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Neural based RSPN multi-agent strategy for biped motion control
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In this paper fhe problem of motion control of a
biped is considered. We develop a new method based on
multi-agent associated Neural AIGLS (On-line Augmented Integration of Gradient and
Last Sguare method) – RSPN (Recursive Stochastic Petri Nets) strategy.
This method deals with organization and coordination aspects in an
intelligent modeling of human motion. We propose a cooperative multi-agent
model. Based on this model, we develop a control kernel
named IMCOK (Intelligent Motion COntrol Kernel) which consists of a
controller, a coordinator and an executor of different cycles of
the motion of the biped. When walking, IMCOK receives messages
and sends offers. A Decision Making of Actions (DMA) is
developed at the supervisor level. The articulator agents partially planify
the motion of the associated non-articulator agents. The system is
hybrid and distributed functionally. The learning of the biped is
performed using an On-line Augmented Integration of Gradient and Last
Sguare Neural Networks based algorithm. In the conflictual situations of
sending or receiving messages by the managers of MABS we
apply a new strategy: Recursive Stochastic Petri Nets (RSPN). This
module is fundamental in the On-line information processing between agents.
It allows particularly the Recursive strategy concept. Cognitive agents communicate
with reactive (non-articulator) agents in order to generate the motion.
Title: Neural based RSPN multi-agent strategy for biped motion control
Description:
In this paper fhe problem of motion control of a
biped is considered.
We develop a new method based on
multi-agent associated Neural AIGLS (On-line Augmented Integration of Gradient and
Last Sguare method) – RSPN (Recursive Stochastic Petri Nets) strategy.
This method deals with organization and coordination aspects in an
intelligent modeling of human motion.
We propose a cooperative multi-agent
model.
Based on this model, we develop a control kernel
named IMCOK (Intelligent Motion COntrol Kernel) which consists of a
controller, a coordinator and an executor of different cycles of
the motion of the biped.
When walking, IMCOK receives messages
and sends offers.
A Decision Making of Actions (DMA) is
developed at the supervisor level.
The articulator agents partially planify
the motion of the associated non-articulator agents.
The system is
hybrid and distributed functionally.
The learning of the biped is
performed using an On-line Augmented Integration of Gradient and Last
Sguare Neural Networks based algorithm.
In the conflictual situations of
sending or receiving messages by the managers of MABS we
apply a new strategy: Recursive Stochastic Petri Nets (RSPN).
This
module is fundamental in the On-line information processing between agents.
It allows particularly the Recursive strategy concept.
Cognitive agents communicate
with reactive (non-articulator) agents in order to generate the motion.
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