95 | -- | 96 | László Monostori. Guest Editorial |
97 | -- | 106 | Hong Xu, Hendrik Van Brussel. A behaviour-based architecture with attention control |
107 | -- | 112 | Paulo Sousa, Carlos Ramos. A dynamic scheduling holon for manufacturing orders |
113 | -- | 118 | J. Cselenyi, T. Toth. Some questions of logistics in the case of holonic production systems |
119 | -- | 127 | Holger Friedrich, Oliver Rogalla, Rüdiger Dillmann. Integrating skills into multi-agent systems |
129 | -- | 140 | J. Vaario, Kanji Ueda. An emergent modelling method for dynamic scheduling |
141 | -- | 146 | Jürgen Gausemeier, Gerrit Gehnen. Intelligent material flow by decentralizedcontrol networks |
147 | -- | 154 | Kazuo Miyashita. CAMPS: a constraint-based architecturefor multiagent planning and scheduling |
155 | -- | 159 | Simon Cooper, A. Taleb-Bendiab. CONCENSUS: multi-party negotiation support for conflict resolution in concurrent engineering design |
161 | -- | 166 | Mohamed Salah Hamdi, Karl Kaiser. Adaptable arbitration of behaviours: some simulation results |
167 | -- | 172 | István Mezgár, George L. Kovács. Co-ordination of SME production through a co-operative network |
173 | -- | 179 | Botond Kádár, László Monostori, E. Szelke. An object-oriented framework for developing distributed manufacturing architectures |
181 | -- | 188 | József Váncza, M. Horváth, Z. Stankóczi. Robotic inspection plan optimizationby case-based reasoning |
189 | -- | 199 | Luis M. Camarinha-Matos, Hamideh Afsarmanesh, César Garita, C. Lima. Towards an architecture for virtual enterprises |
201 | -- | 207 | João Sequeira, José del R. Millán, M. Isabel Ribeiro, João G. M. Gonçalves. Embedding learning in behaviour-based architectures: a conceptual approach |