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学者姓名：黄婷
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Abstract ：
Laser micro-welding differs from macro-welding in that at least one dimension of the weld is less than 100 mu m. Although process research on laser micro-welding has recently made some progress, the influence of welding mode on microstructure and corrosion resistance has remained unknown, which has been shown to have a significant influence on laser macro-welding. In this work, a single-mode fiber laser equipped with a scanning galvanometer is used to weld AISI304 stainless steel foils with a thickness of 100 mu m. Similar to laser macro -welding, keyhole formation is used to describe two welding modes, namely thermal conduction welding and penetration welding. The laser-material interaction experiences a transient phase in which the welding mode alternates between conduction welding and penetration welding as reported by previous work. However, we show that gas protection eliminates the transient phase, proving that the transient phase develops as a result of the unsteadiness of the penetration welding caused by oxidation during the welding process. The crystallographic texture and phase constitution vary between conduction and penetration welds due to variations in heat transfer behavior during welding. The conduction weld has greater sigma 3 CSL boundaries and a more uniform micro-structure than the penetration weld, resulting in better corrosion resistance.
Keyword ：
Welding mode Welding mode Laser micro-welding Laser micro-welding Corrosion resistance Corrosion resistance Microstructure Microstructure
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| GB/T 7714 | Du, Weizhe , Xu, Jiejie , Xiao, Rongshi et al. Laser micro-welding of stainless steel foil: Welding mode, microstructure and corrosion properties [J]. | OPTICS AND LASER TECHNOLOGY , 2023 , 161 . |
| MLA | Du, Weizhe et al. "Laser micro-welding of stainless steel foil: Welding mode, microstructure and corrosion properties" . | OPTICS AND LASER TECHNOLOGY 161 (2023) . |
| APA | Du, Weizhe , Xu, Jiejie , Xiao, Rongshi , Huang, Ting . Laser micro-welding of stainless steel foil: Welding mode, microstructure and corrosion properties . | OPTICS AND LASER TECHNOLOGY , 2023 , 161 . |
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Abstract ：
Laser direct writing (LDW) is a promising approach for fabricating metallic micropatterns on transparent substrates for transparent electronic circuits that satisfy both electronic and optical criteria. However, high efficiency and precision patterning remain a challenge for both photochemical and photothermal LDW. Here, a novel method is proposed with a femtosecond laser to achieve a highly-efficient photothermal process via single-photon absorption by photosensitive particles (SPA-FsLDW). The dispersive photosensitive particles act as numerous heating sources, enabling simultaneous multiple-location photothermal reactions and highly-efficient metallization due to heat-induced metal ion reduction. The new approach effectively exploits the excellent heat-input regulation with the ultrashort pulse of the femtosecond laser to achieve great temperature controllability and precision. It is shown that, with a deposition rate of approximate to 10(7) mu m(3) s(-1) and electrical resistivity of approximate to 10(-7) omega m, SPA-FsLDW improves efficiency and electrical resistivity by at least one order of magnitude compared to previously reported FsLDW. A self-powered sensor is fabricated using SPA-FsLDW, demonstrating its practical applicability.
Keyword ：
metallic micropatterns metallic micropatterns high-efficiency high-efficiency laser direct writing laser direct writing femtosecond laser femtosecond laser
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| GB/T 7714 | Cui, Mengya , Huang, Ting , Peng, Zeyu et al. High-Efficiency and Low-Intensity Threshold Femtosecond Laser Direct Writing of Precise Metallic Micropatterns on Transparent Substrate [J]. | ADVANCED MATERIALS TECHNOLOGIES , 2023 , 8 (8) . |
| MLA | Cui, Mengya et al. "High-Efficiency and Low-Intensity Threshold Femtosecond Laser Direct Writing of Precise Metallic Micropatterns on Transparent Substrate" . | ADVANCED MATERIALS TECHNOLOGIES 8 . 8 (2023) . |
| APA | Cui, Mengya , Huang, Ting , Peng, Zeyu , Xing, Lingrong , Zhou, Zheng , Guo, Liang et al. High-Efficiency and Low-Intensity Threshold Femtosecond Laser Direct Writing of Precise Metallic Micropatterns on Transparent Substrate . | ADVANCED MATERIALS TECHNOLOGIES , 2023 , 8 (8) . |
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Abstract ：
ObjectiveDeep-spaceexplorationisimportanttoinnovatespacetechnologyandexplorespaceresources Acollimatorisakeycomponentofadeep-spaceprobe however producingahighspatialresolutioncollimatorischallengingCurrentlythedeep-spaceexplorationcollimatorgridismostlycomposedofframes Castingorlaseradditivemanufacturingisusedtobuildtheinnergridstructure whichisquitethick aswellastheentireoutsidewall Thegridframeisthenusedtocreatethemicrogrooves Finallythecollimatorgridisformedbyinsertingtungstenortantalumfoilsintothemicrogrooves Furthermore collimatorgridmanufacturingtechnologiesincludeLIGAandelectricaldischargewire-cuttingTheseapproachesmayresultinthickwalls limitingthecollimator????sdutyratioandefficiencyorresultinalongermanufacturingperiod highercost andasmallergridheight ThehardX-raymodulationtelescopesatelliteHXMTwhichChinadevelopedindependentlyisusedasanexampletopresentourresearchprogressonlasermicroweldingtechnologyandequipmentdevelopmentforthecross-scalecollimatorgrid whichisfundedbytheNationalKeyResearchandDevelopmentProgram MethodsThelaserspotweldingexperimentwasconductedfirsttoidentifytheweldingparametersbasedonthestructuralfeaturesoftheHXMTcollimator Thegriddeformationfiniteelementanalysiswasthenperformedtoprovidelaserweldingguidance Finallylaserweldingequipmentwasdesignedandvalidatedtomeetthegridcelllaserweldingrequirements ResultsandDiscussionsTheHXMTcollimatoriscomposedofanaluminumalloyframewithmanytantalumgridcellsplacedintoit Laserspotweldingjunctionpointsformedbytwoorthogonalarraysoftantalumfoilsareusedtocreatethegridcell Thefabricationoftantalumfoils gridcellassemblyandweldingandgridcellinsertionintothecollimatorframeareallpartofthemanufacturingprocessFig3Forlaserweldinggridcells anIPGYLM-150 1500-QCWquasicontinuousfiberlaserandaself-developedthree-dimensional3Ddynamicfocusinggalvanometerareemployed Withabeamdiameterof40 mu m laserpowerof180--220W andpulsewidthof6--10ms awell-formedweldingspotiscreatedFig4TheresultsofthefiniteelementanalysisshowthatinstabilitydeformationiscommonduringthelaserweldingofthecollimatorgridcellFig5Toaddressthisissue anintegratedsetcombiningtantalumfoilassemblyandcollimatorgridwelding insertionisdevelopedFig6Theassemblyerrorandweldingdeformationarewell-controlled resultinginthecollimatinghole????sdimensionsaccuracybeingwithi
Keyword ：
collimator collimator cross-scalegrid cross-scalegrid deep-spaceexploration deep-spaceexploration lasermicro-welding lasermicro-welding microfabrication microfabrication lasertechnique lasertechnique
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| GB/T 7714 | Huang Ting , Du Weizhe , Su Kun et al. LaserMicroweldingTechnologyandEquipmentforCross-ScaleCollimatorGridofDeep-SpaceExplorationSatellite br [J]. | CHINESE JOURNAL OF LASERS-ZHONGGUO JIGUANG , 2022 , 49 (10) . |
| MLA | Huang Ting et al. "LaserMicroweldingTechnologyandEquipmentforCross-ScaleCollimatorGridofDeep-SpaceExplorationSatellite br" . | CHINESE JOURNAL OF LASERS-ZHONGGUO JIGUANG 49 . 10 (2022) . |
| APA | Huang Ting , Du Weizhe , Su Kun , Zhang Jianchao , Li Jingyang , Qi Junfeng et al. LaserMicroweldingTechnologyandEquipmentforCross-ScaleCollimatorGridofDeep-SpaceExplorationSatellite br . | CHINESE JOURNAL OF LASERS-ZHONGGUO JIGUANG , 2022 , 49 (10) . |
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Abstract ：
Nanosized alloy-type materials (Si, Ge, Sn, etc.) present superior electrochemical performance in rechargeable batteries. However, they fail to guarantee cycling capacity and stability under high mass loading required by industrial applications due to low electric contact and adhesive strength, which has long been a challenge. This work proposes a rational design for an alloy-type anode via facile and versatile laser microcladding and dealloying. The proposed anode features a large area porous network composed of continuous nano-ligaments, which consist of evenly distributed nanosized alloy-type material metallurgically bonded with conductive material. The fabrication of the structure is validated using Ge-Cu and Sn-Cu anodes, both exhibiting enhanced cycling stability at high areal capacity and rate performance in lithium-ion batteries. The enhancement is attributed to the structural features, which contribute to lithiation-delithiation stability and intact electron/Li ion transference path, as verified by in situ and ex situ transmission electron microscopy observations. More importantly, the critical solidification conditions of laser microcladding are provided by a multiphysics simulation, allowing for a thorough understanding of the structural formation mechanism. The study provides a possible approach to improve mass loading and performance of an alloy-type anode for practical application.
Keyword ：
mass loading mass loading dealloying dealloying electrochemical performance electrochemical performance alloy-type material alloy-type material laser microcladding laser microcladding
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| GB/T 7714 | Cao, Li , Zheng, Min , Wang, Jingbo et al. Alloy-Type Lithium Anode Prepared by Laser Microcladding and Dealloying for Improved Cycling/Rate Performance [J]. | ACS NANO , 2022 . |
| MLA | Cao, Li et al. "Alloy-Type Lithium Anode Prepared by Laser Microcladding and Dealloying for Improved Cycling/Rate Performance" . | ACS NANO (2022) . |
| APA | Cao, Li , Zheng, Min , Wang, Jingbo , Li, Songyuan , Xu, Jiejie , Xiao, Rongshi et al. Alloy-Type Lithium Anode Prepared by Laser Microcladding and Dealloying for Improved Cycling/Rate Performance . | ACS NANO , 2022 . |
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Abstract ：
Objective The precise conductive Cu micropatterns have been used in a variety of electronic devices. Compared to other traditional fabrication methods, laser direct writing is more efficient and reliable. The femtosecond laser direct writing technique, in particular, is used to construct highly conductive Cu microstructures. Femtosecond laser with ultrashort pulse duration can precisely control the heat input resulting in the reduction of Cu2+ in the laser irradiation zone without the damage of substrate. However, the intensity is as high as 10(11) W . cm(-2) and the scanning speed is generally lower than 10 mm . s(-1) to achieve the necessary reduction temperature. Si nanoparticles were added to Cu2+ solution in this study, acting as photon-absorbing nanoparticles due to their narrow band-gap. The photon-absorbing nanoparticles reduced the volume of the reduction zone by decreasing the penetration depth. The temperature of the reduction zone was rising, resulting in more efficient and less expensive direct writing. As a result, the conductive Cu microstructures were deposited on the substrate with the intensity from 5.32 x 10(9) to 8.51 x 10(9) W . cm(-2) and the scanning speed from 100 to 500 mm . s(-1). The intensity was two orders of magnitude lower, and the direct writing efficiency was three orders of magnitude higher, compared to previously reported work. The impacts of scanning speed and intensity on the morphology, chemical composition, and conductivity of Cu microstructures were investigated. The lowest sheet resistance was 0.28 Omega . sq(-1) and the lowest electrical resistivity was 4.67 x 10(-6) Omega.m at the intensity of 5.32 x 10(9) W . cm(-2) with a scanning speed of 100 mm . s(-1), respectively. Methods The solvent was prepared by mixing 6 mL of ethylene glycol and 3 mL of deionized water. 4 g of Cu( NO3)(2) . 3H(2)O was added to the solvent with ultrasonication for at least 30 min to thoroughly dissolve Cu( NO3)(2) . 3H(2)O. For 2 minutes, the liquid was heated to 170 degrees C . The solvent received 100 mg of Si nanoparticles. To obtain the suspension liquid, the mixed solution was ultrasonically homogenized for 1 h. Glass was used as a substrate that was adhered to the suspension liquid ' s surface. The laser beam scanning was controlled by a femtosecond laser equipped with a galvanometer system. After the femtosecond laser irradiation, the conductive Cu microstructure was formed on the backside of the substrate. Then, the morphologies of the Cu microstructures were characterized by optical microscopy and field emission scanning electron microscopy. The composition of the Cu microstructures was verified using X-ray diffraction. The thickness of the microstructures was measured and the three-dimensional topography of the microstructures was depicted using a surface profiler. Cu microstructures' electrical properties were measured using a source meter based on the four-point probe method. Results and Discussions The continuity of laser-fabricated microstructures and the proportion of Cu increased with the increasing intensity ( Fig. 2 and Fig. 3) . The intensity was two orders of magnitude lower than that in previous experiments. The addition of photon-absorbing Si nanoparticles to the suspension liquid resulted in a decrease in laser penetration depth in solution, raising the temperature of the laser-induced reduction zone (Fig. 4) . The more metallic Cu was obtained. The continuity of microstructures and the proportion of Cu also increased with the decreasing scanning speed ( Fig. 5 and Fig. 6 ) . The direct writing efficiency was one to three orders of magnitude higher than that in previous work ( Table 1 ) . The sheet resistance and electrical resistivity of asfabricated Cu microstructures tended to decrease with increasing intensity or decreasing scanning speed ( Fig. 7) . The Cu microstructure obtained at 5.32 x 10(9) W . cm(-2) intensity and 100 mm . s(-1) scanning speed exhibited the lowest sheet resistance of 0.28 Omega . sq(-1). Moreover, as a result of the reduction reaction threshold, the microstructure' s line width was narrower than the laser spot' s diameter. As a result, the heat input to the irradiation zone was precisely controlled, limiting the reduction zone area and resulting in finer line width formation (Fig. 9) . Conclusions In this study, highly conductive Cu microstructures were formed on a glass substrate using femtosecond laser direct writing. As photon-absorbing nanoparticles, Si nanoparticles were added to the precursor solution. With the intensity ranging from 5.32 x 10(9) W . cm(-2) to 8.51 x 10(9) W . cm(-2) and the scanning speed ranging from 100 mm.s(-1) to 500 mm . s(-1), the Cu microstructures were formed on substrates. Metallic copper, Cu2O, and minor Si were found in the copper microstructures. The results show that the continuity of the microstructure, the proportion of Cu, and the conductivity of the microstructures all increased with increasing intensity or decreasing scanning speed. At the scanning speed of 100 mm.s(-1) , the lowest sheet resistance of 0.28 Omega. sq(-1) and the lowest electrical resistivity of 4.67 x 10(-6) Omega . m were obtained. The intensity was two orders of magnitude lower than that in previous work, and the direct writing efficiency was one to three orders of magnitude higher than that in previous work. Moreover, the line width of the microstructure was significantly smaller than the diameter of the laser spot.
Keyword ：
copper microstructure copper microstructure laser direct writing laser direct writing electrical conductivity electrical conductivity femtosecond laser femtosecond laser photon-absorbing nanoparticles photon-absorbing nanoparticles laser technique laser technique
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| GB/T 7714 | Cui Mengya , Huang Ting , Xiao Rongshi . Femtosecond Laser Direct Writing of Copper Microstructures with High Efficiency via Thermal Effect of Nanoparticles [J]. | CHINESE JOURNAL OF LASERS-ZHONGGUO JIGUANG , 2022 , 49 (8) . |
| MLA | Cui Mengya et al. "Femtosecond Laser Direct Writing of Copper Microstructures with High Efficiency via Thermal Effect of Nanoparticles" . | CHINESE JOURNAL OF LASERS-ZHONGGUO JIGUANG 49 . 8 (2022) . |
| APA | Cui Mengya , Huang Ting , Xiao Rongshi . Femtosecond Laser Direct Writing of Copper Microstructures with High Efficiency via Thermal Effect of Nanoparticles . | CHINESE JOURNAL OF LASERS-ZHONGGUO JIGUANG , 2022 , 49 (8) . |
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Abstract ：
People are becoming more conscious of the necessity of sustainable development, and waste recycling is getting increased attention. As for the highly concerned Si in lithium-ion batteries (LIBs), the recycled nanoscale Si displays a small packing density that would impede its industrialization. Moreover, Si recycling commonly shows a lengthy process and specialized device usage, resulting in high energy/cost consumption and pollution. This study employs waste Al-Si alloy as raw materials and proposes a hypothermal chemical corrosion method to recycle and construct micrometer-sized spongy Si. The nanopores/nanoskeletons in the spongy Si and the amorphous carbon coating (Si@C) regulate electron/lithium ion transference, capacitance behavior, and structural stability to achieve high areal/volumetric capacity and cycling performance. The spongy Si@C anode delivers an areal and volumetric capacity of 1.13 mAh cm(-2) and 1909 mAh cm(-3) (0.05 C), respectively. Increasing mass loading further improves areal capacity to 2.52 mAh cm(-2) (0.1 mA cm(-2)) which retains 0.89 mAh cm(-2) after 100 cycles at 1.2 mA cm(-2). Furthermore, in the full-cell configuration, the initial energy density is 483 Wh kg(-1) at 0.5 C, and the capacity retention is 84% after 150 cycles at 2 C. This study provides novel insights into the efficient and economical fabrication of high-performance LIBs.
Keyword ：
micrometer-sized spongy Si micrometer-sized spongy Si areal areal recycle recycle corrosion corrosion cycling stability cycling stability volumetric capacity volumetric capacity
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| GB/T 7714 | Cao, Li , Xiao, Rongshi , Wang, Jingbo et al. Recycling Waste Al-Si Alloy for Micrometer-Sized Spongy Si with High Areal/Volumetric Capacity and Stability in Lithium-Ion Batteries [J]. | ACS SUSTAINABLE CHEMISTRY & ENGINEERING , 2022 , 10 (25) : 8143-8150 . |
| MLA | Cao, Li et al. "Recycling Waste Al-Si Alloy for Micrometer-Sized Spongy Si with High Areal/Volumetric Capacity and Stability in Lithium-Ion Batteries" . | ACS SUSTAINABLE CHEMISTRY & ENGINEERING 10 . 25 (2022) : 8143-8150 . |
| APA | Cao, Li , Xiao, Rongshi , Wang, Jingbo , Li, Songyuan , Xu, Jiejie , Huang, Ting . Recycling Waste Al-Si Alloy for Micrometer-Sized Spongy Si with High Areal/Volumetric Capacity and Stability in Lithium-Ion Batteries . | ACS SUSTAINABLE CHEMISTRY & ENGINEERING , 2022 , 10 (25) , 8143-8150 . |
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Abstract ：
In a wide range of applications, rapid fabrication of metallic patterns on a transparent substrate is highly desired. In this work, a highly conductive Cu wire with a sheet resistance of 0.27 omega/sq is deposited on glass through femtosecond laser-induced reduction of Cu ions. The present work improves the deposition efficiency by at least one order of magnitude compared to previous works. The effects of scanning speed, laser intensity, and effective pulse number on composition, morphology, dimensions, and conductivity of the deposited Cu are investigated. The process window is established with the goal of achieving optimal laser parameters for creating highly conductive Cu. With a scanning speed of 600 mm/s, an intensity of 1.21 x 10(10) W/cm(2), and an effective pulse number of 38500, the well-formed Cu in the process window has a sheet resistance of less than 1 omega/sq and the highest deposited efficiency of 4.60 x 10(7) mu m(3)/s. The current-carrying performance of the deposited Cu is also investigated for prospective use as a circuit material, demonstrating the Cu wire's electrical and thermal durability. In addition, temperature rise could be estimated from Cu wire width and sheet resistance with given Cu wire length and applied current, which could aid in laser parameter selection.
Keyword ：
Cu pattern Cu pattern Current-carrying performance Current-carrying performance Reduction of Cu2+ Reduction of Cu2+ Femtosecond laser induced-reduction Femtosecond laser induced-reduction
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| GB/T 7714 | Cui, Mengya , Huang, Ting , Xiao, Rongshi . Rapid fabrication of conductive copper patterns on glass by femtosecond Laser-Induced reduction [J]. | APPLIED SURFACE SCIENCE , 2022 , 588 . |
| MLA | Cui, Mengya et al. "Rapid fabrication of conductive copper patterns on glass by femtosecond Laser-Induced reduction" . | APPLIED SURFACE SCIENCE 588 (2022) . |
| APA | Cui, Mengya , Huang, Ting , Xiao, Rongshi . Rapid fabrication of conductive copper patterns on glass by femtosecond Laser-Induced reduction . | APPLIED SURFACE SCIENCE , 2022 , 588 . |
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Abstract ：
针对碳纤维增强树脂基复合材料的切割问题，采用515 nm波长飞秒激光进行切割工艺研究，分别用热影响区宽度、切缝锥角、切割表面粗糙度表征切割质量，用等效切割速度表征切割效率，研究了激光功率、扫描速度、脉冲频率对切割质量和效率的影响规律，并进行最终的工艺优化。结果表明：在激光功率20 W、扫描速度2500 mm/s、脉冲频率50 kHz的条件下，可以获得较优的切割质量与效率，得到的切缝周围热影响区宽度约2μm、切缝锥角约1.5°、切割表面粗糙度约Ra1.6μm。
Keyword ：
碳纤维增强树脂基复合材料 碳纤维增强树脂基复合材料 激光切割 激光切割 飞秒激光 飞秒激光
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| GB/T 7714 | 薛博 , 徐洁洁 , 张寰臻 et al. 碳纤维增强树脂基复合材料飞秒激光精密切割工艺研究 [J]. | 电加工与模具 , 2022 , PageCount-页数: 6 (05) : 35-40 . |
| MLA | 薛博 et al. "碳纤维增强树脂基复合材料飞秒激光精密切割工艺研究" . | 电加工与模具 PageCount-页数: 6 . 05 (2022) : 35-40 . |
| APA | 薛博 , 徐洁洁 , 张寰臻 , 崔梦雅 , 黄婷 , 肖荣诗 . 碳纤维增强树脂基复合材料飞秒激光精密切割工艺研究 . | 电加工与模具 , 2022 , PageCount-页数: 6 (05) , 35-40 . |
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Abstract ：
深空探测是21世纪人类进行空间技术创新、太空资源探索与利用的重要途径，准直器是深空探测器的关键部件。大深度、高空间分辨率栅格准直器的制造在国际上一直是个难题。本文以我国自主研制的硬X射线调制望远镜卫星(HXMT)中能望远镜高精度准直器为例，介绍了自主研发的大深度、高空间分辨率准直器跨尺度栅格结构的激光精密微焊接制造方法、关键工艺技术及成套装备。对于壁厚为70μm、准直孔尺寸为1.17 mm×4.68 mm、深度为67 mm的钽片跨尺度栅格结构，准直孔尺寸精度控制在SymbolqB@20μm之内。
Keyword ：
激光技术 激光技术 跨尺度栅格 跨尺度栅格 微细加工 微细加工 深空探测 深空探测 准直器 准直器 激光精密焊接 激光精密焊接
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| GB/T 7714 | 黄婷 , 杜伟哲 , 苏坤 et al. 深空探测卫星准直器跨尺度栅格结构的激光精密微焊接技术与装备 [J]. | 中国激光 , 2022 , 49 (10) : 28-36 . |
| MLA | 黄婷 et al. "深空探测卫星准直器跨尺度栅格结构的激光精密微焊接技术与装备" . | 中国激光 49 . 10 (2022) : 28-36 . |
| APA | 黄婷 , 杜伟哲 , 苏坤 , 张建超 , 李敬洋 , 祁俊峰 et al. 深空探测卫星准直器跨尺度栅格结构的激光精密微焊接技术与装备 . | 中国激光 , 2022 , 49 (10) , 28-36 . |
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Abstract ：
在Cu(NO_3)_2前驱体溶液中添加硅纳米颗粒，采用飞秒激光在透明基底表面成功直写了导电金属铜微结构。前驱体溶液中的硅颗粒作为吸光粒子吸收激光能量后对溶液进行加热，使Cu~(2+)还原为金属铜并沉积在基底表面。结果表明：当激光光强为5.32×10~9～8.51×10~9 W·cm~(-2)、扫描速度为100～500 mm·s~(-1)时，微结构主要由铜、Cu_2O及微量硅组成，铜含量及微结构的导电性随着光强的增加或扫描速度的降低而逐渐增加；在光强为5.32×10~9 W·cm~(-2)、扫描速度为100 mm·s~(-1)的条件下，铜微结构的方阻为0.28Ω·sq~(-1),电阻率为4.67...
Keyword ：
激光直写技术 激光直写技术 激光技术 激光技术 吸光粒子 吸光粒子 铜微结构 铜微结构 导电性 导电性 飞秒激光 飞秒激光
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| GB/T 7714 | 崔梦雅 , 黄婷 , 肖荣诗 . 基于纳米颗粒热效应的飞秒激光高效直写金属铜微结构 [J]. | 中国激光 , 2022 , 49 (08) : 161-171 . |
| MLA | 崔梦雅 et al. "基于纳米颗粒热效应的飞秒激光高效直写金属铜微结构" . | 中国激光 49 . 08 (2022) : 161-171 . |
| APA | 崔梦雅 , 黄婷 , 肖荣诗 . 基于纳米颗粒热效应的飞秒激光高效直写金属铜微结构 . | 中国激光 , 2022 , 49 (08) , 161-171 . |
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