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Formal Methods for Multi-Agent Feedback Control Systems
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Product Details
Author:
Lars Lindemann, Dimos V. Dimarogonas
Format:
Paperback
Pages:
312
Publisher:
MIT Press (April 29, 2025)
Language:
English
Audience:
General/trade
ISBN-13:
9780262049719
ISBN-10:
0262049716
Weight:
13.2oz
Dimensions:
6" x 9" x 0.81"
File:
RandomHouse-PRH_Book_Company_PRH_PRT_Onix_full_active_D20260405T170152_155746817-20260405.xml
Folder:
RandomHouse
List Price:
$90.00
Country of Origin:
United States
Pub Discount:
65
Series:
Cyber Physical Systems Series
Case Pack:
30
As low as:
$69.30
Publisher Identifier:
P-RH
Discount Code:
A
QuickShip:
Yes
Imprint:
The MIT Press
Overview
An introduction to formal methods for feedback control of multi-agent systems with safety and performance guarantees.
Multi-agent control systems can accomplish tasks that single-agent systems cannot address, such as aerial surveillance of large areas by a group of drones. In Formal Methods for Multi-Agent Feedback Control Systems, Lars Lindemann and Dimos Dimarogonas provide an accessible introduction to formal methods for feedback control of multi-agent systems. Their book is the first to bridge the gap between formal methods and feedback control for the scalable design of cyber-physical systems. The material covered is intended for scientists, engineers, and students, and no background in formal methods or control theory is required. The authors also highlight future research directions for those working at the intersection of formal methods and control.
In control theory, the goal is to design feedback control laws for dynamical systems that achieve control objectives such as stability or forward invariance of sets. Formal methods, on the other hand, provide verification and design techniques for more complex system specifications using temporal logics. However, their high computational cost limits scaling beyond a small number of agents. Besides scalability, another central challenge is to achieve robustness in the system design. Thus, the authors focus on the design of scalable and robust feedback control algorithms for multi-agent control systems under temporal logic specifications.
Multi-agent control systems can accomplish tasks that single-agent systems cannot address, such as aerial surveillance of large areas by a group of drones. In Formal Methods for Multi-Agent Feedback Control Systems, Lars Lindemann and Dimos Dimarogonas provide an accessible introduction to formal methods for feedback control of multi-agent systems. Their book is the first to bridge the gap between formal methods and feedback control for the scalable design of cyber-physical systems. The material covered is intended for scientists, engineers, and students, and no background in formal methods or control theory is required. The authors also highlight future research directions for those working at the intersection of formal methods and control.
In control theory, the goal is to design feedback control laws for dynamical systems that achieve control objectives such as stability or forward invariance of sets. Formal methods, on the other hand, provide verification and design techniques for more complex system specifications using temporal logics. However, their high computational cost limits scaling beyond a small number of agents. Besides scalability, another central challenge is to achieve robustness in the system design. Thus, the authors focus on the design of scalable and robust feedback control algorithms for multi-agent control systems under temporal logic specifications.








