Journal of Inorganic Materials, Volume. 39, Issue 1, 17(2024)
[3] R W JOHNSON, M PALMER, C WANG et al. Packaging materials and approaches for high temperature SiC power devices. Advancing Microelectronics, 8(2004).
[6] M XIE, Y GAN, H WANG. Research on the strategy of new material power for 2035. Strategic Study of CAE, 1(2020).
[7] Y MA, X J TU. Global IC industry: growth, migration and remodeling. Information and Communications Technology and Policy, 68(2022).
[8] F L HUANG, H ZHU. Semiconductor integrated circuit business unit management strategy. Manager Journal, 8: 58(2020).
[9] X WANG. Application status and development trend of semiconductor materials. Lamps & Lighting, 1: 67(2022).
[10] J CAO, Z Q ZHANG. Advances in silicon carbide power module packaging technology. Applications of IC, 20(2018).
[11] R D WANG. Advanced packaging promotes new development of semiconductor industry. China Integrated Circuit, 26(2022).
[12] Y B WU, X P DAI, Y G WANG et al. Research progress on advanced interconnect technologies in IGBT power module packaging. High Power Converter Technology, 6(2015).
[13] G Z YUAN. Micro-scale mechanical properties of lead-free solder joint interconnect interfaces for electronic packaging(2016).
[14] H Y XU, H Y XU, L K ZANG et al. Advances in low-temperature sintered copper-based electronic pastes for power device chip interconnects. Electronic Components & Materials, 9(2022).
[15] Z Z DONG. Research on some key issues of low-power silicon carbide integrated modules(2022).
[16] A HARTNETT, S BUERKI, 470-474(2009).
[17] G HUMSTON, D JACOBSON. Principles of soldering and brazing. USA: ASM International(1993).
[18] J L FAN. Controlled preparation and low-temperature sintering of silver/copper nanoparticles and their interconnection applications in microelectronic packaging. Shenzhen: Doctoral dissertation, University of Chinese Academy of Sciences (Shenzhen Institutes of Advanced Technology, Chinese Academy of Sciences)(2020).
[19] B W SHEN, G H LIU, L Q GAO et al. Research progress of new low temperature lead-free solder. Precious Metals, 1(2022).
[20] SANKA GANESAN, MICHAEL PECHT, electronics Lead-free, N.J. Hoboken. Wiley-Interscience(2006).
[23] C VIVEK, H JESPER, H JOHN. Design of lead-free candidate alloys for high-temperature soldering based on the Au-Sn system. Materials and Design, 31: 4638(2010).
[24] T J HARPSTER, K NAJAFI. Field-assisted bonding of glass to Si-Au eutectic solder for packaging applications. 16th IEEE Annual International Conference on Micro Electro Mechanical Systems. Japan: IEEE(2003).
[25] B A DREVIN, F BADAWI, F LACROIX et al. Investigation of die attach for SiC power device for 300 ℃ applications. 9th European Conference on Silicon Carbide and Related Materials (ECSCRM 2012).
[26] S HASSAM, J ROGEZ, Z BAHARI. Experimental phase diagram of the AuSb-InSb section in the Au-In-Sb system. Journal of Chemical Thermodynamics, 70: 168(2014).
[28] B L LAU, Y HAN, H Y ZHANG et al. Development of fluxles bonding using deposited gold-indium multi-layer composite for heterogeneous silicon micro-cooler stacking. IEEE 16th Electronics Packaging Technology Conference (EPTC). Singapore: IEEE(2014).
[29] A KOSTOV, L GOMIDZELOVIC, A MILOSAVLJEVIC et al. Thermodynamic characterization of solder Au-Ga alloys. Materials Chemistry and Physics, 241: 122278(2020).
[30] J C XU, M F WU, J PU et al. Novel Au-based solder alloys: a potential answer for electrical packaging problem. Advances in Materials Science and Engineering, 4969647(2020).
[33] M H ROH, H NISHIKAWA, J P JUNG et al. Trasient liquid phase bonding for power semiconductor. The Korean Microelectronics and Packaging Society, 27(2017).
[40] T L YANG, T AOKI, K MATSUMOTO et al. Full intermetallic joints for chip stacking by using thermal gradient bonding. Acta Materialia, 113: 90(2016).
[41] J Y FENG, C J HANG, Y H TIAN et al. Growth kinetics of Cu6Sn5 intermetallic compound in Cu-liquid Sn interfacial reaction enhanced by electric current. Scientific Reports, 8: 1175(2018).
[42] B L LIU, Y H TIAN, C X WANG et al. Ultrafast formation of unidirectional and reliable Cu3Sn-based intermetallic joints assisted by electric current. Intermetallics, 80: 26(2017).
[43] H Y ZHAO, J H LIU, Z L LI et al. Non-interfacial growth of Cu3Sn in Cu/Sn/Cu joints during ultrasonic-assisted transient liquid phase soldering process. Materials Letters, 186: 283(2017).
[54] H K SHAO, A P WU, Y D BAO et al. Microstructure characterization and mechanical behavior for Ag3Sn joint produced by foil- based TLP bonding in air atmosphere. Materials Science & Engineering A, 680: 221(2017).
[56] J W YOON, B S LEE. Initial interfacial reactions of Ag/In/Ag and Au/In/Au joints during transient liquid phase bonding. Microelectronic Engineering, 201: 6(2018).
[57] W K CHOI, C S PREMACHANDRAN, O S CHIEW et al. San Diego, CA, USA(2009).
[59] C K LEE, A B YU, L L YAN et al. Characterization of intermediate In/Ag layers of low temperature fluxless solder based wafer bonding for MEMS packaging. Sensors and Actuators A: Physical, 154: 85(2009).
[60] O MOKHTARI. A review: formation of voids in solder joint during the transient liquid phase bonding process-causes and solutions. Microelectronics Reliability, 98: 95(2019).
[61] W ZHANG, J J YAO, K ZHAN et al. Conductive adhesive research progress. Science & Technology Review, 56(2018).
[62] Y LI, D LU, C P WONG. NY(2010).
[63] S H LI. Gold conductive adhesive. China Adhesives, 33(1998).
[64] Y H WANG, A HUANG, H XIE et al. Isotropical conductive adhesives with very-long silver nanowires as conductive fillers. Journal of Materials Science: Materials Electronics, 28: 10(2017).
[65] S H XIONG, R C YANG, D WU et al. The effect of silver powder morphology and size on the performance of conductive adhesives. Electronic Components & Materials, 14(2005).
[66] C WAN, H Q WANG, B DU et al. The effect of silver powder morphology and surface treatment on the performance of conductive adhesives. Electronics Process Technology, 72(2011).
[67] W Y QIAO, H BAO, X H LI et al. Research on electrical conductive adhesives filled with mixed filler. International Journal of Adhesion and Adhesives, 48: 159(2014).
[68] H P WU, X J WU, M Y GE et al. Effect analysis of filler sizes on percolation threshold of isotropical conductive adhesives. Composites Science and Technology, 67: 1116(2007).
[69] M J YIM, Y LI, K S MOON et al. Oxidation prevention and electrical property enhancement of copper-filled isotropically conductive adhesives. Journal of Electronic Materials, 1342(2007).
[70] Y X LIU, X D WANG, Y X GU et al. Development of copper powder-added conductive adhesive. China Adhesives, 27(2008).
[71] Y H PENG, C H YANG, K T CHEN et al. Study on synthesis of ultrafine Cu-Ag core-shell powders with high electrical conductivity. Applied Surface Science, 263: 38(2012).
[73] Y Q FAN, Y W GU, X Y XIA. Preparation and properties of fibrous copper powder conductive filler. Electronic Components & Materials, 25(2014).
[74] J H WANG, H L MIN. Research on nickel powder conductive acrylate pressure sensitive adhesive. Insulating Materials, 5): 4(2006).
[78] H P WU, X J WU, J F LIU et al. Properties of carbon nanotube- filled isotropic conductive adhesives. Acta Materiae Compositae Sinica, 9(2006).
[80] M Z MA, H R MA, J F ZENG, et al.. Journal of Shihezi University (Natural Science), 12(2017).
[81] Y SU, Y Q DAI, B LIAO et al. Research progress of conductive filler for conductive adhesive. China Adhesives, 52(2018).
[83] W F ZHANG. Pressureless sintering of micrometer silver pastes for electrical connections and their properties(2019).
[84] X ZUO. Preparation and performance study of high thermal conductive adhesive. China Adhesives, 47(2022).
[86] J L YANG, C C DONG, J LUO. Advances in low-temperature sintering of nanosilver in novel power module packages. Materials Reports, 360(2019).
[88] N HIROSHI, H TOMOAKJ, T TADASHI. Effects of joining conditions on joint strength of Cu/Cu joint using Cu nanoparticle paste. The Open Surface Science Journal, 3: 60(2011).
[89] C HERRING. Diffusional viscosity of a polycrystalline solid. Journal of Applied Physics, 4375(1950).
[95] S K BHOGARAJU, F CONTI, H R KOTADIA et al. Novel approach to copper sintering using surface enhanced brass micro flakes for microelectronics packaging. Journal of Alloys and Compounds, 844: 156043(2020).
[96] Y GAO, W L LI, C T CHEN et al. Novel copper particle paste with self-reduction and self-protection characteristics for die attachment of power semiconductor under a nitrogen atmosphere. Materials and Design, 160: 1265(2018).
[100] D L XIANG, N HIROSHI. Improved joint strength with sintering bonding using microscale Cu particles by an oxidation-reduction process. IEEE 66th Electronic Components and Technology Conference, Las Vegas, USA.
[104] J D LIU, H T CHEN, H J JI et al. Highly conductive Cu-Cu joint formation by low-temperature sintering of formic acid-treated Cu nanoparticles. ACS Applied Materials & Interfaces, 33289(2016).
[105] X PA, J C ZHOU, J G ZHANG et al. Study on preparation and application of nano-copper powder for power semiconductor device packaging. China International Forum on Solid State Lighting & International Forum on Wide Bandgap Semiconductors China, Shenzhen.
[106] Y KOBAYASHI, T SHIROCHI, Y YASUDA et al. A metal-metal bonding process using metallic copper nanoparticles prepared in aqueous solution. International Journal of Adhesion & Adhesives, 114(2014).
[112] Z YANG, C S SADIE, G MARK et al. High bond strength Cu joints fabricated by rapid and pressureless
[114] Y MOU, H CHENG, Y PENG et al. Fabrication of reliable Cu-Cu joints by low temperature bonding isopropanol stabilized Cu nanoparticles in air.. Materials Letters, 229: 353(2018).
[115] Y MOU, Y PENG, Y ZHANG et al. Cu-Cu bonding enhancement at low temperature by using carboxylic acid surface-modified Cu nanoparticles. Materials Letters, 227: 179(2018).
Get Citation
Copy Citation Text
Xin KE, Bingqing XIE, Zhong WANG, Jingguo ZHANG, Jianwei WANG, Zhanrong LI, Huijun HE, Limin WANG.
Category:
Received: Aug. 1, 2023
Accepted: --
Published Online: Mar. 28, 2024
The Author Email: WANG Zhong (wzwz99@126.com)