: Hans P. M. Veeke, Jaap A. Ottjes, Gabriel Lodewijks
: The Delft Systems Approach Analysis and Design of Industrial Systems
: Springer-Verlag
: 9781848001770
: 1
: CHF 139.00
:
: Allgemeines, Lexika
: English
: 223
: Wasserzeichen/DRM
: PC/MAC/eReader/Tablet
: PDF

The pace of development in knowledge and know-how in the Organisation Sciences, Logistics and Information Technology is rapid. However, the gap between those who practice these sciences and the practicing manager is becoming larger rather than smaller. The Delft Systems Approach describes a fundamental approach for analysing industrial systems, which emphasizes a concept that can be used by all disciplines involved. It sets out to close the gap between theory and practice.



Hans P.M. Veeke, Jaap A. Ottjes andGabriël Lodewijks all work for the Delft University of Technology in The Netherlands.
Preface7
Contents9
Introduction13
1.1 The Purpose of this Book13
1.2 Theory and Practice14
1.3 Conceptual Approach17
1.4 The Structure of this Book19
References20
Systems Concepts21
2.1 System21
2.2 Subsystems and Aspectsystems25
2.3 State, Process and Behaviour29
2.4 Goal, Function and Task33
2.5 System and Environment37
2.6 Some Other Definitions39
References40
Case: The Flight Department41
3.1 Case History41
3.2 Problem Description42
3.3 Problem Analysis43
3.4 Complications Due to Bad Weather50
3.5 Radar Complications56
3.6 Dispersion of Variables and the Required Number of Radar Test Cars60
3.7 Results in Practice67
References69
Models for the Structuring of Processes71
4.1 Process Types71
4.2 Determination of Subsystems72
4.3 System Control74
4.4 Supporting Processes87
4.5 The Steady-state Model: Combining the Models into One Model89
4.6 Testing a Works Process Planning Department Against Reality93
4.7 Nurses Effect94
4.8 Case: The Health Insurance Company98
4.9 Some Applications in Practice102
References104
Conceptual Model for the Analysis of Industrial Systems107
5.1 Introduction107
5.2 Other Conceptual Models108
5.3 Common Characteristics of the Conceptual Models110
5.4 The “PROPER” Model of Industrial Systems113
5.5 The “PROPER” Model and Logistic Practice115
References118
Behaviour of a Function: The Process119
6.1 Introduction119
6.2 Behaviour120
6.3 The State and Input of an Industrial Function121
6.4 The Behaviour of an Industrial System123
6.5 Basic Concepts of Process Descriptions131
6.6 Case: Simulation of the Flight Department143
6.7 Conclusions145
References146
The Case of the Ship Engine Factory147
7.1 The Models as a Diagnostic Aid147
7.2 Description of the Existing Situation148
7.3 Solution: Analysis Based Upon the PROPER Model151
7.4 Solution: Analysis Based Upon the Steady-state Model153
Policy and Performance159
8.1 What is Policy?159
8.2 Does an Industrial System Need Policy?163
8.3 Considerations When Choosing the Ways and Means165
8.4 The Concepts of Productivity, Efficiency and Performance169
8.5 Application of the Concepts175
References180
Model for the Innovation Process181
9.1 Setting Up the Model for the Innovation Process181
9.2 The Nature of the Model for Innovation Processes188
9.3 Policy Evaluation189
References191
The Design Process with the Conceptual Models193
10.1 Introduction193
10.2 The Design Process194
10.3 Function Design197
10.4 Process Design201
10.5 Simulation as a Supporting Tool for the Design of Industrial Systems207
References207
Case: The Automated Container Terminal209
11.1 Introduction209
11.2 The Project Program210
11.3 Functional Requirements213
11.4 Application of the PROPER Model215
11.5 Behaviour Descriptions for Productivity Definitions223
11.6 Conclusions231
References232
Index233