How can process algebra be extended to support modeling of cyberphysical systems?
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Process algebra can be extended to support modeling of cyberphysical systems by incorporating real-time behaviors, concurrency, and space relations between agents. This extension allows for the precise description and analysis of system requirements, verification of security protocols, and modeling of spatio-temporal behavior. The use of structured natural language in expressing requirements ensures ease of understanding and communication among stakeholders . The APTC process algebra provides a theoretical foundation, expressive power, and computational properties for verifying security protocols . The Communicating Sequential Process with Qualitative calculus (QCSP) is a process algebra that reasons about space relations between agents using a qualitative calculus, enabling the modeling of spatio-temporal behavior . Additionally, an imperative process algebra based on ACP can describe models of computation and complexity measures for cyberphysical systems . BPMN4CPS is an extension of BPMN that accurately models CPS processes, considering their specific characteristics and properties .
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05 Jul 2021 | The paper investigates the use of process algebra to capture real-time behaviors and concurrency in cyber-physical systems requirements, enabling their analysis and automation. |
1 Citations | The paper proposes a process algebra called Communicating Sequential Process with Qualitative calculus (QCSP) as a formal language for modeling the spatio-temporal behavior of cyber-physical systems. |
| The provided paper does not mention the modeling of cyberphysical systems. |
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