Functional Reliability of Cognitive Control Systems for Manufacturing Processes

Abstract

Industrial automation has led to a significant gain in reliability and stability in manufacturing processes through the introduction of numeric control and sensors, thus enabling control loops. This development has been identified as the third industrial revolution, which has been researched extensively over the last decades and led to an almost complete makeover of the industrial sector. Control loops typically feature a fixed goal value as well as control parameters, thus limiting the abilities of the machine in case deviations from the originally specified environment and application occur. As products are being more and more customized and their lifecycles have been shortened dramatically, classical control loops for manufacturing processes need to be enhanced with more flexibility and finally autonomy to meet these challenges. Self-optimization or the enhancement of control loops with cognitive capabilities have been identified as one way to achieve this flexibility: These systems are able to identify their own current status as well as the environment conditions and can deduct control strategies accordingly. Typically, they are enhanced with the ability to learn to enable working in yet unknown future conditions. On the other hand, such systems will only be successful if safety and security as basic requirements of smart factories can be ensured. Safety features many different aspects, with functional reliability being one of its most prominent. This contribution thus researches the functional reliability of cognitive control systems for manufacturing processes. For that an exemplary reliability model is developed using fault tree analysis. The model is evaluated by applying it to a validation case for force control in a turning application. It is shown that this modeling approach can be used to evaluate functional reliability in cognitive control systems.

Authors and Affiliations

Eike Permin, et al.

Keywords

Related Articles

Cloud Service Framework for Multimedia Applications.

In the state of art technology multimedia application have been largely utilized. The cloud services introduced in 2008 have brought a new dimension of information delivery from source to target. Multimedia consists of v...

Fire Early Warning System of Multi Room Based Internet of Things (IoTs)

Fire disasters are one of the disasters that are often experienced by many residents and apartment rooms. This type of fire disaster often occurs due to the fault of the occupants. Especially for apartment building owner...

A Study on Adjacent Channel Interference Analysis of TRS in the 380MHz Frequency Band

The 380MHz frequency band is used for TRS (Trunked Radio System) and public communication purposes. However, there are various interference phenomena because the frequency band near the 380MHz is used by various public i...

Overcoming Big Data Mining Challenges for Revolutionary Breakthroughs in Commerce and Industry

Big-data computing is perhaps the biggest innovation in computing in the last decade. We have only begun to see its potential to collect, organize, and process data for profitable business ventures. Data mining is a majo...

Implementation of Higher Radix Full Adder in 130 Nm Submicron Technology.

Arithmetic circuits play a crucial role in VLSI technology. Arithmetic blocks are usually the most power consuming parts in a system since the switching activity is quite high. Alternative arithmetic implementations can...

Download PDF file
  • EP ID EP498323
  • DOI -
  • Views 120
  • Downloads 0

How To Cite

Eike Permin, et al. (2018). Functional Reliability of Cognitive Control Systems for Manufacturing Processes. International Journal of Electronics Communication and Computer Engineering, 9(2), 73-78. https://europub.co.uk/articles/-A-498323