Specification of Reactive Hardware/Software Systems - Electronic ...

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446 REFERENCES [Roy70] W.W. Royce. Managing the Development of Large Software Systems : Concepts and Techniques. In Proceedings of IEEE Wescon, Session A, pages 1–9, Los Angleles, 1970. Wescon. [RV94] A. van Rangelrooij and J.P.M. Voeten. CCSTOOL2: An Expansion, Minimization and Verification Tool for Finite State CCS Descriptions. Technical Report 94-E-284, Department of Electrical Engineering, Eindhoven University of Technology, Eindhoven, The Netherlands, December 1994. [SB82] W. Swartout and R. Balzer. On the Inevitable Intertwining of Specification and Implementation. Communications of the ACM, 25(7):438–440, July 1982. [SGW94] B Selic, G. Gullekson, and P.T. Ward. Real-Time Object-Oriented Modeling. Wiley & Sons, New York, 1994. [SM88] S. Shlear and S.J. Mellor. Object-Oriented Systems Analysis : Modeling the World in Data. Yourdon Press, Englewood Cliffs, 1988. [Sny86] A. Snyder. Encapsulation and Inheritance in Object-Oriented Programming Languages. In N. Weyrowitz, editor, Proceedings of OOPSLA’86, pages 38–45, New York, 1986. ACM Press. [Str92] B. Stroustrup. The C++ Programming Language. Addison-Wesley, Reading, Massachusetts, 1992. [Ten91] R.D. Tennent. Semantics of Programming Languages. Prentice-Hall, London, 1991. [Tur93] K.J. Turner. Using Formal Description Techniques. Wiley & Sons, Chichester, 1993. [vBGR] D.A. van Beek, S.H.F. Gordijn, and J.E. Rooda. Integrating Continuous-Time and Discrete-Event Concepts in Modelling and Simulation of Manufacturing Machines. To be published in the Journal of Simulation Practice and Theory. [vdN94] Werkgroep van de NGGO. 13 Methoden Voor Object-Georienteerde Systeemontwikkeling. Tutein Nolthenius, ’s-Hertogenbosch, 1994. [vdP93a] P.H.A. van der Putten. A Specification Method for Digital Systems. Graduation report, Institute for Continuing Education, Eindhoven University of Technology, Eindhoven, The Netherlands, 1993. [vdP93b] P.H.A. van der Putten. Multidisciplinair Specificeren en Ontwerpen van Microelektronica in Produkten. EUT Report 93-E-269, Eindhoven University of Technology, Eindhoven, The Netherlands, 1993. In Dutch. [vdPVS95] P.H.A. van der Putten, J.P.M. Voeten, and M.P.J. Stevens. Object-Oriented Co-Design for Hardware/Software Systems. In M. Cavanaugh, editor, Proceedings of EUROMICRO’95, pages 718–726, Los Alamitos, California, 1995. IEEE Computer Society Press.
REFERENCES 447 [vE89] P. van Eijk. The Design of a Simulator Tool. In P. van Eijk, C. Vissers, and M. Diaz, editors, The Formal Description Technique LOTOS. North-Holland, Amsterdam, 1989. [Ver92] A.C. Verschueren. An Object-Oriented Modelling Technique for Analysis and Design of Complex (Real-Time) Systems. PhD thesis, Departments of Electrical Engineering, Eindhoven University of Technology, Eindhoven, The Netherlands, 1992. [vEVD89] P.H.J. van Eijk, C.A. Vissers, and M. Diaz. The Formal Description Technique LOTOS. North-Holland, Amsterdam, 1989. [vF96] J.D. van Felius. From POOSL to C++. Master’s thesis, Faculty of Electrical Engineering, Eindhoven University of Technology, Eindhoven, The Netherlands, 1996. [vGW96] R.J. van Glabbeek and W.P. Weijland. Branching Time and Abstraction in Bisimulation Semantics. Journal of the ACM, 43(3):555–600, May 1996. [Voe] J.P.M. Voeten. Behaviour-Preserving Transformations in the SHE method : A Formal Approach to Architecture Design. To be Published as EUT Report. [Voe94] J.P.M. Voeten. POOSL : A Parallel Object-Oriented Specification Language. In P.H. Hartel, editor, Proceedings of the Eight Workshop Computer Systems, pages 25–45, Amsterdam, The Netherlands, 1994. University of Amsterdam. [Voe95a] J.P.M. Voeten. POOSL: An Object-Oriented Language for the Analysis and Design of Hardware/Software Systems. EUT Report 95-E-290, Departments of Electrical Engineering, Eindhoven, The Netherlands, May 1995. [Voe95b] J.P.M. Voeten. Semantics of POOSL: An Object-Oriented Specification Language for the Analysis and Design of Hardware/Software Systems. EUT Report 95-E-293, Department of Electrical Engineering, Eindhoven University of Technology, Eindhoven, The Netherlands, October 1995. [vR92] O.S. van Roosmalen. A Hierarchical Diagrammatic Representation of Class Structure. Master’s thesis, Department of Mathematics and Computing Science, Eindhoven University of Technology, Eindhoven, The Netherlands, 1992. [VvdPS96] J.P.M. Voeten, P.H.A. van der Putten, and M.P.J. Stevens. Behaviour- Preserving Transformations in SHE : A Formal Approach to Architecture Design. In P. Milligan and K. Kuchcinski, editors, Proceedings of EUROMI- CRO’96, pages 19–27, Los Alamitos, California, 1996. IEEE Computer Society Press. [VvR95] J.P.M. Voeten and A. van Rangelrooij. CCS and Time: A Practical and Comprehensible Approach to a Performance Evaluation of Finite State CCS Descriptions. EUT Report 95-E-292, Department of Electrical Engineering, Eindhoven University of Technology, Eindhoven, The Netherlands, July 1995.
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Specification of Reactive Hardware/
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to Leny, Inge and our parents
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Contents Acknowledgements v 1 Intro
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CONTENTS ix 4.6.5 Aggregate Semanti
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CONTENTS xi 6 Modelling of Concurre
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CONTENTS xiii 6.6.7.2 System Specif
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CONTENTS xv 11.4.2.3 Requirements C
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List of Figures 1.1 Chapter Overvie
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LIST OF FIGURES xix 6.16 Strongly D
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Chapter 1 Introduction 1.1 Objectiv
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1.1 Objectives 3 understood and sti
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1.1 Objectives 5 Informal and Forma
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1.2 Thesis Organisation 7 Chapter 1
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1.2 Thesis Organisation 9 Recommend
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Chapter 2 On Specification of React
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2.3 Specifications, Models and View
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2.4 Specification Languages, Formal
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2.4 Specification Languages, Formal
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2.5 Modelling Concepts 23 entirety.
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2.5 Modelling Concepts 25 Tradition
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2.6 Activity Frameworks for Specifi
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2.6 Activity Frameworks for Specifi
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2.7 Summary 31 offer many guideline
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Chapter 3 Concepts for Analysis, Sp
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3.3 Concepts 35 3. creation of a sy
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3.5 Combining Compatible Concepts 3
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3.6 Practical Use of Concepts 39 3.
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3.6 Practical Use of Concepts 41 Th
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3.6 Practical Use of Concepts 43 ac
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3.6 Practical Use of Concepts 45 ac
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3.6 Practical Use of Concepts 47 wa
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3.6 Practical Use of Concepts 49 Ge
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3.6 Practical Use of Concepts 51 Re
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3.7 Summary and Concluding Remarks
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Chapter 4 Abstraction of a Problem
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4.1 Introduction 57 earlier phase t
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4.2 Objects 59 An object can mean t
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4.2 Objects 61 wonder what other ob
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4.3 Classes 63 A message interface
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4.3 Classes 65 Class B Attributes M
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4.4 Data Objects and Process Object
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4.5 Clusters 79 flows. Clusters ena
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4.6 Aggregates 81 Therefore a compl
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4.6 Aggregates 83 4.6.4 Clustered A
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4.6 Aggregates 85 An old philosophi
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4.7 Identity and Object Identifiers
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4.8 Properties of Composites 89 for
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4.8 Properties of Composites 91 com
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4.8 Properties of Composites 93 Whe
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4.8 Properties of Composites 95 In
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4.9 Channel Hiding 97 Servant A Sup
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4.11 Composites and Hierarchies 99
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4.12 Object Variety 101 Part class
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4.13 Object Class Models 103 Anothe
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4.13 Object Class Models 105 of obj
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4.14 Attributes and Variables 107 c
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4.14 Attributes and Variables 109 4
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4.15 Operations, Services, Methods
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4.15 Operations, Services, Methods
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4.17 Summary 115 Accidental Propert
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Chapter 5 Concepts for the Integrat
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5.2 Architecture 119 Requirements D
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5.3 Design Philosophy 121 this. The
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5.4 Essential Model and Extended Mo
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5.4 Essential Model and Extended Mo
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5.6 Architecture and Implementation
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5.7 Views 129 Management £ £ £ P
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5.7 Views 131 Behaviour Behaviour U
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5.8 Boundaries 133 5.8 Boundaries 5
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5.8 Boundaries 135 x x Object A y z
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5.8 Boundaries 137 x w w x Object A
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5.8 Boundaries 139 In Chapter 10 we
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5.9 Transformations 141 The modific
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5.10 Formalisation 143 Level 1 Leve
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5.11 Summary 145 Behaviour Requirem
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Chapter 6 Modelling of Concurrent R
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6.2 Concurrency and Synchronisation
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6.3 Communication 157 between proce
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6.3 Communication 159 or to transfo
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6.3 Communication 161 6.3.3.4 Messa
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6.3 Communication 163 Synchronous m
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6.3 Communication 165 channel-name
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6.3 Communication 167 can be descri
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6.3 Communication 169 statement aft
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6.3 Communication 171 (normalCourse
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6.3 Communication 173 ∞ client re
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6.3 Communication 175 There is a gr
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6.3 Communication 177 process A pro
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6.3 Communication 179 Clocks An int
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6.3 Communication 181 whether the s
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6.3 Communication 183 6.3.9.4 Model
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6.3 Communication 185 6.3.10.2 Desc
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6.4 Distribution 187 force to take
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6.4 Distribution 189 is that the in
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6.4 Distribution 191 links to each
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6.4 Distribution 193 6.4.6 Distribu
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6.5 Scenarios 195 entities. This su
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6.5 Scenarios 197 startJob readyToA
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6.5 Scenarios 199 collection of tex
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6.6 Dynamic Behaviour 201 selection
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6.6 Dynamic Behaviour 203 processes
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6.6 Dynamic Behaviour 205 even for
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6.6 Dynamic Behaviour 207 with the
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6.6 Dynamic Behaviour 209 6.6.4 Sep
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6.6 Dynamic Behaviour 211 6.6.5 Mod
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6.6 Dynamic Behaviour 213 to pay at
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6.6 Dynamic Behaviour 215 A method
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6.6 Dynamic Behaviour 217 to happen
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6.6 Dynamic Behaviour 219 c a Multi
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6.6 Dynamic Behaviour 221 but not t
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6.7 Real-Time Modelling 223 claimed
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6.7 Real-Time Modelling 225 in the
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6.8 Summary 227 They can graphicall
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Chapter 7 Introduction to the Seman
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7.2 A Brief Language Characterisati
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7.3 The Role of Semantics 233 7.3 T
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7.4 Mathematical Preliminaries 235
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7.4 Mathematical Preliminaries 237
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7.5 Concluding Remarks 239 0 ¡ Bin
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Chapter 8 Data Part of POOSL Chapte
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8.3 Formal Syntax 243 runk, and cun
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8.4 Context Conditions 245 Further,
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8.5 A Computational Semantics 247 T
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8.5 A Computational Semantics 249 w
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8.5 A Computational Semantics 251 s
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8.6 Primitive deepCopy Messages 253
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8.6 Primitive deepCopy Messages 255
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8.7 Example: Complex Numbers 257 is
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8.8 Summary and Concluding Remarks
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Chapter 9 Process Part of POOSL Cha
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9.3 Formal Syntax 263 In almost any
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9.3 Formal Syntax 265 The fourth st
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9.3 Formal Syntax 267 call of the f
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9.4 Context Conditions 269 We are n
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9.5 A Computational Interleaving Se
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9.6 Example: A Simple Handshake Pro
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9.7 The Development of POOSL 291 is
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9.7 The Development of POOSL 293 da
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9.7 The Development of POOSL 295 e
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9.7 The Development of POOSL 297 Em
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9.7 The Development of POOSL 299 (o
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9.8 Summary 301 To prepare the deve
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Chapter 10 Behaviour-Preserving Tra
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10.2 Instance Structure Diagrams 30
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10.2 Instance Structure Diagrams 30
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10.3 Some Properties of Transformat
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10.4 A System of Basic Transformati
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10.5 Example: The Elevator Problem
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10.7 On the Fundamental Limitations
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10.7 On the Fundamental Limitations
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10.8 Summary 331 are transformation
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Chapter 11 SHE Framework Chapter 1
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11.2 SHE Context and Phases 335 Inf
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11.2 SHE Context and Phases 337 a p
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11.2 SHE Context and Phases 339 11.
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11.3 SHE Framework 341 the system.
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11.4 Essential Specification Modell
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11.5 Extended Specification Modelli
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Chapter 12 Case Study Chapter 1 Cha
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12.2 Initial Requirements Descripti
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12.3 The Essential Specification 37
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Page 415 and 416: 12.3 The Essential Specification 39
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Page 421 and 422: 12.5 Concluding Remarks 401 Feeder
Page 423 and 424: Chapter 13 Conclusions and Future W
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Page 429 and 430: 13.4 Related Results 409 The notion
Page 431 and 432: Appendix A The POOSL Transition Sys
Page 433 and 434: A.1 The Data Part of POOSL 413 (12)
Page 435 and 436: A.2 The Process Part of POOSL 415 A
Page 437 and 438: A.2 The Process Part of POOSL 417 (
Page 439 and 440: A.2 The Process Part of POOSL 419 (
Page 441 and 442: A.2 The Process Part of POOSL 421 i
Page 443 and 444: Appendix B Proofs of Propositions a
Page 445 and 446: Proofs of Propositions and Transfor
Page 455 and 456: Appendix C Glossary of Symbols This
Page 457 and 458: Glossary of Symbols 437 267 Cp ¥¡
Page 459 and 460: References [AB90] P. America and F.
Page 461 and 462: REFERENCES 441 [C [C [C 86] B. Cohe
Page 463 and 464: REFERENCES 443 [Her90] A.J.H. Herbe
Page 465: REFERENCES 445 [MV93] S. Mauw and G
Page 469 and 470: Index abort, 297 abstract action so
Page 471 and 472: INDEX 451 strong, 190, 293 subsyste
Page 473 and 474: INDEX 453 delay, 178 do-statement,
Page 475 and 476: Summary This combined thesis descri
Page 477 and 478: Samenvatting Dit gecombineerde proe
Page 479: Curricula Vitae Piet van der Putten
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