Librería: ISD LLC, Bristol, CT, Estados Unidos de America
Original o primera edición
EUR 58,34
Cantidad disponible: 5 disponibles
Añadir al carritopaperback. Condición: New. 1st.
Idioma: Inglés
Publicado por Logos Verlag Berlin GmbH, Berlin, 2025
ISBN 10: 3832559809 ISBN 13: 9783832559809
Librería: Grand Eagle Retail, Bensenville, IL, Estados Unidos de America
EUR 80,43
Cantidad disponible: 1 disponibles
Añadir al carritoPaperback. Condición: new. Paperback. In the design of modern control systems such as networked control systems and real-time systems with shared computational resources, effects caused by sampling cannot be neglected. Admitting aperiodic sampling patterns bears the potential to greatly improve the resource efficiency for such systems. To account for this, we develop in this thesis techniques for the analysis and design of aperiodic sampling strategies.First, we present an approach for the stability analysis of aperiodic sampling patterns with average constraints on the sampling intervals based on hybrid systems techniques.Second, we present an event-triggered control framework, i.e., a framework for the online design of sampling patterns based on a continuously evaluated triggering rule event-triggered control. The framework is based on signal norms and allows to embed a large class of triggering rules. It serves as a basis for the development of novel triggering rules and yields guarantees for Lp stability are obtained.Third, we present a framework for dynamic self-triggered control. Instead of evaluating a triggering rule continuously, for STC, the next sampling instant is determined at each sampling instant using information available at this time. The proposed framework is based on hybrid system techniques and a dynamic variable that encodes the past system behavior. Guarantees for input-to-state stability or respectively stability of an invariant set are derived for the resulting STC mechanisms. Shipping may be from multiple locations in the US or from the UK, depending on stock availability.
Librería: Kennys Bookshop and Art Galleries Ltd., Galway, GY, Irlanda
EUR 101,71
Cantidad disponible: 2 disponibles
Añadir al carritoCondición: New. 2025. paperback. . . . . .
Librería: Kennys Bookstore, Olney, MD, Estados Unidos de America
EUR 108,88
Cantidad disponible: 2 disponibles
Añadir al carritoCondición: New. 2025. paperback. . . . . . Books ship from the US and Ireland.
Idioma: Inglés
Publicado por Logos Verlag Berlin GmbH, Berlin, 2025
ISBN 10: 3832559809 ISBN 13: 9783832559809
Librería: CitiRetail, Stevenage, Reino Unido
EUR 87,93
Cantidad disponible: 1 disponibles
Añadir al carritoPaperback. Condición: new. Paperback. In the design of modern control systems such as networked control systems and real-time systems with shared computational resources, effects caused by sampling cannot be neglected. Admitting aperiodic sampling patterns bears the potential to greatly improve the resource efficiency for such systems. To account for this, we develop in this thesis techniques for the analysis and design of aperiodic sampling strategies.First, we present an approach for the stability analysis of aperiodic sampling patterns with average constraints on the sampling intervals based on hybrid systems techniques.Second, we present an event-triggered control framework, i.e., a framework for the online design of sampling patterns based on a continuously evaluated triggering rule event-triggered control. The framework is based on signal norms and allows to embed a large class of triggering rules. It serves as a basis for the development of novel triggering rules and yields guarantees for Lp stability are obtained.Third, we present a framework for dynamic self-triggered control. Instead of evaluating a triggering rule continuously, for STC, the next sampling instant is determined at each sampling instant using information available at this time. The proposed framework is based on hybrid system techniques and a dynamic variable that encodes the past system behavior. Guarantees for input-to-state stability or respectively stability of an invariant set are derived for the resulting STC mechanisms. Shipping may be from our UK warehouse or from our Australian or US warehouses, depending on stock availability.
Idioma: Inglés
Publicado por Logos Verlag Berlin GmbH, Berlin, 2025
ISBN 10: 3832559809 ISBN 13: 9783832559809
Librería: AussieBookSeller, Truganina, VIC, Australia
EUR 127,59
Cantidad disponible: 1 disponibles
Añadir al carritoPaperback. Condición: new. Paperback. In the design of modern control systems such as networked control systems and real-time systems with shared computational resources, effects caused by sampling cannot be neglected. Admitting aperiodic sampling patterns bears the potential to greatly improve the resource efficiency for such systems. To account for this, we develop in this thesis techniques for the analysis and design of aperiodic sampling strategies.First, we present an approach for the stability analysis of aperiodic sampling patterns with average constraints on the sampling intervals based on hybrid systems techniques.Second, we present an event-triggered control framework, i.e., a framework for the online design of sampling patterns based on a continuously evaluated triggering rule event-triggered control. The framework is based on signal norms and allows to embed a large class of triggering rules. It serves as a basis for the development of novel triggering rules and yields guarantees for Lp stability are obtained.Third, we present a framework for dynamic self-triggered control. Instead of evaluating a triggering rule continuously, for STC, the next sampling instant is determined at each sampling instant using information available at this time. The proposed framework is based on hybrid system techniques and a dynamic variable that encodes the past system behavior. Guarantees for input-to-state stability or respectively stability of an invariant set are derived for the resulting STC mechanisms. Shipping may be from our Sydney, NSW warehouse or from our UK or US warehouse, depending on stock availability.