Laser decontamination for radioactive contaminated metal surface: A review
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초록
With the improvement of laser technology, the strategic needs of efficient and precise decontamination of various components in nuclear application units can be fulfilled by laser decontamination. The surface contaminants of nuclear facilities mainly exist both as loose contaminated layer and fixed oxide layer. The types of radionuclides and contamination layer thickness are closely related to the operation status of nuclear facilities, which have an important influence on the laser decontamination process. This study reviewed the mechanism of laser surface treatment and the influence of laser process parameters on the decontamination thickness, decontamination factor, decontamination efficiency and the distribution of aerosol particle. Although multiple studies have been performed on the mechanism of laser processing and laser decontamination process, there are few studies on the microscopic process mechanism of laser decontamination and the influence of laser decontamination on surface properties. In particular, the interaction between laser and radioactive contaminants needs more research in the future.
Abstract
With the improvement of laser technology, the strategic needs of efficient and precise decontamination of various components in nuclear application units can be fulfilled by laser decontamination. The surface contaminants of nuclear facilities mainly exist both as loose contaminated layer and fixed oxide layer. The types of radionuclides and contamination layer thickness are closely related to the operation status of nuclear facilities, which have an important influence on the laser decontamination process. This study reviewed the mechanism of laser surface treatment and the influence of laser process parameters on the decontamination thickness, decontamination factor, decontamination efficiency and the distribution of aerosol particle. Although multiple studies have been performed on the mechanism of laser processing and laser decontamination process, there are few studies on the microscopic process mechanism of laser decontamination and the influence of laser decontamination on surface properties. In particular, the interaction between laser and radioactive contaminants needs more research in the future.
참고문헌 (101)
- Z.H.E.N.G. Gong, "Preliminary study and selection of CFETR in-vessel component tritium dust decontamination method in hot cell", Fusion Eng. Des, (155), pp.111705~ (2020)
- R & D and Innovation Needs for Decommissioning Nuclear Facilities, "Nuclear Energy Agency", ~ (2014)
- Decontamination Techniques Used in Decommissioning Activities: A Report by the NEA Task Group on Decontamination, "Nuclear Energy Agency Nuclear decommissioning", ~ (2009)
- V.S. Sathyaseelan, "High temperature dissolution of oxides incomplexing media", J. Nucl. Mater, 419(1-3), pp.39~45 (2011)
- Bin Liu, "Chemical decontamination of primary loop Elbow and verification test in nuclear power plant", J. Nucl. Radiochem, 40(6), pp.388~392 (2018)
- V.S. Sathyaseelan, "Evaluation of elevated temperature process for the decontamination of stainless steel 304LN surface", Nucl. Mater. Energy, 25, pp.100874~ (2020)
- L.I. Ye, "Decontamination research of ventilation pipes by dry ice jet", Atomic Energy Sci. Technol, 46, pp.164~167 (2012)
- T. Sanders, "The characterisation and removal of water droplets in high pressure water jetting nuclear decontamination (16036)", Waste Management Conference 2016, pp.1~19 (2016)
- D. V. Voronin, "Experimental study of blownabrasive decontamination of the inner surfaces of pipelines for a pulsed pneumatic conveyor model", At. Energy, 113, pp.332~336 (2013)
- Y. Liu, "A study on decontamination technology of ultrasonic wave cerium(IV)", Radiat. Prot, 37, pp.39~44 (2017)
- H. Q. Wang, "Experimental study on decontamination of the surface radioactivity of uranium mining equipment by the synergy of ultrasonic and chemical methods", J. Univ. South China Science Technol, 33, pp.1~5 (2019)
- B. Heshmatpour, "Decontamination of transuranic contaminated metals by melt refining", 4(2), pp.129~134 (1983)
- A. Q. Chen, "Melting decontamination and recycling of radioactive polluted metals from uranium mining and metallurgy", Uranium Min. Metall, 30, pp.95~99 (2011)
- M. Q. Si, "Thermal plasma decontamination of graphite surface", Nucl. Tech, 43, pp.89~93 (2020)
- P. Chandramohan, "Development of chemical decontamination process based on ozone for system surfaces with chromium containing oxides", Nucl. Technol, 200, pp.269~277 (2017)
- I. H. Yoon, "Stabilizing decontamination foam using surface-modified silica nanoparticles containing chemical reagent: foam stability, structures, and dispersion properties", RSC Adv, 11, pp.1841~1849 (2021)
- Z. H. Liu, "Investigation on safety of gel decontamination technology", At. Energy Sci. Technol, 48, pp.944~948 (2014)
- H. M. Yang, "Polymeric coatings for surface decontamination and ecofriendly volume reduction of radioactive waste after use", Prog. Nucl. Energy, 104, pp.67~74 (2018)
- W.S. Choi, "Separation behavior of nickel and cobalt in a LiCl-KCl-NiCl2 molten salt by electrorefining process", J. Electroanal. Chem, 866 (2020)
- T. Andreas, "Fiber lasers and amplifiers: an ultrafast performance evolution", Optical Soc. America, 49(25), pp.71~78 (2010)
- S. Sinha, "Thermal model for nanosecond laser ablation of alumina", Ceram. Int, 41, pp.6596~6603 (2015)
- X.X. Li, "Theoretical fundamentals of short pulse laseremetal interaction: a review", Nanotechnol. Precision Eng, 3, pp.105~125 (2020)
- A. Kumar, "CO2 laser assisted removal of UO2 and ThO2particulates from metal surface", Appl. Surf. Sci, 257, pp.7263~7267 (2011)
- G. Greifzu, "Laser-based decontamination of metal surface", Opt Laser. Technol, 117, pp.293~298 (2019)
- L.S. Marc, "Excimer laser decontamination", Int. Conf. Atomic Mol. Pulsed Lasers, 4071, pp.196~208 (2000)
- Y. C. Lin, "A compact and portable laser radioactive decontamination system using passive Q-switched fiber laser and polygon scanner", Appl. Radiat. Isot, 153, pp.108835~ (2019)
- H. J. Won, "Decontamination of radioactive material by Nd: YAG laser", Asian J. Chem, 25(10), pp.5819~5822 (2013)
- Meihua Ma, "Laser decontamination research on radioactive simulation specimens in air", J. Nucl. Radiochem, 39(1), pp.69~71 (2017)
- B. Rethfeld, "Modelling ultrafast laser ablation", J. Phys. D : Appl. Phys, 50, pp.193001~ (2017)
- N. Farid, "Emission features and expansion dynamics of nanosecond laser ablation plumes at different ambient pressures", J. Appl. Phys, 115, pp.033107~ (2014)
- D.H. Lister, "The kinetics of 60Co uptake on and release from stainless steel with and without 65Zn addition under boiling water reactor conditions", Nucl. Technol, (140), pp.288~302 (2002)
- Z. Homonnay, "Comprehensive investigation of the corrosion state of the heat exchanger tubes of steam generators. Part II. Chemical composition and structure of tube surfaces", J. Nucl. Mater, 348, pp.191~204 (2006)
- Zhixing Gao, "Experimental simulation of radioactive decontamination with Excimer laser", Proc. SPIE, 8786 (2013)
- J. Robertson, "The mechanism of high temperature aqueous corrosion of stainless steels", Corrosion Sci, 32(4), pp.443~465 (1991)
- J. Robertson, "The mechanism of high temperature aqueous corrosion of steel", Corrosion Sci, 29(11), pp.1275~1989 (1989)
- Q. Wang, "Laser decontamination microscopic process study on radioactive contaminations with Csþ ion of 304 stainless steel surface", Appl. Radiat. Isot, 182, pp.110112~ (2022)
- L. Carvalho, "Growth of micrometric oxide layers to explore laser decontamination of metallic surfaces", EPJ Nucl. Sci. Technol, 3(30) (2017)
- Carvalho L, "Development of laser cleaning for metallic equipment", Proceedings of the 2018 26th International Conference on Nuclear Engineering (2018)
- L. Carvalho, "Metal decontamination by high repetition rate nanosecond fiber laser : application to oxidized and Eucontaminated stainless steel", Appl. Surf. Sci, 526, pp.146654~ (2020)
- 문제권, "532 nm 파장의 큐스위치 Nd:YAG 레이저를 이용한 스테인리스 스틸 표면 제염특성", Journal of Nuclear Fuel Cycle and Waste Technology, 8(3), pp.181~188 (2010), 한국방사성폐기물학회
- 원휘준, "A comparative study on the laser removal of Cs+ ion from type 304 stainless steel", Korean Journal of Chemical Engineering, 27(6), pp.1780~1785 (2010), 한국화학공학회
- B. Baigalmaa, "A comprehensive study on the laser decontamination of surfaces contaminated with Cs+ ion", Appl. Radiat. Isot, 67(7-8), pp.1526~1529 (2009)
- H. J. Won, "Decontamination of radioactive material by Nd: YAG laser", Asian J. Chem, 25(10), pp.5819~5822 (2013)
- A. Kumar, "Laser assisted removal of fixed radioactive contamination from metallic substrate", Nucl. Eng. Des, 320, pp.183~186 (2017)
- P. Delaporte, "Radioactive oxide removal by XeCl laser", Appl. Surf. Sci, 197(1), pp.826~830 (2002)
- M. L. Sentis, "Surface oxide removal by a XeCl laser for decontamination", Quant. Electron, 30(6), pp.495~500 (2000)
- V. P. Veiko, "Physical Mechanisms of Laser Cleaning", Laser Cleaning, 7, pp.311~340 (2002)
- V. P. Veiko, "Laser decontamination of radioactive nuclides polluted surfaces", Laser Phys, 21, pp.608~613 (2011)
- D. E. Roberts, "Laser removal of loose uranium compound contamination from metal surfaces", Appl. Surf. Sci, 253, pp.5258~5267 (2007)
- A. Kumar, "Particulate size and shape effects in laser cleaning of heavy metal oxide loose contamination off clad surface", Opt Laser. Technol, 106, pp.286~293 (2018)
- A. Kumar, "Laser-Assisted decontamination of fuel pins for prototype fast breeder reactor", Nucl. Technol, 182, pp.241~247 (2013)
- M. Mosbacher, "Optical field enhancement effects in laser assisted particle removal", Appl. Phys. A, 72, pp.41~44 (2001)
- J.P. Nilaya, "Laser Assisted Decontamination of Metal Surface:Evidence of Increased Surface Absorptivity Due to Field Enhancement Caused by Transparent", semi-Transparent Contaminant Particulates, 2010, pp.256, 1867~1870
- J. P. Nilaya, "Laser-assisted decontamination-A wavelength dependent study", Appl. Surf. Sci, 254(22), pp.7377~7380 (2008)
- Y. Kameo, "Removal of metal-oxide layers formed on stainless and carbon steel surfaces by excimer laser irradiation in various atmospheres", Nucl. Technol, 137(2), pp.139~146 (2002)
- Enhou Han, "Corrosion mechanisms of stainless steel and nickel base alloys in high temperature high pressure water", Acta Metall. Sin, 46(11), pp.1379~1390 (2010)
- E. Chikarakara, "Analysis of microstructural changes during pulsed CO2 laser surface processing of AISI 316L stainless steel", Adv. Mater. Res, 264-265, pp.1404~1408 (2009)
- D. Hipp, "Beyond Fresnel: absorption of fibre laser radiation on rough stainless steel surfaces", J. Phys. Appl. Phys, 52(35), pp.355302~ (2019)
- J. R. Ho, "Computational study of heat transfer and gas dynamics in the pulsed laser evaporation of metals", J. Appl. Phys, 78, pp.4696~4709 (1995)
- A. Semerok, "Experimental investigations of laser ablation efficiency of pure metals with femto, pico and nanosecond pulses", Appl. Surf. Sci, 138-139, pp.311~314 (1999)
- B.L. Drogoff, "Laser-ablated volume and depth as a function of pulse duration in aluminum targets", Appl. Opt, 44, pp.278~281 (2005)
- Guoxing Chen, "Effect of power on laser cleaning result of stainless steel surface", Opto-Electronic Eng, 44(12), pp.1217~1224 (2017)
- Y.Q. Tong, "Study on Mechanism and Application Fundamentals of Laser Removal of Metal Oxides", pp.2014
- M. Stafe, "Theoretical photo-thermo-hydrodynamic approach to the laser ablation of metals", J. Appl. Phys, 112 (2012)
- D. Autrique, "The role of mass removal mechanisms in the onset of ns-laser induced plasma formation", J. Appl. Phys, 114 (2013)
- W. Pacquentina, "Effect of microstructure and chemical composition on localized corrosion resistance of a AISI 304L stainless steel after nano pulsed-laser surface melting", Appl. Surf. Sci, 356, pp.561~573 (2015)
- W. Pacquentina, "Nanosecond laser surface modification of AISI 304L stainless steel: influence the beam overlap on pitting corrosion resistance", Appl. Surf. Sci, 288, pp.34~39 (2014)
- D. P. Adams, "Nanosecond pulsed laser irradiation of stainless steel 304L : oxide growth and effects on underlying metal", Surf. Coating. Technol, 222, pp.1~8 (2013)
- Q. Wang, "The essential role of the microstructure and composition in the corrosion resistance of laser-decontaminated surfaces", Opt Laser. Technol, 152, pp.108111~ (2011)
- J. Koch, "Performance characteristics of ultraviolet femtosecond laser ablation inductively coupled plasma mass spectrometry at 265 and 200 nm", J. Anal. At. Spectrom, 21, pp.932~940 (2006)
- R. E. Russo, "Influence of wavelength on fractionation in laser ablation ICP-MS", J. Anal. At. Spectrom, 9, pp.1115~1120 (2000)
- V. Mozna, "Quantitative analysis of Fe-based samples using ultraviolet nanosecond and femtosecond laser ablation ICPMS", J. Anal. At. Spectrom, 21, pp.1194~1201 (2006)
- N. J. Seatveit, "Influence of particle size on fractionation with nanosecond and femtosecond laser ablation in brass by online differential mobility analysis and inductively coupled plasma mass spectrometry", J. Anal. At. Spectrom, 23, pp.54~61 (2008)
- J. Gonzales, "UV-femtosecond and nanosecond laser ablation-ICP-MS: internal and external repeatability", J. Anal. At. Spectrom, 21, pp.778~784 (2006)
- C. C. Garcia, "Elemental fractionation and stoichiometric sampling in femtosecond laser ablation", J. Anal. At. Spectrom, 19, pp.470~478 (2008)
- J. H. Yoo, "Existence of phase explosion during laser ablation and its effects on inductively coupled plasma-mass spectroscopy", Anal. Chem, 73, pp.2288~2293 (2001)
- M. Cheng, "Investigation of Nanoparticle Formation during Surface Decontamination and Characterization by Pulsed Laser", American Chemical Society, 943, pp.240~249 (2006)
- M. Hola, "Influence of physical properties and chemical composition of sample on formation of aerosol particles generated by nanosecond laser ablation at 213 nm", Spectrochim. Acta B Atom Spectrosc, 65, pp.51~60 (2010)
- J. Heitz, "Particles in laser ablation of polytetrafluorethylene", Appl. Phys. A, 69, pp.467~470 (1999)
- S. K. Friedlander, "Elastic behavior of nanoparticle chain aggregates : a hypothesis for polymer-filler behavior", J. Polym. Sci. B Polym. Phys, 38(20), pp.2658~2665 (2015)
- K. Ogawa, "Elastic properties of nanoparticle chain aggregates of TiO2, Al2O3, and Fe2O3 generated by laser ablation", J. Appl. Phys, 87, pp.63~73 (2002)
- M. Ullmann, "Nanoparticle formation by laser ablation", J. Nanoparticle Res, 4, pp.499~509 (2002)
- C. H. Jung, "Size distribution and filtration property of particles generated from laser ablation decontamination process", Environ. Prog. Sustain. Energy, 32(3), pp.649~654 (2013)
- D. W. Lee, "Particle generation by ultraviolet-laser ablation during surface decontamination", J. Air Waste Manag. Assoc, 56, pp.1591~1598 (2006)
- F. Vidal, "Critical-point phase separation in laser ablation of conductors", Phys. Rev. Lett, 86(12), pp.2573~ (2001)
- A. Miotello, "Critical assessment of thermal models for laser sputtering at high fluences", Appl. Phys. Lett, 67, pp.3535~ (1995)
- M. E. Povarnitsyn, "Suppression of ablation in femtosecond double-pulse experiments", Phys. Rev. Lett, 103, pp.15002~ (2009)
- C. Wu, "Microscopic mechanisms of laser spallation and ablation of metal targets from large-scale molecular dynamics simulations", Appl. Phys, 114(11) (2014)
- J. L. Laurent, "Laser ablation with short and ultrashort laser pulses : basic mechanisms from molecular-dynamics simulations", Appl. Surf. Sci, 255, pp.5101~5106 (2009)
- N.M. Bulgakova, "Pulsed laser ablation of solids: transition from normal vaporization to phase explosion", Appl. Phys, 73(199) (2000)
- J. Han, "Phase explosion induced by high-repetition rate pulsed laser", Appl. Surf. Sci, 256(22), pp.6649~6654 (2010)
- R. K. Ganesh, "A generation thermal modeling for laser drilling process-I : mathematical modeling and numerical methodology", Int. J. Heat Mass Tran, 40(14), pp.3351~3360 (1997)
- L.V. Zhigilei, "Atomistic modeling of short pulse laser ablation of metals: connections between melting spallation, and phase explosion", J. Phys. Chem. C, 113, pp.11892~11906 (2009)
- I. Apitz, "Material ejection in nanosecond Er: YAG laser ablation of water, liver, and skin", Appl. Phys. A, 81(2), pp.329~338 (2005)
- V. M. Allmen, "Laser drilling velocity in metals", J. Appl. Phys, 47, pp.5460~5463 (1976)
- R. Fabbro, "Physical Mechanisms Controlling Keyhole and Melt Pool Dynamics during Laser Welding", pp.211~241 (2010), Woodhead Publishing Limited
- J. J. Yang, "Ablation of metallic targets by high-intensity ultrafast laser pulses", Phys. Rev. B, 76(16), pp.165430~ (2007)
- A. Ben-Yakar, "Morphology of femtosecond-laserablated borosilicate glass surfaces", Appl. Phys. Lett, 83(15), pp.3030~3032 (2003)
- "Machining with Long Pulse Lasers" (2011)[URL]
- C. H. Shin, "Removal mechanisms of micro-scale particles by surface wave in laser cleaning", Opt Laser. Technol, 38, pp.544~551 (2006)
- R. A. Bowling, "A theoretical review of particle adhesion", Particl. Surface, 1, pp.129~142 (1988)
