Abstract: A computer-implemented method of executing a standby mode for a robot, comprises the steps of measuring one or more parameters associated with one or more parts of the robot (e.g. the temperature of one or more motors); receiving one or more standby optimization rules associated with the parameters (e.g. maximizing the dissipation of the heat of the motor), and executing one or more received standby optimization rules (e.g. executing a body animation to cool down motors). The monitored parameters comprise motor temperature measures and/or energy consumption values and/or values quantifying signs of wear. Optimization rules comprise the minimization of the consumption of energy and/or the minimization of wear and/or the maximization of the dissipation of the heat. In developments, a predefined animation can be associated a valuable social engagement score. Further aspects are disclosed, including the optional use of accessories. System aspects and computer programs are described.

Abstract: A humanoid robot is provided with a manager for its physical and virtual resources, a method of use and a method for programming said manager. Said resources (140, 1410, 1420) are requested so as to execute behaviors. The resources and the behaviors are organized into hierarchical subsets, optionally defined in object trees. Conflicts of use of the resources by the behaviors are resolved locally, the behavior reserving resources being able to be programmed so as to offer options to the user of locking the resources by the reserving behavior, of release in favor of the first other requesting behavior, of partial execution of the behavior in progress or of pausing. A software toolkit makes it possible to program the Resource manager of the invention in a graphical manner in the development environment which allows the programming of the behaviors.

Abstract: A computer-implemented method of executing a standby mode for a robot, comprises the steps of measuring one or more parameters associated with one or more parts of the robot (e.g. the temperature of one or more motors); receiving one or more standby optimization rules associated with the parameters (e.g. maximizing the dissipation of the heat of the motor), and executing one or more received standby optimization rules (e.g. executing a body animation to cool down motors). The monitored parameters comprise motor temperature measures and/or energy consumption values and/or values quantifying signs of wear. Optimization rules comprise the minimization of the consumption of energy and/or the minimization of wear and/or the maximization of the dissipation of the heat. In developments, a predefined animation can be associated a valuable social engagement score. Further aspects are disclosed, including the optional use of accessories. System aspects and computer programs are described.

Abstract: A humanoid robot is provided with a manager for its physical and virtual resources, a method of use and a method for programming said manager. Said resources (140, 1410, 1420) are requested so as to execute behaviors. The resources and the behaviors are organized into hierarchical subsets, optionally defined in object trees. Conflicts of use of the resources by the behaviors are resolved locally, the behavior reserving resources being able to be programmed so as to offer options to the user of locking the resources by the reserving behavior, of release in favor of the first other requesting behavior, of partial execution of the behavior in progress or of pausing. A software toolkit makes it possible to program the Resource manager of the invention in a graphical manner in the development environment which allows the programming of the behaviors.