Method for transmitting operation based on multiple associated machine-readable codes

Abstract

The invention discloses a method for transmitting operation based on multiple associated machine-readable codes, and relates to the technical field of Internet. By means of a carrier bound with at least two machine-readable codes, each machine-readable code contains coding information, each piece of coding information is subjected to associated configuration in a server, and each participating user can interact with the server by using the machine-readable codes, so that more project specific contents can be set, the operation freedom degree of the user is improved, and the user experience is improved. The interaction project is completed among the participating users through the association of the carrier and the coding information, and the server only provides the interaction project framework and service function in the server, so that the decentralized interaction mode among the users by using the Internet and the machine-readable code technology is realized, and the interaction possibility among different participating users is improved.

Description

Technical Field

[0001] The present invention relates to the field of Internet application technology, and in particular to a method for performing code reading and transmission operations based on multiple linked machines. Background Art

[0002] With the development of network technology, machine-readable codes have become deeply embedded in people's daily lives. Currently, machine-readable codes have evolved into various forms, including barcodes, QR codes, and RFID. They are widely used in production, consumption, public services, and the Internet of Things. In these fields, they provide unique identification, information binding, rapid identification, anti-counterfeiting and traceability, and access control.

[0003] However, current machine-readable codes are primarily used in a centralized structure. For example, in access control systems like access control, a central management center provides a machine-readable code to determine whether a person has permission to open a door. In B2C interaction scenarios, machine-readable codes can effectively fulfill the function of a code provider.

[0004] Another example is the QR code payment industry, which superficially presents an open scanning interaction, but its underlying architecture is characterized by multiple centralized control features. Consumers and merchants operate within the framework of a central platform. While payment functions can be completed between the two parties, the interaction between consumers and merchants is also constrained by the central platform framework, and consumers and merchants cannot make additional operations or settings based on their interaction needs.

[0005] It can be seen that the existing machine-readable codes are mainly used in centralized architectures, lack application functions outside the central framework, and lack the freedom of interaction between users using machine-readable codes. Summary of the Invention

[0006] In order to solve the problems existing in the prior art, the main purpose of the present invention is to provide a method for transmitting operations based on multiple associated machine-readable codes, allowing multiple users to use associated machine-readable codes to transmit operations, so that users have the authority to operate and set the content of interactive projects, and realize decentralized interaction between users using machine-readable codes, thereby improving the freedom of interaction between users, so that machine-readable codes are not limited to the application scenarios of the center to the individual, but are more widely used in interactive projects between individuals.

[0007] In order to achieve the above object, the present invention adopts the following technical solutions: A method for transferring operations based on multiple associated machine-readable codes, wherein the method is applied to a carrier provided with at least two machine-readable codes, each of the machine-readable codes comprising encoding information, wherein the encoding information in a carrier is different from one another; the method comprises: An operation item is configured in the server, and the operation item is divided into at least two parts; the encoding information of each machine-readable code on a carrier is associated with each other in the server; In response to the terminal recognizing one of the machine-readable codes and sending the included coded information, the server provides the first part of the operation item to the corresponding terminal and sets the first part of the operation item according to the input of the terminal; In response to the terminal recognizing another machine-readable code and sending the contained coding information, based on the association judgment between the two previous and subsequent coding information, the server provides the second part of the operation item to the corresponding sending terminal and sets the second part of the operation item according to the input of the terminal.

[0008] Optionally, in response to the first terminal recognizing the first machine-readable code and sending the first coding information, the server provides an interface for selecting an operation item to the first terminal. The server provides the first part of the corresponding operation item to the first terminal based on the selection result of the operation item, and provides the second part of the corresponding operation item to the second terminal.

[0009] Optionally, the operation items include anonymous test papers, product anti-counterfeiting traceability, inspection sample testing, dual or multi-authentication, gift giving or payment function transfer; The operation item is an anonymous test paper, and the operation item is divided into a first part of setting up the test paper and reading the test paper, and a second part of filling in the test paper; The operation item is commodity anti-counterfeiting and tracing, and the operation item is divided into a first part of setting commodity link information and a second part of querying commodity information; The operation item is a sample test, and the operation item is divided into a first part for filling in sample information and a second part for extracting sample information; The operation item is a double or multiple verification, and the operation item is divided into a first part verified by the inspector and a second part verified by the holder; The operation item is gift giving, and the operation item is divided into a first part of selecting and purchasing a gift, and a second part of receiving the gift; The operation item is a payment function transfer, and the operation item is divided into a first part of payment amount setting and payment, and a second part of receiving payment transfer.

[0010] Optionally, the server is configured with interactive interfaces for each part of the operation project; The platform provides the server with functional modules for completing operation projects, and the functional modules include third-party payment channels, third-party shopping channels or third-party authorization channels.

[0011] Optionally, each of the machine-readable codes on a carrier is respectively configured with the same URL information. Upon recognition of the machine-readable code, the user terminal will jump to the page specified by the URL information, and the machine-readable code will transmit the encoded information contained therein to the server of the page specified by the URL information.

[0012] Optionally, among the machine-readable codes on a carrier, the machine-readable code that is first machine-readable is the first machine-readable code, and the machine-readable code that is later machine-readable is the second machine-readable code; or, Among the machine-readable codes on a carrier, one of the machine-readable codes is designated as a first machine-readable code, and another of the machine-readable codes is designated as a second machine-readable code.

[0013] Optionally, the method further includes: providing a registration / login interface to the first terminal that sends the first coded information, and providing a registration / login interface to the terminal that sends the second coded information; or, A registration / login interface is provided to the first terminal that sends the first coded information, and the second part of the operation item is directly sent to the terminal that sends the second coded information.

[0014] Optionally, each of the machine-readable codes is a QR code.

[0015] Optionally, the two machine-readable codes are respectively one of a barcode, an RFID tag, an OCR character code, a magnetic barcode or a smart chip.

[0016] Optionally, each of the machine-readable codes is provided with a mask layer.

[0017] Compared with the prior art, the present invention has the following beneficial effects: In the present invention, a carrier that is bundled with at least two machine-readable codes is used, each machine-readable code contains coding information, and each coding information is associated and configured on the server. Each participating user can use the machine-readable code to interact with the server, so that more specific content of the project can be set, which improves the user's operational freedom. The participating users complete the interactive project through the association of the carrier and the coding information. The server only provides the interactive project framework and service functions, realizing a decentralized interaction method between users using the Internet and machine-readable code technology, and improving the possibility of interaction between different participating users.

[0018] The present invention will be further described below with reference to the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a flowchart of a method for code reading and transferring operations based on multiple linked machines according to the present invention.

[0020] Figure 24 is a flowchart of a donation method according to a first specific embodiment of the present invention.

[0021] Figure 3 4 is a flowchart of a donation method according to a second specific embodiment of the present invention.

[0022] Figure 4 4 is a flowchart of a donation method according to a third specific embodiment of the present invention.

[0023] Figure 5 4 is a flowchart of a donation method according to a fourth embodiment of the present invention.

[0024] Figure 6 4 is a flowchart of a donation method according to a fifth specific embodiment of the present invention.

[0025] Figure 7 4 is a flowchart of a donation method according to a sixth specific embodiment of the present invention.

[0026] Reference numerals: 10, carrier; 21, first machine-readable code; 22, second machine-readable code; 31, first mask layer; 31, second mask layer. DETAILED DESCRIPTION

[0027] In order to better illustrate the purpose, technical solutions and advantages of the present invention, the specific embodiments of the present invention are described in further detail below in conjunction with the accompanying drawings and examples. The following examples are used to illustrate the present invention, but are not intended to limit the scope of the present invention.

[0028] like Figure 1 As shown, a method for transferring operations based on multiple associated machine-readable codes according to an embodiment of the present invention. The method is applied to a carrier 10 provided with at least two machine-readable codes. For ease of understanding, a carrier 10 includes at least a first machine-readable code 21 and a second machine-readable code 22, and may also include other machine-readable codes such as a third machine-readable code as needed. Each machine-readable code contains coding information, and the coding information in a carrier 10 is different from each other. In other words, the first machine-readable code 21 contains the first coding information, the second machine-readable code 22 contains the second coding information, and there is a recognizable difference between the first coding information and the second coding information. In detail, the method includes the steps of: S110: An operation project is configured in the server, and the operation project is divided into at least two parts. Specifically, an operation project includes at least a first part and a second part. Each part of the operation project is configured with an interactive interface in the server. Each interactive interface includes a preset project framework for the operation project and additional functions required to implement the operation project. To implement the operation project, the platform provides the server with a functional module for completing the operation project.

[0029] It is worth noting the preliminary configuration of the server in step S110. Compared to traditional centralized interaction methods, the operation items configured in the server in step S110 provide an interactive project framework, allowing users to freely configure or operate within the interactive project framework. Furthermore, the operation items are divided into at least two distinct parts, each with differentiated content, functions, and permissions adapted to the project division.

[0030] S120: The server associates the first coding information and the second coding information on a carrier 10. Specifically, a mapping relationship exists between the first coding information and the second coding information, thereby binding the first coding information and the second coding information to the same operation item. Furthermore, the first coding information and the second coding information are also used to distinguish which portion of the operation item is required by different machine-readable code reading terminals.

[0031] It is worth noting that in step S120, the server is configured in advance. In step S120, multiple coded information is configured to be mutually associated, thereby binding the subsequently determined specific operation items to these associated coded information. The mutually associated coded information is correspondingly compiled into multiple machine-readable codes and placed on a carrier 10.

[0032] S130: The first terminal recognizes the first machine-readable code 21 and sends the first coded information. In response, the server verifies the first coded information, provides the first portion of the operation item to the first terminal, and sets the first portion of the operation item based on the first terminal's input. The settings for the first terminal are stored on the server. Since the first and second portions belong to the same item, the settings for the first portion also supplement the specific content of the second portion.

[0033] S140: The second terminal recognizes the second machine-readable code 22 and sends a second coded message. In response, the server verifies the second coded message and its association with the first coded message, determines the operation item set by the first terminal, provides the second part of the operation item to the second terminal, and sets the second part of the operation item according to the input of the second terminal. It can be understood that It is worth noting that steps S130 and S140 are the server's interactive project execution process. The carrier 10 can be transferred between users involved in the interactive project. Different users can identify the different machine-readable codes on the carrier 10 and obtain the corresponding coded information. Based on this coded information, they can access the server to obtain the corresponding portion of the operation project, and further obtain the content, functions, and permissions of that portion of the operation project.

[0034] It will be understood that after the server's preliminary configuration and the carrier 10 are complete, User A uses a first terminal to identify the first coded information of the first machine-readable code 21 on the carrier 10 and sends the first coded information to the server. The server then provides the first portion of the operation items to the first terminal, allowing User A to configure the first portion. Upon completion, the interactive items are saved on the server. Subsequently, the carrier 10 can be transferred to User B, who uses a second terminal to identify the second coded information of the second machine-readable code 22 on the carrier 10 and send the second coded information to the server. Based on the correlation between the first and second coded information, the server determines the operation items that User A has configured and sends the second portion of the corresponding operation items to the second terminal, allowing User A to configure the second portion. In one example, if the operation items are divided into only two portions and the interactive items only involve User A and User B, the operation items are completed after User B configures the second portion. In other examples, if the operation items are divided into more portions and the interactive items involve more users, the carrier 10 can be configured with more machine-readable codes and settings for other users.

[0035] As can be seen, in interactive projects between users, each user can access different parts of the same operation project on the server through machine-readable codes, and set the specific content, functions, and permissions of the interaction, thereby expanding the freedom of interaction between users. The server only provides the interactive project framework and the services required to implement the operation project. At the same time, each user communicates with the server through machine-readable codes, avoiding excessive restrictions on users by the server.

[0036] Specifically, in this embodiment, in the server, the configured operation items may be more than two. The operation items may involve different interactive items: such as anonymous test papers, product anti-counterfeiting and traceability, inspection sample testing, double or multiple authentication, gift giving or payment function transfer and delivery. The step S130 also includes: there are one or more operation items configured in the server, and the server provides an interface for selecting the operation item to the terminal that sends the first coded information. For example, in step S110, multiple items such as anonymous test paper items and product anti-counterfeiting and traceability items are configured. In step S130, in response to the first terminal identifying the first machine-readable code 21 and sending the first coded information, the server verifies the first coded information, and provides the first terminal with an interface for selecting the operation item, such as the selection of the anonymous test paper item or the product anti-counterfeiting and traceability item. The target operation item is determined according to the input setting of the first terminal. If the product anti-counterfeiting and traceability item is selected, the first part of the product anti-counterfeiting and traceability is sent to the first terminal. Furthermore, in step S140 , in response to the second terminal identifying the second machine-readable code 22 and sending the second coding information, the server verifies the second coding information and its association with the first coding information, and then sends the second part of the product anti-counterfeiting traceability to the second terminal.

[0037] In order to implement the functions of the operation project, the server is configured with an interactive interface for each part of the operation project. For example, if the operation project is authorization permission, after the first terminal sends the first coded information, the server will provide the first part of the operation project, such as an interactive interface for filling in the authorization information; after the second terminal sends the second coded information, the server will provide the second part of the operation project, such as an interactive interface for viewing and downloading the authorization information. The platform provides the server with a functional module for completing the operation project. For example, if the operation project is authorization permission, the platform provides the server with a channel for permission verification. In other embodiments, the functional module also includes a third-party payment channel, a third-party shopping channel, etc.

[0038] To facilitate interaction between the user and the server, in this embodiment, multiple machine-readable codes are provided on the carrier 10, each of which is a QR code. It is understood that in other embodiments, the machine-readable code can also take the form of a barcode, RFID tag, OCR character code, magnetic barcode, or smart chip.

[0039] For example, carrier 10 is provided with a first machine-readable code 21 and a second machine-readable code 22. Both the first and second machine-readable codes 21 and 22 contain the same URL information, such as https: / / example.com / or another custom protocol, such as myapp: / / example.com / . This allows users to jump to the server's front-end page upon recognizing the code and interact with it accordingly. It is worth noting that, according to other embodiments of the present invention, users can first log in to the server and then send the encoded information through recognition. In this case, the machine-readable code does not contain URL information.

[0040] Specifically, in this embodiment, the first machine-readable code 21 and the second machine-readable code 22 each contain two different segments of encoding information. The differentiated encoding information can be used to distinguish users and terminals associated with different parts of an operation item. For example, the first machine-readable code 21 contains the information https: / / example.com / main?key1=aGVsbG8x, where the first encoding information is aGVsbG8x. The second machine-readable code 22 contains the information https: / / example.com / main?key2=QmFzZTY0, where the second encoding information is QmFzZTY0. The server pre-stores aGVsbG8x (first encoding information) and QmFzZTY0 (second encoding information), and the two are configured as [aGVsbG8x, QmFzZTY0]. It is understood that the server also records the encoding information of several other carriers 10, and therefore all encoding information is configured as a unique code in the system. It is understood that the server also needs to prevent the mis-transmission of encoding information. To this end, the coded information may be further encrypted so that the server can identify whether it is the coded information on the carrier 10 or other coded information imitating input.

[0041] To facilitate subsequent inquiries by the user, in this embodiment, the first machine-readable code 21 containing URL information is a registration / login interface. User A can register or log in on the registration / login interface provided by the server. After completion, User A identifies the first coded information, selects the operation item, and sets the first part of the operation item. Due to registration, the operation item will be bound to User A's account, and the subsequent progress of the operation item can be checked after User A logs in. Similarly, the second machine-readable code 22 containing URL information is a registration / login interface. User B can register or log in on the registration / login interface provided by the server. After completion, User B identifies the second coded information and sets the second part of the operation item. Thus, User B can check the progress of the operation item after logging in. In other embodiments, to reduce restrictions on users, User B can identify the second coded information and set the second part of the operation item without logging in, and the server pushes the progress of the operation item using non-login methods such as text messages.

[0042] To facilitate identification of machine-readable codes by different users, in this embodiment, each machine-readable code is provided with a mask layer. For example, a first mask layer 31 is provided on the first machine-readable code 21, and a second mask layer 32 is provided on the second machine-readable code 22. For the carrier 10, the machine-readable codes can be displayed in any order: the first machine-readable code 21 is the first machine-readable code, and the second machine-readable code 22 is the second machine-readable code. Similarly, the machine-readable code recognized first is the first machine-readable code 21, and the machine-readable code recognized later is the second machine-readable code 22. The terminal recognized first is the first terminal, and the terminal recognized later is the second terminal. On the server, among the multiple associated encoding information, the encoding information received and verified first is the first encoding information, and the encoding information received and verified later is the second encoding information. It is understood that to prevent others from accidentally logging in or operating, the verified encoding information will be marked and bound to the corresponding logged-in and verified user. Re-authentication by other users will result in an error prompt. For users who do not need to register or log in, additional verification conditions may be added during re-verification, such as information in the setup operation items. It is worth noting that in other embodiments, the machine-readable code may not be provided with a mask layer, and the carrier 10 may have an indicator mark, designating one of the machine-readable codes as the first machine-readable code 21 and the other as the second machine-readable code 22.

[0043] First specific embodiment like Figure 2 The above is a method for transmitting operations based on multiple associated machine-readable codes according to the first specific embodiment of the present invention. The method includes configuring an operation item as an anonymous test paper in the service, and providing a first machine-readable code 21 and a second machine-readable code 22 on the carrier 10. The first machine-readable code 21 is covered with a first mask layer 31, which contains first coding information. The second machine-readable code 22 is covered with a second mask layer 32, which contains second coding information. Specifically, the first part of the operation item is an interface for setting and reading the test paper, and the second part of the operation item is an interface for filling in the test paper. The method includes the steps of: S231 , user A scratches off the first mask layer 31 on the carrier 10 , and user A identifies the first machine-readable code 21 on the carrier 10 through his terminal, and sends first coding information to the server.

[0044] S232: The server receives and verifies whether the first coding information is consistent with the database in the server.

[0045] S233. The server provides the user A terminal with an interface for setting the test paper and saves the test paper setting content of the user A.

[0046] S241 , user B scratches off the second mask layer 32 on the carrier 10 , and user B identifies the second machine-readable code 22 on the carrier 10 through his terminal, and sends second coding information to the server.

[0047] S242: The server receives and verifies whether the second coding information is consistent with the database in the server, and verifies the correlation between the first coding information and the second coding information.

[0048] S243. The server provides the user B terminal with an interface for setting up and filling out the test paper, and saves the test paper content filled out by the user B.

[0049] It's worth noting that User B doesn't need to register or log in to complete the test. User A can subsequently log in and read the test. The platform can provide a functional module for the server that analyzes the answers provided by User A and User B's answer sheet and assigns a score. Compared to the traditional internet method of officially publishing test papers, this specific embodiment allows User A to configure the test paper, and also grants different users the ability to configure test papers. Furthermore, User B can remain anonymous when answering the test paper. Furthermore, the transmission between users via carrier 10 facilitates offline interaction and understanding between User A and multiple User Bs.

[0050] Second specific embodiment like Figure 3 The above is a method for transmitting operations based on multiple associated machine-readable codes according to the second specific embodiment of the present invention. The method includes configuring an operation item for product anti-counterfeiting and traceability in the service, and providing a first machine-readable code 21 and a second machine-readable code 22 on the carrier 10. The first machine-readable code 21 is covered with a first mask layer 31, which contains first coding information. The second machine-readable code 22 is covered with a second mask layer 32, which contains second coding information. Specifically, the first part of the operation item is an interface for setting product link information, and the second part of the operation item is an interface for querying product information. The method includes the steps of: S331 , user A, user B and user C use their terminals to identify the first machine-readable code 21 on the carrier 10 after scratching off the first mask layer 31 , and send first coding information to the server.

[0051] S332: The server receives and verifies whether the first coding information is consistent with the database in the server.

[0052] S333. The server provides interfaces for setting product link information to the terminals of User A, User B, and User C respectively, and saves the product link information content of User A, User B, and User C.

[0053] S341. User D scratches off the second mask layer 32 on the carrier 10. User D identifies the second machine-readable code 22 on the carrier 10 through his terminal and sends the second coding information to the server.

[0054] S342: The server receives and verifies whether the second coding information is consistent with the database in the server, and verifies the correlation between the first coding information and the second coding information.

[0055] S343. The server provides the user terminal with an interface for querying product information.

[0056] It's worth noting that, compared to the traditional internet-based method of officially publishing product anti-counterfeiting and traceability information, this specific embodiment allows different users, A, B, and C, to set their own product information. The server empowers different products with anti-counterfeiting and traceability capabilities, while acting as a framework and service provider, not being involved in the specific content of product anti-counterfeiting and traceability, thus achieving decentralization. Furthermore, the carrier 10 can be transferred along with the product, facilitating offline interaction between users A and D.

[0057] Third specific embodiment like Figure 4 The above is a method for transmitting operations based on multiple associated machine-readable codes according to the third specific embodiment of the present invention. The method includes configuring an operation item in the service as a sample test, and providing a first machine-readable code 21 and a second machine-readable code 22 on the carrier 10. The first machine-readable code 21 is covered with a first mask layer 31, which contains first coding information. The second machine-readable code 22 is covered with a second mask layer 32, which contains second coding information. Specifically, the first part of the operation item is an interface for filling in sample information, and the second part of the operation item is an interface for extracting sample information. The method includes the steps of: S431 , user A scratches off the first mask layer 31 on the carrier 10 , and user A identifies the first machine-readable code 21 on the carrier 10 through his terminal, and sends first coding information to the server.

[0058] S432: The server receives and verifies whether the first coding information is consistent with the database in the server.

[0059] S433. The server provides an interface for user A's terminal to input sample information, saves user A's sample information, and destroys the first machine-readable code 21.

[0060] Subsequently, the carrier 10 is transferred along with the sample to the inspector for testing. The relevant personnel records the test results and recovers the carrier 10.

[0061] S441 , user B scratches off the second mask layer 32 on the carrier 10 , and user B identifies the second machine-readable code 22 on the carrier 10 through his terminal, and sends second coding information to the server.

[0062] S442: The server receives and verifies whether the second coding information is consistent with the database in the server, and verifies the correlation between the first coding information and the second coding information.

[0063] S443. The server provides an interface for extracting sample information to the terminal of user B, and extracts the sample information filled in by user A.

[0064] It is worth noting that this method can also be used for double-blind or multi-blind sample experiments. Compared to the traditional double-blind method, in this specific embodiment, user A is allowed to use the first machine-readable code 21 to fill in the real information of the sample and destroy the first machine-readable code 21. During the sample test, the second machine-readable code 22 is covered by the second mask layer 32 to ensure that the sample information cannot be obtained. After the test is completed, user B can scratch off the second mask layer 32 and obtain the sample information filled in by user A through the second machine-readable code 22, thereby combining the sample information and the test results to determine the actual effect of the sample. It can be seen that this specific embodiment allows user A to perform sample settings, and can also destroy the first machine-readable code 21 and keep the sample information confidential. It can also retain the sample information through the second machine-readable code 22, thereby achieving anonymity of participants, confidentiality of the sample information during the test, and accessibility of the sample information after the test. The carrier 10 can be transferred with the sample, facilitating the management and data collection of the double-blind experiment.

[0065] Fourth specific embodiment like Figure 5 The above is a method for transmitting operations based on multiple associated machine-readable codes according to the fourth specific embodiment of the present invention. The method includes configuring an operation item for double verification of tickets in the service, and setting a first machine-readable code 21 and a second machine-readable code 22 on the carrier 10. The first machine-readable code 21 is covered with a first mask layer 31, which contains first coding information. The second machine-readable code 22 is covered with a second mask layer 32, which contains second coding information. Specifically, the first part of the operation item is an interface for setting manual verification, and the second part of the operation item is machine verification. The method includes the steps of: S531 , user A scratches off the first mask layer 31 on the carrier 10 , and user A identifies the first machine-readable code 21 on the carrier 10 through his terminal, and sends first coding information to the server.

[0066] S532: The server receives and verifies whether the first coding information is consistent with the database in the server.

[0067] S533. The server provides a manual verification interface to the terminal of user A. User A verifies whether the ticket holder is consistent with the information on the manual verification interface and provides a result.

[0068] S541 : The ticket holder scratches off the second mask layer 32 on the carrier 10 , and the access control terminal recognizes the second machine-readable code 22 on the carrier 10 and sends a second coded information to the server.

[0069] S542: The server receives and verifies whether the second coding information is consistent with the database in the server, and verifies the correlation between the first coding information and the second coding information.

[0070] S543. The server provides the access control terminal with a result of whether the manual verification has been performed. If so, the access control terminal opens the door.

[0071] It is worth noting that, compared to the permission verification method, this embodiment allows user A to manually verify their permission using the first machine-readable code 21 of the carrier 10, and the verification information is uploaded to the server. User B, on the other hand, can perform machine verification using the second machine-readable code 22. Machine verification also ensures that manual verification has been completed, thus ensuring the effectiveness of dual or multiple verification and avoiding loopholes in permission verification.

[0072] Fifth specific embodiment like Figure 6 The above is a method for delivering operations based on multiple associated machine-readable codes according to the fifth specific embodiment of the present invention. The method includes configuring an operation item for gift giving in the service, and providing a first machine-readable code 21 and a second machine-readable code 22 on the carrier 10. The first machine-readable code 21 is covered with a first mask layer 31, which contains first coding information. The second machine-readable code 22 is covered with a second mask layer 32, which contains second coding information. Specifically, the first part of the operation item is an interface for selecting and purchasing gifts, and the second part of the operation item is an interface for receiving gifts. The method includes the steps of: S631 , user A scratches off the first mask layer 31 on the carrier 10 , and user A identifies the first machine-readable code 21 on the carrier 10 through his terminal, and sends first coding information to the server.

[0073] S632: The server receives and verifies whether the first coding information is consistent with the database in the server.

[0074] S633. The server provides a gift selection and purchase interface to User A's terminal. User A selects a gift and pays for it through a third-party mall.

[0075] S641 , user B scratches off the second mask layer 32 on the carrier 10 , and user B identifies the second machine-readable code 22 on the carrier 10 through his terminal, and sends second coding information to the server.

[0076] S642: The server receives and verifies whether the second coding information is consistent with the database in the server, and verifies the correlation between the first coding information and the second coding information.

[0077] S643. The server provides a gift receiving interface to User B's terminal. User B enters the mailing address, and the server notifies the third-party mall to send the purchased and paid gift.

[0078] It is worth noting that the platform can provide a functional module for the server, which is a third-party mall that can provide gift selection, purchase, and mailing functions. Compared to traditional Internet gift-giving methods, this specific embodiment allows user A to achieve face-to-face communication and interaction through carrier 10 and the Internet while setting and selecting gifts. The recipient can also choose the time to view and collect the gift, thereby enhancing the overall fun of face-to-face social interaction and providing more possibilities for social interaction.

[0079] Sixth specific embodiment like Figure 7 The above is a method for transferring operations based on multiple associated machine-readable codes according to the sixth specific embodiment of the present invention. The method includes configuring an operation item in the service as a payment function transfer, and providing a first machine-readable code 21 and a second machine-readable code 22 on the carrier 10. The first machine-readable code 21 is covered with a first mask layer 31, which contains first coding information. The second machine-readable code 22 is covered with a second mask layer 32, which contains second coding information. Specifically, the first part of the operation item is an interface for payment setting and payment, and the second part of the operation item is an interface for receiving payment transfer. The method includes the steps of: S731 , user A scratches off the first mask layer 31 on the carrier 10 , and user A identifies the first machine-readable code 21 on the carrier 10 through his terminal, and sends first coding information to the server.

[0080] S732: The server receives and verifies whether the first coding information is consistent with the database in the server.

[0081] S733. The server provides a payment setting and payment interface to User A's terminal. User A sets the payment and pays the payment to a third-party payment channel.

[0082] S741 , user B scratches off the second mask layer 32 on the carrier 10 , and user B identifies the second machine-readable code 22 on the carrier 10 through his terminal, and sends second coding information to the server.

[0083] S742: The server receives and verifies whether the second coding information is consistent with the database in the server, and verifies the correlation between the first coding information and the second coding information.

[0084] S743. The server provides an interface for receiving payment transfers to User B's terminal. User B sets an account to receive payments. The server notifies the third-party payment channel to transfer the funds to the account set by User B.

[0085] It's worth noting that the platform can provide a functional module for the server, which provides payment transfer functionality for third-party payment channels. Compared to traditional internet-based payment transfer methods, this specific embodiment allows user A to communicate and interact face-to-face via carrier 10 and the internet while also setting and selecting payment amounts. User B, based on the carrier and server, can then choose when to view and withdraw payment transfers, thereby enhancing the overall fun of face-to-face social interaction and providing more possibilities for social interaction.

[0086] The above embodiments primarily illustrate the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention, and such changes and modifications fall within the scope of the invention as claimed.

Claims

1. A method based on multiple linked machine code reading and transmission operations, characterized in that: The method is applied to a carrier (10) provided with at least two machine-readable codes, each of the machine-readable codes comprising coding information, wherein the coding information in a carrier (10) is different from each other; the method comprises: An operation item is configured in the server, and the operation item is divided into at least two parts; the encoding information of each machine-readable code on a carrier (10) is associated with each other in the server; In response to the terminal recognizing one of the machine-readable codes and sending the included coded information, the server provides the first part of the operation item to the corresponding terminal and sets the first part of the operation item according to the input of the terminal; In response to the terminal recognizing another machine-readable code and sending the contained coding information, based on the association judgment between the two previous and subsequent coding information, the server provides the second part of the operation item to the corresponding sending terminal and sets the second part of the operation item according to the input of the terminal.

2. The method of claim 1, wherein: A carrier (10) includes at least a first machine-readable code (21) and a second machine-readable code (22), wherein the first machine-readable code (21) and the second machine-readable code (22) respectively contain first coding information and second coding information; in response to a first terminal identifying the first machine-readable code (21) and sending the first coding information, a server provides an interface for selecting an operation item to the first terminal, and according to a result of selecting the operation item, the server provides the first part of the corresponding operation item to the first terminal, and provides the second part of the corresponding operation item to the second terminal.

3. The method of claim 1, wherein: The operations include anonymous test papers, product anti-counterfeiting traceability, sample testing, dual or multi-factor authentication, gift giving or payment function transfer; The operation item is an anonymous test paper, and the operation item is divided into a first part of setting up the test paper and reading the test paper, and a second part of filling in the test paper; The operation item is commodity anti-counterfeiting and tracing, and the operation item is divided into a first part of setting commodity link information and a second part of querying commodity information; The operation item is a sample test, and the operation item is divided into a first part for filling in sample information and a second part for extracting sample information; The operation item is a double or multiple verification, and the operation item is divided into a first part verified by the inspector and a second part verified by the holder; The operation item is gift giving, and the operation item is divided into a first part of selecting and purchasing a gift, and a second part of receiving the gift; The operation item is a payment function transfer, and the operation item is divided into a first part of payment amount setting and payment, and a second part of receiving payment transfer.

4. The method of claim 1, wherein: The operation items in the server are divided into various parts and are respectively configured with interactive interfaces; The platform provides the server with functional modules for completing operation projects, and the functional modules include third-party payment channels, third-party shopping channels or third-party authorization channels.

5. The method of claim 1, wherein: Each of the machine-readable codes on a carrier (10) is respectively configured with the same URL information, Upon recognition of the machine-readable code, the user terminal will jump to the page specified by the URL information, and the machine-readable code will transmit the encoded information contained therein to the server of the page specified by the URL information.

6. The method of claim 1, wherein: Among the machine-readable codes on a carrier (10), the machine-readable code that is first machine-recognized is a first machine-readable code (21), and the machine-readable code that is later machine-recognized is a second machine-readable code (22); or, Among the machine-readable codes on a carrier (10), one of the machine-readable codes is designated as a first machine-readable code (21), and another of the machine-readable codes is designated as a second machine-readable code (22).

7. The method of claim 1, wherein: A carrier (10) includes at least a first machine-readable code (21) and a second machine-readable code (22), wherein the first machine-readable code (21) and the second machine-readable code (22) respectively contain first encoding information and second encoding information; the method further includes: providing a registration / login interface to the terminal that sent the first coded information, and providing a registration / login interface to the terminal that sent the second coded information; or, A registration / login interface is provided to the terminal that sends the first coded information, and the second part of the operation item is directly sent to the terminal that sends the second coded information.

8. The method of claim 1, wherein: Each of the machine-readable codes is a two-dimensional code.

9. The method of claim 1, wherein: The two machine-readable codes are respectively one of a barcode, an RFID tag, an OCR character code, a magnetic barcode or a smart chip.

10. The method of claim 1, wherein: Each of the machine-readable codes is provided with a mask layer.

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