: Alfons Schuster
: Alfons Schuster
: Robust Intelligent Systems
: Springer-Verlag
: 9781848002616
: 1
: CHF 139.10
:
: Anwendungs-Software
: English
: 299
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Our time recognizes robustness as an important, all-pervading feature in the world around us. Despite its omnipresence, robustness is not entirely understood, rather dif?cult to de?ne, and, despite its obvious value in many situations, rather dif?cult to achieve. One of the goals of this edited book is to report on the topic of robustness from a variety and diverse range of ?elds and perspectives. We are interested, for instance, in fundamental strategies nature applies to make systems robust-and arguably 'intelligent'-and how these strategies may hold as general design principles in modern technology. A particular focus is on computer-based systems and appli- tions. This in mind, the book has four main sections: Part I has a look at robustness in terms of underlying technologies and infrastr- tures upon which many computer-based 'intelligent' systems reside and inves- gates robustness on the hardware and software level, but also in larger environments such as the Internet and self-managing systems. The contributions in Part II target robustness in research areas that are inspired by biology, including brain-computer interfaces, biological networks, and biological immune systems, for example. Part III involves the exciting ?eld of arti?cial intelligence. The chapters here discuss the value of robustness as a general design principle for arti?cial intelligence, stressing its potential in areas such as humanoid robotics and image processing.
Preface5
Contents7
Contributors9
Part I Robustness in Computer Hardware, Software, Networks, and Protocols13
Robustness in Digital Hardware14
1.1 Introduction14
1.2 Digital Hardware Technologies16
1.3 Issues with Testing and Verifying Digital Hardware20
1.4 Robustness Approaches23
1.5 Summary30
References30
Multiagent-Based Fault Tolerance Management for Robustness34
2.1 Introduction34
2.2 Software Dependability37
2.3 Robust Software38
2.4 Multiagent-Based Fault Tolerance Management43
2.5 Discussion49
References49
A Two-Level Robustness Model for Self- Managing Software Systems54
3.1 Introduction54
3.2 PERFECT Software56
3.3 Two-Level Robustness Model60
3.4 Examples62
3.5 Additional Thoughts on Self-Managing Systems and Software68
3.6 Conclusion69
References69
Robustness in Network Protocols and Distributed Applications of the Internet72
4.1 Introduction72
4.2 How the InternetWorks73
4.3 Measuring the Internet’s Robustness80
4.4 A Closer Look at the Internet Protocols81
4.5 Wireless Networks84
4.6 Distributed Applications87
4.7 Summary92
References94
Part II Robustness in Biology Inspired Systems98
Detecting Danger: The Dendritic Cell Algorithm100
5.1 Introduction100
5.2 Biological Inspiration101
5.3 Abstract Model103
5.4 The Dendritic Cell Algorithm112
5.5 Applications: Past and Present120
5.6 Conclusions121
References122
Non-invasive Brain-Computer Interfaces for Semi- autonomous Assistive Devices124
6.1 Introduction124
6.2 Modern Brain-Computer Interfaces125
6.3 A Robust BCI Based on SSVEP133
6.4 New Semi-autonomous Applications for BCIs136
6.5 Conclusion and Future Prospects144
References146
Robust Learning of High-dimensional Biological Networks with Bayesian Networks150
7.1 Overview150
7.2 Methods152
7.3 Results161
7.4 Conclusion168
References170
Part III Robustness in Artificial Intelligence Systems174
Robustness in Nature as a Design Principle for Artificial Intelligence176
8.1 Introduction176
8.2 Robustness177
8.3 Robustness In Nature178
8.4 Robustness in Artificial Intelligence183
8.5 Robustness Elsewhere195
8.6 Summary197
References197
Feedback Structures as a Key Requirement for Robustness: Case Studies in Image Processing200
9.1 Robustness Through Feedback200
9.2 Robust Image Processing202
9.3 Feedback Structures in Image Processing204
9.4 Closed-Loop Image Segmentation205
9.5 Closed-Loop Region-Based Image Segmentation for a Service Robotic Task209
9.6 Closed-Loop Boundary-Based Image Segmentation for an Industrial Application214
9.7 Conclusions218
References218
Exploiting Motor Modules in Modular Contexts in Humanoid Robotics220
10.1 Introduction220
10.2 Reaching with a Modular Control Structure224
10.3 Reaching in Different Contexts226
10.4 Experimental Results232
10.5 Open Issues and FutureWork234
10.6 Conclusions236
A Minimum Number of Motion Primitives236
References239
Part IV Robustness in Space Applications242
Robustness as Key to Success for Space Missions244
11.1 Introduction244
11.2 Challenge Space245
11.3 Robustness in the Hardware247
11.4 Robustness in the Software250
11.5 Testing Robustness258
11.6 Conclusion259
References260
Robust and Automated Space System Design262
12.1 Introduction262
12.2 Uncertainty Modeling265
12.3 Design Optimization268
12.4 Case Study270
12.5 Discussion272
12.6 Conclusions and FutureWork274
References274
Appendix A Model Variable Structure276
B Model Equations278
C MER Mission Sequence280
D Thruster Specification280
E Uncertainty Specification281
Robust Bio-regenerative Life Support Systems Control284
13.1 Introduction284
13.2 Life Support Systems285
13.3 Control Architecture for a BLSS289
13.4 The Reactive Level292
13.5 The Deliberative Level297
13.6 Toward a Fault-Tolerant and Reliable Life Support System301
13.7 Conclusions303
Appendix A: Abbreviations in This Chapter304
References304
Index308