Chip data transmission system and method based on artificial intelligence

Abstract

The invention discloses a chip data transmission system and method based on artificial intelligence, and relates to the technical field of data transmission, and the method comprises the steps: obtaining the specification information of user equipment (UE), determining a frequency band supported by a UE chip based on the specification information of the UE, enabling the frequency band supported by the UE chip to be a target frequency band, and enabling a channel corresponding to the target frequency band to be a target channel; generating a monitoring signal to detect the communication condition of the target channel; feeding back the communication condition of the target channel; determining the transmission speed of the UE data on each channel according to the determined time when the UE ends the data uplink on each channel; determining a UE data transmission task needing to be undertaken by each channel; the UE data is subjected to diversity transmission, and the UE data needing to be transmitted is subjected to transmission quantity and channel allocation, so that channel resources are reasonably allocated, and the utilization rate of channels and the transmission speed of the UE data are improved; and the UE data is subjected to diversity transmission after being partitioned, so that the reliability and the flexibility of UE data transmission are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of data transmission, and specifically to a chip data transmission system and method based on artificial intelligence. Background Art

[0002] In a shared network environment, multiple user equipment UEs or nodes need to send data through the same communication medium. In this case, when two or more UEs use a channel to send data at the same time, data transmission conflicts and errors are prone to occur. In order to avoid data conflicts and collisions and achieve effective data transmission, a carrier sensing method is usually used to detect whether the channel is idle. If the channel is busy, data transmission will not start until the channel is idle. If the waiting time is too long, an access failure problem will occur. At this time, the UE will switch to another channel and try again. During the UE's attempt, regardless of whether an access failure problem occurs, the waiting process itself reduces the UE data transmission efficiency. How to improve data transmission efficiency without affecting channel conflicts has become an urgent problem to be solved. Summary of the invention

[0003] The purpose of the present invention is to provide a chip data transmission system and method based on artificial intelligence to solve the problems raised in the above background technology.

[0004] In one aspect of the present invention, a chip data transmission method based on artificial intelligence is provided, comprising: S11, obtaining specification information of a user equipment UE, determining a frequency band supported by a UE chip based on the specification information of the UE, setting the frequency band supported by the UE chip as a target frequency band, and setting a channel corresponding to the target frequency band as a target channel; when the UE triggers a data uplink task, generating a listening signal to detect a communication status of the target channel; the listening signal includes a UE data capacity to be uplinked and a channel communication status inquiry; S12, the network side responds to the received UE listening signal and feeds back the communication status of the target channel, including the time when the UE starts data uplink on each target channel and the time when the UE ends data uplink on each channel; S13, determining a transmission speed of UE data on each channel according to the determined time when the UE ends data uplink on each channel; S14, based on the transmission speed of UE data on each channel, determine the UE data transmission task that each channel needs to bear, and perform diversity transmission on the UE data.

[0005] In step S13, the determining of the transmission speed of UE data on each channel further includes the following steps: Get the time when the UE starts data uplink on the xth target channel and the time when the UE ends data uplink on the xth target channel , calculate the data transmission speed of UE on the xth target channel , , where C is the UE data capacity to be uplinked.

[0006] In step S14, determining the UE data transmission task that each channel needs to undertake further includes the following steps: S31, sort the time when the UE starts transmitting on the target channel from small to large to obtain a time series , each transmission start time corresponds to a channel and channel transmission speed, and the corresponding channel transmission speed sequence is obtained Different channels are performing different tasks, so the UE can start using the channels at different times. In order to shorten the UE's data uplink time, the UE first transmits data on the channel where the UE can perform data uplink. When other channels can also be used to perform the UE's data uplink tasks, the UE uses other channels to transmit data, thereby speeding up the UE's data transmission speed. S33, from Initially, set j to 2 and change the channel transmission speed sequence to Adding up all the previous velocities, we get , calculate the amount of UE data allocated for the j-1th time Is it greater than or equal to C? , j-1 is the number of allocations. If yes, only the channels corresponding to the first j-1 channel transmission speeds in the channel transmission speed sequence are used to transmit UE data, and data transmission tasks are allocated to the first j-1 channels, and the process ends; if no, the process proceeds to step S34; The UE will give priority to the channel with the shortest start time. If there are multiple channels with the same start transmission time at the beginning, that is, the start transmission time is 0 and the channel is in the immediately available state, then When the start transmission time is not 0, the UE data is actually allocated. The UE data is allocated according to the channel data transmission speed. The faster the channel transmission speed, the more UE data is carried.

[0007] S34, add 1 to the value of j, and continue to add 1 to the channel transmission speed sequence. Adding up all the previous velocities, we get , calculate the amount of UE data allocated for the j-1th time , ,judge Is it greater than or equal to C? If so, only use the channels corresponding to the first j-1 channel transmission speeds to transmit UE data, and allocate data transmission tasks to the first j-1 channels in the channel transmission speed sequence, and end; if not, go to step S35; S35, determine whether j is less than n, if so, return to step S34, if not, perform the nth allocation to the UE data and end.

[0008] In step S35, performing the n-th allocation to the UE data further includes the following steps: Get the amount of UE data allocated after the n-1th allocation , calculate the amount of unallocated UE data , , the unallocated UE data volume Assigned to n target channels, the channel corresponding to the i-th channel transmission speed in the channel transmission speed sequence needs to bear the UE data volume in the n-th allocation .

[0009] , , , , , first, , then upon arrival Before the time, you can use The corresponding channel is used for UE data transmission. completed before the time, then only use The corresponding channel is OK; Otherwise, reach After a while, use and The corresponding channel is used for data transmission. and The corresponding two channels are regarded as a whole, then the whole is and The amount of data that can be transmitted between times is , plus and If the amount of data transmitted between the time points is greater than or equal to the amount of data to be uplinked by the UE, the transmission is completed. and The amount of data transferred between the times is all allocated to The corresponding channel, and The amount of data transferred between moments depends on and The corresponding channel transmission speed is allocated; if it is less than the amount of data to be uplinked by the UE, the allocation continues; After n-1 allocations, the time comes , all channels are in available state, and the unallocated UE data is shared by all target channels according to the data transmission speed; Obtain the number of allocations of UE data and record it as NUM. If NUM is less than n, proceed to step S51; otherwise, NUM is n, proceed to step S52. S51, for a channel in the channel transmission speed sequence, the amount of UE data to be borne during the first allocation is , , the amount of UE data required for the second allocation is ,…, the total UE data volume to be borne at the end of the NUMth allocation is ; For the ath channel in the channel transmission speed sequence, 1<a≤NUM, the total UE data volume to be borne at the end of the NUMth allocation is ; S52, for the first channel in the channel transmission speed sequence, the total UE data volume to be borne at the end of the nth allocation is ; For the bth channel in the channel transmission speed sequence, the total UE data volume to be borne at the end of the Nth allocation is .

[0010] Diversity transmission of UE data also includes: dividing the UE data into blocks, allocating a corresponding number of data blocks to each channel in the channel transmission speed sequence according to the amount of UE data that each channel in the channel transmission speed sequence needs to bear, and adopting multi-channel parallel transmission for the data blocks.

[0011] In another aspect of the present invention, there is provided an artificial intelligence-based chip data transmission system, comprising: a network side, a data analysis module, a user equipment UE and a data storage module; the network side is used to receive and feed back a listening signal sent by the UE, and allocate channel resources to the UE; the data analysis module is interconnected with the network side, and based on the channel communication status of the network side and the amount of data to be uplinked by the UE, determines the channel used when the UE transmits data; the user equipment UE is used to trigger a data uplink task and generate a listening signal to detect the communication status of the target channel; the listening signal includes the UE data capacity to be uplinked and a channel communication status inquiry; the frequency band supported by the UE chip is the target channel, and the channel corresponding to the target channel is the target channel.

[0012] The network side also includes a receiving unit, a sending unit, a detection unit and a resource allocation unit. The receiving unit is used to receive the listening signal sent by the UE and the UE data allocation result of the data analysis module; the sending unit is used to send the load status of each channel, the UE data capacity, the time when the UE starts data uplink on each target channel and the time when the UE ends data uplink on each channel to the data analysis module, and send the channel resource allocation result of the data analysis module to the UE; the detection unit is used to detect the load status of the channel; the resource allocation unit allocates channel resources to the UE for data transmission based on the result of UE data allocation by the data analysis module.

[0013] The data analysis module also includes a channel transmission speed calculation unit and a UE data allocation unit. The channel transmission speed calculation unit determines the data transmission speed of each channel based on the UE data capacity, the time when the UE starts data uplink on each target channel, and the time when the UE ends data uplink on each channel; the UE data allocation unit is used to allocate UE data NUM times, and after the NUM allocations are completed, determine the amount of UE data that each channel needs to bear.

[0014] The user equipment UE also includes a data blocking unit, a listening signal generating unit and a data uplink unit. The data blocking unit is used to block UE data, and the listening signal generating unit is used to generate a listening signal to detect the communication status of the target channel; the data uplink unit performs a data uplink task based on the channel resource allocation result.

[0015] Compared with the prior art, the beneficial effects achieved by the present invention are: allocating the transmission amount and channels for UE data that needs to be transmitted, reasonably allocating channel resources, improving channel utilization and UE data transmission speed; dividing UE data into blocks and performing diversity transmission, thereby improving the reliability and flexibility of UE data transmission. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings: Figure 1 It is a structural schematic diagram of a chip data transmission system based on artificial intelligence according to an embodiment of the present invention. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] In the embodiments of the present invention, please refer to Figure 1 , provides an artificial intelligence-based chip data transmission system, including: a network side, a data analysis module, a user equipment UE and a data storage module; the network side is used to receive and feedback the listening signal sent by the UE, and allocate channel resources to the UE; the data analysis module is interconnected with the network side, and based on the channel communication status of the network side and the amount of data to be uplinked by the UE, determines the channel used by the UE when transmitting data; the user equipment UE is used to trigger the data uplink task and generate a listening signal to detect the communication status of the target channel; the listening signal includes the UE data capacity to be uplinked and the channel communication status inquiry; the frequency band supported by the UE chip is the target channel, and the channel corresponding to the target channel is the target channel.

[0019] The network side also includes a receiving unit, a sending unit, a detection unit and a resource allocation unit. The receiving unit is used to receive the listening signal sent by the UE and the UE data allocation result of the data analysis module; the sending unit is used to send the load status of each channel, the UE data capacity, the time when the UE starts data uplink on each target channel and the time when the UE ends data uplink on each channel to the data analysis module, and send the channel resource allocation result of the data analysis module to the UE; the detection unit is used to detect the load status of the channel; the resource allocation unit allocates channel resources to the UE for data transmission based on the result of UE data allocation by the data analysis module.

[0020] The data analysis module also includes a channel transmission speed calculation unit and a UE data allocation unit. The channel transmission speed calculation unit determines the data transmission speed of each channel based on the UE data capacity, the time when the UE starts data uplink on each target channel, and the time when the UE ends data uplink on each channel; the UE data allocation unit is used to allocate UE data NUM times, and after the NUM allocations are completed, determine the amount of UE data that each channel needs to bear.

[0021] The user equipment UE also includes a data blocking unit, a listening signal generating unit and a data uplink unit. The data blocking unit is used to block UE data, and the listening signal generating unit is used to generate a listening signal to detect the communication status of the target channel; the data uplink unit performs a data uplink task based on the channel resource allocation result.

[0022] In an embodiment of the present invention, a chip data transmission method based on artificial intelligence is provided, comprising: S11, obtain the specification information of the user equipment UE, determine the frequency band supported by the UE chip based on the specification information of the UE, set the frequency band supported by the UE chip as the target frequency band, and the channel corresponding to the target frequency band as the target channel; when the UE triggers the data uplink task, generate a listening signal to detect the communication status of the target channel; the listening signal includes the UE data capacity to be uplinked and the channel communication status inquiry.

[0023] S12, the network side responds to the received UE listening signal and feeds back the communication status of the target channel, including the time when the UE starts data uplink on each target channel and the time when the UE ends data uplink on each channel.

[0024] S13, determining a transmission speed of UE data on each channel according to the determined time when the UE ends data uplink on each channel; The transmission speed of UE data on each channel is calculated by the following steps: Get the time when the UE starts data uplink on the xth target channel and the time when the UE ends data uplink on the xth target channel , calculate the data transmission speed of UE on the xth target channel , , where C is the UE data capacity to be uplinked.

[0025] S14, based on the transmission speed of UE data on each channel, determine the UE data transmission task that each channel needs to undertake, and perform diversity transmission on the UE data; divide the UE data into blocks, and allocate a corresponding number of data blocks to each channel in the channel transmission speed sequence according to the amount of UE data that each channel in the channel transmission speed sequence needs to bear, and adopt multi-channel parallel transmission for the data blocks.

[0026] Determining the UE data transmission task that each channel needs to undertake specifically includes the following steps: S31, sort the time when the UE starts transmitting on the target channel from small to large to obtain a time series , each transmission start time corresponds to a channel and channel transmission speed, and the corresponding channel transmission speed sequence is obtained ; S33, from Initially, set j to 2 and change the channel transmission speed sequence to Adding up all the previous velocities, we get , calculate the amount of UE data allocated for the j-1th time Is it greater than or equal to C? , j-1 is the number of allocations. If yes, only the channels corresponding to the first j-1 channel transmission speeds in the channel transmission speed sequence are used to transmit UE data, and data transmission tasks are allocated to the first j-1 channels, and the process ends; if no, the process proceeds to step S34; S34, add 1 to the value of j, and continue to add 1 to the channel transmission speed sequence. Adding up all the previous velocities, we get , calculate the amount of UE data allocated for the j-1th time , ,judge Is it greater than or equal to C? If so, only use the channels corresponding to the first j-1 channel transmission speeds to transmit UE data, and allocate data transmission tasks to the first j-1 channels in the channel transmission speed sequence, and end; if not, go to step S35; S35, determine whether j is less than n, if so, return to step S34; if not, perform the nth allocation to the UE data, and obtain the amount of UE data allocated after the n-1th allocation , calculate the amount of unallocated UE data , , the unallocated UE data volume Assigned to n target channels, the channel corresponding to the i-th channel transmission speed in the channel transmission speed sequence needs to bear the UE data volume in the n-th allocation ,Finish.

[0027] After the allocation is completed, the data transmission task of each channel is: obtain the number of allocations of UE data and record it as NUM. If NUM is less than n, go to step S51; otherwise, NUM is n, go to step S52; S51, for a channel in the channel transmission speed sequence, the amount of UE data to be borne during the first allocation is , , the amount of UE data required for the second allocation is ,…, the total UE data volume to be borne at the end of the NUMth allocation is ; For the ath channel in the channel transmission speed sequence, 1<a≤NUM, the total UE data volume to be borne at the end of the NUMth allocation is ; S52, for the first channel in the channel transmission speed sequence, the total UE data volume to be borne at the end of the nth allocation is ; For the bth channel in the channel transmission speed sequence, the total UE data volume to be borne at the end of the Nth allocation is .

[0028] For example, the amount of data to be uplinked by the UE is 10e. Among all channels, there are 4 channels with frequency bands supported by the UE chip. The channel transmission time sequence is , the corresponding channel is , the transmission speed sequence is , then in the time from 0 to 2, by The channel transmits UE data, and the first allocation is 2×e, all of which are Channel bears; in 2 to 3 hours, by Channel and The channel transmits UE data. The second allocation is 1×2e, which still does not reach 5e. The remaining UE data is allocated by Shared responsibility. The total UE data volume is , The total UE data volume is , The total UE data volume is UE data can be evenly divided into 100 data blocks, and the size of each data block is 0.1e, then Undertake 45 data blocks, Take on 25 data blocks, Takes 30 data blocks.

[0029] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0030] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A chip data transmission method based on artificial intelligence, characterized in that: The following steps are involved: S11, obtaining specification information of a user equipment UE, determining a frequency band supported by a UE chip based on the specification information of the UE, setting the frequency band supported by the UE chip as a target frequency band, and setting a channel corresponding to the target frequency band as a target channel; when the UE triggers a data uplink task, generating a listening signal to detect a communication status of the target channel; the listening signal includes a UE data capacity to be uplinked and a channel communication status inquiry; S12, the network side responds to the received UE listening signal and feeds back the communication status of the target channel, including the time when the UE starts data uplink on each target channel and the time when the UE ends data uplink on each channel; S13, determining a transmission speed of UE data on each channel according to the determined time when the UE ends data uplink on each channel; S14, based on the transmission speed of UE data on each channel, determine the UE data transmission task that each channel needs to bear, and perform diversity transmission on the UE data.

2. The chip data transmission method based on artificial intelligence according to claim 1, characterized in that: In step S13, the determining of the transmission speed of UE data on each channel further includes the following steps: Get the time when the UE starts data uplink on the xth target channel and the time when the UE ends data uplink on the xth target channel , calculate the data transmission speed of UE on the xth target channel , , where C is the UE data capacity to be uplinked.

3. The chip data transmission method based on artificial intelligence according to claim 2, characterized in that: In step S14, determining the UE data transmission task that each channel needs to undertake further includes the following steps: S31, sort the time when the UE starts transmitting on the target channel from small to large to obtain a time series , each transmission start time corresponds to a channel and channel transmission speed, and the corresponding channel transmission speed sequence is obtained ; S33, from Initially, set j to 2 and place the channel transmission speed sequence in Adding up all the previous velocities, we get , calculate the amount of UE data allocated for the j-1th time Is it greater than or equal to C? , j-1 is the number of allocations. If yes, only the channels corresponding to the first j-1 channel transmission speeds in the channel transmission speed sequence are used to transmit UE data, and data transmission tasks are allocated to the first j-1 channels, and the process ends; if no, the process proceeds to step S34; S34, add 1 to the value of j and continue to add 1 to the channel transmission speed sequence Adding up all the previous velocities, we get , calculate the amount of UE data allocated for the j-1th time , ,judge Is it greater than or equal to C? If so, only use the channels corresponding to the first j-1 channel transmission speeds to transmit UE data, and allocate data transmission tasks to the first j-1 channels in the channel transmission speed sequence, and end; if not, go to step S35; S35, determine whether j is less than n, if so, return to step S34, if not, perform the nth allocation to the UE data and end.

4. The chip data transmission method based on artificial intelligence according to claim 3 is characterized in that: In step S35, performing the n-th allocation to the UE data further includes the following steps: Get the amount of UE data allocated after the n-1th allocation , calculate the amount of unallocated UE data , , the unallocated UE data volume Assigned to n target channels, the channel corresponding to the i-th channel transmission speed in the channel transmission speed sequence needs to bear the UE data volume when it is assigned for the nth time: .

5. The chip data transmission method based on artificial intelligence according to claim 4, characterized in that: Allocating data transmission tasks to channels also includes the following steps: Obtain the number of allocations of UE data and record it as NUM. If NUM is less than n, proceed to step S51; otherwise, NUM is n, proceed to step S52. S51, for a channel in the channel transmission speed sequence, the amount of UE data to be borne during the first allocation is , , the amount of UE data required for the second allocation is ,…, the total UE data volume to be borne at the end of the NUMth allocation is ; For the ath channel in the channel transmission speed sequence, 1<a≤NUM, the total UE data volume to be borne at the end of the NUMth allocation is ; S52, for the first channel in the channel transmission speed sequence, the total UE data volume to be borne at the end of the nth allocation is ; For the bth channel in the channel transmission speed sequence, the total UE data volume to be borne at the end of the Nth allocation is .

6. The chip data transmission method based on artificial intelligence according to claim 5, characterized in that: The diversity transmission of UE data also includes the following steps: The UE data is divided into blocks. According to the amount of UE data that each channel in the channel transmission speed sequence needs to bear, a corresponding number of data blocks are allocated to each channel in the channel transmission speed sequence, and multi-channel parallel transmission is adopted for the data blocks.

7. A chip data transmission system based on artificial intelligence, characterized in that: include: Network side, data analysis module, user equipment UE and data storage module; The network side is used to receive and feed back the listening signal sent by the UE, and allocate channel resources to the UE; The data analysis module is interconnected with the network side, and determines the channel used by the UE to transmit data based on the channel communication status of the network side and the amount of data to be uplinked by the UE; the user equipment UE is used to trigger the data uplink task and generate a listening signal to detect the communication status of the target channel; the listening signal includes the UE data capacity to be uplinked and the channel communication status inquiry; the frequency band supported by the UE chip is the target channel, and the channel corresponding to the target channel is the target channel.

8. The chip data transmission system based on artificial intelligence according to claim 7, characterized in that: The network side also includes a receiving unit, a sending unit, a detection unit and a resource allocation unit. The receiving unit is used to receive the listening signal sent by the UE and the UE data allocation result of the data analysis module; the sending unit is used to send the load status of each channel, the UE data capacity, the time when the UE starts data uplink on each target channel and the time when the UE ends data uplink on each channel to the data analysis module, and send the channel resource allocation result of the data analysis module to the UE; the detection unit is used to detect the load status of the channel; the resource allocation unit allocates channel resources to the UE for data transmission based on the result of UE data allocation by the data analysis module.

9. The chip data transmission system based on artificial intelligence according to claim 7, characterized in that: The data analysis module also includes a channel transmission speed calculation unit and a UE data allocation unit. The channel transmission speed calculation unit determines the data transmission speed of each channel based on the UE data capacity, the time when the UE starts data uplink on each target channel, and the time when the UE ends data uplink on each channel; the UE data allocation unit is used to allocate UE data NUM times, and after the NUM allocations are completed, determine the amount of UE data that each channel needs to bear.

10. The chip data transmission system based on artificial intelligence according to claim 9, characterized in that: The user equipment UE also includes a data blocking unit, a listening signal generating unit and a data uplink unit. The data blocking unit is used to block UE data, and the listening signal generating unit is used to generate a listening signal to detect the communication status of the target channel; the data uplink unit performs a data uplink task based on the channel resource allocation result.

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