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Reconfigurations for Processor Arrays with Faulty Switches and Links

Large scale multiprocessor array suffers from frequent hardware defects or soft faults due to overheating, overload or occupancy by other running applications. To obtain fault-free logical array, reconfiguration techniques are proposed to reuse the fault-free PEs by changing the interconnection among PEs. Previous research has worked on this topic but assume that switches and links are fault-free. In this paper, we consider faults not only on the processing elements (PEs) but also on the switches and links, and develop efficient algorithms to construct as large as possible logical arrays with optimized networks length. To deal with the faults on switches and links, an efficient pre-processing procedure is designed, in which switch faults are transformed into link faults, and then faulty links are classified into several categories to handle. Then, we propose an efficient algorithm, A-MLA, to produce as many as possible logical columns which are then combined to form a two dimensional processor array. After that, we propose an algorithm A-TMLA to reduce the interconnection length of the logical array obtained by algorithm A-MLA, as short interconnect leads to small communication latency and power consumption. Extensive experimental results show that, even with switch faults and link faults, our approach can produce larger logical fault-free arrays with shorter interconnection length, compared to the state-of-the-art.