and new dendritic branches are added to these two cells, respectively [cell 2 , 1 = 0.8, cell 4 , 1 = 0.8], indicating that both cells establish synaptic connections to cell 2,1 and cell 4,1 , and the synapses are in a connected state. Also reset the active cells to cell 1, 2 and cell 3 , 2.

对于序列中第四个输入b,上一时刻的活跃细胞没有被预测到当前输入,所以激活的微柱上没有预测细胞,假设时间池产生该输入的学习细胞为:cell2,2和cell4,2,分别代表2号微柱的第二个细胞和4号微柱的第二个细胞,在这两个细胞上都新增树突分支,分别为[cell1,2=0.8,cell3,2=0.8],表明这两个细胞都建立突触到cell1,2和cell3,2,并且突触处于连通状态。同时将活跃细胞也重置为cell2,2和cell4,2For the fourth input b in the sequence, the active cell at the previous moment is not predicted to the current input, so there is no predicted cell on the activated micro-column. It is assumed that the learning cells that generate this input by the time pool are: cell 2, 2 and cell 4 , 2 , respectively represent the second cell of No. 2 micro-column and the second cell of No. 4 micro-column, and new dendritic branches are added to these two cells, respectively [cell 1, 2 = 0.8, cell 3 , 2 = 0.8], indicating that both cells have established synapses to cell 1,2 and cell 3,2 , and the synapses are in a connected state. Also reset the active cells to cell 2,2 and cell 4,2 .

通过快速训练,HTM能够学习到“abab”序列的完整内容,但是现有的时间池学习算法只能学习到“aba”序列,第四步的学习只是加强了第一个输入与第二个输入之间的关联。Through fast training, HTM can learn the complete content of the "abab" sequence, but the existing time pool learning algorithm can only learn the "aba" sequence, and the fourth step of learning only strengthens the first input and the second input. relationship between.

针对互联网商城的场景,构建用户行为的关联模式,对于无法获取历史信息的用户,可依据用户当前的行为,给出更具针对性的销售推荐;本发明在生成学习细胞时,利用HTM中微柱包含多个细胞所具有的优势,可以对输入的位置信息进行区分,重置输入的活跃细胞集为学习细胞集,预测时用于表达输入的当前位置信息,便于后续学习内容与当前位置的输入建立关联,使得HTM在线学习时,能够针对当前输入序列进行学习,提高学习效率;在学习重复序列过程中,缩减数量的活跃细胞集,也能有效减少自身关联的细胞数量,降低循环预测出现的可能,提高HTM的学习效果;本发明只对关联相邻输入的树突分支进行调整,并针对快速训练的特点,将新增树突分支中的突触值设定在连通阈值以上,使得算法通过一次训练,便可形成对模式序列的记忆和学习,提高HTM的学习效率。Aiming at the scenario of the Internet shopping mall, a correlation model of user behavior is constructed, and for users who cannot obtain historical information, more targeted sales recommendations can be given based on the current behavior of the user; when generating learning cells, the present invention utilizes the HTM medium microcomputer. The column contains the advantages of multiple cells, which can distinguish the input position information, reset the input active cell set to the learning cell set, and use it to express the current position information of the input during prediction, which is convenient for the subsequent learning content and the current position. The input establishes association, so that when HTM learns online, it can learn for the current input sequence and improve the learning efficiency; in the process of learning repeated sequences, reducing the number of active cell sets can also effectively reduce the number of self-associated cells and reduce the occurrence of loop prediction. It is possible to improve the learning effect of HTM; the present invention only adjusts the dendritic branches associated with adjacent inputs, and according to the characteristics of rapid training, the synapse value in the newly added dendritic branches is set above the connectivity threshold, so that The algorithm can form the memory and learning of the pattern sequence through one training, and improve the learning efficiency of HTM.

在本说明书的描述中,参考术语“一个实施例”、“一些实施例”、“示意性实施例”、“示例”、“具体示例”、或“一些示例”等的描述意指结合该实施例或示例描述的具体特征、结构、材料或者特点包含于本发明的至少一个实施例或示例中。在本说明书中,对上述术语的示意性表述不一定指的是相同的实施例或示例。而且,描述的具体特征、结构、材料或者特点可以在任何的一个或多个实施例或示例中以合适的方式结合。In the description of this specification, reference to the terms "one embodiment," "some embodiments," "exemplary embodiment," "example," "specific example," or "some examples", etc., is meant to incorporate the embodiments A particular feature, structure, material, or characteristic described by an example or example is included in at least one embodiment or example of the present invention. In this specification, schematic representations of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the particular features, structures, materials or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

以上述依据本发明的理想实施例为启示,通过上述的说明内容,相关工作人员完全可以在不偏离本项发明技术思想的范围内,进行多样的变更以及修改。本项发明的技术性范围并不局限于说明书上的内容,必须要根据权利要求范围来确定其技术性范围。Taking the above ideal embodiments according to the present invention as inspiration, and through the above description, relevant personnel can make various changes and modifications without departing from the technical idea of the present invention. The technical scope of the present invention is not limited to the contents in the specification, and the technical scope must be determined according to the scope of the claims.

Claims (2)

1.一种用于互联网商城用户行为习惯的快速数据智能分析方法,包括互联网商城用户行为模式序列、编码模块、空间池模块和时间模块,其特征是:所述的时间模块包括获取输入激活的微柱集合、生成学习细胞集、调整树突分支、调整活跃细胞集和预测单元,包括如下步骤:1. a kind of fast data intelligent analysis method that is used for Internet mall user behavior habit, comprises Internet mall user behavior pattern sequence, coding module, space pool module and time module, it is characterized in that: described time module includes the activation of acquisition input. The collection of micropillars, the generation of learning cell sets, the adjustment of dendritic branches, the adjustment of active cell sets and prediction units, including the following steps: 步骤1,针对互联网商城的场景,构建用户行为顺序,形成不同的用户行为组合时序模式;Step 1, according to the scenario of the Internet mall, construct the user behavior sequence, and form different user behavior combination timing patterns; 步骤2,针对不同的互联网商城营销场景,将具有时序特性的用户行为组合模式作为HTM快速训练模型的训练对象;Step 2, for different Internet shopping mall marketing scenarios, use the user behavior combination mode with time sequence characteristics as the training object of the HTM fast training model; 步骤3,利用空间池算法从所有微柱中选择部分微柱进行激活,并将激活微柱对应当前用户行为模式中的某个商品;Step 3, use the space pool algorithm to select some micro-pillars from all the micro-pillars for activation, and make the activated micro-pillars correspond to a certain commodity in the current user behavior pattern; 步骤4,利用输入的位置信息,在被激活微柱上生成学习细胞集和临时活跃细胞集,能够让学习过程针对当前位置的序列进行,提高HTM学习准确性,并在在学习重复序列过程中,有效减少自身关联的细胞数量,降低循环预测出现的可能性,提高HTM的学习效果;Step 4: Use the input position information to generate a learning cell set and a temporary active cell set on the activated micropillars, which enables the learning process to be carried out for the sequence of the current position, improves the accuracy of HTM learning, and in the process of learning repeated sequences , effectively reducing the number of self-associated cells, reducing the possibility of loop prediction, and improving the learning effect of HTM; 步骤5,对学习细胞上关联相邻输入的树突分支进行调整,并针对在线学习的特点,将新增树突分支中的突触值设定为连通值,使得时间池算法通过一次训练,快速形成对序列的记忆和学习,提高HTM的学习效率;Step 5: Adjust the dendritic branches associated with adjacent inputs on the learning cell, and set the synaptic value in the newly added dendritic branch as the connectivity value according to the characteristics of online learning, so that the time pooling algorithm can pass one training. Quickly form memory and learning of sequences, and improve the learning efficiency of HTM; 步骤6,利用调整过的活跃细胞集对下一时刻的商品进行预测,并设置为推荐商品。Step 6, use the adjusted active cell set to predict the commodity at the next moment, and set it as the recommended commodity. 2.根据权利要求1所述的用于互联网商城用户行为习惯的快速数据智能分析方法,其特征是:所述的空间池模块用于获取激活的微柱集合,所述时间池模块包括生成学习细胞集单元,所述学习细胞集单元的输入端连接空间池模块的输出端,所述学习细胞集单元的输出端依次连接调整树突分支单元和预测单元。2. the fast data intelligent analysis method for Internet shopping mall user behavior habit according to claim 1, is characterized in that: described space pool module is used to obtain the micro-pillar set of activation, and described time pool module comprises generating learning The cell set unit, the input end of the learning cell set unit is connected to the output end of the spatial pool module, and the output end of the learning cell set unit is connected to the adjustment dendritic branch unit and the prediction unit in turn.
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