The effect of ionizing radiation on robotic trajectory movement and electronic components
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Robotics applications are greatly needed in hazardous locations, e.g., fusion and fission reactors, where robots must perform delicate and complex tasks under ionizing radiation conditions. The drawback is that some robotic parts, such as active electronics, are susceptible to radiation. It can lead to unexpected failures and early termination of the robotic operation. This paper analyses the ionizing radiation effect from 0.09 to 1.5 Gy/s in robotic components (microcontrollers, servo motors and temperature sensors). The first experiment compares the performance of various microcontroller types and their actuators and sensors, where different mitigation strategies are applied, such as using Radiation-Hardened (Rad-Hard) microcontrollers or shielding. The second and third experiments analyze the performance of a 3-Degrees of Freedom (DoF) robotic arm, evaluating its components ʼ responses and trajectory. This study enhances our understanding and expands our knowledge regarding radiationʼs impact on robotic arms and components, which is useful for defining the best strategies for extending the robotsʼ operational lifespan, especially when performing maintenance or inspection tasks in radiation environments.
Abstract
Robotics applications are greatly needed in hazardous locations, e.g., fusion and fission reactors, where robots must perform delicate and complex tasks under ionizing radiation conditions. The drawback is that some robotic parts, such as active electronics, are susceptible to radiation. It can lead to unexpected failures and early termination of the robotic operation. This paper analyses the ionizing radiation effect from 0.09 to 1.5 Gy/s in robotic components (microcontrollers, servo motors and temperature sensors). The first experiment compares the performance of various microcontroller types and their actuators and sensors, where different mitigation strategies are applied, such as using Radiation-Hardened (Rad-Hard) microcontrollers or shielding. The second and third experiments analyze the performance of a 3-Degrees of Freedom (DoF) robotic arm, evaluating its components ʼ responses and trajectory. This study enhances our understanding and expands our knowledge regarding radiationʼs impact on robotic arms and components, which is useful for defining the best strategies for extending the robotsʼ operational lifespan, especially when performing maintenance or inspection tasks in radiation environments.
참고문헌 (36)
- R. Smith, "Robotic development for the nuclear environment: challenges and strategy", Robotics (2020)
- K. Zhang, "Radiation tolerance testing methodology of robotic manipulator prior to nuclear waste handling", Frontiers in Robotics and AI, 7 (2020)
- S. Coloma, "Enhancing rover teleoperation on the moon with proprioceptive sensors and machine learning techniques", IEEE Rob. Autom. Lett, 7 (2022)
- F. Faccio, "COTS for the LHC radiation environment: the rules of the game", LEB 2000 Conference Krakow, Book of Abstracts, pp.50~ (2000)
- B. Todd, "Radiation Risks and Mitigation in Electronic Systems", 2016arXiv preprint arXiv:1607.01573, ~ (2016)
- Z. Diggins, "Total-ionizing-dose induced timing window violations in CMOS microcontrollers", IEEE Trans. Nucl. Sci, 61 (2014)
- Radiation effects in the electronics for CMS, Tutorial Script, "F. Faccio", ㅍ, ~ (1999)
- E. Petersen, "Single Event Effects in Aerospace" (2011), John Wiley & Sons
- S. J. Gaul, "Integrated Circuit Design for Radiation Environments" (2019), John Wiley & Sons
- S. Coloma, "Remote Handling Maintenance of Beam Dump in IFMIF-DONES", Fusion Engineering and Design (2021)
- M. Di Castro, "Cerntauro: A Modular Architecture for Robotic Inspection and Telemanipulation in Harsh and Semi-structured Environments", IEEE Access (2018)
- I. Tsitsimpelis, "A review of ground-based robotic systems for the characterization of nuclear environments", Prog. Nucl. Energy, 111 (2019)
- G. Micciche, "The remote handling system of IFMIF-DONES", Fusion Eng. Des, 146 (2019)
- J.D. Cressler, "Extreme Environment Electronics" (2017), CRC Press
- P.R. Villa, "Analysis of single-event upsets in a microsemi ProAsic3E FPGA", 2017 18th IEEE Latin American Test Symposium (LATS), IEEE (2017)
- G. Foucard, "Handbook of Mitigation Techniques against Radiation Effects for Asics and Fpgas" (2012), CERN
- C. Peng, "Radiation-hardened 14T SRAM bitcell with speed and power optimized for space application", IEEE Trans. Very Large Scale Integr. Syst, 27 (2018)
- M.S. Muktadir, "Development of a radiation detection measuring and monitoring mobile facility with wireless autonomous robots", The Proceedings of the International Conference on Nuclear Engineering, ICONE (2019)
- B. Bird, "Vega—a small, low cost, ground robot for nuclear decommissioning", J. Field Robot (2021)
- B. Bird, "A Robot to Monitor Nuclear Facilities", IEEE Robotics & Automation Magazine (2019)
- F. Chen, "The radiation tolerance design and test of a tele-controlled robot", Nucl. Electron. Detect. Technol, 36(2) (2016)
- S. Li, "Radiation effect on the performance of robot manipulator", Int. J. Mechatron. Autom, 6 (2017)
- Sharma Charu, "Impact of gamma radiation on 8051 microcontroller performance", Nuclear Engineering and Technology, 54(12), pp.4422~4430 (2022), 한국원자력학회[DOI]
- Tomas Fried, "Radiation testing of low cost, commercial off the shelf microcontroller board", Nuclear Engineering and Technology, 53(10), pp.3335~3343 (2021), 한국원자력학회[DOI]
- M. Nancekievill, "Radiation tolerance of commercial-off-the-shelf components deployed in an underground nuclear decommissioning embedded system", 2016IEEE Radiation Effects Data Workshop (REDW) (2016), IEEE
- Irradiation Measurements of the Hitachi H8S, "2357", J. Navarrete, 2003
- S. Keller, "DD1: a QDI, radiation-hard-by-design, near-threshold 18uW", MIPS microcontroller in 40nm bulk CMOS, 2015 (2015), ~[DOI]
- "CIEMAT electron accelerator"[URL]
- S. Coloma, "Methods, Strategies and Application Cases for Robotic Telemanipulation in Hazardous Environments", Ph.D., pp.2020
- F.G. Leite, "Ionizing radiation effects on a COTS low-cost RISC microcontroller", 2017 18th IEEE Latin American Test Symposium (LATS), pp.1~4 (2017), IEEE
- P. Espinosa Peralta, "Performance analysis of localization algorithms for inspections in 2D and 3D unstructured environments using 3D laser sensors and UAVs", Sensors (2022)
- J.O. Sturm, "A benchmark for the evaluation of RGB-D SLAM systems", 2012IEEE, 2012, ~[DOI]
- "Absolute trajectory error"[URL]
- C. Kuhnel, "AVR RISC Microcontroller Handbook" (1998), Newnes
- S. Kucuk, "Robot Kinematics: Forward and Inverse Kinematics" (2006), INTECH Open Access Publisher
- G. Cloutier, "Gemma, the Complementary Tool of the GRAFCET", Programmable Control and Automation Technology Conference and Exhibition (1988)