Author_Institution :
Fac. of Eng. & Inf. Sci., Hertfordshire Univ., Hatfield, UK
Abstract :
Shannon and Weaver (1963) formalized the notion of information transmission rate and capacity for pre-existing channels. Wittgenstein (1968) insisted that linguistic meaning be defined in terms of use in language games. Peirce (1965) realized the importance of sign, signified, and interpretant in processes of semiosis. In particular, the connection between sign and signified does not take place in a platonic vacuum but is situated, embodied, embedded, and must be mediated by an interpretant. We introduce a rigorous mathematical notion of meaning, as (1) agent- and observer- perceptible information in interaction games between an agent and its environment or between an agent and other agents, that is (2) useful for satisfying homeostatic and other drives, needs, goals or intentions. With this framework it is possible to address issues of sensor- and actuator- design, origins, evolution, and maintenance for biological and artificial systems. Moreover, correspondences between channels of meaning are exploited by biological entities in predicting the behavior or reading the intent of others, as in predator-prey and social interaction. Social learning, imitation, communication of experience also develop and can be developed on this substrate of shared meaning
Keywords :
channel capacity; game theory; information theory; linguistics; actuator design; agent-perceptible information; artificial systems; biological entities; biological systems; homeostatic drives; imitation; information transmission capacity; information transmission rate; interpretant; language games; linguistic meaning; meaning channels; observer-perceptible information; pre-existing channels; predator-prey interaction; semiosis; sensor design; shared meaning; sign; social interaction; social learning; Actuators; Biosensors; Educational institutions; Evolution (biology); Interactive systems; Learning automata; Robot sensing systems; Sensor phenomena and characterization; Systems engineering and theory; World Wide Web;