CN113279747B - System and method for preparing drilling mud formula and performance parameters - Google Patents
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Abstract
Description
技术领域technical field
本发明涉及水文水井钻探工程技术领域,尤其涉及一种钻探泥浆配方和性能参数调配的系统及方法。The invention relates to the technical field of hydrological water well drilling engineering, in particular to a system and method for formulating drilling mud formula and performance parameters.
背景技术Background technique
水文水井钻探是探明和开采地下水资源的重要手段之一。特别是处于高原地带的青海省,近年来,随着青海省工业化、城镇化进程加速推进,青海省人均用水量逐年攀升。虽全球变暖导致的高山融雪,在一定程度上缓解了青海省当前日益严重的用水需求;但要从根本上解决问题,还要依赖水文钻井寻求开发地下水资源来解决。大量的开发利用地下水资源,地下水位逐年下降,建井越来越深,钻遇地层越来越复杂。这样不仅需要研制开发一大批钻探新技术、新方法,而且还需要将这些新技术、新方法及时推广应用到实际工程中去。施工时泥浆配制的优劣在很大程度上决定着钻探工作的快慢和优劣,工程人员也越来越清醒地认识到,钻探工程中出现的各种复杂情况都可能直接或者间接地与所采用的钻井液有关。因此,设计合理的泥浆配方是成功进行水文水井钻探作业和降低钻探费用的关键。Hydrological water well drilling is one of the important means of proving and exploiting groundwater resources. Especially in Qinghai Province, which is located in the plateau area, in recent years, with the acceleration of industrialization and urbanization in Qinghai Province, the per capita water consumption in Qinghai Province has been increasing year by year. Although the snowmelt in the mountains caused by global warming has alleviated the increasingly severe water demand in Qinghai Province to a certain extent; however, to solve the problem fundamentally, it is necessary to rely on hydrological drilling to seek to develop groundwater resources to solve the problem. A large number of groundwater resources are developed and utilized, and the groundwater level is declining year by year. The wells are getting deeper and deeper, and the formations encountered are becoming more and more complicated. This not only requires the development of a large number of new drilling technologies and methods, but also needs to apply these new technologies and methods to practical projects in a timely manner. The quality of mud preparation during construction determines the speed and quality of drilling work to a large extent. Engineers are also more and more aware that various complex situations in drilling engineering may be directly or indirectly related to all drilling operations. related to the drilling fluid used. Therefore, designing a reasonable mud formula is the key to successfully drilling hydrological water wells and reducing drilling costs.
但是,就我国目前钻探泥浆技术水平的普及程度而言,大多数工程施工过程中对泥浆设计和采用不够重视,泥浆设计和处理剂的选用通常都是由工程技术人员凭借自己的工程经验来进行的,只有在钻进遇阻之后才想到联系专家对现场泥浆进行调整。随着计算机科学的发展,将人工智能领域的相关技术引入到泥浆配方的设计中来。可以把各种行之有效的方法(专家经验、工程经验、理论分析、数值计算、实验模拟、现场监测)综合到一个基于知识的智能系统中,一种方法难以解决的问题可以转化为另一种方法来解决。并且在固体矿产勘探、工程施工钻探、水文水井钻探等领域,钻探泥浆的专家经验、专家知识库的获取建立复杂繁琐,设计软件的开发显得比较落后,已研发的成果也并没有得到广泛的应用和推广。因此继承已有的研究成果,开拓创新,开发出一个可以供钻探现场利用的一种钻探泥浆配方和性能参数调配的系统及方法,为现场技术人员正确的进行泥浆优化设计提供有效的辅助,是一件十分有意义的事情。However, as far as the current level of drilling mud technology is popularized in my country, most of the engineering construction process does not pay enough attention to mud design and use. Mud design and treatment agent selection are usually carried out by engineers and technicians with their own engineering experience. Yes, it was only after the drilling was blocked that I thought of contacting experts to adjust the mud on site. With the development of computer science, related technologies in the field of artificial intelligence are introduced into the design of mud formula. Various effective methods (expert experience, engineering experience, theoretical analysis, numerical calculation, experimental simulation, on-site monitoring) can be integrated into a knowledge-based intelligent system, and problems that are difficult to solve by one method can be transformed into another way to solve it. Moreover, in the fields of solid mineral exploration, engineering construction drilling, hydrological water well drilling and other fields, the acquisition of drilling mud expert experience and expert knowledge base is complicated and cumbersome, the development of design software is relatively backward, and the researched results have not been widely used. and promotion. Therefore, inheriting the existing research results, pioneering and innovating, and developing a drilling mud formula and performance parameter adjustment system and method that can be used on the drilling site, and provide effective assistance for the on-site technicians to correctly carry out the mud optimization design. A very meaningful thing.
发明内容Contents of the invention
有鉴于此,本发明提供了一种钻探泥浆配方和性能参数调配的系统及方法,解决了现有技术中不能满足的水文水井钻探过程中,实时提供高性能的钻探泥浆配方的技术问题。In view of this, the present invention provides a system and method for formulating drilling mud formula and performance parameters, which solves the technical problem of providing high-performance drilling mud formula in real time during the drilling process of hydrological water wells, which cannot be satisfied in the prior art.
一种钻探泥浆配方和性能参数调配的系统,包括:钻探地层信息模块、现场钻探检测装置、水文水井钻探领域专家系统、机器学习预测模型和控制系统;A drilling mud formulation and performance parameter allocation system, including: drilling formation information module, on-site drilling detection device, hydrological water well drilling field expert system, machine learning prediction model and control system;
所述现场钻探检测装置包括:钻进参数检测装置、井身结构检测装置以及泥浆性能参数检测装置;The on-site drilling detection device includes: a drilling parameter detection device, a well body structure detection device and a mud performance parameter detection device;
所述水文水井钻探领域专家系统包括:输入单元、专家推理模块、输出单元和全过程信息化人机界面;The expert system in the field of hydrological water well drilling includes: an input unit, an expert reasoning module, an output unit and a whole-process informational human-machine interface;
所述机器学习预测模型包括:泥浆性能参数预测模型和泥浆配方添加剂加量预测模型;The machine learning prediction model includes: a mud performance parameter prediction model and a mud formula additive dosage prediction model;
所述全过程信息化人机界面包括预测模型数据库和专家数据库;The whole-process informatized man-machine interface includes a predictive model database and an expert database;
所述钻探地层信息模块、钻进参数检测装置以及井身结构检测装置,均连接所述水文水井钻探领域专家系统中的输入单元,所述水文水井钻探领域专家系统中的输出单元,连接所述控制系统和所述机器学习预测模型中的泥浆性能参数预测模型;The drilling formation information module, the drilling parameter detection device and the wellbore structure detection device are all connected to the input unit in the hydrological water well drilling expert system, and the output unit in the hydrological water well drilling expert system is connected to the A mud performance parameter prediction model in the control system and the machine learning prediction model;
所述全过程信息化人机界面用于建立所述预测模型数据库和所述专家数据库,根据现场钻探的实际钻探情况,实时完成对数据库的添加、修改、查找、删除操作;The whole-process informatization man-machine interface is used to establish the prediction model database and the expert database, and complete the operations of adding, modifying, searching, and deleting the database in real time according to the actual drilling conditions of on-site drilling;
所述机器学习预测模型中泥浆性能参数预测模型输出参数,与所述泥浆性能参数检测装置进行对比,得到的差值输送到泥浆配方添加剂加量预测模型,所述泥浆配方添加剂加量预测模型连接所述控制系统。The output parameters of the mud performance parameter prediction model in the machine learning prediction model are compared with the mud performance parameter detection device, and the difference obtained is sent to the mud formula additive dosage prediction model, and the mud recipe additive dosage prediction model is connected to the control system.
进一步地,所述钻探地层信息模块用于:在钻探过程中,实时获取地层信息,包括地质构造、岩石性质以及地下流体状况。Further, the drilling stratum information module is used to obtain stratum information in real time during the drilling process, including geological structure, rock properties and underground fluid conditions.
进一步地,所述钻进参数检测装置用于在钻探过程中,实时检测钻进参数,包括钻压、转速、泵压以及钻速;Further, the drilling parameter detection device is used for real-time detection of drilling parameters during the drilling process, including drilling pressure, rotational speed, pump pressure and drilling speed;
所述井身结构检测装置用于在钻探过程中,实时检测井身结构参数,包括检测井段深度和井下含水情况。The well body structure detection device is used for real-time detection of well body structure parameters during the drilling process, including detection of the depth of the well section and the water content in the well.
进一步地,所述泥浆性能参数检测装置用于在钻探过程中,实时检测泥浆循环一次,返回经过除砂后的现场泥浆性能参数,包括密度、PH值、表观粘度、塑性粘度以及动切力。Further, the mud performance parameter detection device is used to detect the mud circulation once in real time during the drilling process, and return the on-site mud performance parameters after sand removal, including density, pH value, apparent viscosity, plastic viscosity and dynamic shear force .
进一步地,所述输入单元用于向所述专家推理模块输入基础数据源;所述基础数据源包括地层信息、钻进参数检测装置检测并上传的钻进参数、以及井身结构检测装置检测并上传的井身结构参数。Further, the input unit is used to input a basic data source to the expert reasoning module; the basic data source includes formation information, drilling parameters detected and uploaded by the drilling parameter detection device, and wellbore structure detection device detected and uploaded. Uploaded shaft structure parameters.
进一步地,所述专家推理模块用于读取所述输入单元输入的基础数据源,获得地层条件、钻探钻进特性、钻探井身结构,进而获取钻探地层的地层类别,判断钻探地层的变化情况。Further, the expert reasoning module is used to read the basic data source input by the input unit, obtain formation conditions, drilling characteristics, and drilling well structure, and then obtain the formation category of the drilling formation, and judge the change of the drilling formation .
进一步地,所述输出单元用于输出相应地层钻探泥浆配方;所述相应地层钻探泥浆配方包括泥浆添加剂的成分及含量,将地层钻探泥浆配方输送到所述控制系统中,配制相应的泥浆配方;同时将相应地层钻探泥浆配方作为泥浆性能参数预测模型的输入参数。Further, the output unit is used to output the corresponding formation drilling mud formula; the corresponding formation drilling mud formula includes the composition and content of mud additives, and the formation drilling mud formula is sent to the control system to prepare the corresponding mud formula; At the same time, the corresponding formation drilling mud formula is used as the input parameter of the mud performance parameter prediction model.
进一步地,所述泥浆性能参数预测模型用于接收水文水井钻探领域专家系统输送的相应地层钻探泥浆配方,预测得到泥浆配方性能预测参数,包括密度、PH值、表观粘度、塑性粘度以及动切力,与所述泥浆性能参数检测装置实时检测得到的现场泥浆性能参数进行对比。Further, the mud performance parameter prediction model is used to receive the corresponding formation drilling mud formula delivered by the expert system in the field of hydrological well drilling, and predict the performance prediction parameters of the mud formula, including density, pH value, apparent viscosity, plastic viscosity and dynamic shear. The force is compared with the on-site mud performance parameters detected by the mud performance parameter detection device in real time.
进一步地,所述泥浆配方添加剂加量预测模型用于获取泥浆性能参数预测模型预测得到的泥浆配方性能预测参数与现场泥浆性能参数检测装置实时检测得到的现场泥浆性能参数的差值参数,所述差值参数包括密度、PH值、表观粘度、塑性粘度以及动切力,并预测得到需要加量调整添加剂的种类及含量,将其输送到所述控制系统中,及时修正现场处理过的泥浆性能。Further, the mud formulation additive dosage prediction model is used to obtain the difference parameter between the mud formulation performance prediction parameters predicted by the mud performance parameter prediction model and the on-site mud performance parameters detected by the on-site mud performance parameter detection device in real time. The difference parameters include density, PH value, apparent viscosity, plastic viscosity and dynamic shear force, and predict the type and content of additives that need to be added to adjust the amount, and send them to the control system to correct the mud treated on site in time performance.
一种钻探泥浆配方和性能参数调配的方法,应用于任一项所述的一种钻探泥浆配方和性能参数调配的系统,包括以下步骤:A method for formulating drilling mud formulas and performance parameters, applied to any one of the systems for formulating drilling mud formulas and performance parameters, comprising the following steps:
S1、将输入单元获取的钻进参数、井段深度、井下含水情况以及地层信息上传至所述水文水井钻探领域专家系统中的专家推理模块;S1. Upload the drilling parameters, well section depth, downhole water content and formation information acquired by the input unit to the expert reasoning module in the hydrological water well drilling expert system;
S2、专家推理模块通过基于规则的推理方式得到相应地层的泥浆配方,所述泥浆配方包括添加剂的种类及含量,将添加剂的种类及含量信息传送到所述控制系统,配制现场钻探泥浆;S2. The expert reasoning module obtains the mud formula of the corresponding formation through rule-based reasoning, the mud formula includes the type and content of additives, and transmits the type and content information of additives to the control system to prepare on-site drilling mud;
S3、将步骤S2中得到的泥浆配方输入到所述机器学习预测模型中,建立泥浆性能参数预测模型,输出得到相应泥浆性能参数,包括密度、PH值、表观粘度、塑性粘度、动切力;S3. Input the mud formula obtained in step S2 into the machine learning prediction model, establish a mud performance parameter prediction model, and output corresponding mud performance parameters, including density, pH value, apparent viscosity, plastic viscosity, dynamic shear force ;
S4、将步骤S3得到泥浆性能参数的密度、PH值、表观粘度、塑性粘度、动切力,与泥浆性能参数检测装置检测得到现场泥浆性能参数进行比较,若至少一个差值参数大于设定阈值,则执行步骤S6,否则执行步骤S5;S4, compare the density, pH value, apparent viscosity, plastic viscosity, and dynamic shear force of the mud performance parameters obtained in step S3 with the field mud performance parameters detected by the mud performance parameter detection device, if at least one difference parameter is greater than the set threshold, then execute step S6, otherwise execute step S5;
S5、专家推理模块利用地层条件、钻进参数以及井身结构,推理判断地层的变化情况,若地层发生变化则重新执行步骤S2,获取新的泥浆配方,否则直接使用步骤S4中现场被检测的泥浆,继续完成钻探工作;S5. The expert reasoning module uses the formation conditions, drilling parameters and wellbore structure to infer and judge the change of the formation. If the formation changes, re-execute step S2 to obtain a new mud formula, otherwise directly use the on-site detection in step S4. Mud, continue to complete the drilling work;
S6、向所述机器学习预测模型中泥浆配方添加剂加量预测模型中输入步骤S4中得到的泥浆性能参数密度、PH值、表观粘度、塑性粘度、动切力的差值参数,建立泥浆配方添加剂加量预测模型,输出得到需要加量调整添加剂的种类及含量,将输出信息传送到所述控制系统,及时修正现场处理过的泥浆,继续完成钻探工作。S6. Input the difference parameters of mud performance parameters density, pH value, apparent viscosity, plastic viscosity and dynamic shear force obtained in step S4 into the mud formula additive dosage prediction model in the machine learning prediction model, and establish mud formula The additive dosage prediction model outputs the type and content of additives that need to be adjusted by dosage, and transmits the output information to the control system to timely correct the treated mud on site and continue to complete the drilling work.
本发明提供的技术方案带来的有益效果是:(1)本发明有效解决了水文水井现场钻探工作中,因不同设计人员的技术水平和工作环境的不同,导致泥浆配制的结果存在很大差异或达不到理想效果的问题;(2)本发明可根据现场地层的实际情况,提供该地层相应的泥浆配方,进一步实现泥浆循环处理后的泥浆加量处理,从而及时调整钻探泥浆性能,提高泥浆的利用率,同时大大增加现场钻探钻进的工作效益,减少不必要的人力物力,为水文水井钻探工程所需泥浆配方给出科学的决策。The beneficial effects brought by the technical solution provided by the present invention are: (1) the present invention effectively solves the problem of large differences in the results of mud preparation due to differences in the technical level and working environment of different designers in the on-site drilling of hydrological water wells Or the problem that the ideal effect cannot be reached; (2) the present invention can provide the corresponding mud formula of the stratum according to the actual situation of the stratum on site, and further realize the mud addition treatment after the mud circulation treatment, thereby adjusting the drilling mud performance in time and improving The utilization rate of mud can greatly increase the work efficiency of on-site drilling and drilling, reduce unnecessary manpower and material resources, and provide scientific decision-making for the mud formula required for hydrological and water well drilling projects.
附图说明Description of drawings
图1是本发明的系统架构图;Fig. 1 is a system architecture diagram of the present invention;
图2是本发明的实施例的水文水井钻探领域专家系统的架构图;Fig. 2 is the architecture diagram of the expert system in the field of hydrological water well drilling of the embodiment of the present invention;
图3是本发明的实施例的泥浆性能参数预测模型的架构图;Fig. 3 is the frame diagram of the mud performance parameter prediction model of the embodiment of the present invention;
图4是本发明的实施例的泥浆配方添加剂加量预测模型的架构图。Fig. 4 is a framework diagram of a prediction model for adding additives in mud formula according to an embodiment of the present invention.
具体实施方式Detailed ways
为使本发明的目的、技术方案和优点更加清楚,下面将结合附图对本发明实施方式作进一步地描述。In order to make the purpose, technical solution and advantages of the present invention clearer, the embodiments of the present invention will be further described below in conjunction with the accompanying drawings.
请参考图1,本发明提供的一种钻探泥浆配方和性能参数调配的系统包括:钻探地层信息模块、现场钻探检测装置、水文水井钻探领域专家系统、机器学习预测模型和控制系统;Please refer to Fig. 1, a drilling mud formulation and performance parameter allocation system provided by the present invention includes: drilling formation information module, on-site drilling detection device, hydrological water well drilling field expert system, machine learning prediction model and control system;
所述现场钻探检测装置包括:钻进参数检测装置、井身结构检测装置、泥浆性能参数检测装置;The on-site drilling detection device includes: a drilling parameter detection device, a well body structure detection device, and a mud performance parameter detection device;
所述水文水井钻探领域专家系统包括:输入单元、专家推理模块、输出单元和全过程信息化人机界面;The expert system in the field of hydrological water well drilling includes: an input unit, an expert reasoning module, an output unit and a whole-process informational human-machine interface;
所述机器学习预测模型包括:泥浆性能参数预测模型和泥浆配方添加剂加量预测模型;The machine learning prediction model includes: a mud performance parameter prediction model and a mud formula additive dosage prediction model;
所述全过程信息化人机界面包括预测模型数据库和专家数据库;The whole-process informatized man-machine interface includes a predictive model database and an expert database;
所述钻探地层信息模块、所述现场钻探检测装置中所述钻进参数检测装置和井身结构检测装置,均连接所述水文水井钻探领域专家系统中所述输入单元,所述水文水井钻探领域专家系统中所述输出单元,连接所述控制系统和所述机器学习预测模型中的泥浆性能参数预测模型;The drilling formation information module, the drilling parameter detection device and the well body structure detection device in the on-site drilling detection device are all connected to the input unit in the hydrological water well drilling expert system, and the hydrological water well drilling field The output unit in the expert system is connected to the mud performance parameter prediction model in the control system and the machine learning prediction model;
所述机器学习预测模型中泥浆性能参数预测模型输出参数,与所述现场钻探检测装置中所述泥浆性能参数检测装置进行对比,得到的差值输送到所述机器学习预测模型中泥浆配方添加剂加量预测模型,所述泥浆配方添加剂加量预测模型连接所述控制系统。The output parameters of the mud performance parameter prediction model in the machine learning prediction model are compared with the mud performance parameter detection device in the on-site drilling detection device, and the difference obtained is sent to the mud formula additive in the machine learning prediction model. A quantity prediction model, the mud formula additive dosage prediction model is connected to the control system.
所述钻探地层信息模块用于:在钻探过程中,实时获取地层信息,其中包括地质构造、岩石性质、地下流体状况等;The drilling formation information module is used to: obtain formation information in real time during the drilling process, including geological structure, rock properties, underground fluid conditions, etc.;
所述钻进参数检测装置用于:在钻探过程中,实时检测钻进参数,其中包括钻压、转速、泵压、钻速等;The drilling parameter detection device is used for: during the drilling process, real-time detection of drilling parameters, including drilling pressure, rotational speed, pump pressure, drilling speed, etc.;
所述井身结构检测装置用于:在钻探过程中,实时检测井身结构参数,其中包括检测井段深度和井下含水情况;The wellbore structure detection device is used for: during the drilling process, real-time detection of wellbore structure parameters, including detection of well section depth and downhole water content;
所述泥浆性能参数检测装置用于:在钻探过程中,实时检测泥浆循环一次,返回经过除砂后的现场泥浆性能参数,其中包括密度、PH值、表观粘度、塑性粘度、动切力;The mud performance parameter detection device is used for: during the drilling process, detect the mud circulation once in real time, and return the on-site mud performance parameters after desanding, including density, pH value, apparent viscosity, plastic viscosity, and dynamic shear force;
所述输入单元用于:向所述专家推理模块输入基础数据源;所述基础数据源包括所述地层信息、所述现场钻探检测装置中所述钻进参数检测装置检测并上传的所述钻进参数、以及所述现场钻探检测装置中所述井身结构检测装置检测并上传的所述井身结构参数;The input unit is used to: input a basic data source to the expert reasoning module; the basic data source includes the stratum information, the drilling data detected and uploaded by the drilling parameter detection device in the on-site drilling detection device. parameters, and the well structure parameters detected and uploaded by the well structure detection device in the on-site drilling detection device;
所述专家推理模块用于:读取所述输入单元所输入的所述基础数据源,获得地层条件、钻探钻进特性、钻探井身结构,进而获取钻探地层的地层类别,判断钻探地层的变化情况;The expert reasoning module is used to: read the basic data source input by the input unit, obtain formation conditions, drilling characteristics, and drilling well structure, and then obtain the formation category of the drilling formation, and judge the change of the drilling formation Condition;
所述输出单元用于:输出相应地层钻探泥浆配方;所述相应地层钻探泥浆配方包括泥浆添加剂的成分及含量,输送到所述控制系统中,配制相应的泥浆配方;同时所述相应地层钻探泥浆配方作为所述泥浆性能参数预测模型的输入参数;The output unit is used to: output the corresponding formation drilling mud formula; the corresponding formation drilling mud formula includes the composition and content of mud additives, which are sent to the control system to prepare the corresponding mud formula; at the same time, the corresponding formation drilling mud The formula is used as an input parameter of the mud performance parameter prediction model;
所述泥浆性能参数预测模型用于:接收所述水文水井钻探领域专家系统输送的所述相应地层钻探泥浆配方,预测得到泥浆配方性能预测参数,其中包括密度、PH值、表观粘度、塑性粘度、动切力,与所述泥浆性能参数检测装置实时检测得到的所述现场泥浆性能参数进行对比;The mud performance parameter prediction model is used to: receive the corresponding formation drilling mud formula delivered by the expert system in the hydrological water well drilling field, and predict and obtain mud formula performance prediction parameters, including density, pH value, apparent viscosity, and plastic viscosity , dynamic shear force, compared with the on-site mud performance parameters detected by the mud performance parameter detection device in real time;
所述泥浆配方添加剂加量预测模型用于:获取所述泥浆性能参数预测模型预测得到的泥浆配方性能预测参数与所述泥浆性能参数检测装置实时检测得到的所述现场泥浆性能参数的差值参数,所述差值参数包括密度、PH值、表观粘度、塑性粘度、动切力,并预测得到需要加量调整添加剂的种类及含量,输送到所述控制系统中,及时修正现场处理过的泥浆性能;The mud formula additive dosage prediction model is used to: obtain the difference parameter between the mud formula performance prediction parameters predicted by the mud performance parameter prediction model and the on-site mud performance parameters detected by the mud performance parameter detection device in real time , the difference parameters include density, pH value, apparent viscosity, plastic viscosity, dynamic shear force, and predict the type and content of additives that need to be added to adjust the amount, and send them to the control system, and timely correct the on-site processed Mud performance;
请参考图2,基于水文水井钻探领域专家系统的输入单元为钻探地层的地层条件、钻进参数、井身结构,专家推理模块包括:推理机、专家数据库和专家规则库,输出单元为泥浆配方。Please refer to Figure 2. The input unit of the expert system based on hydrology and water well drilling is the formation conditions of the drilling formation, drilling parameters, and well structure. The expert reasoning module includes: reasoning engine, expert database and expert rule base, and the output unit is the mud formula. .
一种钻探泥浆配方和性能参数调配的方法,应用于任一项所述的一种钻探泥浆配方和性能参数调配的系统,包括以下步骤:A method for formulating drilling mud formulas and performance parameters, applied to any one of the systems for formulating drilling mud formulas and performance parameters, comprising the following steps:
S1、所述现场钻探检测装置中所述钻进参数检测装置和所述井身结构检测装置,连接所述水文水井钻探领域专家系统中所述输入单元,所述输入单元获取所述钻进参数检测装置检测得到的所述钻进参数、所述井身结构检测装置检测得到的井段深度和井下含水情况以及地层信息;并上传至所述水文水井钻探领域专家系统中所述专家推理模块;S1. The drilling parameter detection device and the well body structure detection device in the on-site drilling detection device are connected to the input unit in the hydrological water well drilling field expert system, and the input unit obtains the drilling parameters The drilling parameters detected by the detection device, the depth of the well section, the downhole water content and formation information detected by the well body structure detection device are uploaded to the expert reasoning module in the hydrological water well drilling expert system;
S2、所述水文水井钻探领域专家系统中所述专家推理模块,利用获取的所述基础数据包括钻探地层的地层信息(地质构造、岩石性质、地下流体状况等)、钻进参数(钻压、转速、泵压、钻速等)、以及井身结构,通过基于规则的推理方式得到相应地层的泥浆配方,所述泥浆配方包括其添加剂的种类及含量,将添加剂的种类及含量信息传送到所述控制系统,配制其钻探泥浆,所述专家规则采用产生式规则表示。S2. The expert reasoning module in the hydrological water well drilling field expert system uses the acquired basic data including formation information (geological structure, rock properties, underground fluid conditions, etc.), drilling parameters (weight-on-bit, rotation speed, pump pressure, drilling speed, etc.), and the wellbore structure, the mud formula of the corresponding formation is obtained through rule-based reasoning. The control system is used to prepare the drilling mud, and the expert rules are expressed by production rules.
所述专家规则与推理机制的逻辑化表示为:The logical expression of the expert rules and reasoning mechanism is as follows:
IF:地层构造and岩石性质and地下流体状况and钻压and转速and泵压and钻速and井身结构IF: formation structure, rock properties, underground fluid conditions, pressure on bit, speed, pump pressure, rate of penetration, and well structure
THEN:钻井液类型=地层泥浆and添加剂的种类及含量=膨润土含量+Na2CO3含量+CaCl2含量+HEC含量+LV-CMC含量+……THEN: Drilling fluid type = formation mud and additive type and content = bentonite content + Na 2 CO 3 content + CaCl 2 content + HEC content + LV-CMC content +...
请参考图3,泥浆性能参数预测模型的输入参数为步骤S2中得到的泥浆配方的添加剂种类及含量,所述添加剂种类及含量包括膨润土、纯碱、重晶石等,输出参数为泥浆性能参数,输出参数与泥浆性能参数检测装置检测得到的现场泥浆性能参数作比较。Please refer to Fig. 3, the input parameter of mud performance parameter prediction model is the additive type and the content of the mud formula obtained in step S2, and described additive type and content include bentonite, soda ash, barite etc., output parameter is mud performance parameter, The output parameters are compared with the on-site mud performance parameters detected by the mud performance parameter detection device.
S3、向所述机器学习预测模型中所述泥浆性能参数预测模型中输入步骤S2中得到的泥浆配方,建立泥浆性能参数预测模型,输出得到相应泥浆性能参数,包括密度、PH值、表观粘度、塑性粘度、动切力;S3. Input the mud formula obtained in step S2 into the mud performance parameter prediction model in the machine learning prediction model, establish a mud performance parameter prediction model, and output corresponding mud performance parameters, including density, pH value, apparent viscosity , plastic viscosity, dynamic shear force;
S4、利用步骤S3得到泥浆性能参数的密度、PH值、表观粘度、塑性粘度、动切力,与泥浆性能参数检测装置,检测得到现场泥浆性能参数的密度、PH值、表观粘度、塑性粘度、动切力与预测参数进行比较,若存在至少一个差值参数大于设定阈值,则执行步骤S6,否则执行步骤S5;S4, use the step S3 to obtain the density, pH value, apparent viscosity, plastic viscosity, dynamic shear force of the mud performance parameters, and the mud performance parameter detection device, and detect the density, pH value, apparent viscosity and plasticity of the mud performance parameters on site Viscosity, dynamic shear force and predicted parameters are compared, if there is at least one difference parameter greater than the set threshold, then execute step S6, otherwise execute step S5;
所述泥浆性能参数检测装置检测的是步骤S2中经过一次循环使用,返回除砂处理过的泥浆;What the mud performance parameter detection device detects is the mud that has been recycled once in step S2 and returned to the desanding treatment;
S5、专家推理模块利用地层条件、钻进参数以及井身结构,推理判断地层的变化情况,若地层发生变化则重新执行步骤S2,获取新的泥浆配方,否则直接使用步骤S4中现场被检测的泥浆,继续完成钻探工作;S5. The expert reasoning module uses the formation conditions, drilling parameters and wellbore structure to infer and judge the change of the formation. If the formation changes, re-execute step S2 to obtain a new mud formula, otherwise directly use the on-site detection in step S4. Mud, continue to complete the drilling work;
请参考图4,泥浆配方添加剂加量预测模型的输入参数为步骤S4中得到的泥浆配方性能参数密度,包括密度、PH值、表观粘度、塑性粘度、动切力的差值,输出参数为需要加量调整添加剂的种类及含量,包括膨润土、纯碱、重晶石等添加剂的种类及含量,上传至控制系统;Please refer to Fig. 4, the input parameter of the prediction model of the addition amount of the mud formula additive is the mud formula performance parameter density obtained in step S4, including the difference of density, pH value, apparent viscosity, plastic viscosity and dynamic shear force, and the output parameter is It is necessary to adjust the type and content of additives, including bentonite, soda ash, barite and other additives, and upload them to the control system;
S6、向所述机器学习预测模型中所述泥浆配方添加剂加量预测模型中输入参数,所述输入参数为步骤S4中得到的泥浆性能参数密度、PH值、表观粘度、塑性粘度、动切力的差值参数,建立泥浆配方添加剂加量预测模型,输出得到需要加量调整添加剂的种类及含量,将输出信息传送到所述控制系统,及时修正现场处理过的泥浆,继续完成钻探工作。S6. Input parameters to the prediction model of the addition of mud formula additives in the machine learning prediction model, and the input parameters are the mud performance parameters obtained in step S4. Density, pH value, apparent viscosity, plastic viscosity, dynamic shear Based on the force difference parameters, a prediction model for the addition of mud formula additives is established, and the type and content of additives that need to be adjusted are outputted, and the output information is transmitted to the control system to correct the treated mud in time and continue to complete the drilling work.
所述泥浆配方添加剂加量预测模型的输入参数为泥浆配方性能参数的差值参数,输出参数为泥浆配方加量的添加剂种类及含量;两个预测模型为先进行正推得到泥浆配方性能参数模型,再进行反推得到泥浆配方添加剂加量模型,最终利用泥浆配方添加剂加量模型反推的结果输入到泥浆配方性能参数模型中,对比两个模型结果是否一致,验证模型的准确性。The input parameter of the mud formula additive amount prediction model is the difference parameter of the mud formula performance parameter, and the output parameter is the additive type and content of the mud formula additive amount; the two prediction models are the mud formula performance parameter model obtained by the forward push first , and then back-calculated to obtain the additive dosage model of the mud formula, and finally input the result of the reverse deduction of the additive dosage model of the mud formula into the performance parameter model of the mud formula, and compared the results of the two models to verify the accuracy of the model.
所述全过程信息化人机界面用于:建立所述预测模型数据库和所述专家数据库,可以方便现场钻探人员,根据现场钻探的实际钻探情况,实时完成对数据库的添加、修改、查找、删除操作,使设计的系统更加贴近水文水井实际钻探工作。The whole-process informatization man-machine interface is used for: establishing the prediction model database and the expert database, which can facilitate on-site drilling personnel to complete the addition, modification, search, and deletion of the database in real time according to the actual drilling conditions of the on-site drilling Operation, so that the designed system is closer to the actual drilling work of hydrological water wells.
上面结合附图对本发明的实施例进行了描述,但是本发明并不局限于上述的具体实施方式,上述的具体实施方式仅仅是示意性的,而不是限制性的,本领域的普通技术人员在本发明的启示下,在不脱离本发明宗旨和权利要求所保护的范围情况下,还可做出很多形式,这些均属于本发明的保护之内。Embodiments of the present invention have been described above in conjunction with the accompanying drawings, but the present invention is not limited to the above-mentioned specific implementations, and the above-mentioned specific implementations are only illustrative, rather than restrictive, and those of ordinary skill in the art will Under the enlightenment of the present invention, many forms can also be made without departing from the gist of the present invention and the protection scope of the claims, and these all belong to the protection of the present invention.
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