[1] Song F, Lin X C. Laser Cleaning Its Applications[M]. Beijing: Tsinghua University Press, 2021. (in Chinese)
[2] A L Schawlow. Lasers. Science, 149, 13-22(1965).
[3] S M Bedair, H P Smith. Atomically clean surfaces by pulsed laser bombardment. Journal of Applied Physics, 40, 4776-4781(1969).
[4] J F Asmus, C G Murphy, W H Munk. Studies on the interaction of laser radiation with art artifacts. Developments in Laser Technology II, 41, 19-30(1973).
[5] L Lazzarini, J F Asmus. The application of laser radiation to the cleaning of statuary. Bullettin of the American Institute for Conservation of Historic and Artistic Works, 13, 39-49(1973).
[6] J F Asmus, D L Westlake, H T Newton. Laser technique for the divestment of a lost Leonardo da Vinci mural. Vacuum Science and Technology, 12, 55(1975).
[7] J F Asmus. Light cleaning: laser technology for surface preparation in the arts. Technology and Conservation, 3, 14-18(1978).
[8] J A Fox. Effect of water and paint coatings on laser-irradiated targets. Applied Physics Letters, 24, 461-464(1974).
[9] Bis Luk’yanchuk. Laser Cleaning: Optical Physics, Applied Physics Materials Science[M]. Singape: Wld Scientific, 2002.
[10] Zapka W, h K, Keyser J, et al. German patent, DE 3721940C2[P]. 19870702.
[11] V I Beklemyshev, V V Makarov, I I Makhonin, et al. Photodesorption of metal ions in a semiconductor-water system. JETP Letters, 46, 347-350(1987).
[12] M Yanishevsky, A Merati, Y Bombardier. Effect of atmospheric plasma paint removal on the fatigue performance of 2024-T3 aluminium alloy sheet. Journal of Minerals and Materials Characterization and Engineering, 6, 15-24(2018).
[13] G Zhang, X Hua, Y Huang, et al. Investigation on mechanism of oxide removal and plasma behavior during laser cleaning on aluminum alloy. Applied Surface Science, 506, 144666(2020).
[14] Y F Lu, W D Song, B W Ang, et al. A theoretical model for laser removal of particles from solid surfaces. Applied Physics A: Materials Science & Processing, 65, 9-13(1997).
[15] Y F Lu, W D Song, K D Ye, et al. Removal of submicron particles from nickel-phosphorus surfaces by pulsed laser irradiation. Applied Surface Science, 120, 317-322(1997).
[16] Y W Zheng, B S Luk’yanchuk, Y F Lu, et al. Dry laser cleaning of particles from solid substrates: experiments and theory. Journal of Applied Physics, 90, 2135-2142(2001).
[17] N Arnold. Resonance and steep fronts effects in nanosecond dry laser cleaning. Applied Surface Science, 197, 904-910(2002).
[18] N Arnold, G Schrems, D Baeuerle. Ablative thresholds in laser cleaning of substrates from particulates. Applied Physics A, 79, 729-734(2004).
[19] S Pleasants, N Arnold, D M Kane. Acoustic substrate expansion in modelling dry laser cleaning of low absorbing substrates. Applied Physics A, 79, 507-514(2004).
[20] Grojo D, Cros A, Delapte P, et al. Dynamics of particle ejection in dry laser cleaning[C]SPIE, HighPower Laser Ablation VI, 2006, 6261: 121129.
[21] D Grojo, A Cros, P Delaporte, et al. Experimental investigation of ablation mechanisms involved in dry laser cleaning. Applied Surface Science, 253, 8309-8315(2007).
[22] Zhang P, Bian B M, Li Z H. Dynamics of particle removal in laser shock cleaning[C]HighPower Laser Ablation VI, SPIE, 2006, 6261: 809819.
[23] D J Wu, Y Xu, X Y Wang, et al. Experimental and theoretical study on laser cleaning Al2O3 particle on silicon wafer surface. Optics and Precision Engineering, 14, 764-770(2006).
[24] H Lim, D Kim. Laser-assisted chemical cleaning for oxide-scale removal from carbon steel surfaces. Journal of Laser Applications, 16, 25-30(2004).
[25] W F Zou, Y M Xie, X Xiao, et al. Application of thermal stress model to paint removal by Q-switched Nd: YAG laser. Chinese Physics B, 23, 074205(2014).
[26] J Han, X Cui, S Wang, et al. Laser effects based optimal laser parameter identifications for paint removal from metal substrate at 1064 nm: A multi-pulse model. Journal of Modern Optics, 64, 1947-1959(2017).
[27] X Li, Q Zhang, X Zhou, et al. The influence of nanosecond laser pulse energy density for paint removal. Optik, 156, 841-846(2018).
[28] H C Zhao, Y L Qiao, Q Zhang, et al. Study on the characteristics and mechanism of pulsed laser cleaning of polyacrylate resin coating on aluminum alloy substrates. Applied Optics, 59, 7053-7065(2020).
[29] H Zhao, Y Qiao, X Du, et al. Paint removal with pulsed laser: Theory simulation and mechanism analysis. Applied Sciences, 9, 5500(2019).
[30] G L Zhou, L B Kong, H Y Suan. Finite element analysis of temperature field based on ANSYS in laser cleaning mold. Manufacturing Automation, 30, 90-92(2008).
[31] S L Zhang, C Suebka, H Liu, et al. Mechanisms of laser cleaning induced oxidation and corrosion property changes in AA5083 aluminum alloy. Journal of Laser Applications, 31, 012001(2019).
[32] Y V Kravchenko, S M Klimentov, S I Derzhavin, et al. Optimization of laser cleaning conditions using multimode short-pulse radiation. Optical and Quantum Electronics, 52, 1-10(2020).
[33] Tian B. Theetical model experimental study of dry laser cleaning [D]. Tianjin: Nankai University, 2008. (in Chinese)
[34] H C Hamaker. The London—van der Waals attraction between spherical particles. Physica, 4, 1058-1072(1937).
[35] H Lim, D Jang, D Kim, et al. Correlation between particle removal and shock-wave dynamics in the laser shock cleaning process. Journal of Applied Physics, 97, 054903(2005).
[36] J F Chen, Y K Zhang, D J Kong, et al. Research progress of cleaning tiny particles by short-pulsed laser. Laser Technology, 31, 301-305(2007).
[37] T Fourrier, G Schrems, T Mühlberger, et al. Laser cleaning of polymer surfaces. Applied Physics A, 72, 1-6(2001).
[38] H K Park, X Xu, C P Grigoropoulos, et al. Temporal profile of optical transmission probe for pulsed-laser heating of amorphous silicon films. Applied Physics Letters, 61, 749-751(1992).
[39] J Solis, F Vega, C N Afonso. Kinetics of laser-induced surface melting and oxide removal in single-crystalline Ge. Applied Physics A, 62, 197-202(1996).
[40] D A Wesner, M Mertin, F Lupp, et al. Cleaning of copper traces on circuit boards with excimer laser radiation. Applied Surface Science, 96, 479-483(1996).
[41] K Coupland, P R Herman, B Gu. Laser cleaning of ablation debris from CO2-laser-etched vias in polyimide. Applied Surface Science, 127, 731-737(1998).
[42] A Braun, K Otte, K Zimmer, et al. Cleaning of submicrometer structures on Si-masters with pulsed excimer laser and reactive ion etching. Applied Physics A, 69, S339-S342(1999).
[43] G Vereecke, E Röhr, M M Heyns. Laser-assisted removal of particles on silicon wafers. Journal of Applied Physics, 85, 3837-3843(1999).
[44] A A Kolomenskii, H A Schuessler, V G Mikhalevich, et al. Interaction of laser-generated surface acoustic pulses with fine particles: Surface cleaning and adhesion studies. Journal of Applied Physics, 84, 2404-2410(1998).
[45] A C Tam, H K Park, C P Grigoropoulos. Laser cleaning of surface contaminants. Applied Surface Science, 127, 721-725(1998).
[46] W Zapka, W Ziemlich, W P Leung, et al. Laser cleaning: Laser-induced removal of particles from surfaces. Advanced Materials for Optics and Electronics, 2, 63-70(1993).
[47] K Imen, S J Lee, S D Allen. Laser-assisted micron scale particle removal. Applied Physics Letters, 58, 203-205(1991).
[48] Imen K, Lee S J, Allen S D. US Patent 4, 987, 286[P]. 199101.
[49] S J Lee, K Imen, S D Allen. Shock wave analysis of laser assisted particle removal. Journal of Applied Physics, 74, 7044-7047(1993).
[50] M She, D Kim, C P Grigoropoulos. Liquid-assisted pulsed laser cleaning using near-infrared and ultraviolet radiation. Journal of Applied Physics, 86, 6519-6524(1999).
[51] M Meunier, X Wu, F Beaudoin, et al. Excimer laser cleaning for microelectronics: modeling, applications, and challenges. Laser Applications in Microelectronic and Optoelectronic Manufacturing IV, 3618, 290-301(1999).
[52] P Neves, M Arronte, R Vilar, et al. KrF excimer laser dry and steam cleaning of silicon surfaces with metallic particulate contaminants. Applied Physics A, 74, 191-199(2002).
[53] F Lang, M Mosbacher, P Leiderer. Near field induced defects and influence of the liquid layer thickness in Steam Laser Cleaning of silicon wafers. Applied Physics A, 77, 117-123(2003).
[54] P Frank, F Lang, M Mosbacher, et al. Infrared steam laser cleaning. Applied Physics A, 93, 1-4(2008).
[55] J M Lee, K G Watkins, W M Steen. Angular laser cleaning for effective removal of particles. from a solid surface. Applied Physics A, 71, 671-674(2000).
[56] S H Lee, J G Park, J M Lee, et al. Si wafer surface cleaning using laser-induced shock wave: a new dry cleaning metho-dology. Surface and Coatings Technology, 169, 178-180(2003).
[57] T Kim, J M Lee, S H Cho, et al. Acoustic emission monitoring during laser shock cleaning of silicon wafers. Optics and Lasers in Engineering, 43, 1010-1020(2005).
[58] J H Kim, Y J Suh, S S Kim. Enhanced cleaning of photoresist film on a transparent substrate by backward irradiation of a Nd: YAG laser. Applied Surface Science, 253, 1843-1848(2006).
[59] C H Tsai, W S Peng. Laser cleaning technique using laser-induced acoustic streaming for silicon wafers. Journal of Laser Micro/Nanoengineering, 12, 1-5(2017).
[60] G Vereecke, E Röhr, M M Heyns. Influence of beam incidence angle on dry laser cleaning of surface particles. Applied Surface Science, 157, 67-73(2000).
[61] Y W Zheng, Y F Lu, W D Song. Angular effect in laser removal of spherical silica particles from silicon wafers. Journal of Applied Physics, 90, 59-63(2001).
[62] V K Devarapalli, Y Li, C Cetinkaya. Post-chemical mechanical polishing cleaning of silicon wafers with laser-induced plasma. Journal of Adhesion Science and Technology, 18, 779-794(2004).
[63] J Graf, B S Luk’yanchuk, M Mosbacher, et al. Matrix laser cleaning: a new technique for the removal of nanometer sized particles from semiconductors. Applied Physics A, 88, 227-230(2007).
[64] M P Cruz, J A Diaz, J M Siqueiros. Si (100) wafers cleaned by laser ablation. International Journal of Modern Physics B, 18, 3169-3176(2004).
[65] D J Hwang, N Misra, C P Grigoropoulos, et al. In situ monitoring of laser cleaning by coupling a pulsed laser beam with a scanning electron microscope. Applied Physics A, 91, 219-222(2008).
[66] Peri M D M, Varghese I, Cetinkaya C. Laser cleaning f removal of nanomicroscale particles film contamination[M]Developments in Surface Contamination Cleaning. New Yk: William rew Publishing, 2011: 63122.
[67] K Zhou, S Sang, C Wang, et al. Principle, application and development trend of laser cleaning. Journal of Physics: Conference Series, 2383, 012075(2022).
[68] M I Cooper, D C Emmony, J Larson. Characterization of laser cleaning of limestone. Optics & Laser Technology, 27, 69-73(1995).
[69] S Siano, F Margheri, R Pini, et al. Cleaning processes of encrusted marbles by Nd: YAG lasers operating in free-running and Q-switching regimes. Applied Optics, 36, 7073-7079(1997).
[70] P V Maravelaki, V Zafiropulos, V Kilikoglou, et al. Laser-induced breakdown spectroscopy as a diagnostic technique for the laser cleaning of marble. Spectrochimica Acta Part B: Atomic Spectroscopy, 52, 41-53(1997).
[71] A Aldrovandi, C Lalli, G Lanterna, et al. Laser cleaning: a study on greyish alteration induced on non-patinated marbles. Journal of Cultural Heritage, 1, S55-S60(2000).
[72] G Marakis, P Maravelaki, V Zafiropulos, et al. Investigations on cleaning of black crusted sandstone using different UV-pulsed lasers. Journal of Cultural Heritage, 1, S61-S64(2000).
[73] P Mazzinghi, F Margheri. A short pulse, free running, Nd: YAG laser for the cleaning of stone cultural heritage. Optics and Lasers in Engineering, 39, 191-202(2003).
[74] C Rodriguez-navarro, A Rodriguez-navarro, K Elert, et al. Role of marble microstructure in near-infrared laser-induced damage during laser cleaning. Journal of Applied Physics, 95, 3350-3357(2004).
[75] Sanjeevan P, Klemm A J, Klemm P. The effects of microstructural features of mtars on the laser cleaning process[M]Brittle Matrix Composites 8. Sawston Cambridge, CB, United Kingdom: Woodhead Publishing, 2006: 4554.
[76] Marczak J, Koss A, Ostrowski R, et al. Baty''s Chapel at Wawel Castle, Cracow: laser cleaning hue measurements of epitaph stalls[C]O3A: Optics f Arts, Architecture, Archaeology. SPIE, 2007, 6618: 336343.
[77] S Siano, M Giamello, L Bartoli, et al. Laser cleaning of stone by different laser pulse duration and wavelength. Laser Physics, 18, 27-36(2008).
[78] C M Grossi, F J Alonso, R M Esbert, et al. Effect of laser cleaning on granite color. Color Research & Application, 32, 152-159(2010).
[79] M Jasinska, A Nowak, J W Lukaszewicz, et al. Colour changes of a historical Gotland sandstone caused by laser surface cleaning in ambient air and N2 flow. Applied Physics A, 92, 211-215(2008).
[80] E Urones-Garrote, A J López, A Ramil, et al. Microstructural study of the origin of color in Rosa Porriño granite and laser cleaning effects. Applied Physics A, 104, 95-101(2011).
[81] H Garbacz, E Fortuna, J Marczak, et al. Laser cleaning of copper roofing sheets subjected to long-lasting environmental corrosion. Applied Physics A, 100, 693-701(2010).
[82] V I Kudryashov, A S Serebryakov, V A Parfenov. Using an X-ray-fluorescence analyzer to monitor laser cleaning in restoration. Journal of Optical Technology, 77, 469-472(2010).
[83] Dajnowski B A. Laser ablation cleaning of an underwater archaeological bronze spectacle plate from the HMS DeBraak shipwreck[C]Optics f Arts, Architecture, Archaeology IV. SPIE, 2013, 8790: 337346.
[84] G Buccolieri, V Nassisi, A Buccolieri, et al. Laser cleaning of a bronze bell. Applied Surface Science, 272, 55-58(2013).
[85] Siano Salvatore, Salimbeni Renzo, Pini Roberto, et al. Laser cleaning methodology for the preservation of the Porta del Paradiso by Lorenzo Ghiberti. Journal of Cultural Heritage, 4, 140-146(2003).
[86] E Basso, F Pozzi, M C Reiley. The samuel FB morse statue in central park: scientific study and laser cleaning of a 19th-century American outdoor bronze monument. Heritage Science, 8, 1-14(2020).
[87] Davis M. Laser cleaning the abergavenny hoard: silver coins from the time of william the conquer [C]Springer Proceedings in Physics, 2007, 116: 4551.
[88] VlachouMogire C, Drakaki E, Serafetinides A A, et al. Experimental study on the effect of wavelength fluence in the laser cleaning of silvering in late Roman coins ( 3rd4th century AD)[C]14th International School on Quantum Electronics: Laser Physics Applications. SPIE, 2007, 6604: 233237.
[89] Drakaki E, Evgenidou D, Kantarelou V, et al. Laser cleaning experimental investigations on ancient coins[C]15th International School on Quantum Electronics: Laser Physics Applications. SPIE, 2008, 7027: 5766.
[90] F Colao, R Fantoni, V Lazic, et al. LIBS as a diagnostic tool during the laser cleaning of copper based alloys: experimental results. Journal of Analytical Atomic Spectrometry, 19, 502-504(2004).
[91] F J Fortes, L M Cabalín, J J Laserna. The potential of laser-induced breakdown spectrometry for real time monitoring the laser cleaning of archaeometallurgical objects. Spectro-chimica Acta Part B: Atomic Spectroscopy, 63, 1191-1197(2008).
[92] Degrigny Christian, Tanguy Eric, Le Gall René, et al. Laser cleaning of tarnished silver and copper threads in museum textiles. Journal of Cultural Heritage, 4, 152-156(2003).
[93] J M Lee, J E Yu, Y S Koh. Experimental study on the effect of wavelength in the laser cleaning of silver threads. Journal of Cultural Heritage, 4, 157-161(2003).
[94] O Abdel-kareem, M A Harith. Evaluating the use of laser radiation in cleaning of copper embroidery threads on archaeological Egyptian textiles. Applied Surface Science, 254, 5854-5860(2008).
[95] P Gaspar, M Rocha, A Kearns, et al. A study of the effect of the wavelength in the Q-switched Nd: YAG laser cleaning of gilded wood. Journal of cultural heritage, 1, 133-144(2000).
[96] Castillejo Marta, Martín Margarita, Oujja Mohamed, et al. Effect of wavelength on the laser cleaning of polychromes on wood. Journal of Cultural Heritage, 4, 243-249(2003).
[97] S Acquaviva, E D’anna, Giorgi M L De, et al. Laser cleaning of gilded wood: A comparative study of colour variations induced by irradiation at different wavelengths. Applied Surface Science, 253, 7715-7718(2007).
[98] B Romina, M Antonio, M Paolo, et al. Preliminary laser cleaning studies of a consolidated prehistoric basketry coming from the pile building of Fiavè-Carera in the north-east of Italy. Laser Chemistry, 2006, 1-5(2006).
[99] Koss A, Lubryczynska M, Czernichowska J, et al. Conservation of wooden art wks laser cleaning[C]O3A: Optics f Arts, Architecture, Archaeology II. SPIE, 2009, 7391: 259270.
[100] Gaetani Carolina, Santamaria Ulderico. The laser cleaning of wall paintings. Journal of Cultural Heritage, 1, S199-S207(2000).
[101] M Castillejo, M Martín, M Oujja, et al. Analytical study of the chemical and physical changes induced by KrF laser cleaning of tempera paints. Analytical Chemistry, 74, 4662-4671(2002).
[102] riani S E, Catalano I M, Bruto A, et al. A new solution f the painting artwk rear cleaning restation: The laser cleaning[M]Lasers in the Conservation of Artwks. Berlin: Springer, 2007: 257268.
[103] Selimis A, Vounisiou P, Tserevelakis G J, et al. Indepth assessment of modifications induced during the laser cleaning of modern paintings[C]O3A: Optics f Arts, Architecture, Archaeology II. SPIE, 2009, 7391: 282288.
[104] P Vounisiou, A Selimis, G J Tserevelakis, et al. The use of model probes for assessing in depth modifications induced during laser cleaning of modern paintings. Applied Physics A, 100, 647-652(2010).
[105] W Kautek, S Pentzien, P Rudolph, et al. Laser interaction with coated collagen and cellulose fibre composites: fundamentals of laser cleaning of ancient parchment manuscripts and paper. Applied Surface Science, 127, 746-754(1998).
[106] J P Duarte, P Pecas. Excimer laser cleaning of mud stained paper and parchment. Revista de Metalurgia, 34, 101-103(1998).
[107] C J Kennedy, Marie Vest, M Cooper, et al. Laser cleaning of parchment: structural, thermal and biochemical studies into the effect of wavelength and fluence. Applied Surface Science, 227, 151-163(2003).
[108] K Ochocińska, A Kamińska, G Śliwiński. Experimental inves-tigations of stained paper documents cleaned by the Nd: YAG laser pulses. Journal of Cultural Heritage, 4, 188-193(2003).
[109] R Belli, A Miotello, P Mosaner, et al. Laser cleaning of ancient textiles. Applied Surface Science, 247, 369-372(2005).
[110] R Belli, A Miotello, P Mosaner, et al. Laser cleaning of artificially aged textiles. Applied Physics A, 83, 651-655(2006).
[111] F Bloisi, L Vicari, A C Barone, et al. Effects of Nd: YAG (532 nm) laser radiation on ‘clean’ cotton. Applied Physics A, 79, 331-333(2004).
[112] J Kolar, M Strlič, D Müller-hess, et al. Laser cleaning of paper using Nd: YAG laser running at 532 nm. Journal of Cultural Heritage, 4, 185-187(2003).
[113] M Strlic, V S Selih, J Kolar, et al. Optimisation and on-line acoustic monitoring of laser cleaning of soiled paper. Applied Physics A, 81, 943-951(2005).
[114] F Landucci, E Pecchioni, D Torre, et al. Toward an optimized laser cleaning procedure to treat important palaeontological specimens. Journal of Cultural Heritage, 4, 106-110(2003).
[115] O Madden, P Pouli, M Abraham, et al. Removal of dye-based ink stains from ivory: evaluation of cleaning results based on wavelength dependency and laser type. Journal of Cultural Heritage, 4, 98-105(2003).
[116] Marczak J, Ostrowski R, Rycyk A, et al. Set of advanced laser cleaning heads systems[C]O3A: Optics f Arts, Architecture, Archaeology II, SPIE, 2009, 7391: 271281.
[117] C Pelosi, D Fodaro, L Sforzini, et al. Study of the laser cleaning on plaster sculptures. The effect of laser irradiation on the surfaces. Optics & Spectroscopy, 121-132(2013).
[118] Pérez Carmen, Barrera Mercedes, Díez Laura. Positive findings for laser use in cleaning cellulosic supports. Journal of Cultural Heritage, 4, 194-200(2003).
[119] T Rivas, S Pozo, M P Fiorucci, et al. Nd: YVO4 laser removal of graffiti from granite. Influence of paint and rock properties on cleaning efficacy. Applied Surface Science, 263, 563-572(2012).
[120] G S Senesi, I Carrara, G Nicolodelli, et al. Laser cleaning and laser-induced breakdown spectroscopy applied in removing and characterizing black crusts from limestones of Castello Svevo, Bari, Italy: a case study. Microchemical Journal, 124, 296-305(2016).
[121] A Tsunemi, K Hagiwara, N Saito, et al. Complete removal of paint from metal surface by ablation with a TEA CO2 laser. Applied Physics A, 63, 435-439(1996).
[122] Y P Lee, S T Loong, M S Zhou, et al. Application of laser-cleaning technique for efficient removal of via-etch-induced polymers. Journal of the Electrochemical Society, 145, 3966(1998).
[123] R Oltra, O Yavaş, O Kerrec. Pulsed laser cleaning of oxidized metallic surfaces in electrochemically controlled liquid confi-nement. Surface and Coatings Technology, 88, 157-161(1997).
[124] A V Rode, D Freeman, K G H Baldwin, et al. Scanning the laser beam for ultrafast pulse laser cleaning of paint. Applied Physics A, 93, 135-139(2008).
[125] P Bracco, G Lanterna, M Matteini, et al. Er: YAG laser: an innovative tool for controlled cleaning of old paintings: testing and evaluation. Journal of Cultural Heritage, 4, 202-208(2003).
[126] G X Chen, T J Kwee, K P Tan, et al. Laser cleaning of steel for paint removal. Applied Physics A, 101, 249-253(2010).
[127] M Shamsujjoha, S R Agnew, M A Melia, et al. Effects of laser ablation coating removal (LACR) on a steel substrate: Part 1: Surface profile, microstructure, hardness, and adhesion. Surface and Coatings Technology, 281, 193-205(2015).
[128] Y Liu, W Liu, D Zhang, et al. Experimental investigations into cleaning mechanism of ship shell plant surface involved in dry laser cleaning by controlling laser power. Applied Physics A, 126, 1-17(2020).
[129] M K A A Razab, M S Jaafar, N H Abdullah, et al. Influence of elemental compositions in laser cleaning for automotive coating systems. Journal of Russian Laser Research, 37, 197-206(2016).
[130] H A Jasim, A G Demir, B Previtali, et al. Process development and monitoring in stripping of a highly transparent polymeric paint with ns-pulsed fiber laser. Optics & Laser Technology, 93, 60-66(2017).
[131] Z Zhang, J Zhang, Y Wang, et al. Removal of paint layer by layer using a 20 kHz 140 ns quasi-continuous wave laser. Optik, 174, 46-55(2018).
[132] H Zhao, Y Qiao, X Du, et al. Laser cleaning performance and mechanism in stripping of Polyacrylate resin paint. Applied Physics A, 126, 1-14(2020).
[133] G Zhang, X Hua, F Li, et al. Effect of laser cleaning process parameters on the surface roughness of 5754-grade aluminum alloy. The International Journal of Advanced Manufac-turing Technology, 105, 2481-2490(2019).
[134] Y Lu, L J Yang, Y Wang, et al. Paint removal on the 5A06 aluminum alloy using a continuous wave fiber laser. Coatings, 9, 488(2019).
[135] T Shan, F Yin, S Wang, et al. Surface integrity control of laser cleaning of an aluminum alloy surface paint layer. Applied Optics, 59, 9313-9319(2020).
[136] Du P. Experimental study on paint removal by pulsed laser preparation of laser paint removal test [D]. Tianjin: Nankai University, 2012. (in Chinese)
[137] H Y Lee, N C Cho. Experimental study of Nd: YAG laser cleaning system for removing acrylic resin and surface characteristic. Journal of the Korean Institute of Surface Engineering, 45, 143-150(2012).
[138] C Hu, G He, J Chen, et al. Research on cleaning mechanism of anti-erosion coating based on thermal and force effects of laser shock. Coatings, 10, 683(2020).
[139] Z Kuang, W Guo, J Li, et al. Nanosecond fibre laser paint stripping with suppression of flames and sparks. Journal of Materials Processing Technology, 266, 474-483(2019).
[140] Q Gao, Y Li, H Wang, et al. Effect of scanning speed with UV laser cleaning on adhesive bonding tensile properties of CFRP. Applied Composite Materials, 26, 1087-1099(2019).
[141] Y Tong, X Chen, A Zhang, et al. Effect of laser cleaning of carbon fiber-reinforced polymer and surface modification on chemical activity and bonding strength. Applied Optics, 59, 10149-10159(2020).
[142] P E Lafargue, N Chaoui, E Millon, et al. The laser ablation/desorption process used as a new method for cleaning treatment of low carbon steel sheets. Surface and Coatings Technology, 106, 268-276(1998).
[143] Psyllaki Pandora, Oltra Roland. Preliminary study on the laser cleaning of stainless steels after high temperature oxidation. Materials Science & Engineering A, 282, 145-152(2000).
[144] A Siatou, D Charalambous, V Argyropoulos, et al. A compre-hensive study for the laser cleaning of corrosion layers due to environmental pollution for metal objects of cultural value: preliminary studies on artificially corroded coupons. Laser Chemistry, 2006, 085324(2006).
[145] Veiko V P, Petrov A A, Maznev A S, et al. Laser rail cleaning f friction coefficient increase[C]Fundamentals of LaserAssisted Micro Nanotechnologies 2010, SPIE, 2011, 7996: 310315.
[146] A Kumar, M Sapp, J Vincelli, et al. A study on laser cleaning and pulsed gas tungsten arc welding of Ti–3Al–2.5V alloy tubes. Journal of Materials Processing Technology, 210, 64-71(2010).
[147] E Kayahan, L Candan, M Aras, et al. Surface cleaning of metals using low power fiber lasers. Acta Physica Polonica A, 134, 371-373(2018).
[148] Y Wan, C Xi, H Yu. Fabrication of self-cleaning superhydro-phobic surface on stainless steel by nanosecond laser. Materials Research Express, 5, 115002(2018).
[149] Y F Lu, W D Song, M H Hong, et al. Mechanism of and method to avoid discoloration of stainless steel surfaces in laser cleaning. Applied Physics A, 64, 573-578(1997).
[150] T Dimogerontakis, R Oltra, O Heintz. Thermal oxidation induced during laser cleaning of an aluminium-magnesium alloy. Applied Physics A, 81, 1173-1179(2005).
[151] F D Zhang, H Liu, C Suebka, et al. Corrosion behaviour of laser-cleaned AA7024 aluminium alloy. Applied Surface Science, 435, 452-461(2018).
[152] H Liu, Y Xue, J Li, et al. Investigation of laser power output and its effect on Raman spectrum for marine metal corrosion cleaning. Energies, 13, 12(2019).
[153] Y Lu, Y Ding, G Wang, et al. Ultraviolet laser cleaning and surface characterization of AH36 steel for rust removal. Journal of Laser Applications, 32, 032023(2020).
[154] M Ma, L Wang, J Li, et al. Investigation of the surface integrity of Q345 steel after Nd: YAG laser cleaning of oxidized mining parts. Coatings, 10, 716(2020).
[155] L Zhu, B Sun, Z Li, et al. The weld quality improvement via laser cleaning pre-treatment for laser butt welding of the HSLA steel plates. Welding in the World, 64, 1715-1723(2020).
[156] C Zhou, H Li, G Chen, et al. Effect of single pulsed picosecond and 100 nanosecond laser cleaning on surface morphology and welding quality of aluminium alloy. Optics & Laser Tech-nology, 127, 106197(2020).
[157] G Zhu, S Wang, M Zhang, et al. Application of laser cleaning in postwelding treatment of aluminum alloy. Applied Optics, 59, 10967-10972(2020).
[158] G Zhu, S Wang, W Cheng, et al. Investigation on the surface properties of 5A12 aluminum alloy after Nd: YAG laser cleaning. Coatings, 9, 578(2019).
[159] K Narihara, S Hirokura. Cleaning of Thomson scattering window by a laser blow-off method. Review of Scientific Instruments, 63, 3527-3528(1992).
[160] Y F L Y F Lu, S K S Komuro, Y A Y Aoyagi. Laser-induced removal of fingerprints from glass and quartz surfaces. Japanese Journal of Applied Physics, 33, 4691(1994).
[161] Y F Lu, W D Song, M H Hong, et al. Laser removal of particles from magnetic head sliders. Journal of Applied Physics, 80, 499-504(1996).
[162] H Römich, K Dickmann, P Mottner, et al. Laser cleaning of stained glass windows–Final results of a research project. Journal of Cultural Heritage, 4, 112-117(2003).
[163] M J Jackson, A Khangar, X Chen, et al. Laser cleaning and dressing of vitrified grinding wheels. Journal of Materials Processing Tech, 185, 17-23(2007).
[164] M P Mateo, G Nicolas, V Pinon, et al. Laser cleaning: an alternative method for removing oil-spill fuel residues. Applied Surface Science, 247, 333-339(2005).
[165] M W Turner, M J J Schmidt, L Li. Preliminary study into the effects of YAG laser processing of titanium 6Al–4V alloy for potential aerospace component cleaning application. Applied Surface Science, 247, 623-630(2005).
[166] V Svedas, A S Dement'ev, E Murauskas, et al. Cleaning of contaminated paper with the subnanosecond Nd: YAG laser pulses. Lithuanian Journal of Physics, 47, 221-228(2007).
[167] S Arif, W Kautek. Laser cleaning of particulates from paper: Comparison between sized ground wood cellulose and pure cellulose. Applied Surface Science, 276, 53-61(2013).
[168] H Ranner, P K Tewari, H Kofler, et al. Laser cleaning of optical windows in internal combustion engines. Optical Engineering, 46, 104301(2007).
[169] A Widdowson, J P Coad, D Farcage, et al. Detritiation of JET tiles by laser cleaning. Fusion Science and Technology, 54, 51-54(2008).
[170] Cnish L, Ball A, Russell D. Laser Cleaning of Avian Eggshell[M]Lasers in the Conservation of Artwks. Berlin: Springer, 2007: 169176.
[171] Batishche S, Kouzmouk A, Tatur H, et al. Simultaneous UVIR Nd: YAG laser cleaning of leather artifacts[M]Lasers in the Conservation of Artwks. Berlin: Springer, 2007: 221227.
[172] Lerber K, Strlic M, Kolar J, et al. Laser cleaning of undyed silk: Indications of chemical change[M]Lasers in the Conservation of Artwks. Berlin: Springer, 2007: 313320.
[173] A Costela, I Garcı́a-Moreno, C Gómez, et al. Cleaning graffitis on urban buildings by use of second and third harmonic wavelength of a Nd: YAG laser: a comparative study. Applied Surface Science, 207, 86-99(2003).
[174] C L Zhang, X B Li, Z G Wang, et al. Laser cleaning techniques for removing surface particulate contaminants on sol-gel SiO2 films. Chinese Physics Letters, 28, 074205(2011).
[175] G W Kang. Research on laser cleaning of ultra precision machining hard-brittle workpieces. Applied Mechanics & Materials, 44-47, 3314-3317(2011).
[176] K Mann, B Wolff-rottke, F Mu. Cleaning of optical surfaces by excimer laser radiation. Applied Surface Science, 96, 463-468(1996).
[177] A Widdowson, J P Coad, Temmerman G De, et al. Removal of beryllium-containing films deposited in JET from mirror surfaces by laser cleaning. Journal of Nuclear Materials, 415, S1199-S1202(2011).
[178] A Leontyev, A Semerok, D Farcage, et al. Theoretical and experimental studies on molybdenum and stainless steel mirrors cleaning by high repetition rate laser beam. Fusion Engineering & Design, 86, 1728-1731(2011).
[179] R Hai, Q Xiao, L Zhang, et al. Characterization and removal of co-deposition on the first mirror of HL-2 A by excimer laser cleaning. Journal of Nuclear Materials, 436, 118-122(2013).
[180] M Wisse, L Marot, B Eren, et al. Laser damage thresholds of ITER mirror materials and first results on in situ laser cleaning of stainless steel mirrors. Fusion Engineering & Design, 88, 388-399(2013).
[181] A Uccello, A Maffini, D Dellasega, et al. Laser cleaning of pulsed laser deposited rhodium films for fusion diagnostic mirrors. Fusion Engineering and Design, 88, 1347-1351(2013).
[182] A Singh, A Choubey, M H Modi, et al. Cleaning of carbon layer from the gold films using a pulsed Nd: YAG laser. Applied Surface Science, 283, 612-616(2013).
[183] A Choubey, A Singh, M H Modi, et al. Study on effective cleaning of gold layer from fused silica mirrors using nanosecond-pulsed Nd: YAG laser. Applied Optics, 52, 7540-7548(2013).
[184] C Tomas, J P Girardeau-Montaut. Afif M, et al. Dependence of photoemission efficiency on the pulsed laser cleaning of Tungsten photocathodes, part 1: Experimental. Applied Physics A: Materials Science & Processing, 64, 467-471(1997).
[185] C Tomas, J P Girardeau-montaut, M Afif, et al. Photoemission monitored cleaning of pure and implanted tungsten photo-cathodes by picosecond UV laser. Applied Surface Science, 109, 509-513(1997).
[186] F Zhou, A Brachmann, F J Decker, et al. High-brightness electron beam evolution following laser-based cleaning of a photocathode. Physical Review Special Topics-Accelerators and Beams, 15, 090703(2012).
[187] M Jin, Y Zhang, X Chen, et al. Effect of surface cleaning on spectral response for InGaAs photocathodes. Applied Optics, 54, 10630-10635(2015).
[188] W C Lin. Application of laser cleaning technology in manufacture of radar T/R module. Electronics Process Technology, 34, 352-355(2013).
[189] O Ochedowski, B K Bußmann, M Schleberger. Laser cleaning of exfoliated graphene. MRS Online Proceedings Library, 1455, 25-30(2012).
[190] A Bahar, S Tagomori. The effect of normal pulsed Nd-YAG laser irradiation on pits and fissures in human teeth. Caries Research, 28, 460-467(1994).
[191] Siedel Heiner, Neumeister Katrin, J Gordon Sobott Robert. Laser cleaning as a part of the restoration process: removal of aged oil paints from a Renaissance sandstone portal in Dresden, Germany. Journal of Cultural Heritage, 4, 11-16(2003).
[192] R Larciprete, E Borsella, P Cinti. KrF-excimer-laser-induced native oxide removal from Si (100) surfaces studied by Auger electron spectroscopy. Applied Physics A, 62, 103-114(1996).
[193] S D Shi, P Du, W Li, et al. Research on paint removal with 1064 nm quasi-continuous-wave laser. Chinese Journal of Lasers, 39, 0903001(2012).
[194] R Larciprete, E Borsella. Excimer laser cleaning of Si (100) surfaces at 193 and 248 nm studied by LEED, AES and XPS spectroscopies. Journal of Electron Spectroscopy and Related Phenomena, 76, 607-612(1995).
[195] R Chapoulie, S Cazenave, M Duttine. Laser cleaning of historical limestone buildings in Bordeaux appraisal using cathodoluminescence and electron paramagnetic resonance. Environmental Science and Pollution Research, 15, 237-243(2008).
[196] V B Bregar, J Možina. Optoacoustic analysis of the laser-cleaning process. Applied Surface Science, 185, 277-288(2002).
[197] V B Bregar, J Možina. Shock-wave generation during dry laser cleaning of particles. Applied Physics A, 77, 633-639(2003).
[198] J Hildenhagen, K Dickmann. Low-cost sensor system for online monitoring during laser cleaning. Journal of Cultural Heritage, 4, 343-346(2003).
[199] A Khedr, V Papadakis, P Pouli, et al. The potential use of plume imaging for real-time monitoring of laser ablation cleaning of stonework. Applied Physics B, 105, 485-492(2011).
[200] C Cucci, Pascale O De, G S Senesi. Assessing laser cleaning of a limestone monument by fiber optics reflectance spectroscopy (FORS) and visible and near-infrared (VNIR) hyperspectral imaging (HSI). Minerals, 10, 1052(2020).
[201] J Li, H Liu, L Shi, et al. Imaging feature analysis-based intelligent laser cleaning using metal color difference and dynamic weight dispatch corrosion texture. Photonics, 7, 130(2020).
[202] H Liu, J Li, Y Yang, et al. Automatic process parameters tuning and surface roughness estimation for laser cleaning. IEEE Access, 8, 20904-20919(2020).
[203] F Song, S J Liu, K Z Niu, et al. Principle and application research on laser cleaning. Cleaning World, 21, 1-6(2005).
[204] F Song, S J Liu, B X Yan. Laser cleaning. Cleaning World, 20, 43-48(2004).
[205] B Tian, W F Zou, S J Liu, et al. Introduction of rust removed by dry laser cleaning. Cleaning World, 22, 33-38(2006).
[206] F Song, W F Zou, S J Liu, et al. Some applications of laser cleaning. Cleaning World, 22, 38-41(2006).
[207] Chen H. Research of the steam laser cleaning printed circuit board by teaCO2 pulse laser [D]. Wuhan: Huazhong University of Science & Technology, 2007. (in Chinese)
[208] X P Li, X T Zu, X D Yuan, et al. Effects of CO2 laser and vacuum plasma cleanings on silica-oil and-grease polluted quartz substrates. High Power Laser and Particle Beams, 19, 1739-1743(2007).
[209] Y Y Ye, X D Yuan, X Xiang, et al. Clearance of SiO2 particles on K9 glass surfaces by means of laser Shockwave. Laser Technology, 35, 245-248(2011).
[210] X T Zhang, P Y Zhang, C Yang, et al. Laser cleaning technology in the conservation of gilt bronze. Sciences of Conservation and Archaeology, 98-103(2013).
[211] Y Zhao, J M Chen, M H Jiang. Laser cleaning of mildew on the Chinese painting and calligraphy. Applied Laser, 154-157(2009).
[212] J F Chen, Y K Zhang, R J Xu, et al. Experimental research of paint removement with a fast axis flow CO2 laser. Laser Technology, 32, 64-66(2008).
[213] H Zhang, W W Liu, Y Z Dong, et al. Experimental and mechanism research on paint removal with low frequency YAG pulsed laser. Laser & Optoelectronics Progress, 50, 121401(2013).
[214] Lu L. Research on the key technology of all solid state 1 064 nm532 nm dualwavelength laser cleaner [D]. Changchun: Changchun University of Science Technology, 2012. (in Chinese)
[215] X Li, D Wang, J Gao, et al. Influence of ns-laser cleaning parameters on the removal of the painted layer and selected properties of the base metal. Materials, 13, 5363(2020).
[216] G L Zhou, H Y Sun, C S Wang. Research on laser cleaning process to rubber mold. Special Purpose Rubber Products, 29, 34-36(2008).
[217] Hou S X, Tai Y, Liu C, et al. Study on laser cleaning technology of steam generat heat transfer tube [C]Progress Rept on Nuclear Science Technology in ChinaProceedings of the 2009 Annual Conference of the Chinese Nuclear Society (Vol.1 Vol.5), 2009. (in Chinese)
[218] S Y Xu. Laser cleaning roller. Printing Field, 52-53(2013).
[219] Gao Z X, Tang X Z, Zhang S Z, et al. Using laser to clean simulated targets of radioactive contaminated metal [C]Annual Rept of China Institute of Atomic Energy, 2009: 302. (in Chinese)
[220] Y Y Ye, X D Yuan, X Xiang, et al. CO2 laser-cleaning of dimethylsilicone contamination on gilded film surface. High Power Laser and Particle Beams, 22, 968-972(2010).
[221] Y Ye, X Yuan, X Xiang, et al. Laser cleaning of particle and grease contaminations on the surface of optics. Optik, 123, 1056-1060(2012).
[222] X J Gan, Y Chen, L Li. Laser cleaning of neutral attenuator plate based on low power laser diode. Advanced Materials Research, 614-615, 1547-1552(2013).
[223] X M Huang. Study on laser cleaning and pulsed tungsten arc welding of Ti-3Al-2.5V titanium alloy tube. Titanium Industry Progress, 29, 44(2012).
[224] C Ling, L F Ji, Q R Li, et al. Experimental study on laser cleaning orthodontic brackets. Applied Laser, 40-43(2013).
[225] Y F Zhu, R Q Tan. Graffiti removal-new applications of laser cleaning. Laser & Infrared, 41, 840-844(2011).
[226] L Guo, Y Li, S Geng, et al. Numerical and experimental analysis for morphology evolution of 6061 aluminum alloy during nanosecond pulsed laser cleaning. Surface and Coatings Technology, 432, 128056(2022).
[227] H Yang, H Liu, R Gao, et al. Numerical simulation of paint stripping on CFRP by pulsed laser. Optics & Laser Technology, 145, 107450(2022).
[228] Y Lu, Y Ding, M L Wang, et al. An environmentally friendly laser cleaning method to remove oceanic micro-biofoulings from AH36 steel substrate and corrosion protection. Journal of Cleaner Production, 314, 127961(2021).
[229] F Song, B Tian, W F Zou, et al. An introduction to laser cleaning equipment. Cleaning World, 22, 27-32(2006).
[230] S Yang, W Q Song, Z L Lei, et al. Effect of energy input on nanosecond pulsed laser cleaning of TC4 titanium alloy. Titanium Industry Progress, 38, 31-36(2021).
[231] Y Q Li, L Y Guo, P Jiang, et al. Experimental study on surface morphology changes of aluminum alloy using laser cleaning and optimization of process parameters. Chinese Journal of Lasers, 48, 2202016(2021).
[232] M Zhu, J Z Zhou, X K Meng, et al. Optimization of laser cleaning process parameters for Q345C steel rust layer based on response surface. Surface Technology, 48, 381-391(2019).
[233] Y Ren, W T Wang, S Jing, et al. Effect of laser cleaning on the surface properties of aluminum alloy tire mold. Applied Laser, 40, 901-906(2020).
[234] K Gao, Q S Zeng, Z Y Zhang, et al. Adhesion of residual primer paint after laser cleaning aircraft aluminum alloy skin. Laser & Optoelectronics Progress, 58, 0914006(2021).
[235] K W Zhang. Laser cleaning technology for surface. World Manufacturing Engineering & Market, 84-89(2007).
[236] H J Yoo, S Baek, J H Kim, et al. Effect of laser surface cleaning of corroded 304L stainless steel on microstructure and mechanical properties. Journal of Materials Research and Technology, 16, 373-385(2022).
[237] A Kumar, S Gumma, S Roychowdhury, et al. Laser-assisted removal of weld heat tints from stainless steel surface. Journal of Laser Applications, 34, 012003(2022).
[238] W Huang, Z Y Zhou, Y L Cui, et al. 4.5 W 3.1 μm mid-infrared fiber gas laser. Chinese Journal of Lasers, 49, 0101024(2022).
