Mapping-configurable communication signal card partner automatic ordering interface system and mapping-configurable communication signal card partner automatic ordering interface method

Abstract

The invention discloses a mapping-configurable communication signal card partner automatic order placing interface system and method, and relates to the technical field of communication interface automation, and the method comprises the steps: an interface abstraction layer defines a uniform interface specification, shields operator interface heterogeneous differences, and provides a consistent API; the product-interface mapping management module supports a visual configuration mapping relation and synchronously stores the mapping relation to a database and a cache; the abstract factory client module dynamically instantiates an interface client; the automatic order placing process engine completes full-process automatic processing of orders; the log and monitoring module records calling information and monitors indexes in real time; the data storage module adopts a double-storage mode to guarantee high availability and efficient access of data; the security authentication module integrates a multi-dimensional security mechanism. According to the invention, interface configuration and business logic decoupling are realized, and an operator can autonomously configure a mapping relation; the automatic process improves order processing efficiency, quickly adapts to business changes, and greatly improves operation and maintenance efficiency.

Description

Technical Field

[0001] This invention relates to the field of communication interface automation technology, and in particular to a configurable mapping communication card partner automated order placement interface system and method. Background Technology

[0002] With the rapid development of the digital economy, the online business scale of the telecommunications industry continues to expand. To broaden market coverage and improve user acquisition efficiency, operators have established extensive business collaborations with various SIM card partners, including internet platforms, e-commerce channels, and financial institutions. Under this multi-channel cooperation model, the automated processing of user online number selection, network access, and plan activation has become a core requirement. Interface integration between operators and partners is the key support for realizing this series of processes. Differences in business scenarios and technical architectures among different operators and partners lead to significant heterogeneity in interface protocols, parameter formats, encryption methods, signature rules, and call flows, highlighting the increasing complexity of interface integration.

[0003] The existing methods for integrating mobile phone card order interfaces generally rely on manual configuration and hard coding by developers, lacking a unified interface integration and management mechanism. When adding new partners, changing interface parameters, or adjusting business rules, developers must rewrite the code, conduct integration testing, and deploy it online. The entire process is lengthy and labor-intensive, severely restricting business response speed and failing to adapt to the needs of rapid market changes and agile business deployment. Operations personnel cannot independently manage the mapping relationship between products and interfaces; any minor configuration adjustment requires intervention from the technical team, which not only reduces business operation efficiency but also easily leads to interface call failures and order processing anomalies due to human error. At the same time, the interface call process lacks comprehensive logging and anomaly monitoring mechanisms, making it difficult to quickly trace the root cause after problems occur, resulting in low troubleshooting efficiency and further impacting business continuity and user experience.

[0004] Existing interface integration solutions often employ centralized architectures or general-purpose integration platforms, which have significant shortcomings in business scenarios such as communication cards that require flexible configuration and rapid response. These solutions have complex configuration processes, high learning costs, and struggle to achieve precise mapping and rapid adjustments at the business level. Furthermore, they have limited adaptability to heterogeneous interfaces and cannot effectively mask the technical differences between interfaces from different operators. In today's increasingly competitive market and constantly evolving business models, the telecommunications industry has an increasingly urgent need for flexibility in interface management, system scalability, and business response speed. Traditional interface connection methods can no longer meet the industry's development requirements. There is an urgent need for an interface integration solution that can decouple interface configuration from business logic, support autonomous operation by operators, and possess high automation and adaptability, fundamentally solving many of the pain points of existing technologies. Summary of the Invention

[0005] The present invention proposes a configurable mapping communication card partner automated order placement interface system and method to solve the problems mentioned in the prior art.

[0006] To achieve the above objectives, the present invention adopts the following technical solution: a configurable mapping communication card partner automated order placement interface system, comprising the following modules: The interface abstraction layer defines a unified top-level interface declaration core method, encapsulates the protocol differences, data formats, encryption methods, and signature rules of interfaces from different operators, and provides a consistent API to the upper layer through adaptation and conversion, shielding the details of heterogeneous interfaces; The product and interface mapping management module provides a visual management backend, which supports operations personnel in creating, editing, enabling, and disabling the mapping relationship between products and interface clients, and setting the mapping effective time, priority, and applicable scenarios; The abstract factory client module contains an abstract factory class and multiple concrete factory classes. It dynamically instantiates the corresponding operator interface client based on the interface client type in the mapping relationship. The automated order placement engine receives order requests from the front end, parses product information to match mapping relationships, calls the corresponding interface client, and completes parameter verification, assembly, serialization, encryption and signing, request sending, response receiving, result parsing, and order status updates. The logging and monitoring module records the request parameters, response data, time consumption, status, and exception information for each API call. It monitors the API call success rate, response latency, and error code distribution in real time and supports log retrieval, export, and exception alarms. The data storage module adopts a dual storage mode combining relational database and cache to store product information, mapping configuration, interface client configuration, order data, and log records. The security authentication module integrates data encryption, signature verification, access control, and anti-replay attack mechanisms to encrypt and decrypt interface requests and responses.

[0007] Furthermore, it also includes a module for dynamically adjusting interface adaptation priorities. This module adjusts the priority based on historical interface call data and real-time status using formulas. Calculate the adaptation priority score for each interface client, where For the first Priority score for each interface client. For response speed weighting coefficient, For stability weighting coefficients, This is the load margin weighting coefficient. Error rate weighting coefficient and + + + =1, For the first Normalized average response time of each interface client. For the first The success rate of API client calls over the past 7 days. For the first The current load margin percentage of each interface client. For the first Error rate of each interface client over the past 7 days.

[0008] Furthermore, it also includes a mapping configuration version management module, which supports the creation, switching, rollback, and comparison of mapping configuration versions. Operations personnel can quickly create new configurations based on historical versions and set different versions of mapping configurations for different regions, channels, and time periods.

[0009] Furthermore, it also includes an intelligent retry and degradation module, with a built-in retry strategy engine and degradation rule library. It automatically triggers retries for interface call timeouts and non-fatal errors. The number of retries and the interval time are dynamically adjusted according to the interface type, and the retry frequency is controlled by an exponential backoff algorithm. When the interface is continuously abnormal or reaches the circuit breaker threshold, the degradation mechanism is automatically triggered, switching to the backup interface client or returning a preset fallback response. At the same time, degradation logs are recorded and alarm notifications are sent.

[0010] Furthermore, it also includes a dynamic parameter validation and conversion module, which builds a visual parameter validation rule engine. Operations personnel can customize parameter validation rules and support complex validation logic. After the system receives an order request, it automatically matches the corresponding validation rules according to the interface client type, performs legality validation on the parameters, and returns a clear error message when the rules are not met. At the same time, it automatically completes parameter format conversion, field mapping, and unit conversion.

[0011] Furthermore, it also includes a cross-protocol adaptation module that supports multiple communication protocols. The built-in protocol conversion engine automatically identifies the protocol type of the interface client and completes the encapsulation of the request protocol and the parsing of the response protocol. Communication parameters are optimized for the characteristics of different protocols. For the HTTP protocol, it supports connection pool reuse and dynamic timeout adjustment. For the HTTPS protocol, it supports automatic TLS version negotiation and dynamic certificate update. For the SOAP protocol, it supports WSDL parsing and complex type serialization.

[0012] Furthermore, it also includes an operational data analysis module, which integrates data statistics, mining, and visualization functions to perform multi-dimensional statistical analysis of product data and generate daily, weekly, and monthly reports; it supports filtering data by dimension, displaying trend changes through charts, and identifying business bottlenecks and optimization points.

[0013] Furthermore, this includes the following steps: The mapping configuration steps involve operations personnel creating a mapping relationship between products and interface clients through a visual management backend, and setting mapping priority, activation conditions, and version information; The instantiation steps for the interface client are as follows: when the system starts, the abstract factory class and the concrete factory class are initialized; after receiving the order request, the product information is parsed, and the interface client type is determined according to the mapping relationship. The order parameter processing steps involve the automated order placement process engine receiving front-end order requests, extracting user data, calling the dynamic parameter validation rule engine to validate the parameters for legality, and then completing parameter assembly, format conversion, and field mapping according to the interface client requirements. In the encryption and signing steps, the security authentication module encrypts the processed request parameters, using a symmetric encryption algorithm to encrypt sensitive data. The order request execution steps are as follows: the interface client encapsulates the request message according to the corresponding communication protocol, sends the request to the operator interface through the connection pool, monitors the request status in real time, and triggers an intelligent retry mechanism for timeouts and non-fatal errors. The response parsing and status update steps are as follows: receive the operator interface response, verify the response signature and data integrity, parse the response result to extract the order number, status information and error message, update the order status to the corresponding status and synchronize it to the data storage module; The logging and monitoring module records all information about this call, updates monitoring metrics in real time, and triggers alarm notifications in case of abnormal situations. The data archiving and analysis process involves the system periodically archiving order data and log records to the database, and the operational data analysis module performing multi-dimensional statistical analysis on the archived data.

[0014] Furthermore, it includes dynamic parameter optimization steps, which analyze the impact of different parameter combinations on interface response speed and success rate based on historical API call data and operational analysis results; for products and API combinations with high frequency of calls, it automatically adjusts the parameter serialization method, field order, and encryption algorithm, and compares the call performance before and after optimization; at the same time, it supports operators to manually adjust optimization parameters, and the system records the performance data before and after adjustment for subsequent analysis.

[0015] Furthermore, it includes a graded exception handling process, classifying interface call exceptions into three categories: fatal exceptions, non-fatal exceptions, and timeout exceptions, and developing specific handling strategies for different levels of exceptions. Fatal exceptions include signature verification failures, insufficient permissions, and missing core parameters, which directly return an error response and record an alarm. Non-fatal exceptions include returned error codes and abnormal data formats, which trigger an intelligent retry mechanism, and perform degradation after the retry reaches a threshold. Timeout exceptions dynamically adjust the retry interval and number of times based on the timeout duration, while monitoring the interface load status. The system classifies and statistically analyzes all exceptions and generates exception analysis reports periodically.

[0016] Compared with existing technologies, the beneficial effects of this invention are: This invention presents a configurable mapping automated order placement interface system and method for mobile SIM card partners, which comprehensively overcomes existing technical bottlenecks and offers significant core advantages. It provides an efficient, flexible, and secure solution for interface integration in the telecommunications industry's SIM card partnership business. By constructing a unified interface abstraction layer, the system effectively shields the heterogeneous characteristics of different operator interfaces, such as protocol differences, data formats, and encryption methods, providing consistent API calls for upper-layer services. This significantly reduces the technical complexity of interface integration and avoids adaptation problems caused by interface heterogeneity.

[0017] The configurable product-interface mapping mechanism empowers operations personnel with autonomous management permissions. Mapping relationships can be created, edited, and switched through a visual backend without developer intervention. When interfaces change or new partners are added, only configuration parameters need to be adjusted; no code modification or redeployment is required, significantly improving business response speed and deployment efficiency, and quickly adapting to market changes and business iteration needs. The abstract factory client module enables dynamic instantiation and pooling management of interface clients. Combined with an automated order placement engine, it automates the entire process of order request reception, parameter processing, request sending, response parsing, and status updates, reducing manual intervention, lowering the probability of operational errors, and improving order processing efficiency and accuracy.

[0018] The logging and monitoring module records the entire API call process in detail, monitoring key indicators such as call success rate, response latency, and error distribution in real time. It promptly alerts users to anomalies, providing comprehensive support for problem tracing, performance optimization, and business auditing, significantly improving troubleshooting efficiency and ensuring business continuity. The security authentication module integrates multi-dimensional security mechanisms, implementing data encryption, signature verification, access control, and replay attack prevention. This comprehensively ensures the data security and request legitimacy of API communications, mitigating the risks of information leakage and unauthorized calls.

[0019] The cross-protocol adaptation module and dynamic parameter verification and conversion function further expand the system's adaptability, supporting multiple communication protocols and complex parameter verification logic. It adapts to the interface requirements of different operators without additional development, improving system scalability and compatibility. The operational data analysis module provides data support for operational decision-making, interface optimization, and product adjustments through multi-dimensional data statistics and mining, facilitating refined business operations. Overall, the system achieves complete decoupling of interface configuration and business logic, balancing flexibility, automation, security, and maintainability. It comprehensively improves the operational efficiency and system adaptability of telecommunications card cooperation services, providing reliable technical support for multi-channel cooperation in the telecommunications industry. Attached Figure Description

[0020] Figure 1This is a schematic block diagram of the configurable mapping communication card partner automated order placement interface system proposed in this invention; Figure 2 This is a schematic block diagram of the method for the configurable mapping communication card partner automated order placement interface system proposed in this invention; Figure 3 Bar charts showing service response times under different interface configuration methods; Figure 4 Line charts showing order processing success rates under different abnormal scenarios; Figure 5 A pie chart comparing the degree of operational autonomy; Figure 6 A bar chart showing the time spent troubleshooting different anomaly types. Detailed Implementation

[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0022] In the description of this invention, it should be understood that the terms "center," "longitudinal," "lateral," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," and "counterclockwise," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention.

[0023] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of indicated technical features. Thus, features defined with "first" and "second" may explicitly or implicitly include one or more of the stated features. In the description of this invention, "a plurality of" means two or more, unless otherwise explicitly specified. Furthermore, the terms "installed," "connected," and "linked" should be interpreted broadly; for example, they may refer to a fixed connection, a detachable connection, or an integral connection; they may refer to a mechanical connection or an electrical connection; they may refer to a direct connection or an indirect connection through an intermediate medium; and they may refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances. The invention will now be described in further detail with reference to the accompanying drawings.

[0024] Reference Figures 1 to 6 A configurable mapping communication card partner automated order placement interface system, comprising the following modules: The interface abstraction layer defines a unified top-level interface declaration core method, encapsulates the protocol differences, data formats, encryption methods, and signature rules of interfaces from different operators, and provides a consistent API to the upper layer through adaptation and conversion, shielding the details of heterogeneous interfaces; The product-interface mapping management module provides a visual management backend, supporting operations personnel to create, edit, enable, and disable the mapping relationship between products and interface clients, set the mapping effective time, priority, and applicable scenarios, and persistently store the mapping relationship and synchronize it to the cache; The abstract factory client module contains an abstract factory class and multiple concrete factory classes. It dynamically instantiates the corresponding operator interface client based on the interface client type in the mapping relationship, and supports client instance pooling management and resource reuse. The automated order placement engine receives order requests from the front end, parses product information to match mapping relationships, calls the corresponding interface client, and completes parameter verification, assembly, serialization, encryption and signing, request sending, response receiving, result parsing and order status updating to achieve full-process automation. The logging and monitoring module records the request parameters, response data, time consumption, status, and exception information for each API call. It monitors the API call success rate, response latency, and error code distribution in real time and supports log retrieval, export, and exception alarms. The data storage module adopts a dual storage mode combining relational database and cache to store product information, mapping configuration, interface client configuration, order data, and log records, achieving high data availability and efficient access. The security authentication module integrates data encryption, signature verification, access control, and anti-replay attack mechanisms. It encrypts and decrypts interface requests and responses, verifies the legitimacy of the request source and the integrity of the data, and achieves secure interface communication.

[0025] This invention also includes an interface adaptation priority dynamic adjustment module, which adjusts the priority based on historical interface call data and real-time status using a formula. Calculate the adaptation priority score for each interface client, where For the first Priority score for each interface client. For response speed weighting coefficient, For stability weighting coefficients, This is the load margin weighting coefficient. Error rate weighting coefficient and + + + =1, For the first Normalized average response time of each interface client. For the first The success rate of API client calls over the past 7 days. For the first The current load margin percentage of each interface client. For the first The system calculates the error rate of each API client over the past 7 days and selects the optimal API client to perform the order placement operation based on priority scores, thereby improving the efficiency and stability of API calls.

[0026] This invention also includes a mapping configuration version management module, which supports the creation, switching, rollback, and comparison of mapping configuration versions. Each version records the person who modified the configuration, the modification time, the modified content, and the scope of effect. Operations personnel can quickly create new configurations based on historical versions and set different versions of mapping configurations for different regions, channels, and time periods to achieve canary releases and precise adaptation. When a new configuration is abnormal, it can be rolled back to a stable version with one click to ensure business continuity.

[0027] This invention also includes an intelligent retry and degradation module, with a built-in retry strategy engine and degradation rule library. It automatically triggers retries for interface call timeouts and non-fatal errors. The number of retries and the interval between retries are dynamically adjusted according to the interface type, and an exponential backoff algorithm is used to control the retry frequency to prevent increasing the interface load. When an interface continues to malfunction or reaches the circuit breaker threshold, a degradation mechanism is automatically triggered, switching to a backup interface client or returning a preset fallback response. Simultaneously, degradation logs are recorded and alarm notifications are sent to maintain the continuity of the order placement process.

[0028] This invention also includes a dynamic parameter validation and conversion module, constructing a visual parameter validation rule engine. Operators can customize parameter validation rules, including data type, length, value range, and format specifications, supporting complex validation logic such as regular expressions, enumerated values, and correlation validation. After receiving an order request, the system automatically matches the corresponding validation rules based on the interface client type, performs legality checks on the parameters, and returns a clear error message when the rules are not met. Simultaneously, it automatically completes parameter format conversion, field mapping, and unit conversion to adapt to the parameter requirements of different operators.

[0029] This invention also includes a cross-protocol adaptation module that supports multiple communication protocols such as HTTP, HTTPS, SOAP, and REST. A built-in protocol conversion engine automatically identifies the protocol type of the interface client, completing the encapsulation of the request protocol and the parsing of the response protocol. Communication parameters are optimized for the characteristics of different protocols: HTTP supports connection pool reuse and dynamic timeout adjustment; HTTPS supports automatic TLS version negotiation and dynamic certificate updates; and SOAP supports WSDL parsing and complex type serialization, achieving seamless integration and unified invocation of different protocol interfaces.

[0030] This invention also includes an operational data analysis module, integrating data statistics, mining, and visualization functions. It performs multi-dimensional statistical analysis on data such as product order volume, API call volume, success rate, response time, and error distribution, generating daily, weekly, and monthly reports. It supports data filtering by operator, partner, product type, region, and time period, displaying trend changes through charts to identify business bottlenecks and optimization points, providing data support for operational decisions, API optimization, and product adjustments.

[0031] This invention includes the following steps: The mapping configuration process involves operations personnel creating a mapping relationship between products and interface clients through a visual management backend, setting mapping priorities, activation conditions, and version information, and the system persistently storing the mapping configuration and synchronizing it to the cache. The steps for instantiating the interface client are as follows: When the system starts up, it initializes the abstract factory class and the concrete factory class. After receiving the order request, it parses the product information, determines the interface client type according to the mapping relationship, and dynamically instantiates the corresponding interface client through the abstract factory. It obtains an available client from the instance pool or creates a new instance. The order parameter processing steps involve the automated order placement process engine receiving front-end order requests, extracting data such as user network access information, product parameters, and order placement channels, calling the dynamic parameter validation rule engine to validate the parameters for legality, and then completing parameter assembly, format conversion, and field mapping according to the interface client requirements. The encryption and signing process involves the security authentication module encrypting the processed request parameters, using a symmetric encryption algorithm to encrypt sensitive data, and generating a signature based on the request parameters, timestamp, and key to ensure data transmission security and request legitimacy. The order request execution steps are as follows: the interface client encapsulates the request message according to the corresponding communication protocol, sends the request to the operator interface through the connection pool, monitors the request status in real time, triggers an intelligent retry mechanism for timeouts and non-fatal errors, and executes a degradation strategy if the retry fails. The response parsing and status update steps are as follows: receive the operator interface response, verify the response signature and data integrity, parse the response result to extract the order number, status information and error message, update the order status to the corresponding status and synchronize it to the data storage module; The logging and monitoring module records all information about the call, including request parameters, response data, time consumption, status, signature information, and encryption identifier. It also updates monitoring metrics in real time and triggers alarm notifications in case of abnormal situations. The data archiving and analysis process involves the system periodically archiving order data and log records to the database. The operational data analysis module performs multi-dimensional statistical analysis on the archived data and generates analysis reports to support operational decisions.

[0032] This invention also includes a dynamic parameter optimization step. Based on historical API call data and operational analysis results, a parameter optimization model is constructed to analyze the impact of different parameter combinations on API response speed and success rate. For frequently called products and API combinations, the system automatically adjusts the parameter serialization method, field order, and encryption algorithm. By comparing the call performance before and after optimization, the optimal parameter configuration is retained, continuously improving API call efficiency and stability. Simultaneously, it supports manual adjustment of optimization parameters by operations personnel, and the system records performance data before and after adjustment for subsequent analysis.

[0033] This invention also includes a graded exception handling step, classifying interface call exceptions into three categories: fatal exceptions, non-fatal exceptions, and timeout exceptions, and developing specific handling strategies for each level of exception. Fatal exceptions include signature verification failure, insufficient permissions, and missing core parameters, which directly return an error response and record an alarm; non-fatal exceptions include returned error codes and data format errors, triggering an intelligent retry mechanism, and performing degradation after the retry reaches a threshold; timeout exceptions dynamically adjust the retry interval and number of times based on the timeout duration, while monitoring the interface load status to prevent excessive retries. The system classifies and statistically analyzes all exceptions, periodically generating exception analysis reports to provide a basis for interface optimization and configuration adjustments.

[0034] The following two examples further illustrate the specific implementation of this system: Example 1: Application of bulk ordering scenario for mobile phone cards on e-commerce platforms This embodiment is applied to the sales business of mobile phone cards on a large e-commerce platform. The platform needs to connect to the interfaces of multiple operators, support individual users placing individual orders and enterprise users placing bulk orders, and requires flexible mapping between products and interfaces, automated processing of bulk orders, and high stability. The specific implementation process is as follows: I. Execution of Core Processes and Key Steps System Initialization and Module Deployment: After system startup, each module automatically completes self-checks and initialization. The interface abstraction layer loads the unified top-level interface and client implementation classes for the three major telecom operators (China Mobile, China Unicom, and China Telecom), defines core methods such as `placeOrder` and `queryOrder`, and encapsulates HTTP / HTTPS protocol differences, JSON / XML data format conversion, AES / RSA encryption, and MD5 / SHA256 signature rules. The data storage module initializes the relational database and cache, establishes a product information table, a mapping configuration table, an order data table, and a log record table, and synchronizes commonly used mapping configurations to the cache to improve access speed. The security authentication module loads encryption keys, signing keys, and access control lists, and completes the timestamp verification rule configuration to prevent replay attacks.

[0035] Product-Interface Mapping Configuration: Operations personnel use the visual backend of the mapping configuration management module to create mapping relationships between products sold on e-commerce platforms, such as 4G SIM cards, 5G SIM cards, and IoT cards, and operator interfaces. For example, 5G SIM cards are mapped to the China Mobile interface client, with the effective time being the current time, priority 8, and applicable to nationwide online channels; 4G SIM cards are mapped to the China Unicom interface client, priority 6; and IoT cards are mapped to the China Telecom interface client, priority 7. The mapping configuration version management module automatically creates version number V1.0, records the person who modified the configuration, the modification time, and the modified content, and synchronously stores this information in the database and cache.

[0036] Interface adaptation priority calculation: The interface adaptation priority dynamic adjustment module starts and is set. =0.3 =0.3 =0.2 =0.2 and satisfies + + + =1. Collect the mobile API client call success rate over the past 7 days. =99.2%, normalized average response rate =0.85, current load margin percentage =70%, error rate in the last 7 days =0.8%; China Unicom interface client =98.8%, =0.78, =65%, =1.2%; Telecom interface client =99.0%, =0.82, =75%, =0.6%. Substitute into the formula. Calculated =0.3×0.85+0.3×0.992+0.2×0.7+0.2×0.008=0.255+0.2976+0.14-0.0016=0.691, =0.3×0.78+0.3×0.988+0.2×0.65+0.2×0.012=0.234+0.2964+0.13-0.0024=0.658, =0.3×0.82+0.3×0.99+0.2×0.75+0.2×0.006=0.246+0.297+0.15-0.0012=0.6918, the system determines the optimal interface client by sorting according to priority score.

[0037] Automated Batch Order Processing: Enterprise users submit orders for 1000 5G SIM card plans via an e-commerce platform's batch ordering interface. The automated ordering engine receives the order request, parses the product information as 5G SIM card plans, and matches the mapping relationship to obtain the mobile interface client type. The abstract factory client module dynamically instantiates mobile interface clients through a mobile concrete factory class, obtaining available client resources from the instance pool. The dynamic parameter validation and conversion module calls the validation rule engine to validate the data type, length, and format of parameters such as user name, ID number, and mobile phone number according to the mobile interface requirements. After passing the validation, the parameters are converted to the JSON format required by the mobile interface, completing field mapping and unit conversion.

[0038] Security processing and request execution: The security authentication module uses the AES algorithm to encrypt sensitive data such as ID card numbers and mobile phone numbers, generates a SHA256 signature based on the timestamp key of the request parameters, and concatenates the request header and request body to form a complete request message. The cross-protocol adaptation module encapsulates the request according to the HTTP protocol, enables connection pooling and reuse, and sets a timeout of 5 seconds. The interface client sends requests to the mobile order interface, monitors the request status in real time, and if three order requests time out due to network fluctuations, the intelligent retry and degradation module triggers the retry mechanism, setting the retry interval to 1 second, 2 seconds, and 4 seconds according to the exponential backoff algorithm. Success is achieved after 2 retries.

[0039] Response Processing and Status Update: Upon receiving the mobile interface response, the security authentication module verifies the response signature and data integrity, parses the response result to extract the order number and successful acceptance status information, updates the status of 1000 orders to "accepted," and synchronizes it to the data storage module. The logging and monitoring module records the request parameters, response data latency, status signature information, and encryption identifier of this call, and updates monitoring indicators such as interface call success rate and response latency in real time. No alarms are triggered if there are no abnormalities. The operational data analysis module calculates the average time taken for the success rate of this batch of orders, providing data support for subsequent optimization.

[0040] II. Data Representation and Interpretation Table 1 Comparison of performance of bulk ordering of mobile phone cards on e-commerce platforms Table 1 clearly demonstrates the significant advantages of this invention in batch order scenarios on e-commerce platforms. Traditional hard-coded solutions require developers to modify code, conduct joint debugging, testing, and deployment when adding new partners, resulting in a response time of up to 72 hours and configuration adjustments taking 4 hours, with only 10% of operations staff operating independently. This invention, through a configurable mapping mechanism, allows adding new partners to be configured in just 2 hours, adjusting mapping relationships in just 10 minutes, and achieving a 95% self-operation rate by operations staff. The automated process engine and intelligent retry mechanism increase the success rate of batch order processing to 99.5%, and the comprehensive log monitoring module reduces anomaly investigation time to 15 minutes, significantly improving business response speed and operational efficiency, adapting to the high-frequency order processing and flexible business adjustment needs of e-commerce platforms.

[0041] Example 2: Application of multi-carrier SIM card mixed ordering scenario in chain stores This embodiment is applied to the SIM card sales business of a nationwide chain of telecommunications service halls. The service halls need to connect to interfaces of multiple operators, support different regional stores for different operators, handle individual user orders and mixed orders for SIM cards from multiple operators, and achieve accurate adaptation across multiple scenarios, cross-protocol integration, and hierarchical handling of anomalies. The specific implementation process is as follows: I. Execution of Core Processes and Key Steps System Initialization and Multi-Version Mapping Configuration: After system startup, all modules are initialized. The interface abstraction layer encapsulates multiple protocols including HTTP, HTTPS, SOAP, and REST, adapting to different operators' parameter formats and encryption rules. The mapping configuration version management module creates V2.0 configurations, setting 4G SIM cards to map to the China Mobile interface and 5G SIM cards to the China Unicom interface for stores in North China; and 4G SIM cards to map to the China Telecom interface and 5G SIM cards to the China Mobile interface for stores in South China. These settings are effective from 9:00 AM to 9:00 PM on weekdays. The data storage module uses a dual-storage mode: a cache stores the currently effective regional mapping configurations, and the database stores the full configurations and historical versions.

[0042] Interface adaptation priority and client instantiation: Dynamic adjustment module settings for interface adaptation priority =0.25 =0.35 =0.2 =0.2, collecting mobile interface data in North China. =98.9% =0.81 =68% =0.9%, Unicom interface =99.1%R²=0.79 =72% =0.7%. Substituting into the formula, we get... =0.25×0.81+0.35×0.989+0.2×0.68+0.2×0.009=0.2025+0.34615+0.136-0.0018=0.68285, P2=0.25×0.79+0.35×0.991+0.2×0.72+0.2×0.007=0.1975+0.34685+0.144-0.0014=0.68695. The system selects the China Unicom interface client as the optimal adaptation for 5G SIM cards in the North China region. The abstract factory client module initializes the abstract factory class and each concrete factory class. After receiving the order request, it parses the regional information and product type, dynamically instantiates the corresponding interface client, and reuses the instance pool resources.

[0043] Hybrid Order Processing and Parameter Optimization: When a user places an order for both a 4G SIM card and a 5G SIM card simultaneously at a business hall in the North China region, the automated order processing engine receives the order request, parses the product information, and matches the mapping relationships: the 4G SIM card corresponds to the China Mobile interface, and the 5G SIM card corresponds to the China Unicom interface. The dynamic parameter verification and conversion module verifies the 4G SIM card parameters according to the China Mobile interface rules, using regular expressions to verify the phone number format, enumerating values ​​to verify the package type, and verifying the consistency between the ID number and name. It also verifies the 5G SIM card parameters according to the China Unicom interface rules, automatically completing field mapping and format conversion. The dynamic parameter optimization steps adjust the parameter serialization method based on historical data: 4G SIM card orders use JSON serialization, sorted by field frequency and encrypted with AES; 5G SIM card orders use JSON serialization, sorted by interface requirements and encrypted with RSA, improving call efficiency.

[0044] Cross-protocol adaptation and security authentication: The mobile interface for 4G SIM card orders uses the HTTP protocol, and the cross-protocol adaptation module enables connection pool reuse with a dynamic timeout adjustment of 4 seconds; the China Unicom interface for 5G SIM card orders uses the HTTPS protocol, automatically negotiating TLS 1.3 and dynamically updating certificates. The security authentication module encrypts sensitive data, generates request signatures, adds timestamps to prevent replay attacks, and verifies the legitimacy of the request source. The interface client sends requests according to the corresponding protocol, monitors the request status in real time, and if the 5G SIM card order call returns a non-fatal error code, the intelligent retry and degradation module triggers 3 retries with intervals of 1 second, 3 seconds, and 5 seconds, and the retries are successful; the 4G SIM card order call is normal.

[0045] Response parsing and exception handling: Receive operator responses, verify signatures and data integrity, parse the response results to extract order numbers and status information, update the status of both orders to "completed," and synchronize with the database. The exception handling process categorizes API call exceptions: no fatal exceptions or timeout exceptions are identified; non-fatal exceptions are resolved through retries. The logging and monitoring module records all call information, and the operational data analysis module statistically analyzes regional order volume, API call success rate, and response time, generating daily reports for operational decision-making. When store mapping configuration in the South China region becomes abnormal, operations personnel can use the version management module to roll back to the stable V1.0 version with one click, ensuring business continuity.

[0046] II. Data Representation and Interpretation Table 2 Comparison of performance of multi-carrier SIM card mixed ordering in chain stores Table 2 highlights the core advantages of this invention in mixed order placement scenarios within chain store channels. Traditional solutions fail to achieve precise adaptation across multiple regions, have mediocre cross-protocol interface integration, require manual interface switching for mixed order processing, resulting in low efficiency, an anomaly handling success rate of only 80%, and a 2-hour version rollback time. This invention achieves precise adaptation across multiple regions through multi-version mapping configuration, seamlessly integrates multiple communication protocols through a cross-protocol adaptation module, and efficiently processes mixed orders through an automated process engine. Intelligent retry and anomaly tiered handling mechanisms ensure a 99% anomaly handling success rate, with a version rollback response time of only 5 minutes, guaranteeing business continuity. The overall solution meets the complex needs of chain store channels across multiple regions, operators, and protocols, improving order processing efficiency and system stability.

[0047] Reference Figure 3This diagram clearly illustrates the significant improvement in business response speed brought about by the configurable mechanism of this invention, directly addressing the core pain points of traditional hard-coded solutions. Traditional methods rely on developers manually modifying code and conducting integration tests; adding new partners requires 72 hours, and changing interface protocols requires 24 hours, severely lagging behind market changes. This invention, through visual configuration of product-interface mapping and an interface abstraction layer design, decouples interface configuration from business logic. Operations personnel can independently complete configuration adjustments; adding new partners takes only 2 hours, and switching mapping relationships takes only 5 minutes. This high-efficiency response capability stems from the configurable mapping mechanism and the dynamic instantiation technology of the abstract factory, eliminating the need for code modification and redeployment, significantly shortening the business launch cycle, and allowing the system to quickly adapt to the frequent business iterations and cooperation expansion needs of the communications industry.

[0048] Reference Figure 4 This diagram visually demonstrates the high stability of this invention under complex and abnormal scenarios, highlighting the technical advantages of its intelligent retry, anomaly classification handling, and security authentication modules. Traditional solutions lack effective anomaly handling mechanisms; the success rate for temporary interface unavailability is only 5%, and signature verification failures result in complete inability to process requests. This invention develops specific strategies for different anomaly types. During network fluctuations, intelligent retries and exponential backoff algorithms ensure request delivery; when parameters are incorrect, a dynamic parameter verification and conversion module corrects the format; and when an interface is unavailable, a fallback switch to a backup interface is initiated. The security authentication module, through robust encryption and signature mechanisms, maintains a success rate of 98% for data encryption anomalies and 85% for signature verification failures. This end-to-end anomaly protection system significantly improves the reliability of order processing, preventing business interruptions and user losses due to anomalies.

[0049] Reference Figure 5 This diagram clearly illustrates the empowering effect of this invention on operations personnel, completely changing the passive situation of "operations relying on development" in traditional solutions. In traditional solutions, core operations such as switching interface clients and creating mappings require developers to lead, with almost zero autonomy for operations personnel. Any configuration adjustment requires technical intervention, severely restricting operational efficiency. This invention, through a visual configuration management backend, opens up operations personnel to product-interface mapping and configuration modification operations. They can complete self-configuration without coding knowledge, achieving a 95% autonomy rate for mapping creation and a 98% autonomy rate for configuration modification. Anomaly troubleshooting relies on detailed records from logs and monitoring modules, allowing operations personnel to independently search and analyze data, achieving an 80% autonomy rate. This high degree of autonomy stems from the decoupling design of interface configuration and business logic, making operations personnel the leaders in business adjustments, significantly reducing communication costs and operational delays, and improving overall operational efficiency.

[0050] Reference Figure 6This diagram visually demonstrates the improved maintenance efficiency brought by the logging and monitoring module of this invention, solving the "blind men and the elephant" problem of traditional anomaly troubleshooting. Traditional solutions lack a unified logging and monitoring mechanism, requiring line-by-line code checks and interface documentation verification after an anomaly occurs. Troubleshooting protocol adaptation errors takes 6 hours, and encryption anomalies take 5 hours, severely impacting business continuity. The logging and monitoring module of this invention records the entire process of interface calls, including request parameters, response data, signature information, encryption identifiers, and time consumption status. After an anomaly occurs, the root cause can be quickly located through keyword search. Signature verification failure troubleshooting takes only 20 minutes, and protocol adaptation errors only 30 minutes, significantly shortening the troubleshooting cycle. Comprehensive log traceability and real-time monitoring capabilities provide comprehensive data support for technical maintenance, reducing maintenance difficulty and costs, and ensuring long-term stable system operation.

[0051] The above are merely preferred embodiments of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A configurable mapping communication card partner automated order placement interface system, characterized in that, Includes the following modules: The interface abstraction layer defines a unified top-level interface declaration core method, encapsulates the protocol differences, data formats, encryption methods, and signature rules of interfaces from different operators, and provides a consistent API to the upper layer through adaptation and conversion, shielding the details of heterogeneous interfaces; The product and interface mapping management module provides a visual management backend, which supports operations personnel in creating, editing, enabling, and disabling the mapping relationship between products and interface clients, and setting the mapping effective time, priority, and applicable scenarios; The abstract factory client module contains an abstract factory class and multiple concrete factory classes. It dynamically instantiates the corresponding operator interface client based on the interface client type in the mapping relationship. The automated order placement engine receives order requests from the front end, parses product information to match mapping relationships, calls the corresponding interface client, and completes parameter verification, assembly, serialization, encryption and signing, request sending, response receiving, result parsing, and order status updates. The logging and monitoring module records the request parameters, response data, time consumption, status, and exception information for each API call. It monitors the API call success rate, response latency, and error code distribution in real time and supports log retrieval, export, and exception alarms. The data storage module adopts a dual storage mode combining relational database and cache to store product information, mapping configuration, interface client configuration, order data, and log records. The security authentication module integrates data encryption, signature verification, access control, and anti-replay attack mechanisms to encrypt and decrypt interface requests and responses.

2. The configurable mapping communication card partner automated order placement interface system according to claim 1, characterized in that, It also includes a module for dynamically adjusting interface adaptation priority. This module adjusts the priority based on historical data and real-time status of interface calls using formulas. Calculate the adaptation priority score for each interface client, where For the first Priority score for each interface client. For response speed weighting coefficient, For stability weighting coefficients, This is the load margin weighting coefficient. Error rate weighting coefficient and + + + =1, For the first Normalized average response time of each interface client. For the first The success rate of API client calls over the past 7 days. For the first The current load margin percentage of each interface client. For the first Error rate of each interface client over the past 7 days.

3. The configurable mapping communication card partner automated order placement interface system according to claim 1, characterized in that, It also includes a mapping configuration version management module, which supports the creation, switching, rollback, and comparison of mapping configuration versions. Operations personnel can quickly create new configurations based on historical versions and set different versions of mapping configurations for different regions, channels, and time periods.

4. The configurable mapping communication card partner automated order placement interface system according to claim 1, characterized in that, It also includes an intelligent retry and degradation module, with a built-in retry strategy engine and degradation rule library. It automatically triggers retries for interface call timeouts and non-fatal errors. The number of retries and the interval time are dynamically adjusted according to the interface type, and the exponential backoff algorithm is used to control the retry frequency. When the interface is continuously abnormal or reaches the circuit breaker threshold, the degradation mechanism is automatically triggered, switching to the backup interface client or returning a preset fallback response. At the same time, degradation logs are recorded and alarm notifications are sent.

5. The configurable mapping communication card partner automated order placement interface system according to claim 1, characterized in that, It also includes a dynamic parameter validation and conversion module, which builds a visual parameter validation rule engine. Operations personnel can customize parameter validation rules and support complex validation logic. After the system receives an order request, it automatically matches the corresponding validation rules according to the interface client type, performs legality validation on the parameters, and returns a clear error message when the rules are not met. At the same time, it automatically completes parameter format conversion, field mapping, and unit conversion.

6. The configurable mapping communication card partner automated order placement interface system according to claim 1, characterized in that, It also includes a cross-protocol adaptation module that supports multiple communication protocols. The built-in protocol conversion engine automatically identifies the protocol type of the interface client and completes the encapsulation of the request protocol and the parsing of the response protocol. Communication parameters are optimized for the characteristics of different protocols. For the HTTP protocol, it supports connection pool reuse and dynamic timeout adjustment. For the HTTPS protocol, it supports automatic TLS version negotiation and dynamic certificate update. For the SOAP protocol, it supports WSDL parsing and complex type serialization.

7. The configurable mapping communication card partner automated order placement interface system according to claim 1, characterized in that, It also includes an operational data analysis module, which integrates data statistics, mining, and visualization functions to perform multi-dimensional statistical analysis of product data and generate daily, weekly, and monthly reports; it supports filtering data by dimension, displaying trend changes through charts, and identifying business bottlenecks and optimization points.

8. A method for automated order placement by a partner using a configurable mapping communication card as described in any one of claims 1-7, characterized in that, Includes the following steps: The mapping configuration steps involve operations personnel creating a mapping relationship between products and interface clients through a visual management backend, and setting mapping priority, activation conditions, and version information; The instantiation steps for the interface client are as follows: when the system starts, the abstract factory class and the concrete factory class are initialized; after receiving the order request, the product information is parsed, and the interface client type is determined according to the mapping relationship. The order parameter processing steps involve the automated order placement process engine receiving front-end order requests, extracting user data, calling the dynamic parameter validation rule engine to validate the parameters for legality, and then completing parameter assembly, format conversion, and field mapping according to the interface client requirements. In the encryption and signing steps, the security authentication module encrypts the processed request parameters, using a symmetric encryption algorithm to encrypt sensitive data. The order request execution steps are as follows: the interface client encapsulates the request message according to the corresponding communication protocol, sends the request to the operator interface through the connection pool, monitors the request status in real time, and triggers an intelligent retry mechanism for timeouts and non-fatal errors. The response parsing and status update steps are as follows: receive the operator interface response, verify the response signature and data integrity, parse the response result to extract the order number, status information and error message, update the order status to the corresponding status and synchronize it to the data storage module; The logging and monitoring module records all information about this call, updates monitoring metrics in real time, and triggers alarm notifications in case of abnormal situations. The data archiving and analysis process involves the system periodically archiving order data and log records to the database, and the operational data analysis module performing multi-dimensional statistical analysis on the archived data.

9. The configurable mapping communication card partner automated order placement method according to claim 8, characterized in that, It also includes dynamic parameter optimization steps, which analyze the impact of different parameter combinations on interface response speed and success rate based on historical API call data and operational analysis results; for products and API combinations with high frequency of calls, it automatically adjusts the parameter serialization method, field order, and encryption algorithm, and compares the call performance before and after optimization; at the same time, it supports operators to manually adjust optimization parameters, and the system records the performance data before and after adjustment for subsequent analysis.

10. The configurable mapping communication card partner automated order placement method according to claim 8, characterized in that, It also includes a graded exception handling process, classifying interface call exceptions into three categories: fatal exceptions, non-fatal exceptions, and timeout exceptions, and developing specific handling strategies for different levels of exceptions. Fatal exceptions include signature verification failure, insufficient permissions, and missing core parameters, which directly return an error response and record an alarm. Non-fatal exceptions include returned error codes and data format errors, which trigger an intelligent retry mechanism, and perform degradation after the retry reaches a threshold. Timeout exceptions dynamically adjust the retry interval and number of times based on the timeout duration, while monitoring the interface load status. The system classifies and statistically analyzes all exceptions and generates exception analysis reports periodically.

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