A method and system for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion

Abstract

The present invention provides a method and system for generating power from exhaust gas based on RCO catalytic combustion and CCER carbon sink, wherein the method includes: pre-treating captured exhaust gas based on RCO catalytic combustion technology; generating power based on pre-treated exhaust gas; and performing CCER carbon sink in the process of pre-treating captured exhaust gas and generating power. The present invention utilizes RCO catalytic combustion technology to significantly reduce the emission of harmful gases in exhaust gas, reduce atmospheric pollution and greenhouse gases, and improve air quality; converting the treated gas into electricity not only effectively utilizes energy that would otherwise be wasted, but also reduces dependence on traditional fossil fuels, and realizes sustainable utilization of energy; the carbon emission reduction credits obtained through CCER carbon sink projects bring additional economic benefits, while promoting the reduction of carbon emissions, helping global efforts to address climate change, and achieving a win-win situation for ecological protection and economic development.

Description

Technical Field

[0001] The present invention relates to the technical field of computer data processing, and in particular to a method and system for generating power from exhaust gas based on RCO catalytic combustion and a CCER carbon sink. Background Art

[0002] As the world pays more and more attention to environmental protection and energy sustainability, how to efficiently utilize waste gas resources and reduce greenhouse gas emissions has become an important issue that needs to be addressed. In this context, the efficient utilization and management of air-deficient methane (i.e., low-concentration methane produced during coal mining, etc.) as a potential clean energy resource is particularly important. Traditionally, air-deficient methane is often considered a hazardous waste gas, and its emission not only poses a threat to the environment, but also wastes precious energy resources. Therefore, the development of efficient and safe air-deficient methane utilization technology has important environmental and economic significance. Summary of the invention

[0003] One of the purposes of the present invention is to provide a method and system for generating power from exhaust gas based on RCO catalytic combustion and CCER carbon sink. The RCO catalytic combustion technology is used to significantly reduce the emission of harmful gases in exhaust gas, reduce atmospheric pollution and greenhouse gases, and improve air quality. The treated gas is converted into electricity, which not only effectively utilizes energy that would otherwise be wasted, but also reduces dependence on traditional fossil fuels and realizes sustainable utilization of energy. The carbon emission reduction credits obtained through the CCER carbon sink project bring additional economic benefits, while promoting the reduction of carbon emissions, helping global efforts to address climate change and achieving a win-win situation for ecological protection and economic development.

[0004] An embodiment of the present invention provides a method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion, comprising:

[0005] Based on RCO catalytic combustion technology, the captured exhaust gas is pre-treated;

[0006] Generate electricity based on pre-treated exhaust gas;

[0007] CCER carbon sinks are carried out during the process of pre-treating the captured lack of wind gas and generating electricity.

[0008] Optionally, the method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion also includes:

[0009] During the CCER carbon sink process, carbon sink supervision is carried out.

[0010] Optionally, during the CCER carbon sink process, carbon sink supervision is performed, including:

[0011] Generate a process visualization model of the process of CCER carbon sequestration;

[0012] Obtain a visualization view sequence of a process visualization model within a preset future time;

[0013] Determine a perspective cluster that meets the perspective cluster condition from the visualized perspective sequence;

[0014] When the process visualization model is about to be the jth in the i-th perspective cluster in the visualization perspective sequence in the future i When the supervisor views the first visualization perspective, the process visualization model is continuously displayed to the supervisor, and the multimodal behavior generated when the supervisor views the process visualization model is monitored, and the multimodal behavior is matched with the trigger behavior in the trigger behavior library;

[0015] When the process visualization model has been presented as the jth i +k first visualization perspectives, and when the sum of the trigger values ​​of the trigger behaviors that match the multimodal behavior is greater than a preset first threshold, a feature description is performed on the first visualization perspectives in the igth to i+gth perspective clusters in the visualization perspective sequence to obtain a feature description vector;

[0016] Determine a view reconfiguration strategy corresponding to the feature description vector from a view reconfiguration strategy library;

[0017] Based on the perspective reconfiguration strategy, each first visualization perspective in the i-th perspective cluster is reconfigured;

[0018] The control process visualization model presents the first visualization perspectives after each reconfiguration in the i-th perspective cluster in sequence order;

[0019] When supervisors input supervisory strategies, the supervisory strategies are executed;

[0020] Where i=1+g,2,…,Mg; j i =1,2,…,N i -k;

[0021] k is a preset first number; M is the total number of view clusters in the visualization view sequence; N i is the total number of first visualization perspectives in the i-th perspective cluster in the visualization perspective sequence; g is a preset second number.

[0022] Optionally, the viewing angle cluster condition includes:

[0023] Two adjacent first visualization perspectives in the same perspective cluster meet at least one perspective relationship condition; wherein the perspective relationship condition at least includes: the overlap between the two first visualization perspectives is greater than a preset second threshold value and the content type of the same visual content between the two first visualization perspectives exists in the standard content type library;

[0024] and,

[0025] The total number of first visualization perspectives in the same perspective cluster is greater than a preset third threshold;

[0026] and,

[0027] There is content correlation between the visual contents of the respective first visualization perspectives in different adjacent perspective clusters.

[0028] Optionally, the method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion also includes:

[0029] In the process of executing the supervision strategy, obtain the execution object and execution sub-strategy of the current supervision strategy execution;

[0030] When the relative position relationship between the supervisor and the execution object in the first time period continues to meet the position relationship condition corresponding to the policy type of the execution sub-policy, obtaining the position movement information of the supervisor in the second time period;

[0031] Based on the perspective creation condition, a second visualization perspective is created in the process visualization model according to the position movement information;

[0032] The control process visualization model presents a second visualization perspective;

[0033] The conditions for creating a perspective include:

[0034] The vector angles between the movement vector of each target trajectory point on the position movement trajectory mapped into the process visualization model and the perspective vector of the second visualization perspective are all less than the preset fourth threshold value; the target trajectory point is a trajectory point on the position movement trajectory representing that the supervisor has a sudden change in movement direction or has stayed for more than a preset time;

[0035] and,

[0036] The fully visible execution object is displayed in the second visualization perspective.

[0037] An embodiment of the present invention provides a system for generating power from exhaust gas and CCER carbon sinks based on RCO catalytic combustion, comprising:

[0038] Pretreatment module, used to pre-treat the captured exhaust gas based on RCO catalytic combustion technology;

[0039] A power generation module, used for generating power based on the pre-treated ventilation gas;

[0040] The carbon sink module is used to perform CCER carbon sinking during the pre-treatment of captured lack of wind gas and the generation of electricity.

[0041] Optionally, the exhaust gas power generation and CCER carbon sink system based on RCO catalytic combustion also includes a supervision module for:

[0042] During the CCER carbon sink process, carbon sink supervision is carried out.

[0043] Optionally, during the CCER carbon sink process, carbon sink supervision is performed, including:

[0044] Generate a process visualization model of the process of CCER carbon sequestration;

[0045] Obtain a visualization view sequence of a process visualization model within a preset future time;

[0046] Determine a perspective cluster that meets the perspective cluster condition from the visualized perspective sequence;

[0047] When the process visualization model is about to be the jth in the i-th perspective cluster in the visualization perspective sequence in the future i When the supervisor views the first visualization perspective, the process visualization model is continuously displayed to the supervisor, and the multimodal behavior generated when the supervisor views the process visualization model is monitored, and the multimodal behavior is matched with the trigger behavior in the trigger behavior library;

[0048] When the process visualization model has been presented as the jth i +k first visualization perspectives, and when the sum of the trigger values ​​of the trigger behaviors that match the multimodal behavior is greater than a preset first threshold, a feature description is performed on the first visualization perspectives in the igth to i+gth perspective clusters in the visualization perspective sequence to obtain a feature description vector;

[0049] Determine a view reconfiguration strategy corresponding to the feature description vector from a view reconfiguration strategy library;

[0050] Based on the perspective reconfiguration strategy, each first visualization perspective in the i-th perspective cluster is reconfigured;

[0051] The control process visualization model presents the first visualization perspectives after each reconfiguration in the i-th perspective cluster in sequence order;

[0052] When supervisors input supervisory strategies, the supervisory strategies are executed;

[0053] Where i=1+g,2,…,Mg; ji =1,2,…,N i -k;

[0054] k is a preset first number; M is the total number of view clusters in the visualization view sequence; N i is the total number of first visualization perspectives in the i-th perspective cluster in the visualization perspective sequence; g is a preset second number.

[0055] Optionally, the viewing angle cluster condition includes:

[0056] Two adjacent first visualization perspectives in the same perspective cluster meet at least one perspective relationship condition; wherein the perspective relationship condition at least includes: the overlap between the two first visualization perspectives is greater than a preset second threshold value and the content type of the same visual content between the two first visualization perspectives exists in the standard content type library;

[0057] and,

[0058] The total number of first visualization perspectives in the same perspective cluster is greater than a preset third threshold;

[0059] and,

[0060] There is content correlation between the visual contents of the respective first visualization perspectives in different adjacent perspective clusters.

[0061] Optionally, the exhaust gas power generation and CCER carbon sink system based on RCO catalytic combustion also includes an auxiliary module for:

[0062] In the process of executing the supervision strategy, obtain the execution object and execution sub-strategy of the current supervision strategy execution;

[0063] When the relative position relationship between the supervisor and the execution object in the first time period continues to meet the position relationship condition corresponding to the policy type of the execution sub-policy, obtaining the position movement information of the supervisor in the second time period;

[0064] Based on the perspective creation condition, a second visualization perspective is created in the process visualization model according to the position movement information;

[0065] The control process visualization model presents a second visualization perspective;

[0066] The conditions for creating a perspective include:

[0067] The vector angles between the movement vector of each target trajectory point on the position movement trajectory mapped into the process visualization model and the perspective vector of the second visualization perspective are all less than the preset fourth threshold value; the target trajectory point is a trajectory point on the position movement trajectory representing that the supervisor has a sudden change in movement direction or has stayed for more than a preset time;

[0068] and,

[0069] The fully visible execution object is displayed in the second visualization perspective.

[0070] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description and the accompanying drawings.

[0071] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0072] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0073] Figure 1 It is a schematic diagram of a method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion in an embodiment of the present invention;

[0074] Figure 2 This is a schematic diagram of a ventilation gas power generation and CCER carbon sink system based on RCO catalytic combustion in an embodiment of the present invention. DETAILED DESCRIPTION

[0075] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0076] The embodiment of the present invention provides a method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion, such as Figure 1 As shown, including:

[0077] S1. Pre-treat the captured exhaust gas based on RCO catalytic combustion technology;

[0078] S2. Generate electricity based on the pre-treated exhaust gas;

[0079] S3. CCER carbon sink is carried out during the process of pre-treating the captured lack of wind gas and generating electricity.

[0080] The captured exhaust gas is first pretreated by RCO catalytic combustion technology, which uses catalysts to accelerate the oxidation reaction of gas at low temperature, converting it into carbon dioxide and water, and can effectively remove harmful components in gas, such as unburned hydrocarbons and carbon monoxide, so that the gas meets the combustion requirements, thereby improving combustion efficiency and safety. The pretreated exhaust gas has a higher combustion value and can be used as fuel for gas-fired generator sets. These generator sets generate heat energy by burning gas and drive generators to convert it into electricity. In this way, not only the waste gas resources are effectively utilized, but also converted into valuable electricity. During the entire process of pretreatment and power generation, the CCER carbon sink project is implemented to evaluate the reduced emissions through accurate monitoring and recording of greenhouse gas emissions, and generate carbon emission reduction credits, which can be traded on the carbon market to further promote the achievement of emission reduction targets.

[0081] In this application, the RCO catalytic combustion technology is used to significantly reduce the emission of harmful gases in the air-deficient gas, reduce atmospheric pollution and greenhouse gases, and improve air quality; the treated gas is converted into electricity, which not only effectively utilizes energy that would otherwise be wasted, but also reduces dependence on traditional fossil fuels and achieves sustainable energy utilization; the carbon emission reduction credits obtained through the CCER carbon sink project bring additional economic benefits, while promoting the reduction of carbon emissions, helping global efforts to combat climate change, and achieving a win-win situation for ecological protection and economic development.

[0082] In one embodiment, the method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion further includes:

[0083] S4. Carry out carbon sink supervision during the CCER carbon sink process;

[0084] Among them, S4, in the process of CCER carbon sink, carbon sink supervision is carried out, including:

[0085] S41, generating a process visualization model for the process of CCER carbon sink;

[0086] In step S41, the process of CCER carbon sink will contain a lot of process information, including at least: A. Carbon emissions and related environmental data before the process starts; B. Carbon emission reduction technology and process and operation plan used in the process; C. Emissions, energy consumption, etc. collected in real time or regularly during the process; D. Calculated carbon emission reduction; E. CCER standards and requirements, etc. Based on these process information, a process visualization model is generated, and the process visualization model can visualize these process information. Specifically, the generation of the process visualization model can be performed according to the visualization model generation template preset by the counting personnel.

[0087] S42, obtaining a visualization view sequence of a process visualization model within a preset future time;

[0088] In step S42, the preset time may be 10 minutes; when the process visualization model visualizes the above process information, it will be displayed through the first visualization perspective. However, as the process progresses, the above process information will also change continuously. Therefore, it is necessary to change the first visualization perspective. In the future, multiple first visualization perspectives that change in sequence will form a visualization perspective sequence. For example, the current first visualization perspective displays the working condition of a carbon dioxide capture device in a carbon sink project. The carbon dioxide capture device will be saturated in capturing carbon dioxide. Then, the first visualization perspective that will be changed in the future will be the simulated carbon sink amount of surrounding afforestation, etc.;

[0089] S43, determining a view cluster that meets the view cluster condition from the visualized view sequence;

[0090] In step S43, after the perspective cluster conditions are screened, the display contents of each first visualization perspective in the same perspective cluster require continuous attention of the supervisor, and the supervisor may make decisions and issue supervision strategies when continuously viewing the display contents of each first visualization perspective in the same perspective cluster;

[0091] S44, when the process visualization model is about to be the jth in the i-th perspective cluster in the visualization perspective sequence in the future i When the supervisor views the first visualization perspective, the process visualization model is continuously displayed to the supervisor, and the multimodal behavior generated when the supervisor views the process visualization model is monitored, and the multimodal behavior is matched with the trigger behavior in the trigger behavior library;

[0092] In step S44, the process visualization model presents the first visualization perspective, which means that the process visualization model displays the above process information in the first visualization perspective; the future presentation refers to the first visualization perspective in the visualization perspective sequence currently presented by the process visualization model and the jth visualization perspective in the i-th perspective cluster. i The sequence order difference between the first visualization perspectives is less than 3; when the process visualization model is about to be the jth in the i-th perspective cluster in the visualization perspective sequence in the future iWhen the first visualization perspective is viewed, it indicates that the supervisor will need to continue to pay attention to the process visualization model and continuously display the process visualization model to the supervisor; the multimodal behavior at least includes: the operation behavior generated by the supervisor operating the process visualization model, the discussion behavior between the supervisor and other supervisors, the operation behavior of other software on the terminal where the supervisor operates to view the process visualization model, etc.; the triggering behavior represents the decision-making and issuance of the supervision strategy by the supervisor, for example: the supervisor requests to change the working parameters of the carbon dioxide capture equipment displayed by the process visualization model, the supervisor views the historical fault conditions of the carbon dioxide capture equipment in operation, etc.;

[0093] S45, when the process visualization model has been presented as the jth in the i-th perspective cluster i +k first visualization perspectives, and when the sum of the trigger values ​​of the trigger behaviors that match the multimodal behavior is greater than a preset first threshold, a feature description is performed on the first visualization perspectives in the igth to i+gth perspective clusters in the visualization perspective sequence to obtain a feature description vector;

[0094] In step S45, the process visualization model has been presented in the jth perspective cluster in the i-th perspective cluster. i +k first visualization perspectives, it means that the supervisor has continuously paid attention to the contents displayed by k+1 first visualization perspectives in the same perspective cluster; different trigger behaviors are preset with trigger values, and the trigger values ​​represent the extent to which the trigger behavior represents the supervisor's desire to make decisions and issue supervision strategies; the first threshold can be 8; on the premise that the supervisor has continuously paid attention to the contents displayed by k+1 first visualization perspectives in the same perspective cluster, if the sum of the trigger values ​​of the trigger behaviors that match the multimodal behavior is greater than the preset first threshold, it means that the supervisor must want to make decisions and issue supervision strategies; the first visualization perspectives in the igth to i+gth perspective clusters in the visualization perspective sequence are characterized, and the obtained feature description vector is used as the basis for determining the perspective reconfiguration strategy; when performing feature description, the content type and content dimension of the first visualization perspective are extracted for feature extraction, and the feature description vector is constructed in the form of a vector based on the extracted features; the features of the first visualization perspective in the i-th perspective cluster and the first visualization perspectives in the g perspective clusters before and after the i-th perspective cluster are used as the basis for determining the perspective reconfiguration strategy, which can improve the comprehensiveness and accuracy of the perspective reconfiguration strategy determination;

[0095] S46, determining a view reconfiguration strategy corresponding to the feature description vector from a view reconfiguration strategy library;

[0096] In step S46, there are perspective reconfiguration strategies corresponding to different feature description vectors in the perspective reconfiguration strategy library. The feature description vector represents a situation where perspective reconfiguration is required. The perspective reconfiguration strategy is a strategy suitable for perspective reconfiguration in this situation. The perspective reconfiguration strategy is a strategy for reconfiguring the perspective so that the display content of each first visualization perspective in the i-th perspective cluster is convenient for supervisors to make decisions and issue supervision strategies. For example, if the features constructed into the feature description vector are saturated carbon dioxide capture equipment, newly started unsaturated carbon dioxide capture equipment, etc., then the corresponding perspective reconfiguration strategy is to reconfigure so that all first visualization perspectives in the i-th perspective cluster can fully visualize all carbon dioxide capture equipment;

[0097] S47, reconfiguring each first visualization perspective in the i-th perspective cluster based on the perspective reconfiguration strategy;

[0098] S48, the control process visualization model sequentially presents the first visualization perspectives after reconfiguration in the i-th perspective cluster according to the sequence order;

[0099] In step S48, after the perspective reconfiguration is completed, the display content of each reconfigured first visualization perspective in the i-th perspective cluster is convenient for supervisors to make decisions and issue supervision strategies, so the control process visualization model is presented in sequence; the sequence order is the order of arrangement of the first visualization perspective in the perspective cluster;

[0100] S49. When the supervisor inputs the supervisory strategy, the supervisory strategy is executed;

[0101] In step S49, when the supervisor completes the decision of the supervision strategy, it will be input and the system will execute it;

[0102] Where i=1+g,2,…,Mg; j i =1,2,…,N i -k;

[0103] k is a preset first number; M is the total number of view clusters in the visualization view sequence; N i is the total number of first visualization perspectives in the i-th perspective cluster in the visualization perspective sequence; g is a preset second number.

[0104] The first number may be 1; the second number may be 2.

[0105] Generally, in the process of CCER carbon sink, in order to improve the level of CCER carbon sink, carbon sink supervision is required; at this time, the intervention of supervisors is required. However, when the supervisors intervene, they need to understand the situation on the spot and make supervisory strategy decisions. However, the field area of ​​carbon sink projects is large, which makes it very inconvenient for supervisors to intervene. Secondly, during the implementation of carbon sink projects, if the supervisors understand each situation information one by one, the workload is huge, which reduces the work efficiency of the supervisors.

[0106] The embodiments of the present invention can solve the above problems one by one; introduce a process visualization model and a view cluster, when the process visualization model is about to be the jth in the i-th view cluster in the visualization view sequence in the future i When the process visualization model is presented to the jth visual perspective in the i-th visual cluster, the supervisor is continuously shown the process visualization model. The supervisor does not need to continuously view the process visualization model. The supervisor can view it when necessary. When the supervisor views the visualization model, he can view the display content that he needs to pay attention to continuously, which reduces the workload of the supervisor. Then, when the process visualization model has been presented to the jth visual perspective in the i-th visual cluster, the supervisor can view the process visualization model when necessary. i +k first visualization perspectives, and when the sum of the trigger values ​​of the trigger behaviors that match the multimodal behaviors is greater than the preset first threshold, a feature description vector is constructed to determine the perspective reconfiguration strategy. Based on the perspective reconfiguration strategy, the first visualization perspectives in the i-th perspective cluster are reconfigured, and the control process visualization model presents the reconfigured first visualization perspectives in the i-th perspective cluster in sequence, which is convenient for regulators to make decisions and issue supervision strategies, greatly improves the work efficiency of regulators, thereby improving the effect of carbon sink supervision, and at the same time, it is more humane and intelligent.

[0107] In one embodiment, the viewing angle cluster condition includes:

[0108] At least one perspective relationship condition is met between two adjacent first visualization perspectives in the same perspective cluster; wherein the perspective relationship condition at least includes: the overlap between the two first visualization perspectives is greater than a preset second threshold value and the content type of the same visual content between the two first visualization perspectives exists in the standard content type library; in this condition, the second threshold value may be 80%; the content type exists in the standard content type library, indicating that the corresponding visual content requires the attention of the supervisor, for example: the content type in the standard content type library is the working condition of the carbon dioxide capture equipment; when the perspective cluster meets this condition, the display content of each first visualization perspective in the same perspective cluster requires the continuous attention of the supervisor;

[0109] and,

[0110] The total number of first visualization perspectives in the same perspective cluster is greater than a preset third threshold value; in this condition, the third threshold value may be 5; when the perspective cluster meets this condition, the number of first visualization perspectives in the same perspective cluster will not be too small, so that when the supervisor continuously focuses on the display content of each first visualization perspective in the same perspective cluster, the supervisor will not continuously focus on less content and fail to generate the intention to make supervision strategy decisions and issue them;

[0111] and,

[0112] There is content relevance between the visual contents of the first visualization perspectives in different adjacent perspective clusters. In this condition, content relevance refers to the existence of a relationship between visual contents such as the same content type; when the perspective cluster meets this condition, when the supervisor continuously focuses on the display contents of each first visualization perspective in the same perspective cluster, there is a relationship between the consecutively focused contents, which makes it easier for the supervisor to make decisions on and issue supervision strategies.

[0113] In one embodiment, the method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion further includes:

[0114] S501. In the process of executing the supervision strategy, obtaining the execution object and execution sub-strategy of the current supervision strategy execution;

[0115] In step S501, during the execution of the supervision strategy, there will be execution objects and execution sub-strategies in real time. The execution object is the object of the strategy implementation, and the execution sub-strategy is the strategy implemented on the execution object. For example, the execution object is a carbon dioxide capture device, and the execution sub-strategy is to operate with the newly set operating parameters;

[0116] S502: when the relative position relationship between the supervisor and the execution object in the first time period continues to meet the position relationship condition corresponding to the policy type of the execution sub-policy, obtain the position movement information of the supervisor in the second time period;

[0117] In step S502, the first time period may be the most recent 100 seconds in history; the second time period may be 50 seconds immediately after the first time period; the relative position relationship between the supervisor and the execution object refers to the relative position between the supervisor's current actual position in the CCER carbon sink site and the execution object's position in the CCER carbon sink site, specifically, it may be a straight-line distance, etc.; the execution sub-strategy corresponds to a position relationship condition. When the relative position relationship between the supervisor and the execution object in the first time period continues to meet the position relationship condition, it indicates that the supervisor needs to be assisted by a process visualization model. Specifically, for example: if the position relationship condition is that the straight-line distance is less than 5 meters, it indicates that the supervisor is continuously very close to the straight-line object and needs to be assisted by a process visualization model.

[0118] S503, based on the perspective creation condition, create a second visualization perspective in the process visualization model according to the position movement information;

[0119] In step S503, based on the perspective creation condition and according to the position movement information, a second visualization perspective is created in the process visualization model, and when the process visualization model displays the content through the second visualization perspective, the supervisor can be assisted on site;

[0120] S504, the control process visualization model is presented in a second visualization perspective;

[0121] The conditions for creating a perspective include:

[0122] The vector angle between the moving vector of each target trajectory point on the position movement trajectory mapped into the process visualization model and the perspective vector of the second visualization perspective is less than the preset fourth threshold; the target trajectory point is a trajectory point on the position movement trajectory representing that the supervisor has a sudden change in movement direction or stays for more than a preset time; in this condition, the sudden change in movement direction refers to the supervisor starting to move continuously in the direction of a certain point and then suddenly changing the movement direction; the preset time can be 10 seconds; the position point information is mapped to form a position movement trajectory; the moving vector of the target trajectory point is constructed based on the position of the target trajectory point and the moving direction of the supervisor when moving to the target trajectory point; the perspective vector of the second visualization perspective is constructed based on the perspective center position and perspective direction of the second visualization perspective; the fourth threshold can be 30 degrees; when the vector angle between the moving vector of each target trajectory point and the perspective vector of the second visualization perspective is less than the preset fourth threshold, it can be ensured that the second visualization perspective is synchronized with the actual on-site perspective of the supervisor as much as possible, so that the supervisor can view auxiliary information in the process visualization model, such as: work status information of the execution object, etc.

[0123] and,

[0124] The execution object can be fully visualized in the second visualization perspective. Secondly, the execution object can be fully visualized in the second visualization perspective, which further ensures that the second visualization perspective is synchronized with the actual on-site perspective of the supervisor as much as possible.

[0125] In the embodiment of the present invention, when supervisors enter the CCER carbon sink site for on-site management, they are assisted by the process visualization model, and perspective creation conditions are introduced. According to the position movement information, a second visualization perspective is created in the process visualization model, and the process visualization model is controlled to present the second visualization perspective. When the process visualization model displays content through the second visualization perspective, supervisors can be assisted on site, thereby further improving the work efficiency of supervisors.

[0126] The embodiment of the present invention provides a system for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion, such as Figure 2 As shown, including:

[0127] Pretreatment module 1 is used to pretreat the captured exhaust gas based on RCO catalytic combustion technology;

[0128] A power generation module 2, used for generating power based on the pre-treated exhaust gas;

[0129] The carbon sink module 3 is used to perform CCER carbon sink in the process of pre-treating the captured lack of wind gas and generating electricity.

[0130] The exhaust gas power generation and CCER carbon sink system based on RCO catalytic combustion also includes a regulatory module for:

[0131] During the CCER carbon sink process, carbon sink supervision is carried out.

[0132] In the process of CCER carbon sink, carbon sink supervision is carried out, including:

[0133] Generate a process visualization model of the process of CCER carbon sequestration;

[0134] Obtain a visualization view sequence of a process visualization model within a preset future time;

[0135] Determine a perspective cluster that meets the perspective cluster condition from the visualized perspective sequence;

[0136] When the process visualization model is about to be the jth in the i-th perspective cluster in the visualization perspective sequence in the future i When the supervisor views the first visualization perspective, the process visualization model is continuously displayed to the supervisor, and the multimodal behavior generated when the supervisor views the process visualization model is monitored, and the multimodal behavior is matched with the trigger behavior in the trigger behavior library;

[0137] When the process visualization model has been presented as the jth i +k first visualization perspectives, and when the sum of the trigger values ​​of the trigger behaviors that match the multimodal behavior is greater than a preset first threshold, a feature description is performed on the first visualization perspectives in the igth to i+gth perspective clusters in the visualization perspective sequence to obtain a feature description vector;

[0138] Determine a view reconfiguration strategy corresponding to the feature description vector from a view reconfiguration strategy library;

[0139] Based on the perspective reconfiguration strategy, each first visualization perspective in the i-th perspective cluster is reconfigured;

[0140] The control process visualization model presents the first visualization perspectives after each reconfiguration in the i-th perspective cluster in sequence order;

[0141] When supervisors input supervisory strategies, the supervisory strategies are executed;

[0142] Where i=1+g,2,…,Mg; j i =1,2,…,N i -k;

[0143] k is a preset first number; M is the total number of view clusters in the visualization view sequence; N i is the total number of first visualization perspectives in the i-th perspective cluster in the visualization perspective sequence; g is a preset second number.

[0144] The viewing angle cluster conditions include:

[0145] Two adjacent first visualization perspectives in the same perspective cluster meet at least one perspective relationship condition; wherein the perspective relationship condition at least includes: the overlap between the two first visualization perspectives is greater than a preset second threshold value and the content type of the same visual content between the two first visualization perspectives exists in the standard content type library;

[0146] and,

[0147] The total number of first visualization perspectives in the same perspective cluster is greater than a preset third threshold;

[0148] and,

[0149] There is content correlation between the visual contents of the respective first visualization perspectives in different adjacent perspective clusters.

[0150] The exhaust gas power generation and CCER carbon sink system based on RCO catalytic combustion also includes auxiliary modules for:

[0151] In the process of executing the supervision strategy, obtain the execution object and execution sub-strategy of the current supervision strategy execution;

[0152] When the relative position relationship between the supervisor and the execution object in the first time period continues to meet the position relationship condition corresponding to the policy type of the execution sub-policy, obtaining the position movement information of the supervisor in the second time period;

[0153] Based on the perspective creation condition, a second visualization perspective is created in the process visualization model according to the position movement information;

[0154] The control process visualization model presents a second visualization perspective;

[0155] The conditions for creating a perspective include:

[0156] The vector angles between the movement vector of each target trajectory point on the position movement trajectory mapped into the process visualization model and the perspective vector of the second visualization perspective are all less than the preset fourth threshold value; the target trajectory point is a trajectory point on the position movement trajectory representing that the supervisor has a sudden change in movement direction or has stayed for more than a preset time;

[0157] and,

[0158] The fully visible execution object is displayed in the second visualization perspective.

[0159] 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 equivalents, the present invention is also intended to include these modifications and variations.

Claims

1. A method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion, characterized in that: include: Based on RCO catalytic combustion technology, the captured exhaust gas is pre-treated; Generate electricity based on pre-treated exhaust gas; CCER carbon sink is carried out in the process of pre-treating the captured LAW gas and generating electricity; Also includes: Carry out carbon sink supervision during the CCER carbon sink process; In the process of CCER carbon sink, carbon sink supervision is carried out, including: Generate a process visualization model of the process of CCER carbon sequestration; Obtain a visualization view sequence of a process visualization model within a preset future time; Determine a perspective cluster that meets the perspective cluster condition from the visualized perspective sequence; When the process visualization model is about to be the jth in the i-th perspective cluster in the visualization perspective sequence in the future i When the supervisor views the first visualization perspective, the process visualization model is continuously displayed to the supervisor, and the multimodal behavior generated when the supervisor views the process visualization model is monitored, and the multimodal behavior is matched with the trigger behavior in the trigger behavior library; When the process visualization model has been presented as the jth i +k first visualization perspectives, and when the sum of the trigger values ​​of the trigger behaviors that match the multimodal behavior is greater than a preset first threshold, a feature description is performed on the first visualization perspectives in the igth to i+gth perspective clusters in the visualization perspective sequence to obtain a feature description vector; Determine a view reconfiguration strategy corresponding to the feature description vector from a view reconfiguration strategy library; Based on the perspective reconfiguration strategy, each first visualization perspective in the i-th perspective cluster is reconfigured; The control process visualization model presents the first visualization perspectives after each reconfiguration in the i-th perspective cluster in sequence order; When supervisors input supervisory strategies, the supervisory strategies are executed; Where i = 1 + g, 2, ..., Mg; j i =1,2,…,N i -k; k is a preset first number; M is the total number of viewpoint clusters in the visualization viewpoint sequence; N i is the total number of the first visualization perspectives in the i-th perspective cluster in the visualization perspective sequence; g is a preset second number.

2. The method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion according to claim 1, characterized in that: The viewing angle cluster conditions include: Two adjacent first visualization perspectives in the same perspective cluster meet at least one perspective relationship condition; wherein the perspective relationship condition at least includes: the overlap between the two first visualization perspectives is greater than a preset second threshold value and the content type of the same visual content between the two first visualization perspectives exists in the standard content type library; and, The total number of first visualization perspectives in the same perspective cluster is greater than a preset third threshold; and, There is content correlation between the visual contents of the respective first visualization perspectives in different adjacent perspective clusters.

3. The method for generating power from exhaust gas and CCER carbon sink based on RCO catalytic combustion according to claim 1, characterized in that: Also includes: In the process of executing the supervision strategy, obtain the execution object and execution sub-strategy of the current supervision strategy execution; When the relative position relationship between the supervisor and the execution object in the first time period continues to meet the position relationship condition corresponding to the policy type of the execution sub-policy, obtaining the position movement information of the supervisor in the second time period; Based on the perspective creation condition, a second visualization perspective is created in the process visualization model according to the position movement information; The control process visualization model presents a second visualization perspective; The conditions for creating a perspective include: The vector angles between the movement vector of each target trajectory point on the position movement trajectory mapped into the process visualization model and the perspective vector of the second visualization perspective are all less than the preset fourth threshold value; the target trajectory point is a trajectory point on the position movement trajectory representing that the supervisor has a sudden change in movement direction or has stayed for more than a preset time; and, The fully visible execution object is displayed in the second visualization perspective.

4. A ventilation gas power generation and CCER carbon sink system based on RCO catalytic combustion, characterized in that: include: Pretreatment module, used to pre-treat the captured exhaust gas based on RCO catalytic combustion technology; A power generation module, used for generating power based on the pre-treated ventilation gas; Carbon sink module, used to perform CCER carbon sink in the process of pre-processing captured LAW gas and generating electricity; Also includes supervision modules for: Carry out carbon sink supervision during the CCER carbon sink process; In the process of CCER carbon sink, carbon sink supervision is carried out, including: Generate a process visualization model of the process of CCER carbon sequestration; Obtain a visualization view sequence of a process visualization model within a preset future time; Determine a perspective cluster that meets the perspective cluster condition from the visualized perspective sequence; When the process visualization model is about to be the jth in the i-th perspective cluster in the visualization perspective sequence in the future i When the supervisor views the first visualization perspective, the process visualization model is continuously displayed to the supervisor, and the multimodal behavior generated when the supervisor views the process visualization model is monitored, and the multimodal behavior is matched with the trigger behavior in the trigger behavior library; When the process visualization model has been presented as the jth i +k first visualization perspectives, and when the sum of the trigger values ​​of the trigger behaviors that match the multimodal behavior is greater than a preset first threshold, a feature description is performed on the first visualization perspectives in the igth to i+gth perspective clusters in the visualization perspective sequence to obtain a feature description vector; Determine a view reconfiguration strategy corresponding to the feature description vector from a view reconfiguration strategy library; Based on the perspective reconfiguration strategy, each first visualization perspective in the i-th perspective cluster is reconfigured; The control process visualization model presents the first visualization perspectives after each reconfiguration in the i-th perspective cluster in sequence order; When supervisors input supervisory strategies, the supervisory strategies are executed; Where i = 1 + g, 2, ..., Mg; j i =1,2,…,N i -k; k is a preset first number; M is the total number of viewpoint clusters in the visualization viewpoint sequence; N i is the total number of the first visualization perspectives in the i-th perspective cluster in the visualization perspective sequence; g is a preset second number.

5. The exhaust gas power generation and CCER carbon sink system based on RCO catalytic combustion as claimed in claim 4, characterized in that: The viewing angle cluster conditions include: Two adjacent first visualization perspectives in the same perspective cluster meet at least one perspective relationship condition; wherein the perspective relationship condition at least includes: the overlap between the two first visualization perspectives is greater than a preset second threshold value and the content type of the same visual content between the two first visualization perspectives exists in the standard content type library; and, The total number of first visualization perspectives in the same perspective cluster is greater than a preset third threshold; and, There is content correlation between the visual contents of the respective first visualization perspectives in different adjacent perspective clusters.

6. The exhaust gas power generation and CCER carbon sink system based on RCO catalytic combustion as claimed in claim 4, characterized in that: Also includes auxiliary modules for: In the process of executing the supervision strategy, obtain the execution object and execution sub-strategy of the current supervision strategy execution; When the relative position relationship between the supervisor and the execution object in the first time period continues to meet the position relationship condition corresponding to the policy type of the execution sub-policy, obtaining the position movement information of the supervisor in the second time period; Based on the perspective creation condition, a second visualization perspective is created in the process visualization model according to the position movement information; The control process visualization model presents a second visualization perspective; The conditions for creating a perspective include: The vector angles between the movement vector of each target trajectory point on the position movement trajectory mapped into the process visualization model and the perspective vector of the second visualization perspective are all less than the preset fourth threshold value; the target trajectory point is a trajectory point on the position movement trajectory representing that the supervisor has a sudden change in movement direction or has stayed for more than a preset time; and, The fully visible execution object is displayed in the second visualization perspective.

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