7 - Indira Gandhi Centre for Atomic Research
7 - Indira Gandhi Centre for Atomic Research
7 - Indira Gandhi Centre for Atomic Research
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suit open applications, where a number of possibly a-priori unknown and autonomous<br />
entities have to cooperate. In this case, focusing on dependencies between the components,<br />
as a control-driven model would do, would somehow clash with the autonomy of the<br />
components and the dynamics of the open environment. Focusing on data preserve<br />
autonomy and dynamics of autonomous components, which are usually designed to<br />
acquire in<strong>for</strong>mation rather than control, as in the case of software agents.<br />
4. Conclusion<br />
Multi-agent concepts and methodologies are finding increasing applications in controlling<br />
complex, unpredictable systems in real time. Agent-like approaches routinely accept<br />
uncertainty and distribution, leading to control schemes where decision-making and<br />
responsibility are distributed much more widely than in conventional engineering practice.<br />
The area of intelligent manufacturing systems aims to use multi-agent systems both as a<br />
modeling tool and a control software system. The challenge <strong>for</strong> the researchers is to<br />
identify and focus on the general issues of coordination and control, which are important<br />
<strong>for</strong> such applications, and to use the applications to stimulate and test advances in research<br />
on:<br />
• How and where to represent in<strong>for</strong>mation about the systems and the agent groups that<br />
operate on them<br />
• Mechanisms <strong>for</strong> delivery of adequate responses to time-critical demands<br />
• Coordination methods that are computationally economical enough <strong>for</strong> real-time use<br />
• Decentralized management of limited common resources<br />
• Adaptation of results from machine learning to collective learning in multi-agent<br />
systems<br />
• New schemes of decentralized control to take account of the “real time” dimension<br />
than in conventional engineering practice<br />
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