Development of Predictive Machine Learning Model using Neural Network for Threshold Value Determination of Buildings

F. Cruz, Earl Quinn Christian Marcos
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Abstract

Machine learning (ML), a subset off artificial intelligence (AI), is now part of people’s everyday lives. It is now applied in many fields and industries like the automotive industry, medical field, e-commerce and many more. Some examples of this can be found in the self-driving cars, medical diagnosis, recommendation engines, patient sickness prediction and many more. In the past years, engineering had been showing growing interest over the application of AI in the field. In fact, several studies had been conducted to see what advantages it can bring to the engineering discipline. It is evident that ML is now being applied in lots of field of engineering. However, ML as applied to structural health monitoring (SHM), specifically to the determination of threshold for buildings has not yet been established. The threshold plays a very important role in SHM as it will be the basis for evaluating the integrity of a structure after it ages as time goes by or even after earthquake events. This study focuses on developing a predictive machine learning model that will be incorporated in an earthquake recording instrument that will give the threshold value specifically for a building given specific input parameters. To do the predictive model, structural data of thirty (30) buildings were collected. It consisted of acceleration data, maximum displacement on non-linear and linear state, lower and upper limit of moderate damage state, and its threshold. The proponent was able to gather 3750 rows of data to be used for the training of network. Creating of the neural network model was done using the MATLAB neural network tool, and trained using the Levenberg-Marquadt algorithm which yielded the best performance among the training algorithms in MATLAB neural network tool. After training, a MATLAB function was generated and run compatibly with python to allow integration with the earthquake recording instrument. Furthermore, an accuracy test was done wherein it produced a 91.77% accuracy. Through the predictive ML model, structural engineers are expected to experience a great amount of savings in terms of time and effort on determining the threshold value for a specific model
基于神经网络的建筑物阈值预测机器学习模型的开发
机器学习(ML)是人工智能(AI)的一个子集,现在已经成为人们日常生活的一部分。它现在被应用于许多领域和行业,如汽车工业,医疗领域,电子商务等。这方面的一些例子可以在自动驾驶汽车、医疗诊断、推荐引擎、病人疾病预测等领域找到。在过去的几年里,工程领域对人工智能在该领域的应用表现出越来越大的兴趣。事实上,已经进行了几项研究,以了解它能给工程学科带来什么好处。很明显,机器学习现在正在许多工程领域得到应用。然而,机器学习在结构健康监测中的应用,特别是在建筑物阈值的确定方面尚未建立。阈值在SHM中起着非常重要的作用,因为它将是评估随着时间推移甚至地震事件发生后结构完整性的基础。本研究的重点是开发一种预测机器学习模型,该模型将被整合到地震记录仪器中,该仪器将在给定特定输入参数的情况下为建筑物提供专门的阈值。为了建立预测模型,我们收集了30栋建筑的结构数据。该模型由加速度数据、非线性和线性状态下的最大位移、中等损伤状态下的上限值和下限值及其阈值组成。倡导者能够收集3750行数据用于网络的训练。利用MATLAB神经网络工具建立神经网络模型,并使用MATLAB神经网络工具中训练算法中性能最好的Levenberg-Marquadt算法进行训练。经过训练,生成MATLAB函数,并与python兼容运行,实现与地震记录仪的集成。此外,进行了准确度测试,其中产生了91.77%的准确度。通过预测ML模型,结构工程师有望在确定特定模型的阈值方面节省大量的时间和精力
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