Title :
Superconcurrent simulation of polymer chains on heterogeneous networks
Author :
Nakanishi, H. ; Rego, V. ; Sunderam, V.
Author_Institution :
Dept. of Phys. & CS, Purdue Univ., West Lafayette, IN, USA
Abstract :
The authors present the results of an experiment on massively parallel stochastic simulation of polymer chains for measuring scale-invariant phenomena at critical temperatures. The parallelization is achieved through the EcliPSe toolkit and conducted on a flexible, tree-structured virtual machine made up of arbitrary and heterogeneous computing nodes dispersed across the country. These nodes cooperate to perform the simulation and pool results together in real time at a central node which initiates the parallel simulation. The advantage of the tree-structure is that it allows for a fault-resilient, flexible environment for long-running parallel simulations. The authors present results on sheer performance, price performance, and toolkit-based parallelization by monitoring the same computations on a CRAY Y-MP and making detailed comparisons. Most significant are the excellent price-performance ratios given by the heterogeneous computing environment
Keywords :
physics computing; polymer structure; stochastic processes; virtual machines; EcliPSe toolkit; heterogeneous computing nodes; heterogeneous networks; massively parallel stochastic simulation; polymer chains; price-performance ratios; scale-invariant phenomena; superconcurrent simulation; toolkit-based parallelization; tree-structure; tree-structured virtual machine; Computational modeling; Concurrent computing; Fault tolerance; Intelligent networks; Military computing; Physics; Polymers; Stochastic processes; Temperature; Virtual machining;
Conference_Titel :
Supercomputing '92., Proceedings
Conference_Location :
Minneapolis, MN
Print_ISBN :
0-8186-2630-5
DOI :
10.1109/SUPERC.1992.236648