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Wenting Shao*, Shangkun Wu, Wei Yang, Jiahua He, Shuaidan Lu, Dapeng Xu and Jian Chen. Effects of modulation period on microstructures and mechanical properties of (AlSiTiVNbCr)N/(AlSiTiVNbCr)CN nano-multilayer films, Vacuum, 2023, 170: 111660. (SCI) 2. Wenting Shao*, Xiangyu Wu, Bailing Jiang, Jian Chen, Wei Yang. Conductive and corrosion-resistant properties of graphite-like carbon coating on 6061 aluminum alloy bipolar plate for proton exchange membrane fuel cell, Rare metal materials and Engineering, 2022, 55(1): 1-5. (SCI) 3. Wenting Shao, Bailing Jiang*, Jun Ma, Fangyuan Yan. Mechanism for vacuum thermal stabilization of silver in silver doped carbon coating and performance of electrical conductivity and corrosion resistance, Thin Solid Films, 2019, 693: 137658-137664. (SCI) 4. Wenting Shao, Bailing Jiang*, Jun Ma, Xinyu Zhang. Effect of cluster interface structure on the spontaneous escape behavior of silver in ion plating coatings and its inhibition mechanism, Thin Solid Films, 2018, 664: 6-11. (SCI) 5. Wenting Shao, Xinyu Zhang, Bailing Jiang*, Canan Liu, Hongtao Li. Spontaneous escape behavior of silver from graphite-like carbon coating and its inhibition mechanism, Journal of Materials Science & Technology, 2017, 33(11): 1402-1408. (SCI) 6. ÉÛÎÄæÃ, ½¯°ÙÁé*, ·¿°®´æ. þºÏ½ð΢»¡Ñõ»¯ÌåϵÖÐËÄÅðËáÄÆµÄ×÷ÓûúÀíÑо¿, Ï¡ÓнðÊô²ÄÁÏÓ빤³Ì, 2016, 45(4): 918-922. (SCI) 7. Xiaoqian Shi , Wei Yang*, Zhaohui Cheng, Wenting Shao, Dapeng Xu, Yong Zhang, Jian Chen*. Influence of micro arc oxidation on high temperature oxidation resistance of AlTiCrVZr refractory high entropy alloy, International Journal of Refractory Metals and Hard Materials, 2021, 98: 137658-105562. (SCI) 8. Shuaidan Lu , Xiaoxiao Li , Xiaoyu Liang , Wenting Shao, Wei Yang , Jian Chen *. Effect of Al content on the oxidation behavior of refractory high-entropy alloy AlMo0.5NbTa0.5TiZr at elevated temperatures, International Journal of Refractory Metals and Hard Materials, 2022, 105:105812. (SCI) 9. Chan Wang *, Jian Chen, Shuhua Liang, Wenting Shao. First-principles calculations to investigate pressure effect on structural, elastic and thermodynamic properties of AlCu, Al2Cu and Al4Cu9, Vacuum, 2022, 203: 111279. (SCI) 10. Shuaidan Lu, Xiaoxiao Li, Xiaoyu Liang, Jiahua He, Wenting Shao, Kuanhe Li, Jian Chen*. Effect of Y additions on the oxidation behavior of vacuum arc melted refractory high-entropy alloy AlMo0.5NbTa0.5TiZr at elevated temperatures. Vacuum. 2022, 201: 111069. (SCI) 11. Shuaidan Lu, Xiaoxiao Li, Xiaoyu Liang, Jiahua He, Wenting Shao, Kuanhe Li, Jian Chen*. Effect of Ho Addition on the Glass-Forming Ability and Crystallization Behaviors of Zr54Cu29Al10Ni7 Bulk Metallic Glass. Materials. 2022, 15(7): 2516. (SCI) 12. Yong Zhang, Wei Yang*, Sen Yu, Liqun Wang, Xiqun Ma, Wei Gao, Nan Lan, Wenting Shao, Jian Chen. Microstructure and Properties in Simulated Seawater of Copper-Doped Micro-arc Coatings on TC4 Alloy, Coatings, 2022, 12: 883.(SCI) ÊÚȨרÀû 1. ÉÛÎÄæÃ, ÎéÏèÓî, ³Â½¨, ÑîΡ, ÎäÉÏŸj, ÕÅÈðºì, ÀîÖÙ˶, Áõê×. Ò»ÖÖ¸ßìØºÏ½ðµª»¯Îïµ¶¾ßÍ¿²ã¼°ÆäÖÆ±¸·½·¨, 2023-03-29, Öйú, רÀûºÅ:ZL 202110505154.6 . 2. ½¯°ÙÁå, ÉÛÎÄæÃ, ÕÅÐÂÓî, Âí¿¡. Ò»ÖÖÒø²ôÔÓÀàʯī̼Ϳ²ã¼°ÆäÖÆ±¸·½·¨, 2020-07-24, Öйú, רÀûºÅ: ZL201711071627.6. 3. ½¯°ÙÁå, ÉÛÎÄæÃ, ÀîºéÌÎ, ·¿°®´æ, ·¿ê»ì¿, Õų¬. Ò»ÖÖÓÃÓÚþºÏ½ð΢»¡Ñõ»¯µÄµç½âÒº, 2017-06-16, Öйú, רÀûºÅ: ZL201410420017.2. 4. ÀîºéÌÎ, ½¯°ÙÁå, Î⺣¾ê, ÉÛÎÄæÃ, ÕÅÐÂÓî, ÅíÖ¾éª. µç³ØÓýðÊô¼«°å±íÃæÄÍÊ´µ¼µç¸´ºÏÍ¿²ã¡¢µç³ØÓýðÊô¼«°å¼°ÆäÖÆ±¸·½·¨, 2020-05-19, Öйú, רÀûºÅ: ZL201710889889.7. ÉêÇëרÀû 1. ÉÛÎÄæÃ, ³©Êö, ¹ù¼Îΰ, ÎäÉÏŸj, ³Â½¨, ÑîΡ, ºÎ¼Ñ»ª, ¬˧µ¤, Ðì´óÅô, ¶¡Èʸù, ÕÔ¶ɯ, ÍõÙ». Ò»ÖÖ¸ßìØºÏ½ð°Ð²ÄÖÆ±¸×°ÖÃ, 2023-06-08, Öйú, ÉêÇëºÅ: 202310679955.3. 2. ÉÛÎÄæÃ, ²ÜÀöÄÈ, ³Â½¨, ÑîΡ, ÀîÖÙ˶, ºÎ¼Ñ»ª, ¬˧µ¤. Ìá¸ß¸ßìØµª»¯ÎïĤĤ»ù½áºÏÇ¿¶ÈµÄÌݶȹý¶É²ã¼°ÖƱ¸·½·¨£¬2022-03-22£¬Öйú, ÉêÇëºÅ: 202210285916.0. 3. ÉÛÎÄæÃ, ²ÜÀöÄÈ, ³Â½¨, ÑîΡ, ¬˧µ¤, ºÎ¼Ñ»ª, ÀîÖÙ˶. Ò»ÖÖÉí¹ÜÄÚÌűíÃæµÄ¸ßìØºÏ½ð±¡Ä¤¼°ÆäÖÆ±¸·½·¨, 2022-03-14, Öйú, ÉêÇëºÅ: 202210247384.1. 4. ÉÛÎÄæÃ, Íõè¤, ³Â½¨, ÑîΡ, Áõê×, ºÎ¼Ñ»ª, ¬˧µ¤. ¾ßÓе¼µçÄÍÊ´Í¿²ãµÄȼÁÏµç³Ø½ðÊô¼«°å¼°ÆäÖÆ±¸·½·¨, 2022-03-02, Öйú, ÉêÇëºÅ: 202210206361.6. »ñ½± 1. ÉÛÎÄæÃ. ²»ÏÞip×¢²áËÍ37Ôª½ð±ÒµÚ¶þ½ì¡°½Ìʦ½Ìѧ¾ºÈü¡±ôßµÚÊ®Èý½ì¡°ÇàÄê½Ìʦ½²¿Î±ÈÈü¡±, ÓÅÐã½±, 2021. 2. ÉÛÎÄæÃ(6/7). ½ËÕÊ¡¿ÆÑ§¼¼Êõ¶þµÈ½±, µÍÄܺÄÇáºÏ½ð΢»¡¸´ºÏ´¦Àí¹Ø¼üÉ豸ÑÐÖÆÓ빤ÒÕ¿ª·¢, 2020. | ||||||
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Effect of Zr content on the structure and oxidation resistance of silicide coatings prepared by pack cementation technique. Corrosion Science, 2019, 147: 152-162. £¨ÖпÆÔº1Çø£© [2] Jiahua He, Xiping Guo*, Yanqiang Qiao. Microstructure evolution and hot corrosion behavior of Zr-Y modified silicide coating prepared by two-step process. Corrosion Science, 2019, 156: 44-57. £¨ÖпÆÔº1Çø£© [3] Jiahua He, Xiping Guo*, Yanqiang Qiao£¬Fa Luo. A novel Zr-Y modified silicide coating on Nb-Si based alloys as protection against oxidation and hot corrosion. Corrosion Science, 2020, 177: 108948. £¨ÖпÆÔº1Çø£© [4] Jiahua He, Xiping Guo*, Yanqiang Qiao. Oxidation behavior and adhesion performance of TiSi2-NbSi2 composite coating prepared via magnetron sputtering and then pack cementation. Journal of Alloys and Compounds, 2020, 820: 153425. [5] Jia-hua HE, Xi-ping GUO*, Yan-qiang QIAO. Oxidation and hot corrosion behaviors of Nb-Si based ultrahigh temperature alloys at 900 ¡ãC. Transactions of Nonferrous Metals Society of China, 2021, 31: 207-221. [6] Jiahua He, Xiping Guo. Microstructure and oxidation resistance of Y modified silicide coatings prepared on Zr-Ti-Al alloy. Materials Science Forum. 2018, 913: 365-374. [7] Shuaidan Lu, Xiaoxiao Li, Xiaoyu Liang, Jiahua He, Wenting Shao, Kuanhe Li, Jian Chen*. Effect of Y additions on the oxidation behavior of vacuum arc melted refractory high-entropy alloy AlMo0.5NbTa0.5TiZr at elevated temperatures. Vacuum. 2022, 201: 111069. [8] Shuaidan Lu, Xiaoxiao Li, Xiaoyu Liang, Jiahua He, Wenting Shao, Kuanhe Li, Jian Chen*. Effect of Ho Addition on the Glass-Forming Ability and Crystallization Behaviors of Zr54Cu29Al10Ni7 Bulk Metallic Glass. Materials. 2022, 15(7): 2516. [9] X. Zhou, J. Chen*, R. Ding** , H. Wu, J. Du, J. He, W. Wang, W. Sun, Y. Liu, G. Sha, H. Pan. Carbon-driven coherent nanoprecipitates enable ultrahigh yield strength in a high-entropy alloy. Materials Today Nano. 2023, 22: 100331. [10] Xueyang Zhou, Jian Chen*, Rengen Ding** , Haoyue Wu, Shuaidan Lu, Jiahua He, Weili Wang, Hongge Pan. A novel coherent particles-reinforced FCC-based high-entropy superalloy with superior high-temperature compressive properties. Materials Science & Engineering A. 2023, 872: 144947. [11] Xueyang Zhou, Jian Chen* , Rengen Ding** , Haoyue Wu, Shuaidan Lu, Jiahua He, Hongge Pan. Effect of Mn on microstructure and tensile properties of as-cast Al 0.5 CoFeNiC 0.1 high-entropy alloy. 2023, 873: 144951. רÀû [1] ¹ùϲƽ, ºÎ¼Ñ»ª, ÇÇÑåÇ¿. Zr£¬Ti£¬Al¶àÔª¸ÄÐԹ軯ÎïÉø²ãµÄÁ½²½·¨ÖƱ¸·½·¨. 2021-2-2, Öйú, ZL201910070452.X. ÊÚȨ [2] ¹ùϲƽ, ÕÅËÉ, ºÎ¼Ñ»ª, ÇÇÑåÇ¿, ÌÆêÊ. Nb-Si»ù³¬¸ßκϽ𶧵ÄÖÆ±¸·½·¨. 2017-10-13, Öйú, ZL201610556027.8. ÊÚȨ [3] ¹ùϲƽ, ÕÅËÉ, ÇÇÑåÇ¿, ÔøÓîÏè, ÕÅê», ÌÆêÊ, ºÎ¼Ñ»ª. ¶àÔªNb-Si»ù³¬¸ßκϽð²ÄÁϼ°ÆäÖÆ±¸·½·¨. 2016-10-26, Öйú, CN106048356A£¬ÉêÇë [4] ÉÛÎÄæÃ£¬Íõ褣¬³Â½¨£¬ÑîΡ£¬Áõê×£¬ºÎ¼Ñ»ª£¬Â¬Ë§µ¤. ¾ßÓе¼µçÄÍÊ´Í¿²ãµÄȼÁÏµç³Ø½ðÊô¼«°å¼°ÆäÖÆ±¸·½·¨. 2022-3-2, Öйú£¬202210206361.6£¬ÉêÇë [5] ÉÛÎÄæÃ£¬²ÜÀöÄÈ£¬³Â½¨£¬ÑîΡ£¬Â¬Ë§µ¤£¬ºÎ¼Ñ»ª£¬ÀîÖÙ˶. Ò»ÖÖÉí¹ÜÄÚÌűíÃæµÄ¸ßìØºÏ½ð±¡Ä¤¼°ÆäÖÆ±¸·½·¨. 2022-3-14, Öйú£¬202210247384.1£¬ÉêÇë [6] ÉÛÎÄæÃ£¬²ÜÀöÄÈ£¬³Â½¨£¬ÑîΡ£¬ÀîÖÙ˶£¬ºÎ¼Ñ»ª£¬Â¬Ë§µ¤. Ìá¸ß¸ßìØºÏ½ðµª»¯ÎïĤĤ»ù½áºÏÇ¿¶ÈµÄÌݶȹý¶É²ã¼°ÖƱ¸·½·¨. 2022-3-22£¬Öйú£¬202210285916.0£¬ÉêÇë [7] ºÎ¼Ñ»ª,ÕÔ¶Ô,¬˧µ¤,ÉÛÎÄæÃ,³Â½¨. Ò»ÖÖ Ti3SiC2 ¸ÄÐԹ軯ÎïÍ¿²ã¼°ÆäÖÆ±¸·½·¨. 2023-3-16£¬Öйú£¬202310255439.8£¬ÉêÇë [8] ºÎ¼Ñ»ª,ÕÅÑÐñû,Íõ½¨Ê÷,¬˧µ¤,ÉÛÎÄæÃ,³Â½¨. Ò»ÖÖ»ùÓÚ¸ßÌݶȶ¨ÏòÄý¹ÌµÄÒì¹¹¹²¾§¸ßìØºÏ½ð¼°ÆäÖÆ±¸·½·¨. 2023-5-15£¬Öйú£¬202310543611X£¬ÉêÇë [9] ºÎ¼Ñ»ª,ÕÅÑÐñû,Íõ½¨Ê÷,¬˧µ¤,ÉÛÎÄæÃ,³Â½¨. Ò»ÖÖ»ùÓÚ¶¨ÏòÄý¹Ì»ñµÃα¹²¾§×éÖ¯µÄ¸ßìØºÏ½ð¼°ÆäÖÆ±¸·½·¨. 2023-7-6£¬Öйú£¬202310824465.8£¬ÉêÇë
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Ò»ÖÖÇáÖʸßÈȵ¼ÂÊFe-Al»ùºÏ½ð¼°ÆäÖÆ±¸·½·¨. 2016.9£¬Öйú£¬ZL 201610824219.2 [3] °×ÑÇÆ½, Àƽ£¬ÑîÖÒ£¬¹ùÓÀ´º£¬Â޼Ѽѣ¬³É³¬. µÍÃܶÈÄÍÈÈÌú»ùºÏ½ð¼°ÆäÖÆ±¸·½·¨. 2020.03£¬Öйú£¬ZL201810426362.5. [4] °×ÑÇÆ½, Àƽ£¬¹ùÓÀ´º£¬ÑîÖÒ£¬ÁõÃÈÃÈ. Ò»ÖÖº¬Áò¸¯Ê´¹¤¿öÏÂÂÁ»ùÄÍÄ¥²ÄÁϼ°ÆäÖÆ±¸·½·¨. 2020.08£¬Öйú£¬ZL201811452382.6. [5] ÐϽ¨¶«, °×ÑÇÆ½, Íõ½¨, Îâê»ÁÁ.Ò»ÖÖFe3Al-Al2O3¸´ºÏ²ÄÁϵÄÖÆ±¸·½·¨. 2012.11£¬Öйú£¬ZL 201010591647.8. ´ú±íÐÔѧÊõÂÛÎÄ [1] Yaping Bai, Jin Zhou, Jianping Li, Zhong Yang. B2-ordered NiAl content on microstructure, mechanical and oxidation properties of FeAl intermetallic compounds. Journal of Materials Research and Technology.2022(6):1875-1888. [2] Yaping Bai, Dongdong Jiao, Jianping Li, Zhong Yang. Effect of Nb content on the stacking fault energy, microstructure and mechanical properties of Fe-25Mn-9Al-8Ni-1C alloy. Materials Today Communications. 2022(31):103554. [3] Yaping Bai, Keke Tian, Jianping Li, Zhong Yang. Microstructure and Oxidation Behavior of Fe-25Mn-9Al-8Ni-1C-xTi Alloy Prepared by Vacuum Arc Melting. Materials. 2021,14(24):7722-1¨C19. [4] Yaping Bai, Jiale Wei, Naqing Lei, Jianping Li, Yongchun Guo, Mengmeng Liu. Effect of VN and TiB2-TiCx Reinforcement on Wear Behavior of Al 7075-Based Composites. Materials, 2021, 14(12): 3389-1-3389-16. [5] Yaping Bai, Mengmeng Liu, Jianping Li, Yongchun Guo. Tribofilm formation on the VN/7075 composite surface under sulfur containing boundary lubrication. Proc IMechE Part J: J Engineering Tribology. 2020,234(11):1726¨C1734. [6] Yaping Bai, Jianping Li, Jiajia Luo, Yongchun Guo. Effect of Diamond Surface Pretreatment and Content on the Microstructure and Mechanical and Oxidation Behaviour of NiAl/Fe-Based Alloys. Scanning. 2020(2020):5149734. [7] Yaping Bai, Chao Cheng, Jianping Li, JiaJia Luo, Zhong Yang. Effect of AlN on microstructure, mechanical and thermophysical properties of NiAl/Fe based alloys prepared by vacuum hot-pressing sintering. 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Lett.¡·¡¢¡¶Vacuum¡·µÈÆÚ¿¯Éó¸å¡£ ¿ÆÑÐÏîÄ¿ £¨1£©¹ú¼Ò×ÔÈ»¿ÆÑ§»ù½ðίԱ»á¡¢ÇàÄê¿ÆÑ§»ù½ðÏîÄ¿¡¢51902239¡¢SiC-ZrB2¸ÄÐÔC/C¸´ºÏ²ÄÁÏÔÚ·ÇÎÈ̬³¬¸ßλ·¾³ÖеĵÍÎÂÉÕÊ´»úÀíÑо¿¡¢2020-2022¡¢Ö÷³Ö £¨2£©ÉÂÎ÷Ê¡¿ÆÑ§¼¼ÊõÌü¡¢ÉÂÎ÷Ê¡×ÔÈ»¿ÆÑ§»ù´¡Ñо¿¼Æ»®-ÇàÄêÏîÄ¿¡¢2020JQ-808¡¢³¬¸ßÎÂÇ¿ÈÈÕðÐͬ³åÊ´»·¾³ÖÐC/C-SiCµÄÉÕÊ´»úÖÆÑо¿¡¢2020-2021¡¢Ö÷³Ö £¨3£©ÖÐÑë¾üίװ±¸·¢Õ¹²¿¡¢¹ú·À¿Æ¼¼ÖصãʵÑéÊÒ»ù½ð¡¢6142911180306¡¢XXXX¸ÄÐÔÂÁ»ù¸´ºÏ²ÄÁÏ¸ßÆµÉÕÊ´ÌØÐÔ¡¢2019-2021¡¢Ö÷³Ö £¨4£©Î÷±±¹¤Òµ´óѧÄý¹Ì¼¼Êõ¹ú¼ÒÖØµãʵÑéÊÒ¡¢Äý¹Ì¼¼Êõ¹ú¼ÒÖØµãʵÑéÊÒ¿ª·Å¿ÎÌâ¡¢SKLSP201752¡¢¸ß¹¦ÂÊÃܶÈÄÚȼ»ú»îÈûÓÃC/C-AlSi¸´ºÏ²ÄÁÏÑо¿¡¢2017-2018¡¢Ö÷³Ö £¨5£©Öйú±±·½·¢¶¯»úÑо¿Ëù¡¢ºáÏò-¼¼Êõ¿ª·¢£¨Î¯ÍУ©¡¢DLBF-2018-KY-JS-066-J¡¢ÂÁºÏ½ð»îÈû½ðÏà·ÖÎö¼°ÉÕÊ´³ÉÒòÑо¿¡¢2018-2020¡¢Ö÷³Ö ²ÎÑÐÖÐÑë¾üίװ±¸·¢Õ¹²¿¡¢JWKJW¹ú·À´´ÐÂÌØÇø¡¢ÉÂÎ÷Ê¡ÖØµã²úÒµ¡¢ÆóÒµºáÏòµÈÏîĿʮÓàÏî ѧÊõ³É¹û [1] Lei Liu, Boyan Li, Wei Feng, Chengwei Tang, Jiaping Zhang, Xiyuan Yao, Zhong Yang, Yongchun Guo, Ping Wang, Yang Zhang. Effect of loading spectrum with different single pulsing time on the cyclic ablation of C/C-SiC-ZB2-ZrC composites in plasma. Corrosion Science, 2021, 192: 109817. [2] Lei Liu, Hejun Li, Wei Feng, Xiaohong Shi, Heng Wu, Junliang Zhu. Effect of surface ablation products on the ablation resistance of C/C-SiC composites under oxyacetylene torch. Corrosion Science, 2013, 67: 60-66. [3] Lei Liu, Hejun Li, Wei Feng, Xiaohong Shi, Kezhi Li, Lingjun Guo. Ablation in different heat fluxes of C/C composites modified by ZrB2-ZrC and ZrB2-ZrC-SiC particles. Corrosion Science, 2013, 74: 159-167. [4] Lei Liu, Hejun Li, Kui Hao, Xiaohong Shi, Kezhi Li, Chang Ni. Effect of SiC location on the ablation of C/C-SiC composites in two heat fluxes. Journal of Materials Science & Technology, 2015, 31(4): 345-354. [5] Lei Liu, Leilei Zhang, Wei Feng, Jianping Li, Yaping Bai, Dong Tao, Xiaoqin Su, Yi Cao, Tong Bao, Jiaqi Zheng. 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