In-situ flowering of RGO with 3D distribution: Towards super-broadband microwave absorption and ultralight synergy in aramid honeycomb
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Yang Chen | Haoruo Zhang | Junyu Lu | Longfang Ni | Xiaochuang Di | Yinfu Luo | Mushan Yuan | H. Zou
[1] M. Cao,et al. Atomic‐Molecular Engineering Tailoring Graphene Microlaminates to Tune Multifunctional Antennas , 2023, Advanced Functional Materials.
[2] Mei Liang,et al. Achieving super broadband microwave absorption of aramid honeycomb by filling optimized 3D conductive RGO/melamine foam , 2023, Composites Part A: Applied Science and Manufacturing.
[3] Yaqing Liu,et al. Optimization design of a novel microwave absorbing honeycomb sandwich structure filled with magnetic shear-stiffening gel , 2022, Composites Science and Technology.
[4] Xianjun Li,et al. Effect of low molecular weight melamine-urea-formaldehyde resin impregnation on poplar wood pore size distribution and water sorption , 2022, Industrial Crops and Products.
[5] Yuhang Han,et al. Nature-inspired 3D hierarchical structured “vine” for efficient microwave attenuation and electromagnetic energy conversion device , 2022, Chemical Engineering Journal.
[6] Mei Liang,et al. Tunable and efficient microwave absorption from mesophase pitch carbide with designable electromagnetic properties , 2022, Defence Technology.
[7] Hongjing Wu,et al. Optimizing impedance matching by a dual-carbon Co-regulation strategy of Co3O4@rGO/celery stalks derived carbon composites for excellent microwave absorption , 2022, Journal of Materials Science & Technology.
[8] R. Che,et al. Self-Assembly MXene-rGO/CoNi Film with Massive Continuous Heterointerfaces and Enhanced Magnetic Coupling for Superior Microwave Absorber , 2022, Nano-Micro Letters.
[9] Z. Yao,et al. Lightweight and high-efficiency microwave absorption of reduced graphene oxide loaded with irregular magnetic quantum dots , 2021 .
[10] R. Che,et al. Dimensional Design and Core–Shell Engineering of Nanomaterials for Electromagnetic Wave Absorption , 2021, Advanced materials.
[11] Ailiang Chen,et al. Ultralight, anisotropic, and self-supported graphene/MWCNT aerogel with high-performance microwave absorption , 2021, Carbon.
[12] W. Yin,et al. Achieving Super Broadband Electromagnetic Absorption by Optimizing Impedance Match of rGO Sponge Metamaterials , 2021, Advanced Functional Materials.
[13] Hongwei Deng,et al. The effect of temperature on structure and permittivity of carbon microspheres as efficient absorbent prepared by facile and large-scale method , 2021, Carbon.
[14] Yibin Li,et al. Environmentally Friendly Bark-Derived Co-Doped Porous Carbon Composites for Microwave Absorption , 2021, SSRN Electronic Journal.
[15] R. Che,et al. Growth of magnetic metals on carbon microspheres with synergetic dissipation abilities to broaden microwave absorption , 2021, Journal of Materials Science & Technology.
[16] Z. Yao,et al. Regulating pyrolysis strategy to construct CNTs-linked porous cubic Prussian blue analogue derivatives for lightweight and broadband microwave absorption , 2021, Chemical Engineering Journal.
[17] Q. Shen,et al. Broadband electromagnetic absorbing performance by constructing alternate gradient structure (AGS) for PMMA-based foams , 2021 .
[18] Zhao-Xia Guo,et al. Construction of Aramid Engineering Materials via Polymerization‐Induced para‐Aramid Nanofiber Hydrogel , 2021, Advanced materials.
[19] D. Fang,et al. Evolutionary optimization design of honeycomb metastructure with effective mechanical resistance and broadband microwave absorption , 2021 .
[20] D. Fang,et al. Invisible Electromagnetic Huygens’ Metasurface Operational in Wide Frequency Band and Its Experimental Validation , 2021, IEEE Transactions on Antennas and Propagation.
[21] X. Weng,et al. Equivalent electromagnetic parameters extraction method for graded honeycomb absorbing materials , 2021, Applied Physics B.
[22] Qiong He,et al. Ultrabroad-band and low-frequency microwave absorption based on activated waxberry metamaterial , 2021 .
[23] Wei Guo,et al. Carbon-enabled microwave chemistry: From interaction mechanisms to nanomaterial manufacturing , 2021, Nano Energy.
[24] Yuping Duan,et al. The electromagnetic response of composition-regulated honeycomb structural materials used for broadband microwave absorption , 2021 .
[25] Jianjun Jiang,et al. Broadband Microwave Absorption Properties of a Frequency-Selective Surface Embedded in a Patterned Honeycomb Absorber , 2021, IEEE Transactions on Electromagnetic Compatibility.
[26] Byeong-Su Kwak,et al. Microwave-absorbing honeycomb core structure with nickel-coated glass fabric prepared by electroless plating , 2021 .
[27] Shiwei Lin,et al. Growth of NiAl‐Layered Double Hydroxide on Graphene toward Excellent Anticorrosive Microwave Absorption Application , 2021, Advanced science.
[28] M. Cao,et al. Assembling 3D flower-like Co3O4-MWCNT architecture for optimizing low-frequency microwave absorption , 2020 .
[29] Fanxu Meng,et al. Hydroplastic foaming of graphene aerogels and artificially intelligent tactile sensors , 2020, Science Advances.
[30] Haiyan Zhang,et al. A novel and facile-to-synthesize three-dimensional honeycomb-like nano-Fe3O4@C composite: Electromagnetic wave absorption with wide bandwidth , 2020 .
[31] A. Heidari,et al. Hybrid absorber with carbon black composite and metamaterial structure , 2020 .
[32] Chun-Gon Kim,et al. Investigation on microwave absorption characteristics of conductive-coated honeycomb absorber , 2020, Composite Structures.
[33] T. Zhu,et al. CoFe2O4/N-doped reduced graphene oxide aerogels for high-performance microwave absorption , 2020 .
[34] Hui Luo,et al. A novel two-layer honeycomb sandwich structure absorber with high-performance microwave absorption , 2019, Composites Part A: Applied Science and Manufacturing.
[35] D. Fang,et al. Ultrathin multifunctional carbon/glass fiber reinforced lossy lattice metastructure for integrated design of broadband microwave absorption and effective load bearing , 2019, Carbon.
[36] J. Shui,et al. Multifunctional Organic–Inorganic Hybrid Aerogel for Self‐Cleaning, Heat‐Insulating, and Highly Efficient Microwave Absorbing Material , 2019, Advanced Functional Materials.
[37] Qingliang Liao,et al. Toward the Application of High Frequency Electromagnetic Wave Absorption by Carbon Nanostructures , 2019, Advanced science.
[38] Wei-li Song,et al. Ultrathin Flexible Carbon Fiber Reinforced Hierarchical Metastructure for Broadband Microwave Absorption with Nano Lossy Composite and Multiscale Optimization. , 2018, ACS applied materials & interfaces.
[39] Hongjuan Sun,et al. Nitrogen-doped porous 3D graphene with enhanced supercapacitor properties , 2018, Journal of Materials Science.
[40] D. Yi,et al. Microcellular graphene foam for improved broadband electromagnetic interference shielding , 2016 .
[41] Chun-Gon Kim,et al. Broadband microwave-absorbing honeycomb structure with novel design concept , 2015 .
[42] Hee‐Tae Jung,et al. A new triple-layered composite for high-performance broadband microwave absorption , 2015 .
[43] Tengfei Zhang,et al. Broadband and Tunable High‐Performance Microwave Absorption of an Ultralight and Highly Compressible Graphene Foam , 2015, Advanced materials.
[44] H. Duan,et al. Fabrication of ultralight three-dimensional graphene networks with strong electromagnetic wave absorption properties , 2015 .
[45] Wei Jiang,et al. One-pot synthesis of urchinlike Ni nanoparticles/RGO composites with extraordinary electromagnetic absorption properties , 2014 .
[46] W. Choi,et al. Nanostructured graphene/Fe₃O₄ incorporated polyaniline as a high performance shield against electromagnetic pollution. , 2013, Nanoscale.
[47] Jun Chen,et al. A Leavening Strategy to Prepare Reduced Graphene Oxide Foams , 2012, Advanced materials.
[48] J. Tascón,et al. Vitamin C Is an Ideal Substitute for Hydrazine in the Reduction of Graphene Oxide Suspensions , 2010 .
[49] Xingfa Gao,et al. Hydrazine and Thermal Reduction of Graphene Oxide: Reaction Mechanisms, Product Structures, and Reaction Design , 2010 .
[50] S. Stankovich,et al. Synthesis of graphene-based nanosheets via chemical reduction of exfoliated graphite oxide , 2007 .
[51] K. Rozanov. Ultimate thickness to bandwidth ratio of radar absorbers , 2000 .
[52] P. Fang. Cole—Cole Diagram and the Distribution of Relaxation Times , 1965 .
[53] E. W. Washburn. Note on a Method of Determining the Distribution of Pore Sizes in a Porous Material. , 1921, Proceedings of the National Academy of Sciences of the United States of America.
[54] Yang Yang,et al. High-throughput solution processing of large-scale graphene. , 2009, Nature nanotechnology.
[55] Renxin Xu,et al. CoFe2O4/porous carbon nanosheet composites for broadband microwave absorption , 2022 .
[56] W. Du,et al. Spinel structured MFe2O4 (M = Fe, Co, Ni, Mn, Zn) and their composites for microwave absorption: A review , 2022 .