WO2020150919A1 - Blockchain resource transaction network, network node, and transaction method - Google Patents

Abstract

A blockchain resource transaction network, comprising a blockchain module (14), a first service module (12), a second service module (13), and an application network (11). A blockchain resource transaction method comprising steps of: calculating a token value according to a resource change amount corresponding to a wallet address, and/or calculating a token value according to a resource utilization amount corresponding to the wallet address; and storing the wallet address and the token value in a blockchain. A token control network and a network node, comprising a network apparatus, a multiplier, and a blockchain memory. The blockchain resource transaction network comprises features of a blockchain resource transaction network node, and further comprises multiple network nodes. The invention introduces a blockchain token mechanism to improve reliability and security of data modifications and storage of application network nodes. The invention introduces a blockchain technique to enhance automated monitoring and trust in a system, thereby solving the problem of the prior art in which system resource scalability is poor.

Description

Block chain resource transaction network, network node and transaction method

This application requires that it be submitted to the State Intellectual Property Office of China on January 21, 2019, the application number is 201910055250.8, the name of the invention is "blockchain resource transaction network and transaction methods", the application number is 201910055361.9, and the name of the invention is "a kind of token" Controlled network and network nodes", application number is 201910054782.X, invention name is "resource aggregation network and method", application number is 201910055417.0, invention name is "data sharing network and method", application number is 201910055429.3, invention name is The priority of the Chinese patent application of "Service Sharing Network and Method", the entire content of this earlier application is incorporated into this application by reference.

Technical field

This application relates to the field of computer and communication technology, and in particular to a blockchain resource transaction network and transaction method.

Background technique

With the rapid development of technology, the digital economy is increasingly showing exponential expansion. This growth is driven by the development of digitally-driven production factors to "self-organization + trustworthiness", that is, the number of intermediaries required in all transactions is becoming less and less, or even zero, thus enhancing business value and innovation potential. This trend can be seen in the fields of finance, logistics, social networking and blockchain.

In traditional systems, centralized management cannot cover all activities in the digital world, especially for the configuration and management of system resources, it is difficult to achieve real-time matching, and it is easy to form resource redundancy and cause waste; when the number of users and frequency of use When increasing, the cloud or local must increase the hardware configuration such as computing, storage, and communication.

The present invention provides a distributed system technology based on block chain technology to realize "self-organization + trustworthy" software and hardware resource sharing. In the system of the present invention, the distributed node is a computer system with software computing, data storage and network communication capabilities, and the distributed node can run data analysis algorithms and store data. Clients are electronic devices with human-computer interaction and network communication capabilities, including computers, mobile phones, etc. The client can complete sending data analysis requests to distributed nodes, display data analysis results, upload raw data, and upload data analysis algorithms. The present invention uses blockchain tokens to encourage and manage resource sharing rules. Blockchain tokens are generated on public blockchains, such as Ethereum, EOS, etc. through smart contracts. Distributed nodes and clients can obtain blockchain tokens and usage areas through the built-in corresponding blockchain public chain wallets. Blockchain pass, data is transparent and cannot be tampered with. Thus, the resource sharing of "self-organization + trustworthiness" is realized.

This application solves many challenges and innovations in traditional industries by introducing blockchain technology, and enhances the transparency, intelligence and trust level in the digital economy ecosystem. The problem of low scalability of system resources in the prior art is solved, and the data security of the system in use is also improved.

Summary of the invention

The embodiments of the present application provide a blockchain resource transaction network, network node, and transaction method to solve the problem of lack of scalability of system resources in the prior art.

The embodiment of the application provides a blockchain resource transaction network for communication and computer information network, including: an application network, a first service module, a second service module, and a blockchain module. The application network is a part of the communication and computer information network; the first service module is used to control the resource change amount corresponding to the wallet address in the application network; the second service module is used to change The amount of resource usage corresponding to the wallet address in the application network; the block chain module is used to change the token value corresponding to the wallet address according to the amount of resource change and or the amount of resource usage, and store it in the blockchain .

Preferably, the system of the present application further includes a third service module, which is used to monitor the first module or the second module to obtain the amount of resource change or resource usage.

Preferably, the system of the present application further includes a transaction module, which is used to exchange resources for tokens, or exchange tokens for resources.

Preferably, in the system of the present application, the transaction service module is also used to exchange currency.

Preferably, in the system of this application, the total amount of token values corresponding to multiple wallet addresses has an upper limit.

Preferably, in the system of the present application, there is no upper limit on the total amount of token values corresponding to multiple wallet addresses.

The embodiment of the application also provides a blockchain resource transaction method, which includes the following steps: calculating the token value according to the resource change corresponding to the wallet address, and or, calculating the token value according to the resource usage corresponding to the wallet address; Store the wallet address and the token value in the blockchain.

Preferably, the method of the present application further includes the step of using a pass to exchange currency.

Preferably, the method of the present application further includes the step of monitoring and analyzing the behaviors of resource providers and resource users.

Preferably, in the system and method of the present application, the resources include at least one of the following: physical network resources, virtual network resources, data resources, and service resources.

The embodiment of the present application also provides a network node controlled by a token, which is used in a communication and computer information network, and includes: a network device, a multiplier, and a blockchain memory. The network device is a device on a communication and computer information network; the multiplier uses a conversion coefficient to perform operations on the data of the network device; the blockchain memory is used to use the output of the multiplier as The token value is stored in the blockchain. The data of the network device includes at least one of the following: storage capacity, exchange capacity, and transmission capacity.

Preferably, the conversion coefficient is read from the blockchain memory.

Preferably, the multiplier is further configured to obtain the data of the network device according to the token value and the conversion coefficient, and send the data to the network device.

Preferably, the network equipment includes at least one of the following: storage equipment, switching equipment, and transmission equipment.

Preferably, in the system of the present application, the network device may form at least one type of a resource aggregation node, a service sharing node, and a data sharing node.

The embodiment of the present application provides a token-controlled network, including the network node described in any one of the embodiments of the present application.

The embodiment of the application also provides a blockchain resource transaction network for communication and computer information network, including: network equipment, smart contract module, memory; the network equipment, corresponding to the wallet address, is used to share resources with the network The smart contract module is used to perform operations on the resource data of the network device in accordance with the smart contract to obtain the corresponding token value; the smart contract includes using the resource data and wallet address to calculate the corresponding token Value rules; the memory is used to store the smart contract, wallet address, and token value in a blockchain manner.

Preferably, the system of the present application further includes a first service module, corresponding to the first wallet address, for changing resources.

Preferably, in the system of the present application, the rule includes: the amount of change in the token value is accumulated according to the sharing time of the network device.

Preferably, in the system of the present application, the smart contract module includes a multiplier for performing operations on the resource data to obtain the change in the token value; the coefficient of the multiplier is read from the memory , Or generated by the smart contract module.

Preferably, in the system of the present application, the rule includes a method for determining the coefficient of the multiplier, including at least one of the following: the coefficient of the multiplier is a variable of the resource type; the coefficient of the multiplier is the number of resources Variable; the coefficient of the multiplier is a variable of the wallet address; the coefficient of the multiplier is a variable of shared time; the coefficient of the multiplier is a variable of the token value.

Preferably, in the system of the present application, the resource data includes information indicating the type and quantity of resources:

Resource types include at least one of the following: storage resources, exchange resources, transmission resources, video resources, audio resources, picture resources, text resources, pure data resources, platform resources, and tool resources;

The number of resources includes at least one of the following: storage capacity, exchange capacity, transmission capacity, data access volume, data storage volume, service resource opening volume, and service resource access volume.

Preferably, the system of the present application includes a second service module, corresponding to the second wallet address, for calling the resource.

Preferably, the system of the present application includes multiple network devices corresponding to one or more, the same or different wallet addresses.

The embodiment of the present application also provides a resource transaction method used in the resource transaction network of any one of the embodiments of the present application, including at least one of the following steps:

Change the resource corresponding to the first wallet address, and change the token value corresponding to the first wallet address according to the rules;

According to the token value corresponding to the first wallet address, change the resource corresponding to the first wallet address;

Call the resource corresponding to the first wallet address and change the token value corresponding to the first wallet address;

According to the token value corresponding to the first wallet address, call the resource corresponding to the first wallet address;

Call the resource corresponding to the first wallet address and change the token value corresponding to the second wallet address;

According to the token value corresponding to the second wallet address, the resource corresponding to the first wallet address is called.

Preferably, the method of the present application further includes the step of accumulating the calculated token value according to the time shared by the network equipment.

Preferably, the method of this application further includes at least one of the following steps:

Increase the token value corresponding to the first wallet address and decrease the account value corresponding to the first wallet address;

Decrease the token value corresponding to the first wallet address and increase the account value corresponding to the first wallet address;

Increase the token value corresponding to the second wallet address and decrease the account value corresponding to the second wallet address;

Decrease the token value corresponding to the second wallet address and increase the account value corresponding to the second wallet address.

The above-mentioned at least one technical solution adopted in the embodiments of the present application can achieve the following beneficial effects: improving the transparency, intelligence, and trust level in the digital economy ecosystem. The problem of low scalability of system resources in the prior art is solved, and the data security of the system in use is also improved.

At least one embodiment of the present invention improves the reliability and security of data changes and storage of application network nodes by introducing a blockchain token mechanism, and realizes reliable data resource transactions.

At least one embodiment of the present invention improves the reliability and security of application network node configuration changes by introducing a blockchain token mechanism, and realizes reliable physical network and virtual network resource transactions.

At least one embodiment of the present invention improves the reliability and security of software resource changes of application network nodes by introducing a blockchain token mechanism, and realizes reliable software service resource transactions.

Description of the drawings

Figure 1 is a block diagram of a block chain resource transaction network;

Figure 2 is a block diagram of a blockchain resource transaction network including a third service module;

Figure 3 is a block diagram of a blockchain resource trading network with tradable certificates;

Figure 4 is a flowchart of a blockchain resource transaction method;

Figure 5 is a block diagram of a token-controlled network and network nodes;

Figure 6 is a schematic diagram of an embodiment of a resource aggregation network sharing physical network resources;

FIG. 7 is a schematic diagram of an embodiment of a resource aggregation network sharing virtual network resources;

FIG. 8 is a schematic diagram of an embodiment of a data sharing network for sharing data resources;

Fig. 9 is a schematic diagram of an embodiment of a service sharing network for sharing service resources.

detailed description

In order to make the objectives, technical solutions, and advantages of the present application clearer, the technical solutions of the present application will be described clearly and completely in conjunction with specific embodiments of the present application and the corresponding drawings. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in this application, all other embodiments obtained by those of ordinary skill in the art without creative work shall fall within the protection scope of this application.

The following describes in detail the technical solutions provided by the embodiments of the present application with reference to the accompanying drawings.

Figure 1 is a block diagram of a blockchain resource transaction network.

The embodiment of the application provides a blockchain resource transaction network, which includes at least the following modules: an application network 11; a first service module 12; a second service module 13; and a blockchain module 14.

Application network 11 is a part of communication and or computer information network. The resource user and the resource provider connect the first service module and the second service module through the application network.

For example, the resource provider provides software and hardware resources to the first service module through the application network; the resource user requests resources from the second service module through the application network.

The first service module is used to control, adjust, and change the resource change amount corresponding to the wallet address in the application network. The resource provider provides resources, and the first service module performs statistics on the provided resources to obtain the amount of resource change. The first service module sends the wallet address and resource change to the blockchain module.

The wallet address is the account of the user of the blockchain network resource. For example, resource providers (such as suppliers), resource users (ie users), etc. have wallet addresses. The resources are hardware and software resources required for the operation of the computer, and are used to provide operations, storage, services, data, hardware and other units that support the functions of the computer. Including: service resources, data resources, virtual network resources, physical network resources, etc. The resource change amount is a statistical value of the resource provided by the resource provider in the blockchain resource transaction network.

For example, the resource provider provides the first service module with its own hard disk to store 100G of hardware resources, the first service module performs statistics on this 100G storage space, obtains the resource change R _p , and passes the wallet address and R _p to the district Block chain module.

The resource provider can also provide the first service module with the interface of the algorithm software implemented in its own system. Similarly, the first service module performs statistics on this algorithm software and informs the blockchain module to change the resource value corresponding to the wallet address . Other types of resources and so on.

The second service module is used to change the resource usage corresponding to the wallet address in the application network. The resource usage is that after the resource user applies to the second service module to use the resource, the second service module evaluates the resource value of the resource applied by the resource user, which is the resource usage.

For example, if a resource user applies for a game software, the second service module evaluates the resource usage of this game software as _Ru , and passes the wallet address and resource usage _Ru to the blockchain module.

The block chain module is used to change the token value corresponding to the wallet address according to the amount of resource change and or the amount of resource usage, and store it in the block chain.

The resource change amount is the resource value of the resource provided by the resource provider. Resource usage is the resource value of the resource requested by the resource user.

The blockchain module receives the wallet address and its resource change and/or resource usage from the first and second service modules, calculates the corresponding token value, and calculates the token value corresponding to the wallet address according to the calculation result And the resource value is updated, and the updated data is stored in the blockchain.

For example, when a resource provider provides a hard disk to store 100G resources, the blockchain module receives the wallet address of the resource provider and the resource change R _{p of} the provided resource from the first service module, and calculates it according to the resource change R _p The corresponding token value N _p , and according to the calculation result, the token value and resource value corresponding to the wallet address are updated and stored in the blockchain at the same time. The resource provider receives the reward for providing resources, which is reflected in the token value.

For another example, when a resource user uses a hard disk to store 100G resources, the blockchain module receives the wallet address of the resource provider and the resource change amount _{Ru of} the provided resource transmitted by the second service module, according to the resource change amount _Ru Calculate the corresponding token value N _u , and update the token value and resource value corresponding to the wallet address according to the calculation result, and store it in the blockchain at the same time. The price paid by resource users for using resources is reflected in the token value.

Applying blockchain technology, the "wallet address" in this application document is the abbreviation of the encrypted digital asset wallet address, including but not limited to the public key address of the blockchain ledger, etc., after mapping the address that can uniquely identify the user. "Token" is the abbreviation of Blockchain Token. "Token value", according to the needs of the application, can be the token balance or the token change.

The wallet address in this application may be the same or different with respect to the resource provider, resource user, first service module, second service module, and specific network nodes, and there is no specific limitation here.

Figure 2 is a block diagram of a blockchain resource transaction network including a third service module. The embodiment of the present application provides a blockchain resource transaction network including a third service module.

As a further optimized embodiment of the present invention, a third service module 25 is further included, which is used to monitor the first service module or the second service module to obtain the amount of resource change or resource usage.

The third service module monitors the first and second service modules through the application network, obtains the resource provision and usage of resource providers and resource users, and can send wallet addresses and resource usage or/and resource changes as needed Amount to the blockchain module.

As a management module, the third service module can also monitor the status of resource changes and resource usage. According to needs, further work can be developed.

For example, the third service module monitors the behavior of resource providers and resource users on resources, analyzes and counts them, and can score and rank system resource users.

The third service module can also manage data resources, classify and classify resources through big data analysis, so as to facilitate more effective provision and use of resources, and improve system efficiency.

The third service module can also perform state maintenance and supervision of physical resources, support VPN connections, provide data resources, etc., to better serve the system.

Figure 3 is a block diagram of a blockchain resource trading network with tradable certificates. The embodiment of the application provides a blockchain resource trading network with tradable tokens. As a further optimized embodiment of the present invention, it also includes a transaction service module 36 for resource exchange tokens or token exchange resources.

The transaction service module manages or changes the wallet address of the resource user and its corresponding account value. The transaction service module receives the wallet address and the resource change amount and/or the resource usage amount sent by the first and second service modules, and exchanges the token in the transaction service module. And according to the conversion result, the account value is updated in the server of the transaction service module. For example, the account value M _p corresponding to the resource provider P or its wallet address, and the account value M _u corresponding to the resource provider U or its wallet address. At the same time, the wallet address and the amount of resource change and/or resource usage can be sent to the blockchain module.

The users in Figure 3 include but are not limited to resource providers and resource users. The users of the transaction service module can include not only resource users of the blockchain resource transaction network, but also other users. These users use the wallet address as an account to conduct transactions between tokens and resources in the transaction module.

For example, through the transaction service module, these users can not only trade resources and tokens, but also auction tokens and hold shares. Compared with the first, second, and third service modules, the transaction service module provides a larger trading venue, can conduct transactions with users outside the system, and also supports other forms of transactions. The account value of the transaction service module is also stored in the blockchain.

After the exchange, the transaction service module sends the wallet address and the exchanged token value to the blockchain, and the blockchain automatically updates the token value corresponding to the wallet address.

As a further optimized embodiment of the present invention, the transaction service module is also used to exchange currency. After the exchange, the transaction service module sends the wallet address and the exchanged token value to the blockchain, and the blockchain automatically updates the token value corresponding to the wallet address.

The account value of the transaction service module can be either a token value, currency, or other forms of valuable assets such as stored value cards. Through the transaction service module, users can exchange freely under supervision.

For example, through the transaction service module, these users can not only trade resources and tokens, but also exchange tokens and currencies, or carry out other forms of equivalent transactions, such as transaction of goods, currency and goods, and The tokens can be auctioned, stock held, options, etc. Compared with the first, second, and third service modules, the transaction service module provides a larger trading venue, can conduct pass-through transactions with users outside the system, and also supports other forms of transactions. The account value of the transaction service module is also stored in the blockchain.

As a further optimized embodiment of the present invention, the resources include at least one of the following: physical network resources, virtual network resources, data resources, and service resources.

The physical network resource is a physical device that can be shared, such as a remote hard disk or cloud space that can provide storage functions;

The virtual network resources are information resources provided remotely through the network, such as online libraries, online shopping malls, etc., which provide information remotely through the network;

The data resources are data information provided remotely, such as online databases, network big data, algorithm libraries, etc.;

The service resources are various service functions provided through the network, such as remote tutorials, remote consultations and other medical services.

As a further optimized embodiment of the present invention, the total amount of token values corresponding to multiple wallet addresses has an upper limit. The basic function of the blockchain resource trading network is the exchange of resources and tokens. The total amount of tokens has an upper limit, forming a relatively simple closed-loop system. It is relatively easy to manage and maintain the blockchain resource trading network.

As a further optimized embodiment of the present invention, there is no upper limit on the total amount of token values corresponding to multiple wallet addresses. To form an open system, the token value can change according to market demand, which increases the difficulty of system management and maintenance, but improves the flexibility of the system.

Figure 4 is a flowchart of a blockchain resource transaction method. The embodiment of the present application provides a flowchart of a blockchain resource transaction method, including the following steps 41 to 43:

Step 41: Conversion of the token value corresponding to the wallet address and resource change; conversion of the token value corresponding to the wallet address and resource usage.

The wallet address corresponds to the token value, which in turn corresponds to the amount of resource change and/or resource usage.

In step 41, the token value is calculated according to the resource change corresponding to the wallet address, and or, the token value is calculated according to the resource usage corresponding to the wallet address;

In step 41, it may further include calculating the resource change amount according to the token value corresponding to the wallet address, and or, calculating the resource usage amount according to the token value corresponding to the wallet address.

Step 42: Store the wallet address and the token value in the blockchain.

The application network connects the resource provider and the first service module. After the resource provider provides resources through the first service module, the first service module performs statistics on the resources to obtain the amount of resource change. The first service module sends the wallet address of the resource provider and the resource change to the blockchain module through the blockchain network.

The application network also connects the resource user and the second service module. After the resource user requests the resource through the second service module, the second service module counts the requested resource to obtain the resource usage amount. The second service module sends the resource user wallet address and resource usage amount to the blockchain module through the blockchain network.

In step 42, when the blockchain module receives the wallet address and resource change from the first service module, the blockchain module calculates the corresponding token value according to the resource change, and according to the resource change Pass value, update the resource value and pass value corresponding to the wallet address of the resource provider. The resource value and token value corresponding to the wallet address are stored in the blockchain.

When the blockchain module receives the wallet address and resource usage from the second service module, the blockchain module calculates the corresponding token value according to the resource usage, and updates the resource according to the resource usage and token value The resource value and token value corresponding to the user's wallet address. The resource value and token value corresponding to the wallet address are stored in the blockchain.

When the blockchain module calculates the corresponding token value according to the amount of resource change or usage, it can trigger and execute the event according to the smart contract method. For example, when the amount of resource change or usage is received, the execution of the smart contract is triggered, and the corresponding token value is calculated according to the rules of the contract.

As a further optimized embodiment of the present invention, it also includes the following steps:

Step 43: Exchange the token and currency.

Store the user's account information in the transaction service module. The transaction service module has its own transaction server, which supports users to directly purchase tokens with currency, and can also sell tokens for currency or other account values. If the token value decreases, the value of other accounts will increase; if the token value increases, the value of other accounts will decrease.

As a further optimized embodiment of the present invention, it also includes the step of monitoring and analyzing the behavior of resource providers and resource users.

Through the third service module, the first and second service modules are monitored to obtain the behavior of resource providers and resource users. For example, if a resource provider provides a resource, or a resource user applies for a resource, the third service module can monitor the resource value of these resources. The third service module can process the behavior results, for example, send them to the blockchain module, or perform statistics on these behavior results. Through the third service module, you can understand the classification and quantity of resources, and further score and classify system resource users.

It should be noted that whether the first, second, and third service modules are directly connected to the blockchain module is not limited here. For example, the three can be connected through a communication system, or indirect information transmission can be carried out by writing information on resource usage or application on other media. The classification of resources enumerates the known resources corresponding to the prior art, but the present invention does not limit the types of other resources available in the future.

Figure 5 is a block diagram of a token-controlled network and network nodes. The embodiment of the present application provides a network node controlled by a pass, including: a network device 10, a multiplier 21, and a blockchain memory 30.

The network device 10, S, is a device on a communication and or computer information network. The network device and the multiplier are connected through a network or other media, and the data R of the network device is sent to the multiplier.

In a further optimized embodiment of the present application, the network device may form a resource aggregation node, a data sharing node, or a service sharing node.

The data of the network device refers to the quantitative value of the hardware resources of the device on the network. For example, the capacity of the device on the network, such as the storage space of the device, the transmission capacity of the device, and the switching capacity. It may also be the amount of storage and the amount of access; further, the data of the network device may also include service data of the network node, such as input data and output data.

The multiplier 21, X, uses the conversion coefficient to multiply the data of the network device. The conversion factor is expressed as T. T can be a coefficient value or an operator, and there is no specific limitation here. For example, a network node sends data R, and after a multiplier operation, N=T×R, or N=T(R) is obtained. The block chain memory 30, M is used to store the output of the multiplier in the block chain. For example, the operation result N of the multiplier is sent to the blockchain memory. As the token value, N is stored in the blockchain. According to the characteristics of blockchain technology, data storage is highly secure and cannot be tampered with.

As a further optimized embodiment of the present invention, the conversion coefficient may be preset or read from the blockchain memory. The multiplier reads the conversion coefficient between the storage and the blockchain before the operation, and then uses the data of the network device for the operation.

When working, the multiplier receives a signal containing data representing the network device from the network device; the multiplier receives a signal containing a conversion coefficient from the blockchain memory; the multiplier sends a signal containing the data representing the network device; The signal of the verification value is sent to the blockchain memory.

As a further optimized embodiment of the present invention, the token value stored in the blockchain is also used as the input of the multiplier to calculate the data of the network device, and the operation result of the multiplier is transmitted to the network device. For example, read the token value N from the blockchain and perform the inverse operation on the conversion coefficient. T ^-1 can be a coefficient value or an operator, and there is no specific limitation here. For example, the multiplier performs operations on the token value to get: R=T ^-1 ×N, or R=T ^-1 (N). The output of the multiplier is sent to the network node.

When working, the multiplier receives a signal representing a token value from the blockchain memory; the multiplier receives a signal including a conversion coefficient from the blockchain memory; the multiplier receives a signal from the The network device sends a signal containing data representing the network device.

In other embodiments of the present invention, the blockchain storage is referred to as storage for short.

As a further optimized embodiment of the present invention, the network device includes at least one of the following: a storage device, a switching device, a transmission device, and the like. These devices are devices that can provide or use network resources.

As a further optimized embodiment of the present invention, the data of the network device includes at least one of the following: storage capacity, switching capacity, and transmission capacity. The data of network equipment includes all available computer resources, such as data resources and service resources.

The embodiment of the present application also provides a token-controlled network, which includes the characteristics of the token-controlled network node, and further includes multiple network nodes. The data of the network equipment in each network node is processed by the multiplier and stored in the blockchain as a token value.

It should be noted that the connection between network equipment, multiplier and blockchain storage can be direct connection, network connection, or intermediate medium connection, which is not limited here. The listed equipment and data categories of network nodes are based on known equipment and data categories in the prior art, but the present invention does not limit the types of other equipment and data resources available in the future.

The blockchain resource transaction network in this application includes three types: resource convergence network, data sharing network, and service sharing network. Figures 6-9 show resource convergence networks that share physical network resources and resource convergence networks that share virtual network resources. An embodiment of a data sharing network that shares data resources and a service sharing network that shares service resources.

Fig. 6 is a schematic diagram of an embodiment of a resource aggregation network sharing physical network resources. This embodiment provides a resource aggregation network to implement a blockchain resource transaction network, which is used for communication and computer information networks, and at least includes a resource aggregation node 10A/B, a smart contract module 20, and a memory 30.

The resource aggregation node 10A/B corresponds to the wallet address and is used to share physical network resources with the network.

The "sharing" in this embodiment refers to supply and or use. In the embodiment shown in FIG. 6, the resource provider supplies physical network resources to the network by controlling and managing network equipment; users use the physical network resources in the network by controlling and managing the network equipment. Sometimes, resource providers are also users, supplying and using physical network resources in the network by controlling and managing network equipment.

For example, a resource provider provides or supplies physical network resources to the network at a certain resource aggregation node, and this resource aggregation node corresponds to the wallet address that identifies the resource provider; the resource user requests from the server at a certain resource aggregation node Using physical network resources, this resource aggregation node corresponds to the wallet address that identifies the resource user.

The wallet address is the account number of the blockchain network user. For example, the first wallet address is the wallet address of the resource provider, and the second wallet address is the wallet address of the resource user. The wallet address at least corresponds to the token value stored in the blockchain, and the wallet address can also correspond to other account values. The account value of the wallet address refers to the asset value corresponding to the wallet address, such as currency, virtual currency, bank account value, stocks, futures, funds, equity, points, etc.

The smart contract module 20 is used to perform operations on the resource data of the resource aggregation node according to the smart contract to obtain the corresponding token value. The smart contract includes rules for calculating the corresponding token value using the resource data of the resource aggregation node and the wallet address.

The smart contract module receives the resource data of the resource aggregation node, triggers the execution of the smart contract, and calculates the token value corresponding to the resource data of the resource aggregation node in accordance with the rules of the smart contract.

The resource data includes information indicating shared resource parameters, such as identification information indicating supply or use, information indicating the resource type and resource quantity of physical network resources.

For example, the resource types of physical network resources include at least one of the following: storage resources, exchange resources, and transmission resources; storage resources refer to devices that can be used to store data and information, such as memory, computers, data center servers, cloud servers, etc. ; Switching resources refer to devices that achieve signal cross and switching, such as cross-connect devices, switches, routers, etc.; transmission resources, refer to devices or physical entities that can achieve signal access and data transmission, including time and frequency domains Data packet format and frame format, spectrum, wavelength processing related equipment, etc.

The number of resources includes at least one of the following: storage capacity, exchange capacity, and transmission capacity.

The storage capacity in this application file refers to the amount of space used to store data or information. Exchange capacity refers to the total amount of cross-connections or signal exchanges. Transmission capacity refers to signal access bandwidth or transmission bandwidth.

For example, you can share disk storage space, exchange capacity of switches, access bandwidth and transmission capacity for information transmission.

For example, the resource provider supplies 100G of disk storage space to the server at the resource aggregation node. The smart contract module calculates the token value corresponding to the 100G disk storage space according to the supplied resources. This token value is an incentive value for resource providers to supply resources. The resource provider obtains the reward for providing the resource, which is represented by the token value, which corresponds to the wallet address of the resource provider, that is, the first wallet address.

For another example, the resource user requests 20G of disk storage space from the server at the resource aggregation node, and the smart contract module calculates the token value corresponding to the 20G disk storage space according to the requested resource. This token value is the consumption value paid by the resource user using the resource. The resource user consumes the token value, which corresponds to the wallet address of the resource user, that is, the second wallet address, and obtains the right to use the resource.

The rules for calculating the token value according to resources, that is, the rules of smart contracts, are recorded in the blockchain smart contract module.

When the physical network resources are shared, that is, the supply and or use of physical network resources will trigger the execution of the smart contract, and the corresponding token value will be calculated according to the rules of the contract.

The memory 30 is used to store the smart contract, wallet address, and token value in a blockchain manner. Distributed storage in the blockchain, data is transparent, non-tamperable, safe and reliable.

For example, the resource provider supplies 100G of disk storage resources to the server at the resource aggregation node. The smart contract module calculates the reward value corresponding to the 100G disk storage space according to the supplied resources, that is, the token value, and in the blockchain memory, it will identify the token corresponding to the first wallet address of the resource provider The value is updated and stored. The resource user requests 20G disk storage resources from the server at the resource aggregation node, and the smart contract module calculates the token value corresponding to the 20G disk storage space according to the requested resource, and in the blockchain memory, it will indicate the resource usage The token value corresponding to the second wallet address of the person is updated and stored.

As a further optimized embodiment of the present invention, it further includes a first service module 12, that is, a controller, which corresponds to the first wallet address and is used to change the configuration of physical network resources.

For example, in the embodiment shown in Figure 6, the resource provider provides 100G transmission capacity, the first service module confirms the first wallet address, accepts and processes this application, and changes the configuration of the terminal device 10A to transmit and receive 100G signals The equipment is connected to the resource aggregation network through the add/drop multiplexing device, which increases the resource supply. The smart contract module receives the resource data including the increase of 100G transmission capacity, triggers the execution of the smart contract, and issues the token value corresponding to the 100G transmission capacity to the wallet address (first wallet address) corresponding to the resource provider.

For another example, if the resource provider requests to reduce the exchange capacity of 100G to 80G, the first service module confirms the first wallet address, accepts and processes this application, and converges the exchange capacity of 20G from the resources by changing the configuration of the exchange device 10B Network removal reduces the supply of resources. The smart contract module receives resource data containing a reduction of 20G exchange capacity, thereby triggering the execution of the smart contract, and reducing the token value corresponding to the 20G cross-capacity space to the wallet address (first wallet address) corresponding to the resource provider.

As a further optimized embodiment of the present invention, it also includes a second service module 13, that is, a controller, corresponding to the second wallet address, for calling the physical network resource.

The second service module receives and processes the data of the resource user at the resource aggregation node, and calls the resource of the resource aggregation node.

For example, in the embodiment shown in FIG. 6, the resource user uses 100G transmission capacity, the second service module confirms the second wallet address, accepts and processes this application, and sends the 100G signal by calling the configuration of the terminal device 10A Into the terminal device 10A, physical network resources are used. The smart contract module receives resource data including the use of 100G transmission capacity, triggers the execution of the smart contract, and reduces the token value corresponding to the 100G transmission capacity at the wallet address (first wallet address) corresponding to the resource user.

For another example, if the resource user requires 80G of exchange capacity, the second service module confirms the second wallet address, accepts and processes this application, and changes the configuration of the exchange device 10B to call the 80G exchange capacity to the resource use By. The smart contract module receives the resource data using the 80G exchange capacity to trigger the execution of the smart contract and reduce the token value corresponding to the 80G exchange capacity at the wallet address (second wallet address) corresponding to the resource user.

Fig. 7 is a schematic diagram of an embodiment of a resource aggregation network sharing virtual network resources.

This embodiment provides a resource aggregation network to implement a blockchain resource transaction network for communication and computer information networks, and at least includes: a resource aggregation node 10C, a smart contract module 20, and a memory 30.

The resource aggregation node 10C corresponds to a wallet address and is used to share virtual network resources with the network.

In the embodiment shown in FIG. 7, the resource provider supplies virtual network resources to the network by controlling and managing the network equipment; the users use the virtual network resources in the network by controlling and managing the network equipment. Sometimes, resource providers are also users, supplying and using virtual network resources in the network by controlling and managing network equipment.

For example, the resource provider provides or supplies virtual network resources to the server at a certain resource aggregation node, and this resource aggregation node corresponds to the wallet address of the resource provider; the resource user requests the server to use it at a certain resource aggregation node Virtual network resource, this resource aggregation node corresponds to the wallet address that identifies the resource user.

The smart contract module 20 is used to perform operations on the resource data of the resource aggregation node according to the smart contract to obtain the corresponding token value. The smart contract includes rules for calculating the corresponding token value using the resource data of the resource aggregation node and the wallet address.

The smart contract module receives the resource data of the resource aggregation node, triggers the execution of the smart contract, and calculates the token value corresponding to the resource data of the resource aggregation node in accordance with the rules of the smart contract.

The resource data includes information indicating shared resource parameters, such as identification information indicating supply or use, and information indicating resource types and resource quantities of virtual network resources.

For example, the resource types of virtual network resources include at least one of the following: storage resources, switching resources, and transmission resources; the number of resources includes at least one of the following: storage capacity, switching capacity, and transmission capacity.

Here, the type and quantity of resources are defined in the virtual network. Compared with the type and quantity of physical network resources, each type of virtual network resource is a virtual set formed by part of physical network resources or their combination. For example, define a part of storage as virtual storage, and define virtual storage in multiple data centers as cloud storage; define switching resources, such as a part of switches, as virtual switches; define part of optical channels transmitted in the same fiber as virtual transmission Resource; or, according to the number of resources, a collection containing multiple physical network resources is defined as a virtual network resource. Define multiple physical network nodes as a virtual network node.

Supply and use virtual network resources, and carry out token calculations simultaneously. For example, the resource provider provides users with virtual network resources with a switching capacity of 100T and a transmission capacity of 100G at the resource aggregation node. The smart contract module calculates the token value corresponding to the virtual network resource with the exchange capacity of 100T and the transmission capacity of 100G according to the supplied resources. This token value is an incentive value for resource providers to supply resources. The resource provider obtains the reward for providing the resource, which is represented by the token value, which corresponds to the wallet address of the resource provider, that is, the first wallet address.

For another example, a resource user requests a virtual network resource with an exchange capacity of 100T and a transmission capacity of 100G from the server at the resource aggregation node to form a virtual private network VPN1. The smart contract module calculates the use of the virtual private network VPN1 according to the requested resources The token value corresponding to the occupied virtual network resources. This token value is the consumption value paid by the resource user using the resource. The resource user consumes the token value, which corresponds to the wallet address of the resource user, that is, the second wallet address, and obtains the right to use the resource.

The rules for calculating the token value according to resources, that is, the rules of smart contracts, are recorded in the blockchain smart contract module.

When virtual network resources are shared, that is, the supply and or use of virtual network resources will trigger the execution of smart contracts, and the corresponding token value will be calculated according to the rules of the contract.

The memory 30 is used to store the smart contract, wallet address, and token value in a blockchain manner.

For example, the resource provider supplies a VPN2 network with an access rate of 100M to the server at the resource aggregation node. The smart contract module calculates the reward value corresponding to the 100M VPN2 network according to the supplied resources, that is, the token value, and in the blockchain memory, it will identify the token value corresponding to the first wallet address of the resource provider Update and store. The resource user requests 100M VPN network resources from the server at the resource aggregation node, and the smart contract module calculates the token value corresponding to the 100M VPN2 network according to the requested resources, and in the blockchain memory, it will indicate the resource usage The token value corresponding to the second wallet address of the person is updated and stored.

As a further optimized embodiment of the present invention, it further includes a first service module 12, that is, a controller, which corresponds to the first wallet address and is used to change the configuration of virtual network resources.

For example, in the embodiment shown in FIG. 7, the resource provider provides a VPN2 network with a transmission capacity of 100M. When the resource provider applies for the supply of VPN2 virtual network resources, the first service module confirms the first wallet address and reports the virtual network resource Configure 100M VPN2 resources.

As a further optimized embodiment of the present invention, it also includes a second service module 13, that is, a controller, corresponding to the second wallet address, for invoking the virtual network resource.

The second service module receives and processes the data of the resource user at the resource aggregation node, and calls the resource of the resource aggregation node.

For example, when a resource user applies for the use of VPN virtual network resources, the second service module confirms the second wallet address and provides an interface for the resource user to call VPN resources. When the resource user stops using the VPN resource, the second service module stops opening the VPN resource to the resource user.

Fig. 8 is a schematic diagram of an embodiment of a data sharing network for sharing data resources. This embodiment provides a data sharing network to implement a blockchain resource transaction network for communication and computer information networks, and at least includes: data sharing nodes, 10C/D, smart contract module 20, and memory 30.

The data sharing node 10C/D corresponds to the wallet address and is used to share data resources with the network.

In the embodiment shown in FIG. 8, the resource provider supplies data resources to the network by controlling and managing the network equipment; the resource users use the data resources in the network by controlling and managing the network equipment. Sometimes, resource providers are also users, supplying and using data resources in the network by controlling and managing network equipment.

For example, the resource provider provides or supplies data resources to the server at a certain data sharing node, and this data sharing node corresponds to the wallet address that identifies the resource provider; the resource user requests the server for use at a certain data sharing node Data resource, this data sharing node corresponds to the wallet address that identifies the resource user.

The smart contract module 20 is used to perform operations on the resource data of the data sharing node according to the smart contract to obtain the corresponding token value. The smart contract includes a rule for calculating the corresponding token value using the resource data and wallet address of the data sharing node.

The smart contract module receives the resource data of the data sharing node, triggers the execution of the smart contract, and calculates the token value corresponding to the resource data of the data sharing node in accordance with the rules of the smart contract.

The resource data includes information indicating shared resource parameters, such as identification information indicating supply or use, information indicating the resource type and resource quantity of the data resource.

For example, the number of resources includes at least one of the following: data access amount, data storage amount.

When resource providers supply resources and resource users call (ie access) resources, the number of data resources supplied or called is reflected by the amount of data: for example, the token value obtained by the resource provider and the payment by the resource user The value of the token can be determined according to the amount of data storage, 100M data and 1000M data are different. In addition, the amount of token value obtained or paid is directly related to the number of visits (such as the number of visits, the amount of interviewed data) of the supplied or called data resources, such as: 1 visit to 100M data resources and 100 times , The token value obtained or required to be paid is also different.

For example, the resource types of data resources include:

According to the data format, resource types include at least one of the following: video resources, audio resources, image resources, text resources, and pure data resources; according to their importance, the resource types include at least one of the following: public resources, VIP resources, and confidential resources; The degree of data standardization, resource types include at least one of the following: raw data resources, preliminary screened data resources, and completely screened data resources; according to the degree of data confidentiality, the resource types include at least one of the following: unencrypted resources and encrypted resources.

For example, you can share in business activities, you can share text information, pictures, audio and video information including business background information; in scientific and technological activities, you can share scientific research data and scientific research results including pure data such as measurement data, encrypted data, and raw data ; In government management activities, you can share filtered data, public data, and confidential or unclassified data resources, etc.; in big data analysis activities, including structured or unstructured data, you can share video resources, text Resources, etc., used to analyze the flow of people in a certain area, etc.

For example, the resource provider supplies 100M data resources to the server at the data sharing node. When a resource user calls the 100M data resource, the smart contract module is triggered to calculate the token value corresponding to the 100M data resource. The token value is the incentive value for the resource provider to supply resources after the resource user calls the 100M data resource this time. The resource provider obtains the reward for providing the resource, which is represented by the token value, and corresponds to the wallet address of the resource provider, which is the first wallet address.

For another example, the resource user requests 10M data resources from the server at the data sharing node, and the smart contract module calculates the token value corresponding to the use of the 10M data resources according to the requested resources. This token value is the consumption value paid by the resource user using the resource. The resource user's consumption token value corresponds to the resource user's wallet address, that is, the second wallet address, and obtains the right to use the resource.

The rules for calculating the token value according to resources, that is, the rules of smart contracts, are recorded in the blockchain smart contract module.

When data resources are shared, that is, the supply and or use of data resources will trigger the execution of smart contracts, and the corresponding token value will be calculated according to the rules of the contract.

The memory 30 is used to store the smart contract, wallet address, and token value in a blockchain manner.

For example, the resource provider supplies 100M data resources to the server at the data sharing node. When a resource user calls the 100M data resource, the smart contract module is triggered to calculate the reward value corresponding to the 100M data resource, that is, the token value, and in the blockchain memory, it will identify the resource provider's first The token value corresponding to a wallet address is updated and stored. The resource user requests 10M data resources from the server at the data sharing node, and the smart contract module calculates the token value corresponding to the 10M data resources according to the requested resources, and will identify the resource user in the blockchain memory The token value corresponding to the second wallet address is updated and stored.

As a further optimized embodiment of the present invention, it also includes a first service module 12, that is, a controller, which corresponds to the first wallet address and is used to change the configuration of data resources.

For example, in the embodiment shown in Figure 8, the resource provider provides 100M data resources, the first service module confirms the first wallet address, accepts and processes this application, and changes the configuration of the data center 10C to connect 100M data Access to the data sharing network increases the supply of resources. The smart contract module receives the resource data including an increase of 100M, triggers the execution of the smart contract when the resource user calls it, and issues the token value corresponding to the 100M data resource to the wallet address (first wallet address) corresponding to the resource provider.

For another example, if the resource provider requests to reduce 100M data resources to 80M, the first service module confirms the first wallet address, accepts and processes this application, and changes the configuration of the data center 10D to remove the 20M data resources from the data sharing network Remove, reduce the resource supply. In the sharing of data resources, when a resource user calls a data resource, the execution of a smart contract is triggered, and the token value of the wallet address (first wallet address) corresponding to the resource provider is changed according to the amount of resource data called.

As a further optimized embodiment of the present invention, it also includes a second service module 13, ie, a controller, corresponding to the second wallet address, for calling the data resource. The second service module receives and processes the data of the resource user in the data sharing node, and calls the resources of the network resource node.

For example, in the embodiment shown in FIG. 8, the resource user uses 100M data resources, the second service module confirms the second wallet address, accepts and processes this application, and uses the data resources by accessing the data center. The smart contract module receives resource data including the use of 100M transmission capacity, triggers the execution of the smart contract, and reduces the token value corresponding to the 100M transmission capacity at the wallet address (first wallet address) corresponding to the resource user.

Fig. 9 is a schematic diagram of an embodiment of a service sharing network for sharing service resources. This embodiment provides a service sharing network to implement a blockchain resource transaction network, which at least includes: a service sharing node 10E/F, a smart contract module 20, and a memory 30.

The service sharing node 10E/F corresponds to the wallet address and is used to share service resources with the network.

"Share" in this embodiment refers to openness and or access. In the embodiment shown in FIG. 9, resource providers open service resources to the network by controlling and managing network devices; resource users access service resources in the network by controlling and managing network devices. Sometimes, resource providers are also users, and open and access service resources in the network by controlling and managing network devices.

For example, a resource provider provides or opens up service resources at a certain service sharing node, and this service sharing node corresponds to the wallet address that identifies the resource provider; the resource user requests access from the server at a certain service sharing node Service resource, this service sharing node corresponds to the wallet address that identifies the resource user.

The wallet address is the account number of the blockchain network user. For example, the first wallet address is the wallet address of the resource provider, and the second wallet address is the wallet address of the resource user. The wallet address at least corresponds to the token value stored in the blockchain, and the wallet address can also correspond to other account values. The account value of the wallet address refers to the asset value corresponding to the wallet address, such as currency, virtual currency, bank account value, stocks, futures, funds, equity, points, etc.

The service sharing node includes service resources, such as an email server, an e-commerce server, a proxy server, and a real-time communication server, a mobile information server, and a streaming media server included in a service sharing node 10E. And so on, connect to the network through the access control server. Access control is a technology that restricts the user's access to certain information items or restricts the use of certain control functions according to the user's identity and a certain defined group to which it belongs. For example, the principle of the UniNAC network access control system is Based on this technology. Access control is usually used by system administrators to control user access to network resources such as servers, directories, and files.

The smart contract module 20 is used to perform operations on the resource data of the service sharing node according to the smart contract to obtain the corresponding token value. The smart contract includes rules for calculating the corresponding token value using the resource data of the service sharing node and the wallet address.

The smart contract module receives the resource data of the service sharing node, triggers the execution of the smart contract, and calculates the token value corresponding to the resource data of the service sharing node in accordance with the rules of the smart contract.

The resource data includes information indicating shared resource parameters, such as identification information indicating openness or access, information indicating the resource type and resource quantity of the service resource.

The quantity of resources includes the open quantity of service resources and the access quantity of service resources.

When a resource provider opens up resources, the open amount of service resources may include the executable code size, opening time, and number of open function items of the service resources.

When a resource user accesses a resource, the amount of service resource visits includes the number of visits to the open or accessed service resource, the length of the visit, the number of visitors, the number of accessed function items, and the size of executable code that are directly related, such as: access to mail Service system 1 time and 100 times, the token value obtained or required to be paid is different. The greater the amount of access to the service resources of the resource provider, the more token value the resource provider obtains; the greater the amount of access to the service resource by the resource user, the more token value it pays.

The types of service resources include at least one of the following: platform resources and tool resources; the platform resources refer to platform-based services; and the tool resources refer to services that provide specific functions.

For example, e-commerce platforms (online shopping malls, online libraries, online game halls, etc.), government affairs platforms, mail services, function libraries, algorithm libraries, database queries, search engines, navigation services, etc. For different types of services, different token values may be obtained or paid.

For example, the resource provider opens the service resources of the online library to the server at the service sharing node. When a resource user visits the online library, the smart contract module is triggered to calculate the token value corresponding to the online library resource. The token value is the incentive value for the resource provider to open the resource after the resource user accesses the service resource. The resource provider obtains the reward for providing the resource, which is represented by the token value, and corresponds to the wallet address of the resource provider, which is the first wallet address.

For another example, the resource user requests the service resource of the algorithm library from the server at the service sharing node, and the smart contract module calculates the token value corresponding to the access to the algorithm library according to the requested resource. This token value is the consumption value paid by resource users for accessing resources. The resource user consumes the token value, which corresponds to the resource user's wallet address, that is, the second wallet address, and obtains access to the resource.

The rules for calculating the token value according to resources, that is, the rules of smart contracts, are recorded in the blockchain smart contract module.

When sharing service resources, that is, opening or accessing service resources, the execution of the smart contract will be triggered, and the corresponding token value will be calculated according to the rules of the contract.

The memory 30 is used to store the smart contract, wallet address, and token value in a blockchain manner.

For example, resource providers open up the service resources of search engines at the service sharing node. When a resource user accesses the service resource of the search engine, the smart contract module is triggered to calculate the reward value corresponding to the service resource of the search engine, that is, the token value, and in the blockchain memory, the resource provider will be identified The token value corresponding to the first wallet address is updated and stored. The resource user requests the service resource of the search engine from the server at the service sharing node, and the smart contract module calculates the token value corresponding to the service resource of the search engine according to the requested resource, and in the blockchain memory, will identify The token value corresponding to the second wallet address of the resource user is updated and stored.

As a further optimized embodiment of the present invention, it also includes a first service module 12, that is, a controller, which corresponds to the first wallet address and is used to change the configuration of service resources.

For example, in the embodiment shown in Figure 9, the resource provider provides the service resources of the online mall, the first service module confirms the first wallet address, accepts and processes this application, and changes the configuration of the server 10 to change the portal of the online mall Access to the service sharing network increases the open volume of service resources. The smart contract module receives the resource data including the added online mall service, triggers the execution of the smart contract when the resource user visits the online mall, and issues the token value corresponding to the online mall service resource to the wallet address (first wallet address) corresponding to the resource provider .

For another example, if the resource provider requests to change the online mall service resources to search engine service resources, the first service module confirms the first wallet address, accepts and processes this application, and changes the online mall service resources from the server 10 The service sharing network is removed, and the search engine service resources are added to the service sharing network. In the sharing of service resources, when the resource user accesses the service resource, the execution of the smart contract is triggered, and the corresponding resource provider is changed according to the amount of service resource access The token value of the wallet address (first wallet address).

As a further optimized embodiment of the present invention, it also includes a second service module 13, ie, a controller, corresponding to the second wallet address for accessing the service resource.

The second service module receives and processes the data of the resource user in the service sharing node, and accesses the resources of the network resource node.

For example, in the embodiment shown in FIG. 9, the resource user accesses the service resources of the online mall, the second service module confirms the second wallet address, accepts and processes this application, and accesses the configuration of the server 10E to change the service of the online mall The resource is sent to the network aggregation node, and the service resource is accessed. The smart contract module receives the resource data including access to the online mall, triggers the execution of the smart contract, and reduces the token value corresponding to the online mall service at the wallet address (first wallet address) corresponding to the resource user.

Optimally, in the embodiments shown in FIGS. 6-9, the rule includes: the amount of change of the token value is accumulated according to the sharing time of the resource aggregation node. The rules are smart contract rules, which are executed in accordance with the blockchain smart contract. The calculation of the token value can also accumulate the acquisition or reduction of the token value per unit time according to the accumulation of time, that is, PD (for example, Figure 7); it can also obtain or reduce the token value per unit time according to different resource types. Perform accumulation, namely PD _i (for example, Figure 6, 8-9).

For example, if the 100G storage space provided by the resource provider, the token value obtained per unit time is D ₁ , if the resource provider provides a total of 10 unit times, the corresponding token value PD ₁ =10×D ₁ . The resource user uses 100G of storage space. If the token value obtained per unit time is D ₂ , the corresponding token value PD ₂ =10×D ₂ .

As a further optimized embodiment of the present invention, the smart contract module includes a multiplier for performing operations on the resource data to obtain the change in the token value; the coefficient of the multiplier is read from the memory , Or generated by the smart contract module.

For example, the conversion coefficient of the multiplier is represented as T. T can be a coefficient value or an operator, and there is no specific limitation here.

For example, resource providers provide virtual network resources: VPN services with 100M bandwidth. According to the type, quality and/or time of the resource provided by the resource provider, the data R sent by the resource aggregation node is sent as the multiplier. After multiplication, the token value D=T×R corresponding to the wallet address is obtained.

As a further optimized embodiment of the present invention, the rules include methods for determining the coefficients of the multiplier:

For example, the coefficient of the multiplier is a variable of the resource type; the coefficient of the multiplier is different for different resource types. For example, the disk space provided by the resource provider and the VPN service provided are different in the calculation of the token value of these two types of resources: that is, the coefficients of the multipliers are different. Similarly, the disk space used by resource users and VPN services are calculated differently for these two types of resources.

When the resource type is the transmission capacity, the usage coefficient is T _1. When the resource quantity is expressed as R ₁ , the corresponding token value change is D ₁ = T ₁ × R ₁ ; when the resource type is the exchange capacity, the usage coefficient is T _2. When the number of resources is expressed as R ₂ , the corresponding token value change is D ₂ =T ₂ ×R ₂ .

For another example, the coefficient of the multiplier is a variable of the number of resources; for example, the disk space provided by the resource provider, 100G space and 500G space, the coefficient of the multiplier is different, the corresponding token value is also different. Similarly, the disk space used by resource users, 100G space and 500G space, and the coefficient of the multiplier are different, and the corresponding token value is also different.

For another example, the coefficient of the multiplier is a variable of the wallet address; different resource providers supply the same disk space, the coefficient of the multiplier can be different, and thus different token values will be obtained. For example, provide greater rewards to resource providers who have long-term stable cooperation, or providers who join members to get better rewards. Similarly, different resource users can obtain different token values using the same disk space.

For another example, the coefficient of the multiplier is a variable of shared time; for example, the disk space supplied by the resource provider, or the disk space used by the resource user, different supply or use times, the multiplier's calculation coefficient for the token value Also different.

For another example, the coefficient of the multiplier is a variable of the token value. For example, when the value of the resource exchanged by the resource user is large, there will be a discount for the calculation of the required token value of the resource; or when the resource provider has more token value, the system operator will actively give some discounts to let them provide more Resources.

It should be noted that "the coefficient of the multiplier is a variable of x (x is another parameter)" in this application document means that the coefficient of the multiplier changes with x.

The above are just a few examples. In commercial activities, there are still many complicated ways of cooperation between merchants and customers. Therefore, the definition of coefficient values in smart contracts can achieve the purpose of solving the technical problems of the present invention by those skilled in the art based on this application document. Other parallel, equivalent solutions and obvious variants are all within the protection scope of this application.

As a further optimized embodiment of the present invention, it also includes multiple network devices (for example, a resource aggregation node, a data sharing node, and a service sharing node), respectively corresponding to one or more, same or different wallet addresses.

The system has the ability to connect or support multiple network device nodes.

The same resource provider or resource user will have one or more network device nodes, which provide or apply for different resources at different nodes; each resource provider or resource user can also have one or more wallet addresses. You can use any one of your own wallet addresses to log in at your own resource aggregation node to remotely supply and use resources.

Multiple network device nodes can correspond to the same wallet address. For example, in the network of Figure 7, multiple physical resource aggregation nodes correspond to one resource provider; multiple nodes that construct VPN1 correspond to one resource user; construct VPN2 The multiple nodes correspond to another resource user.

Or, the same resource aggregation node includes equipment from multiple resource providers, or multiple resource users access it. At this time, one resource aggregation node can correspond to multiple different wallet addresses. For example, in the network of Figure 1, one terminal node 10A includes facilities, part of the transmission capacity belongs to one resource provider, and the other part If the capacity belongs to another resource provider, this terminal node 10A corresponds to two different first wallet addresses. Or, in the facilities included in the equipment of the switching node 10B, a part of the switching capacity is used by one user and the other part of the switching capacity is used by another user, then this switching node 10B corresponds to two different second wallet addresses.

Each resource provider or user can also have multiple wallet addresses to distinguish resource aggregation node types. For example, a resource provider or resource user can use one wallet address to log in to two resource aggregation nodes, such as one for supplying or invoking 100G disk space, and the other for supplying or invoking VPN services. At this time, for the supply or use of resources on the two resource aggregation nodes, the token value is changed from the wallet address accordingly.

For another example, the resource provider or resource user has two wallet addresses, ID ₁ and ID ₂ . ID ₁ corresponds to the resource aggregation node that provides or invokes 100G disk space, and ID ₂ corresponds to the resource aggregation node that provides or invokes VPN services. At this time, for the supply or call of resources of 100G disk space, the token value corresponding to ID ₁ is changed according to the resource aggregation node of 100G disk space; for the supply or call of VPN service resources, the communication value corresponding to ID ₂ is changed. The certificate value is changed according to the resource convergence node of the VPN service resource.

This application also provides a resource transaction method, which uses the network described in any one of the embodiments of this application to implement resource token transactions. Examples are given below. It should be noted that in the method of the following embodiment, the resource includes at least one of the following: physical network resource, virtual network resource, data resource, and service resource.

Embodiment 1) Change the resource corresponding to the first wallet address, and change the token value corresponding to the first wallet address according to the rules.

For example, the physical network resource corresponding to the first wallet address is changed, and the token value corresponding to the first wallet address is changed according to the change amount of the physical network resource according to the rules of the smart contract.

For example, when the resource provider supplies 100G of disk space at the resource aggregation node, the smart contract module calculates the token value corresponding to the 100G disk space according to the smart contract rules, and updates and stores the first wallet address in the blockchain memory. Token value.

Embodiment 2) According to the token value corresponding to the first wallet address, the resource corresponding to the first wallet address is changed.

For example, according to the token value corresponding to the first wallet address, the physical network resource corresponding to the first wallet address is changed.

For example, the system according to the token value under the first wallet address of the resource provider, when the relationship between the token value and resource data does not conform to the rules stipulated by the smart contract, the resource provider adjusts the supply of resources according to the token value. When the value of the token changes, the resource provider is asked to increase or decrease the supply of resources, and the resource provider increases or decreases the supply of resources at the resource convergence node. In addition, in the smart contract module, the corresponding token value is calculated according to the increased or decreased resources to confirm whether the stock of the token value corresponding to the first wallet address is updated and stored in the blockchain memory is in compliance with the smart contract rules If it does not comply, continue to change the network resources until the relationship between the stock of the token value and the resource data conforms to the smart contract rules.

Embodiment 3) Invoke the resource corresponding to the first wallet address, and change the token value corresponding to the first wallet address.

For example, the resource user corresponding to the second wallet address applies to the system and obtains resource usage; in the smart contract module, according to the rules of the smart contract, the token value corresponding to the resource provided by the resource provider is calculated and stored in the block The chain memory updates and stores the token value corresponding to the first wallet address.

Embodiment 4) According to the token value corresponding to the first wallet address, the resource corresponding to the first wallet address is called.

For example, the system can actively provide resource supply information to resource users corresponding to the second wallet address according to the token value under the first wallet address of the resource provider, and encourage resource users to call the resources under the first wallet address. The user in the resource corresponding to the second wallet address calls the resource corresponding to the first wallet address through the second server. In addition, when the resource user calls the resource under the first wallet address, in the smart contract module, calculate the token value corresponding to the resource called: the calculation coefficient for the token value under the first wallet address and the second wallet address It can be the same or different. The token value corresponding to the first wallet address and the second wallet address is updated and stored in the blockchain memory.

Embodiment 5) Invoke the resource corresponding to the first wallet address, and change the token value corresponding to the second wallet address.

For example, the resource user corresponding to the second wallet address applies to the system and obtains the resource corresponding to the first wallet address; in the smart contract module, according to the smart contract rules, calculate the token value corresponding to the requested resource, and Update and store the token value corresponding to the second wallet address of the resource user in the blockchain memory.

Embodiment 6) According to the token value corresponding to the second wallet address, the resource corresponding to the first wallet address is called.

For example, according to the token value in the second wallet address of the resource user, the system provides the resource user with resource supply information that the token value can support, and the resource user can select and call resources accordingly. At this point, in the smart contract module, according to the rules of the smart contract, calculate the token value corresponding to the called resource, and confirm whether the token value corresponding to the user's second wallet address stored in the blockchain memory is stored Comply with smart contract rules, if not, use network resources until the relationship between the stock of token value and resource data complies with smart contract rules.

As a further optimized embodiment of the present invention, the network described in any one of the embodiments of the present application is used to implement token account transactions. The following examples are given:

Embodiment 7) Increase the token value corresponding to the first wallet address and decrease the account value corresponding to the first wallet address. The account value of the wallet address refers to the assets corresponding to the wallet address, including currency, virtual currency, bank account value, stocks, futures, funds, equity, etc., as well as token value.

The account value of the first wallet address can be used to purchase or exchange the token value. For example, the resource provider pays by currency, in the smart contract module, triggers the corresponding smart contract to be executed, calculates the value of the purchased token through the smart contract rules, and updates the token value corresponding to the first wallet address, and stores it in In the blockchain memory.

Embodiment 8) Reduce the token value corresponding to the first wallet address and increase the account value corresponding to the first wallet address.

The token value of the first wallet address can be used to exchange the account value. For example, the resource provider uses the token value to exchange currency or stock, in the smart contract module, triggers the corresponding smart contract to be executed, and through the smart contract rules, according to the token value to be used in the first wallet address, the corresponding currency or For stocks, the token value corresponding to the first wallet address is subtracted from the token value to be used, and the updated token value is stored in the blockchain memory. At this time, the added currency or stock information is also recorded in the memory of the blockchain.

Embodiment 9) Increase the token value corresponding to the second wallet address and decrease the account value corresponding to the second wallet address.

The account value of the second wallet address can be used to exchange the token value. For example, a resource user pays by currency, in the smart contract module, triggers the corresponding smart contract to be executed, calculates the purchased token value through the smart contract rules, and updates the token value corresponding to the second wallet address, and stores it in In the blockchain memory.

Embodiment 10) Decrease the token value corresponding to the second wallet address and increase the account value corresponding to the second wallet address.

The token value of the second wallet address can be used to exchange the account value. For example, the resource user uses the token value to exchange currency or stocks, in the smart contract module, triggers the corresponding smart contract to be executed, through the smart contract rules, according to the token value to be used in the second wallet address, the corresponding currency or Stock, and then subtract the token value corresponding to the second wallet address from the token value to be used, and store the updated token value in the blockchain memory. At this time, the added currency or stock information is also recorded in the memory of the blockchain.

Through the description of the above embodiments, those skilled in the art can clearly understand that the present invention can be implemented by means of software plus the necessary general hardware platform. Of course, it can also be implemented by hardware, but in many cases the former is a better implementation. the way. Based on this understanding, the technical solution of the present invention essentially or the part that contributes to the prior art can be embodied in the form of a software product. The computer software product is stored in a storage medium and includes several instructions to make a A terminal device (which can be a mobile phone, a personal computer, a server, or a network device, etc.) executes the methods described in the various embodiments of the present invention.

It should also be noted that the terms "including", "including" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, commodity or equipment including a series of elements not only includes those elements, but also includes Other elements that are not explicitly listed, or also include elements inherent to such processes, methods, commodities, or equipment. If there are no more restrictions, the element defined by the sentence "including a..." does not exclude the existence of other identical elements in the process, method, commodity, or equipment that includes the element.

The above descriptions are only examples of this application, and are not intended to limit this application. For those skilled in the art, this application can have various modifications and changes. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of this application shall be included in the scope of the claims of this application. The above are only the preferred embodiments of the present invention. It should be pointed out that for those of ordinary skill in the art, without departing from the principle of the present invention, several improvements and modifications can be made, and these improvements and modifications are also The protection scope of the present invention should be considered.

Claims (26)

A blockchain resource transaction network, used for communication and computer information network, is characterized by comprising: an application network, a first service module, a second service module, and a blockchain module; The application network is a part of the communication and computer information network; The first service module is used to control the resource change amount corresponding to the wallet address in the application network; The second service module is used to change the resource usage corresponding to the wallet address in the application network; The block chain module is used to change the token value corresponding to the wallet address according to the amount of resource change and or the amount of resource usage, and store it in the block chain. The blockchain resource transaction network according to claim 1, further comprising a third service module, which is used to monitor the first module or the second module to obtain the amount of resource change or resource usage. A blockchain resource transaction network according to claim 1, characterized in that it further comprises a transaction module, which is used to exchange resources for tokens, or exchange tokens for resources. A blockchain resource transaction network according to claim 3, wherein the transaction service module is also used to exchange currency. A blockchain resource transaction network according to claim 1, wherein the resources include at least one of the following: physical network resources, virtual network resources, data resources, and service resources. A blockchain resource transaction network according to claim 1, wherein the total amount of token values corresponding to multiple wallet addresses has an upper limit. The blockchain resource transaction network according to claim 1, wherein the total amount of token values corresponding to multiple wallet addresses has no upper limit. A block chain resource transaction method is characterized by comprising the following steps: Calculate the token value according to the resource change corresponding to the wallet address, and or, calculate the token value according to the resource usage corresponding to the wallet address; Store the wallet address and the token value in the blockchain. A blockchain resource transaction method according to claim 8, characterized in that it further comprises the step of using a pass to exchange currency. A blockchain resource transaction method according to claim 8, further comprising the step of monitoring the behavior of resource providers and resource users. A network node controlled by a pass, used for communication and computer information networks, characterized in that it includes: network equipment, multipliers, and blockchain memory; The network device is a device on the communication and computer information network; The multiplier uses conversion coefficients to perform operations on the data of the network device; The blockchain memory is used to store the output of the multiplier as a token value in the blockchain. The network node controlled by a token according to claim 11, wherein the conversion coefficient is read from the blockchain memory. The network node controlled by a token according to claim 11, wherein the multiplier is further used to obtain the data of the network device according to the token value and the conversion coefficient. The network node controlled by a pass according to claim 11, wherein the network device includes at least one of the following: a storage device, a switching device, and a transmission device. A token-controlled network node according to claim 11, wherein the data of the network device includes at least one of the following: storage capacity, exchange capacity, transmission capacity, storage capacity, access volume, input data, Output Data. A token-controlled network, characterized by comprising the network node of any one of claims 11-15. A block chain resource transaction network, used for communication and computer information network, characterized by comprising: network equipment, smart contract module, memory; The network device, corresponding to the wallet address, is used to share resources with the network; The resources include at least one of the following: physical network resources, virtual network resources, data resources, and service resources; The smart contract module is used to perform operations on the resource data of the network device according to the smart contract to obtain the corresponding token value; The smart contract includes rules for calculating the corresponding token value using the resource data and wallet address; The memory is used to store the smart contract, wallet address, and token value in a blockchain manner. 17. The blockchain resource transaction network of claim 17, further comprising a first service module, corresponding to the first wallet address, for changing resources. The blockchain resource trading network of claim 17, wherein the rule comprises: the amount of change in the token value is accumulated according to the sharing time of the network device. The blockchain resource transaction network according to claim 17, wherein the smart contract module comprises a multiplier for performing operations on the resource data to obtain the change in the token value; the multiplier The coefficient of is read from the memory or generated by the smart contract module. The blockchain resource trading network of claim 17, wherein the rule includes a method for determining the coefficient of the multiplier, including at least one of the following: The coefficient of the multiplier is a variable of the resource type; The coefficient of the multiplier is a variable of the number of resources; The coefficient of the multiplier is a variable of the wallet address; The coefficient of the multiplier is a variable of shared time; The coefficient of the multiplier is a variable of the token value. The blockchain resource transaction network according to claim 17, wherein the resource data includes information indicating the type and quantity of resources; Resource types include at least one of the following: storage resources, exchange resources, transmission resources, video resources, audio resources, picture resources, text resources, pure data resources, platform resources, and tool resources; The number of resources includes at least one of the following: storage capacity, exchange capacity, transmission capacity, data access volume, data storage volume, service resource opening volume, and service resource access volume. 17. The blockchain resource transaction network according to claim 17, characterized by comprising a second service module, corresponding to the second wallet address, for calling the resource. The blockchain resource transaction network according to claim 17, characterized in that it comprises a plurality of network devices, respectively corresponding to one or more, same or different wallet addresses. A resource transaction method used in the resource transaction network of any one of claims 17-24, characterized by comprising at least one of the following steps: Change the resource corresponding to the first wallet address, and change the token value corresponding to the first wallet address according to the rules; According to the token value corresponding to the first wallet address, change the resource corresponding to the first wallet address; Call the resource corresponding to the first wallet address and change the token value corresponding to the first wallet address; According to the token value corresponding to the first wallet address, call the resource corresponding to the first wallet address; Call the resource corresponding to the first wallet address and change the token value corresponding to the second wallet address; According to the token value corresponding to the second wallet address, the resource corresponding to the first wallet address is called. A resource transaction method according to claim 25, further comprising at least one of the following steps: Increase the token value corresponding to the first wallet address and decrease the account value corresponding to the first wallet address; Decrease the token value corresponding to the first wallet address and increase the account value corresponding to the first wallet address; Increase the token value corresponding to the second wallet address and decrease the account value corresponding to the second wallet address; Decrease the token value corresponding to the second wallet address and increase the account value corresponding to the second wallet address.

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