CN110933187A - Internet of things data transmission system based on block chain consensus encryption mechanism - Google Patents
Internet of things data transmission system based on block chain consensus encryption mechanism Download PDFInfo
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
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- H04L67/00—Network arrangements or protocols for supporting network services or applications
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- H04L67/12—Protocols specially adapted for proprietary or special-purpose networking environments, e.g. medical networks, sensor networks, networks in vehicles or remote metering networks
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- H04L63/00—Network architectures or network communication protocols for network security
- H04L63/04—Network architectures or network communication protocols for network security for providing a confidential data exchange among entities communicating through data packet networks
- H04L63/0428—Network architectures or network communication protocols for network security for providing a confidential data exchange among entities communicating through data packet networks wherein the data content is protected, e.g. by encrypting or encapsulating the payload
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- H—ELECTRICITY
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- H—ELECTRICITY
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Abstract
The invention relates to an Internet of things data transmission system based on a block chain consensus encryption mechanism, which comprises an equipment plane, a middleware, a block chain plane and an application plane, wherein the equipment data chaining is communicated in the true sense to form a traceable record which cannot be tampered, so that an end-to-end commercialization solution is formed, and for manufacturers at all levels on a supply chain, the services of the data chaining can be obtained only by purchasing standardized Internet of things equipment, so that traceable agricultural products are finally provided.
Description
Technical Field
The invention relates to the field of Internet of things, in particular to an Internet of things data transmission system based on a block chain consensus encryption mechanism.
Background
The internet of things is a network for connecting articles as the name implies, and a plurality of students discuss the internet of things and often introduce a concept of M2M, which can be interpreted as human-to-human (Man-to-Man), human-to-Machine (Man-to-Machine) and Machine-to-Machine (Machine-to-Machine). However, all explanations of M2M are not limited to explaining the internet of things, and as such, the concept of M2M has been well explained in the internet summary, and even the interaction between people has been completed through a third party platform or a network television. Human-to-machine interaction has been the main subject of research in the fields of ergonomics and human-machine interfaces, but machine-to-machine interaction has provided the most successful solution by the internet. In essence, most of human-to-machine and machine-to-machine interactions are to achieve human-to-human information interaction, and the success factor of World Wide Web (Web) technology is that a shortcut for asynchronous information interaction between people is provided through searching and linking.
At present, internet of things is widely applied to various fields, for example, agricultural product traceability in an application scene of an intelligent farm, a conventional method is to acquire and monitor real-time data of various links such as production and transportation of agricultural products through a data acquisition and transmission module of internet of things, and transmit the data to a system background, and open a part to look over for a user, so that the user can perceive the whole process, and main problems brought by the method are as follows:
1) the consumption of the real-time acquired data on bandwidth and data flow is overhigh, the cost is increased, individual farmers return to seek for changing the real-time data into sampling data, and the reliability and the authenticity of the data are reduced;
2) the production and transportation links of agricultural products are more, all links are located at different stages of an industrial chain and are possibly controlled by different suppliers, data of all links are difficult to effectively communicate to form a complete data closed loop, and meanwhile, each flow link is developed in a real-time data monitoring mode, so that the cost of the whole system is too high, and even the bearing capacity of a manufacturer is far beyond;
3) the agricultural product traceability scheme provided by the current block chain can only reach a platform level, the access mode of the Internet of things equipment in each link is only in the stages of exploration and trial, a standardized product service is not formed, the application of landing is basically in a high-cost customized level or trial point, and no industrialization is realized; based on technical cost, trust cost and other reasons, the agricultural product traceability problem in intelligent agriculture is difficult to guarantee all the time.
Disclosure of Invention
The invention aims to overcome the defects of the prior art and provide an Internet of things data transmission system based on a block chain consensus encryption mechanism, which can really get through the equipment data chaining to form a non-falsifiable traceability record and form an end-to-end commercialization solution.
The purpose of the invention is realized by the following technical scheme:
an Internet of things data transmission system based on a block chain consensus encryption mechanism comprises:
the device plane consists of sensing devices, transmission terminals and distribution gateways and is used for data access, processing and return of the front end, and the transmission terminals are dynamically distributed by a device management system to access an operator network;
the middleware consists of a data processing module preset in the equipment and a processing module deployed at the cloud end and is used for finishing high concurrency performance processing when the Internet of things and the Internet of things are accessed, meanwhile, structuring and encrypting the data and directly butting the data to a block chain layer after the data are finished;
the block chain plane is used for distributing the uplink data of each node to each node of the whole network for storage, so that the safe storage of the data is ensured;
and the application plane is used for the functional modules related to the specific services.
Further, the dynamic allocation means that the system dynamically allocates an operator number as a transmission terminal identity for access according to the local network quality condition, the dynamic identity of the transmission terminal stores the uplink certificate, and finally, the information also transmits data transmitted by the equipment back to the database together, so that the system has the characteristic of being not tampered.
Further, the transmission terminal identity configuration process includes:
s01: when a user creates/adds a new transmission terminal to access a DMA, the user needs to register as a DMA platform user;
s02: after the user successfully registers, a unique set of client _ id and secret _ key is generated, and the client is not allowed to modify;
s03: the user needs to carry the client _ id and the secret _ key of the transmission terminal when accessing the DMA, and the user successfully accesses the DMA if the verification is passed.
Further, when the transmission terminal is successfully registered, and each time the system transmits configuration information of the transmission terminal during the operation of the transmission terminal, the uplink is transmitted.
Further, the blockchain plane includes:
the application layer is used for orienting to business logic and realizing a third-party function;
the interface layer provides a gateway layer go-sdk, java-sdk and nodejs-sdk to package a bottom layer block chain and provide ca authentication, identity binding, verification, block chain chaining, state query, authority setting, block information query and flow packaging;
the service gateway is used for a network node for data access, bottom layer data inspection, enterprise entrusted identity authentication, security setting and uplink server providing layer;
the block chain layer comprises a pluggable block chain network system and an intelligent contract system and is used for completing data trusted service and intelligent cooperative sharing;
the scheduling layer is used for managing block chain link point arrangement, deployment and the like, and rapidly releasing, upgrading and deploying the block chain app server nodes, etcd, network nodes, consensus nodes and storage nodes;
and the resource layer provides a bottom-layer physical deployment environment and simultaneously supports a public cloud, private cloud, virtual machine and docker mixed solution.
Further, the data uplink procedure is as follows:
s101: the management end presets an access secret key and develops an intelligent contract at the same time;
s102: the transmission terminal initiates a data uplink AIP request through the service gateway, and simultaneously, SDK shaping calls contract uplink;
s103: the browser displays the uplink information.
Further, the data trusted service includes:
data storage, namely, uplink data of each node can be distributed to each node of the whole network for storage by using a block chain distributed accounting book technology and a node consensus technology, so that the safe storage of the data is ensured;
data tracing, namely accurately recording the attribution right and the use path of the data according to a chain data structure of a block chain and a whole network data distribution mechanism, wherein the process can be inquired and cannot be changed;
data security, strict control of access end users is achieved by adopting an authority control and endorsement mechanism, and non-tampering and privacy protection of bottom data are achieved by utilizing a consensus mechanism and asymmetric encryption.
Further, the intelligent collaborative sharing includes:
data supervision, namely generating recording block data and converging node data to realize a full-time global supervision function of any node data of a full platform, and assisting decision centralization and service decentralization;
data sharing, global sharing and specified target sharing can be realized by configuring shared data, and meanwhile, the whole life cycle process record of the shared data is realized;
and the intelligent contract is used for rapidly building a multi-department collaborative platform through a block chain technology, automatically distributing and processing files by utilizing the intelligent contract, and simultaneously performing authority control and key data uplink storage on each department.
The invention has the beneficial effects that:
1) when the data transmission terminal of the Internet of things accesses a network, self equipment information, network information and configuration information can be used as a cochain of a data certificate which cannot be tampered;
2) when data of the data transmission terminal of the internet of things is transmitted back to a service system, service related information (sensor acquisition data, video monitoring data and the like) of the data transmission terminal of the internet of things can be used as a cochain of a data certificate which cannot be tampered;
3) the data transmission terminal management system and the block chain system of the Internet of things are used as two subsystems of the system, and the system is directly communicated on the database level through a middleware, so that the reliability of the system is further improved.
Drawings
FIG. 1 is a plan view of the system of the present invention;
FIG. 2 is a schematic diagram of the public/private chain uplink;
fig. 3 is a schematic diagram of transmission terminal access;
fig. 4 is a schematic diagram of a configuration flow of a transmission terminal identity;
FIG. 5 is a flow chart illustrating data uplink processing;
fig. 6 is a networking deployment diagram when a plurality of parties deploy together and perform internet of things data uplink demand.
Detailed Description
The technical solution of the present invention is further described in detail with reference to the following specific examples, but the scope of the present invention is not limited to the following.
As shown in fig. 1, an internet of things data transmission system based on a blockchain consensus encryption mechanism includes:
the device plane composed of sensing device, transmission terminal and distribution gateway is used for data access, processing and return of front end, the transmission terminal is dynamically distributed by device management system to access operator network
The middleware consists of a data processing module preset in the equipment and a processing module deployed at the cloud end and is used for finishing high concurrency performance processing when the Internet of things and the Internet of things are accessed, meanwhile, structuring and encrypting the data and directly butting the data to a block chain layer after the data are finished;
the block chain plane is used for distributing the uplink data of each node to each node of the whole network for storage, so that the safe storage of the data is ensured;
and the application plane is used for the functional modules related to the specific services.
As a preferred embodiment, the access mode of the transmission terminal may refer to fig. 3, and the transmission terminal can access various devices or sensors for data acquisition and monitoring and support a networking topology; all locally acquired and acquired data are processed uniformly by the terminal and then are transmitted back by an operator network. The dynamic allocation means that the system dynamically allocates an operator number as the identity of the transmission terminal to access according to the local network quality condition, the dynamic identity of the transmission terminal stores the uplink certificate, and the information finally transmits the data transmitted by the equipment back to the database together, so that the system has the characteristic of being not falsifiable.
1) All the modes of accessing the terminal to the operator network are dynamically allocated by the equipment management system, have temporality and randomness, and the system can dynamically allocate a certain operator number as identity access according to the local network quality condition;
2) the dynamic 'identity' (number and related equipment configuration information) of the transmission terminal transmits an uplink certificate (which is connected to a block chain platform for dynamic encryption), and finally, the information also transmits data transmitted by the equipment back to a database together, so that the transmission terminal has the characteristic of being not falsifiable;
3) the generation process of the device "identity" and the related configuration information is mainly shown in the following figure, and all configurations and operations of the device use the uplink as a part of the storage certificate, so as to further improve the reliability and reliability of data access.
As shown in fig. 4, as a preferred embodiment, the transmission terminal identity configuration process includes:
s01: when a user creates/adds a new transmission terminal to access a DMA, the user needs to register as a DMA platform user;
s02: after the user successfully registers, a unique set of client _ id and secret _ key is generated, and the client is not allowed to modify;
s03: the user needs to carry the client _ id and the secret _ key of the transmission terminal when accessing the DMA, and the user successfully accesses the DMA if the verification is passed.
The device needs to be registered as a DMA platform user firstly when accessing the DMA, the registration mode is actively established by the operation and maintenance personnel of the driver, and the online registration process can be opened subsequently according to the project operation condition; the device access DMA needs to carry client _ id and secret _ key, the two parameters are certificates of the DMA system authentication legal device, each tenant (client) has only one group of certificates, after the user successfully registers, the user sends a mail to the client and is not allowed to modify, the request reported by the device needs to pass through the device access gateway of the platform, and the gateway can process the operations of authentication, current limiting, overtime fusing, route distribution and the like; and the platform refreshes the equipment cache time of Redis according to the heartbeat reported by the equipment, so that the online and offline effects of the equipment are achieved.
As a preferred embodiment, when the transmission terminal is successfully registered, and each time the system uplinks the configuration information of the transmission terminal in the operation process of the transmission terminal, when a tenant creates (adds) a new equipment terminal, the first uplink action of the equipment information is completed; when the equipment is successfully registered and the configuration information of the equipment is uplinked by the system each time in the running process of the equipment, the possibility that the equipment information is falsified is completely eliminated, and the consensus target is achieved.
As a preferred embodiment, the block chain plane includes:
the application layer is used for orienting to business logic and realizing a third-party function; such as tickets, copyrights, supply chain applications; the application mainly uses an access layer to provide sdk/jsonapi, generates a certificate, binds identities, uploads data, calls an interface triggering process, and monitors data callback and data query;
the interface layer provides a gateway layer go-sdk, java-sdk and nodejs-sdk to package a bottom layer block chain and provide ca authentication, identity binding, verification, block chain chaining, state query, authority setting, block information query and flow packaging;
the service gateway is used for a network node for data access, bottom layer data inspection, enterprise entrusted identity authentication, security setting and uplink server providing layer; as an enterprise block chain, if each uplink point pays attention to specific access network nodes, bottom data inspection and the like, the data intervention difficulty and the risk and development difficulty of information exposure are increased. The adaptation of the gateway service encapsulates the internal security, design, management and disaster tolerance, so that the access terminal can access the gateway at any time and any place without paying attention to the internal information. The peer gateway service is also enterprise delegated identity authentication, security setup, cochain server provisioning layer:
supporting a plurality of encryption algorithms including RSA, ECC, SM3, SM4 and AES, and respectively realizing CA certificate generation, identity authentication, binding and authority management of a PKI system;
defining, checking and verifying business data uplink format schema;
intelligent contract management, which is used for intelligent contract issuing, upgrading, unloading, installing and multi-version management;
index management, each service applies for index management, operation and maintenance indexes and node communication condition indexes are monitored, and each subsystem of the platform is incorporated into numerical analysis and operation;
the monitoring center is used for monitoring the performance of each node, monitoring data, monitoring abnormity and monitoring a full tracking chain;
log management including normal operation, abnormal log, operation log, and the like;
basic information display and state tracking of the block chain browser and basic statistical analysis.
The block chain layer comprises a pluggable block chain network system and an intelligent contract system, and is used for completing data trusted service and intelligent cooperative sharing, wherein the pluggable block chain network system and the intelligent contract system are combined according to the requirements of the service on availability, applicability, openness and transparency of the block chain so as to fully meet the requirements of service scenes; on the layer, the link security, encryption security and intelligent contract security of the nodes are met, dynamic expansion is added, free smooth access in all the nodes is guaranteed, and data elastic expansion is achieved.
The scheduling layer is used for managing block chain link point arrangement, deployment and the like, and rapidly releasing, upgrading and deploying the block chain app server nodes, etcd, network nodes, consensus nodes and storage nodes;
and the resource layer provides a bottom-layer physical deployment environment and simultaneously supports a public cloud, private cloud, virtual machine and docker mixed solution.
As shown in fig. 2 and fig. 5, as a preferred embodiment, the data uplink procedure is:
s101: the management end presets an access secret key and develops an intelligent contract at the same time;
s102: the transmission terminal initiates a data uplink AIP request through the service gateway, and simultaneously, SDK shaping calls contract uplink;
s103: the browser displays the uplink information.
As a preferred embodiment, the data trust service includes:
data storage, namely, uplink data of each node can be distributed to each node of the whole network for storage by using a block chain distributed accounting book technology and a node consensus technology, so that the safe storage of the data is ensured;
data tracing, namely accurately recording the attribution right and the use path of the data according to a chain data structure of a block chain and a whole network data distribution mechanism, wherein the process can be inquired and cannot be changed;
data security, strict control of access end users is achieved by adopting an authority control and endorsement mechanism, and non-tampering and privacy protection of bottom data are achieved by utilizing a consensus mechanism and asymmetric encryption.
As a preferred embodiment, the intelligent collaborative sharing includes:
data supervision, namely generating recording block data and converging node data to realize a full-time global supervision function of any node data of a full platform, and assisting decision centralization and service decentralization;
data sharing, global sharing and specified target sharing can be realized by configuring shared data, and meanwhile, the whole life cycle process record of the shared data is realized;
and the intelligent contract is used for rapidly building a multi-department collaborative platform through a block chain technology, automatically distributing and processing files by utilizing the intelligent contract, and simultaneously performing authority control and key data uplink storage on each department.
When multi-party organizations are deployed together and internet of things data uplink demand is met, the networking is deployed according to the networking of the figure 6.
The foregoing is illustrative of the preferred embodiments of this invention, and it is to be understood that the invention is not limited to the precise form disclosed herein and that various other combinations, modifications, and environments may be resorted to, falling within the scope of the concept as disclosed herein, either as described above or as apparent to those skilled in the relevant art. And that modifications and variations may be effected by those skilled in the art without departing from the spirit and scope of the invention as defined by the appended claims.
Claims (8)
1. An internet of things data transmission system based on a block chain consensus encryption mechanism is characterized by comprising:
the device plane consists of sensing devices, transmission terminals and distribution gateways and is used for data access, processing and return of the front end, and the transmission terminals are dynamically distributed by a device management system to access an operator network;
the middleware consists of a data processing module preset in the equipment and a processing module deployed at the cloud end and is used for finishing high concurrency performance processing when the Internet of things and the Internet of things are accessed, meanwhile, structuring and encrypting the data and directly butting the data to a block chain layer after the data are finished;
the block chain plane is used for distributing the uplink data of each node to each node of the whole network for storage, so that the safe storage of the data is ensured;
and the application plane is used for the functional modules related to the specific services.
2. The system of claim 1, wherein the dynamic allocation means that the system dynamically allocates an operator number as a transmission terminal identity for access according to a local network quality condition, the dynamic identity of the transmission terminal stores an uplink certificate, and finally the information also transmits data transmitted by the device back to the database, so that the system has a non-falsification characteristic.
3. The system of claim 2, wherein the transmission terminal identity configuration process comprises:
s01: when a user creates/adds a new transmission terminal to access a DMA, the user needs to register as a DMA platform user;
s02: after the user successfully registers, a unique set of client _ id and secret _ key is generated, and the client is not allowed to modify;
s03: the user needs to carry the client _ id and the secret _ key of the transmission terminal when accessing the DMA, and the user successfully accesses the DMA if the verification is passed.
4. The system of claim 3, wherein the configuration information of the system to the transmission terminal is uplinked each time the transmission terminal is successfully registered and during operation of the transmission terminal.
5. The system of claim 1, wherein the blockchain plane comprises:
the application layer is used for orienting to business logic and realizing a third-party function;
the interface layer provides a gateway layer go-sdk, java-sdk and nodejs-sdk to package a bottom layer block chain and provide ca authentication, identity binding, verification, block chain chaining, state query, authority setting, block information query and flow packaging;
the service gateway is used for a network node for data access, bottom layer data inspection, enterprise entrusted identity authentication, security setting and uplink server providing layer;
the block chain layer comprises a pluggable block chain network system and an intelligent contract system and is used for completing data trusted service and intelligent cooperative sharing;
the scheduling layer is used for managing block chain link point arrangement, deployment and the like, and rapidly releasing, upgrading and deploying the block chain app server nodes, etcd, network nodes, consensus nodes and storage nodes;
and the resource layer provides a bottom-layer physical deployment environment and simultaneously supports a public cloud, private cloud, virtual machine and docker mixed solution.
6. The system of claim 5, wherein the uplink data flow comprises:
s101: the management end presets an access secret key and develops an intelligent contract at the same time;
s102: the transmission terminal initiates a data uplink AIP request through the service gateway, and simultaneously, SDK shaping calls contract uplink;
s103: the browser displays the uplink information.
7. The system of claim 6, wherein the data trusted service comprises:
data storage, namely, uplink data of each node can be distributed to each node of the whole network for storage by using a block chain distributed accounting book technology and a node consensus technology, so that the safe storage of the data is ensured;
data tracing, namely accurately recording the attribution right and the use path of the data according to a chain data structure of a block chain and a whole network data distribution mechanism, wherein the process can be inquired and cannot be changed;
data security, strict control of access end users is achieved by adopting an authority control and endorsement mechanism, and non-tampering and privacy protection of bottom data are achieved by utilizing a consensus mechanism and asymmetric encryption.
8. The system of claim 7, wherein the intelligent cooperative sharing comprises:
data supervision, namely generating recording block data and converging node data to realize a full-time global supervision function of any node data of a full platform, and assisting decision centralization and service decentralization;
data sharing, global sharing and specified target sharing can be realized by configuring shared data, and meanwhile, the whole life cycle process record of the shared data is realized;
and the intelligent contract is used for rapidly building a multi-department collaborative platform through a block chain technology, automatically distributing and processing files by utilizing the intelligent contract, and simultaneously performing authority control and key data uplink storage on each department.
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| CN115174385A (en) * | 2022-06-15 | 2022-10-11 | 桂林电子科技大学 | Industrial Internet of things equipment firmware software updating method based on block chain |
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