TY - GEN
T1 - Norm refinement and design through inductive learning
AU - Corapi, Domenico
AU - De Vos, Marina
AU - Padget, Julian
AU - Russo, Alessandra
AU - Satoh, Ken
PY - 2011
Y1 - 2011
N2 - In the physical world, the rules governing behaviour are debugged by observing an outcome that was not intended and the addition of new constraints to prevent the attainment of that outcome. We propose a similar approach to support the incremental development of normative frameworks (also called institutions) and demonstrate how this works through the validation and synthesis of normative rules using model generation and inductive learning. This is achieved by the designer providing a set of use cases, comprising collections of event traces that describe how the system is used along with the desired outcome with respect to the normative framework. The model generator encodes the description of the current behaviour of the system. The current specification and the traces for which current behaviour and expected behaviour do not match are given to the learning framework to propose new rules that revise the existing norm set in order to inhibit the unwanted behaviour. The elaboration of a normative system can then be viewed as a semi-automatic, iterative process for the detection of incompleteness or incorrectness of the existing normative rules, with respect to desired properties, and the construction of potential additional rules for the normative system.
AB - In the physical world, the rules governing behaviour are debugged by observing an outcome that was not intended and the addition of new constraints to prevent the attainment of that outcome. We propose a similar approach to support the incremental development of normative frameworks (also called institutions) and demonstrate how this works through the validation and synthesis of normative rules using model generation and inductive learning. This is achieved by the designer providing a set of use cases, comprising collections of event traces that describe how the system is used along with the desired outcome with respect to the normative framework. The model generator encodes the description of the current behaviour of the system. The current specification and the traces for which current behaviour and expected behaviour do not match are given to the learning framework to propose new rules that revise the existing norm set in order to inhibit the unwanted behaviour. The elaboration of a normative system can then be viewed as a semi-automatic, iterative process for the detection of incompleteness or incorrectness of the existing normative rules, with respect to desired properties, and the construction of potential additional rules for the normative system.
UR - http://dx.doi.org/10.1007/978-3-642-21268-0_5
U2 - 10.1007/978-3-642-21268-0_5
DO - 10.1007/978-3-642-21268-0_5
M3 - Chapter in a published conference proceeding
SN - 9783642212673
T3 - Lecture Notes in Computer Science
SP - 77
EP - 94
BT - Coordination, Organizations, Institutions, and Norms in Agent Systems VI - COIN 2010 International Workshops, COIN@MALLOW 2010, Revised Selected Papers
PB - Springer
CY - Heidelberg
T2 - 6th International Workshops on Coordination, Organizations, Institutions, and Norms in Agent Systems VI, COIN@MALLOW 2010, August 30, 2010 - August 30, 2010
Y2 - 1 January 2011
ER -