@InProceedings{BarbosaLouManDuaGar:2019:MiCOFP,
author = "Barbosa, Adilson Luiz and Loureiro, Geilson and Manea, Silvio and
Duarte, Jos{\'e} Marcelo Lima and Garbi, Giuliani Paulineli",
affiliation = "{Instituto Nacional de Pesquisas Espaciais (INPE)} and {Instituto
Nacional de Pesquisas Espaciais (INPE)} and {Instituto Nacional de
Pesquisas Espaciais (INPE)} and {Instituto Nacional de Pesquisas
Espaciais (INPE)} and {Instituto Nacional de Pesquisas Espaciais
(INPE)}",
title = "Mitigation of COTS FPGA failures caused by radiation effects",
booktitle = "Proceedings...",
year = "2019",
organization = "International Astronautical Congress (IAC), 70.",
keywords = "COTS FPGA, Fault mitigation techniques, framework, systems
engineer.",
abstract = "This article presents the development and implementation of a
structure to assist the systems engineer, considering a process of
choosing a fault mitigation technique for a space system with
electronic integrated circuits of the type COTS FPGA (Commercial
off-the-shelf - Field Programmable Gate Array). Space systems
require space or hard-qualified components, and some applications
also require devices with a high processing rate, low power
consumption, and low cost. The studies surveyed in the available
literature, over a ten-year period, didn't provide sufficient
design details to compare existing mitigation techniques in a
manner consistent with the required parameters. The technique
selected should ensure that the FPGA of the electronic device
works properly with the mission applications and overcomes the
adversities of space, especially the effects of radiation. Due to
factors related to the reduction of costs of these projects and
the possibility of commercial embargo of hard components, the
electronic devices of the type COTS happened to occupy a relevant
space in the engineering of components. COTS FPGAs, although not
manufactured for the radiation environment, cost up to twenty
times less and can absorb, by hardware or software, mitigation
techniques. A space project must meet or exceed all mission
restrictions such as maximum power usage, maximum failure rate,
and minimum required life time. Considering that these
restrictions are different and often conflicting, different types
of solutions are possible. The paper proposes a study of two
frameworks available in the literature, but they present partial
results, watertight and without establishing a standard flowchart.
These frameworks address separately the two types of radiation
effects (TID - Total Ionizing Dose or SEE - Single Event Effects)
and only four mitigation techniques. Just only one of the articles
presents metrics and methodology for the selection process. This
article performs a detailed study on the mentioned frameworks and
proposes measures to build a single framework that overcomes the
disadvantages of the previous two, such as the consideration of a
longer period of research and a greater number of mitigation
techniques, among others. With the implementation of these
measures, the component engineer can only use this tool for the
design of projects in the area of COTS FPGA, with the mitigation
of the radiation effects according to the parameters of the
mission.",
conference-location = "Washington, MD",
conference-year = "21-25 Oct.",
language = "en",
urlaccessdate = "25 abr. 2024"
}