CN115729186B - A safe state multi-modal real-time intelligent management and control master machine, method and system - Google Patents
A safe state multi-modal real-time intelligent management and control master machine, method and system Download PDFInfo
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Abstract
Description
技术领域technical field
本发明属于安全监测领域,更具体地,涉及一种安全状态多模态实时智能管控母机、方法及系统。The invention belongs to the field of safety monitoring, and more specifically relates to a safe state multi-mode real-time intelligent control master machine, method and system.
背景技术Background technique
安全监测监控是各行各业安全生产技术手段,安全监控装备的智能化水平决定安全生产管控效果。当前各领域安全生产监测装备智能化有待进一步提升。现有安全生产监测监控装备存在的主要技术问题包括:(1)安全生产状态监测相对完善与安全生产状态实时分析综合评估不足的矛盾。(2)监测的智能化与安全生产管控决策主要依靠人力的矛盾。(3)安全生产监测的多参数与安全生产状态的多层级多模态管控实时协同的矛盾。Safety monitoring and monitoring is a technical means of safety production in all walks of life, and the intelligence level of safety monitoring equipment determines the effect of safety production control. At present, the intelligence of safety production monitoring equipment in various fields needs to be further improved. The main technical problems existing in the existing production safety monitoring and monitoring equipment include: (1) The contradiction between relatively perfect monitoring of production safety status and insufficient real-time analysis and comprehensive evaluation of production safety status. (2) The intelligence of monitoring and the decision-making of safety production control mainly rely on manpower. (3) The contradiction between the multi-parameters of safety production monitoring and the multi-level and multi-modal control of safety production status in real time.
因此,迫切需要一种适应多变场景的生产生活活动和设备设施特性的可选择参数类型、可扩展模态的多层级的安全状态多模态的实时智能管控母机。Therefore, there is an urgent need for a real-time intelligent management and control master machine with selectable parameter types, multi-level security status and multi-modality that adapts to changing scenarios of production and living activities and equipment and facility characteristics.
发明内容Contents of the invention
针对现有技术的以上缺陷或改进需求,本发明提供了一种安全状态多模态实时智能管控母机、方法及系统,其目的在于利用物联网技术,开发具有跨场景变参数、变模态的安全状态实时智能化管控装备,当场景监测参数变化时,能扩展参数类型,同时适应多层级安全多模态管控的模态扩展,多模态融合评估预警。由此,促进安全监测仪表的智能化与通用性,降低安全监管门槛,节约安全监管成本,提升安全生产科学监测监控技术服务的广度,促进安全生产。Aiming at the above defects or improvement needs of the prior art, the present invention provides a safe state multi-modal real-time intelligent management and control master machine, method and system, the purpose of which is to use the technology of the Internet of Things to develop The real-time intelligent management and control equipment of the security status can expand the parameter types when the scene monitoring parameters change, and at the same time adapt to the modal expansion of multi-level security and multi-modal control, multi-modal fusion evaluation and early warning. As a result, the intelligence and versatility of safety monitoring instruments will be promoted, the threshold of safety supervision will be lowered, the cost of safety supervision will be saved, the breadth of scientific monitoring and monitoring technology services for safety production will be improved, and safety production will be promoted.
为实现上述目的,按照本发明的第一方面,提供了一种安全状态多模态实时智能管控母机,包括:参数选择模块、数据收发模块、控制模块;In order to achieve the above object, according to the first aspect of the present invention, a safe state multi-modal real-time intelligent control master machine is provided, including: a parameter selection module, a data transceiver module, and a control module;
所述参数选择模块用于供用户选择监测参数;The parameter selection module is used for users to select monitoring parameters;
所述数据收发模块用于接收用户选择的监测参数的实时监测值并发送至控制模块;The data transceiver module is used to receive the real-time monitoring value of the monitoring parameter selected by the user and send it to the control module;
所述控制模块嵌入多个不同监测场景对应的多层级多模态融合评估预警模型,用于根据用户选择的监测参数确定监测场景,调用与所述监测场景对应的多层级多模态融合评估预警模型,结合所述监测参数的实时监测值,进行安全评估预警;The control module embeds multi-level and multi-modal fusion evaluation and early warning models corresponding to multiple different monitoring scenarios, and is used to determine the monitoring scene according to the monitoring parameters selected by the user, and call the multi-level and multi-modal fusion evaluation and early warning models corresponding to the monitoring scenarios. The model, combined with the real-time monitoring value of the monitoring parameters, performs safety assessment and early warning;
其中,所述多层级多模态融合评估预警模型包括自下而上的节点级模态融合层、工序级模态融合层及流程级模态融合层;Wherein, the multi-level multi-modal fusion assessment early warning model includes a bottom-up node-level mode fusion layer, a process-level mode fusion layer and a process-level mode fusion layer;
所述节点级模态融合层用于根据各节点的监测参数的实时监测值及预设阈值,判断各节点是否存在安全风险,若存在则进行报警,并计算各节点的安全评估分值;The node-level modal fusion layer is used to determine whether each node has a security risk according to the real-time monitoring value and the preset threshold of the monitoring parameters of each node, and if so, an alarm is issued, and the security assessment score of each node is calculated;
所述工序级模态融合层用于根据各节点的安全评估分值,计算各工序的安全评估分值,以判断各工序是否存在安全风险,若存在则进行报警;The process-level modal fusion layer is used to calculate the safety assessment score of each process according to the security assessment score of each node, so as to determine whether there is a safety risk in each process, and to report to the police if it exists;
所述流程级模态融合层用于根据各工序的安全评估分值,判断各流程是否存在安全风险,若存在则进行报警。The process-level modal fusion layer is used to judge whether there is a safety risk in each process according to the safety assessment score of each process, and to issue an alarm if there is.
优选地,所述节点级模态融合层采用串联融合模型:当节点的任一监测参数超过预设阈值,则认定该节点存在安全风险,该节点的安全评估分值为100,或,该节点的安全评估分值根据超过预设阈值的百分比确定。Preferably, the node-level mode fusion layer adopts a series fusion model: when any monitoring parameter of a node exceeds a preset threshold, it is determined that the node has a security risk, and the security assessment score of the node is 100, or, the node The security assessment score for , is determined based on the percentage that exceeds a preset threshold.
优选地,所述工序级模态融合层采用加权融合模型:根据工序所包括的节点的权重及分值计算工序的加权分值,若超过预设风险阈值,则认定该工序存在安全风险。Preferably, the process-level modal fusion layer adopts a weighted fusion model: calculate the weighted score of the process according to the weights and scores of the nodes included in the process, and if it exceeds a preset risk threshold, it is determined that the process has a safety risk.
优选地,所述流程级模态融合层采用串联融合模型:当流程的任一工序存在安全风险时,认定该流程存在安全风险。Preferably, the process-level modal fusion layer adopts a series fusion model: when any process of the process has a safety risk, it is determined that the process has a safety risk.
优选地,还包括模态扩展模块,用于供用户进行监测参数、节点、工序或流程的扩展或选择。Preferably, a modality extension module is also included, which is used for users to expand or select monitoring parameters, nodes, procedures or processes.
按照本发明的第二方面,提供了一种安全状态多模态实时智能管控方法,应用于如第一方面所述的管控母机的控制模块,包括:According to the second aspect of the present invention, a multi-modal real-time intelligent management and control method for a safe state is provided, which is applied to the control module of the parent machine as described in the first aspect, including:
根据用户选择的监测参数确定监测场景,调用与所述监测场景对应的多层级多模态融合评估预警模型,结合所述监测参数的实时监测值,进行安全评估预警;Determine the monitoring scene according to the monitoring parameters selected by the user, call the multi-level and multi-modal fusion evaluation and early warning model corresponding to the monitoring scene, and combine the real-time monitoring values of the monitoring parameters to perform safety assessment and early warning;
其中,所述多层级多模态融合评估预警模型包括自下而上的节点级模态融合层、工序级模态融合层及流程级模态融合层;Wherein, the multi-level multi-modal fusion assessment early warning model includes a bottom-up node-level mode fusion layer, a process-level mode fusion layer and a process-level mode fusion layer;
所述节点级模态融合层用于根据各节点的监测参数的实时监测值及预设阈值,判断各节点是否存在安全风险,若存在则进行报警,并计算各节点的安全评估分值;The node-level modal fusion layer is used to determine whether each node has a security risk according to the real-time monitoring value and the preset threshold of the monitoring parameters of each node, and if so, an alarm is issued, and the security assessment score of each node is calculated;
所述工序级模态融合层用于根据各节点的安全评估分值,计算各工序的安全评估分值,以判断各工序是否存在安全风险,若存在则进行报警;The process-level modal fusion layer is used to calculate the safety assessment score of each process according to the security assessment score of each node, so as to determine whether there is a safety risk in each process, and to report to the police if it exists;
所述流程级模态融合层用于根据各工序的安全评估分值,判断各流程是否存在安全风险,若存在则进行报警。The process-level modal fusion layer is used to judge whether there is a safety risk in each process according to the safety assessment score of each process, and to issue an alarm if there is.
按照本发明的第三方面,提供了一种安全状态多模态实时智能管控系统,包括:计算机可读存储介质和处理器;According to the third aspect of the present invention, a security state multi-modal real-time intelligent management and control system is provided, including: a computer-readable storage medium and a processor;
所述计算机可读存储介质用于存储可执行指令;The computer-readable storage medium is used to store executable instructions;
所述处理器用于读取所述计算机可读存储介质中存储的可执行指令,执行如第二方面所述的方法。The processor is configured to read executable instructions stored in the computer-readable storage medium, and execute the method as described in the second aspect.
总体而言,通过本发明所构思的以上技术方案与现有技术相比,能够取得下有益效果:Generally speaking, compared with the prior art, the above technical solutions conceived by the present invention can achieve the following beneficial effects:
本发明提供的安全状态多模态实时智能管控母机,利用物联网技术,开发具有跨场景变参数、变模态的安全状态实时智能化管控装备,当场景监测参数变化时,能扩展参数类型,同时适应多层级安全多模态管控的模态扩展,多模态融合评估预警,提供多重安全保障。由此,促进安全监测仪表的智能化与通用性,降低安全监管门槛,节约安全监管成本,提升安全生产科学监测监控技术服务的广度,促进安全生产。The security state multi-modal real-time intelligent management and control base machine provided by the present invention uses Internet of Things technology to develop real-time intelligent management and control equipment with cross-scenario variable parameters and variable modes. When the scene monitoring parameters change, the parameter types can be expanded, At the same time, it adapts to the mode extension of multi-level security and multi-modal management and control, multi-modal fusion assessment and early warning, and provides multiple security guarantees. As a result, the intelligence and versatility of safety monitoring instruments will be promoted, the threshold of safety supervision will be lowered, the cost of safety supervision will be saved, the breadth of scientific monitoring and monitoring technology services for safety production will be improved, and safety production will be promoted.
附图说明Description of drawings
图1为本发明实施例提供的安全状态多模态实时智能管控母机的结构示意图之一;Fig. 1 is one of the structural schematic diagrams of the multi-modal real-time intelligent management and control master machine in a safe state provided by an embodiment of the present invention;
图2为本发明实施例提供的安全状态多模态实时智能管控母机的结构示意图之二;Fig. 2 is the second structural diagram of the multi-modal real-time intelligent management and control master machine in a safe state provided by the embodiment of the present invention;
图3是为本发明实施例提供的多层级多模态融合评估预警模型的多层级多模态融合数据流示意图;Fig. 3 is a schematic diagram of the multi-level multi-modal fusion data flow of the multi-level multi-modal fusion evaluation early warning model provided by the embodiment of the present invention;
图4是本发明一种安全状态多模态实时智能管控母机的应用流程示意图。Fig. 4 is a schematic diagram of the application process of a multi-modal real-time intelligent management and control master machine in a safe state according to the present invention.
具体实施方式Detailed ways
为了使本发明的目的、技术方案及优点更加清楚明白,以下结合附图及实施例,对本发明进行进一步详细说明。应当理解,此处所描述的具体实施例仅仅用以解释本发明,并不用于限定本发明。此外,下面所描述的本发明各个实施方式中所涉及到的技术特征只要彼此之间未构成冲突就可以相互组合。In order to make the object, technical solution and advantages of the present invention clearer, the present invention will be further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described here are only used to explain the present invention, not to limit the present invention. In addition, the technical features involved in the various embodiments of the present invention described below can be combined with each other as long as they do not constitute a conflict with each other.
在各类工厂及工程安全监测检测中,通常由技术人员依据场景安全风险评估结果,选择监测参数,在安全风险的敏感位置布设传感器,利用采集分析仪表采集相应类型的传感器数据,由专业人员依据经验与相关规范标准,制定基于实时数据的监测单参数状态、多参数的对象安全状态评估预警标准,监测人员据此分析监测数据进行安全风险管控。这其中,融合了参数状态,场景各类安全风险多模态状态评估预警。成本高、实时性不足。迫切需要针对安全风险管控的实时性、安全参数多、安全模态多的特性,建立智能化的多参数多模态安全状态实时监测管控装备。In various factories and engineering safety monitoring and testing, technicians usually select monitoring parameters based on the scene safety risk assessment results, deploy sensors at sensitive positions of safety risks, and use acquisition and analysis instruments to collect corresponding types of sensor data. Based on experience and related norms and standards, the monitoring single-parameter status and multi-parameter object security status assessment and early warning standards based on real-time data are formulated, and monitoring personnel analyze the monitoring data based on this to carry out security risk management and control. Among them, it integrates parameter status, multi-modal status assessment and early warning of various security risks in scenarios. High cost and insufficient real-time performance. There is an urgent need to establish intelligent multi-parameter and multi-modal security state real-time monitoring and control equipment for the real-time nature of security risk control, multiple security parameters, and multiple security modes.
基于此,本发明提供了一种安全状态多模态实时智能管控母机、方法及系统。Based on this, the present invention provides a safe state multi-modal real-time intelligent control master machine, method and system.
为便于理解,首先对相关定义进行解释如下:For ease of understanding, the relevant definitions are first explained as follows:
模态:主体为实现特定目标而对客体属性的直接或间接描述、观察方式。主体获取客体属性目标信息的一种方式或主体为达到目的而对客体采取的一种手段,均是一种模态。Modality: The direct or indirect way in which the subject describes and observes the properties of the object in order to achieve a specific goal. A way for the subject to obtain object attribute target information or a means for the subject to achieve the object is a modality.
多模态:客体的多属性特性或主体描述客体的多种手段或方式,即为多模态。Multimodality: The multi-attribute characteristics of the object or the multiple means or ways that the subject describes the object are multimodal.
安全:指人类生产生活的场景不会危及人的生命健康安全的状态。Safety: Refers to the state in which the production and life scenes of human beings will not endanger human life, health and safety.
安全风险:指人类生产生活场景中可能危及人的生命健康安全的根源或因素。Safety risks: Refers to the root causes or factors in human production and living scenarios that may endanger human life, health and safety.
安全风险模态:指人类生产生活场景中可能危及人的生命健康安全的因素,每类因素均是一种模态,如流程工厂生产中的爆炸事故风险模态、工厂施工中的坍塌事故风险模态等。Safety risk mode: refers to factors that may endanger human life, health and safety in human production and living scenarios. Each type of factor is a mode, such as the risk mode of explosion accidents in process factory production and the risk of collapse accidents in factory construction. modal etc.
安全风险模态的参数:可能导致安全风险模态发生的各类参量,如爆炸事故风险模态的影响因素:易燃易爆物品、储存易燃易爆品设施泄露、场地通风不良、温度超高等。Parameters of the safety risk mode: various parameters that may lead to the occurrence of the safety risk mode, such as factors affecting the risk mode of explosion accidents: flammable and explosive materials, leakage of facilities storing flammable and explosive materials, poor site ventilation, excessive temperature higher.
场景:生产生活活动及其场所的统称。Scenario: A general term for production and living activities and their places.
本发明实施例提供一种安全状态多模态实时智能管控母机,如图1所示,包括:An embodiment of the present invention provides a safe state multi-modal real-time intelligent management and control master machine, as shown in Figure 1, including:
参数选择模块、数据收发模块、控制模块及报警模块;Parameter selection module, data transceiver module, control module and alarm module;
所述参数选择模块用于供用户选择监测参数;The parameter selection module is used for users to select monitoring parameters;
所述数据收发模块用于接收用户选择的监测参数的实时监测值并发送至控制模块;The data transceiver module is used to receive the real-time monitoring value of the monitoring parameter selected by the user and send it to the control module;
所述控制模块嵌入多个不同监测场景对应的多层级多模态融合评估预警模型,用于根据用户选择的监测参数确定监测场景,调用与所述监测场景对应的多层级多模态融合评估预警模型(参数-节点-工序-流程多层级多模态融合评估预警模型),结合所述监测参数的实时监测值,进行安全评估预警;The control module embeds multi-level and multi-modal fusion evaluation and early warning models corresponding to multiple different monitoring scenarios, and is used to determine the monitoring scene according to the monitoring parameters selected by the user, and call the multi-level and multi-modal fusion evaluation and early warning models corresponding to the monitoring scenarios. Model (parameter-node-process-process multi-level and multi-modal fusion assessment early warning model), combined with the real-time monitoring values of the monitoring parameters, to perform safety assessment and early warning;
其中,所述多层级多模态融合评估预警模型包括自下而上的节点级模态融合层、工序级模态融合层及流程级模态融合层;Wherein, the multi-level multi-modal fusion assessment early warning model includes a bottom-up node-level mode fusion layer, a process-level mode fusion layer and a process-level mode fusion layer;
所述节点级模态融合层用于根据各节点的监测参数的实时监测值及预设阈值,判断各节点是否存在安全风险,若存在则进行报警,并计算各节点的安全评估分值;The node-level modal fusion layer is used to determine whether each node has a security risk according to the real-time monitoring value and the preset threshold of the monitoring parameters of each node, and if so, an alarm is issued, and the security assessment score of each node is calculated;
所述工序级模态融合层用于根据各节点的安全评估分值,计算各工序的安全评估分值,以判断各工序是否存在安全风险,若存在则进行报警;The process-level modal fusion layer is used to calculate the safety assessment score of each process according to the security assessment score of each node, so as to determine whether there is a safety risk in each process, and to report to the police if it exists;
所述流程级模态融合层用于根据各工序的安全评估分值,判断各流程是否存在安全风险,若存在则进行报警。The process-level modal fusion layer is used to judge whether there is a safety risk in each process according to the safety assessment score of each process, and to issue an alarm if there is.
优选地,所述节点级模态融合层采用串联融合模型:当节点的任一监测参数超过预设阈值,则认定该节点存在安全风险,该节点的安全评估分值为100,或,该节点的安全评估分值根据超过预设阈值的百分比确定。Preferably, the node-level mode fusion layer adopts a series fusion model: when any monitoring parameter of a node exceeds a preset threshold, it is determined that the node has a security risk, and the security assessment score of the node is 100, or, the node The security assessment score for , is determined based on the percentage that exceeds a preset threshold.
例如,若某监测参数的监测值超过预设阈值的百分之十,则该节点的安全评估分值为10,超过预设阈值的百分之五十,则安全评估分值为50。超过预设阈值越多,安全评估分值越高,代表安全风险越高。For example, if the monitoring value of a certain monitoring parameter exceeds 10 percent of the preset threshold, the security assessment score of the node is 10, and if the monitoring value of a monitoring parameter exceeds 50 percent of the preset threshold, the security assessment score is 50. The more the preset threshold is exceeded, the higher the security assessment score, which means the higher the security risk.
优选地,所述工序级模态融合层采用加权融合模型:根据工序所包括的节点的权重及分值计算工序的加权分值,作为该工序的安全评估分值,若超过预设风险阈值,则认定该工序存在安全风险。Preferably, the process-level modal fusion layer adopts a weighted fusion model: calculate the weighted score of the process according to the weights and scores of the nodes included in the process, and use it as the safety assessment score of the process. If it exceeds the preset risk threshold, It is determined that the process has a safety risk.
优选地,所述流程级模态融合层采用串联融合模型:当流程的任一工序存在安全风险时,认定该流程存在安全风险。Preferably, the process-level modal fusion layer adopts a series fusion model: when any process of the process has a safety risk, it is determined that the process has a safety risk.
优选地,所述智能管控母机还包括模态扩展模块,用于供用户进行监测参数、节点、工序或流程的扩展或选择,也即,用于供用户进行参数类模态与节点、工序、流程多层级多模态扩展或选择,以供用户对多层级多模态融合评估预警模型进行个性化设置。Preferably, the intelligent management and control master machine also includes a modal expansion module, which is used for users to expand or select monitoring parameters, nodes, procedures or processes, that is, for users to perform parameter-like modals and nodes, procedures, The multi-level and multi-modal expansion or selection of the process is for users to personalize the multi-level and multi-modal fusion assessment early warning model.
进一步地,所述报警模块为声光报警模块,可在各监测参数、各节点、各工序、各流程处均设置声光报警模块,在存在安全风险时进行声光报警。Further, the alarm module is an acousto-optic alarm module, which can be installed at each monitoring parameter, each node, each process, and each process, and audible and visual alarms can be provided when there is a safety risk.
具体地,安全状态多模态实时智能管控母机包括:控制模块、参数选择模块、模态扩展模块、实时数据收发模块;以物联网为技术手段,以单片机为核心连接数据收发模块、声光预警模块、参数选择模块与模态扩展模块。如图2所示,本发明提供的安全状态实时智能监测母机的功能,包括:监测参数类型选择功能、多层级安全模态扩展功能,数据收发功能,多层级多模态融合分析、评估、预警功能,以及为实现上述功能的功能模块,如图1所示。Specifically, the safe state multi-modal real-time intelligent control master includes: a control module, a parameter selection module, a modal expansion module, and a real-time data sending and receiving module; modules, parameter selection modules and modal extension modules. As shown in Figure 2, the functions of the real-time intelligent monitoring of the security state provided by the present invention include: monitoring parameter type selection function, multi-level security mode expansion function, data sending and receiving function, multi-level and multi-modal fusion analysis, evaluation, early warning functions, and functional modules for realizing the above functions, as shown in Figure 1.
控制模块嵌入多个不同监测场景对应的参数、节点、工序、流程多层级安全状态多模态融合评估预警模型,用于根据用户选择的监测参数确定监测场景,并调用与所述监测场景对应的监测参数-节点-工序-流程多层级多模态融合评估预警模型,并将监测参数适配至模型,以进行安全评估预警。The control module embeds multiple parameters, nodes, procedures, and multi-level safety status and multi-modal fusion assessment and early warning models corresponding to multiple different monitoring scenarios, which are used to determine the monitoring scenario according to the monitoring parameters selected by the user, and call the corresponding monitoring scenario. Monitoring parameters-node-process-process multi-level multi-modal fusion assessment early warning model, and adapt monitoring parameters to the model for safety assessment and early warning.
也即,控制模块包括多层级多模态融合分析、评估预警模块(即场景-参数-节点-工序-流程各层级多模态融合分析模块、场景-参数-节点-工序-流程各层级安全评估预警模块),用于依据各层级场景多模态的参数状态数据,按照嵌入母机的相应监测场景的多模态融合模型,融合各层级的安全多模态状态参量,进而按照嵌入本母机的场景多层级状态评估等级模型,评判各层级安全多模态实时状态等级,与嵌入本母机的场景安全预警阈值比较后按需要进行预警。如图2所示。That is to say, the control module includes multi-level multi-modal fusion analysis, evaluation and early warning modules (that is, multi-modal fusion analysis modules at all levels of scene-parameter-node-process-process, security assessment at all levels of scene-parameter-node-process-process Early warning module) is used to fuse the security multi-modal state parameters of each level according to the multi-modal parameter state data of each level scene, according to the multi-modal fusion model embedded in the corresponding monitoring scene of the main machine, and then according to the scene embedded in the main machine The multi-level status evaluation level model judges the multi-mode real-time status level of each level of security, and compares it with the scene security warning threshold embedded in the host machine to give an early warning as needed. as shown in picture 2.
其中,监测参数-监测场景-多层级多模态融合评估预警模型之间的对应关系已提前写入控制模块。因此,控制模块能够根据管控主体选定的监测参数确定监测场景,并调用对应的多层级多模态融合评估预警模型,且所述多层级多模态融合评估预警模型还包括了各监测参数的安全阈值(即预设阈值)及各工序的预设风险阈值。上述对应关系可写入用户手册。Among them, the corresponding relationship between monitoring parameters-monitoring scenarios-multi-level and multi-modal fusion assessment and early warning models has been written into the control module in advance. Therefore, the control module can determine the monitoring scene according to the monitoring parameters selected by the management and control subject, and call the corresponding multi-level multi-modal fusion evaluation early warning model, and the multi-level multi-modal fusion evaluation early warning model also includes the monitoring parameters. Safety thresholds (ie preset thresholds) and preset risk thresholds for each process. The above corresponding relationship can be written into the user manual.
所述参数选择模块用于供用户选择所需监测的参数类型,能够适应多变场景的安全监测参数变化,通过嵌入母机的参数类型库,供用户选择母机需要管控的场景安全监测参数;多层级安全模态扩展模块用于供用户进行适应场景的参数、节点、工序、流程多层级安全状态模态的扩展。The parameter selection module is used for the user to select the parameter type to be monitored, and can adapt to the change of security monitoring parameters in variable scenarios. By embedding the parameter type library of the parent machine, the user can select the scene security monitoring parameters that the parent machine needs to control; multi-level The security mode expansion module is used for users to expand the multi-level security status mode of parameters, nodes, procedures, and processes that adapt to the scene.
所述实时状态数据收发模块,用于对选定参数类型的实时感知参数状态数据进行接收,同时向上位设备传输相关数据;也即,数据收发模块用于接收选定类型参数的智能监测参数状态数据,向上位设备发送本母机的相关数据。The real-time status data transceiving module is used to receive the real-time sensing parameter status data of the selected parameter type, and at the same time transmit relevant data to the upper device; that is, the data transceiver module is used to receive the intelligent monitoring parameter status of the selected type of parameters Data, send the related data of the master machine to the upper device.
如图3所示,所述参数、节点、工序、流程多层级安全状态多模态融合评估预警模型包括自下而上的节点级模态融合层、工序级模态融合层及流程级模态融合层,用于进行多层级安全多模态融合及多层级安全状态评估预警。As shown in Figure 3, the parameter, node, process, and process multi-level security state multi-modal fusion assessment and early warning model includes a bottom-up node-level modal fusion layer, a process-level modal fusion layer, and a process-level modal The fusion layer is used for multi-level security and multi-modal fusion and multi-level security status assessment and early warning.
控制模块连接参数选择模块,用于选择需要管控的参数类型,参数类型选择后,控制模块驱动接收模块接收选定参数的场景智能感知传感器发送的参数状态实时数据,控制模块自动将参数状态实时数据适配至对应的参数级多模态、节点、工序、流程多模态融合模型,边缘计算评估多层级安全多模态状态并预警,驱动数据上传模块上传数据。所述控制模块以单片机为设备,嵌入参数类型库、场景模态模型库、场景多模态融合模型库、场景安全多模态评估模型库、场景安全状态评估等级模型库、数据标识库。The control module is connected to the parameter selection module, which is used to select the parameter type that needs to be controlled. After the parameter type is selected, the control module drives the receiving module to receive the real-time data of the parameter status sent by the scene intelligent perception sensor of the selected parameter, and the control module automatically sends the real-time data of the parameter status. Adapted to the corresponding parameter-level multi-modal, node, process, and process multi-modal fusion model, edge computing evaluates the multi-level security and multi-modal status and gives an early warning, and drives the data upload module to upload data. The control module uses a single-chip microcomputer as a device, and embeds a parameter type library, a scene mode model library, a scene multi-modal fusion model library, a scene security multi-modal evaluation model library, a scene security state evaluation level model library, and a data identification library.
如图2中所示的多层级多模态融合功能,包括嵌入控制模块的参数、节点、工序、流程层级的多模态融合模型库。多层级安全状态评估预警功能,包括嵌入控制模块场景与参数、节点、工序、流程层级安全状态评估等级模型库。也即,控制模块嵌入参数类型数据库,场景与参数、节点、工序、流程多层的模态数据库,多层级的场景安全多模态融合数据库,场景流程安全状态评估预警模型库。The multi-level multi-modal fusion function shown in Figure 2 includes a multi-modal fusion model library embedded in the parameters, nodes, procedures, and process levels of the control module. Multi-level security status assessment and early warning functions, including embedded control module scenarios and parameters, nodes, procedures, and process-level security status assessment level model libraries. That is, the control module is embedded with a parameter type database, a multi-layer modal database of scenarios and parameters, nodes, procedures, and processes, a multi-level scenario security multi-modal fusion database, and a scenario process security status assessment and early warning model library.
如图4所示,管控主体依据管控场景安全监测参数,选择参数,确定场景-参数-节点-工序-流程各层级安全模态,控制模块接收参数选择与模态扩展信息,驱动数据接收模块接收场景智能传感器实时发送的场景参数状态数据,适配场景各层级安全模态模型,驱动场景-参数-节点-工序-流程各层级多模态融合分析,判断场景各层级安全状态,超阈值预警,之后上传母机接收数据和决策数据。As shown in Figure 4, the control subject selects the parameters according to the security monitoring parameters of the control scene, and determines the security mode at each level of the scene-parameter-node-process-process, the control module receives parameter selection and modal extension information, and the drive data receiving module receives The scene parameter status data sent by the scene smart sensor in real time adapts to the security mode model of each level of the scene, drives the multi-modal fusion analysis of the scene-parameter-node-process-process level, judges the security status of each level of the scene, and warns of exceeding the threshold. Then upload the master machine to receive data and decision data.
进一步地,所述参数选择模块与模态扩展模块,均能以连接单片机端口的键盘为设备,通过其与参数类型、模态映射,实现参数选择及模态扩展。Furthermore, both the parameter selection module and the modal expansion module can use the keyboard connected to the port of the single-chip microcomputer as a device, and realize parameter selection and modal expansion through mapping between it and parameter types and modalities.
所述数据接收模块,以无线收发装置为设备,受控制模块驱动,当场景的参数、模态确定后,控制模块驱动数据接收模块接收管控场景参数智能传感器发送的参数状态实时数据。当实时数据处理完毕,形成场景多层级多模态安全管控决策后,决策信息和接收的数据一并无线上传上位设备。The data receiving module is equipped with a wireless transceiver device and is driven by the control module. When the parameters and modes of the scene are determined, the control module drives the data receiving module to receive the real-time data of the parameter status sent by the intelligent sensor for controlling the scene parameters. After the real-time data is processed and a multi-level and multi-modal security management and control decision is formed, the decision information and the received data are wirelessly uploaded to the upper device.
所述场景-参数-节点-工序-流程各层级多模态融合分析模块,接收数据收发模块传输过来的场景实时监测参数状态数据,按照参数多模态融合模型,融合各层级多模态,依据参数级多模态数据,依次进行节点多模态、工序多模态融合分析。The scene-parameter-node-process-process multi-modal fusion analysis module at each level receives the scene real-time monitoring parameter status data transmitted by the data transceiver module, and integrates the multi-modality of each level according to the parameter multi-modal fusion model. Parameter-level multi-modal data, followed by node multi-modal and process multi-modal fusion analysis.
所述场景-参数-节点-工序-流程各层级安全评估预警模块,依据场景-参数-节点-工序-流程各层级多模态融合分析结果,按照场景、参数、节点、工序、流程各层级安全状态评估预警模型,依次进行各层级的安全状态评估预警。The security assessment and early warning module at each level of scene-parameter-node-process-process, according to the multi-modal fusion analysis results of scene-parameter-node-process-process at each level, according to the security of each level of scene, parameter, node, process and process The state assessment and early warning model performs security state assessment and early warning at each level in turn.
本发明提供的智能管控母机选择中端PIC16F877单片机作为安全状态多模态实时智能管控母机扩展模块的芯片,收发数据的WIFI通信模块连接于B口,A口连接项目场景选择设置和监测参数选择设置,C口连接场景安全多模态融合模型选择设置口,D口连接管控层级的模态参数选择设置口,E口连接语音预警和灯光提示。控制模块芯片嵌入参数类型数据库、安全模态数据库、安全多模态融合模型库和安全状态评估模型库。The intelligent management and control master machine provided by the present invention selects the middle-end PIC16F877 single-chip microcomputer as the chip of the expansion module of the multi-mode real-time intelligent management and control master machine in a safe state, and the WIFI communication module for sending and receiving data is connected to the B port, and the A port is connected to the project scene selection setting and monitoring parameter selection setting , C port is connected to the scene security multi-modal fusion model selection setting port, D port is connected to the mode parameter selection setting port of the management and control level, and E port is connected to the voice warning and light prompt. The control module chip is embedded with a parameter type database, a safety mode database, a safety multi-mode fusion model library and a safety state assessment model library.
本发明提供的安全状态多模态实时智能管控母机,具备参数类型选择功能、模态扩展功能、多模态融合与安全状态评估预警功能、数据收发功能;为实现上述功能装置内嵌参数类型信息库、模态信息库,多模态融合模型库,安全状态评估预警模块库。制作方法为通过嵌入母机的参数类型信息库、模态信息库,以母机内部通信渠道和设计的参数模态选择键实现参数类型与安全模态扩展;提供嵌入母机的多模态融合模型库,以边缘计算从参数-节点-工序-流程逐层级安全多模态融合;通过嵌入母机的监管项目、场景和参数状态评估模型库,以边缘计算解析评估监管对象状态评估预警,实现安全监管数据的信息化应用。智能管控母机在使用时,依据场景选择接收监管对象的监测参数、依据各监管层级的安全监管内容确定场景各类模态后,即可开始正常使用。监管母机控制模块驱动数据收发模块接收监管对象监测参数状态数据,模态融合模块按照层级逐级融合安全多模态数据,安全评估预警模块按照层级逐级评估层级的安全状态等级并预警,数据收发模块将相关信息上传。The security state multi-modal real-time intelligent control base machine provided by the present invention has parameter type selection function, mode expansion function, multi-mode fusion and security state evaluation and early warning function, and data sending and receiving function; in order to realize the above-mentioned function device, embedded parameter type information library, modal information library, multi-modal fusion model library, security status assessment and early warning module library. The production method is to realize the expansion of parameter types and security modes by embedding the parameter type information library and modal information library of the parent machine, using the internal communication channel of the parent machine and the designed parameter mode selection key; providing a multi-modal fusion model library embedded in the parent machine, Use edge computing to integrate multi-modal security from parameter-node-process-process layer by layer; by embedding the supervision project, scene and parameter status evaluation model library of the parent machine, use edge computing to analyze and evaluate the status evaluation and warning of supervision objects, and realize safety supervision data information application. When the intelligent management and control master machine is in use, it can start normal use after selecting the monitoring parameters of the receiving supervision object according to the scene, and determining the various modes of the scene according to the safety supervision content of each supervision level. The supervisory master machine control module drives the data sending and receiving module to receive the monitoring parameter status data of the supervised object, the mode fusion module fuses the safety multi-modal data step by step according to the level, the safety assessment and early warning module evaluates the level of security status level by level and gives an early warning, and the data is sent and received The module uploads relevant information.
下面以建筑施工塔吊顶升作业为例,对本发明实施例提供的安全状态多模态实时智能管控母机的应用进行进一步的说明。The application of the safe state multi-modal real-time intelligent management and control master machine provided by the embodiment of the present invention will be further described below by taking the ceiling lifting operation of the building construction tower as an example.
塔吊顶升作业目标是将原本连接于塔身标准节的塔顶断连后顶起1个标准节高,新加入1个标准节,下与塔身连接,上与塔顶连接,实现增加塔吊高度。其作业过程复杂、风险高,成为建筑施工过程的第1高风险活动。其安全作业涉及的主要监测参数包括有:1)气象参数:风速、方向、温度、湿度等指标;2)操作活动质量参数:如油缸顶升位移、速度指标;3)各道工序工作质量参数:如爬爪就位、横梁保险状态;4)各工序作业安全条件参数:如塔吊偏斜、塔吊标准节连接状态等。塔吊顶升作业流程包括的主要工序有:1)准备(包括设备设施状态、安全作业条件检查确认);2)试顶升;3)第1次顶升;4)提升顶升油缸横梁;5)重复3)、4)步,直至顶升的空间能装入1个标准节;6)连接新加标准节;7)安全检查确认后本次增加1个标准节作业结束。塔吊顶升流程作业安全监测监管层级,包括,前端参数层(工位工作质量安全监控-前端参数单指标状态)、参数多模态融合层(工位工作质量安全监控-工位多指标综合状态)、工序多模态融合层(作业班组层质量安全管控-多工位多指标综合状态)、流程多模态融合层(项目层质量安全监管-多工序多指标综合质量安全状态)。The goal of the tower crane lifting operation is to disconnect the tower top that was originally connected to the standard section of the tower body and jack up a standard section height, add a new standard section, connect the lower part with the tower body, and the upper part with the tower top, so as to realize the increase of the tower crane. high. Its operation process is complex and high-risk, and it has become the first high-risk activity in the construction process. The main monitoring parameters involved in its safe operation include: 1) Meteorological parameters: wind speed, direction, temperature, humidity and other indicators; 2) Quality parameters of operation activities: such as cylinder jacking displacement, speed indicators; 3) Working quality parameters of each process : such as the climbing claws in place and the safety status of the beam; 4) The safety condition parameters of each process operation: such as the deflection of the tower crane, the connection status of the standard section of the tower crane, etc. The main procedures included in the lifting operation process of the tower crane are: 1) Preparation (including inspection and confirmation of equipment and facilities status and safe operating conditions); 2) Trial lifting; 3) First lifting; 4) Lifting the beam of the jacking cylinder; 5 ) Repeat steps 3) and 4) until one standard section can be accommodated in the jacking space; 6) Connect the newly added standard section; 7) After the safety check is confirmed, the operation of adding a standard section is completed. Tower crane jacking process operation safety monitoring supervision level, including front-end parameter layer (station work quality and safety monitoring - front-end parameter single index status), parameter multi-modal fusion layer (station work quality and safety monitoring - station multi-indicator comprehensive status ), process multimodal fusion layer (quality and safety control at the operation team level - multi-station and multi-indicator comprehensive status), process multi-modal fusion layer (project-level quality and safety supervision - multi-process multi-indicator comprehensive quality and safety status).
利用本发明提供的安全状态多模态实时智能管控母机,选择现场布设智能传感器监控的参数:环境温度、湿度、风速、风向参数、塔吊倾斜参数、顶升油缸位移及速度参数和顶升作业相关部件状态逻辑开关参数,控制模块根据上述参数确定监测场景为塔吊顶升作业,并调用相应的多层级多模态融合评估预警模型。Utilize the multi-mode real-time intelligent management and control master machine in the safe state provided by the present invention, select the parameters monitored by intelligent sensors on site: ambient temperature, humidity, wind speed, wind direction parameters, tower crane tilt parameters, jacking cylinder displacement and speed parameters and jacking operation related parameters Component state logic switch parameters, the control module determines the monitoring scene as the tower crane lifting operation according to the above parameters, and calls the corresponding multi-level and multi-modal fusion evaluation early warning model.
1)前端参数层,第1次顶升工序包括油缸操作、顶升横梁操作、活动爬爪操作3个工位,这里以油缸操作工位为例:包括油缸活塞位移、位移速度两个参数,位移参数量值范围:踏步间距h+50mm位移速度0-15mm/s。超出警示,油缸操作人员应立刻改正。1) The front-end parameter layer, the first jacking process includes three stations: oil cylinder operation, jacking beam operation, and movable claw operation. Here, the oil cylinder operation station is taken as an example: including two parameters of oil cylinder piston displacement and displacement speed. Displacement parameter value range: step spacing h+50mm displacement speed 0-15mm/s. If the warning is exceeded, the cylinder operator should correct it immediately.
2)参数多模态融合层(即节点多模态融合层),仍以第1次顶升工序中的油缸操作工位为例:需要考虑位移、速度两个参数状态,通常任何参数超标都是危险的,因此,这里可以采取串联模型,即取最不利参数状态,进行参数融合,也即只要一个指标超限,即发出参数多模态状态预警,输出问题传感器的数据标识及量值,工位操作人员必须立刻改正。2) The parameter multi-modal fusion layer (that is, the node multi-modal fusion layer), still taking the oil cylinder operation station in the first lifting process as an example: two parameter states of displacement and speed need to be considered. Usually, any parameter exceeding the standard will be Therefore, a series model can be adopted here, that is, take the most unfavorable parameter state and perform parameter fusion, that is, as long as one index exceeds the limit, it will issue a parameter multi-modal state warning and output the data identification and value of the problem sensor. The station operator must correct it immediately.
3)工序多模态融合层,以第1次顶升工序为例,包括油缸操作工位1、顶升横梁操作工位2、活动爬爪操作工位3。油缸操作工位操作控制油缸活塞伸出长度略大于标准节踏步高并稍回,顶升横梁操作工位2看管横梁左右销轴锁定(逻辑状态指标值为1),活动爬爪操作工位3操作活动爬爪,待活动爬爪越过踏步后(逻辑状态指标值0)操作其贴近标准节弦杆,油缸活塞回缩时准确落入踏步内(逻辑状态指标值为1)。多参数融合层:工位1为油缸活塞位移、速度2个参数;工位2为横梁左右销轴2个逻辑开关参数;工位3为左右活动爬爪2个逻辑开关参数。本工序安全多模态除了各工位的质量安全外,整个油缸顶升期间的环境风速和塔身倾斜状态两个参数直接影响本工序安全,因此,对于这3个工位,每个工位均包括2个工作质量安全参数加上环境风速和塔身倾斜2个安全参数,共计4个安全参数,从工序安全角度,各工位中的4个参数任何1个失效都将导致工位工作失败,因此,3个工位多参数融合均应采用4参数串联模型。而,第1次顶升工序多模态融合,包括对3个工位的多模态融合,3个工位任何1个工位的工作质量安全不符合均导致本工序的失败,但顶升横梁操作工位2和活动爬爪操作工位3的工作质量安全具有致命性,通常会导致重大生产安全事故发生,因此,包括第1次顶升工序多模态融合可采用加权模型,其中工位1权重0.2,工位2和工位3同样重要,权重各0.4。3) Process multi-modal fusion layer, taking the first jacking process as an example, including oil cylinder operation station 1, jacking beam operation station 2, and movable claw operation station 3. Oil cylinder operation station Operation control The extension length of the oil cylinder piston is slightly greater than the step height of the standard section and returns slightly, the jacking beam operation station 2 is in charge of locking the left and right pins of the beam (logic state index value is 1), the movable crawling claw operation station 3 Operate the movable crawling claw, and after the movable crawling claw has crossed the step (logic state index value 0), operate it close to the standard pitch chord rod, and when the cylinder piston retracts, it will accurately fall into the step (logic state index value 1). Multi-parameter fusion layer: station 1 is two parameters of oil cylinder piston displacement and speed; station 2 is two logic switch parameters of left and right pin shafts of beam; station 3 is two logic switch parameters of left and right movable claws. In addition to the quality and safety of each station, the multi-modal safety of this process, the environmental wind speed and the tilting state of the tower body during the entire oil cylinder jacking period directly affect the safety of this process. Therefore, for these 3 stations, each station Both include 2 safety parameters of work quality plus 2 safety parameters of ambient wind speed and tower inclination, a total of 4 safety parameters. From the perspective of process safety, any failure of any one of the 4 parameters in each station will cause the station to work Failed, therefore, all 3-station multi-parameter fusions should adopt a 4-parameter series model. However, the multimodal fusion of the first lifting process, including the multimodal fusion of 3 stations, the failure of the work quality and safety of any one of the 3 stations will lead to the failure of this process, but the jacking The work quality and safety of the beam operation station 2 and the movable crawler operation station 3 are fatal, and usually lead to major production safety accidents. Therefore, the multimodal fusion including the first jacking process can adopt a weighted model, in which the work Bit 1 has a weight of 0.2, and bits 2 and 3 are equally important, each with a weight of 0.4.
以顶升横梁提升工序为例,包括油缸操作工位1、顶升横梁操作工位2和活动爬爪工位3,各工位参数与第1次顶升工序各工位参数类型相同,但参数阈值不同。顶升横梁上提工序中:工位1多参数为油缸活塞位移(有1个踏步h减小到-50-0mm)、速度参数(0-15mm/s);工位2多参数位左右横梁销轴逻辑状态(1→0→1);工位3多参数为左右活动爬爪逻辑状态(始终为1)。并考虑影响工序作业安全的环境风速和塔身倾斜参数,工位质量安全因采用4参数串联模型进行多模态融合。本工序多模态融合仍建议采用加权模型,本工序中活动爬爪状态是基础,最为重要,所以3个工位权重分别取0.2、0.2、0.6。Taking the jacking beam lifting process as an example, it includes oil cylinder operation station 1, jacking beam operation station 2, and movable claw station 3. The parameters of each station are the same as those of the first jacking process, but The parameter thresholds are different. In the lifting process of the jacking beam: the multi-parameters of station 1 are the cylinder piston displacement (with 1 step h reduced to -50-0mm), the speed parameter (0-15mm/s); the multi-parameters of station 2 are the left and right beams The logic state of the pin shaft (1→0→1); the multi-parameter of station 3 is the logic state of the left and right movable claws (always 1). And considering the environmental wind speed and tower tilt parameters that affect the safety of the process operation, the quality and safety of the work station adopts a 4-parameter series model for multi-modal fusion. It is still recommended to use a weighted model for multi-modal fusion in this process. The state of the active claws in this process is the basis and the most important. Therefore, the weights of the three stations are respectively 0.2, 0.2, and 0.6.
4)流程多模态融合层,这里流程仅考虑第1次顶升和顶升横梁上提两道工序作为示例。流程质量安全包含有工序质量安全多模态状态、以及影响流程作业质量安全的塔吊结构部件连接状态、塔吊回转制动状态、顶升作业人员持证上岗等因素,因此,流程安全多模态融合中,需要增加包括结构部件连接、回转制动、作业人员持证上岗3个参数的工序作业安全条件指标,分别与第1次顶升工序和顶升横梁上提工序按照串联模型进行工序安全多模态融合。流程多模态安全包括第1次顶升工序和顶升横梁上提工序安全,采用串联融合模型。4) Process multi-modal fusion layer. The process here only considers the first two processes of jacking and lifting of the jacking beam as an example. Process quality and safety includes factors such as the multi-modal state of process quality and safety, as well as the connection status of tower crane structural components that affect the quality and safety of process operations, the slewing braking status of tower cranes, and the lifting operators with certificates. Therefore, the multi-modal integration of process safety Among them, it is necessary to increase the process operation safety condition index including three parameters including structural component connection, slewing brake, and operating personnel with certificates, which are much safer than the first jacking process and the jacking beam lifting process according to the series model. Modal fusion. The process multi-modal safety includes the safety of the first jacking process and the lifting process of the jacking beam, and adopts the series fusion model.
本发明实施例提供一种安全状态多模态实时智能管控方法,应用于如上述任一实施例所述的管控母机的控制模块,包括:An embodiment of the present invention provides a multi-modal real-time intelligent management and control method for a security state, which is applied to the control module of the management and control master machine described in any of the above embodiments, including:
根据用户选择的监测参数确定监测场景,调用与所述监测场景对应的多层级多模态融合评估预警模型,结合所述监测参数的实时监测值,进行安全评估预警;Determine the monitoring scene according to the monitoring parameters selected by the user, call the multi-level and multi-modal fusion evaluation and early warning model corresponding to the monitoring scene, and combine the real-time monitoring values of the monitoring parameters to perform safety assessment and early warning;
其中,所述多层级多模态融合评估预警模型包括自下而上的节点级模态融合层、工序级模态融合层及流程级模态融合层;Wherein, the multi-level multi-modal fusion assessment early warning model includes a bottom-up node-level mode fusion layer, a process-level mode fusion layer and a process-level mode fusion layer;
所述节点级模态融合层用于根据各节点的监测参数的实时监测值及预设阈值,判断各节点是否存在安全风险,若存在则进行报警,并计算各节点的安全评估分值;The node-level modal fusion layer is used to determine whether each node has a security risk according to the real-time monitoring value and the preset threshold of the monitoring parameters of each node, and if so, an alarm is issued, and the security assessment score of each node is calculated;
所述工序级模态融合层用于根据各节点的安全评估分值,计算各工序的安全评估分值,以判断各工序是否存在安全风险,若存在则进行报警;The process-level modal fusion layer is used to calculate the safety assessment score of each process according to the security assessment score of each node, so as to determine whether there is a safety risk in each process, and to report to the police if it exists;
所述流程级模态融合层用于根据各工序的安全评估分值,判断各流程是否存在安全风险,若存在则进行报警。The process-level modal fusion layer is used to judge whether there is a safety risk in each process according to the safety assessment score of each process, and to issue an alarm if there is.
本发明实施例提供一种安全状态多模态实时智能管控系统,其特征在于,包括:计算机可读存储介质和处理器;An embodiment of the present invention provides a security state multi-modal real-time intelligent management and control system, which is characterized in that it includes: a computer-readable storage medium and a processor;
所述计算机可读存储介质用于存储可执行指令;The computer-readable storage medium is used to store executable instructions;
所述处理器用于读取所述计算机可读存储介质中存储的可执行指令,执行如上述实施例所述的方法。The processor is configured to read executable instructions stored in the computer-readable storage medium, and execute the methods described in the above-mentioned embodiments.
本领域的技术人员容易理解,以上所述仅为本发明的较佳实施例而已,并不用以限制本发明,凡在本发明的精神和原则之内所作的任何修改、等同替换和改进等,均应包含在本发明的保护范围之内。It is easy for those skilled in the art to understand that the above descriptions are only preferred embodiments of the present invention, and are not intended to limit the present invention. Any modifications, equivalent replacements and improvements made within the spirit and principles of the present invention, All should be included within the protection scope of the present invention.
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