
Więcej o książce
In light of anticipated energy price increases, energy-efficient operation of industrial automation systems is crucial for manufacturing companies. Reducing energy demand during non-productive phases contributes significantly to overall efficiency. Currently, there is no comprehensive scientific framework addressing the energy-efficient operation of factory automation systems at a multi-subsystem level. Detailed instructions and strategies for interacting subsystems are essential for achieving energy savings. The proposed automaton-based system model allows for an analytical description of both structural and behavioral aspects of these systems. This mathematical modeling forms the foundation for identifying optimal strategies through a structure-exploiting procedure that facilitates efficient computation. These strategies quantify potential energy savings and assist in technical implementation. Given the complexity of computing optimal strategies, a novel approach is developed to enhance efficiency by leveraging the model's structure. Evaluations using real-world automation system models ensure the feasibility of executing strategies and allow for the assessment of design decisions. The accuracy of predictions is tested against model-to-system deviations, and economic considerations further evaluate the approach. Ultimately, the concepts and methods presented can significantly reduce energy demand in non-productive phases of
Zakup książki
Model-based engineering for energy-efficient operation of factory automation systems within non-productive phases, Sebastian G. Mechs
- Język
- Rok wydania
- 2014
- Oprawa
- (miękka)
Metody płatności
Nikt jeszcze nie ocenił.
- Tytuł
- Model-based engineering for energy-efficient operation of factory automation systems within non-productive phases
- Język
- angielski
- Autorzy
- Sebastian G. Mechs
- Wydawca
- Shaker
- Rok wydania
- 2014
- Oprawa
- miękka
- Liczba stron
- 232
- ISBN10
- 3844027211
- ISBN13
- 9783844027211
- Seria
- Kategorie
- Opis
- In light of anticipated energy price increases, energy-efficient operation of industrial automation systems is crucial for manufacturing companies. Reducing energy demand during non-productive phases contributes significantly to overall efficiency. Currently, there is no comprehensive scientific framework addressing the energy-efficient operation of factory automation systems at a multi-subsystem level. Detailed instructions and strategies for interacting subsystems are essential for achieving energy savings. The proposed automaton-based system model allows for an analytical description of both structural and behavioral aspects of these systems. This mathematical modeling forms the foundation for identifying optimal strategies through a structure-exploiting procedure that facilitates efficient computation. These strategies quantify potential energy savings and assist in technical implementation. Given the complexity of computing optimal strategies, a novel approach is developed to enhance efficiency by leveraging the model's structure. Evaluations using real-world automation system models ensure the feasibility of executing strategies and allow for the assessment of design decisions. The accuracy of predictions is tested against model-to-system deviations, and economic considerations further evaluate the approach. Ultimately, the concepts and methods presented can significantly reduce energy demand in non-productive phases of