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Issue No.09 - September (2010 vol.59)
pp: 1187-1199
Igor Valerievich Zotov , Kursk Technical University, Kursk
The work presents a distributed hardware-level barrier mechanism for n-dimensional mesh-connected MIMD computers, called Distributed Virtual Bit-Slice Synchronizer (DVBSS). The proposed mechanism is structured around an m-bit dedicated control network, whose topology is a directed mesh-embeddable graph, with an additional m-bit-wide wraparound connection. By using a specific virtualization scheme making it possible to have p virtual m-bit barrier networks superposed on a physical one, the DVBSS model allows to synchronize more than m barrier groups. To minimize synchronization latency, the DVBSS scheme uses a distributed circulating wave clocking (DCW-clocking) technique to switch between virtual barrier networks in a pipeline fashion. The DVBSS scheme is shown to be general, configurable, and MPI-compatible. Unlike proposed distributed hardware barriers, and hardware tree-based schemes, the DVBSS mechanism accepts dynamically defined (possibly overlapping) barrier groups of arbitrary size and shape, allowing noncontiguous group member allocations.
Barrier synchronization, dedicated barrier networks, hardware barriers, mesh-connected parallel computers.
Igor Valerievich Zotov, "Distributed Virtual Bit-Slice Synchronizer: A Scalable Hardware Barrier Mechanism for n-Dimensional Meshes", IEEE Transactions on Computers, vol.59, no. 9, pp. 1187-1199, September 2010, doi:10.1109/TC.2010.15
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