Identification of programs for computable functions from their graphs by algorithmic devices is a well studied problem in learning theory. Freivalds and Chen consider identification of ‘minimal’ and ‘nearly minimal ’ programs for functions from their graphs. The present paper solves the following question left open by Chen: Is it the case that for any collection of computable functions, C, such that some machine can finitely learn a nearly minimal (n + 1)-error program for every function in C, there exists another machine that can learn in the limit an n-error program (which need not be nearly minimal) for every function in C? We answer this question negatively
AbstractMost studies modeling inaccurate data in Gold style learning consider cases in which the num...
AbstractThis article investigates algorithmic learning, in the limit, of correct programs for recurs...
AbstractA class of computable functions ismaximaliff it can be incrementally learned by some inducti...
AbstractIdentification of programs for computable functions from their graphs by algorithmic devices...
AbstractConsider a scenario in which an algorithmic machine, M, is being fed the graph of a computab...
AbstractConsider a scenario in which an algorithmic machine, M, is being fed the graph of a computab...
AbstractIdentification of programs for computable functions from their graphs by algorithmic devices...
AbstractTwo learning situations are considered: machine identification of programs from graphs of re...
Any computable function \gf may be viewed as a “generalization” of a finite function. Specifically, ...
AbstractLeo Harrington surprisingly constructed a machine which can learn any computable function f ...
AbstractTwo learning situations are considered: machine identification of programs from graphs of re...
Two learning situations are considered: machine identification of programs from graphs of recursive ...
Two learning situations are considered: machine identification of programs from graphs of recursive ...
Recent studies of computational complexity have focused on “axioms” which characterize the “difficul...
Inductive inference machines are algorithmic devices which attempt to synthesize (in the limit) prog...
AbstractMost studies modeling inaccurate data in Gold style learning consider cases in which the num...
AbstractThis article investigates algorithmic learning, in the limit, of correct programs for recurs...
AbstractA class of computable functions ismaximaliff it can be incrementally learned by some inducti...
AbstractIdentification of programs for computable functions from their graphs by algorithmic devices...
AbstractConsider a scenario in which an algorithmic machine, M, is being fed the graph of a computab...
AbstractConsider a scenario in which an algorithmic machine, M, is being fed the graph of a computab...
AbstractIdentification of programs for computable functions from their graphs by algorithmic devices...
AbstractTwo learning situations are considered: machine identification of programs from graphs of re...
Any computable function \gf may be viewed as a “generalization” of a finite function. Specifically, ...
AbstractLeo Harrington surprisingly constructed a machine which can learn any computable function f ...
AbstractTwo learning situations are considered: machine identification of programs from graphs of re...
Two learning situations are considered: machine identification of programs from graphs of recursive ...
Two learning situations are considered: machine identification of programs from graphs of recursive ...
Recent studies of computational complexity have focused on “axioms” which characterize the “difficul...
Inductive inference machines are algorithmic devices which attempt to synthesize (in the limit) prog...
AbstractMost studies modeling inaccurate data in Gold style learning consider cases in which the num...
AbstractThis article investigates algorithmic learning, in the limit, of correct programs for recurs...
AbstractA class of computable functions ismaximaliff it can be incrementally learned by some inducti...