CN116090553B - Artificial intelligence automatic processing system based on meta learning - Google Patents

Artificial intelligence automatic processing system based on meta learning Download PDF

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CN116090553B
CN116090553B CN202310373222.7A CN202310373222A CN116090553B CN 116090553 B CN116090553 B CN 116090553B CN 202310373222 A CN202310373222 A CN 202310373222A CN 116090553 B CN116090553 B CN 116090553B
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user information
information
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CN116090553A (en
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张卫平
丁烨
王丹
丁园
向荣
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Global Digital Group Co Ltd
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    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06NCOMPUTING ARRANGEMENTS BASED ON SPECIFIC COMPUTATIONAL MODELS
    • G06N3/00Computing arrangements based on biological models
    • G06N3/02Neural networks
    • G06N3/08Learning methods
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06VIMAGE OR VIDEO RECOGNITION OR UNDERSTANDING
    • G06V10/00Arrangements for image or video recognition or understanding
    • G06V10/70Arrangements for image or video recognition or understanding using pattern recognition or machine learning
    • G06V10/764Arrangements for image or video recognition or understanding using pattern recognition or machine learning using classification, e.g. of video objects
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06VIMAGE OR VIDEO RECOGNITION OR UNDERSTANDING
    • G06V10/00Arrangements for image or video recognition or understanding
    • G06V10/70Arrangements for image or video recognition or understanding using pattern recognition or machine learning
    • G06V10/82Arrangements for image or video recognition or understanding using pattern recognition or machine learning using neural networks
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06VIMAGE OR VIDEO RECOGNITION OR UNDERSTANDING
    • G06V20/00Scenes; Scene-specific elements
    • G06V20/40Scenes; Scene-specific elements in video content
    • G06V20/41Higher-level, semantic clustering, classification or understanding of video scenes, e.g. detection, labelling or Markovian modelling of sport events or news items
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06VIMAGE OR VIDEO RECOGNITION OR UNDERSTANDING
    • G06V30/00Character recognition; Recognising digital ink; Document-oriented image-based pattern recognition
    • G06V30/10Character recognition
    • G06V30/19Recognition using electronic means
    • G06V30/191Design or setup of recognition systems or techniques; Extraction of features in feature space; Clustering techniques; Blind source separation
    • G06V30/19173Classification techniques
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02DCLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
    • Y02D10/00Energy efficient computing, e.g. low power processors, power management or thermal management

Abstract

The invention provides an artificial intelligent automatic processing system based on meta learning, which comprises a host terminal, an edge processing terminal, a meta learning terminal and an automatic processing terminal, wherein the host terminal is used for processing the edge of the object; the edge processing terminal is used for preprocessing user data from a user and processing the user data into user information; the host terminal is used for being connected with the edge processing terminal and receiving user information from the edge processing terminal; the meta learning terminal and the automatic processing terminal are connected with the host terminal; the meta learning terminal is used for generating meta learning adjustment information according to all user information in a preset period; the automatic processing terminal is used for communicating with the host terminal and processing the user information of the host terminal according to a preset automatic processing instruction; the meta-learning adjustment information is used to update the automated processing instructions. The invention has the effect of improving the working efficiency of the automatic processing system.

Description

Artificial intelligence automatic processing system based on meta learning
Technical Field
The invention relates to the technical field of meta-learning processing systems, in particular to an artificial intelligent automatic processing system based on meta-learning.
Background
Meta learning refers to the process of improving a learning algorithm over multiple learning phases. In the basic learning process, the internal learning algorithm solves the task defined by the dataset and the target. In the meta learning process, the external algorithm updates the internal learning algorithm so that the learned model improves the external target. An artificial intelligence automated processing system is a processing system that is composed of processors or automated machinery, where a person is only a manager and a monitor, and where the machine operation is not dependent on human control.
Many artificial intelligence automated processing systems have been developed and, through extensive searching and reference, the prior art artificial intelligence automated processing systems have been found to have artificial intelligence automated processing systems as disclosed in publication nos. CN111928351A, CN114936186A, EP1086567A4, US20070208875A1, JP2015166971a, which generally include: a receiving terminal and an automatic processing terminal; the receiving terminal is used for receiving the data and the files to be processed, and the automatic processing terminal is used for performing automatic processing operation according to the processing requirements of the data and the files. The automatic processing of the artificial intelligent automatic processing system is single and lacks of functions of automatically perfecting or optimizing an automatic processing process, so that the defect of reduced working efficiency of the automatic processing system is caused.
Disclosure of Invention
The invention aims to provide an artificial intelligent automatic processing system based on meta learning, aiming at the defects of the artificial intelligent automatic processing system.
The invention adopts the following technical scheme:
an artificial intelligent automatic processing system based on meta learning comprises a host terminal, an edge processing terminal, a meta learning terminal and an automatic processing terminal;
the edge processing terminal is used for preprocessing user data from a user and processing the user data into user information; the host terminal is used for being connected with the edge processing terminal and receiving user information from the edge processing terminal; the meta learning terminal and the automatic processing terminal are connected with the host terminal;
the meta learning terminal is used for generating meta learning adjustment information according to all user information in a preset period; the automatic processing terminal is used for communicating with the host terminal and processing user information of the host terminal according to a preset automatic processing instruction; the meta learning adjustment information is used to update the automatic processing instructions.
Optionally, the host terminal includes a central processing module and an information storage module, where the central processing module is used to communicate with the meta learning terminal and the automatic processing terminal; the information storage module is used for storing user information from the edge processing terminal.
Optionally, the edge processing terminal comprises a preprocessing module, a transmission ordering module and an edge communication module; the preprocessing module is used for preprocessing user data from a user to generate user information; the transmission ordering module is used for ordering all user information of the preprocessing module and generating transmission sequence information; the edge communication module is used for transmitting the user information to the information storage module according to the transmission sequence information.
Optionally, the meta learning terminal comprises an edge processing full-flow reading module, a host full-flow reading module and a meta learning module; the edge processing full-flow reading module is used for reading first full-flow information of the edge processing terminal for processing user data; the host full-flow reading module is used for reading second full-flow information of the user information processed by the host terminal; the meta learning module is used for generating meta learning adjustment information according to all user information, first full-flow information and second full-flow information in a preset period.
Optionally, the automatic processing terminal comprises an automatic processing instruction reading module and an automatic processing module; the automatic processing instruction reading module is used for reading a preset automatic processing instruction from the host terminal; the automatic processing module is used for processing the user information of the host terminal according to the corresponding automatic processing instruction.
Optionally, the transmission ordering module comprises a transmission order calculation sub-module and a transmission order information generation sub-module; the transmission sequence calculating submodule is used for calculating transmission sequence indexes of all user information; the transmission sequence information generation sub-module is used for generating transmission sequence information of all user information according to the transmission sequence index;
when the transmission sequence calculation sub-module works, the following equation is satisfied:
Figure SMS_1
Figure SMS_2
wherein ,
Figure SMS_8
a transmission order index indicating corresponding user information; />
Figure SMS_10
Representing a coefficient selection function based on the type of user information; />
Figure SMS_12
A capacity value representing user information; />
Figure SMS_14
A time base representing a number of received hours based on user data; />
Figure SMS_16
Indicating the number of hours after the user data corresponding to the user information is received by the preprocessing module; />
Figure SMS_18
A time base representing a preprocessing duration based on user data; />
Figure SMS_19
The number of hours of the user data preprocessing process corresponding to the user information is represented; />
Figure SMS_3
、/>
Figure SMS_6
and />
Figure SMS_7
Respectively representing different types of coefficients, which are set by a programmer according to experience; />
Figure SMS_9
Representing the type of user information as text type;/>
Figure SMS_11
The type of the user information is represented as a picture type; />
Figure SMS_13
The type of the user information is represented as a video type;
Figure SMS_15
the type of the user information is a text type and a picture type; />
Figure SMS_17
The type of the user information is represented as a picture type and a video type; />
Figure SMS_4
The type of the user information is a text type and a video type; />
Figure SMS_5
The type of the user information is a text type, a picture type and a video type; and the transmission sequence information generation sub-module is used for sequencing according to the numerical value of the transmission sequence index to generate the transmission sequence information of all user information.
Optionally, the meta learning module includes a meta learning adjustment value calculation sub-module and a meta learning adjustment information generation sub-module; the element learning adjustment value calculation submodule is used for calculating corresponding element learning adjustment values according to all user information, first full-flow information and second full-flow information in a preset period; the meta learning adjustment information generation sub-module is used for generating corresponding meta learning adjustment information according to the meta learning adjustment value;
when the meta learning adjustment value calculation submodule calculates, the following equation is satisfied:
Figure SMS_20
Figure SMS_21
Figure SMS_22
Figure SMS_23
Figure SMS_24
Figure SMS_25
Figure SMS_26
Figure SMS_27
Figure SMS_28
Figure SMS_29
wherein ,
Figure SMS_46
representing meta learning adjustment values corresponding to a preset period; />
Figure SMS_47
A first reference value selection function representing information based on all users in a preset period; />
Figure SMS_49
A comparison function for representing the quantity of various user information in a preset period; />
Figure SMS_51
Representing the firstA reference value empirically set by a programmer; />
Figure SMS_53
Representing from->
Figure SMS_55
Selecting the maximum value; />
Figure SMS_57
A comparison index for representing the user information of the text type in a preset period; />
Figure SMS_58
Representing +.>
Figure SMS_60
First->
Figure SMS_61
The number of the user information of the Chinese character type in the period of time is increased; />
Figure SMS_62
User information reference number representing the text type of each time period of the preset period; />
Figure SMS_63
A comparison index for representing the user information of the picture type in a preset period; />
Figure SMS_64
Representing +.>
Figure SMS_65
First->
Figure SMS_66
The number of the user information of the picture type in the time period is increased; />
Figure SMS_30
User information reference number representing the picture type of each time period of the preset period; />
Figure SMS_32
A comparison index for representing the user information of the video type in a preset period; />
Figure SMS_33
Representing +.>
Figure SMS_34
First->
Figure SMS_36
The new number of the user information of the video type in the time period is increased; />
Figure SMS_38
User information reference number representing video type of each time period of the preset period; />
Figure SMS_40
A second reference value selection function based on the first full-flow information; />
Figure SMS_42
A comparison function for representing the quantity of various user information in the first full-flow information; />
Figure SMS_44
Representing a second reference value empirically set by a programmer;
Figure SMS_45
representing from->
Figure SMS_48
Selecting the maximum value; />
Figure SMS_50
Representing the number of Chinese character type user information in the first ten user information in the preprocessing process in the first full-flow information; />
Figure SMS_52
Representing picture type user information in the first ten user information in the preprocessing process in the first full-flow informationNumber of pieces; />
Figure SMS_54
Representing the number of video type user information in the first ten user information in the preprocessing process in the first full-flow information; />
Figure SMS_56
A third reference value selection function based on the second full-flow information; />
Figure SMS_59
A comparison function for representing the quantity of various user information in the second full-flow information; />
Figure SMS_31
A third reference value is expressed and empirically set by a programmer; />
Figure SMS_35
Representing from->
Figure SMS_37
Selecting the maximum value; />
Figure SMS_39
Representing the number of Chinese character type user information in the first ten user information in the automatic processing process in the second full-flow information; />
Figure SMS_41
Representing the number of picture type user information in the first ten user information in the automatic processing process in the second full-flow information; />
Figure SMS_43
Representing the number of video type user information in the first ten user information in the automatic processing process in the second full-flow information;
when the meta learning adjustment information generation sub-module works, the following equation is satisfied:
Figure SMS_67
wherein ,
Figure SMS_68
representing a meta learning adjustment information selection function; />
Figure SMS_69
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: driving the automatic processing module to process 50% of the total number of text type user information in the next period, and then processing other types of user information; />
Figure SMS_70
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process all text type user information in the next period, and then process other types of user information; />
Figure SMS_71
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: driving the automatic processing module to process 50% of the total number of the picture type user information in the next period, and then processing other types of user information; />
Figure SMS_72
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process all the picture type user information in the next period, and then process other types of user information; />
Figure SMS_73
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process 50% of the total number of the video type user information in the next period, and then process other types of user information.
An artificial intelligence automatic processing method based on meta learning is applied to an artificial intelligence automatic processing system based on meta learning, and the automatic processing method comprises the following steps:
s1, preprocessing user data from a user, and processing the user data into user information;
s2, generating element learning adjustment information according to all user information in a preset period;
s3, processing the user information of the host terminal according to a preset automatic processing instruction;
s4, updating the automatic processing instruction.
The beneficial effects obtained by the invention are as follows:
1. the host terminal, the edge processing terminal, the meta learning terminal and the automatic processing terminal are arranged to be beneficial to preprocessing, optimizing user data and generating user information, and then the host terminal, the meta learning terminal and the automatic processing terminal are utilized to process the user information, so that the meta learning terminal and the automatic processing terminal continuously optimize the automatic processing process in the processing process, and further the working efficiency of an automatic processing system is improved;
2. the arrangement of the central processing module and the information storage module is beneficial to improving the communication efficiency and the space for storing user information, thereby improving the working efficiency of the automatic processing system;
3. the arrangement of the preprocessing module, the transmission sequencing module and the edge communication module is beneficial to improving the preprocessing efficiency, optimizing the transmission sequence and further improving the transmission efficiency, thereby improving the working efficiency of an automatic processing system;
4. the edge processing full-flow reading module, the host full-flow reading module and the meta learning module are arranged to be beneficial to efficiently and accurately generating meta learning adjustment information according to all user information, first full-flow information and second full-flow information in a preset period, so that an automatic processing process is better optimized, and the working efficiency of an automatic processing system is improved;
5. the automatic processing instruction reading module and the automatic processing module are arranged to be beneficial to further optimizing the automatic processing process, so that the working efficiency of an automatic processing system is improved;
6. the transmission sequence calculation sub-module and the transmission sequence information generation sub-module are arranged in cooperation with a transmission sequence index algorithm, so that the accuracy and the calculation efficiency of the transmission sequence index are improved, the accuracy and the generation efficiency of the transmission sequence information are further improved, and the working efficiency of an automatic processing system is further improved;
7. the setting of the meta learning adjustment value calculation sub-module and the meta learning adjustment information generation sub-module is matched with the meta learning adjustment value calculation algorithm, so that the accuracy of the meta learning adjustment information is further improved, the automatic processing process is more efficient, and the working efficiency of an automatic processing system is improved;
8. the meta-learning adjustment information generation unit and the processing sequence unit are arranged in cooperation with a processing sequence judgment algorithm, so that the generation efficiency and adjustment accuracy of the meta-learning adjustment information are further improved, and the working efficiency of an automatic processing system is improved.
For a further understanding of the nature and the technical aspects of the present invention, reference should be made to the following detailed description of the invention and the accompanying drawings, which are provided for purposes of reference only and are not intended to limit the invention.
Drawings
FIG. 1 is a schematic diagram of the overall structure of the present invention;
FIG. 2 is a schematic diagram of the distribution effect of an edge processing terminal and a host terminal according to the present invention;
FIG. 3 is a schematic flow chart of an artificial intelligence automatic processing method based on meta-learning in the invention;
fig. 4 is a schematic diagram of the overall structure of the meta learning module in the present invention.
Detailed Description
The following embodiments of the present invention are described in terms of specific examples, and those skilled in the art will appreciate the advantages and effects of the present invention from the disclosure herein. The invention is capable of other and different embodiments and its several details are capable of modification and variation in various respects, all without departing from the spirit of the present invention. The drawings of the present invention are merely schematic illustrations, and are not drawn to actual dimensions, and are stated in advance. The following embodiments will further illustrate the related art of the present invention in detail, but the disclosure is not intended to limit the scope of the present invention.
Embodiment one: the embodiment provides an artificial intelligence automatic processing system based on meta learning. Referring to fig. 1 and 2, an artificial intelligence automatic processing system based on meta learning includes a host terminal, an edge processing terminal, a meta learning terminal and an automatic processing terminal;
the edge processing terminal is used for preprocessing user data from a user and processing the user data into user information; the host terminal is used for being connected with the edge processing terminal and receiving user information from the edge processing terminal; the meta learning terminal and the automatic processing terminal are connected with the host terminal;
the meta learning terminal is used for generating meta learning adjustment information according to all user information in a preset period; the automatic processing terminal is used for communicating with the host terminal and processing user information of the host terminal according to a preset automatic processing instruction; the meta learning adjustment information is used to update the automatic processing instructions. The unit of the preset period may be, but is not limited to: seconds, minutes, hours, and days.
Optionally, the host terminal includes a central processing module and an information storage module, where the central processing module is used to communicate with the meta learning terminal and the automatic processing terminal; the information storage module is used for storing user information from the edge processing terminal.
Optionally, the edge processing terminal comprises a preprocessing module, a transmission ordering module and an edge communication module; the preprocessing module is used for preprocessing user data from a user to generate user information; the transmission ordering module is used for ordering all user information of the preprocessing module and generating transmission sequence information; the edge communication module is used for transmitting the user information to the information storage module according to the transmission sequence information.
Optionally, the meta learning terminal comprises an edge processing full-flow reading module, a host full-flow reading module and a meta learning module; the edge processing full-flow reading module is used for reading first full-flow information of the edge processing terminal for processing user data; the host full-flow reading module is used for reading second full-flow information of the user information processed by the host terminal; the meta learning module is used for generating meta learning adjustment information according to all user information, first full-flow information and second full-flow information in a preset period.
Optionally, the automatic processing terminal comprises an automatic processing instruction reading module and an automatic processing module; the automatic processing instruction reading module is used for reading a preset automatic processing instruction from the host terminal; the automatic processing module is used for processing the user information of the host terminal according to the corresponding automatic processing instruction.
It should be noted that, in this embodiment, the application scenario of the artificial intelligence automatic processing system based on meta learning may be, but is not limited to: server systems for factories, businesses, medical facilities, and educational facilities.
Optionally, the transmission ordering module comprises a transmission order calculation sub-module and a transmission order information generation sub-module; the transmission sequence calculating submodule is used for calculating transmission sequence indexes of all user information; the transmission sequence information generation sub-module is used for generating transmission sequence information of all user information according to the transmission sequence index;
when the transmission sequence calculation sub-module works, the following equation is satisfied:
Figure SMS_74
Figure SMS_75
wherein ,
Figure SMS_80
a transmission order index indicating corresponding user information; />
Figure SMS_82
Representing a coefficient selection function based on the type of user information; />
Figure SMS_85
A capacity value representing user information; />
Figure SMS_87
A time base representing a number of received hours based on user data; />
Figure SMS_89
Indicating the number of hours after the user data corresponding to the user information is received by the preprocessing module; />
Figure SMS_91
A time base representing a preprocessing duration based on user data; />
Figure SMS_92
The number of hours of the user data preprocessing process corresponding to the user information is represented; />
Figure SMS_76
、/>
Figure SMS_79
and />
Figure SMS_81
Respectively representing different types of coefficients, which are set by a programmer according to experience; />
Figure SMS_83
The type of the user information is a text type; />
Figure SMS_84
The type of the user information is represented as a picture type; />
Figure SMS_86
The type of the user information is represented as a video type;
Figure SMS_88
class representing user informationThe type is a text type and a picture type; />
Figure SMS_90
The type of the user information is represented as a picture type and a video type; />
Figure SMS_77
The type of the user information is a text type and a video type; />
Figure SMS_78
The type of the user information is a text type, a picture type and a video type; and the transmission sequence information generation sub-module is used for sequencing according to the numerical value of the transmission sequence index to generate the transmission sequence information of all user information.
Optionally, the meta learning module includes a meta learning adjustment value calculation sub-module and a meta learning adjustment information generation sub-module; the element learning adjustment value calculation submodule is used for calculating corresponding element learning adjustment values according to all user information, first full-flow information and second full-flow information in a preset period; the meta learning adjustment information generation sub-module is used for generating corresponding meta learning adjustment information according to the meta learning adjustment value;
when the meta learning adjustment value calculation submodule calculates, the following equation is satisfied:
Figure SMS_93
Figure SMS_94
Figure SMS_95
Figure SMS_96
Figure SMS_97
Figure SMS_98
Figure SMS_99
Figure SMS_100
Figure SMS_101
Figure SMS_102
wherein ,
Figure SMS_114
representing meta learning adjustment values corresponding to a preset period; />
Figure SMS_116
A first reference value selection function representing information based on all users in a preset period; />
Figure SMS_119
A comparison function for representing the quantity of various user information in a preset period; />
Figure SMS_120
A first reference value is expressed and empirically set by a programmer; />
Figure SMS_122
Representing from->
Figure SMS_125
Selecting the maximum value; />
Figure SMS_126
Representing a predetermined period of textA comparison index of word type user information; />
Figure SMS_128
Representing +.>
Figure SMS_131
First->
Figure SMS_133
The number of the user information of the Chinese character type in the period of time is increased; />
Figure SMS_135
User information reference number representing the text type of each time period of the preset period; />
Figure SMS_136
A comparison index for representing the user information of the picture type in a preset period; />
Figure SMS_137
Representing +.>
Figure SMS_138
First->
Figure SMS_139
The number of the user information of the picture type in the time period is increased; />
Figure SMS_104
User information reference number representing the picture type of each time period of the preset period; />
Figure SMS_106
A comparison index for representing the user information of the video type in a preset period; />
Figure SMS_108
Representing +.>
Figure SMS_110
First->
Figure SMS_113
The new number of the user information of the video type in the time period is increased; />
Figure SMS_115
User information reference number representing video type of each time period of the preset period; />
Figure SMS_117
A second reference value selection function based on the first full-flow information; />
Figure SMS_118
A comparison function for representing the quantity of various user information in the first full-flow information; />
Figure SMS_121
Representing a second reference value empirically set by a programmer;
Figure SMS_123
representing from->
Figure SMS_124
Selecting the maximum value; />
Figure SMS_127
Representing the number of Chinese character type user information in the first ten user information in the preprocessing process in the first full-flow information; />
Figure SMS_129
Representing the number of picture type user information in the first ten user information in the preprocessing process in the first whole flow information; />
Figure SMS_130
Representing the number of video type user information in the first ten user information in the preprocessing process in the first full-flow information; />
Figure SMS_132
A third reference value selection function based on the second full-flow information; />
Figure SMS_134
A comparison function for representing the quantity of various user information in the second full-flow information; />
Figure SMS_103
A third reference value is expressed and empirically set by a programmer; />
Figure SMS_105
Representing from->
Figure SMS_107
Selecting the maximum value; />
Figure SMS_109
Representing the number of Chinese character type user information in the first ten user information in the automatic processing process in the second full-flow information; />
Figure SMS_111
Representing the number of picture type user information in the first ten user information in the automatic processing process in the second full-flow information; />
Figure SMS_112
Representing the number of video type user information in the first ten user information in the automatic processing process in the second full-flow information;
when the meta learning adjustment information generation sub-module works, the following equation is satisfied:
Figure SMS_140
wherein ,
Figure SMS_141
representing a meta learning adjustment information selection function; />
Figure SMS_142
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: driving the automatic processing module to the next oneProcessing 50% of the total number of text type user information in the period, and then processing other types of user information; />
Figure SMS_143
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process all text type user information in the next period, and then process other types of user information; />
Figure SMS_144
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: driving the automatic processing module to process 50% of the total number of the picture type user information in the next period, and then processing other types of user information; />
Figure SMS_145
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process all the picture type user information in the next period, and then process other types of user information; />
Figure SMS_146
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process 50% of the total number of the video type user information in the next period, and then process other types of user information.
An artificial intelligence automatic processing method based on meta learning is applied to an artificial intelligence automatic processing system based on meta learning as described above, and is shown in combination with fig. 3, the automatic processing method includes:
s1, preprocessing user data from a user, and processing the user data into user information;
s2, generating element learning adjustment information according to all user information in a preset period;
s3, processing the user information of the host terminal according to a preset automatic processing instruction;
s4, updating the automatic processing instruction.
Embodiment two: the embodiment includes the whole content of the first embodiment, and provides an artificial intelligent automatic processing system based on meta learning, and referring to fig. 4, the meta learning adjustment information generation sub-module includes a meta learning adjustment information generation unit and a processing sequence unit; the meta learning adjustment information generation unit is used for generating corresponding meta learning adjustment information according to the meta learning adjustment value; the processing sequence unit is used for adding processing sequence information to the meta learning adjustment information.
When the processing sequence unit works, judging according to the quantity of meta-learning adjustment information and other types of user information:
Figure SMS_147
wherein ,
Figure SMS_148
representing a processing sequence judgment function; />
Figure SMS_149
On the premise of driving the automatic processing module to process 50% of the total number of the text type user information before processing other types of user information in the next cycle, after processing 50% of the total number of the text type user information, processing the picture type user information before processing the video type user information, and finally processing the remaining 50% of the total number of the text type user information; />
Figure SMS_150
On the premise of driving the automatic processing module to process 50% of the total number of the text type user information and then process other types of user information in the next period, after processing 50% of the total number of the text type user information, processing the video type user information and then processing the picture type user information, and finally processing the remaining 50% of the total number of the text type user information; />
Figure SMS_151
On the premise of driving the automatic processing module to process all text type user information and then process other types of user information in the next period, after 100% of the total number of the text type user information is processed, processing the picture type user information and then processing the video type user information; />
Figure SMS_152
On the premise of driving the automatic processing module to process all text type user information and then process other types of user information in the next period, after 100% of the total number of the text type user information is processed, processing the video type user information and then processing the picture type user information;
Figure SMS_153
on the premise of driving the automatic processing module to process 50% of the total number of the picture type user information and then process other types of user information in the next period, after 50% of the total number of the picture type user information is processed, processing the text type user information and then processing the video type user information, and finally processing the remaining 50% of the total number of the picture type user information; />
Figure SMS_154
On the premise of driving the automatic processing module to process 50% of the total number of the picture type user information and then process other types of user information in the next period, after processing 50% of the total number of the picture type user information, processing the video type user information and then processing the text type user information, and finally processing the remaining 50% of the total number of the picture type user information; />
Figure SMS_155
Representing that the automatic processing module is driven to process all the picture type user information and then process other types of user information in the next period, and then process the text type user information after processing 100% of the total number of the picture type user informationProcessing the video type user information;
Figure SMS_156
on the premise of driving the automatic processing module to process all the picture type user information and then process other types of user information in the next period, after 100% of the total number of the picture type user information is processed, the video type user information is processed and then the text type user information is processed;
Figure SMS_157
on the premise of driving the automatic processing module to process 50% of the total number of the video type user information and then process other types of user information in the next period, after processing 50% of the total number of the video type user information, processing the text type user information and then processing the picture type user information, and finally processing the remaining 50% of the total number of the video type user information; />
Figure SMS_158
On the premise of driving the automatic processing module to process 50% of the total number of the video type user information and then process other types of user information in the next period, after processing 50% of the total number of the video type user information, processing the picture type user information and then the text type user information, and finally processing the remaining 50% of the total number of the video type user information; />
Figure SMS_159
On the premise of driving the automatic processing module to process all video type user information and then process other types of user information in the next period, after 100% of the total number of the video type user information is processed, processing text type user information and then processing picture type user information;
Figure SMS_160
representing the drive of the automatic processing module to process all video type user information and then other types of user information in the next cycleOn the premise of processing 100% of the total number of the video type user information, the picture type user information is processed before the text type user information is processed.
The foregoing disclosure is only a preferred embodiment of the present invention and is not intended to limit the scope of the invention, so that all equivalent technical changes made by the application of the present invention and the accompanying drawings are included in the scope of the invention, and in addition, the elements in the invention can be updated with the technical development.

Claims (2)

1. An artificial intelligent automatic processing system based on meta learning is characterized by comprising a host terminal, an edge processing terminal, a meta learning terminal and an automatic processing terminal;
the edge processing terminal is used for preprocessing user data from a user and processing the user data into user information; the host terminal is used for being connected with the edge processing terminal and receiving user information from the edge processing terminal; the meta learning terminal and the automatic processing terminal are connected with the host terminal;
the meta learning terminal is used for generating meta learning adjustment information according to all user information in a preset period; the automatic processing terminal is used for communicating with the host terminal and processing user information of the host terminal according to a preset automatic processing instruction; the meta learning adjustment information is used for updating an automatic processing instruction;
the host terminal comprises a central processing module and an information storage module, wherein the central processing module is used for communicating with the meta learning terminal and the automatic processing terminal; the information storage module is used for storing user information from the edge processing terminal;
the edge processing terminal comprises a preprocessing module, a transmission ordering module and an edge communication module; the preprocessing module is used for preprocessing user data from a user to generate user information; the transmission ordering module is used for ordering all user information of the preprocessing module and generating transmission sequence information; the edge communication module is used for transmitting user information to the information storage module according to the transmission sequence information;
the meta learning terminal comprises an edge processing full-flow reading module, a host full-flow reading module and a meta learning module; the edge processing full-flow reading module is used for reading first full-flow information of the edge processing terminal for processing user data; the host full-flow reading module is used for reading second full-flow information of the user information processed by the host terminal; the element learning module is used for generating element learning adjustment information according to all user information, first full-flow information and second full-flow information in a preset period;
the automatic processing terminal comprises an automatic processing instruction reading module and an automatic processing module; the automatic processing instruction reading module is used for reading a preset automatic processing instruction from the host terminal; the automatic processing module is used for processing the user information of the host terminal according to the corresponding automatic processing instruction;
the transmission ordering module comprises a transmission order calculation sub-module and a transmission order information generation sub-module; the transmission sequence calculating submodule is used for calculating transmission sequence indexes of all user information; the transmission sequence information generation sub-module is used for generating transmission sequence information of all user information according to the transmission sequence index;
when the transmission sequence calculation sub-module works, the following equation is satisfied:
Figure QLYQS_1
Figure QLYQS_2
wherein ,
Figure QLYQS_8
a transmission order index indicating corresponding user information; />
Figure QLYQS_9
Representation baseSelecting a function from coefficients of the user information type; />
Figure QLYQS_12
A capacity value representing user information; />
Figure QLYQS_14
A time base representing a number of received hours based on user data; />
Figure QLYQS_17
Indicating the number of hours after the user data corresponding to the user information is received by the preprocessing module; />
Figure QLYQS_18
A time base representing a preprocessing duration based on user data; />
Figure QLYQS_19
The number of hours of the user data preprocessing process corresponding to the user information is represented; />
Figure QLYQS_3
、/>
Figure QLYQS_5
and />
Figure QLYQS_7
Respectively representing different types of coefficients, which are set by a programmer according to experience; />
Figure QLYQS_10
The type of the user information is a text type;
Figure QLYQS_11
the type of the user information is represented as a picture type; />
Figure QLYQS_13
The type of the user information is represented as a video type;
Figure QLYQS_15
the type of the user information is a text type and a picture type; />
Figure QLYQS_16
The type of the user information is represented as a picture type and a video type; />
Figure QLYQS_4
The type of the user information is a text type and a video type; />
Figure QLYQS_6
The type of the user information is a text type, a picture type and a video type; the transmission sequence information generation sub-module is used for sequencing according to the numerical value of the transmission sequence index to generate transmission sequence information of all user information;
the meta learning module comprises a meta learning adjustment value calculation sub-module and a meta learning adjustment information generation sub-module; the element learning adjustment value calculation submodule is used for calculating corresponding element learning adjustment values according to all user information, first full-flow information and second full-flow information in a preset period; the meta learning adjustment information generation sub-module is used for generating corresponding meta learning adjustment information according to the meta learning adjustment value;
when the meta learning adjustment value calculation submodule calculates, the following equation is satisfied:
Figure QLYQS_20
Figure QLYQS_21
Figure QLYQS_22
Figure QLYQS_23
Figure QLYQS_24
Figure QLYQS_25
Figure QLYQS_26
Figure QLYQS_27
Figure QLYQS_28
Figure QLYQS_29
wherein ,
Figure QLYQS_41
representing meta learning adjustment values corresponding to a preset period; />
Figure QLYQS_43
A first reference value selection function representing information based on all users in a preset period; />
Figure QLYQS_46
A comparison function for representing the quantity of various user information in a preset period; />
Figure QLYQS_48
A first reference value is expressed and empirically set by a programmer; />
Figure QLYQS_49
Representing from->
Figure QLYQS_51
Selecting the maximum value; />
Figure QLYQS_54
A comparison index for representing the user information of the text type in a preset period; />
Figure QLYQS_56
Representing +.>
Figure QLYQS_58
First->
Figure QLYQS_61
The number of the user information of the Chinese character type in the period of time is increased; />
Figure QLYQS_62
User information reference number representing the text type of each time period of the preset period; />
Figure QLYQS_63
A comparison index for representing the user information of the picture type in a preset period; />
Figure QLYQS_64
Representing +.>
Figure QLYQS_65
First->
Figure QLYQS_66
The number of the user information of the picture type in the time period is increased; />
Figure QLYQS_30
Picture representing each time period of preset periodThe type of user information refers to the newly added number; />
Figure QLYQS_33
A comparison index for representing the user information of the video type in a preset period; />
Figure QLYQS_35
Representing +.>
Figure QLYQS_37
First->
Figure QLYQS_40
The new number of the user information of the video type in the time period is increased; />
Figure QLYQS_42
User information reference number representing video type of each time period of the preset period; />
Figure QLYQS_44
A second reference value selection function based on the first full-flow information; />
Figure QLYQS_45
A comparison function for representing the quantity of various user information in the first full-flow information; />
Figure QLYQS_47
Representing a second reference value empirically set by a programmer;
Figure QLYQS_50
representing from->
Figure QLYQS_52
Selecting the maximum value; />
Figure QLYQS_53
Representing the first ten user messages in the preprocessing process in the first full-flow informationThe number of information of the user of the type of the Chinese information; />
Figure QLYQS_55
Representing the number of picture type user information in the first ten user information in the preprocessing process in the first whole flow information; />
Figure QLYQS_57
Representing the number of video type user information in the first ten user information in the preprocessing process in the first full-flow information; />
Figure QLYQS_59
A third reference value selection function based on the second full-flow information; />
Figure QLYQS_60
A comparison function for representing the quantity of various user information in the second full-flow information; />
Figure QLYQS_31
A third reference value is expressed and empirically set by a programmer; />
Figure QLYQS_32
Representing from->
Figure QLYQS_34
Selecting the maximum value; />
Figure QLYQS_36
Representing the number of Chinese character type user information in the first ten user information in the automatic processing process in the second full-flow information; />
Figure QLYQS_38
Representing the number of picture type user information in the first ten user information in the automatic processing process in the second full-flow information; />
Figure QLYQS_39
Representing the number of video type user information in the first ten user information in the automatic processing process in the second full-flow information;
when the meta learning adjustment information generation sub-module works, the following equation is satisfied:
Figure QLYQS_67
wherein ,
Figure QLYQS_68
representing a meta learning adjustment information selection function; />
Figure QLYQS_69
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: driving the automatic processing module to process 50% of the total number of text type user information in the next period, and then processing other types of user information; />
Figure QLYQS_70
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process all text type user information in the next period, and then process other types of user information; />
Figure QLYQS_71
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: driving the automatic processing module to process 50% of the total number of the picture type user information in the next period, and then processing other types of user information; />
Figure QLYQS_72
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process all the picture type user information in the next period, and then process other types of user information; />
Figure QLYQS_73
The representation element learning adjustment information is used for adjusting the corresponding automatic processing instruction to: the automatic processing module is driven to process 50% of the total number of the video type user information in the next period, and then process other types of user information.
2. An artificial intelligence automatic processing method based on meta learning, which is applied to an artificial intelligence automatic processing system based on meta learning as set forth in claim 1, wherein the automatic processing method includes:
s1, preprocessing user data from a user, and processing the user data into user information;
s2, generating element learning adjustment information according to all user information in a preset period;
s3, processing the user information of the host terminal according to a preset automatic processing instruction;
s4, updating the automatic processing instruction.
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