CN118352084A - A method and system for predicting eclampsia in pregnant women based on data analysis - Google Patents
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Abstract
Description
技术领域Technical Field
本发明涉及医疗监测技术领域,特别涉及一种基于数据分析的孕妇子痫预测方法及系统。The present invention relates to the field of medical monitoring technology, and in particular to a method and system for predicting eclampsia in pregnant women based on data analysis.
背景技术Background technique
在孕期管理和孕妇健康监测领域,对子痫前期的预防和早期诊断是一项挑战性任务。子痫前期是一种特定于妊娠的高血压疾病,如果不及时治疗,可能导致严重的健康问题,甚至危及孕妇及胎儿的生命安全。传统的预防措施依赖于定期的血压和蛋白尿检测,但这些方法对于早期识别和个性化管理孕妇子痫风险的能力有限。此外,孕妇的健康数据往往分布在不同的医疗机构,缺乏有效的数据整合和分析能力,限制了对孕妇健康状况全面评估和及时干预的可能性。In the field of pregnancy management and maternal health monitoring, the prevention and early diagnosis of preeclampsia is a challenging task. Preeclampsia is a hypertensive disease specific to pregnancy. If not treated in time, it may lead to serious health problems and even endanger the life safety of pregnant women and fetuses. Traditional preventive measures rely on regular blood pressure and proteinuria testing, but these methods have limited ability to identify and personalize the risk of eclampsia in pregnant women early. In addition, the health data of pregnant women are often distributed in different medical institutions, lacking effective data integration and analysis capabilities, which limits the possibility of comprehensive assessment of the health status of pregnant women and timely intervention.
随着大数据和机器学习技术的发展,基于数据分析的孕妇子痫预测和管理技术成为研究的新趋势。这些技术能够综合利用孕妇的历史健康记录、生理参数等多源数据,通过精准的数据分析和模型预测,实现对子痫前期风险的早期识别和实时监控。然而,如何有效集成大规模健康数据,构建高准确率的预测模型,并将其应用于实际的孕期管理和风险干预中,依然是一个技术挑战。此外,确保预测模型的泛化能力和解释性,以便医疗专业人士能够根据模型预测提出合理的干预建议,也是提高孕期管理质量和效率的关键。因此,开发一种既能高效整合多源健康数据,又能提供精准预测和实用干预方案的孕妇子痫预测方法,对于提升孕期医疗服务质量和孕妇及胎儿健康具有重要的实践意义。With the development of big data and machine learning technologies, data analysis-based prediction and management technologies for eclampsia in pregnant women have become a new research trend. These technologies can make comprehensive use of multi-source data such as the historical health records and physiological parameters of pregnant women, and achieve early identification and real-time monitoring of the risk of preeclampsia through accurate data analysis and model prediction. However, how to effectively integrate large-scale health data, build a high-accuracy prediction model, and apply it to actual pregnancy management and risk intervention remains a technical challenge. In addition, ensuring the generalization and interpretability of the prediction model so that medical professionals can make reasonable intervention recommendations based on the model prediction is also the key to improving the quality and efficiency of pregnancy management. Therefore, developing a method for predicting eclampsia in pregnant women that can not only efficiently integrate multi-source health data, but also provide accurate predictions and practical intervention plans is of great practical significance for improving the quality of medical services during pregnancy and the health of pregnant women and fetuses.
发明内容Summary of the invention
为了解决上述至少一个技术问题,本发明提出了一种基于数据分析的孕妇子痫预测方法及系统。In order to solve at least one of the above technical problems, the present invention proposes a method and system for predicting eclampsia in pregnant women based on data analysis.
本发明第一方面提供了一种基于数据分析的孕妇子痫预测方法,包括:The first aspect of the present invention provides a method for predicting eclampsia in pregnant women based on data analysis, comprising:
构建层级数据库,获取预设数量的孕妇子痫患者的生理数据、医疗历史生理数据,将所述生理数据和医疗历史生理数据导入所述层级数据库中;Constructing a hierarchical database, obtaining physiological data and medical history physiological data of a preset number of pregnant women with eclampsia, and importing the physiological data and medical history physiological data into the hierarchical database;
对所述层级数据库中每个层级的生理数据和医疗历史生理数据进行聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果;Performing clustering operation on physiological data and medical history physiological data of each level in the hierarchical database to obtain clustering results of physiological data and medical history physiological data of each level;
根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征;Determining physiological characteristics of eclampsia in pregnant women in different pregnancy cycles according to the clustering results;
基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据;Building an eclampsia prediction model based on the physiological characteristics of eclampsia, monitoring the physiological indicators of pregnant women in real time, and predicting the risk of eclampsia in pregnant women according to the eclampsia prediction model and the physiological indicators to obtain risk prediction data;
构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案。A risk monitoring system is constructed, and the monitoring level of the risk monitoring system is determined according to the risk prediction data to obtain a monitoring plan for eclampsia in pregnant women.
本方案中,所述构建层级数据库,获取预设数量的孕妇子痫患者的生理数据、医疗历史生理数据,将所述生理数据和医疗历史生理数据导入所述层级数据库中,具体为:In this solution, the hierarchical database is constructed to obtain physiological data and medical history physiological data of a preset number of pregnant women with eclampsia, and the physiological data and medical history physiological data are imported into the hierarchical database, specifically:
获取预设数量的孕妇子痫患者的生理数据和医疗历史生理数据;Obtain physiological data and medical history physiological data of a preset number of pregnant women with eclampsia;
获取孕妇子痫患者的怀孕周期数据,将所述生理数据和医疗数据按照怀孕周期进行层级划分,得到层级数据;Obtaining pregnancy cycle data of pregnant women with eclampsia, and dividing the physiological data and medical data into hierarchical groups according to the pregnancy cycle to obtain hierarchical data;
构建层级数据库,根据所述层级数据设定所述层级数据库的构建层级,确定层级数据库的表结构;constructing a hierarchical database, setting a construction level of the hierarchical database according to the hierarchical data, and determining a table structure of the hierarchical database;
根据所述构建层级和表结构将层级数据导入层级数据库中。The hierarchical data is imported into the hierarchical database according to the constructed hierarchical and table structures.
本方案中,所述对所述层级数据库中每个层级的生理数据和医疗历史生理数据进行聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果,具体为:In this solution, the physiological data and medical history physiological data of each level in the hierarchical database are clustered to obtain the clustering results of the physiological data and medical history physiological data of each level, specifically:
引入层次聚类算法,依次将层级数据库中每个层级的生理数据和医疗历史生理数据作为待聚类数据;A hierarchical clustering algorithm is introduced, and the physiological data and medical history physiological data of each level in the hierarchical database are taken as the data to be clustered in turn;
依次将所述待聚类数据中每个数据项作为待聚类数据项,将待聚类数据项中的每个数据点作为单独的簇类,计算每个聚类之间的曼哈顿距离,根据所述曼哈顿距离评估每个簇类的相似度,得到相似矩阵;Taking each data item in the data to be clustered as a data item to be clustered in turn, taking each data point in the data item to be clustered as a separate cluster, calculating the Manhattan distance between each cluster, and evaluating the similarity of each cluster according to the Manhattan distance to obtain a similarity matrix;
根据所述相似矩阵将相似度最高的两个簇类进行合并操作,得到合并簇类,根据所述合并簇类对所述相似矩阵进行更新操作,得到更新矩阵;Merging two clusters with the highest similarity according to the similarity matrix to obtain a merged cluster, and updating the similarity matrix according to the merged cluster to obtain an updated matrix;
循环对所述更新矩阵进行相似度最高的两个簇类进行合并操作,并再次更新相似矩阵,直至聚类层次达到预设数量,停止聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果,所述每个层级的生理数据和医疗历史生理数据聚类结果即为对每个层级的每项生理数据和每项医疗历史生理数据在预设数据范围内的孕妇子痫患者归为一类的结果。The updated matrix is cyclically merged with the two clusters with the highest similarity, and the similarity matrix is updated again until the clustering level reaches a preset number, and the clustering operation is stopped to obtain the clustering results of the physiological data and medical history physiological data of each level. The clustering results of the physiological data and medical history physiological data of each level are the results of classifying pregnant women with eclampsia whose each physiological data and each medical history physiological data of each level are within the preset data range into one category.
本方案中,所述根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征,具体为:In this solution, the physiological characteristics of eclampsia in pregnant women in different pregnancy cycles are determined according to the clustering results, specifically:
获取孕妇在不同怀孕周期中的标准生理数据变化范围,根据所述聚类结果对每个层级的聚类结果与标准生理数据变化范围进行对比,将不在标准生理数据变化范围中的聚类结果进行标记,得到标记聚类结果;Obtaining a variation range of standard physiological data of pregnant women in different pregnancy cycles, comparing the clustering results of each level with the variation range of standard physiological data according to the clustering results, marking the clustering results that are not within the variation range of standard physiological data, and obtaining a marked clustering result;
对所述标记聚类结果中的每项每项生理数据和每项医疗历史生理数据的聚类结果进行患者人数统计操作,得到每个标记聚类结果的患者人数数据;Performing a patient number counting operation on the clustering results of each item of physiological data and each item of medical history physiological data in the marked clustering results to obtain patient number data for each marked clustering result;
根据所述患者人数数据对标记聚类结果中每个聚类结果的数据范围进行风险评分操作,得到每个层级的每项生理数据和每项医疗历史生理数据在不同数值范围内的风险评分结果;Performing a risk scoring operation on the data range of each clustering result in the marked clustering result according to the patient population data, to obtain risk scoring results of each physiological data at each level and each medical history physiological data in different numerical ranges;
根据所述风险评估结果确定在不同怀孕周期中子痫发生的生理特征,所述子痫发生的生理特征为在孕妇在不同怀孕周期中与子痫发生相关的生理数据项、生理数据项的数值范围、生理数据项的每个数值范围的发生风险。The physiological characteristics of eclampsia occurring in different pregnancy cycles are determined according to the risk assessment results. The physiological characteristics of eclampsia occurring are physiological data items related to the occurrence of eclampsia in different pregnancy cycles of pregnant women, numerical ranges of physiological data items, and the risk of occurrence of each numerical range of physiological data items.
本方案中,所述基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据,具体为:In this solution, the eclampsia prediction model is constructed based on the physiological characteristics of eclampsia, the physiological indicators of pregnant women are monitored in real time, and the risk of eclampsia in pregnant women is predicted according to the eclampsia prediction model and physiological indicators to obtain risk prediction data, specifically:
基于信息熵权重法对所述子痫发生的生理特征进行权重计算,得到子痫发生的每个生理特征对子痫发生的影响权重数据;Based on the information entropy weight method, weight calculation is performed on the physiological characteristics of eclampsia to obtain the weight data of the influence of each physiological characteristic of eclampsia on the occurrence of eclampsia;
基于逻辑回归算法构建子痫预测模型,将所述子痫发生的生理特征和影响权重数据导入所述子痫预测模型中进行学习和训练,通过梯度下降算法对子痫预测模型的损失函数进行优化;Constructing an eclampsia prediction model based on a logistic regression algorithm, importing the physiological characteristics and influencing weight data of the occurrence of eclampsia into the eclampsia prediction model for learning and training, and optimizing the loss function of the eclampsia prediction model by a gradient descent algorithm;
基于电子健康穿戴设备实时监测孕妇的生理指标,获取当前孕妇的怀孕周期数据,根据子痫预测模型和怀孕周期数据对孕妇的生理指标对孕妇的子痫发生风险进行实时预测,得到风险预测数据。Based on the real-time monitoring of the physiological indicators of pregnant women by electronic health wearable devices, the current pregnancy cycle data of pregnant women is obtained, and the risk of eclampsia of pregnant women is predicted in real time based on the physiological indicators of pregnant women according to the eclampsia prediction model and pregnancy cycle data to obtain risk prediction data.
本方案中,所述构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案,具体为:In this scheme, the risk monitoring system is constructed, and the monitoring level of the risk monitoring system is determined according to the risk prediction data to obtain the monitoring scheme for eclampsia in pregnant women, which is specifically:
构建风险监测系统,设定风险监测阈值,根据所述风险监测阈值和风险预测数据,确定孕妇的监测等级;Constructing a risk monitoring system, setting a risk monitoring threshold, and determining the monitoring level of pregnant women based on the risk monitoring threshold and risk prediction data;
若所述监测等级为高监测等级,实时发出危险预警提醒孕妇进行紧急医疗干预,并实时获取孕妇的语音数据,对所述语音数据进行语义分析,根据所述语义对孕妇的状态进行确定,根据所述状态确定是否进行自动报警操作;If the monitoring level is a high monitoring level, a danger warning is issued in real time to remind the pregnant woman to perform emergency medical intervention, and voice data of the pregnant woman is acquired in real time, semantic analysis is performed on the voice data, the state of the pregnant woman is determined according to the semantics, and whether to perform an automatic alarm operation according to the state;
若所述监测等级为中监测等级,制定孕妇的医疗检查建议时间和检查频率;If the monitoring level is medium monitoring level, establish the recommended time and frequency of medical examinations for pregnant women;
若所述监测等级为低监测等级,减少对孕妇的生理指标的监测频率,得到孕妇子痫监测方案。If the monitoring level is a low monitoring level, the monitoring frequency of the physiological indicators of the pregnant woman is reduced to obtain a monitoring plan for eclampsia in the pregnant woman.
本发明第二方面还提供了一种基于数据分析的孕妇子痫预测系统,该系统包括:存储器、处理器,所述存储器中包括基于数据分析的孕妇子痫预测方法程序,所述基于数据分析的孕妇子痫预测方法程序被所述处理器执行时,实现如下步骤:The second aspect of the present invention further provides a system for predicting eclampsia in pregnant women based on data analysis, the system comprising: a memory, a processor, the memory comprising a method program for predicting eclampsia in pregnant women based on data analysis, and when the method program for predicting eclampsia in pregnant women based on data analysis is executed by the processor, the following steps are implemented:
构建层级数据库,获取预设数量的孕妇子痫患者的生理数据、医疗历史生理数据,将所述生理数据和医疗历史生理数据导入所述层级数据库中;Constructing a hierarchical database, obtaining physiological data and medical history physiological data of a preset number of pregnant women with eclampsia, and importing the physiological data and medical history physiological data into the hierarchical database;
对所述层级数据库中每个层级的生理数据和医疗历史生理数据进行聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果;Performing clustering operation on physiological data and medical history physiological data of each level in the hierarchical database to obtain clustering results of physiological data and medical history physiological data of each level;
根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征;Determining physiological characteristics of eclampsia in pregnant women in different pregnancy cycles according to the clustering results;
基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据;Building an eclampsia prediction model based on the physiological characteristics of eclampsia, monitoring the physiological indicators of pregnant women in real time, and predicting the risk of eclampsia in pregnant women according to the eclampsia prediction model and the physiological indicators to obtain risk prediction data;
构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案。A risk monitoring system is constructed, and the monitoring level of the risk monitoring system is determined according to the risk prediction data to obtain a monitoring plan for eclampsia in pregnant women.
本方案中,所述根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征,具体为:In this solution, the physiological characteristics of eclampsia in pregnant women in different pregnancy cycles are determined according to the clustering results, specifically:
获取孕妇在不同怀孕周期中的标准生理数据变化范围,根据所述聚类结果对每个层级的聚类结果与标准生理数据变化范围进行对比,将不在标准生理数据变化范围中的聚类结果进行标记,得到标记聚类结果;Obtaining a variation range of standard physiological data of pregnant women in different pregnancy cycles, comparing the clustering results of each level with the variation range of standard physiological data according to the clustering results, marking the clustering results that are not within the variation range of standard physiological data, and obtaining a marked clustering result;
对所述标记聚类结果中的每项每项生理数据和每项医疗历史生理数据的聚类结果进行患者人数统计操作,得到每个标记聚类结果的患者人数数据;Performing a patient number counting operation on the clustering results of each item of physiological data and each item of medical history physiological data in the marked clustering results to obtain patient number data for each marked clustering result;
根据所述患者人数数据对标记聚类结果中每个聚类结果的数据范围进行风险评分操作,得到每个层级的每项生理数据和每项医疗历史生理数据在不同数值范围内的风险评分结果;Performing a risk scoring operation on the data range of each clustering result in the marked clustering result according to the patient population data, to obtain risk scoring results of each physiological data at each level and each medical history physiological data in different numerical ranges;
根据所述风险评估结果确定在不同怀孕周期中子痫发生的生理特征,所述子痫发生的生理特征为在孕妇在不同怀孕周期中与子痫发生相关的生理数据项、生理数据项的数值范围、生理数据项的每个数值范围的发生风险。The physiological characteristics of eclampsia occurring in different pregnancy cycles are determined according to the risk assessment results. The physiological characteristics of eclampsia occurring are physiological data items related to the occurrence of eclampsia in different pregnancy cycles of pregnant women, numerical ranges of physiological data items, and the risk of occurrence of each numerical range of physiological data items.
本方案中,所述基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据,具体为:In this solution, the eclampsia prediction model is constructed based on the physiological characteristics of eclampsia, the physiological indicators of pregnant women are monitored in real time, and the risk of eclampsia in pregnant women is predicted according to the eclampsia prediction model and physiological indicators to obtain risk prediction data, specifically:
基于信息熵权重法对所述子痫发生的生理特征进行权重计算,得到子痫发生的每个生理特征对子痫发生的影响权重数据;Based on the information entropy weight method, weight calculation is performed on the physiological characteristics of eclampsia to obtain the weight data of the influence of each physiological characteristic of eclampsia on the occurrence of eclampsia;
基于逻辑回归算法构建子痫预测模型,将所述子痫发生的生理特征和影响权重数据导入所述子痫预测模型中进行学习和训练,通过梯度下降算法对子痫预测模型的损失函数进行优化;Constructing an eclampsia prediction model based on a logistic regression algorithm, importing the physiological characteristics and influencing weight data of the occurrence of eclampsia into the eclampsia prediction model for learning and training, and optimizing the loss function of the eclampsia prediction model by a gradient descent algorithm;
基于电子健康穿戴设备实时监测孕妇的生理指标,获取当前孕妇的怀孕周期数据,根据子痫预测模型和怀孕周期数据对孕妇的生理指标对孕妇的子痫发生风险进行实时预测,得到风险预测数据。Based on the real-time monitoring of the physiological indicators of pregnant women by electronic health wearable devices, the current pregnancy cycle data of pregnant women is obtained, and the risk of eclampsia of pregnant women is predicted in real time based on the physiological indicators of pregnant women according to the eclampsia prediction model and pregnancy cycle data to obtain risk prediction data.
本方案中,所述构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案,具体为:In this scheme, the risk monitoring system is constructed, and the monitoring level of the risk monitoring system is determined according to the risk prediction data to obtain the monitoring scheme for eclampsia in pregnant women, which is specifically:
构建风险监测系统,设定风险监测阈值,根据所述风险监测阈值和风险预测数据,确定孕妇的监测等级;Constructing a risk monitoring system, setting a risk monitoring threshold, and determining a monitoring level for pregnant women based on the risk monitoring threshold and risk prediction data;
若所述监测等级为高监测等级,实时发出危险预警提醒孕妇进行紧急医疗干预,并实时获取孕妇的语音数据,对所述语音数据进行语义分析,根据所述语义对孕妇的状态进行确定,根据所述状态确定是否进行自动报警操作;If the monitoring level is a high monitoring level, a danger warning is issued in real time to remind the pregnant woman to perform emergency medical intervention, and voice data of the pregnant woman is acquired in real time, semantic analysis is performed on the voice data, the state of the pregnant woman is determined according to the semantics, and whether to perform an automatic alarm operation according to the state;
若所述监测等级为中监测等级,制定孕妇的医疗检查建议时间和检查频率;If the monitoring level is medium monitoring level, establish the recommended time and frequency of medical examinations for pregnant women;
若所述监测等级为低监测等级,减少对孕妇的生理指标的监测频率,得到孕妇子痫监测方案。If the monitoring level is a low monitoring level, the monitoring frequency of the physiological indicators of the pregnant woman is reduced to obtain a monitoring plan for eclampsia in the pregnant woman.
本发明公开了一种基于数据分析的孕妇子痫预测方法及系统,旨在通过先进的数据处理和机器学习技术,实现对孕妇子痫风险的早期预测和有效监控。首先构建一个层级数据库,收集并导入孕妇的生理数据和医疗历史生理数据。通过对这些数据进行聚类分析,识别出不同怀孕周期中子痫发生的关键生理特征。基于这些特征,进一步构建了一个子痫预测模型,能够实时监测孕妇的生理指标,并预测子痫的风险程度。最终,根据预测得到的风险数据,构建一个风险监测系统,该系统能够为每位孕妇划分监测等级并提出相应的监测方案,从而为医疗机构和孕妇本人提供科学、个性化的监护建议,有效降低子痫的发生率,保障孕妇及胎儿的健康。The present invention discloses a method and system for predicting eclampsia in pregnant women based on data analysis, aiming to achieve early prediction and effective monitoring of the risk of eclampsia in pregnant women through advanced data processing and machine learning technologies. First, a hierarchical database is constructed to collect and import the physiological data and medical history physiological data of pregnant women. By clustering these data, the key physiological characteristics of eclampsia in different pregnancy cycles are identified. Based on these characteristics, an eclampsia prediction model is further constructed, which can monitor the physiological indicators of pregnant women in real time and predict the risk level of eclampsia. Finally, according to the predicted risk data, a risk monitoring system is constructed, which can divide the monitoring level for each pregnant woman and propose corresponding monitoring plans, so as to provide scientific and personalized monitoring suggestions for medical institutions and pregnant women themselves, effectively reduce the incidence of eclampsia, and protect the health of pregnant women and fetuses.
附图说明BRIEF DESCRIPTION OF THE DRAWINGS
图1示出了本发明一种基于数据分析的孕妇子痫预测方法的流程图;FIG1 shows a flow chart of a method for predicting eclampsia in pregnant women based on data analysis according to the present invention;
图2示出了本发明确定孕妇在不同怀孕周期中子痫发生的生理特征的流程图;FIG2 shows a flow chart of the present invention for determining physiological characteristics of eclampsia in pregnant women in different pregnancy cycles;
图3示出了本发明得到风险预测数据的流程图;FIG3 shows a flow chart of obtaining risk prediction data according to the present invention;
图4示出了本发明一种基于数据分析的孕妇子痫预测系统的框图。FIG4 shows a block diagram of a system for predicting eclampsia in pregnant women based on data analysis according to the present invention.
具体实施方式Detailed ways
为了能够更清楚地理解本发明的上述目的、特征和优点,下面结合附图和具体实施方式对本发明进行进一步的详细描述。需要说明的是,在不冲突的情况下,本申请的实施例及实施例中的特征可以相互组合。In order to more clearly understand the above-mentioned purpose, features and advantages of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be noted that the embodiments of the present application and the features in the embodiments can be combined with each other without conflict.
在下面的描述中阐述了很多具体细节以便于充分理解本发明,但是,本发明还可以采用其他不同于在此描述的其他方式来实施,因此,本发明的保护范围并不受下面公开的具体实施例的限制。In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the protection scope of the present invention is not limited to the specific embodiments disclosed below.
图1示出了本发明一种基于数据分析的孕妇子痫预测方法的流程图。FIG1 shows a flow chart of a method for predicting eclampsia in pregnant women based on data analysis according to the present invention.
如图1所示,本发明第一方面提供了一种基于数据分析的孕妇子痫预测方法,包括:As shown in FIG1 , the first aspect of the present invention provides a method for predicting eclampsia in pregnant women based on data analysis, comprising:
S102,构建层级数据库,获取预设数量的孕妇子痫患者的生理数据、医疗历史生理数据,将所述生理数据和医疗历史生理数据导入所述层级数据库中;S102, constructing a hierarchical database, obtaining physiological data and medical history physiological data of a preset number of pregnant women with eclampsia, and importing the physiological data and medical history physiological data into the hierarchical database;
S104,对所述层级数据库中每个层级的生理数据和医疗历史生理数据进行聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果;S104, performing a clustering operation on the physiological data and medical history physiological data of each level in the hierarchical database to obtain a clustering result of the physiological data and medical history physiological data of each level;
S106,根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征;S106, determining physiological characteristics of eclampsia in pregnant women in different pregnancy cycles according to the clustering results;
S108,基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据;S108, constructing an eclampsia prediction model based on the physiological characteristics of eclampsia, monitoring the physiological indicators of the pregnant woman in real time, and predicting the risk of eclampsia in the pregnant woman according to the eclampsia prediction model and the physiological indicators to obtain risk prediction data;
S110,构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案。S110, constructing a risk monitoring system, determining a monitoring level of the risk monitoring system according to the risk prediction data, and obtaining a monitoring plan for eclampsia in pregnant women.
需要说明的是,由于需要收集大量的孕妇子痫患者的生理数据和理疗历史生理数据,通过构建层级数据库对所述进行数据存储,能够大大提高数据的处理和管理能力,所述生理数据包括血常规指标、蛋白尿、氧饱和度、心率、体重,所述医疗历史生理数据即为在孕期的历史就诊记录中所记录的生理数据;因为孕妇在不同的怀孕周期中子痫的发生概率和发生的生理特征都会有所不同,因此对不同怀孕周期的孕妇数据形成的层级数据进行聚类操作,通过聚类结果确定在不同怀孕周期中子痫发生的生理特征,并构建子痫预测模型,根据预测模型预测孕妇发生子痫的风险,最终构建风险监测系统对孕妇将进行实时监测操作,通过早期识别和精确预测子痫风险,以及实施有效的监测和干预措施,可以显著降低孕产妇及胎儿因子痫引发的健康问题,提高孕期安全性,减少医疗资源的浪费,通过分析风险预测数据,风险监测系统能够确定不同的监测等级,并据此制定个性化的孕妇子痫监测方案,这种个性化监测方案能够针对不同风险等级的孕妇提供更为精确和有效的监测与干预措施。It should be noted that, since a large amount of physiological data and physical therapy history physiological data of pregnant women with eclampsia need to be collected, the data processing and management capabilities can be greatly improved by constructing a hierarchical database to store the data. The physiological data include blood routine indicators, proteinuria, oxygen saturation, heart rate, and weight. The medical history physiological data refers to the physiological data recorded in the historical medical records during pregnancy. Because the probability of occurrence and physiological characteristics of eclampsia in pregnant women are different in different pregnancy cycles, the hierarchical data formed by the data of pregnant women in different pregnancy cycles are clustered, and the occurrence of eclampsia in different pregnancy cycles is determined by the clustering results. The physiological characteristics of pregnant women are identified and an eclampsia prediction model is constructed. The risk of eclampsia in pregnant women is predicted based on the prediction model. Finally, a risk monitoring system is built to conduct real-time monitoring operations on pregnant women. Through early identification and accurate prediction of eclampsia risk, as well as the implementation of effective monitoring and intervention measures, the health problems caused by eclampsia in pregnant women and fetuses can be significantly reduced, the safety of pregnancy can be improved, and the waste of medical resources can be reduced. By analyzing the risk prediction data, the risk monitoring system can determine different monitoring levels and formulate personalized monitoring plans for pregnant women with eclampsia accordingly. This personalized monitoring plan can provide more accurate and effective monitoring and intervention measures for pregnant women with different risk levels.
根据本发明实施例,所述构建层级数据库,获取预设数量的孕妇子痫患者的生理数据、医疗历史生理数据,将所述生理数据和医疗历史生理数据导入所述层级数据库中,具体为:According to an embodiment of the present invention, the hierarchical database is constructed to obtain physiological data and medical history physiological data of a preset number of pregnant women with eclampsia, and the physiological data and medical history physiological data are imported into the hierarchical database, specifically:
获取预设数量的孕妇子痫患者的生理数据和医疗历史生理数据;Obtain physiological data and medical history physiological data of a preset number of pregnant women with eclampsia;
获取孕妇子痫患者的怀孕周期数据,将所述生理数据和医疗数据按照怀孕周期进行层级划分,得到层级数据;Obtaining pregnancy cycle data of pregnant women with eclampsia, and dividing the physiological data and medical data into hierarchical groups according to the pregnancy cycle to obtain hierarchical data;
构建层级数据库,根据所述层级数据设定所述层级数据库的构建层级,确定层级数据库的表结构;constructing a hierarchical database, setting a construction level of the hierarchical database according to the hierarchical data, and determining a table structure of the hierarchical database;
根据所述构建层级和表结构将层级数据导入层级数据库中。The hierarchical data is imported into the hierarchical database according to the constructed hierarchical and table structures.
需要说明的是,所述层级数据为将相同怀孕周期的孕妇子痫患者的生理数据和医疗历史生理数据划分到同一区域内。It should be noted that the hierarchical data is to divide the physiological data and medical history physiological data of pregnant women with eclampsia in the same pregnancy cycle into the same area.
根据本发明实施例,所述对所述层级数据库中每个层级的生理数据和医疗历史生理数据进行聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果,具体为:According to an embodiment of the present invention, the clustering operation is performed on the physiological data and medical history physiological data of each level in the hierarchical database to obtain the clustering results of the physiological data and medical history physiological data of each level, specifically:
引入层次聚类算法,依次将层级数据库中每个层级的生理数据和医疗历史生理数据作为待聚类数据;A hierarchical clustering algorithm is introduced, and the physiological data and medical history physiological data of each level in the hierarchical database are taken as the data to be clustered in turn;
依次将所述待聚类数据中每个数据项作为待聚类数据项,将待聚类数据项中的每个数据点作为单独的簇类,计算每个聚类之间的曼哈顿距离,根据所述曼哈顿距离评估每个簇类的相似度,得到相似矩阵;Taking each data item in the data to be clustered as a data item to be clustered in turn, taking each data point in the data item to be clustered as a separate cluster, calculating the Manhattan distance between each cluster, and evaluating the similarity of each cluster according to the Manhattan distance to obtain a similarity matrix;
根据所述相似矩阵将相似度最高的两个簇类进行合并操作,得到合并簇类,根据所述合并簇类对所述相似矩阵进行更新操作,得到更新矩阵;Merging two clusters with the highest similarity according to the similarity matrix to obtain a merged cluster, and updating the similarity matrix according to the merged cluster to obtain an updated matrix;
循环对所述更新矩阵进行相似度最高的两个簇类进行合并操作,并再次更新相似矩阵,直至聚类层次达到预设数量,停止聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果,所述每个层级的生理数据和医疗历史生理数据聚类结果即为对每个层级的每项生理数据和每项医疗历史生理数据在预设数据范围内的孕妇子痫患者归为一类的结果。The updated matrix is cyclically merged with the two clusters with the highest similarity, and the similarity matrix is updated again until the clustering level reaches a preset number, and the clustering operation is stopped to obtain the clustering results of the physiological data and medical history physiological data of each level. The clustering results of the physiological data and medical history physiological data of each level are the results of classifying pregnant women with eclampsia whose each physiological data and each medical history physiological data of each level are within the preset data range into one category.
需要说明的是,通过引入层次聚类算法对孕妇的生理数据和医疗历史进行细致的聚类分析,层次聚类算法能够将具有相似特征的数据归为一类,精确地识别出不同风险等级的群体,根据生理数据和医疗历史的相似度,逐步合并数据点,形成从细到粗的风险分层。这种方法能够揭示孕妇子痫风险的细微差异;所述聚类操作为将相同类别的数据进行聚类,非相同类别的数据无法进行聚类,例如对某一层级内的血压数据进行聚类,即将该层级内具有血压相似性孕妇子痫患者归为一类;所述数据项即为每个层级的所有生理数据项和历史医疗数据项,例如生理数据中包含了血压,即血压就为生理数据项。It should be noted that by introducing a hierarchical clustering algorithm to conduct a detailed clustering analysis of the physiological data and medical history of pregnant women, the hierarchical clustering algorithm can classify data with similar characteristics into one category, accurately identify groups of different risk levels, and gradually merge data points according to the similarity of physiological data and medical history to form a risk stratification from fine to coarse. This method can reveal subtle differences in the risk of eclampsia in pregnant women; the clustering operation is to cluster data of the same category, and data of non-same categories cannot be clustered. For example, blood pressure data within a certain level is clustered, that is, pregnant women with eclampsia with similar blood pressure within the level are classified into one category; the data items are all physiological data items and historical medical data items at each level. For example, if the physiological data contains blood pressure, blood pressure is a physiological data item.
图2示出了本发明确定孕妇在不同怀孕周期中子痫发生的生理特征的流程图。FIG. 2 shows a flow chart of the present invention for determining physiological characteristics of eclampsia in pregnant women in different pregnancy cycles.
根据本发明实施例,所述根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征,具体为:According to an embodiment of the present invention, the physiological characteristics of eclampsia occurring in pregnant women in different pregnancy cycles are determined according to the clustering results, specifically:
S202,获取孕妇在不同怀孕周期中的标准生理数据变化范围,根据所述聚类结果对每个层级的聚类结果与标准生理数据变化范围进行对比,将不在标准生理数据变化范围中的聚类结果进行标记,得到标记聚类结果;S202, obtaining a variation range of standard physiological data of pregnant women in different pregnancy cycles, comparing the clustering results of each level with the variation range of standard physiological data according to the clustering results, marking the clustering results that are not in the variation range of standard physiological data, and obtaining a marked clustering result;
S204,对所述标记聚类结果中的每项每项生理数据和每项医疗历史生理数据的聚类结果进行患者人数统计操作,得到每个标记聚类结果的患者人数数据;S204, performing a patient number counting operation on the clustering results of each item of physiological data and each item of medical history physiological data in the marked clustering results to obtain patient number data for each marked clustering result;
S206,根据所述患者人数数据对标记聚类结果中每个聚类结果的数据范围进行风险评分操作,得到每个层级的每项生理数据和每项医疗历史生理数据在不同数值范围内的风险评分结果;S206, performing a risk scoring operation on the data range of each clustering result in the marked clustering result according to the patient number data, to obtain risk scoring results of each physiological data of each level and each medical history physiological data in different numerical ranges;
S208,根据所述风险评估结果确定在不同怀孕周期中子痫发生的生理特征,所述子痫发生的生理特征为在孕妇在不同怀孕周期中与子痫发生相关的生理数据项、生理数据项的数值范围、生理数据项的每个数值范围的发生风险。S208, determining the physiological characteristics of eclampsia in different pregnancy cycles based on the risk assessment result, wherein the physiological characteristics of eclampsia are physiological data items related to the occurrence of eclampsia in different pregnancy cycles of pregnant women, numerical ranges of physiological data items, and the risk of occurrence of each numerical range of physiological data items.
需要说明的是,所述标记聚类结果即为不在标准生理数据变化范围中的聚类结果,对不在标准生理数据变化范围中的聚类结果进行标记,能够初步识别孕妇的非正常生理数据,非正常生理数据才有可能造成孕妇的子痫,首先排除正常数据,能够减少数据的分析量,降低分析难度;所述风险评分操作指的是根据每个标记聚类结果中每个聚类结果的人数的多少作为孕妇子痫发生风险的评估方法,例如在血压项聚类结果中,血压数值范围在130-140之间的聚类结果中孕妇子痫患者是最多的,则可认为血压数值范围在130-140之间孕妇子痫发生的风险概率最高,风险评分也越高。It should be noted that the marked clustering results are clustering results that are not within the standard physiological data variation range. Marking the clustering results that are not within the standard physiological data variation range can preliminarily identify the abnormal physiological data of pregnant women. Abnormal physiological data is likely to cause eclampsia in pregnant women. First, excluding normal data can reduce the amount of data analysis and reduce the difficulty of analysis; the risk scoring operation refers to an assessment method for the risk of eclampsia in pregnant women based on the number of people in each clustering result in each marked clustering result. For example, in the clustering results of blood pressure items, the clustering results with blood pressure values between 130-140 have the most pregnant women with eclampsia. It can be considered that the risk probability of eclampsia in pregnant women with blood pressure values between 130-140 is the highest, and the risk score is also higher.
图3示出了本发明得到风险预测数据的流程图。FIG3 shows a flow chart of obtaining risk prediction data according to the present invention.
根据本发明实施例,所述基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据,具体为:According to an embodiment of the present invention, the eclampsia prediction model is constructed based on the physiological characteristics of eclampsia, the physiological indicators of pregnant women are monitored in real time, and the risk of eclampsia in pregnant women is predicted according to the eclampsia prediction model and the physiological indicators to obtain risk prediction data, specifically:
S302,基于信息熵权重法对所述子痫发生的生理特征进行权重计算,得到子痫发生的每个生理特征对子痫发生的影响权重数据;S302, weighting the physiological characteristics of eclampsia based on an information entropy weighting method to obtain weight data of the influence of each physiological characteristic of eclampsia on the occurrence of eclampsia;
S304,基于逻辑回归算法构建子痫预测模型,将所述子痫发生的生理特征和影响权重数据导入所述子痫预测模型中进行学习和训练,通过梯度下降算法对子痫预测模型的损失函数进行优化;S304, constructing an eclampsia prediction model based on a logistic regression algorithm, importing the physiological characteristics and influencing weight data of the occurrence of eclampsia into the eclampsia prediction model for learning and training, and optimizing the loss function of the eclampsia prediction model by a gradient descent algorithm;
S306,基于电子健康穿戴设备实时监测孕妇的生理指标,获取当前孕妇的怀孕周期数据,根据子痫预测模型和怀孕周期数据对孕妇的生理指标对孕妇的子痫发生风险进行实时预测,得到风险预测数据。S306, based on real-time monitoring of the physiological indicators of pregnant women using electronic health wearable devices, obtaining the current pregnancy cycle data of the pregnant woman, and making a real-time prediction of the risk of eclampsia of the pregnant woman based on the physiological indicators of the pregnant woman according to the eclampsia prediction model and the pregnancy cycle data to obtain risk prediction data.
需要说明的是,通过引入信息熵权重法能够客观评估每个生理特征对子痫发生风险的影响程度,减少了主观判断的干扰,提高了特征权重分配的准确性和科学性,应用信息熵权重法确保了子痫预测模型中各生理特征权重的客观性和合理性,使模型更准确地反映孕妇子痫发生的概率;逻辑回归算法可以精确地预测孕妇子痫的风险等级,为医生提供了一个强有力的工具,以实现个性化的医疗决策和及时的干预措施,有助于减少子痫的发生率,提高孕产妇及胎儿的健康安全;电子健康穿戴设备可以连续、实时地监测孕妇的生理指标,如心率、血压等,这为构建实时动态的孕妇健康监测系统提供了技术支持,通过实时监测,可以及时发现孕妇生理指标的异常变化,从而在子痫发生前及时预警,这种早期预警机制能够大大提高孕妇和胎儿的安全性。It should be noted that the introduction of the information entropy weight method can objectively evaluate the impact of each physiological characteristic on the risk of eclampsia, reduce the interference of subjective judgment, and improve the accuracy and scientificity of feature weight allocation. The application of the information entropy weight method ensures the objectivity and rationality of the weights of each physiological characteristic in the eclampsia prediction model, so that the model can more accurately reflect the probability of eclampsia in pregnant women; the logistic regression algorithm can accurately predict the risk level of eclampsia in pregnant women, providing doctors with a powerful tool to achieve personalized medical decisions and timely intervention measures, which helps to reduce the incidence of eclampsia and improve the health and safety of pregnant women and fetuses; electronic health wearable devices can continuously and in real time monitor the physiological indicators of pregnant women, such as heart rate, blood pressure, etc., which provides technical support for the construction of a real-time dynamic maternal health monitoring system. Through real-time monitoring, abnormal changes in the physiological indicators of pregnant women can be discovered in time, so as to give timely warnings before eclampsia occurs. This early warning mechanism can greatly improve the safety of pregnant women and fetuses.
根据本发明实施例,所述构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案,具体为:According to an embodiment of the present invention, the risk monitoring system is constructed, and the monitoring level of the risk monitoring system is determined according to the risk prediction data to obtain a monitoring plan for eclampsia in pregnant women, specifically:
构建风险监测系统,设定风险监测阈值,根据所述风险监测阈值和风险预测数据,确定孕妇的监测等级;Constructing a risk monitoring system, setting a risk monitoring threshold, and determining a monitoring level for pregnant women based on the risk monitoring threshold and risk prediction data;
若所述监测等级为高监测等级,实时发出危险预警提醒孕妇进行紧急医疗干预,并实时获取孕妇的语音数据,对所述语音数据进行语义分析,根据所述语义对孕妇的状态进行确定,根据所述状态确定是否进行自动报警操作;If the monitoring level is a high monitoring level, a danger warning is issued in real time to remind the pregnant woman to perform emergency medical intervention, and voice data of the pregnant woman is acquired in real time, semantic analysis is performed on the voice data, the state of the pregnant woman is determined according to the semantics, and whether to perform an automatic alarm operation according to the state;
若所述监测等级为中监测等级,制定孕妇的医疗检查建议时间和检查频率;If the monitoring level is medium monitoring level, establish the recommended time and frequency of medical examinations for pregnant women;
若所述监测等级为低监测等级,减少对孕妇的生理指标的监测频率,得到孕妇子痫监测方案。If the monitoring level is a low monitoring level, the monitoring frequency of the physiological indicators of the pregnant woman is reduced to obtain a monitoring plan for eclampsia in the pregnant woman.
需要说明的是,通过设定合理的风险监测阈值,可以确保系统在检测到风险信号时能够及时响应。这种方法基于大量数据分析,能够准确地判断何时孕妇的健康状况需要更密切的观察或干预,确保孕妇在子痫风险增加时得到即时的关注和干预,降低了子痫发生的风险,提高了孕产妇及胎儿的安全性;当监测等级达到高风险水平时,系统能够实时发出危险预警并进行语音数据的实时获取和语义分析,这一过程利用了先进的数据处理和自然语言处理技术,这一机制可以在孕妇出现紧急情况时快速作出反应,及时提供医疗援助,减少了对孕妇健康的潜在威胁,提高了紧急医疗响应的效率;在中监测等级下,系统会根据风险预测数据和历史健康记录为孕妇制定个性化的医疗检查建议时间和检查频率;在低监测等级下,系统会减少对孕妇的生理指标监测频率,这一调整基于对大量数据的分析,确保在保持监测有效性的同时减少对孕妇的干扰。It should be noted that by setting a reasonable risk monitoring threshold, the system can ensure that it can respond in time when a risk signal is detected. This method is based on a large amount of data analysis and can accurately determine when the health status of pregnant women requires closer observation or intervention, ensuring that pregnant women receive immediate attention and intervention when the risk of eclampsia increases, reducing the risk of eclampsia and improving the safety of pregnant women and fetuses; when the monitoring level reaches a high-risk level, the system can issue a real-time danger warning and obtain and analyze voice data in real time. This process uses advanced data processing and natural language processing technology. This mechanism can respond quickly to emergencies in pregnant women and provide medical assistance in a timely manner, reducing potential threats to the health of pregnant women and improving the efficiency of emergency medical response; at the medium monitoring level, the system will formulate personalized medical examination recommendations for pregnant women based on risk prediction data and historical health records. Time and frequency of examinations; at the low monitoring level, the system will reduce the frequency of monitoring of physiological indicators of pregnant women. This adjustment is based on the analysis of a large amount of data to ensure that the monitoring effectiveness is maintained while reducing interference with pregnant women.
根据本发明实施例,还包括:According to an embodiment of the present invention, it also includes:
若监测等级为高等级,实时获取所述电子健康穿戴设备运动轨迹数据;If the monitoring level is high, the movement trajectory data of the electronic health wearable device is obtained in real time;
根据所述运动轨迹数据对孕妇的运动轨迹突变点的前后预设距离轨迹进行框选,得到敏感轨迹图;According to the motion trajectory data, a preset distance trajectory before and after the mutation point of the motion trajectory of the pregnant woman is framed to obtain a sensitive trajectory map;
获取历史孕妇各种异常运动状态下的异常轨迹图数据集,将所述敏感轨迹图与异常轨迹图进行对比,计算敏感轨迹图与各个异常轨迹图的相似度;Obtain a historical abnormal trajectory map data set of pregnant women in various abnormal motion states, compare the sensitive trajectory map with the abnormal trajectory map, and calculate the similarity between the sensitive trajectory map and each abnormal trajectory map;
选择相似度前三的异常轨迹图作为对比结果,根据所述对比结果和异常轨迹图预测孕妇当前运动轨迹的所属异常运动状态;Selecting the top three abnormal trajectory graphs with the highest similarity as comparison results, and predicting the abnormal motion state of the pregnant woman's current motion trajectory according to the comparison results and the abnormal trajectory graphs;
根据所述异常运动状态判断孕妇的当前状态危险程度;Determining the danger level of the pregnant woman's current state according to the abnormal movement state;
根据所述危险程度实时获取孕妇的当前位置,将当前位置发送至相关人员通讯设备中进行紧急处理,得到紧急预警信息;According to the degree of danger, the current location of the pregnant woman is obtained in real time, and the current location is sent to the communication equipment of relevant personnel for emergency processing to obtain emergency warning information;
将所述紧急预警信息对孕妇子痫监测方案进行补充操作。The emergency warning information is used to supplement the eclampsia monitoring program for pregnant women.
需要说明的是,在电子健康穿戴设备的监测下,会记录孕妇的实时运动轨迹,根据运动轨迹判断孕妇的异常状态,例如在突然的倒下状态下,运动轨迹会出现突变,对突变点进行前后分析,进一步确定突变点附近轨迹是否异常,从而分析孕妇可能的异常运动状态,根据异常运动状态分析危险程度,最终形成预警信息;通过预警信息对孕妇子痫监测方案进行补充,进一步优化了方案的应用场景,使孕妇子痫监测方案能够适应和识别更多的孕妇危险场景。It should be noted that under the monitoring of electronic health wearable devices, the real-time movement trajectory of pregnant women will be recorded, and the abnormal state of pregnant women will be judged based on the movement trajectory. For example, in the case of a sudden fall, the movement trajectory will show a sudden change, and the mutation point will be analyzed before and after to further determine whether the trajectory near the mutation point is abnormal, thereby analyzing the possible abnormal movement state of the pregnant woman, analyzing the degree of danger based on the abnormal movement state, and finally forming early warning information; the early warning information is used to supplement the eclampsia monitoring program for pregnant women, further optimize the application scenarios of the program, and enable the eclampsia monitoring program for pregnant women to adapt to and identify more dangerous scenarios for pregnant women.
图4示出了本发明一种基于数据分析的孕妇子痫预测系统的框图。FIG4 shows a block diagram of a system for predicting eclampsia in pregnant women based on data analysis according to the present invention.
本发明第二方面还提供了一种基于数据分析的孕妇子痫预测系统4,该系统包括:存储器41、处理器42,所述存储器中包括基于数据分析的孕妇子痫预测方法程序,所述基于数据分析的孕妇子痫预测方法程序被所述处理器执行时,实现如下步骤:The second aspect of the present invention further provides a system 4 for predicting eclampsia in pregnant women based on data analysis, the system comprising: a memory 41, a processor 42, the memory comprising a method program for predicting eclampsia in pregnant women based on data analysis, and when the method program for predicting eclampsia in pregnant women based on data analysis is executed by the processor, the following steps are implemented:
构建层级数据库,获取预设数量的孕妇子痫患者的生理数据、医疗历史生理数据,将所述生理数据和医疗历史生理数据导入所述层级数据库中;Constructing a hierarchical database, obtaining physiological data and medical history physiological data of a preset number of pregnant women with eclampsia, and importing the physiological data and medical history physiological data into the hierarchical database;
对所述层级数据库中每个层级的生理数据和医疗历史生理数据进行聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果;Performing clustering operation on physiological data and medical history physiological data of each level in the hierarchical database to obtain clustering results of physiological data and medical history physiological data of each level;
根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征;Determining physiological characteristics of eclampsia in pregnant women in different pregnancy cycles according to the clustering results;
基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据;Building an eclampsia prediction model based on the physiological characteristics of eclampsia, monitoring the physiological indicators of pregnant women in real time, and predicting the risk of eclampsia in pregnant women according to the eclampsia prediction model and the physiological indicators to obtain risk prediction data;
构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案。A risk monitoring system is constructed, and the monitoring level of the risk monitoring system is determined according to the risk prediction data to obtain a monitoring plan for eclampsia in pregnant women.
根据本发明实施例,所述构建层级数据库,获取预设数量的孕妇子痫患者的生理数据、医疗历史生理数据,将所述生理数据和医疗历史生理数据导入所述层级数据库中,具体为:According to an embodiment of the present invention, the hierarchical database is constructed to obtain physiological data and medical history physiological data of a preset number of pregnant women with eclampsia, and the physiological data and medical history physiological data are imported into the hierarchical database, specifically:
获取预设数量的孕妇子痫患者的生理数据和医疗历史生理数据;Obtain physiological data and medical history physiological data of a preset number of pregnant women with eclampsia;
获取孕妇子痫患者的怀孕周期数据,将所述生理数据和医疗数据按照怀孕周期进行层级划分,得到层级数据;Obtaining pregnancy cycle data of pregnant women with eclampsia, and dividing the physiological data and medical data into hierarchical groups according to the pregnancy cycle to obtain hierarchical data;
构建层级数据库,根据所述层级数据设定所述层级数据库的构建层级,确定层级数据库的表结构;constructing a hierarchical database, setting a construction level of the hierarchical database according to the hierarchical data, and determining a table structure of the hierarchical database;
根据所述构建层级和表结构将层级数据导入层级数据库中。The hierarchical data is imported into the hierarchical database according to the constructed hierarchical and table structures.
需要说明的是,所述层级数据为将相同怀孕周期的孕妇子痫患者的生理数据和医疗历史生理数据划分到同一区域内。It should be noted that the hierarchical data is to divide the physiological data and medical history physiological data of pregnant women with eclampsia in the same pregnancy cycle into the same area.
根据本发明实施例,所述对所述层级数据库中每个层级的生理数据和医疗历史生理数据进行聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果,具体为:According to an embodiment of the present invention, the clustering operation is performed on the physiological data and medical history physiological data of each level in the hierarchical database to obtain the clustering results of the physiological data and medical history physiological data of each level, specifically:
引入层次聚类算法,依次将层级数据库中每个层级的生理数据和医疗历史生理数据作为待聚类数据;A hierarchical clustering algorithm is introduced, and the physiological data and medical history physiological data of each level in the hierarchical database are taken as the data to be clustered in turn;
依次将所述待聚类数据中每个数据项作为待聚类数据项,将待聚类数据项中的每个数据点作为单独的簇类,计算每个聚类之间的曼哈顿距离,根据所述曼哈顿距离评估每个簇类的相似度,得到相似矩阵;Taking each data item in the data to be clustered as a data item to be clustered in turn, taking each data point in the data item to be clustered as a separate cluster, calculating the Manhattan distance between each cluster, and evaluating the similarity of each cluster according to the Manhattan distance to obtain a similarity matrix;
根据所述相似矩阵将相似度最高的两个簇类进行合并操作,得到合并簇类,根据所述合并簇类对所述相似矩阵进行更新操作,得到更新矩阵;Merging two clusters with the highest similarity according to the similarity matrix to obtain a merged cluster, and updating the similarity matrix according to the merged cluster to obtain an updated matrix;
循环对所述更新矩阵进行相似度最高的两个簇类进行合并操作,并再次更新相似矩阵,直至聚类层次达到预设数量,停止聚类操作,得到每个层级的生理数据和医疗历史生理数据聚类结果,所述每个层级的生理数据和医疗历史生理数据聚类结果即为对每个层级的每项生理数据和每项医疗历史生理数据在预设数据范围内的孕妇子痫患者归为一类的结果。The updated matrix is cyclically merged with the two clusters with the highest similarity, and the similarity matrix is updated again until the clustering level reaches a preset number, and the clustering operation is stopped to obtain the clustering results of the physiological data and medical history physiological data of each level. The clustering results of the physiological data and medical history physiological data of each level are the results of classifying pregnant women with eclampsia whose each physiological data and each medical history physiological data of each level are within the preset data range into one category.
根据本发明实施例,所述根据所述聚类结果确定孕妇在不同怀孕周期中子痫发生的生理特征,具体为:According to an embodiment of the present invention, the physiological characteristics of eclampsia occurring in pregnant women in different pregnancy cycles are determined according to the clustering results, specifically:
获取孕妇在不同怀孕周期中的标准生理数据变化范围,根据所述聚类结果对每个层级的聚类结果与标准生理数据变化范围进行对比,将不在标准生理数据变化范围中的聚类结果进行标记,得到标记聚类结果;Obtaining a variation range of standard physiological data of pregnant women in different pregnancy cycles, comparing the clustering results of each level with the variation range of standard physiological data according to the clustering results, marking the clustering results that are not within the variation range of standard physiological data, and obtaining a marked clustering result;
对所述标记聚类结果中的每项每项生理数据和每项医疗历史生理数据的聚类结果进行患者人数统计操作,得到每个标记聚类结果的患者人数数据;Performing a patient number counting operation on the clustering results of each item of physiological data and each item of medical history physiological data in the marked clustering results to obtain patient number data for each marked clustering result;
根据所述患者人数数据对标记聚类结果中每个聚类结果的数据范围进行风险评分操作,得到每个层级的每项生理数据和每项医疗历史生理数据在不同数值范围内的风险评分结果;Performing a risk scoring operation on the data range of each clustering result in the marked clustering result according to the patient population data, to obtain risk scoring results of each physiological data at each level and each medical history physiological data in different numerical ranges;
根据所述风险评估结果确定在不同怀孕周期中子痫发生的生理特征,所述子痫发生的生理特征为在孕妇在不同怀孕周期中与子痫发生相关的生理数据项、生理数据项的数值范围、生理数据项的每个数值范围的发生风险。The physiological characteristics of eclampsia occurring in different pregnancy cycles are determined according to the risk assessment results. The physiological characteristics of eclampsia occurring are physiological data items related to the occurrence of eclampsia in different pregnancy cycles of pregnant women, numerical ranges of physiological data items, and the risk of occurrence of each numerical range of physiological data items.
根据本发明实施例,所述基于所述子痫发生的生理特征构建子痫预测模型,实时监测孕妇的生理指标,根据所述子痫预测模型和生理指标预测孕妇发生子痫的风险,得到风险预测数据,具体为:According to an embodiment of the present invention, the eclampsia prediction model is constructed based on the physiological characteristics of eclampsia, the physiological indicators of pregnant women are monitored in real time, and the risk of eclampsia in pregnant women is predicted according to the eclampsia prediction model and the physiological indicators to obtain risk prediction data, specifically:
基于信息熵权重法对所述子痫发生的生理特征进行权重计算,得到子痫发生的每个生理特征对子痫发生的影响权重数据;Based on the information entropy weight method, weight calculation is performed on the physiological characteristics of eclampsia to obtain the weight data of the influence of each physiological characteristic of eclampsia on the occurrence of eclampsia;
基于逻辑回归算法构建子痫预测模型,将所述子痫发生的生理特征和影响权重数据导入所述子痫预测模型中进行学习和训练,通过梯度下降算法对子痫预测模型的损失函数进行优化;Constructing an eclampsia prediction model based on a logistic regression algorithm, importing the physiological characteristics and influencing weight data of the occurrence of eclampsia into the eclampsia prediction model for learning and training, and optimizing the loss function of the eclampsia prediction model by a gradient descent algorithm;
基于电子健康穿戴设备实时监测孕妇的生理指标,获取当前孕妇的怀孕周期数据,根据子痫预测模型和怀孕周期数据对孕妇的生理指标对孕妇的子痫发生风险进行实时预测,得到风险预测数据。Based on the real-time monitoring of the physiological indicators of pregnant women by electronic health wearable devices, the current pregnancy cycle data of pregnant women is obtained, and the risk of eclampsia of pregnant women is predicted in real time based on the physiological indicators of pregnant women according to the eclampsia prediction model and pregnancy cycle data to obtain risk prediction data.
根据本发明实施例,所述构建风险监测系统,根据所述风险预测数据确定风险监测系统的监测等级,得到孕妇子痫监测方案,具体为:According to an embodiment of the present invention, the risk monitoring system is constructed, and the monitoring level of the risk monitoring system is determined according to the risk prediction data to obtain a monitoring plan for eclampsia in pregnant women, specifically:
构建风险监测系统,设定风险监测阈值,根据所述风险监测阈值和风险预测数据,确定孕妇的监测等级;Constructing a risk monitoring system, setting a risk monitoring threshold, and determining a monitoring level for pregnant women based on the risk monitoring threshold and risk prediction data;
若所述监测等级为高监测等级,实时发出危险预警提醒孕妇进行紧急医疗干预,并实时获取孕妇的语音数据,对所述语音数据进行语义分析,根据所述语义对孕妇的状态进行确定,根据所述状态确定是否进行自动报警操作;If the monitoring level is a high monitoring level, a danger warning is issued in real time to remind the pregnant woman to perform emergency medical intervention, and voice data of the pregnant woman is acquired in real time, semantic analysis is performed on the voice data, the state of the pregnant woman is determined according to the semantics, and whether to perform an automatic alarm operation according to the state;
若所述监测等级为中监测等级,制定孕妇的医疗检查建议时间和检查频率;If the monitoring level is medium monitoring level, establish the recommended time and frequency of medical examinations for pregnant women;
若所述监测等级为低监测等级,减少对孕妇的生理指标的监测频率,得到孕妇子痫监测方案。If the monitoring level is a low monitoring level, the monitoring frequency of the physiological indicators of the pregnant woman is reduced to obtain a monitoring plan for eclampsia in the pregnant woman.
本发明公开了一种基于数据分析的孕妇子痫预测方法及系统,旨在通过先进的数据处理和机器学习技术,实现对孕妇子痫风险的早期预测和有效监控。首先构建一个层级数据库,收集并导入孕妇的生理数据和医疗历史生理数据。通过对这些数据进行聚类分析,识别出不同怀孕周期中子痫发生的关键生理特征。基于这些特征,进一步构建了一个子痫预测模型,能够实时监测孕妇的生理指标,并预测子痫的风险程度。最终,根据预测得到的风险数据,构建一个风险监测系统,该系统能够为每位孕妇划分监测等级并提出相应的监测方案,从而为医疗机构和孕妇本人提供科学、个性化的监护建议,有效降低子痫的发生率,保障孕妇及胎儿的健康。The present invention discloses a method and system for predicting eclampsia in pregnant women based on data analysis, aiming to achieve early prediction and effective monitoring of the risk of eclampsia in pregnant women through advanced data processing and machine learning technologies. First, a hierarchical database is constructed to collect and import the physiological data and medical history physiological data of pregnant women. By clustering these data, the key physiological characteristics of eclampsia in different pregnancy cycles are identified. Based on these characteristics, an eclampsia prediction model is further constructed, which can monitor the physiological indicators of pregnant women in real time and predict the risk level of eclampsia. Finally, according to the predicted risk data, a risk monitoring system is constructed, which can divide the monitoring level for each pregnant woman and propose corresponding monitoring plans, so as to provide scientific and personalized monitoring suggestions for medical institutions and pregnant women themselves, effectively reduce the incidence of eclampsia, and protect the health of pregnant women and fetuses.
在本申请所提供的几个实施例中,应该理解到,所揭露的设备和方法,可以通过其它的方式实现。以上所描述的设备实施例仅仅是示意性的,例如,所述单元的划分,仅仅为一种逻辑功能划分,实际实现时可以有另外的划分方式,如:多个单元或组件可以结合,或可以集成到另一个系统,或一些特征可以忽略,或不执行。另外,所显示或讨论的各组成部分相互之间的耦合、或直接耦合、或通信连接可以是通过一些接口,设备或单元的间接耦合或通信连接,可以是电性的、机械的或其它形式的。In the several embodiments provided in the present application, it should be understood that the disclosed devices and methods can be implemented in other ways. The device embodiments described above are only schematic. For example, the division of the units is only a logical function division. There may be other division methods in actual implementation, such as: multiple units or components can be combined, or can be integrated into another system, or some features can be ignored, or not executed. In addition, the coupling, direct coupling, or communication connection between the components shown or discussed can be through some interfaces, and the indirect coupling or communication connection of the devices or units can be electrical, mechanical or other forms.
上述作为分离部件说明的单元可以是、或也可以不是物理上分开的,作为单元显示的部件可以是、或也可以不是物理单元;既可以位于一个地方,也可以分布到多个网络单元上;可以根据实际的需要选择其中的部分或全部单元来实现本实施例方案的目的。The units described above as separate components may or may not be physically separated, and the components displayed as units may or may not be physical units; they may be located in one place or distributed on multiple network units; some or all of the units may be selected according to actual needs to achieve the purpose of the present embodiment.
另外,在本发明各实施例中的各功能单元可以全部集成在一个处理单元中,也可以是各单元分别单独作为一个单元,也可以两个或两个以上单元集成在一个单元中;上述集成的单元既可以采用硬件的形式实现,也可以采用硬件加软件功能单元的形式实现。In addition, all functional units in the embodiments of the present invention may be integrated into one processing unit, or each unit may be separately used as a unit, or two or more units may be integrated into one unit; the above-mentioned integrated units may be implemented in the form of hardware or in the form of hardware plus software functional units.
本领域普通技术人员可以理解:实现上述方法实施例的全部或部分步骤可以通过程序指令相关的硬件来完成,前述的程序可以存储于计算机可读取存储介质中,该程序在执行时,执行包括上述方法实施例的步骤;而前述的存储介质包括:移动存储设备、只读存储器(ROM,Read-Only Memory)、随机存取存储器(RAM,Random Access Memory)、磁碟或者光盘等各种可以存储程序代码的介质。A person skilled in the art can understand that: all or part of the steps of implementing the above method embodiment can be completed by hardware related to program instructions, and the aforementioned program can be stored in a computer-readable storage medium. When the program is executed, it executes the steps of the above method embodiment; and the aforementioned storage medium includes: mobile storage devices, read-only memories (ROM, Read-Only Memory), random access memories (RAM, Random Access Memory), disks or optical disks, etc. Various media that can store program codes.
或者,本发明上述集成的单元如果以软件功能模块的形式实现并作为独立的产品销售或使用时,也可以存储在一个计算机可读取存储介质中。基于这样的理解,本发明实施例的技术方案本质上或者说对现有技术做出贡献的部分可以以软件产品的形式体现出来,该计算机软件产品存储在一个存储介质中,包括若干指令用以使得一台计算机设备(可以是个人计算机、服务器、或者网络设备等)执行本发明各个实施例所述方法的全部或部分。而前述的存储介质包括:移动存储设备、ROM、RAM、磁碟或者光盘等各种可以存储程序代码的介质。Alternatively, if the above-mentioned integrated unit of the present invention is implemented in the form of a software function module and sold or used as an independent product, it can also be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the embodiment of the present invention can be essentially or partly reflected in the form of a software product that contributes to the prior art. The computer software product is stored in a storage medium and includes several instructions for a computer device (which can be a personal computer, server, or network device, etc.) to execute all or part of the methods described in each embodiment of the present invention. The aforementioned storage medium includes: various media that can store program codes, such as mobile storage devices, ROM, RAM, magnetic disks or optical disks.
以上所述,仅为本发明的具体实施方式,但本发明的保护范围并不局限于此,任何熟悉本技术领域的技术人员在本发明揭露的技术范围内,可轻易想到变化或替换,都应涵盖在本发明的保护范围之内。因此,本发明的保护范围应以所述权利要求的保护范围为准。The above is only a specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art who is familiar with the technical field can easily think of changes or substitutions within the technical scope disclosed by the present invention, which should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.
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| CN120126719A (en) * | 2025-05-14 | 2025-06-10 | 复旦大学附属妇产科医院 | An intelligent processing system for blood sampling serial number and test information in the laboratory |
Citations (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN107844408A (en) * | 2016-09-18 | 2018-03-27 | 中国矿业大学 | A kind of similar execution route generation method based on hierarchical clustering |
| CN113724873A (en) * | 2021-08-31 | 2021-11-30 | 陕西佰美基因股份有限公司 | Preeclampsia risk prediction method based on MLP multi-platform calibration |
| CN117672514A (en) * | 2023-11-28 | 2024-03-08 | 广州市达瑞生物技术股份有限公司 | Method and system for predicting preeclampsia risk in early pregnancy |
-
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- 2024-05-22 CN CN202410638469.1A patent/CN118352084A/en active Pending
Patent Citations (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN107844408A (en) * | 2016-09-18 | 2018-03-27 | 中国矿业大学 | A kind of similar execution route generation method based on hierarchical clustering |
| CN113724873A (en) * | 2021-08-31 | 2021-11-30 | 陕西佰美基因股份有限公司 | Preeclampsia risk prediction method based on MLP multi-platform calibration |
| CN117672514A (en) * | 2023-11-28 | 2024-03-08 | 广州市达瑞生物技术股份有限公司 | Method and system for predicting preeclampsia risk in early pregnancy |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN120126719A (en) * | 2025-05-14 | 2025-06-10 | 复旦大学附属妇产科医院 | An intelligent processing system for blood sampling serial number and test information in the laboratory |
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