Jean-Yves Bron - System Requirements Engineering: A Sysml Supported Requirements Engineering Method

1. [AFI 12a] AFIS, Dcouvrir et comprendre lingnierie systme, Cpadus ditions, Toulouse, 2012.
2. [AFI 12b] AFIS, Guide Bonnes pratiques en ingnierie des exigences, Cpadus ditions, Toulouse, 2012.
3. [AFI 98] AFIS, Association Franaise dIngnierie Systme, available at: www.afis.fr, since 1998.
4. [ARC 19] Clarity, ARCADIA, a model-based engineering method, available at: www.clarity-se.org.
5. [CAM 20] Cameo Systems Modeler, Dassault Systmes No Magic, available at: www.nomagic.com, 2020.
6. [CAP 19] Capella, Capella, an open source solution for Arcadia method, available at: www.polarsys.org/capella.
7. [CAS 17] CASSE O., SysML in Action with Cameo Systems Modeler, ISTE Ltd, London and Elsevier, Oxford, 2017.
8. [FAI 12] FAISANDIER A., Engineering and Architecting Multidisciplinary Systems Volume 2 Systems Opportunities and Requirements, SinergyCom, Belberaud, 2012.
9. [FRI 08] FRIEDENTHAL S., MOORE A., STEINER R., A Practical Guide to SysML The Systems Modeling Language, Morgan Kaufmann, Waltham (MA), 2008.
10. [HAR 14] HARMONY, IBM Rational Harmony Deskbook Rel 4.1., available at: www.ibm.com, 2014.
11. [HOL 12] HOLT J., PERRY S., BROWNSWORD M., Model-Based Requirements Engineering, Institution of Engineering and Technology, London, 2012.
12. [IEE 11] IEEE, IEEE 1490 IEEE Guide--Adoption of the Project Management Institute (PMI(R)) Standard A Guide to the Project Management Body of Knowledge (PMBOK(R) Guide) Fourth Edition, 2011.
13. [IEE 14] IEEE, IEEE 730 IEEE Standard for Software Quality Assurance Processes, 2014.
14. [INC 90] INCOSE, International Council on Systems Engineering available at: www.incose.org, since 1990.
15. [IRE 06] IREB, International Requirements Engineering Board available at: www.ireb.org, since 2006.
16. [IRE 15] IREB, Requirements Engineering Fundamentals, Rocky Nook Inc., San Rafael (CA) 2015.
17. [ISO 07] ISO/IEC, ISO 14143 Information technology Software measurement Functional size measurement Part 1: Definition of concepts, 2007.
18. [ISO 15a] ISO/IEC/IEEE, ISO 15288 Systems and software engineering System life cycle processes, 2015.
19. [ISO 15b] NF/EN/ISO, ISO 9000 Quality management systems Fundamentals and vocabulary, 2015.
20. [ISO 17a] ISO/IEC, ISO 19514 Information technology Object management group systems modeling language (OMG SysML), 2017.
21. [ISO 17b] ISO/IEC/IEEE, ISO 24765 Systems and software engineering Vocabulary, 2017.
22. [ISO 18a] ISO/IEC, ISO 29110 Systems and software engineering Lifecycle profiles for Very Small Entities (VSEs), 2011-2018.
23. [ISO 18b] ISO/IEC/IEEE, ISO 29148 Systems and software engineering Life cycle processes Requirements engineering, 2018.
24. [ISO 19] ISO/IEC, ISO 24748 Systems and software engineering Life cycle management, 2011-2019.
25. [KRO 17] KROB D., CESAM: CESames Systems Architecting Method A Pocket Guide, CESAMES, Paris, 2017.
26. [MAR 94] MARTIN J.N., The PMTE Paradigm: Exploring the Relationship Between Systems Engineering Process and Tools, INCOSE International Symposium, San Jos (CA), August 1994.
27. [POL 19] Polarion RM, Polarion REQUIREMENTS, https://polarion.plm.automation.siemens.com/products/polarion-requirements, 2019.
28. [RHA 19] RHAPSODY, IBM Rational Rhapsody Architect for Systems Engineers, available at: www.ibm.com, 2019.
29. [ROB 13] ROBERTSON S., ROBERTSON J., Mastering the requirements process Third edition, Addison-Wesley, Boston, 2013.
30. [ROB 18] AFIS, Concours RobAFIS 2018, available at: www.robafis.fr, 2018.
31. [ROQ 17] ROQUES P., Systems Architecture Modeling with the Arcadia Method A Practical Guide to Capella, ISTE Ltd, London and Elsevier, Oxford, 2017.
32. [SEB 18] SEBoK, Guide to the Systems Engineering Body of Knowledge www.sebokwiki.org, Version 1.9, 12 October 2018.
33. [SYS 04] SysML, OMG Systems Modeling Language www.omgsysml.org, since 2004.
34. [VOI 17] VOIRIN J.-L., Model-based System and Architecture Engineering with the Arcadia Method, ISTE Ltd, London and Elsevier, Oxford, 2017.
35. [VOL 95] VOLERE, Volere Requirements Resources volere.co.uk, since 1995.
36. [WIK 01] WIKIPEDIA, Lencyclopdie libre fr.wikipedia.org, since 2001.

• Arcadia,
• architectural concept,
• boundary,
• CESAM,
• context,

• diagram,
  • activity,
  • block definition,
  • use case,
• document,
  • template,
• elicit,
• elucidate,
• external system,
• formalization,
• functional requirement,
• functionality,

• Harmony SE,
• identifier,
• interested party,
• ISO
  • 15288,
  • 29110,
• life cycle,

• metamodel,
• method,
• mission,
• model,
• modeling,
  • tool,
• needs,
• negotiate,
• non-functional requirement,
• operational concept,

• package,
• planning,
• Polarion,
• problem,
  • space,
• processes,
• project,
• purpose,
• quality,
• requirement(s),
  • diagram,
  • engineering,
  • management,
• rhapsody,

• scenario,
• semantics,
• sequence diagram,
• SMART,
• solution space,
• stakeholder,
• state machine diagram,
• stereotype,
• syntax,
• SysML,
• system(s),
  • concept,
  • engineering,
  • for doing,
  • framework,
  • requirements,
  • thinking,
  • to be done,
• task,
• template,
• textual description,
• tool,
• traceability,
• validation,
• verification,
• workflow(s),
  • function,
  • management, 171

2019

ANDR Jean-Claude

Industry 4.0: Paradoxes and Conflicts

BENSALAH Mounir, ELOUADI Abdelmajid, MHARZI Hassan

Railway Information Modeling RIM: The Track to Rail Modernization

BLUA Philippe, YALAOU Farouk, AMODEO Lionel, DE BLOCK Michal, LAPLANCHE David

Hospital Logistics and e-Management: Digital Transition and Revolution

BRIFFAUT Jean-Pierre

From Complexity in the Natural Sciences to Complexity in Operations Management Systems

(Systems of Systems Complexity Set Volume 1)

BUDINGER Marc, HAZYUK Ion, COC Clment

Multi-Physics Modeling of Technological Systems

FLAUS Jean-Marie

Cybersecurity of Industrial Systems

JAULIN Luc

Mobile Robotics Second Edition Revised and Updated

KUMAR Kaushik, DAVIM Paulo J.

Optimization for Engineering Problems

TRIGEASSOU Jean-Claude, MAAMRI Nezha

Analysis, Modeling and Stability of Fractional Order Differential Systems 1:

The Infinite State Approach

Analysis, Modeling and Stability of Fractional Order Differential Systems 2:

The Infinite State Approach

VANDERHAEGEN Frdric, MAAOUI Choubeila, SALLAK Mohamed,

BERDJAG Denis

Automation Challenges of Socio-technical Systems

2018

BERRAH Lamia, CLIVILL Vincent, FOULLOY Laurent

Industrial Objectives and Industrial Performance: Concepts and Fuzzy Handling

GONZALEZ-FELIU Jesus

Sustainable Urban Logistics: Planning and Evaluation