Disclosure of Invention
The invention aims to provide a customer multidimensional data input and management system based on CRM, which can effectively acquire real-time information of a customer through multidimensional data of the customer in a scientific management mode, thereby managing the customer in a targeted manner, and the specific system comprises the following steps:
A CRM-based customer multidimensional data entry and management system comprising the following hierarchy:
S1, a multidimensional data acquisition layer acquires basic information, transaction details and order conditions of a client through manual input, API (application program interface) docking and image recognition modes, and generates editable data;
s2, a data management center is used for cleaning, checking, storing and managing labels of the acquired data;
The intelligent analysis layer is used for analyzing the client data through a data analysis algorithm and a model and outputting the quality condition of the client according to the analysis result;
And S3, an interaction layer is applied, wherein the analysis result of the client data is visually displayed in the form of a chart and a report.
In the intelligent analysis layer, the client quality condition is analyzed through a client credit scoring formula, and the specific formula is as follows:
Customer credit scoring formula:
Wherein Q is a customer quality score (0-100), which is lower than 80 time-sharing triggering early warning, lower than 60 time-sharing triggering alarm and lower than 40 time-sharing triggering automatic verification;
W i the weight of the corresponding field, e.g., W Tax credit rating may be set to 0.15, where the sum of the n fields is 1.
The timeliness attenuation factor can set that the contribution value of the data to the score correspondingly drops every time the data expires, so as to reduce the influence of the client history problem on the current state.
And C i, the effective data length of the ith data dimension, namely the length of the content which is actually acquired or filled in the field.
M i represents the maximum allowed data length for the ith data dimension.
The ratio of (2) is the integrity coefficient of the data, the A value is the accuracy coefficient, and the values are sigma-1.
Such as "contact (handset)", his field is fixed to 11 bits, so mi=11. When the "contact (handset)" field is filled in completely, C i =11. Then as a wholeThe ratio of (2) is 1. When C i<Mi, the data is reflected in a missing state or incomplete state.
Next, C i<Mi may be set for a field of a rated data length such as a mobile phone number, and C i may be automatically zeroed. Thereby prompting the input person to check the integrity of the data.
For some fields with uncertain data length, such as the registration address of the client, the business state of the client, etc., the step of setting the auto-zero of C i is not required.
Meanwhile, for the data to be acquired, in order to improve the input capacity level, the multidimensional data acquisition layer comprises the following input modes:
s11, inputting basic information, transaction details, customer contact ways and transaction detail information of a customer through manual input of staff;
S12, API docking input, namely acquiring real-time dynamics of a client and real-time dynamics of industries in which the client is located through synchronous sharing with other systems in an enterprise and with external resources;
S13, image recognition and voice recognition access, namely performing digital processing on non-digital information such as paper documents, pictures, sound recordings and the like through an OCR technology and a voice-to-text technology, and acquiring corresponding information.
Meanwhile, in order to save the time of manual input and reduce the labor of repeatability, the multidimensional data acquisition layer supports the acquisition and processing of unstructured data, including customer social media comments, customer service chat records and industry report documents, and key information is extracted through a natural language processing technology and converted into structured data. The method is characterized by supporting the collection of unstructured data such as customer social media comments, customer service chat records, industry reports and the like, extracting keywords (such as 'quality problems', 'intention of collaboration') through a Natural Language Processing (NLP) technology, and converting the keywords into structured labels (such as 'high complaint risks', 'potential business opportunities').
When the data are collected, in order to save the calculated amount in the analysis stage, the data management center comprises the steps of cleaning, checking, storing and label management of the data, and the influence of interference data on the result is reduced through cleaning and checking, so that the accuracy of a calculation formula on the result is improved.
S21, data cleaning, namely performing de-duplication, error correction and complementation on the acquired data, removing repeated data records, correcting error information in the data and supplementing missing data fields;
s22, rule checking, namely checking the data in real time through a data checking rule. The verification rule comprises data format verification and data logic verification, wherein the verification rule allows the data passing through the verification to enter a data storage link;
S23, storing the cleaned and checked qualified data into a database of the system, and storing the data in a classified manner so as to facilitate subsequent inquiry and analysis;
And S24, label management, namely generating corresponding labels for clients according to different dimensions and characteristics of client data, wherein label content comprises high-risk clients, high-quality clients and potential business clients, establishing association relations between the labels and the client data, classifying and managing the clients through the labels, and conveniently and quickly searching and positioning target client groups.
Further, the data management center further comprises a data tracing module for recording the acquisition source, the input time, the modification history and the operator information of the data to form a data tracing log and supporting the tracing inquiry of the user on the data change process.
In order to give different roles different rights, the problem of leakage of business secrets caused by rights abuse is prevented. The application interaction layer is provided with a permission management module which supports the allocation of data access and operation permissions according to roles, wherein the permission management module comprises roles of an administrator, a salesman and an analyst, and different roles correspond to different data viewing ranges.
In order to further save storage resources and operation resources, the system is provided with a data closed-loop processing flow, a data buffer queue is arranged between the multidimensional data acquisition layer and the data treatment center and is used for temporarily storing abnormal data which does not pass the rule check, and the system supports the resubmitting check after the manual intervention correction to form the data closed-loop processing flow of acquisition, check, correction and rechecking.
The beneficial effects are that:
The scheme relies on a systematic architecture and an intelligent model, and the client data management efficiency is remarkably improved. The data management center constructs a precise and unified data system through standardized cleaning, intelligent checking, dynamic label management and a full-flow tracing mechanism, improves the problems of data island and update hysteresis of the traditional system, greatly improves the data acquisition and processing efficiency, and builds a firm data root for enterprise fine management.
And finally, the credit scoring model carried by the intelligent analysis layer replaces manual experience judgment by a scientific algorithm, so that a customer risk score can be generated in real time and a hierarchical early warning mechanism can be triggered. By combining a visual interaction system, the power-assisted enterprises accurately capture market dynamics, and the decision scientificity of the enterprises in a modern competitive business environment is improved.
Detailed Description
The present invention will be further described in detail with reference to the following examples and drawings for the purpose of enhancing the understanding of the present invention, which examples are provided for the purpose of illustrating the present invention only and are not to be construed as limiting the scope of the present invention.
Embodiment 1 risk early warning scenario:
some manufacturing industry customer a developed the following anomaly data in the second quarter of 2024:
S1, a behavior risk dimension, wherein the order quantity is increased by 300% in comparison with the previous quarter, the weight W 1 = 0.3 of the item, and the integrity coefficient of the item data is obtained because the integral reason of the order increase cannot be obtained The time-dependent attenuation factor e -0.001*30 is approximately 0.97, the accuracy is verified in multiple directions, the data is judged to be basically ready, and the value of A is 0.9.
The overall score for this dimension is
As can be seen from the above calculation process, even if the order of the customer increases, the total score caused by the fact is still not high due to the fact that the real reason is unknown.
S2, financial risk dimension, wherein the payment period is prolonged to 60 days, the average day before is 30 days, and the final calculation result of the comprehensive weight W 2 is 20 minutes.
S3, industry risk dimension, namely enabling the industry to enter a decay period, wherein the weight W 3 =0.2, the accuracy coefficient A=0.9 and other dimension data are normal. The final score for the industry risk dimension was 18 points.
And finally, the overall score is 53.714 minutes, and early warning is triggered. It follows that even if the customer's order volume is in good condition, due to the lack of relevant information and the slipping down of the industry as a whole, a warning will still be given to the manager at this time, suggesting a potential business risk.
Example 2 comparative analysis manufacturing customer B for a manufacturing company
At this time, the quality of the customer is judged from three dimensions of order stability, supply chain coordination, and financial health.
Q=order stability (continuous 12 month fluctuation <5%, score 90×0.3) +supply chain synergy (on-time delivery rate 95%, score 85×0.25) +financial health (liability rate 60%, score 75×0.3) =composite score 81.25 points.
Based on the scoring, mid-term order proportion may be added to customer B. It follows that when the customer's fluctuations are small and the finance is good. By doing the calculations in these dimensions, the risk of such clients maintaining cooperation is low, so that good cooperation can be maintained.
In some complex business cooperation modes, it is often necessary to combine the embodiment 1 with the embodiment 2, and comprehensively determine the quality of a specific customer from six or more angles of behavioral risk, financial risk, industry risk, order stability, supply chain coordination degree, financial health degree, and the like, and at this time, more data are required, so that the obtained final result is more accurate.
Finally, it is noted that the above embodiments are only for illustrating the technical solution of the present invention and not for limiting the same, and although the present invention has been described in detail with reference to the preferred embodiments, it should be understood by those skilled in the art that modifications and equivalents may be made thereto without departing from the spirit and scope of the technical solution of the present invention, which is intended to be covered by the scope of the claims of the present invention.