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Task Assignment for Heterogeneous Computing Problems using Improved Iterated Greedy Algorithm
Author(s) -
Rohit Mohan,
N. P. Gopalan
Publication year - 2014
Publication title -
international journal of computer network and information security
Language(s) - English
Resource type - Journals
eISSN - 2074-9104
pISSN - 2074-9090
DOI - 10.5815/ijcnis.2014.07.07
Subject(s) - computer science , generalized assignment problem , weapon target assignment problem , assignment problem , quadratic assignment problem , task (project management) , iterated function , greedy algorithm , linear bottleneck assignment problem , computation , convergence (economics) , hungarian algorithm , graph , algorithm , matching (statistics) , optimization problem , theoretical computer science , parallel computing , mathematical optimization , mathematics , management , economic growth , mathematical analysis , statistics , economics
The problem of task assignment is one of the most fundamental among combinatorial optimization problems. Solving the Task Assignment Problem is very important for many real time and computational scenarios where a lot of small tasks need to be solved by multiple processors simultaneously. A classic problem that confronts computer scientists across the globe pertaining to the effective assignment of tasks to the various processors of the system due to the intractability of the task assignment problem for more than 3 processors. Several Algorithms and methodologies have been proposed to solve the Task Assignment Problem, most of which use Graph Partitioning and Graph Matching Techniques. Significant research has also been carried out in solving the Task Assignment Problem in a parallel environment. Here we propose a modified version of iterated greedy algorithm that capitalizes on the efficacy of the Parallel Processing paradigm, minimizing the various costs along with the duration of convergence. The central notion of the algorithm is to enhance the quality of assignment in every iteration, utilizing the values from the preceding iterations and at the same time assigning these smaller computations to internal processors (i.e. parallel processing) to hasten the computation. On implementation, the algorithm was tested using Message Passing Interface (MPI) and the results show the effectiveness of the said algorithm.

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