Consistency in Models for Distributed Learning under Communication Constraints
Joel B. Predd, Sanjeev R. Kulkarni, H. Vincent Poor
Abstract
Motivated by sensor networks and other distributed settings, several models for distributed learning are presented. The models differ from classical works in statistical pattern recognition by allocating observations of an independent and identically distributed (i.i.d.) sampling process amongst members of a network of simple learning agents. The agents are limited in their ability to communicate to a central fusion center and thus, the amount of information available for use in classification or regression is constrained. For several basic communication models in both the binary classification and regression frameworks, we question the existence of agent decision rules and fusion rules that result in a universally consistent ensemble. The answers to this question present new issues to consider with regard to universal consistency. Insofar as these models present a useful picture of distributed scenarios, this paper addresses the issue of whether or not the guarantees provided by Stone's Theorem in centralized environments hold in distributed settings.
Create a lesson
Related papers
Binary Cyclic Gradient Coding: Exact Recovery and Robustness to Compression
Hassan Ou-azzou, Imad Kissami, El Houcine Bergou
Nonlinear fixed-distance codes via real lifts of moment configurations
Sergey Yekhanin
Global and Local Entropy Tests for STL Files Under IEEE-754 Validity Constraints
Tonislav Troev, Borislav Stoyanov
Joint Identification, Transmission, and Sensing over State-Dependent Channels with Noiseless Feedback
Vida Gholamian, Marcel A. Mross, Roberto Ferrara et al.
Capacity Bounds for Optical Interference Channels Subject to Average Power Constraints
Viswanathan Ramachandran
Efficient construction of subspace design codes over constant alphabet
Shu Liu