首页> 外文学位 >Salomon: Un nuevo enfoque para la mejora de procesos de negocio mediante la produccion inteligente basada en modelos predictivos de control hibridos y autoadaptativos.
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Salomon: Un nuevo enfoque para la mejora de procesos de negocio mediante la produccion inteligente basada en modelos predictivos de control hibridos y autoadaptativos.

机译:Salomon:一种基于混合,自适应控制的预测模型的通过智能生产改进业务流程的新方法。

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摘要

The manufacturing process is defined as any activity that getting as its input a set of raw materials is able to modify them in order to achieve a new product. This kind of activities, as simple as they may look, is the main reasons of the growth and evolution of our society, as we know it.;In its beginnings, the ancient manufacturing process was a magic surrounded activity. Nowadays, it still happens the same. Besides, other requirements, such as quality measures or environmental guidelines, complicate the whole process. In addition, we cannot forget that we are living in a globalised market and every little improvement to any of the multiple processes deployed at any plant, could become a competitive boost.;In light of this background, the scientific community has spent many years developing new methods for supervising and controlling a manufacturing plant—one example is the Supervisory, Control And Data Acquisition (SCADA). Other systems are capable of being two steps ahead, trying to foresee what will happen in the plant. Those are commonly referred as Model Predictive Control systems. Although there are commercial and academic solutions, the experts have identified a number of limitations such as the inability to work with a multivariable system, the difficulty to adapt the solution to changes in the manufacturing process and the predictive models that do not adapt to the nature of the business process.;In order to meet the needs that companies have already identified in terms of quality, cost reduction and eco-manufacturing, as well as the ability to obtain a competitive boost, we have designed, developed, evaluated and implemented a system that is able to readjust the manufacturing process, working with the constraints previously defined.;Accordingly, we formulated the following hypothesis 'It is possible to model the business flow of a manufacturing process as a knowledge cloud through the creation of an hybrid (linear and nonlinear) model predictive control, based on current machine learning techniques, keeping it updated and carrying the manufacturing control to optimise some of its critical parameters.' .;For its validation, we have developed the following tasks with the aim of creating the complete system defined above. Hence, we have focused our efforts towards completing the following tasks: (i) developing statistical classifiers based on machine learning techniques and thinking the way of joining them to improve the prediction system, (ii) defining and designing the method that will keep up to date the models, (iii) determining which actions have to be carried out and, once decided, informing operators or other control systems already incorporated in the plant and, finally, (iv) evaluating and comparing the developed solution.;Nowadays, manufacturing processes are fully integrated into society. Therefore, improvements in the state of the art, as detailed here, do not only affect those people directly involved in production plants. In other words, the result of a manufacturing process, a manufactured product, can be part of a much larger system than any of us may end up using it.
机译:制造过程被定义为以一组原材料作为输入能够修改它们以便获得新产品的任何活动。正如我们所知道的那样,这种活动看起来很简单,是我们社会成长和发展的主要原因。从一开始,古代的制造过程就是一个神奇的包围活动。如今,它仍然发生相同的情况。此外,其他要求(例如质量措施或环境准则)使整个过程变得复杂。此外,我们不能忘记我们生活在一个全球化的市场中,并且对任何工厂中部署的多个过程中的每个过程的每一个小小的改进都可能成为竞争的推动力。;鉴于这种背景,科学界已经花了很多年的时间进行开发监督和控制制造工厂的新方法,例如监督,控制和数据采集(SCADA)。其他系统可以领先两步,试图预见工厂中将会发生什么。这些通常称为模型预测控制系统。尽管存在商业和学术解决方案,但专家们已经确定了许多限制,例如无法使用多变量系统,难以将解决方案适应制造过程中的变化以及不适应自然的预测模型。为了满足公司在质量,降低成本和生态制造以及获得竞争优势的能力方面已经确定的需求,我们设计,开发,评估和实施了能够根据先前定义的约束条件重新调整制造过程的系统。因此,我们提出了以下假设:“可以通过创建混合(线性)模型将制造过程的业务流程建模为知识云。和非线性)模型预测控制,基于当前的机器学习技术,使其保持最新状态并进行制造控制o优化其一些关键参数。”为了进行验证,我们开发了以下任务,以创建上面定义的完整系统。因此,我们集中精力完成以下任务:(i)基于机器学习技术开发统计分类器,并思考将其分类以改进预测系统的方式,(ii)定义和设计将要与时俱进的方法为模型添加日期,(iii)确定必须执行的操作,并在决定后通知操作员或工厂中已包含的其他控制系统,最后(iv)评估和比较开发的解决方案。已完全融入社会。因此,如此处详述的,现有技术的改进不仅会影响直接与生产工厂有关的人员。换句话说,制造过程的结果,即制成品,可能是比任何人最终使用它都要大得多的系统的一部分。

著录项

  • 作者

    Nieves, Javier.;

  • 作者单位

    Universidad de Deusto (Spain).;

  • 授予单位 Universidad de Deusto (Spain).;
  • 学科 Applied Mathematics.;Artificial Intelligence.;Computer Science.
  • 学位 Ph.D.
  • 年度 2012
  • 页码 372 p.
  • 总页数 372
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

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