Realization of the sound space environment for the radiation-tolerant space craft

被引:0
|
作者
Kawai, Hiroyuki [1 ]
Yamaguchi, Yoshiki [1 ]
Yasunaga, Moritoshi [1 ]
机构
[1] Univ Tsukuba, Dept Comp Sci, Grad Sch Syst & Informat Engn, 1-1-1 Tenoudai, Tsukuba, Ibaraki 3058573, Japan
关键词
D O I
暂无
中图分类号
TP3 [计算技术、计算机技术];
学科分类号
0812 ;
摘要
In space, galactic cosmic rays and solar rays collide with integrated circuits. It causes a breakdown of LSI, namely a hardware failure. Due to the increasing requirements of spacecraft applications, it is important that radiation fault-tolerant techniques are improved. This paper describes an approach which realizes a dependable computing system using a reconfigurable device. Firstly, we decide a logical block, namely a "tile". A single tile is composed of several processing elements, such as Look Up Tables. A module is composed of several tiles. When a module does not work well for a hardware failure, circuits on a bad tile which has the hardware failure are reconfigured to a fine tile. In this approach, secondly, the size of a single tile is important. We can reduce void circuits when the size is very small. But, we must continually check whether all tiles are fine or not, and the computing cost will be very large. The approach requires the proper size of a single tile which a module is composed of so that efficiency and effectiveness with the system is in real use. Our experimental results show that our proposed approach can produce a prototype hardware system that is smaller when compared with a simple fault-tolerant implementation such as triple module redundancy. It is clear that our approach can implement larger circuits than current ones using the same device.
引用
收藏
页码:198 / +
页数:4
相关论文
共 50 条
  • [31] THE SPACE RADIATION ENVIRONMENT FOR ELECTRONICS
    STASSINOPOULOS, EG
    RAYMOND, JP
    PROCEEDINGS OF THE IEEE, 1988, 76 (11) : 1423 - 1442
  • [32] SOCRATES: a radiation-tolerant SoC generator framework
    Andorno, Marco
    Caratelli, Alessandro
    Ceresa, Davide
    Denkinger, Benoit
    Kloukinas, Kostas
    Nookala, Anvesh
    Pejasinovic, Risto
    JOURNAL OF INSTRUMENTATION, 2025, 20 (02):
  • [33] Radiation-tolerant X- and γ-ray detectors
    Yu. V. Gott
    M. M. Stepanenko
    Instruments and Experimental Techniques, 2010, 53 : 180 - 184
  • [34] The radiation-tolerant x-ray monitor
    Gott, Yu. V.
    Stepanenko, M. M.
    REVIEW OF SCIENTIFIC INSTRUMENTS, 2008, 79 (10):
  • [35] Radiation effects on a radiation-tolerant CMOS active pixel sensor
    Hopkinson, GR
    Mohammadzadeh, A
    Harboe-Sorensen, R
    IEEE TRANSACTIONS ON NUCLEAR SCIENCE, 2004, 51 (05) : 2753 - 2762
  • [36] From Sound to Sound Space, Sound Environment, Soundscape, Sound Milieu or Ambiance . . .
    Solomos, Makis
    PARAGRAPH, 2018, 41 (01) : 95 - 109
  • [37] Radiation-tolerant diffuse infrared optical backplane development
    Meitzler, Richard C.
    Marwick, Miriam A.
    Schneider, Wolfger
    2006 IEEE AEROSPACE CONFERENCE, VOLS 1-9, 2006, : 2544 - +
  • [38] Radiation-tolerant optical links for the ATLAS inner detector
    Gregor, IM
    IEEE TRANSACTIONS ON NUCLEAR SCIENCE, 2002, 49 (03) : 1112 - 1116
  • [39] Implications of the space radiation environment for human exploration in deep space
    Townsend, LW
    RADIATION PROTECTION DOSIMETRY, 2005, 115 (1-4) : 44 - 50
  • [40] Sound radiation in a half space with impedance surface
    Dokuz Eylül University, Department of Mechanical Engineering, Tinaztepe-Buca, Izmir, Turkey
    不详
    JVC/J Vib Control, 16 (2552-2560):