Third-party platform docking method, system and device for electronic bidding system

Abstract

The present invention relates to the technical field of enterprise resource system integration, and in particular to a third-party platform docking method, system and device for an electronic bidding system. The method comprises: screening a third-party platform market according to interface requirements collected from an electronic bidding system to determine a third-party application platform; sending collected bidding information to a third-party application platform; determining a correspondence between bidding docking information and bidding docking information, integrating them based on the correspondence to form a bidding docking platform; setting a data signature for the bidding docking platform and performing data security encryption; transmitting the bidding docking set after data security encryption to a bidding system, and verifying the set data signature; through the present invention, the problem of lack of flexibility and scalability in a traditional electronic bidding system is effectively solved, the system compatibility and data format problems are solved, and the bidding efficiency and quality are significantly improved.

Description

Technical Field

[0001] The present invention relates to the technical field of enterprise resource system integration, and in particular to a third-party platform docking method, system and device for an electronic bidding system. Background Art

[0002] In the modern e-commerce procurement environment, electronic bidding systems play a vital role. These systems make bidding activities transparent and efficient by digitizing the bidding process.

[0003] Traditional bidding systems are often limited to specific software environments or platforms and lack sufficient flexibility and scalability. In these systems, information exchange between the tenderer and the bidder is usually not flexible enough, and security protection during data interaction is often unsatisfactory. In addition, real-time updating and processing of information are often limited by system compatibility and inconsistent data formats.

[0004] The information disclosed in this background technology section is only intended to deepen the understanding of the overall background technology of the present disclosure, and should not be regarded as acknowledging or suggesting in any form that the information constitutes the prior art known to those skilled in the art. Summary of the invention

[0005] The present invention provides a third-party platform docking method, system and device for an electronic bidding system, which can effectively solve the problems in the background technology.

[0006] In order to achieve the above object, the technical solution adopted by the present invention is:

[0007] A method for connecting to a third-party platform of an electronic bidding system, the method comprising:

[0008] Obtain interface service requirements of the electronic bidding system, screen the third-party platform market according to the interface service requirements, and determine the third-party application platform;

[0009] Respectively obtaining tender connection information and bid connection information, and sending the tender connection information and bid connection information to the third-party application platform;

[0010] The bidding connection information corresponds to the tender connection information one by one, and the corresponding bidding connection information and tender connection information are integrated into a bidding connection set;

[0011] Setting a data signature for the bidding and tendering docking set, wherein the data signature performs data security encryption on the bidding and tendering docking set;

[0012] The bidding and tendering connection set after data security encryption is transmitted to the electronic bidding and tendering system, and the data signature set for the bidding and tendering connection set is verified and signed.

[0013] Furthermore, a data signature is set for the bidding and tendering docking set, and the data signature performs data security encryption on the bidding and tendering docking set, including:

[0014] Splitting the bidding and tendering docking set to obtain a number of docking information fragments, and performing hash processing on the docking information fragments to generate corresponding hash values;

[0015] Performing data security encryption on each of the hash values, generating the data signature, and attaching the data signature to the corresponding docking information fragment;

[0016] Each docking information fragment with the data signature is packaged and transmitted to the electronic bidding system.

[0017] Furthermore, a data signature is set for the bidding and tendering docking set, and the data signature performs data security encryption on the bidding and tendering docking set, including:

[0018] Performing hash processing on the bidding and tendering docking set to generate a hash value, and performing data security encryption on the hash value to generate the data signature;

[0019] Splitting the bidding and tendering docking set to obtain a number of docking information fragments;

[0020] Select one of the docking information fragments and attach the data signature, and transmit it to the electronic bidding system;

[0021] The electronic bidding system verifies the data signature of the received docking information fragment according to the public key, and generates verification receipt information if the verification is successful;

[0022] The verification receipt information is attached with the data signature and sent back to the third-party platform, and one of the docking information fragments will continue to be selected for reciprocating transmission until the electronic bidding system completely receives the bidding docking set.

[0023] Furthermore, the bidding and tendering connection set after data security encryption is transmitted to the electronic bidding and tendering system, and the data signature set for the bidding and tendering connection set is verified and signed, including:

[0024] Setting a public key and a private key, wherein the third-party platform generates a digital signature according to the private key;

[0025] The electronic bidding system verifies and signs the received docking information fragments according to the public key to verify the authenticity and integrity of the docking information fragments;

[0026] After the verification signatures of the plurality of docking information fragments are completed one by one, the bidding docking set is restored.

[0027] Further, screening the third-party platform market according to the interface service requirements includes:

[0028] Retrieving the interface service requirements, defining the interface service requirements as interface service standards, and establishing an interface standard framework;

[0029] Analyze the interface type and data exchange frequency of the interface service requirements, as well as the required security and compatibility standards, to obtain analysis results;

[0030] Based on the analysis results and the interface standard framework, each third-party platform is evaluated, and matching third-party platforms are screened and connected.

[0031] Furthermore, an interface standard framework is established, including:

[0032] Collect the system requirements and historical system requirements assessment standards of the electronic bidding system, and divide the system requirements into technical requirements, business requirements and security requirements according to the responsibilities assumed;

[0033] Based on the historical system assessment criteria, priority assessment is performed on the technical requirements, the business requirements, and the security requirements to obtain an assessment result;

[0034] assigning standard weights to the technical requirements, the business requirements, and the security requirements based on the assessment results;

[0035] Based on the standard weights, interface requirement standards are defined and an interface standard framework is established.

[0036] Furthermore, the corresponding bidding connection information and tender connection information are integrated into a bidding connection set, including:

[0037] Based on the interface standard framework, data standardization is performed on the bidding connection information and the tender connection information to obtain standardized data;

[0038] Establishing a feature matching model, adopting deep learning to train the feature matching model, processing the data features of the standardized data, and performing feature matching;

[0039] The bidding information and the tender information are integrated based on the feature matching result to form a bidding and tendering docking set.

[0040] Furthermore, deep learning is adopted to train the feature matching model, including:

[0041] Collecting historical bidding information, and constructing a first training set based on the historical bidding information;

[0042] Performing text data conversion on the first training set into a vector form, and extracting the text data in the vector form to form a second training set;

[0043] The feature matching model is trained based on the second training set, the trained feature matching model is optimized, and the feature matching model parameters are adjusted based on the optimization result.

[0044] A third-party platform docking system for an electronic bidding system, the system comprising:

[0045] The interface service requirement screening module obtains the interface service requirements of the electronic bidding system, screens the third-party platform market according to the interface service requirements, and determines the third-party application platform;

[0046] Obtaining a sending docking information module, respectively obtaining tender docking information and bid docking information, and sending the tender docking information and bid docking information to the third-party application platform respectively;

[0047] An information corresponding integration module, wherein the bidding connection information corresponds to the tender connection information one by one, and the corresponding bidding connection information and tender connection information are integrated into a bidding connection set;

[0048] A signature encryption docking module sets a data signature for the bidding docking set, and the data signature performs data security encryption on the bidding docking set;

[0049] The transmission verification encryption module transmits the bidding and tendering connection set after data security encryption to the electronic bidding and tendering system, and verifies the signature of the data signature set for the bidding and tendering connection set.

[0050] A third-party platform docking system of an electronic bidding system is applied to the device.

[0051] The technical solution of the present invention can achieve the following technical effects:

[0052] It effectively solves the problems of lack of flexibility and scalability in traditional electronic bidding systems, solves system compatibility and data format issues, and significantly improves bidding efficiency and quality.

[0053] The above description is only an overview of the technical solution of the present application. In order to more clearly understand the technical means of the present application, it can be implemented in accordance with the contents of the specification. In order to make the above and other purposes, features and advantages of the present application more obvious and easy to understand, the specific implementation methods of the present application are listed below. BRIEF DESCRIPTION OF THE DRAWINGS

[0054] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0055] Figure 1 It is a flowchart of the method of connecting with the third-party platform of the electronic bidding system;

[0056] Figure 2 A schematic diagram of the secure encryption process for tendering and bidding docking;

[0057] Figure 3 A schematic diagram of the integrated process for tendering and bidding docking;

[0058] Figure 4 This is a schematic diagram of the feature matching model training process;

[0059] Figure 5 This is the relationship diagram of the system modules for the third-party platform docking of the electronic bidding system. DETAILED DESCRIPTION

[0060] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0061] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art of the present invention. The terms used in the specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more related listed items.

[0062] Embodiment 1:

[0063] like Figure 1 As shown, the present application provides a third-party platform docking method for an electronic bidding system, the method comprising:

[0064] S100: obtaining interface service requirements of the electronic bidding system, screening the third-party platform market according to the interface service requirements, and determining the third-party application platform;

[0065] S200: Acquire bidding connection information and tender connection information respectively, and send the bidding connection information and tender connection information to a third-party application platform respectively;

[0066] S300: The bidding connection information corresponds to the tender connection information one by one, and the corresponding bidding connection information and tender connection information are integrated into a bidding connection set;

[0067] S400: Setting a data signature for the bidding and tendering connection set, and the data signature performs data security encryption on the bidding and tendering connection set;

[0068] S500: The bidding and tendering connection set after data security encryption is transmitted to the electronic bidding and tendering system, and the data signature set for the bidding and tendering connection set is verified and signed.

[0069] Specifically, we first collect and analyze the interface service requirements of the electronic bidding system, including determining the required data type, interaction frequency and security requirements, and data format compatibility. Based on these requirements, we conduct a market survey of third-party platforms and evaluate the technical capabilities, security performance, and compatibility of each platform with the electronic bidding system. After that, we select third-party application platforms that meet all technical and security requirements and establish cooperative relationships with them to ensure that the platforms can support subsequent docking and data exchange. Then, we extract the bidding docking information and the tender docking information respectively, and send them to the determined third-party application platform through a secure data transmission channel. Then, we process the received bidding information on the third-party platform. The information and bidding information are matched one by one, and the matched information is integrated into a bidding and tendering docking set to prepare for subsequent encryption and transmission. It should be noted that it is necessary to ensure that the bidding docking information and the bidding docking information are completely matched, and then the integrated bidding and tendering docking set is data signed, and encryption technology, such as the Advanced Encryption Standard, is used to fully encrypt the docking set with data signature to ensure its security during transmission. The encrypted bidding and tendering docking set is then transmitted back to the electronic bidding and tendering system through a secure communication protocol, and after the system receives the data, signature verification is performed to confirm that the data has not been tampered with during transmission to ensure the integrity and reliability of the data.

[0070] The technical solution of the present invention effectively solves the problems of lack of flexibility and scalability in traditional electronic bidding systems, solves system compatibility and data format problems, and significantly improves bidding efficiency and quality.

[0071] Further, if Figure 2 As shown, a data signature is set for the bidding and tendering connection set, and the data signature performs data security encryption on the bidding and tendering connection set, including:

[0072] S410: splitting the bidding and tendering docking set into data to obtain a number of docking information fragments, and performing hash processing on the docking information fragments respectively to generate corresponding hash values;

[0073] S420: Perform data security encryption on each hash value, generate a data signature, and attach the data signature to the corresponding docking information fragment;

[0074] S430: Pack each docking information fragment with a data signature and transmit it to the electronic bidding system.

[0075] As a preferred embodiment of the above, the bidding and tendering docking set is first decomposed into several smaller docking information fragments, which is helpful to process and encrypt each piece of data separately, reduce the complexity of data processing, and increase security. A hash function is applied to each docking information fragment. The hash function can convert an input of any length into an output of a fixed length. This output is the hash value, which is used to verify the integrity of the data without exposing the original data. Each generated hash value is encrypted, and the encrypted hash value obtained is the data signature. Each data signature is attached to the corresponding docking information fragment. In this way, each piece of data has a unique signature, which ensures the security and verifiability of the data during transmission or storage. The fragments are packaged. Data packaging not only includes organizing the data into a format with higher transmission efficiency, but also includes adding necessary header information and metadata, which are the key to ensuring that the data is correctly processed in the electronic bidding system. The packaged data is transmitted to the electronic bidding system through a secure communication protocol such as HTTPS. It should be noted that the protocol used in the transmission process should support end-to-end encryption to prevent the data from being intercepted or tampered with during the transmission process. It should be noted that in this embodiment, it is necessary to encrypt each hash value generated by several docking information fragments to generate a data signature, wherein the data signature corresponding to each docking information fragment needs to be verified and signed by the electronic bidding system to improve the security of the bidding docking set transmission.

[0076] Furthermore, a data signature is set for the bidding and tendering connection set, and the data signature performs data security encryption on the bidding and tendering connection set, including:

[0077] Perform hash processing on the bidding and tendering connection set, generate a hash value, perform data security encryption on the hash value, and generate a data signature;

[0078] Split the bidding and tendering docking set into data to obtain several docking information fragments;

[0079] Select one of the docking information fragments and attach a data signature, and transmit it to the electronic bidding system;

[0080] The electronic bidding system verifies the data signature of the received docking information fragments based on the public key, and generates verification receipt information if the verification is successful;

[0081] The verification receipt information is signed with additional data and sent back to the third-party platform, and one of the docking information fragments will continue to be selected for reciprocating transmission until the electronic bidding system completely receives the bidding docking set.

[0082] In this embodiment, first, the entire bidding and tendering docking set is hashed, and the hash function is used to process the entire data set to generate a unique hash value. This hash value will represent the data integrity fingerprint of the entire docking set. Then the hash value is encrypted to generate a data signature, and the bidding and tendering docking set is decomposed into a number of docking information fragments. One of the docking information fragments is selected and transmitted to the electronic bidding and tendering system together with the data signature. After the electronic bidding and tendering system receives the docking information fragment with the data signature, it uses the corresponding public key to decrypt the data signature and verify the hash value. If the hash value is consistent with the hash value recalculated by the system for the fragment, the verification is successful. After the verification is successful, the system generates verification receipt information and sends this receipt information together with the original data signature back to the third-party platform. After the third-party platform receives the verification receipt, it selects another docking information fragment without verifying the fragment again. The above transmission process is repeated until all docking information fragments are successfully received. The system can confirm the integrity and security of the data. In this embodiment, the use of a unique hash value and a data signature only requires the electronic bidding and tendering system to verify and sign it once, thereby improving the efficiency of secure transmission by reusing the data signature.

[0083] Furthermore, the bidding and tendering connection set after data security encryption is transmitted to the electronic bidding and tendering system, and the data signature set for the bidding and tendering connection set is verified and signed, including:

[0084] Set up public and private keys, and the third-party platform generates a digital signature based on the private key;

[0085] The electronic bidding system verifies and signs the received docking information fragments based on the public key to verify the authenticity and integrity of the docking information fragments;

[0086] After several docking information fragments have completed verification and signature one by one, the bidding and tendering docking set will be restored.

[0087] Specifically, the third-party platform first needs to generate a pair of keys, including a public key and a private key. The public key is public and can be accessed by the electronic bidding system for verification, while the private key remains private and is only used to generate digital signatures. The public key is sent to or can be accessed by the electronic bidding system to ensure that the system can use it to verify the digital signature. The private key is securely stored on the third-party platform to prevent leakage. The third-party platform then sends each fragment containing the digital signature to the electronic bidding system one by one. The electronic bidding system receives the fragments with the digital signature, decrypts the digital signature using the public key, and reprocesses the received fragments, comparing the decryption result with the reprocessing result. If they are consistent, it means that the fragment has not been tampered with, and the verification is successful. Then, the system collects and stores all verified docking information fragments. After all docking information fragments have passed verification, the system recombines the fragments and restores them into a complete bidding docking set. The use of public and private keys provides strong protection for bidding data, ensuring that the data remains authentic and complete throughout the transmission process, thereby maintaining the trust and transparency of the electronic bidding system.

[0088] Furthermore, third-party platform markets are screened based on interface service requirements, including:

[0089] Retrieve interface service requirements, define interface service requirements as interface service standards, and establish an interface standard framework;

[0090] Analyze the interface type and data exchange frequency of the interface service requirements, as well as the required security and compatibility standards, and obtain analysis results;

[0091] Based on the analysis results and interface standard framework, each third-party platform is evaluated, and matching third-party platforms are screened and connected.

[0092] As a preferred embodiment of the above embodiment, firstly, interface service requirements are retrieved from the project management department of the electronic bidding system, and these requirements are converted into interface service standards, and an interface standard framework that describes the required interface characteristics is established. Then, these requirements are analyzed, and the required interface type, data exchange frequency, required security and compatibility standards are determined, and specific analysis results are obtained therefrom. According to the established interface standard framework and analysis results, third-party platforms on the market are screened, and the technical compatibility, performance indicators, cost-effectiveness and user feedback of each platform are evaluated. Based on the comprehensive evaluation results, the third-party platform that best meets the requirements is determined, and a cooperative relationship is established with it. It should be noted that when establishing the interface standard framework, it should be ensured that the framework should clearly describe the required interface characteristics.

[0093] To go further, we need to establish an interface standard framework, including:

[0094] Collect the system requirements and historical system requirements assessment standards of the electronic bidding system, and divide the system requirements into technical requirements, business requirements and security requirements according to the responsibilities assumed;

[0095] Prioritize technical requirements, business requirements, and security requirements based on historical system assessment standards to obtain assessment results;

[0096] Assign standard weights to technical requirements, business requirements, and security requirements based on the assessment results;

[0097] Define interface requirement standards based on standard weights and establish an interface standard framework.

[0098] In this implementation, first, the system requirements of the current electronic bidding system are collected, and historical system requirements and assessment criteria should also be considered. Then, these requirements are classified into technical requirements, business requirements and security requirements according to different responsibilities and functions. Next, the current system requirements are prioritized using assessment criteria based on historical data and project experience, and corresponding weights are assigned to technical requirements, business requirements and security requirements based on these priority assessment results. These weights will reflect the importance and urgency of the requirements to ensure that key requirements are met first. Finally, based on the assigned weights, specific interface requirement standards are defined, and an interface standard framework is created that contains detailed descriptions of all key interfaces, such as data formats, transmission protocols, security requirements, etc. This framework will guide the docking of third-party platforms and the overall integration of the system, thereby improving the overall efficiency and compatibility of the system. It should be noted that when allocating weights, the actual business impact and technical complexity should be considered, and the weights should be allocated based on actual and reasonable conditions.

[0099] Furthermore, if Figure 3 As shown, the corresponding bidding docking information and tender docking information are integrated into a bidding docking set, including:

[0100] S310: Standardize the bidding connection information and tender connection information based on the interface standard framework to obtain standardized data;

[0101] S320: Establish a feature matching model, adopt deep learning to train the feature matching model, process data features of the standardized data, and perform feature matching;

[0102] S330: Integrate the bidding information and tender information based on the feature matching results and integrate them into a bidding and tendering docking set.

[0103] Specifically, based on the collected bidding docking information and tendering docking information, these data are converted into a consistent format based on the interface data standardization framework, including unified data encoding method, numerical range and time format, to ensure the consistency of data in subsequent processing. Then, a feature matching model is designed and a suitable deep learning algorithm is selected to process complex data features and patterns. The model is trained using standardized data, and the accuracy and robustness of the model are improved through repeated iterations. After the training is completed, the trained model is used to process the standardized data to identify the key similar features in the bidding and tendering information, and based on these feature matching results, the matching bidding information and tendering information are integrated together to form a bidding and tendering docking set. It should be noted that the data set used for training should be extensive, sufficient and representative to avoid overfitting or underfitting.

[0104] Further, if Figure 4 As shown, deep learning is used to train the feature matching model, including:

[0105] S321: Collect historical bidding information and construct a first training set based on the historical bidding information;

[0106] S322: converting the text data of the first training set into a vector form, and extracting the text data in the vector form to form a second training set;

[0107] S323: Train the feature matching model based on the second training set, optimize the trained feature matching model, and adjust the feature matching model parameters based on the optimization result.

[0108] As a preferred embodiment of the above embodiment, firstly, historical bidding data, including bidding documents, bid responses and bid evaluation results, etc., need to be collected from the system, and cleaned and formatted, such as processing missing values, filtering outliers, etc., to ensure data quality. According to the characteristics of these data, key features such as project description and technical parameters are selected, and the data are labeled to construct a first training set. Then, the bag-of-words model or word embedding technology can be used to convert the text data into a vector form to form a second training set. The main purpose of converting to a vector form is to convert the text data into a numerical form that can be understood and processed by the machine learning algorithm, so as to ensure that the vector can reflect the semantics of the original text. Thereafter, a suitable deep learning model such as CNN or RNN is selected and trained using the second training set. Then, the model parameters can be optimized through cross-validation to prevent the model from overfitting. It should be noted that after the training is completed, the performance of the model needs to be evaluated, focusing on indicators such as accuracy and recall, and repeatedly adjusting the learning rate and other parameters according to the results to iteratively optimize the model.

[0109] Embodiment 2:

[0110] Based on the same inventive concept as the third-party platform docking method of an electronic bidding system in the aforementioned embodiment, the present invention also provides a third-party platform docking system of an electronic bidding system, such as Figure 5 As shown, the system includes:

[0111] The interface service requirement screening module obtains the interface service requirements of the electronic bidding system, screens the third-party platform market based on the interface service requirements, and determines the third-party application platform;

[0112] Obtain a sending docking information module, obtain tender docking information and bid docking information respectively, and send the tender docking information and bid docking information to a third-party application platform respectively;

[0113] The information corresponding integration module corresponds the bidding connection information to the tender connection information one by one, and integrates the corresponding bidding connection information and tender connection information into a bidding connection set;

[0114] The signature encryption docking module sets a data signature for the bidding docking set, and the data signature performs data security encryption on the bidding docking set;

[0115] The transmission verification encryption module transmits the bidding and tendering connection set after data security encryption to the electronic bidding and tendering system, and verifies the data signature set for the bidding and tendering connection set.

[0116] The above-mentioned adjustment system in the present invention can effectively implement the third-party platform docking method of the electronic bidding system, and the technical effects that can be achieved are as described in the above-mentioned embodiments, which will not be repeated here.

[0117] Embodiment three:

[0118] Based on the same inventive concept as the third-party platform docking system of an electronic bidding system in the aforementioned embodiment, the present invention also provides a third-party platform docking device for an electronic bidding system, the device comprising: the third-party platform docking system of the electronic bidding system is applied to the device.

[0119] Although the present application has been described in conjunction with specific features and embodiments thereof, it is obvious that various modifications and combinations may be made thereto without departing from the spirit and scope of the present application. Accordingly, this specification and the accompanying drawings are merely exemplary illustrations of the present application as defined therein, and are deemed to have covered any and all modifications, variations, combinations or equivalents within the scope of the present application. Obviously, a person skilled in the art may make various modifications and variations to the present application without departing from the scope of the present application. Thus, if these modifications and variations of the present application fall within the scope of the present application and its equivalents, the present application is intended to include these modifications and variations.

Claims

1. A third-party platform docking method for an electronic bidding system, characterized in that: The method comprises: Obtain interface service requirements of the electronic bidding system, screen the third-party platform market according to the interface service requirements, and determine the third-party application platform; The third-party application platform determination method includes: Retrieving the interface service requirements, defining the interface service requirements as interface service standards, and establishing an interface standard framework; Analyze the interface type and data exchange frequency of the interface service requirements, as well as the required security and compatibility standards, to obtain analysis results; Based on the analysis results and the interface standard framework, evaluate each third-party platform, screen and connect with matching third-party platforms; The interface standard framework establishment method is as follows: Collect the system requirements and historical system requirements assessment standards of the electronic bidding system, and divide the system requirements into technical requirements, business requirements and security requirements according to the responsibilities assumed; Based on the historical system requirement assessment standard, priority assessment is performed on the technical requirements, the business requirements and the security requirements to obtain an assessment result; assigning standard weights to the technical requirements, the business requirements, and the security requirements based on the assessment results; Define interface requirement standards based on the standard weights and establish an interface standard framework; Respectively obtaining tender connection information and bid connection information, and sending the tender connection information and bid connection information to the third-party application platform; The bidding connection information corresponds to the tender connection information one by one, and the corresponding bidding connection information and tender connection information are integrated into a bidding connection set; Setting a data signature for the bidding and tendering docking set, wherein the data signature performs data security encryption on the bidding and tendering docking set; The bidding and tendering connection set after data security encryption is transmitted to the electronic bidding and tendering system, and the data signature set for the bidding and tendering connection set is verified and signed.

2. The third-party platform docking method of the electronic bidding system according to claim 1 is characterized in that: Setting a data signature for the bidding and tendering docking set, wherein the data signature performs data security encryption on the bidding and tendering docking set, includes: Splitting the bidding and tendering docking set to obtain a number of docking information fragments, and performing hash processing on the docking information fragments to generate corresponding hash values; Performing data security encryption on each of the hash values, generating the data signature, and attaching the data signature to the corresponding docking information fragment; Each docking information fragment with the data signature is packaged and transmitted to the electronic bidding system.

3. The third-party platform docking method of the electronic bidding system according to claim 1 is characterized in that: Setting a data signature for the bidding and tendering docking set, wherein the data signature performs data security encryption on the bidding and tendering docking set, includes: Performing hash processing on the bidding and tendering docking set to generate a hash value, and performing data security encryption on the hash value to generate the data signature; Splitting the bidding and tendering docking set to obtain a number of docking information fragments; Select one of the docking information fragments and attach the data signature, and transmit it to the electronic bidding system; The electronic bidding system verifies the data signature of the received docking information fragment according to the public key, and generates verification receipt information if the verification is successful; The verification receipt information is attached with the data signature and sent back to the third-party platform, and one of the docking information fragments will continue to be selected for reciprocating transmission until the electronic bidding system completely receives the bidding docking set.

4. The third-party platform docking method of the electronic bidding system according to claim 2 or 3, characterized in that: The bidding and tendering docking set after data security encryption is transmitted to the electronic bidding and tendering system, and the data signature set for the bidding and tendering docking set is verified and signed, including: Setting a public key and a private key, wherein the third-party platform generates a digital signature according to the private key; The electronic bidding system verifies and signs the received docking information fragments according to the public key to verify the authenticity and integrity of the docking information fragments; After the verification signatures of the plurality of docking information fragments are completed one by one, the bidding docking set is restored.

5. The third-party platform docking method of the electronic bidding system according to claim 1 is characterized in that: Integrate the corresponding bidding connection information and tender connection information into a bidding connection set, including: Based on the interface standard framework, data standardization is performed on the bidding connection information and the tender connection information to obtain standardized data; Establishing a feature matching model, adopting deep learning to train the feature matching model, processing the data features of the standardized data, and performing feature matching; The bidding connection information and the tender connection information are integrated based on the feature matching result to form a bidding connection set.

6. The third-party platform docking method of the electronic bidding system according to claim 5 is characterized in that: Deep learning is used to train the feature matching model, including: Collecting historical bidding information, and constructing a first training set based on the historical bidding information; Performing text data conversion on the first training set into a vector form, and extracting the text data in the vector form to form a second training set; The feature matching model is trained based on the second training set, the trained feature matching model is optimized, and the feature matching model parameters are adjusted based on the optimization result.

7. The third-party platform docking system of the electronic bidding system is characterized by: The third-party platform docking method of the electronic bidding system according to claim 1 is adopted, and the system comprises: The interface service requirement screening module obtains the interface service requirements of the electronic bidding system, screens the third-party platform market according to the interface service requirements, and determines the third-party application platform; Obtaining a sending docking information module, respectively obtaining tender docking information and bid docking information, and sending the tender docking information and bid docking information to the third-party application platform respectively; An information corresponding integration module, wherein the bidding connection information corresponds to the tender connection information one by one, and the corresponding bidding connection information and tender connection information are integrated into a bidding connection set; A signature encryption docking module sets a data signature for the bidding docking set, and the data signature performs data security encryption on the bidding docking set; The transmission verification encryption module transmits the bidding and tendering connection set after data security encryption to the electronic bidding and tendering system, and verifies the signature of the data signature set for the bidding and tendering connection set.

8. A third-party platform docking device for an electronic bidding system, characterized in that: The third-party platform docking system of the electronic bidding system as described in claim 7 is applied to the device.

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