A mobile cellular intelligent pipeline implementation method based on edge computing
By setting up device management server and application management module on the smart terminal, dynamically adjusting the application flow rate, the problem of unsmooth traffic when the smart terminal is connected to the Internet of Things is solved, intelligent traffic management and cost-effective improvement are achieved, ensuring that it is applied on the Internet of Things high speed and smooth operation.
Patent Information
- Application Number
- CN202210042910.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2022-01-14
- Publication Date
- 2024-12-10
- Estimated Expiration
- 2042-01-14
AI Technical Summary
When existing smart terminals are connected to the Internet of Things, data traffic is not smooth due to the operation of multiple applications, and cannot intelligently adjust and manage freely, resulting in waste of traffic and delayed application operation.
Set up a device management server on the smart terminal, establish an application management module and a data traffic connection module, dynamically adjust the flow rate selection interval of each application, and realize intelligent traffic control through multi-level priority allocation and traffic threshold monitoring.
It realizes flexible adjustment of traffic allocation for each application on the smart terminal, ensures the high-speed and smooth operation of the application on the Internet of Things, avoids waste of traffic, improves the cost-effectiveness of data traffic, and ensures user convenience.
Smart Images
Figure CN114449015B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of Internet of Things traffic management, and in particular to a method for realizing a mobile cellular intelligent pipeline based on edge computing. Background Art
[0002] With the development of Internet of Things technology, a large number of intelligent terminals such as vehicle terminals, mobile terminals, industrial systems, numerical control systems, home intelligent facilities, video surveillance systems, etc. now have Internet access functions. For example, the applications loaded and used on the intelligent terminals connected to the equipment in the industrial system are mostly equipment-specific applications, so the communication channels connecting the equipment in the industrial system to the Internet of Things can run at high speed. However, many other types of smart terminals need to run and load multiple applications, which makes it difficult for such smart terminals to connect to the Internet of Things smoothly due to too many applications running. For example, the vehicle-mounted terminal is the front-end equipment of the vehicle monitoring and management system, and can also be called a vehicle dispatching and monitoring terminal with integrated positioning. The existing vehicle-mounted terminals generally have multiple functions such as communication and car driving recorder; have powerful business dispatching functions and data processing capabilities; support phone book calls, text message voice broadcasts; have security alarms, wire cutting alarms, and remote safety oil and power off safety protection functions; reserve multiple RS-232 interfaces and RS485 interfaces, which can be externally connected to meters, cameras, microphones, headphones, and TTS voice synthesis boxes; the split-type design host can be installed in a concealed manner, and has a high amount of backup batteries to provide a series of functions such as working alarms when the vehicle-mounted terminal is out of power; however, the above functions are realized by the vehicle-mounted terminal based on a large number of applications installed on it. Through these applications, the vehicle-mounted terminal can transmit data with the Internet of Things, but each application will consume data traffic during data transmission. At present, for vehicle-mounted terminals, which need to load and run multiple applications to connect to the Internet of Things for data transmission, they can often only enable the data traffic of the installed functional applications for use, or close them and manually adjust the applications to restore the data communication applications when needed. The manual adjustment is too complicated, causing most people to keep various applications enabled, resulting in waste of traffic consumption and inconvenience in use of the enabled applications. At the same time, too many applications limit the traffic flow rate of the smart terminal and even affect the use of a certain application, resulting in freezes, delays and other adverse conditions. It is impossible to intelligently and freely adjust the traffic distribution and effective restrictions of various applications of the smart terminal, and it is impossible to meet the high-speed and smooth operation of the traffic flow rate required by different groups of people for different applications of smart terminals to connect to the Internet of Things. Summary of the invention
[0003] Therefore, in response to the above-mentioned problems, the present invention proposes a mobile cellular intelligent pipeline implementation method based on edge computing, which is set on a smart terminal to intelligently and freely adjust and manage the data traffic of various applications on the smart terminal connecting to the Internet of Things, is simple and convenient to use, the applications of the smart terminal can be used quickly and smoothly, and is suitable for different groups of people to connect smart terminal applications to the Internet of Things and can manage the high-speed operation of applications according to their own needs.
[0004] To solve this technical problem, the present invention adopts the following scheme: a method for realizing mobile cellular intelligent pipeline based on edge computing, a device management server is set on the smart terminal and the smart terminal is set to access the Internet of Things network through the device management server control, an application management module and a data traffic connection module are established in the device management server, the data traffic connection module is used for each application on the smart terminal to use the data channel to connect to the Internet of Things operator to access the Internet of Things, the application management module establishes multiple application flow rate selection intervals with different data flow rates and an application allocation unit for allocating and managing the application flow rate selection intervals selected by each application on the smart terminal, each application on the smart terminal is dynamically adjusted and allocated to each application flow rate selection interval in real time through the application allocation unit, and each application on the smart terminal is connected to access the Internet of Things network through the data traffic connection module according to the flow rate of the application flow rate interval in which each application is located when in use.
[0005] Furthermore, each application flow rate selection interval of the application management module is divided into an unlimited application flow rate selection interval and a multi-level speed-limited application flow rate selection interval. The multi-level application flow rate selection interval includes an application flow rate selection interval with two or more levels of different flow rates decreasing step by step.
[0006] Furthermore, the application flow rate selection intervals of the application management module perform multi-level priority allocation of the access rights of each application flow rate selection interval with different flow rates to the Internet of Things network according to the flow rate from large to small. The multi-level priority allocation of the application management module means that the total bandwidth required for the operation of each application in the unlimited application flow rate selection interval is prioritized according to the overall traffic bandwidth, and then the remaining traffic bandwidth after deducting the bandwidth required for each enabled application in the unlimited application flow rate selection interval is used to guarantee the bandwidth required for access of each enabled application in the multi-level speed-limited application flow rate selection interval step by step according to the flow rate from large to small.
[0007] Furthermore, the data traffic connection module is also provided with a traffic usage threshold monitoring unit, which generates a traffic warning when the set traffic usage threshold is reached.
[0008] Furthermore, the application management module is also provided with a dynamic adjustment unit, which is used to adjust and set the bandwidth of each application flow rate selection interval and the flow used by each application flow rate selection interval.
[0009] By adopting the above technical scheme, the beneficial effects of the present invention are as follows: by setting the smart terminal to use the device management server to control access to the Internet of Things network, the device management server performs intelligent management and control on the application access to the Internet of Things on the smart terminal, and establishes an application management module and a data flow connection module on the device management server. The application management module establishes a plurality of application flow rate selection intervals with different data flow rates and an application allocation unit for allocating and managing the application flow rate selection intervals selected by each application on the smart terminal. Each application on the smart terminal is dynamically adjusted and allocated to each application flow rate selection interval in real time through the application allocation unit. When each application on the smart terminal is used, it is connected to access the Internet of Things network through the data flow connection module according to the flow rate of the application flow rate interval in which each application is located, so that the user can connect each application on the smart terminal. It can be intelligently and freely adjusted and managed according to the data traffic needs of different users, different usage time periods or different usage environments, and is simple and convenient to use, so that the applications of smart terminals can run smoothly and at high speed when connected to the Internet of Things, so that different groups of people, different usage time periods or different usage environments can connect each application on the smart terminal to the Internet of Things and freely adjust it according to their own needs and ensure that the applications they use run smoothly and at high speed. It is flexible to use without wasting data traffic, and realizes cost-effective use of data traffic of smart terminals such as vehicle-mounted terminals connected to the Internet of Things, prevents vehicle-mounted data traffic of smart terminals such as vehicle-mounted terminals connected to the Internet of Things from being wasted by unnecessary applications and affecting the running speed of the currently used applications, and avoids delays, freezing and other situations when using applications. Through further settings, namely the settings of unlimited application flow rate selection intervals and multi-level speed-limited application flow rate selection intervals, the smart terminal can limit the use of applications by flow rate, ensuring the effective and smooth operation of each application. At the same time, the multi-level priority allocation setting can limit the use speed of non-essential applications when multiple applications are used at the same time to effectively ensure the smooth and high-speed operation of necessary applications, so that the necessary applications currently used by the smart terminal can access the Internet of Things network at high speed and smoothly, making it more convenient for users to use. The setting of the dynamic adjustment unit also allows users to freely adjust the data traffic flow rate and traffic of applications accessing the Internet of Things network within each application flow rate selection interval, further improving the cost-effectiveness of using Internet of Things traffic by smart terminals such as vehicle-mounted terminals and the convenience of user use, which can be widely promoted and applied. BRIEF DESCRIPTION OF THE DRAWINGS
[0010] Figure 1 It is a schematic block diagram of smart terminal data accessing an Internet of Things network according to an embodiment of the present invention. DETAILED DESCRIPTION
[0011] The present invention will now be further described with reference to the accompanying drawings and specific implementation methods.
[0012] refer to Figure 1, the preferred implementation method of the mobile cellular intelligent pipeline based on edge computing of the present invention is to set a device management server 2 on the smart terminal 1 and set the smart terminal 1 to access the Internet of Things network through the device management server 2, and establish an application management module 21 and a data flow connection module 22 in the device management server 2. The data flow connection module 22 is used for each application on the smart terminal to use the data channel to connect to the Internet of Things operator to access the Internet of Things. The data flow connection module 22 is also provided with a flow usage threshold monitoring unit 221. When the set flow usage threshold is reached, the flow usage threshold monitoring unit 221 will form a flow warning to prompt the user. The application management module 21 establishes multiple application flow rate selection intervals with different data flow rates. And an application allocation unit 215 for allocating and managing application flow rate selection intervals for each application selection on the intelligent terminal, each application flow rate selection interval of the application management module 21 is divided into an unlimited application flow rate selection interval 211, a first-level speed-limited application flow rate selection interval 212, a second-level speed-limited application flow rate selection interval 213 and a third-level speed-limited application flow rate selection interval 214, the first-level speed-limited application flow rate selection interval 212, the second-level speed-limited application flow rate selection interval 213 and the third-level speed-limited application flow rate selection interval 214 are application flow rate selection intervals where the data flow rate decreases step by step, and each application flow rate selection interval of the application management module 21 allocates the unlimited application flow rate selection interval 211, the first-level speed-limited application flow rate selection interval 212, the second-level speed-limited application flow rate selection interval 213 and the third-level speed-limited application flow rate selection interval 214 to different flow rates according to the flow rate from large to small. The flow rate selection interval 212, the secondary speed-limited application flow rate selection interval 213 and the tertiary speed-limited application flow rate selection interval 214 are allocated with multi-level priority to access the Internet of Things network. The multi-level priority allocation of the application management module 21 refers to the priority guarantee of the total bandwidth required for the operation of each application in the unlimited application flow rate selection interval 211 according to the overall traffic bandwidth, and then the remaining traffic bandwidth after deducting the bandwidth of each enabled application in the unlimited application flow rate selection interval 211 is used to guarantee the bandwidth required for access of each enabled application in each level of application flow rate selection interval step by step from the flow rate of the primary speed-limited application flow rate selection interval 212, the secondary speed-limited application flow rate selection interval 213 and the tertiary speed-limited application flow rate selection interval 214 with the flow rate from large to small, intelligently Each application on the terminal 1 is dynamically adjusted and allocated to each application flow rate selection interval in real time through the application allocation unit 215. The application management module 21 is also provided with an application dynamic adjustment unit 216. The dynamic adjustment unit 216 is used to adjust and set the bandwidth used by each application flow rate selection interval of the unlimited application flow rate selection interval 211, the first-level speed-limited application flow rate selection interval 212, the second-level speed-limited application flow rate selection interval 213 and the third-level speed-limited application flow rate selection interval 214, and the total amount of traffic used by each application flow rate selection interval of the unlimited application flow rate selection interval 211, the first-level speed-limited application flow rate selection interval 212, the second-level speed-limited application flow rate selection interval 213 and the third-level speed-limited application flow rate selection interval 214.When each application on the smart terminal 1 is used, it is connected to access the Internet of Things network through the data flow connection module 22 according to the flow rate of the application flow rate interval in which each application is located.
[0013] The application flow rate selection interval in the application management module of the present invention can establish fewer or more levels of application flow rate selection intervals according to the different needs of different types of smart terminals such as vehicle-mounted terminals, and perform multi-level priority allocation of permissions to access the Internet of Things network. The number of data flow channels in the data flow rate allocation module can also be established according to the different needs of different types of smart terminals such as vehicle-mounted terminals. Fewer or more levels of data flow channels limit the flow rate of access to the Internet of Things network to ensure high-speed and smooth use of applications in smart terminals.
[0014] The present invention sets a smart terminal to use a device management server to control access to the Internet of Things network, and the device management server performs intelligent management and control on application access to the Internet of Things on the smart terminal. An application management module and a data flow connection module are established on the device management server. The application management module establishes a plurality of application flow rate selection intervals with different data flow rates and an application allocation unit for allocating and managing application flow rate selection intervals for each application on the smart terminal. Each application on the smart terminal is dynamically adjusted and allocated to each application flow rate selection interval in real time through the application allocation unit. When each application on the smart terminal is used, it is connected to access the Internet of Things network through the data flow connection module according to the flow rate of the application flow rate interval in which each application is located, so that the user can use each application on the smart terminal according to different users, The data traffic requirements for different usage periods or different usage environments can be intelligently and freely adjusted and managed, and the use is simple and convenient, so that the applications of smart terminals can run smoothly and at high speed when connected to the Internet of Things, so that different groups of people, different usage periods or different usage environments can freely adjust the connection of various applications on smart terminals to the Internet of Things according to their own needs and ensure that the applications they use run smoothly and at high speed. It is flexible to use without wasting data traffic, and realizes cost-effective use of data traffic for connecting smart terminals such as vehicle-mounted terminals to the Internet of Things, prevents vehicle-mounted data traffic of smart terminals such as vehicle-mounted terminals connected to the Internet of Things from being wasted by unnecessary applications and affecting the running speed of currently used applications, and avoids delays, freezing and other situations when using applications. Through further settings, namely the settings of unlimited application flow rate selection intervals and multi-level speed-limited application flow rate selection intervals, the smart terminal can limit the use of applications by flow rate, ensuring the effective and smooth operation of each application. At the same time, the multi-level priority allocation setting can limit the use speed of non-essential applications when multiple applications are used at the same time to effectively ensure the smooth and high-speed operation of necessary applications, so that the necessary applications currently used by the smart terminal can access the Internet of Things network at high speed and smoothly, making it more convenient for users to use. The setting of the dynamic adjustment unit also allows users to freely adjust the data traffic flow rate and traffic of applications accessing the Internet of Things network within each application flow rate selection interval, further improving the cost-effectiveness of using Internet of Things traffic by smart terminals such as vehicle-mounted terminals and the convenience of user use, which can be widely promoted and applied.
[0015] Although the present invention has been specifically shown and described in conjunction with the preferred embodiments, it should be understood by those skilled in the art that various changes may be made to the present invention in form and details without departing from the spirit and scope of the present invention as defined by the appended claims, all of which are within the scope of protection of the present invention.
Claims
1. A method for realizing mobile cellular intelligent pipeline based on edge computing, characterized in that: A device management server is set on the smart terminal and the smart terminal is set to access the Internet of Things network through the device management server control. An application management module and a data flow connection module are established in the device management server. The data flow connection module is used for each application on the smart terminal to use a data channel to connect to the Internet of Things operator to access the Internet of Things. The application management module establishes multiple application flow rate selection intervals with different data flow rates and an application allocation unit for allocating and managing the application flow rate selection intervals selected by each application on the smart terminal. Each application on the smart terminal is dynamically adjusted and allocated to each application flow rate selection interval in real time through the application allocation unit. When each application on the smart terminal is used, it is connected to the Internet of Things network through the data flow connection module according to the flow rate of the application flow rate interval in which each application is located. Each application flow of the application management module The speed selection interval is divided into an unlimited application flow rate selection interval and a multi-level speed-limited application flow rate selection interval. The multi-level application flow rate selection interval includes application flow rate selection intervals with two or more levels of different flow rates that gradually decrease. The application flow rate selection intervals of the application management module perform multi-level priority allocation of the access rights of each application flow rate selection interval with different flow rates to the Internet of Things network according to the flow rate from large to small. The multi-level priority allocation of the application management module refers to the priority guarantee of the total bandwidth required for the operation of each application in the unlimited application flow rate selection interval according to the overall traffic bandwidth, and then the remaining traffic bandwidth after deducting the bandwidth required for each enabled application in the unlimited application flow rate selection interval is used to guarantee the bandwidth required for access of each enabled application in each level of application flow rate selection interval step by step according to the flow rate from large to small.
2. The method for realizing mobile cellular intelligent pipeline based on edge computing according to claim 1 is characterized in that: The data traffic connection module is also provided with a traffic usage threshold monitoring unit, which generates a traffic warning when the set traffic usage threshold is reached.
3. The method for realizing mobile cellular intelligent pipeline based on edge computing according to claim 1 is characterized in that: The application management module is further provided with a dynamic adjustment unit, which is used to adjust and set the bandwidth of each application flow rate selection interval and the flow used by each application flow rate selection interval.