Intelligent management method and system for information communication of Internet of Things
By intelligently judging the status of the receiver and reasonably scheduling data transmission, the problem of overloading of processing capabilities when the receiver is busy is solved, and the efficiency and response speed of the Internet of Things system are improved.
Patent Information
- Application Number
- CN202510520273.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-24
- Publication Date
- 2025-07-08
AI Technical Summary
In IoT information communication, the recipient forcibly receiving target information in a busy state will lead to overload processing capabilities, affecting the reception and processing of other important information, and reducing system efficiency and response speed.
By intelligently judging the real-time status of the receiver, delaying the reception of target information when busy, or immediately starting to receive target information when non-busy, reasonably scheduling data transmission, ensuring priority processing and timely response to key data.
It avoids unnecessary data transmission from taking up valuable resources, improves the overall efficiency and response speed of the system, and ensures priority processing and timely response of key data.
Smart Images

Figure CN120281720A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of the Internet of Things, and particularly to an intelligent management method and system for Internet of Things information communication. Background Art
[0002] Currently, during the process of Internet of Things information communication, it is usually defaulted that the receiver starts receiving the target information transmitted by the sender immediately when it is ready. However, when the receiver is in a busy receiving state and does not urgently need to use this target information at present, if forced to receive at this time, it will not only cause further overload of the receiver's processing capacity, but also may affect its reception and processing of other important information, thereby affecting the efficiency and response speed of the overall system.
[0003] Therefore, the Internet of Things system should intelligently judge the real-time state of the receiver, reasonably schedule data transmission, so as to avoid unnecessary data transmission occupying precious resources and ensure that key data can be preferentially processed and timely responded to. Summary of the Invention
[0004] One of the purposes of the present invention is to provide an intelligent management method and system for Internet of Things information communication to solve the problems in the background art.
[0005] An intelligent management method for Internet of Things information communication provided by an embodiment of the present invention includes:
[0006] When the receiver of Internet of Things information communication is ready to receive the target information, if it is receiving busily and the receiving and using time can be surely predicted, the receiver is enabled to complete the priority delayed reception of the target information before the receiving and using time;
[0007] Otherwise, the receiver is enabled to start receiving the target information immediately.
[0008] Optionally, the step of surely predicting the receiving and using time includes:
[0009] When there is a supporting use of the target information in the information use plan of the receiver, the time of the earliest existing supporting use plan is used as the surely predicted receiving and using time;
[0010] Otherwise, the information use plan is predicted and expanded;
[0011] When there is a supporting use in the predicted and expanded information use plan, a fault tolerance duration is planned, and the time before the fault tolerance duration of the time of the earliest existing supporting use plan is used as the surely predicted receiving and using time;
[0012] Otherwise, the sure prediction fails.
[0013] Optionally, the step of planning the fault tolerance duration includes:
[0014] Based on the fault tolerance costs at different times before the time of the usage plan that supports the earliest existing usage in the information usage plan after prediction expansion, plot the fault tolerance cost - time curve;
[0015] Take the peak value of the wave with a complete trough section after the last one in the fault tolerance cost - time curve as the fault tolerance target;
[0016] Based on the correction coefficient of the fault tolerance target, correct the remaining duration after the fault tolerance target in the fault tolerance cost - time curve to obtain the fault tolerance duration.
[0017] Optionally, the quantification steps of the fault tolerance cost include:
[0018] When the remaining duration after a certain moment in the corrected fault tolerance cost - time curve exceeds the duration required for receiving the target information, use the low threshold as the fault tolerance cost at this moment;
[0019] Otherwise, use the weighted calculation sum of the difference between the remaining duration after the moment in the corrected fault tolerance cost - time curve and the duration required for receiving, the irrelevance degree between the local information usage plan and the target information within this remaining duration, and the importance degree of the target information as the fault tolerance cost at this moment.
[0020] Optionally, before the receiving party is ready to receive the target information, if a game for receiving the target information is carried out between the receiving party and the sender of the target information, game assistance is performed.
[0021] Optionally, the steps for game assistance include:
[0022] Based on the game history between the receiving party and the sender, plan the optimal game assistance rhythm in real time;
[0023] Based on the optimal game assistance rhythm, perform game assistance for the future game between the receiving party and the sender.
[0024] Optionally, the steps for planning the optimal game assistance rhythm include:
[0025] Based on the game element sets in each game stage in the game history, match multiple game assistance rules;
[0026] Sort each game assistance rule according to the combined support degree of the game types in the last i game stages in the game history for their respective executions from large to small to obtain an auxiliary rule sequence;
[0027] Assign execution timing conditions to each game assistance rule in the auxiliary rule sequence; among them, the execution timing condition of the j - th game assistance rule in the auxiliary rule sequence is the combined corresponding preset timing condition of the first j game assistance rules;
[0028] The auxiliary rule sequence after assigning an execution timing condition to each game auxiliary rule is used as the optimal game auxiliary rhythm;
[0029] Among them, the value-taking steps of i are as follows:
[0030] Obtain the first target value of the minimum value of i when the type combination of the game types in the subsequent i game stages is the same as the standard type combination;
[0031] Obtain the second target value of i when the sum of the type weights of the game types in the subsequent i game stages is closest to the weight value sum threshold;
[0032] Take the larger value of the first target value and the second target value as the value of i.
[0033] Optionally, the matching steps of multiple game auxiliary rules include:
[0034] Generate a rule matching factor based on the game element set of each game stage;
[0035] Match multiple game auxiliary rules based on the rule matching factor.
[0036] An Internet of Things information communication intelligent management system provided by an embodiment of the present invention includes:
[0037] A first Internet of Things information communication module, configured to, when the receiving party of Internet of Things information communication is ready to receive target information, if it is receiving busily and the receiving usage time is surely predicted, enable the receiving party to complete the priority delayed reception of the target information before the receiving usage time;
[0038] A second Internet of Things information communication module, configured to, otherwise, enable the receiving party to immediately start receiving the target information.
[0039] Optionally, the surely predicting step of the receiving usage time includes:
[0040] When there is a supporting use of the target information in the information usage plan of the receiving party, use the usage plan time of the earliest existing supporting use as the surely predicted receiving usage time;
[0041] Otherwise, predict and expand the information usage plan;
[0042] When there is a supporting use in the predicted and expanded information usage plan, plan a fault tolerance duration, and use the time before the usage plan time of the earliest existing supporting use by the fault tolerance duration as the surely predicted receiving usage time;
[0043] Otherwise, the sure prediction fails.
[0044] The present invention has achieved the following beneficial effects:
[0045] When the receiving party is busy receiving and can accurately predict its receiving and using time, the receiving party is made to complete the priority delayed reception of the target information before the receiving and using time. Otherwise, the receiving party is made to immediately start receiving the target information, avoiding further overloading of the receiving party's processing capacity due to forced reception of the target information, and more importantly, avoiding affecting its reception and processing of other important information, improving the overall system efficiency and response speed, realizing intelligent judgment of the receiving party's real-time state, reasonably scheduling data transmission, thereby avoiding unnecessary data transmission from occupying valuable resources and ensuring that key data can be preferentially processed and timely responded to.
[0046] Other features and advantages of the present invention will be described in the following specification, and in part will be obvious from the specification, or will be understood by implementing the present invention. The objectives and other advantages of the present invention can be achieved and obtained by the structures specifically pointed out in the written specification and the drawings.
[0047] The technical solutions of the present invention will be further described in detail below through the drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS
[0048] The drawings are used to provide a further understanding of the present invention, and constitute a part of the specification, and together with the embodiments of the present invention are used to explain the present invention, and do not constitute a limitation to the present invention. In the drawings:
[0049] Figure 1 It is a schematic diagram of an Internet of Things information communication intelligent management method in an embodiment of the present invention;
[0050] Figure 2 It is another schematic diagram of an Internet of Things information communication intelligent management method in an embodiment of the present invention;
[0051] Figure 3 It is yet another schematic diagram of an Internet of Things information communication intelligent management method in an embodiment of the present invention;
[0052] Figure 4 It is a schematic diagram of an Internet of Things information communication intelligent management system in an embodiment of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0053] The following describes the preferred embodiments of the present invention with reference to the drawings. It should be understood that the preferred embodiments described herein are only used to explain and illustrate the present invention, and are not used to limit the present invention.
[0054] Embodiment 1:
[0055] The embodiment of the present invention provides an Internet of Things information communication intelligent management method, as Figure 1 shown, including:
[0056] S1. When the receiver of Internet of Things information communication is ready to receive the target information, if it is receiving busily and can definitely predict its receiving and using time, the receiver is made to complete the priority delayed reception of the target information before the receiving and using time.
[0057] S2. Otherwise, the receiver is made to immediately start receiving the target information.
[0058] Receiving busily means that the receiver is currently receiving a large amount of information and is in a busy state. The receiving and using time refers to the time when the receiver will use the target information in the future after receiving it. Definitely predicting means that it can be determined during the prediction process that the receiver will use the target information at the receiving and using time. Completing the priority delayed reception of the target information before the receiving and using time means giving priority to delaying the reception of the target information, first receiving other information that needs to be received as soon as possible, and only ensuring that the target information is received before the receiving and using time. If the receiver is receiving busily and can definitely predict its receiving and using time, the receiver is made to complete the priority delayed reception of the target information before the receiving and using time. On the premise of ensuring that it does not affect the receiver's use of the target information at the receiving and using time, the receiving resources are vacated as much as possible for receiving other information that needs to be received as soon as possible. Otherwise (the receiver is not receiving busily or fails to definitely predict the receiving and using time), the receiver is made to immediately start receiving the target information.
[0059] In the present invention, if the receiver is receiving busily and can definitely predict its receiving and using time, the receiver is made to complete the priority delayed reception of the target information before the receiving and using time. Otherwise, the receiver is made to immediately start receiving the target information, avoiding forced reception of the target information resulting in further overload of the receiver's processing capacity, and more avoiding affecting its reception and processing of other important information, improving the efficiency and response speed of the overall system, realizing intelligent judgment of the real-time state of the receiver, reasonably scheduling data transmission, thereby avoiding unnecessary data transmission occupying precious resources, and ensuring that key data can be preferentially processed and timely responded to.
[0060] Embodiment 2:
[0061] In one embodiment, as Figure 2 shown, in S1, the step of definitely predicting the receiving and using time includes:
[0062] S11. When there is a supporting use of the target information in the information use plan of the receiver, take the use plan time of the earliest existing supporting use as the definitely predicted receiving and using time;
[0063] S12. Otherwise, predict and expand the information use plan;
[0064] S13. When there is a supported usage in the predicted expanded information usage plan, plan the fault tolerance duration, and use the time before the fault tolerance duration before the usage plan time of the earliest existing supported usage as the determined predicted receiving usage time;
[0065] S14. Otherwise, the determined prediction fails.
[0066] The information usage plan is a plan for the recipient to independently plan to use different information in the future, including multiple information usage purposes and their usage plan times, etc. The supported usage refers to the usage supported by the target information. When there is a supported usage in the information usage plan, it means that the recipient will clearly need to use the target information in the future. Use the usage plan time of the earliest existing supported usage as the determined predicted receiving usage time.
[0067] Otherwise, it means that the recipient will not clearly need to use the target information in the future. Predict and expand the information usage plan. When predicting and expanding, use an artificial intelligence model (obtained by machine learning training on a large number of information usage plans marked with possible new information usage plans until convergence) to predict the possible new information usage plans of the recipient based on the information usage plan, and supplement them into the information usage plan to achieve prediction expansion. The fault tolerance duration is the duration between the time when the recipient temporarily wants to use the target information system and the usage plan time, which is the latest time that can fully respond before the usage plan time of the earliest existing supported usage in the predicted expanded information usage plan.
[0068] Due to certain errors in the predicted expanded information usage plan, therefore, plan the fault tolerance duration, and use the time before the fault tolerance duration before the usage plan time of the earliest existing supported usage as the determined predicted receiving usage time, so as to achieve a fault-tolerant determined prediction of the receiving usage time. Otherwise (there is no supported usage in the predicted expanded information usage plan), the determined prediction fails.
[0069] In the embodiment of the present invention, when determining the predicted receiving usage time, if it is impossible to determine that the recipient will clearly need to use the target information in the future, predict and expand the information usage plan. When there is a supported usage in the predicted expanded information usage plan, plan the fault tolerance duration, and use the time before the fault tolerance duration before the usage plan time of the earliest existing supported usage as the determined predicted receiving usage time, so as to achieve a fault-tolerant determined prediction of the receiving usage time, which greatly improves the suitability and accuracy of using the determined predicted receiving usage time as the subsequent priority delay receiving completion time limit, and improves the applicability of the system.
[0070] Embodiment 3:
[0071] In one embodiment, as Figure 3 shown, in S13, the steps for planning the fault tolerance duration include:
[0072] S131. Draw a fault tolerance cost - time curve based on the fault tolerance costs at different times before the time of the usage plan corresponding to the earliest existing supported usage in the information usage plan after prediction - based expansion;
[0073] S132. Take the peak value of the wave that has a complete trough segment after the last one in the fault tolerance cost - time curve as the fault tolerance target;
[0074] S133. Based on the correction coefficient of the fault tolerance target, correct the remaining duration after the fault tolerance target in the fault tolerance cost - time curve to obtain the fault tolerance duration.
[0075] The fault tolerance cost refers to the magnitude of the error cost that will be incurred if the system cannot fully respond when the receiving party temporarily wants to use the target information at a certain moment. In the fault tolerance cost - time curve, the horizontal axis is time and the vertical axis is the fault tolerance cost. When drawing, according to the fault tolerance cost at each moment, find the corresponding coordinate points in the curve, and connect the coordinate points in sequence to complete the curve drawing.
[0076] The peak value refers to the value located at the peak of the wave. The complete trough segment refers to the curve segment that starts from the mid - point of one wave peak, descends to the trough, and then ascends to the mid - point of the next wave peak. When there is a complete trough segment after the peak value, it means that the fault tolerance cost continuously rises before the time of the peak value, rises to the peak value, then continuously decreases to the trough value and then rises. If the priority delay receiving completion time limit is set at the moment of this peak value, it can ensure that the fault tolerance cost remains at a relatively low level for the longest time afterwards; secondly, in order to make the setting of this time limit as close as possible to the time of the usage plan corresponding to the earliest existing supported usage in the information usage plan after prediction - based expansion, the peak value of the wave that has a complete trough segment after the last one in the fault tolerance cost - time curve is taken as the fault tolerance target.
[0077] The remaining duration after the fault tolerance target in the fault tolerance cost - time curve is the duration between the moment of the fault tolerance target and the time of the usage plan corresponding to the earliest existing supported usage in the information usage plan after prediction - based expansion (the end point of the curve is the coordinate point of the fault tolerance cost corresponding to this time). The correction coefficient is used to correct this remaining duration. It is a coefficient greater than 1 and has a positive correlation with the size of the fault tolerance target (the larger the fault tolerance target, the greater the fault tolerance cost at the moment of the fault tolerance target, the more necessary it is to appropriately expand the remaining duration and set the priority delay receiving completion time limit earlier). Finally, multiply the correction coefficient by the remaining duration, and take the product of the two as the fault tolerance duration.
[0078] When planning the fault tolerance duration in the embodiments of the present invention, the fault tolerance costs at different times before the usage plan time of the earliest existing supported usage in the predicted and expanded information usage plan are introduced. Based on this, a fault tolerance cost - time curve is plotted. Considering the characteristics of the curve comprehensively, the peak value of the wave crest segment with a complete trough after the last one in the fault tolerance cost - time curve is used as the fault tolerance target, and the fault tolerance target is determined quickly. Finally, a correction coefficient is introduced to correct the remaining duration after the fault tolerance target in the fault tolerance cost - time curve to obtain the fault tolerance duration, which greatly improves the rationality, accuracy, and efficiency of the fault tolerance duration planning.
[0079] Embodiment 4:
[0080] In one embodiment, in S131, the quantification steps of the fault tolerance cost include:
[0081] S1311. When the remaining duration after a certain moment in the corrected fault tolerance cost - time curve exceeds the required duration for receiving the target information, use the low threshold as the fault tolerance cost at this moment;
[0082] S1312. Otherwise, use the weighted calculation sum of the difference between the remaining duration after the moment in the corrected fault tolerance cost - time curve and the required duration for receiving, the irrelevance degree between the local information usage plan and the target information within this remaining duration, and the importance degree of the target information as the fault tolerance cost at this moment.
[0083] The required duration for receiving the target information is the duration required for the receiver to start receiving the target information until the completion of receiving the target information, which can be obtained by dividing the size of the target information by the average information receiving rate of the current receiver. The low threshold is a preset threshold representing a relatively low fault tolerance cost. When the remaining duration after a certain moment in the corrected fault tolerance cost - time curve exceeds the required duration for receiving the target information, it indicates that the fault tolerance cost is relatively small, and the low threshold is used as the fault tolerance cost at this moment.
[0084] The larger the difference between the remaining duration and the required duration for receiving, the later the receiver needs to temporarily use the target information. If the receiver starts receiving the target information, the longer the waiting time, the greater the represented fault tolerance cost. The local information usage plan is the local information usage plan corresponding to this remaining duration in the information usage plan. The greater the irrelevance degree (the degree of non - correlation between the two) between it and the target information, if the user waits at this time and does more work unrelated to using the target information, the greater the represented fault tolerance cost. The greater the importance degree (the degree of importance of the target information) of the target information, if the user waits at this time and delays using the target information more, the greater the represented fault tolerance cost. Therefore, the weighted calculation sum of these three is used as the fault tolerance cost at this moment. Specifically, weight coefficients are assigned to these three (the weight coefficients are preset, and when assigning, the weight coefficients are multiplied by the corresponding values). After assignment, the respective assignment results (multiplication results) of the three are added together.
[0085] In the embodiment of the present invention, when quantifying the fault tolerance cost, when the remaining duration after a certain moment in the corrected fault tolerance cost-time curve exceeds the duration required for receiving the target information, the low threshold is used as the fault tolerance cost at this moment. Otherwise, the fault tolerance cost is quantified comprehensively from three dimensions: the difference between the remaining duration and the duration required for receiving, the irrelevance degree between the local information usage plan and the target information within the remaining duration, and the importance degree of the target information. This improves the accuracy of quantifying the fault tolerance cost, and more importantly, improves the accuracy of using it for drawing the fault tolerance cost-time curve, thus enhancing the applicability of the system.
[0086] Embodiment 5:
[0087] In one embodiment, before the receiving party is ready to receive the target information, if a game for receiving the target information is carried out between the receiving party and the sending party of the target information, game assistance is provided.
[0088] Before the receiving party is ready to receive the target information, if a game for receiving the target information is carried out between the receiving party and the sending party of the target information, it will seriously affect the efficiency of the receiving party to determine the readiness to receive the target information, thus reducing the overall working efficiency of the system. Therefore, in the embodiment of the present invention, game assistance is provided at this time to assist in quickly obtaining the result of the game, avoiding affecting the efficiency of the receiving party to determine the readiness to receive the target information, and enhancing the working efficiency of the system.
[0089] Embodiment 6:
[0090] In one embodiment, the steps of providing game assistance include:
[0091] Based on the game history between the receiving party and the sending party, plan the optimal game assistance rhythm in real time;
[0092] Based on the optimal game assistance rhythm, provide game assistance for the future game between the receiving party and the sending party.
[0093] When providing game assistance, based on the game history between the receiving party and the sending party, plan the optimal game assistance rhythm in real time, which indicates how to appropriately provide game assistance for the future game between the receiving party and the sending party. Finally, based on the optimal game assistance rhythm, provide game assistance for the future game between the receiving party and the sending party.
[0094] Embodiment 7:
[0095] In one embodiment, the steps of planning the optimal game assistance rhythm include:
[0096] Based on the game element sets of each game stage in the game history, match multiple game assistance rules;
[0097] Sort the game auxiliary rules in descending order according to the combined support for their respective executions by the game types in the last i game stages in the game history to obtain an auxiliary rule sequence;
[0098] Assign execution timing conditions to each game auxiliary rule in the auxiliary rule sequence; among them, the execution timing condition for the j-th game auxiliary rule in the auxiliary rule sequence is the combined corresponding preset timing condition for the first j game auxiliary rules;
[0099] Take the auxiliary rule sequence after each game auxiliary rule has been assigned an execution timing condition as the optimal game auxiliary rhythm;
[0100] Among them, the value-taking steps of i are as follows:
[0101] Obtain the first target value of the minimum value of i when the type combination of the game types in the last i game stages is the same as the standard type combination;
[0102] Obtain the second target value of i when the sum of the type weights of the game types in the last i game stages is closest to the weight value sum threshold;
[0103] Take the larger of the first target value and the second target value as the value of i.
[0104] The game history is divided into multiple game stages, and each game stage has a game element set and a game type. The game elements in the game element set at least include: whether the target information is credible, whether the target information is complete, the timeliness of the target information, the redundancy of the target information, etc. The game types at least include: static game (the receiver and the sender make decisions at the same time and there is no information exchange during the decision-making), dynamic game, etc. (the receiver and the sender make decisions at multiple time points and rely on information exchange during the decision-making), etc.
[0105] The game element sets of each game stage can reflect what kind of game assistance is needed by the receiver and the sender during the game. Therefore, based on them, multiple game auxiliary rules are matched, and the game auxiliary rules are the rules for performing game assistance.
[0106] The support degree of the game types in the last i game stages for the auxiliary game rules refers to the support degree of the game types in the last i game stages in supporting the subsequent execution of the auxiliary game rules for game assistance in the dimension of suitability. The technical personnel can pre-set the support degree of the game types in different game stages for the execution of different auxiliary game rules (for example: the auxiliary rule sequence is to perform game assistance in the next dynamic game stage, and the game types in the last i game stages are all dynamic games, then the next dynamic game stage will not come too long, and the corresponding support degree is set to a higher value). Sort the auxiliary game rules from large to small according to the support degree to form an auxiliary rule sequence, so that the auxiliary game rules with greater support degrees have higher priority in waiting for the execution opportunity to be triggered.
[0107] In the auxiliary rule sequence, the execution timing condition of the jth game auxiliary rule is the preset timing condition corresponding to the first j game auxiliary rules. The preset timing condition is the condition triggered by the execution timing of the jth game auxiliary rule represented by the first j game auxiliary rules. For example, when j=2, the first game auxiliary rule is to send the corresponding sender's trusted certificate to the recipient to prove that the credibility of the target information is sufficient. The second game auxiliary rule is to send the historical information previously received from the sender to the recipient to further prove that the credibility of the target information is sufficient. The preset timing condition corresponding to the two is after the recipient has read the sender's trusted certificate.
[0108] Finally, the auxiliary rule sequence after each game auxiliary rule is assigned the execution time condition is taken as the optimal game auxiliary rhythm. In this auxiliary rule sequence, it is prioritized to determine whether the execution time conditions assigned to the front-ranked game auxiliary rules are met. If so, the corresponding game auxiliary rules are executed.
[0109] In the embodiment of the present invention, each stage in the game history is composed of different game element sets and game types. By matching the game auxiliary rules and sorting the support for the rules from large to small according to the game types of the next i game stages, the rules with higher support are triggered first. In addition, the execution time condition of each game auxiliary rule in the auxiliary rule sequence depends on the joint determination of its preceding rules, so as to ensure that the optimal game auxiliary strategy is triggered at the right time, thereby improving the accuracy, efficiency and effect of game assistance.
[0110] For the value of i, the standard type combination is a combination of game types that can be jointly used to determine the support degree for the game assistance rules, which can be set in advance by technicians. The type weight represents the degree to which a game type can be jointly used with other game types to determine the support degree for the game assistance rules, which can be set in advance by technicians. The total degree that is most suitable for jointly determining the support degree, namely the weight value and the threshold, is preset. Thus, the first target value and the second target value are determined respectively, and the larger value of the first target value and the second target value is used as the value of i, so that the game types in the latter i game stages selected can cover these two situations, improving the accuracy, rationality and comprehensiveness of the value of i.
[0111] Embodiment 8:
[0112] In one embodiment, the matching steps of multiple game assistance rules include:
[0113] Based on the game element sets of each game stage, generate rule matching factors;
[0114] Based on the rule matching factors, match multiple game assistance rules.
[0115] When generating the rule matching factors, represent the game element sets of each game stage by vectors to obtain the rule matching factors in vector form; multiple game assistance rules matched by different rule matching factors are preset in advance, so multiple game assistance rules are matched based on the rule matching factors.
[0116] The embodiment of the present invention provides an Internet of Things information communication intelligent management system, as Figure 4 shown, including:
[0117] The first Internet of Things information communication module 1 is used to, when the receiving party of the Internet of Things information communication is ready to receive the target information, if it is receiving busily and the receiving use time is surely predicted, enable the receiving party to complete the priority delayed reception of the target information before the receiving use time;
[0118] The second Internet of Things information communication module 2 is used to, otherwise, enable the receiving party to immediately start receiving the target information.
[0119] The surely predicting step of the receiving use time includes:
[0120] When there is a supporting use of the target information in the information use plan of the receiving party, use the use plan time of the earliest existing supporting use as the surely predicted receiving use time;
[0121] Otherwise, predict and expand the information use plan;
[0122] When there is a supported use in the predicted information usage plan after expansion, plan the fault tolerance duration, and use the time of the fault tolerance duration before the usage plan time of the earliest existing supported use as the receiving use time for the definite prediction;
[0123] Otherwise, the definite prediction fails.
[0124] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalent technologies, the present invention is also intended to include these modifications and variations.
Claims
1. An Internet of Things information communication intelligent management method, characterized in that, Including: When the receiver of the Internet of Things information communication is ready to receive the target information, if it is busy receiving and can surely predict its receiving usage time, the receiver is enabled to complete the priority delayed reception of the target information before the receiving usage time; Otherwise, the receiver is enabled to immediately start receiving the target information.
2. The Internet of Things information communication intelligent management method according to claim 1, wherein The step of surely predicting the receiving usage time includes: When there is a supporting use for the target information in the information usage plan of the receiver, the usage plan time of the earliest existing supporting use is taken as the surely predicted receiving usage time; Otherwise, the information usage plan is predicted and expanded; When there is a supporting use in the predicted and expanded information usage plan, a fault tolerance duration is planned, and the time before the usage plan time of the earliest existing supporting use within the fault tolerance duration is taken as the surely predicted receiving usage time; Otherwise, the sure prediction fails.
3. The Internet of Things information communication intelligent management method according to claim 2, characterized in that The step of planning the fault tolerance duration includes: Based on the fault tolerance costs at different times before the usage plan time of the earliest existing supporting use in the predicted and expanded information usage plan, a fault tolerance cost-time curve is drawn; The peak value of the wave after the last one with a complete trough segment in the fault tolerance cost-time curve is taken as the fault tolerance target; Based on the correction coefficient of the fault tolerance target, the remaining duration after the fault tolerance target in the fault tolerance cost-time curve is corrected to obtain the fault tolerance duration.
4. The Internet of Things information communication intelligent management method according to claim 3, wherein The step of quantifying the fault tolerance cost includes: When the remaining duration after a moment in the corrected fault tolerance cost-time curve exceeds the receiving required duration of the target information, the low threshold is taken as the fault tolerance cost at this moment; Otherwise, the weighted calculation sum of the difference between the remaining duration after the moment in the corrected fault tolerance cost-time curve and the receiving required duration, the irrelevance degree between the local information usage plan and the target information within the remaining duration, and the importance degree of the target information is taken as the fault tolerance cost at this moment.
5. The Internet of Things information communication intelligent management method according to claim 1, characterized in that, Before the receiver is ready to receive the target information, if a game for receiving the target information is carried out between the receiver and the sender of the target information, game assistance is carried out.
6. The Internet of Things information communication intelligent management method according to claim 5, wherein, The steps of carrying out game assistance include: Based on the game history between the receiver and the sender, the best game assistance rhythm is planned in real time; Based on the best game assistance rhythm, game assistance is carried out for the future between the receiver and the sender.
7. The Internet of Things information communication intelligent management method according to claim 6, characterized in that, The step of planning the best game assistance rhythm includes: Based on the game element sets of each game stage in the game history, multiple game assistance rules are matched; Each game assistance rule is sorted from large to small according to the support degree of the joint execution of the game types in the latter i game stages in the game history to obtain an auxiliary rule sequence; An execution timing condition is assigned to each game assistance rule in the auxiliary rule sequence; wherein, the execution timing condition of the jth game assistance rule in the auxiliary rule sequence is the preset timing condition corresponding to the joint execution of the first j game assistance rules; The auxiliary rule sequence after each game assistance rule is assigned an execution timing condition is taken as the best game assistance rhythm; Wherein, the value-taking step of i is as follows: The first target value taken by i when the type combination of the game types in the latter i game stages is the same as the standard type combination is obtained; The second target value taken by i when the sum of the type weights of the game types in the latter i game stages is closest to the weight value sum threshold is obtained; Take the larger of the first target value and the second target value as the value of i.
8. The Internet of Things information communication intelligent management method according to claim 7, characterized in that The matching steps of multiple game assistance rules include: Generate rule matching factors based on the game element sets of each game stage; Match multiple game assistance rules based on the rule matching factors.
9. An Internet of Things information communication intelligent management system, characterized in that, Include: The first Internet of Things information communication module is used to, when the receiver of Internet of Things information communication is ready to receive target information, if it is receiving busily and the receiving usage time is surely predicted, enable the receiver to complete the priority delayed reception of the target information before the receiving usage time; The second Internet of Things information communication module is used to, otherwise, enable the receiver to immediately start receiving the target information.
10. The Internet of Things information communication intelligent management system according to claim 9, characterized in that, The step of surely predicting the receiving usage time includes: When there is a supported usage of the target information in the information usage plan of the receiver, take the usage plan time of the earliest existing supported usage as the surely predicted receiving usage time; Otherwise, predict and expand the information usage plan; When there is a supported usage in the predicted and expanded information usage plan, plan a fault tolerance duration, and take the time before the usage plan time of the earliest existing supported usage by the fault tolerance duration as the surely predicted receiving usage time; Otherwise, the sure prediction fails.