Towards a Methodology to Design Provably Secure Cyber-Physical Systems

被引:0
|
作者
Malaquias, Felipe Lisboa [1 ]
Giantamidis, Georgios [1 ]
Basagiannis, Stylianos [1 ]
Rollini, Simone Fulvio [2 ]
Amundson, Isaac [3 ]
机构
[1] Collins Aerospace, Applied Research and Technology Centre, Ireland
[2] Collins Aerospace, Applied Research and Technology Centre, Italy
[3] Collins Aerospace, Applied Research and Technology Centre, United States
来源
Ada User Journal | 2023年 / 44卷 / 02期
关键词
C (programming language) - Cryptography - Cybersecurity - Design - Embedded systems - Formal methods - Model checking - Ontology - Semantics - Theorem proving;
D O I
暂无
中图分类号
学科分类号
摘要
The inordinate financial cost of mitigating post-production cybersecurity vulnerabilities in cyber-physical systems (CPS) is forcing the industry to rethink systems design cycles: greater attention is being given to the design phase – with the goal of reducing the at-tack surface of systems at an early stage (i.e., before silicon tape out). Fortunately, formal methods have advanced to the point that they can address such needs and contribute towards achieving security certification. However, new methods and tools focusing on industrial scalability and usability for systems engineers are re-quired. In this ongoing research paper, we describe a framework that will help systems engineers to: a) design cyber-assured CPS using a Model Based Engineering (MBE) approach; b) formally map security requirements to different hardware and software blocks in the model; and c) formally verify security requirements. Based on the nature of each requirement, our framework collects formal correctness evidence from different tools: while high-level architectural properties are suitable for a contract-or ontology-based reasoning, more complex properties with rich semantics require the use of model checking or theorem proving techniques. © 2023, Ada-Europe. All rights reserved.
引用
收藏
页码:146 / 151
相关论文
共 50 条
  • [1] Design and Verification Methodology for Secure and Distributed Cyber-Physical Systems
    Levshun, Dmitry
    Chechulin, Andrey
    Kotenko, Igor
    Chevalier, Yannick
    2019 10TH IFIP INTERNATIONAL CONFERENCE ON NEW TECHNOLOGIES, MOBILITY AND SECURITY (NTMS), 2019,
  • [2] Analysis and design of secure cyber-physical systems
    Ling SHI
    Control Theory and Technology, 2014, 12 (04) : 413 - 414
  • [3] Design and Operation of Secure Cyber-Physical Systems
    Pasqualetti, Fabio
    Zhu, Qi
    IEEE EMBEDDED SYSTEMS LETTERS, 2015, 7 (01) : 3 - 6
  • [4] Analysis and design of secure cyber-physical systems
    Shi L.
    Control Theory and Technology, 2015, 12 (04): : 413 - 414
  • [5] Towards Side Channel Secure Cyber-Physical Systems
    AshrafiAmiri, Marzieh
    Zargari, Amir Hosein Afandizadeh
    Farzam, Seyed Mohammed-Hossein
    Bayat-Sarmadi, Siavash
    2018 CSI INTERNATIONAL SYMPOSIUM ON REAL-TIME AND EMBEDDED SYSTEMS AND TECHNOLOGIES (RTEST), 2018, : 31 - 38
  • [6] Optimal sensor design for secure cyber-physical systems
    Belabbas, Mohamed Ali
    Chen, Xudong
    IFAC PAPERSONLINE, 2019, 52 (20): : 387 - 390
  • [7] Towards a Science of Cyber-Physical Systems Design
    Bogdan, Paul
    Marculescu, Radu
    2011 ACM/IEEE SECOND INTERNATIONAL CONFERENCE ON CYBER-PHYSICAL SYSTEMS (ICCPS 2011), 2011, : 99 - 108
  • [8] Safe and secure cyber-physical systems
    Biro, Miklos
    Mashkoor, Atif
    Sametinger, Johannes
    JOURNAL OF SOFTWARE-EVOLUTION AND PROCESS, 2021, 33 (09)
  • [9] The Integrated Model of Secure Cyber-Physical Systems for Their Design and Verification
    Levshun, Dmitry
    Kotenko, Igor
    Chechulin, Andrey
    INTELLIGENT DISTRIBUTED COMPUTING XIII, 2020, 868 : 333 - 343
  • [10] Cyber LOPA: An Integrated Approach for the Design of Dependable and Secure Cyber-Physical Systems
    Tantawy, Ashraf
    Abdelwahed, Sherif
    Erradi, Abdelkarim
    IEEE TRANSACTIONS ON RELIABILITY, 2022, 71 (02) : 1075 - 1091