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´ú±íÐÔÂÛÎÄ£¨½üÈýÄêÒ»ÇøÂÛÎÄ13ƪ£¬¶þÇøÂÛÎÄ10ƪ£© [1] Xinming Wu*, Han Wng, Zhilin Zhao, Bin Huang, Journal of Materials Chemistry A, 2020, 8, 12705. (SCIÒ»Çø, IF ¡µ10) [2] Xinming Wu,* Bin Huang, Qiguan Wang, Yan Wang, Journal of Materials Chemistry A, 2019, 7, 19017. (SCIÒ»Çø, IF ¡µ10) [3] Xinming Wu,* Bin Huang, Qiguan Wang, Yan Wang, Chemical Engineering Journal, 2020, 380, 122456. (SCIÒ»Çø, IF ¡µ10, ¸ß±»Òý+ÈȵãÂÛÎÄ) [4] Han Wang, Xinming Wu,* Chemical Engineering Journal, 2020, 399, 125850. (SCIÒ»Çø, IF ¡µ10) [5] Xinming Wu,* Meng Lian, Qiguan Wang, Yan Wang, Chemical Engineering Journal, 2019, 33, 493-500. (SCIÒ»Çø, IF ¡µ10) [6] Xinming Wu,* Bin Huang, Qiguan Wang, Yan Wang, Chemical Engineering Journal, 2019, 378, 122246. (SCIÒ»Çø, IF ¡µ10) [7] Xinming Wu,* Meng Lian, Journal of Power Sources, 2017,362:184-191. (SCIÒ»Çø) [8] Xinming Wu,* Meng Lian, Qiguan Wang, Yan Wang., Chemical Engineering Journal, 2018, 354, 346-350. (SCIÒ»Çø, IF ¡µ10) [9] Xinming Wu,* Meng Lian, Qiguan Wang, Yan Wang, Chemical Engineering Journal, 2018, 352, 423-430. (SCIÒ»Çø, IF ¡µ10) [10] Xinming Wu,* Meng Lian, Qiguan Wang, Wenzhi Zhang,Yan Wang, Chemical Engineering Journal, 2018, 352, 423-430. (SCIÒ»Çø, IF ¡µ10) [11]Xinming Wu,* Bin Huang, Qiguan Wang, Yan Wang, Electrochimica Acta, 2020,353,136603 (SCI ¶þÇø) [12] Xinming Wu,* Zhilin Zhao, Bin Huang, Electrochimica Acta, 2020,361,137092 (SCI ¶þÇø) [13] Zhilin Zhao, Xinming Wu,* Advanced Materials Interfaces,2020,10,20200831(SCI ¶þÇø) [14] Xinming Wu,* Meng Lian, Qiguan Wang, Yan Wang, Electrochimica Acta, 2019, 295, 532-539. (SCI¶þÇø) [15] Xinming Wu,* Meng Lian, Qiguan Wang, Yan Wang, Electrochimica Acta, 2019, 295, 655-661. (SCI¶þÇø) [16] Xinming Wu,* Qiguan Wang, Wenzhi Zhang ,Yan Wang, Weixing Chen, Electrochimica Acta, 2016, 211, 1066-1075. (SCI¶þÇø) [17] Xinming Wu,* Meng Lian, Qiguan Wang, Wenzhi Zhang,Yan Wang, Solar Energy Materials and Solar Cells, 2018, 174, 325-332. (SCI¶þÇø) [18] Xinming Wu,* Meng Lian, Qiguan Wang, Wenzhi Zhang,Yan Wang, Journal of materials Science, 2016,51:7731-7741. ( SCI¶þÇø) [19] Meng Lian, Xinming Wu,* Ceramics International, 2017,43:9877-9883. ( SCI¶þÇø)
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»ù±¾ÐÅÏ¢ ÐÕÃû: ÍõÑÒ ³öÉúÄêÔ£º1985Äê6Ô ѧÀú: ²©Ê¿Ñо¿Éú ѧԺ: ²»ÏÞip×¢²áËÍ37Ôª½ð±Ò Ö°³Æ: ½ÌÊÚ ÁªÏµ·½Ê½£ºwangy@xatu.edu.cn 450767149@qq.com ѧϰ¾Àú 2008Äê9ÔÂ-2014Äê7Ô£ºÎ÷±±¹¤Òµ´óѧ£¬²ÄÁÏѧ£¬²©Ê¿ 2004Äê9ÔÂ-2008Äê7Ô£ºÎ÷°²Ê¯ÓÍ´óѧ£¬»¯Ñ§¹¤³ÌÓ빤ÒÕ£¬Ñ§Ê¿ ¹¤×÷¾Àú 2019Äê12ÔÂ-ÖÁ½ñ£º²»ÏÞip×¢²áËÍ37Ôª½ð±Ò ½ÌÊÚ 2018Äê12ÔÂ-2019Äê12Ô£º²»ÏÞip×¢²áËÍ37Ôª½ð±Ò ¸±½ÌÊÚ 2014Äê6ÔÂ-2018Äê12Ô£º ²»ÏÞip×¢²áËÍ37Ôª½ð±Ò ½²Ê¦ ½ÌÓý½Ìѧ Ö÷½²¿Î³Ì£º¡¶»¯¹¤ÔÀí¡·¡¢¡¶CADÖÆͼ¡·¡¢¡¶¾ÛºÏÎïºÏ³É¹¤ÒÕѧ¡·¡¢¡¶¾ÛºÏÎï»ù¸´ºÏ²ÄÁÏ¡·¡¢¡¶»¯¹¤Éè¼Æ¡· ÕÐÉúÐÅÏ¢ ÿÄêÕÐÊÕ˶ʿÉú3-4Ãû Ñо¿·½Ïò £¨1£©Îü²¨¡¢µç´ÅÆÁ±Î²ÄÁÏ£»£¨2£©¹âµç´Å²ÄÁÏ£»£¨3£©ÈáÐÔµç×ÓÆ÷¼þ ѧÊõ³É¹û »ñ½±¼°ÈÙÓþ £¨1£©ÉÂÎ÷Ê¡ÇàÄê¿Æ¼¼ÐÂÐÇ£¬2018Äê £¨2£©²»ÏÞip×¢²áËÍ37Ôª½ð±ÒÓÅÐãÇàÄê½Ìʦ½±Àø»ù½ð£¬2018Äê £¨3£©²»ÏÞip×¢²áËÍ37Ôª½ð±ÒÓÅÐã½Ìʦ£¬2017Ä꣬2020Äê £¨3£©ÉÂÎ÷¸ßµÈѧУ¿Æѧ¼¼Êõ¶þµÈ½±£¬2018Äê £¨4£©²»ÏÞip×¢²áËÍ37Ôª½ð±Ò¿Æ¼¼½ø²½ÌصȽ±£¬2017Äê ¿ÆÑÐÏîÄ¿ £¨1£© ¹ú¼Ò×ÔÈ»¿ÆѧÇàÄê»ù½ð£ºÐÂÐͶà¿×ʯīϩ»ù¸´ºÏ²ÄÁϵĵç´Åµ÷¿Ø»úÖÆÓëÎü²¨»úÀíÑо¿£¬£¨±àºÅ£º61701386£©£¬24Íò £¨2£© ÉÂÎ÷Ê¡×ÔÈ»¿Æѧ»ù½ð£ºµ¼µç¾ÛºÏÎï/MOF½á¹¹¹²ÐÞÊÎʯīϩµÄµç´Åµ÷¿Ø»úÖÆ£¬£¨±àºÅ£º2017JQ5060£©£¬3Íò £¨3£© ÉÂÎ÷Ê¡ÇàÄê¿Æ¼¼ÐÂÐÇÏîÄ¿£ºÈýάʯīϩÆøÄý½º»ù¶àÔª¸´ºÏ²ÄÁϵÄÖƱ¸¼°Îü²¨»úÀíÑо¿£¬£¨±àºÅ£º2019KJXX-033£©£¬10Íò £¨4£© ¸ßι̻¯»·Ñõ̼ÏËά¸´ºÏ²ÄÁÏÄÍÈÈÐÔ¼°ÈÍÐÔ²âÊÔÓë·ÖÎö, 8Íò £¨5£© ¹ú¼Ò×ÔÈ»¿ÆѧÃæÉÏ»ù½ð£º»ùÓÚÄÉÃײãÀë×÷ÓõĶþά²ã×´µç¼«²ÄÁϼä²ã×é×°»úÀíºÍ´¢ÄÜ»úÖÆ£¬£¨±àºÅ£º21975196£©£¬60Íò ·¢±íÎÄÕ µÚÒ»×÷Õß»òͨѶ×÷Õß·¢±íSCIÊÕ¼ÂÛÎÄ40Óàƪ£¬ÆäÖÐESIÈȵãÂÛÎÄ4ƪ¡¢ESI¸ß±»ÒýÂÛÎÄ7ƪ¡£ [1] Yan Wang,* Xiang Gao, Xinming Wu, et al. Facile design of 3D hierarchical NiFe2O4/N-GN/ZnO composite as a high performance electromagnetic wave absorber. Chemical Engineering Journal. 2019, 375: 121942. (ESIÈȵãÂÛÎÄ) [2] Yan Wang,* Xiang Gao, Yuqiao Fu, et al. Enhanced microwave absorption performances of polyaniline/graphene aerogel by covalent bonding. Composites Part B. 2019, 169: 221-228. (ESI ¸ß±»ÒýÂÛÎÄ) [3] Xiaochuang Di, Yan Wang,* Yuqiao Fu, et al. Wheat flour-derived nanoporous carbon@ZnFe2O4 hierarchical composite as an outstanding microwave absorber. Carbon. 2021, 173: 174-184. [4] Yan Wang,* Xiaochuang Di, Xiang Gao, et al. Design of MOF-derived hierarchical Co@C@RGO composite with controllable heterogeneous interfaces as a high-efficiency microwave absorbent. Nanotechnology. 2020, 31: 395710-395720. [5] Yan Wang,* Xiaochuang Di, Zhao Lu, et al. Rational construction of hierarchical Co@C@NPC nanocomposites derived from bimetallic hybrid ZIFs/biomass for boosting the microwave absorption. Journal of Colloid and Interface Science. 2021, 589: 462-471. [6] Yan Wang,* Xiaochuang Di, Yuqiao Fu, et al. Facile synthesis of the three- dimensional flower-like ZnFe2O4@MoS2 composite with heterogeneous interfaces as a high-efficiency absorber. Journal of Colloid and Interface Science. 2021, 587: 561- 573. [7] Yan Wang,* Xiaochuang Di, Xinming Wu, et al. MOF-derived nanoporous carbon/Co/Co3O4/CNTs/RGO composite with hierarchical structure as a high- efficiency electromagnetic wave absorber. Journal of Alloys and Compounds. 2020, 846: 156215-156225. [8] Yan Wang,* Xiang Gao, Lijuan Zhang, et al. Synthesis of Ti3C2/Fe3O4/PANI hierarchical architecture composite as an efficient wide-band electromagnetic absorber. Applied Surface Science. 2019, 480: 830-838. (ESIÈȵãÂÛÎÄ) [9] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. Fabrication of flower-like Ni0.5Co0.5(OH)2@PANI and its enhanced microwave absorption performances. Materials Research Bulletin. 2018, 98: 59-63. (ESIÈȵãÂÛÎÄ) [10] Yan Wang,* Wenzhi Zhang, Xinming Wu, et al. Conducting polymer coated metal-organic framework nanoparticles: Facile synthesis and enhanced electromagnetic absorption properties. Synthetic Metals. 2017, 228: 18-24. (ESI ¸ß±»ÒýÂÛÎÄ) [11] Yan Wang,* Xiang Gao, Chenghao Lin, et al. Metal organic frameworks-derived Fe-Co nanoporous carbon/graphene composite as a high-performance electromagnetic wave absorber. Journal of Alloys and Compounds. 2019, 785: 765-773. (ESIÈȵãÂÛÎÄ) [12] Yan Wang,* Yuqiao Fu, Xinming Wu, et al. Synthesis of hierarchical core-shell NiFe2O4@MnO2 composite microspheres decorated graphene nanosheet for enhanced microwave absorption performance. Ceramics International. 2017, 43 (14): 11367-11375. [13] Yan Wang,* Xiang Gao, Wenzhi Zhang, et al. Synthesis of hierarchical CuS/RGO/PANI/Fe3O4 quaternary composite and enhanced microwave absorption performance. Journal of Alloys and Compounds. 2018, 757: 372-381. [14] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. Synthesis of polyaniline nanorods and Fe3O4 microspheres on graphene nanosheets and enhanced microwave absorption performances.Materials Chemistry and Physics. 2018, 209: 23-30. [15] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. Synthesis and high-performance microwave absorption of graphene foam/polyaniline nanorods. Materials Letters. 2016, 165: 71-74. [16] Yan Wang,* Wenzhi Zhang, Xinming Wu, et al. Metal-organic framework nanoparticles decorated with graphene: A high-performance electromagnetic wave absorber. Journal of Magnetism and Magnetic Materials. 2016, 416: 226-230. [17] Yan Wang,* Xiang Gao, Hongwei Zhou, et al. Fabrication of biomass-derived carbon decorated with NiFe2O4 particles for broadband and strong microwave absorption. Powder Technology. 2019, 345: 370-378. [18] Xiang Gao, Yan Wang,* Qiguan Wang, et al. Facile synthesis of a novel flower-like BiFeO3 microspheres/graphene with superior electromagnetic wave absorption performances. Ceramics International. 2019, 45: 3325-3332. [19] Xiang Gao, Yan Wang,* Qiguan Wang, et al. Facile synthesis of hollow cube-like ZnSnO3 wrapped by nitrogen-doped graphene: As a high-performance and enhanced synergistic microwave absorber, Journal of Magnetism and Magnetic Materials. 2019, 486: 165251. [20] Yan Wang,* Yanbo Chen, Xinming Wu, et al. Fabrication of MoS2-graphene modified with Fe3O4 particles and its enhanced microwave absorption performance, Advanced Powder Technology. 2018, 29: 744-750. [21] Yan Wang,* Wenzhi Zhang, Chunyan Luo, et al. Synthesis, characterization and enhanced electromagnetic properties of NiFe2O4@SiO2-decorated reduced graphene oxide nanosheets, Ceramics International. 2016, 42: 17374-17381. [22] Yan Wang,* Wenzhi Zhang, Chunyan Luo, et al. Fabrication and high-performance microwave absorption of Ni@SnO2@PPy Core-Shell composite, Synthetic Metals. 2016, 220: 347-355. [23] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. Fabrication and enhanced electromagnetic wave absorption properties of sandwich-like graphene@NiO@ PANI decorated with Ag particles, Synthetic Metals. 2017, 229: 82-88. [24] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. 3D heterostructure of graphene@Fe3O4@WO3@PANI: Preparation and excellent microwave absorption performance, Synthetic Metals. 2017, 231: 7-14. [25] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. Facile synthesis of Ni/PANI/RGO composites and their excellent electromagnetic wave absorption properties, Synthetic Metals. 2015, 210: 165-170. [26] Yan Wang,* Hongyu Zhu, Yanbo Chen, et al. Design of hollow ZnFe2O4 microspheres@graphene decorated with TiO2 nanosheets as a high-performance low frequency absorber, Materials Chemistry and Physics. 2017, 202: 184-189. [27] Yan Wang,* Xiang Gao, Xinming Wu, et al. Hierarchical ZnFe2O4@RGO@CuS composite: Strong absorption and wide-frequency absorption properties, Ceramics International. 2018, 44: 9816-9822. [28] Yan Wang,* Wenzhi Zhang, Chunyan Luo, et al. Superparamagnetic FeCo@SnO2 nanoparticles on graphene-polyaniline: Synthesis and enhanced electromagnetic wave absorption properties, Ceramics International. 2016, 42: 12496-12502. [29] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. Synthesis of ferromagnetic sandwich FeCo@graphene@PPy and enhanced electromagnetic wave absorption properties, Journal of Magnetism and Magnetic Materials. 2017, 443: 358-365. [30] Yan Wang,* Xinming Wu, Wenzhi Zhang, et al. Synthesis and electromagnetic absorption properties of Ag-coated reduced graphene oxide with MnFe2O4 particles, Journal of Magnetism and Magnetic Materials. 2016, 404: 58-63. 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3. Qiguan Wang. Journal of Polymer Science Part B: Polymer Physics 50, 1426¨C1432, 2012. £¨SCI·âÃæÎÄÕ£©
4. Qiguan Wang, Hiroshi Moriyama. Langmuir 2009, 25(18), 10834¨C10842.
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7. Qiguan Wang, Hiroshi Moriyama. International Symposium on Multifunctional Organic Materials and Devices, 32Ò³, ÈÕ±¾¶«°î´óѧ, 2009.12.11-12, ´ó»á±¨¸æ.
8. Qiguan Wang, Hiroshi Moriyama. Carbon Nanotube-Based Thin Films: Synthesis and Properties. Chapter 23 in Carbon Nanotubes-Synthesis, Characterization, Applications, Croatia: Intech, 487¨C584, 2011.
9. ÍõÆæ¹Û. Ò»ÖÖÄÚ²¿½á¹¹Îȶ¨µÄ̼ÄÉÃ׹ܶà²ã±¡Ä¤¼°ÆäÖÆ×÷·½·¨, Öйú, ZL201110188243.9, 2014.
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