Issue No.08 - Aug. (2013 vol.62)
L. Sterpone , Dipt. di Autom. e Inf., Politec. di Torino, Turin, Italy
M. Porrmann , Center of Excellence Cognitive Interaction Technol., Bielefeld Univ., Bielefeld, Germany
J. Hagemeyer , Center of Excellence Cognitive Interaction Technol., Bielefeld Univ., Bielefeld, Germany
DOI Bookmark: http://doi.ieeecomputersociety.org/10.1109/TC.2013.80
Reconfigurable hardware is gaining a steadily growing interest in the domain of space applications. The ability to reconfigure the information processing infrastructure at runtime together with the high computational power of today's FPGA architectures at relatively low power makes these devices interesting candidates for data processing in space applications. Partial dynamic reconfiguration of FPGAs enables maximum flexibility and can be utilized for performance optimization, for improving energy efficiency, and for enhanced fault tolerance. To be able to prove the effectiveness of these novel approaches for satellite payload processing, a highly scalable prototyping environment has been developed, combining dynamically reconfigurable FPGAs with the required interfaces such as SpaceWire, MIL-STD-1553B, and SpaceFibre. The developed systems have been enabled to space harsh environments thanks to an analytical analysis of the radiation effects on its most critical reconfigurable components. Aiming at that scope, a new algorithm for the analysis of critical radiation effects, in particular, related to Single Event Upsets (SEUs) and Multiple Event Upsets (MEUs) has been developed to obtain an effective estimation of the radiation impact and enabling the tuning of the component mapping reducing the routing interaction between the reconfigurable placed modules in their different feasible positions. The experimental performance of the system has been evaluated by a proper dynamic reconfiguration scenario, demonstrating a partial reconfiguration at 400 MByte/s, blind and readback scrubbing is supported and the scrub rate can be adapted individually for different parts of the design. The fault tolerance capability has been proven by means of a new analysis algorithm and by fault injection campaigns of SEUs and MCUs into the FPGA configuration memory.
space vehicle electronics, artificial satellites, computer interfaces, fault tolerant computing, field programmable gate arrays, performance evaluation, program diagnostics, reconfigurable architectures,FPGA configuration memory, space applications, information processing infrastructure, data processing, partial dynamic reconfiguration, performance optimization, energy efficiency, satellite payload processing, scalable prototyping environment, dynamically reconfigurable FPGA architecture, SpaceWire, MIL-STD-1553B, SpaceFibre, critical reconfigurable components, critical radiation effects, single event upsets, SEU, multiple event upsets, MEU, radiation impact estimation, component mapping, routing interaction reduction, reconfigurable placed modules, dynamic reconfiguration scenario, readback scrubbing, blind scrubbing, fault tolerance capability, fault injection campaigns, MCU,Self-organizing networks, Satellite communication,static analysis, FPGA, partial reconfiguration, single event upsets, multiple event upsets, fault injection, fault tolerance
L. Sterpone, M. Porrmann, J. Hagemeyer, "A Novel Fault Tolerant and Runtime Reconfigurable Platform for Satellite Payload Processing", IEEE Transactions on Computers, vol.62, no. 8, pp. 1508-1525, Aug. 2013, doi:10.1109/TC.2013.80