Method and device for predicting ecological restoration state of geological environment

Abstract

The invention relates to the technical field of ecological management, in particular to a geological environment ecological restoration state prediction method and device, and the method comprises the steps: obtaining a restoration state prediction instruction; correcting the eutrophication state of the to-be-restored geological environment object in the current restoration state in the restoration element library; reminding a scheduling process that the eutrophication state of the to-be-restored geological environment object in the current restoration state is lost; after the eutrophication state of the to-be-restored geological environment object in the current restoration state is restored, predicting the state and correcting in parallel; and after all the restored prediction states are corrected in parallel, judging the accuracy of the state information. The method can solve the problems that in the prior art, the ecological environment restoration means is too single, and a follow-up feedback mechanism is lacked, the restoration means are corrected fully by means of other similar geological environments, and accurate restoration plan prediction is given through restoration real-time state monitoring.

Description

Technical Field

[0001] The present application relates to the field of ecological management technology, and in particular to a method and device for predicting the ecological restoration status of a geological environment. Background Art

[0002] In the early days, the understanding of the ecological environment was relatively vague, and people mainly evaluated the effect of ecological restoration through qualitative description and expert experience. For example, the evaluation was carried out by observing the soil vegetation coverage and changes in soil hardness. However, this method is highly subjective and lacks objective data support, and the evaluation results lack scientificity and credibility. With the advancement of science and technology, people began to introduce quantitative indicators to evaluate the effect of ecological restoration.

[0003] However, in the existing technology, emergencies often occur during the ecological restoration of the geological environment. The restoration methods are too single and lack a subsequent feedback mechanism. In addition, it is impossible to correct the restoration methods with the help of other similar geological environments, making it difficult to provide an accurate restoration plan. Summary of the invention

[0004] To achieve the above objectives, this application provides the following technical solutions:

[0005] According to a first aspect of the present invention, the present invention claims protection for a geological environment ecological restoration state prediction method, which is applied before geological environment ecological restoration, comprising: obtaining a restoration state prediction instruction, wherein the restoration state prediction instruction includes an indication of retaining or discarding a candidate restoration behavior corresponding to an information parsing record on a current restoration state of a geological environment object to be restored;

[0006] According to the restoration state prediction instruction, the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library is corrected; the scheduling process is reminded that the eutrophication state of the geological environment object to be restored in the current restoration state is lost; the scheduling process at least includes reminding the post-restoration prediction state to perform a parallel correction of the post-restoration prediction state of the eutrophication state of the geological environment object to be restored in the current restoration state;

[0007] The eutrophication state of the geological environment object to be repaired in the current repair state is corrected in parallel with the predicted state after repair;

[0008] After all post-repair prediction states have completed parallel correction of the post-repair prediction states, the accuracy of the state information is determined;

[0009] After obtaining the restoration state prediction instruction and before correcting the eutrophication state of the geological environment object to be restored, the method further includes: setting an information security permission for the current restoration state; the information security permission includes prohibiting other instructions from performing a correction operation on the eutrophication state of the geological environment object to be restored in the current restoration state;

[0010] After completing the accuracy determination of the status information, the method further includes: revoking the information security permission;

[0011] The post-repair prediction state parallel correction at least includes:

[0012] The eutrophication state of the geological environment object to be repaired in the current repair state, which is cached in the predicted state after synchronous repair;

[0013] After all the repair behaviors in the current repair behavior set are completed, the scheduling process is reminded to complete the parallel correction of the predicted state after the repair.

[0014] Furthermore, the post-repair prediction state parallel correction also includes:

[0015] Setting the repair plan corresponding to the current repair status to be invalid;

[0016] The state information accuracy determination includes at least: configuring a candidate repair behavior or discarding a candidate repair behavior according to the repair state prediction instruction.

[0017] Furthermore, correcting the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library at least includes: correcting the eutrophication elements of the geological environment object to be restored in the current restoration state in the restoration element library.

[0018] Furthermore, if the restoration state prediction instruction includes an indication of retaining the candidate restoration behavior, the eutrophication state of the geological environment object to be restored in the current restoration state in the correction restoration element library also includes:

[0019] The eutrophication state of the geological environment object to be repaired of the candidate repair behavior is saved in the repair element library; wherein the scenario of the candidate repair behavior in the eutrophication state of the geological environment object to be repaired of the repair behavior is the first repair behavior;

[0020] If the restoration state prediction instruction includes an indication to discard the candidate restoration behavior, the eutrophication state of the geological environment object to be restored in the current restoration state in the correction restoration element library also includes:

[0021] Setting the scenario of the candidate repair behavior in the repair element library as a second repair behavior;

[0022] A repair action with the scenario of first repair action or second repair action cannot be used by a repair plan.

[0023] Furthermore, the configuration candidate repair behavior includes:

[0024] Search the restoration behavior table for the geological environment object information record to be restored corresponding to the current restoration state;

[0025] Parallelizing the information in the candidate geological environment object information record to the candidate restoration behavior; the candidate geological environment object information record to be restored includes: the geological environment object information record to be restored corresponding to the current restoration state and the eutrophic elements of the geological environment object to be restored have not been corrected;

[0026] After configuring the candidate restoration behavior or discarding the candidate restoration behavior, the state information accuracy determination further includes: correcting the eutrophic elements of the geological environment object to be restored in the candidate geological environment object to be restored information record;

[0027] If the restoration status prediction instruction includes indicating to retain the candidate restoration behavior, after the eutrophic elements of the geological environment objects to be restored in all candidate geological environment object information records to be restored are corrected, the status information accuracy determination further includes:

[0028] Setting the scenario of the candidate repair behavior in the repair element library as a valid scenario, and reminding the scheduling process;

[0029] If the repair state prediction instruction includes an indication to discard a candidate repair behavior, after discarding the candidate repair behavior, the state information accuracy determination further includes:

[0030] Discarding the eutrophication state of the geological environment object to be restored of the candidate restoration behavior in the restoration element library, and reminding the scheduling process;

[0031] The scheduling process also includes reminding the post-repair prediction state to synchronize the post-repair prediction state cache with the eutrophication state of the geological environment object to be repaired in the current repair state.

[0032] According to the second aspect of the present invention, the present invention claims protection for a geological environment ecological restoration state prediction device, comprising:

[0033] An acquisition module includes acquiring a restoration state prediction instruction, wherein the restoration state prediction instruction includes an instruction indicating whether to retain or discard a candidate restoration behavior corresponding to an information analysis record on a current restoration state of a geological environment object to be restored;

[0034] Correction modules, including:

[0035] According to the restoration state prediction instruction, the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library is corrected; the scheduling process is reminded that the eutrophication state of the geological environment object to be restored in the current restoration state is lost; the scheduling process at least includes reminding the post-restoration prediction state to perform a parallel correction of the post-restoration prediction state of the eutrophication state of the geological environment object to be restored in the current restoration state;

[0036] The eutrophication state of the geological environment object to be repaired in the current repair state is corrected in parallel with the predicted state after repair;

[0037] After all post-repair prediction states have completed parallel correction of the post-repair prediction states, the accuracy of the state information is determined;

[0038] In the dimension of parallel correction of the predicted state after the eutrophication state of the geological environment object to be repaired in the current repair state is repaired, the correction module includes:

[0039] The eutrophication state of the geological environment object to be repaired in the current repair state, which is cached in the predicted state after synchronous repair;

[0040] After waiting for all the repair behaviors in the current repair behavior set to be completed, reminding the scheduling process to complete the parallel correction of the predicted state after the repair;

[0041] In the dimension of parallel correction of the predicted state after the eutrophication state of the geological environment object to be repaired in the current repair state is repaired, the correction module also includes: setting the repair plan corresponding to the current repair state to invalid.

[0042] Furthermore, in terms of determining the accuracy of the status information, the correction module includes:

[0043] configuring a candidate repair behavior or discarding a candidate repair behavior according to the repair state prediction instruction;

[0044] In correcting the dimension of the eutrophication state of the geological environment object to be repaired in the current restoration state in the restoration element library, the correction module includes: correcting the eutrophication elements of the geological environment object to be repaired in the current restoration state in the restoration element library.

[0045] Further, if the restoration state prediction instruction includes an indication of retaining the candidate restoration behavior, in the restoration element library, the dimension of the eutrophication state of the geological environment object to be restored in the current restoration state, the correction module further includes:

[0046] The eutrophication state of the geological environment object to be repaired of the candidate repair behavior is saved in the repair element library; wherein the scene in the eutrophication state of the geological environment object to be repaired of the repair behavior is the first repair behavior;

[0047] If the restoration state prediction instruction includes an indication to discard the candidate restoration behavior, in the dimension of the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library, the correction module further includes: setting the scenario of the candidate restoration behavior in the restoration element library to the second restoration behavior; the restoration behavior whose scenario is the first restoration behavior or the second restoration behavior cannot be used by the restoration plan;

[0048] In the dimension of configuring candidate repair behaviors, the correction module includes:

[0049] Search the restoration behavior table for the geological environment object information record to be restored corresponding to the current restoration state;

[0050] The information in the candidate geological environment object information record to be repaired is parallelized to the candidate repair behavior; the candidate geological environment object information record to be repaired includes: the geological environment object information record to be repaired corresponding to the current repair state and the eutrophic elements of the geological environment object to be repaired have not been corrected.

[0051] Furthermore, in the dimension of determining the accuracy of the status information, the correction module further includes: after configuring the candidate restoration behavior or discarding the candidate restoration behavior, correcting the eutrophic elements of the geological environment object to be restored in the candidate geological environment object information record to be restored.

[0052] Furthermore, in the dimension of determining the accuracy of the state information, if the repair state prediction instruction includes an indication of retaining the candidate repair behavior, the correction module further includes:

[0053] After all the eutrophic elements of the geological environment objects to be restored in the information records of all candidate geological environment objects to be restored are corrected, the scenarios of the candidate restoration behaviors in the restoration element library are set as valid scenarios, and the scheduling process is reminded;

[0054] In the dimension of determining the accuracy of the state information, if the restoration state prediction instruction includes an indication to discard a candidate restoration behavior, the correction module further includes: after discarding the candidate restoration behavior, discarding the restoration behavior of the candidate restoration behavior in the restoration element library, the eutrophication state of the geological environment object to be restored, and reminding the scheduling process;

[0055] The scheduling process also includes reminding the post-repair prediction state to synchronize the post-repair prediction state cache with the eutrophication state of the geological environment object to be repaired in the current repair state.

[0056] The present application relates to the field of ecological management technology, and in particular to a method and device for predicting the state of geological environmental ecological restoration, which obtains restoration state prediction instructions; corrects the eutrophication state of the geological environment object to be restored in the current restoration state described in the restoration element library; reminds the scheduling process that the eutrophication state of the geological environment object to be restored in the current restoration state has been lost; performs parallel correction of the predicted state after restoration of the eutrophication state of the geological environment object to be restored in the current restoration state; and determines the accuracy of the state information after all the predicted states after restoration have completed the parallel correction of the predicted states after restoration. The present invention can address the problem that the ecological environment restoration means in the prior art are too single and lack a subsequent feedback mechanism, and fully utilizes other similar geological environments to correct the restoration means, and gives accurate restoration plan predictions through real-time restoration state monitoring. BRIEF DESCRIPTION OF THE DRAWINGS

[0057] Figure 1 A workflow diagram of a method for predicting the state of ecological restoration of a geological environment claimed in an embodiment of the present application;

[0058] Figure 2 A second workflow diagram of a method for predicting the state of ecological restoration of a geological environment claimed in an embodiment of the present application;

[0059] Figure 3 This is the third workflow diagram of a method for predicting the ecological restoration status of a geological environment requested for protection in an embodiment of the present application. Implementation

[0061] The following will be combined with the drawings in the embodiments of the present application to clearly and completely describe the technical solutions in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of this application.

[0062] The terms "first", "second" and "third" in this application only include description purposes, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, the features defined as "first", "second" and "third" can expressly or implicitly include at least one of the features. In the description of this application, the meaning of "multiple" is at least two, such as two, three, etc., unless otherwise clearly defined. In the embodiments of this application, all directional indications (such as up, down, left, right, front, back...) only include explanations of the relative positional relationship, movement, etc. between the components under a certain specific posture (as shown in the accompanying drawings). If the specific posture changes, the directional indications also change accordingly. In addition, the terms "including" and "having" and any of their variations are intended to cover non-exclusive inclusions. For example, a process, method, device, product or equipment that includes a series of steps or modules is not limited to the listed steps or modules, but optionally also includes steps or modules that are not listed, or optionally also includes other steps or modules inherent to these processes, methods, products or equipment.

[0063] Reference to "embodiments" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiments may be included in at least one embodiment of the present application. The appearance of the phrase in various locations in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0064] Figure 1 An exemplary interactive process of the above-mentioned repair status prediction method is shown, which comprises:

[0065] S101: The soil sample (geological environment object to be repaired) sends a repair status prediction instruction to a certain information calling sensor through the repair element library calling service of the application sensor.

[0066] The process may be performed by the communication module to obtain the repair state prediction instruction. The repair state prediction instruction may include a candidate repair behavior corresponding to the information parsing record on the current repair state of the geological environment object to be repaired indicating retention or discarding. The so-called candidate repair behavior refers to the repair behavior that the repair state prediction instruction indicates to be retained, or the repair behavior that the repair state prediction instruction indicates to be discarded. The current repair state indicated in the repair state prediction instruction may be referred to as a candidate current repair state.

[0067] For the sake of distinction, the information calling sensor that obtains the restoration status prediction instruction can be called before the geological environment ecological restoration, while the other information calling sensors are called the predicted status after restoration.

[0068] The soil sample can specify the current restoration state name and information analysis record in the restoration state prediction instruction, and modify the candidate restoration behavior corresponding to the specified information analysis record. In this way, the current restoration state and information analysis record can be flexibly specified, and the restoration behavior can be configured or modified on the specified information analysis record.

[0069] S102: Before geological environment ecological restoration, set information security permission for the candidate's current restoration status.

[0070] Information security permission may include prohibiting other instructions from performing correction operations on the eutrophication state of the geological environment object to be repaired in the current repair state. The other instructions here refer to instructions involving correction operations on the eutrophication state of the geological environment object to be repaired in the above-mentioned current repair state. For example, in actual operation, there may be other repair state prediction instructions that also indicate the configuration or discarding of information parsing records on the same current repair state, and information security permission can prevent multiple instructions from simultaneously correcting the eutrophication state of the geological environment object to be repaired in the same current repair state, thereby avoiding information correction confusion.

[0071] In one example, step 102 may be performed by a correction module before ecological restoration of the geological environment.

[0072] S103: Correct the eutrophication status of the candidate geological environment objects to be restored in the restoration factor library before the ecological restoration of the geological environment.

[0073] Step 103 may be performed by a correction module before geological environment ecological restoration. The correction module may indicate that the communication module submits a correction instruction to the restoration element library to correct the eutrophication state of the geological environment object to be restored in the candidate current restoration state.

[0074] The eutrophication state of the geological environment object to be repaired in the current repair state is stored in the repair element library, and each information call sensor will also cache the eutrophication state of the geological environment object to be repaired in the current repair state after repair. In this step, the eutrophication state of the geological environment object to be repaired in the current repair state in the repair element library is corrected. In the subsequent steps, each information call sensor will also correct the eutrophication state of the candidate geological environment object to be repaired in the current repair state cached after repair.

[0075] In fact, this step mainly includes correcting the eutrophication state of the geological environment object to be repaired by the repair behavior of the candidate repair behavior, and the eutrophication state of the geological environment object to be repaired by the repair behavior of the candidate repair behavior belongs to a part of the eutrophication state of the geological environment object to be repaired in the candidate current repair state. Therefore, the correction of the eutrophication state of the geological environment object to be repaired by the repair behavior also belongs to the scope of correcting the eutrophication state of the geological environment object to be repaired in the candidate current repair state.

[0076] It is mentioned above that the repair state prediction instruction can indicate whether to keep or discard the candidate repair behavior.

[0077] For configuration restoration actions, the eutrophication status of the geological environment object to be restored by the modification restoration actions may include:

[0078] A: The eutrophication status of the geological environment object to be restored of the candidate restoration behavior is saved in the restoration element library; the eutrophication status of the geological environment object to be restored of the candidate restoration behavior can be saved in the soil hardness and soil salinity table of the restoration element library.

[0079] B: Set the scenario of the candidate repair behavior as the first repair behavior. The first repair behavior can be designed as "under configuration". The repair behavior in the first repair behavior cannot be referenced by the repair plan.

[0080] The reason why the candidate restoration behavior scenario is set as the first restoration behavior is that at this time, only the eutrophication state of the geological environment object to be restored of the candidate restoration behavior is saved to the restoration element library, and the candidate restoration behavior itself is not actually configured to be effective. In this case, if the restoration plan reference is allowed, the search will be invalid. In addition, the first restoration behavior has other functions in other embodiments, which will be introduced later in this article.

[0081] As for the abandoned restoration behavior, modifying the eutrophication status of the geological environment object to be restored by the restoration behavior may include: setting the scenario of the candidate restoration behavior to the second restoration behavior. The second restoration behavior may be designed to be "discarded". The scenario information parsing record value of the eutrophication table of the geological environment object to be restored by the restoration behavior may be set to "discarded". The restoration behavior in the second restoration behavior cannot be referenced by the restoration plan. The reason for setting the candidate restoration behavior scenario to the second restoration behavior is to prevent the restoration plan from referencing the restoration behavior that will be abandoned.

[0082] C: Regardless of whether the behavior is discarded or configured for restoration, the eutrophic elements of the candidate geological environment objects to be restored in the restoration element library will be corrected before the geological environment ecological restoration. For example, the eutrophic elements of the candidate geological environment objects to be restored in the current restoration state can be corrected from the previous E1 to E2.

[0083] S104: Before the ecological restoration of the geological environment, remind the scheduling process candidate that the eutrophication state of the geological environment object to be restored is lost in the current restoration state.

[0084] The scheduling process candidate can be reminded that the eutrophic elements of the geological environment object to be repaired in the current repair state are lost. Step 104 can be performed by the correction module before the geological environment ecological restoration to indicate the communication module.

[0085] S105: The scheduling process reminds the post-repair prediction state to perform parallel correction on the post-repair prediction state of the eutrophication state of the geological environment object to be repaired in the candidate current repair state.

[0086] The information call service deployed on each post-repair prediction state will monitor the scheduling process's reminder of eutrophic loss of the geological environment object to be repaired. When the reminder of eutrophic loss of the geological environment object to be repaired is monitored, the post-repair prediction state will be corrected in parallel. There are many monitoring mechanisms, which are provided by the scheduling process and are not discussed in detail in this solution.

[0087] S106: The predicted state after restoration performs parallel correction on the eutrophication state of the geological environment object to be restored in the candidate current restoration state.

[0088] In one example, “parallel correction of predicted status after repair” may include at least the following steps:

[0089] A: The eutrophication status of the geological environment object to be repaired, which is the candidate of the current repair status and cached in the predicted status after synchronous repair.

[0090] The synchronization can be implemented by using the eutrophication state of the geological environment object to be repaired in the candidate current repair state in the repair element library to replace the eutrophication state of the geological environment object to be repaired in the candidate current repair state cached after repair. It should be noted that before synchronization, the eutrophication element of the geological environment object to be repaired in the candidate current repair state cached after repair of each information call sensor is still E1, and after synchronization, the eutrophication element of the geological environment object to be repaired is E2.

[0091] B: Get the current repair behavior set.

[0092] The repair behaviors in the current repair behavior set are the repair behaviors being executed.

[0093] C: Wait for all repair behaviors in the current repair behavior set to end (effectively end or timeout end).

[0094] Waiting for the repair behaviors in the current repair behavior set to end can ensure that the current repair behavior (ongoing information operation) is not affected, thereby enhancing the soil sample usage experience. In one example, after all repair behaviors in the current repair behavior set are completed, the post-repair prediction state can remind the scheduling process to complete the parallel correction of the post-repair prediction state. The scheduling process can set the parallel correction scenario of eutrophication of the geological environment object to be repaired in the post-repair prediction state to completion based on the reminder of the post-repair prediction state. The scheduling process can maintain a correction scenario set, and set the scenario value of the post-repair prediction state of the geological environment object to be repaired in the set that has completed the parallel correction of eutrophication to 1, and set the scenario value of the post-repair prediction state that has not reminded the scheduling process to 0.

[0095] It should be noted that the restoration behavior will use the restoration plan, and the restoration plan is generated based on the eutrophication state of the geological environment object to be restored in the current restoration state. If a restoration plan is generated based on the eutrophication state of the geological environment object to be restored in a certain current restoration state, it can be considered that this restoration plan corresponds to the current restoration state. For example, according to a search instruction, a certain information call sensor needs to search for the current restoration state A, then a restoration plan will be generated based on the eutrophication state of the geological environment object to be restored in the current restoration state A (that is, a restoration plan corresponding to the current restoration state A is generated).

[0096] After the search is completed, the information calling sensor will cache the repair plan generated by the predicted state after the repair, so that the repair plan can be directly used when the same search instruction is obtained, thereby improving the search efficiency.

[0097] Therefore, generally speaking, each information call sensor has multiple repair plans in the predicted state cache after repair. It can be said that the information call sensor maintains a repair plan queue. Assume that the eutrophication state of the geological environment object to be repaired in the candidate current repair state is E1 before correction, and the eutrophication element of the geological environment object to be repaired after correction is E2.

[0098] Obviously, before executing the above operation A, the restoration plans corresponding to the candidate current restoration state cached by each information call sensor are all generated based on the eutrophication state of the old geological environment object to be restored of the candidate current restoration state (the restoration plan generated based on the eutrophication state of the old geological environment object to be restored can be called the old restoration plan). Or, the old restoration plan is generated based on the eutrophication state of the geological environment object to be restored based on the E1 version. The restoration plan corresponding to the candidate current restoration state used by the restoration behavior being executed in the current restoration behavior set is also based on the E1 version.

[0099] Since it is an online correction and repair behavior, each information calling sensor is likely to obtain a new search instruction. In order to prevent the old repair plan from being used by the new statement search instruction, in an example, the above-mentioned "parallel correction of the predicted state after repair" may also include the following operations: set the repair plan (generally a statement execution plan) corresponding to the candidate current repair state cached after repair as a failure scenario.

[0100] That is, the old repair plan is invalidated. It should be noted that, although the old repair plan is invalidated, the repair behaviors in the current repair behavior set can still use the old repair plan, but the new search instruction cannot use the old repair plan.

[0101] At the same time, the information calling sensor can generate a restoration plan based on the eutrophication state of the new version of the geological environment object to be restored (the restoration plan generated based on the eutrophication state of the new version of the geological environment object to be restored can be referred to as the new restoration plan). The new statement search instruction can use the new restoration plan.

[0102] In addition, it should be noted that the restoration plan will eventually be converted into operations on the information records of the geological environment objects to be restored in the restoration behavior table.

[0103] Each geological environment object to be restored information record stores the corresponding eutrophic elements of the geological environment object to be restored in the current restoration state. After the operation, the eutrophic elements of the geological environment object to be restored in the geological environment object to be restored information record will be corrected to the eutrophic elements of the geological environment object to be restored based on the restoration plan.

[0104] Assuming that the information in the first geological environment object information record to be repaired is changed by the old repair plan, then its value in the version information parsing record is still E1. If the information in the third and fourth geological environment object information records to be repaired is changed by the new repair plan, then its value in the version information parsing record is revised to E2.

[0105] For the case of newly created candidate restoration actions, since there is no relevant information of candidate restoration actions in the historical version, the information of geological environment objects to be restored modified by the old restoration plan cannot be paralleled to the restoration action view, but can be paralleled with the subsequent status information accuracy. However, the information of geological environment objects to be restored modified by the new restoration plan can be paralleled to the restoration action view.

[0106] Step 106 may be executed by the correction module of the predicted state after repair, wherein the reminder scheduling process may be indicated by the correction module of the predicted state after repair that its communication module is completed.

[0107] S107: Before ecological restoration of the geological environment, the predicted state after restoration is performed on the eutrophication state of the candidate geological environment object to be restored in the current restoration state in parallel.

[0108] Similar to the predicted state after restoration, parallel correction of the predicted state after restoration is also required before ecological restoration of the geological environment. Therefore, before ecological restoration of the geological environment, operations such as synchronizing the eutrophication state of the geological environment object to be restored with the candidate current restoration state of the predicted state cache after restoration, waiting for all restoration behaviors in the current restoration behavior set to be completed, and setting the restoration plan corresponding to the candidate current restoration state in the predicted state cache after restoration as a failure scenario will also be performed. As for whether to remind the scheduling process after all restoration behaviors in the current restoration behavior set are completed, it can be flexibly designed. It can be designed to remind the scheduling process after completing the parallel correction of the predicted state after restoration before ecological restoration of the geological environment, or it can be designed not to remind.

[0109] Step 107 can be executed by the correction module before the ecological restoration of the geological environment, wherein the reminder scheduling process can be indicated by the correction module before the ecological restoration of the geological environment that its communication module is completed.

[0110] S108: After all post-restoration prediction states have been corrected in parallel, the accuracy of the state information is determined before the ecological restoration of the geological environment.

[0111] In one example, before the ecological restoration of the geological environment, the scheduling process can be continuously searched for the eutrophication parallel correction scenarios of the geological environment objects to be restored in the predicted state after restoration, until all the eutrophication parallel correction scenarios of the geological environment objects to be restored in the predicted state after restoration are completed, and then the accuracy of the state information is determined. Of course, in other embodiments, the accuracy of the state information can also be determined by one of the predicted states after restoration. The accuracy determination of the state information at least includes: configuring the candidate restoration behavior according to the restoration state prediction instruction, or discarding the candidate restoration behavior according to the restoration state prediction instruction. This article will later introduce how to determine the accuracy of the state information for the two situations of configuration and discarding. Before the ecological restoration of the geological environment, an error task can be started to perform error judgment.

[0112] S109: After the error determination is completed, the information security license is withdrawn before the geological environment ecological restoration. After the error determination is completed, the configuration or discarding of the restoration behavior is completed, and the information security license is withdrawn.

[0113] In other embodiments of the present invention, after the error determination is completed, the correction result can be returned to the corresponding application sensor before the geological environment ecological restoration. The correction result can include information characterizing whether the correction is effective or invalid. Of course, if the correction is invalid, the correction result can also include the invalid reason.

[0114] Steps 108 and 109 can be completed by the correction module before the ecological restoration of the geological environment and the communication module.

[0115] It can be seen that in the solution provided by the present application, after the eutrophication state of the geological environment object to be repaired is corrected to the repair element library, the repair state prediction is realized in two steps: the first step is that each information calling sensor performs parallel correction on the predicted state after repair of the eutrophication state of the geological environment object to be repaired in the current repair state. In the parallel correction of the predicted state after repair, it will wait for the repair behavior in the current repair behavior set to end, so that the execution of the current repair behavior will not be affected. After the parallel correction of the predicted state after repair, the subsequent information calling instructions of each information calling sensor for the current repair state can be based on the new eutrophication state of the geological environment object to be repaired; the second step is that when each information calling sensor completes the parallel correction of the predicted state after repair, the state information accuracy judgment is executed again - configuring or discarding the candidate repair behavior. Through the above two-step correction, the current correction repair behavior can be realized online. At the same time, it can also ensure that the ongoing information operation of the current repair behavior is not affected, which enhances the soil sample usage experience.

[0116] The following is a more detailed example to describe the steps for configuring the repair behavior and discarding the repair behavior.

[0117] Figure 2 An exemplary interactive process of the above repair state prediction method when configuring candidate repair behaviors is shown, including:

[0118] S201-S202 are the same as the aforementioned S101-S102 and will not be elaborated here.

[0119] S203: Before ecological restoration of the geological environment, the restoration behavior of the candidate restoration behavior and the eutrophication status of the geological environment object to be restored are saved in the restoration element library.

[0120] For related introduction, please refer to the introduction in the aforementioned S103 section, which will not be repeated here.

[0121] S204: Correct the eutrophic elements of the geological environment objects to be restored in the candidate current restoration status in the restoration factor library before the ecological restoration of the geological environment.

[0122] For example, the eutrophic elements of the candidate geological environment object to be restored in the current restoration state can be revised from the previous E1 to E2.

[0123] S205-S208 are the same as the aforementioned S105-108 and will not be elaborated here.

[0124] S209: Before ecological restoration of the geological environment, search for the information record of the geological environment object to be restored that corresponds to the candidate's current restoration status in the restoration behavior table, parallelize the information in the candidate geological environment object to be restored information record to the candidate restoration behavior, and at the same time correct the eutrophic elements of the geological environment object to be restored in the candidate geological environment object to be restored information record.

[0125] S209 starts with error information correction. Before geological environment ecological restoration, the error task can be started to perform error information correction.

[0126] The error task can determine which repair behaviors need to be judged according to the scenario. Since the scenario of the candidate repair behavior is currently "under configuration", the error task can determine that the candidate repair behavior needs to be judged according to its scenario. Of course, in other examples, a table can also be established to record the repair behaviors to be configured and to be discarded.

[0127] The above-mentioned candidate information records of geological environment objects to be repaired include: information records of geological environment objects to be repaired that correspond to the current repair state and whose eutrophic elements of the geological environment objects to be repaired have not been corrected. For example, it is assumed that the eutrophic elements of the candidate geological environment objects to be repaired in the current repair state are corrected from the previous E1 to E2. Please refer to the above. If the eutrophic element of the geological environment object to be repaired in the information record of the geological environment object to be repaired is E2, it means that the record has been corrected to the repair behavior view, and the error task does not perform any operation on the record. If the eutrophic element of the geological environment object to be repaired in the information record of the geological environment object to be repaired is not E2, it means that the information record of the geological environment object to be repaired has not been corrected to the repair behavior view. That is, in the above, the eutrophic elements of the geological environment objects to be repaired in the two geological environment object information records to be repaired in the shaded part are E1, and these two geological environment object information records to be repaired are the candidate geological environment object information records to be repaired.

[0128] The error task of the first information sensor will correct the information analysis record values ​​involved in the candidate restoration behaviors in the two shaded geological environment object information records to be restored to the restoration behavior view.

[0129] S210: Before the ecological restoration of the geological environment, the scenarios of the candidate restoration behaviors in the restoration factor library are set as valid scenarios, and the scheduling process is reminded.

[0130] When the error task can no longer search for the relevant geological environment object information record to be repaired with an element less than E2, it means that all the geological environment object information records to be repaired related to the candidate's current repair state have been corrected using the new version of the geological environment object to be repaired eutrophic state, and the error task of the repair behavior configuration is completed. Taking the repair behavior geological environment object eutrophication table of the candidate repair behavior shown above as an example, after changing the scene, the repair behavior geological environment object to be repaired of the candidate repair behavior is eutrophic.

[0131] When reminding the scheduling process, the scheduling process may be reminded that the scenario of the candidate repair behavior has been corrected, and the scheduling process may also be reminded that the eutrophication state of the geological environment object to be repaired in the candidate current repair state has been corrected. The scheduling process may then remind the post-repair prediction state again to synchronize the eutrophication state of the candidate current repair state of the geological environment object to be repaired in the post-repair prediction state cache, or only synchronize the scenario of the candidate repair behavior in the post-repair prediction state cache. In this synchronization, step B and step C in the parallel correction of the post-repair prediction state may not be executed. In other embodiments of the present application, the number of repair behavior records that are corrected or discarded each time may be limited.

[0132] S211: After completing the error determination, the information security license will be withdrawn before the geological environment ecological restoration.

[0133] S211 is the same as the aforementioned S109 and will not be described in detail here.

[0134] S211 and S210 may be executed simultaneously or sequentially.

[0135] Steps 209 to 211 can be completed by the correction module 202 before the ecological restoration of the geological environment, indicating that the communication module 201 is completed.

[0136] Figure 3 An exemplary interactive process of the above repair state prediction method when discarding a candidate repair behavior is shown, including:

[0137] S301-S302 are the same as the aforementioned S201-S202 or S101-S102, and are not described in detail here.

[0138] S303: Before the ecological restoration of the geological environment, the scenario of the candidate restoration behavior in the restoration element library is set to "discarding" (the second restoration behavior).

[0139] For related introduction, please refer to the introduction in the aforementioned S103 section, which will not be repeated here.

[0140] S304: Correct the eutrophic elements of the geological environment objects to be restored in the candidate current restoration state in the restoration factor library before the ecological restoration of the geological environment.

[0141] For example, the eutrophic elements of the candidate geological environment object to be restored in the current restoration state can be revised from the previous E1 to E2.

[0142] S305-S308 are the same as the aforementioned S205-S208 or S105-108, and will not be elaborated here.

[0143] S309: Before geological environment ecological restoration, search the restoration behavior table for the geological environment object information record corresponding to the candidate current restoration status, and correct the eutrophic elements of the geological environment object to be restored in the candidate geological environment object information record.

[0144] For example, assume that the eutrophic elements of the geological environment object to be repaired in the candidate current repair state are corrected from the previous E1 to E2. Please refer to the above, the eutrophic elements of the geological environment object to be repaired in all the geological environment object information records corresponding to the candidate current repair state can be corrected to E2. Since in this embodiment, the candidate repair behavior needs to be discarded, it is not necessary to parallel the information in the candidate current repair state to the candidate repair behavior.

[0145] S309 starts with error information correction. Before geological environment ecological restoration, the error task can be started to perform error information correction.

[0146] The error task can determine which repair behaviors need error determination based on the scenario. Since the scenario of the candidate repair behavior is currently "discarded", the error task can determine that the candidate repair behavior needs error determination based on its scenario.

[0147] S310: Recording information of geological environment objects to be restored related to candidate restoration behaviors in the discard view before geological environment ecological restoration.

[0148] When there is no geological environment object information to be repaired corresponding to the candidate repair behavior to be discarded in the repair behavior view, the error task of discarding the repair behavior is completed.

[0149] S311: Before the ecological restoration of the geological environment, the restoration behavior of the candidate restoration behavior in the restoration factor library is discarded, and the eutrophication status of the geological environment object to be restored is reminded to the scheduling process that the eutrophication status of the geological environment object to be restored in the candidate current restoration status has been corrected.

[0150] The scheduling process can remind the post-repair prediction state to synchronize the candidate current restoration state of the post-repair prediction state cache with the eutrophication state of the geological environment object to be restored. In this synchronization, steps B and C in the post-repair prediction state parallel correction may not be performed.

[0151] S312: After the error determination is completed, the information security license will be withdrawn before the geological environment ecological restoration.

[0152] S311 and S312 may be executed simultaneously or sequentially.

[0153] Steps 309 to 312 may be performed by the correction module 202 of the information call sensor to indicate that the communication module 201 is completed.

[0154] In other embodiments of the present application, a scene search interface for determining the accuracy of status information may also be provided, and soil samples may be searched for the predicted progress of the restoration status. In addition, a selective search and display interface for the current restoration status information analysis record may also be provided. Before configuring the restoration behavior, the geological environment object to be restored may search for an information analysis record of the current restoration status through the search and display interface to display the number of different values ​​of the information analysis record. If there are many different values ​​of the information analysis record, it indicates good selectivity, and if there are few different values, it indicates poor selectivity. Soil samples may be used for reference, thereby more effectively assisting the geological environment object to be restored to complete the restoration behavior configuration.

[0155] In the several embodiments provided in the present application, it should be understood that the disclosed devices, apparatuses and methods can be implemented in other ways. For example, the device embodiments described above are only schematic, for example, the division of modules is only a logical function division, and there may be other division methods in actual implementation, such as multiple modules or components can be combined or integrated into another device, or some features can be ignored or not executed. Another point is that the mutual coupling or direct coupling or communication connection shown or discussed can be an indirect coupling or communication connection through some interfaces, devices or modules, which can be electrical, mechanical or other forms.

[0156] In addition, each functional module in each embodiment of the present application can be integrated into a correction module, or each module can exist physically separately, or two or more modules can be integrated into one module. The above integrated modules can be implemented in the form of hardware or in the form of software functional modules. The above is only an implementation method of the present application, and does not limit the patent scope of the present application. Any equivalent structure or equivalent process transformation made using the contents of the specification and drawings of this application, or directly or indirectly used in other related technical fields, are also included in the patent protection scope of the present application.

[0157] The above detailed description of the embodiments of the invention is only used as an example, and the present application is not limited to the embodiments described above. For those skilled in the art, any equivalent modification or substitution of the invention is also within the scope of the present application, and therefore, the equalization, modification, and improvement made without departing from the spirit and principle of the present application should be included in the scope of the present application.

Claims

1. A method for predicting the state of geological environment ecological restoration, characterized in that: Before being applied to geological environment ecological restoration, it includes: obtaining a restoration state prediction instruction, wherein the restoration state prediction instruction includes a candidate restoration behavior corresponding to an information analysis record on a current restoration state of a geological environment object to be restored indicating whether to retain or discard; According to the restoration state prediction instruction, the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library is corrected; the scheduling process is reminded that the eutrophication state of the geological environment object to be restored in the current restoration state is lost; the scheduling process at least includes reminding the post-restoration prediction state to perform a parallel correction of the post-restoration prediction state of the eutrophication state of the geological environment object to be restored in the current restoration state; The eutrophication state of the geological environment object to be repaired in the current repair state is corrected in parallel with the predicted state after repair; After all post-repair prediction states have completed parallel correction of the post-repair prediction states, the accuracy of the state information is determined; After obtaining the restoration state prediction instruction and before correcting the eutrophication state of the geological environment object to be restored, the method further includes: setting an information security permission for the current restoration state; the information security permission includes prohibiting other instructions from performing a correction operation on the eutrophication state of the geological environment object to be restored in the current restoration state; After completing the accuracy determination of the status information, the method further includes: revoking the information security permission; The post-repair prediction state parallel correction at least includes: The eutrophication state of the geological environment object to be repaired in the current repair state, which is cached in the predicted state after synchronous repair; After all the repair behaviors in the current repair behavior set are completed, the scheduling process is reminded to complete the parallel correction of the predicted state after the repair.

2. A method for predicting the state of geological environment ecological restoration according to claim 1, characterized in that: The post-repair prediction state parallel correction also includes: Setting the repair plan corresponding to the current repair status to be invalid; The state information accuracy determination includes at least: configuring a candidate repair behavior or discarding a candidate repair behavior according to the repair state prediction instruction.

3. A method for predicting the state of geological environment ecological restoration according to claim 2, characterized in that: The correcting of the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library at least includes: correcting the eutrophication elements of the geological environment object to be restored in the current restoration state in the restoration element library.

4. A method for predicting the state of geological environment ecological restoration according to claim 3, characterized in that: If the restoration state prediction instruction includes an indication of retaining the candidate restoration behavior, the eutrophication state of the geological environment object to be restored in the current restoration state in the correction restoration element library also includes: The eutrophication state of the geological environment object to be repaired of the candidate repair behavior is saved in the repair element library; wherein the scenario of the candidate repair behavior in the eutrophication state of the geological environment object to be repaired of the repair behavior is the first repair behavior; If the restoration state prediction instruction includes an indication to discard the candidate restoration behavior, the eutrophication state of the geological environment object to be restored in the current restoration state in the correction restoration element library also includes: Setting the scenario of the candidate repair behavior in the repair element library as a second repair behavior; A repair action with the scenario of first repair action or second repair action cannot be used by a repair plan.

5. A method for predicting the state of geological environment ecological restoration according to claim 4, characterized in that: The configuration candidate repair behaviors include: Search the restoration behavior table for the geological environment object information record to be restored corresponding to the current restoration state; Parallelizing the information in the candidate geological environment object information record to the candidate restoration behavior; the candidate geological environment object information record to be restored includes: the geological environment object information record to be restored corresponding to the current restoration state and the eutrophic elements of the geological environment object to be restored have not been corrected; After configuring the candidate restoration behavior or discarding the candidate restoration behavior, the state information accuracy determination further includes: correcting the eutrophic elements of the geological environment object to be restored in the candidate geological environment object to be restored information record; If the restoration status prediction instruction includes indicating to retain the candidate restoration behavior, after the eutrophic elements of the geological environment objects to be restored in all candidate geological environment object information records to be restored are corrected, the status information accuracy determination further includes: Setting the scenario of the candidate repair behavior in the repair element library as a valid scenario, and reminding the scheduling process; If the repair state prediction instruction includes an instruction to discard a candidate repair behavior, after discarding the candidate repair behavior, the state information accuracy determination further includes: Discarding the eutrophication state of the geological environment object to be restored of the candidate restoration behavior in the restoration element library, and reminding the scheduling process; The scheduling process also includes reminding the post-repair prediction state to synchronize the post-repair prediction state cache with the eutrophication state of the geological environment object to be repaired in the current repair state.

6. A geological environment ecological restoration status prediction device, characterized in that: include: An acquisition module includes acquiring a restoration state prediction instruction, wherein the restoration state prediction instruction includes an instruction indicating whether to retain or discard a candidate restoration behavior corresponding to an information analysis record on a current restoration state of a geological environment object to be restored; Correction modules, including: According to the restoration state prediction instruction, the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library is corrected; the scheduling process is reminded that the eutrophication state of the geological environment object to be restored in the current restoration state is lost; the scheduling process at least includes reminding the post-restoration prediction state to perform a parallel correction of the post-restoration prediction state of the eutrophication state of the geological environment object to be restored in the current restoration state; The eutrophication state of the geological environment object to be repaired in the current repair state is corrected in parallel with the predicted state after repair; After all post-repair prediction states have completed parallel correction of the post-repair prediction states, the accuracy of the state information is determined; In the dimension of parallel correction of the predicted state after the eutrophication state of the geological environment object to be repaired in the current repair state is repaired, the correction module includes: The eutrophication state of the geological environment object to be repaired in the current repair state, which is cached in the predicted state after synchronous repair; After waiting for all the repair behaviors in the current repair behavior set to be completed, remind the scheduling process to complete the parallel correction of the predicted state after the repair; In the dimension of parallel correction of the predicted state after the eutrophication state of the geological environment object to be repaired in the current repair state is repaired, the correction module also includes: setting the repair plan corresponding to the current repair state to invalid.

7. A geological environment ecological restoration status prediction device according to claim 6, characterized in that: In terms of determining the accuracy of the status information, the correction module includes: configuring a candidate repair behavior or discarding a candidate repair behavior according to the repair state prediction instruction; In correcting the dimension of the eutrophication state of the geological environment object to be repaired in the current restoration state in the restoration element library, the correction module includes: correcting the eutrophication elements of the geological environment object to be repaired in the current restoration state in the restoration element library.

8. A geological environment ecological restoration status prediction device according to claim 7, characterized in that: If the restoration state prediction instruction includes an indication to retain the candidate restoration behavior, the dimension of the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library is corrected, and the correction module further includes: The eutrophication state of the geological environment object to be repaired of the candidate repair behavior is saved in the repair element library; wherein the scene in the eutrophication state of the geological environment object to be repaired of the repair behavior is the first repair behavior; If the restoration state prediction instruction includes an indication to discard the candidate restoration behavior, in the dimension of the eutrophication state of the geological environment object to be restored in the current restoration state in the restoration element library, the correction module further includes: setting the scenario of the candidate restoration behavior in the restoration element library to the second restoration behavior; the restoration behavior whose scenario is the first restoration behavior or the second restoration behavior cannot be used by the restoration plan; In the dimension of configuring candidate repair behaviors, the correction module includes: Search the restoration behavior table for the geological environment object information record to be restored corresponding to the current restoration state; The information in the candidate geological environment object information record to be repaired is parallelized to the candidate repair behavior; the candidate geological environment object information record to be repaired includes: the geological environment object information record to be repaired corresponding to the current repair state and the eutrophic elements of the geological environment object to be repaired have not been corrected.

9. A geological environment ecological restoration status prediction device according to claim 8, characterized in that: In the dimension of determining the accuracy of the status information, the correction module further includes: after configuring the candidate restoration behavior or discarding the candidate restoration behavior, correcting the eutrophic elements of the geological environment object to be restored in the candidate geological environment object information record to be restored.

10. A geological environment ecological restoration status prediction device according to claim 9, characterized in that: In the dimension of determining the accuracy of the state information, if the repair state prediction instruction includes an indication of retaining the candidate repair behavior, the correction module further includes: After all the eutrophic elements of the geological environment objects to be restored in the information records of all candidate geological environment objects to be restored are corrected, the scenarios of the candidate restoration behaviors in the restoration element library are set as valid scenarios, and the scheduling process is reminded; In the dimension of determining the accuracy of the state information, if the restoration state prediction instruction includes an indication to discard a candidate restoration behavior, the correction module further includes: after discarding the candidate restoration behavior, discarding the restoration behavior of the candidate restoration behavior in the restoration element library, the eutrophication state of the geological environment object to be restored, and reminding the scheduling process; The scheduling process also includes reminding the post-repair prediction state to synchronize the post-repair prediction state cache with the eutrophication state of the geological environment object to be repaired in the current repair state.

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