W. Mergenthaler, Daniel Jaroszewski, Salah-Eddine Morsili, Benedikt Sturm
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Machine Learning Can Maximize Efficiency in an Industrial Process
- Continuous industrial manufacturing processes are generally controlled by a set of continuous control variables. The process usually produces a steady flow of output material, such as cement, food, milk, chemicals, and sugar or electrical power in a power plant. Control variables may be electrical or fossil power, cooling or heating, lubrication, pressure, etc. The process responds with a given flow of output measured in tons per day or power expressed in Megawatt. Dividing the input power response yields a variable proportional to the degree of efficiency of the process, which is a very important parameter in most cases. To understand, analyze or predict the process, in a first step, we will approximate the empirical response values by a smooth function, mapping the space of controls onto the interval [0,100%], using Machine Learning Techniques and Multivariate Statistics such as Tensor Flow or Generalized Linear Models (GLMs), respectively. Both approaches provide suitable approximation measures. In a second step, the process will be optimized within a given set of constraints concerning the control variables. This step will be illustrated by GLMs only due to their lack of overfitting and their continuous differentiability properties. This way, optimal set points, and sensitivity coefficients will be given.
期刊介绍:
The journal emphasizes use of engineering design and analysis and strives to maintain a balance between research and application. The journal covers all aspects of industrial engineering, particularly: Data mining and Computational Intelligence; Production Planning and Control; Operation Research; Service Engineering (Healthcare, etc.); Sustainability (Energy, Environment, etc.); Information Systems and Technology; Management of Technology; Manufacturing; Work Measurement, Human Factors and Ergonomics; Quality, Reliability, Maintenance Engineering; Supply Chain Management; Logistics and Material Handling; Product Design and Development; Statistical Analysis; Modelling and Simulation; Homeland Security (Defense, Disaster Preparedeness, etc.)