Mxene Composite
Mxene 复合材料

Mxene Composite(Mxene 复合材料)研究综述

Mxene Composite Mxene 复合材料 - SnO2/MXene composites were synthesized by a facile hydrothermal method, where the SnO2 nanosheets grew evenly on the surface of MXene flakes. ^[1] Herein, ZnO/MXene composites were fabricated by a facile two-step chemical reaction method and their structures and photocatalytic performances were investigated systematically. ^[2] A structured nanosized SnO2/MXene composites were achieved via a facile hydrothermal route, and applied as anode material for sodium-ion batteries (SIBs). ^[3] As expected, the EM wave absorbers with ultrathin matching thickness and excellent absorbing capability are realized in the MXene composites. ^[4] 418 W m−1 K−1 is achieved for PI/MXene composites with 5 wt. ^[5] MXene (Ti3C2Tx) with abundant oxygen-containing functional groups reacts with HC particles in the ball milling process to form a Ti-O-C covalent cross-linked HC-MXene composite, in which the edge of the MXene nanosheets is in situ oxidized by air to form TiO2 nanorods, forming a regular 1D/2D MXene/TiO2 heterojunction structure. ^[6] Ultrahigh dielectric constant is obtained in polymer/MXene composites due to percolation. ^[7] Thermal energy based on phase change material/MXene composites can alleviate the crisis of energy and fulfil the energy demands. ^[8] In this work, we demonstrate that multiple interfaces of segregated structure in MXene composites enhance the absorption of electromagnetic waves. ^[9] Moreover, the multistep alloying reaction mechanism of SnS2 NSs/MXene composites and K+ is revealed by the ex situ X-ray diffraction measurement. ^[10] Herein, we discovered the surprising benefits of tartaric acid, a natural source, as a non-innocent additive in the MXene composite. ^[11] The PVA/MXene composite-based humidity sensor was self-powered by MoSe 2 PENG and exhibited excellent properties. ^[12] When applied as catalysts for MOR, the synthesized Pt/e-MXene composites exhibit prominently enhanced performances compared with Pt/e-MXene and JM Pt/C catalysts in terms of electrocatalytic activity and durability. ^[13] This work suggests new pathways for the use of MXene composites with double transition metals (Mo and Ti) in energy storage devices. ^[14] In this study, MnOx/MXene composites were used as a model system using the chemical activity of MXene to invoke an interfacial interaction with manganese oxide. ^[15] This method has the potential to be extended to the preparation of other metal oxide and MXene composites with large scale batch. ^[16] In this study, with two dimensional MXene as the substrate, Prussian blue analogues@MXene composite (PBA@MXene) was fabricated and utilized as a heterogeneous catalyst for the oxidative degradation of coumarin (COU) based on peroxymonosulfate activation. ^[17] As a result, a crumpled NC-TiO2/MXene composite is fabricated, where nano-TiO2 is dispersed on the surface of the crumpled MXene and all the elements (Ti, O, C, and N) are uniformly distributed. ^[18] Nickel incorporated on MoS2/MXene composites (NiMoS2/MXene) via a wet impregnation method is used as an anode electrode material for methanol electro-oxidation. ^[19] Here, we report the benefits of tartaric acid, a natural source, as a non-innocent additive in the MXene composite. ^[20] This study proposes a Polypyrrole (PPy) and MXene composite, grown on cotton fiber, as a high capacitance electrode. ^[21] This method can be generalized to prepare other transition metal oxide (TMO) and MXene composites for dispersibility improvement of TMO nanoparticles for various applications. ^[22] In this paper, a novel MnO2/MXene composite is prepared by electrostatic self-assembly. ^[23] The good electrochemical performance of the NiCo2S4/MXene composite is ascribed to the synergistic coupling effect between NiCo2S4 and MXene nanosheets, which could enhance the charge transfer kinetics during the charge/discharge process. ^[24] TiS2/MXene composites with different molar ratio were successfully prepared by one-step hydrothermal method, and the optimal proportion was confirmed by characterization. ^[25] A novel and highly conductive dodecaborate/MXene composites have been designed for high performance supercapacitors. ^[26] We firstly report a facile strategy to prepare WO3/MXene composite by intimately electrostatic attraction between the positively charged WO3 nanorods (WNRs) and the negatively charged transition metal carbides (MXene). ^[27] So far, the anti-dripping performance of polymer/MXene composites has rarely been reported. ^[28]
SnO<inf>2</inf>/MXene复合材料采用简便的水热法合成，SnO<inf>2</inf>纳米片在MXene薄片表面均匀生长。 ^[1] 在此，通过简单的两步化学反应方法制备了 ZnO/MXene 复合材料，并系统地研究了它们的结构和光催化性能。 ^[2] 通过简便的水热途径获得了结构化的纳米级 SnO2/MXene 复合材料，并将其用作钠离子电池 (SIB) 的负极材料。 ^[3] 正如预期的那样，在 MXene 复合材料中实现了具有超薄匹配厚度和优异吸收能力的电磁波吸收体。 ^[4] 对于 5 wt 的 PI/MXene 复合材料，实现了 418 W m-1 K-1。 ^[5] 具有丰富含氧官能团的 MXene (Ti3C2Tx) 在球磨过程中与 HC 颗粒反应形成 Ti-O-C 共价交联 HC-MXene 复合材料，其中 MXene 纳米片的边缘被空气原位氧化成形成 TiO2 纳米棒，形成规则的 1D/2D MXene/TiO2 异质结结构。 ^[6] 由于渗透，在聚合物/MXene 复合材料中获得了超高介电常数。 ^[7] 基于相变材料/MXene复合材料的热能可以缓解能源危机，满足能源需求。 ^[8] 在这项工作中，我们证明了 MXene 复合材料中分离结构的多个界面增强了电磁波的吸收。 ^[9] 此外，通过非原位 X 射线衍射测量揭示了 SnS2 NSs/MXene 复合材料与 K+ 的多步合金化反应机理。 ^[10] 在这里，我们发现了天然来源酒石酸作为 MXene 复合材料中的非无害添加剂的惊人益处。 ^[11] 基于 PVA/MXene 复合材料的湿度传感器由 MoSe 2 PENG 自供电并表现出优异的性能。 ^[12] 当用作 MOR 的催化剂时，与 Pt/e-MXene 和 JM Pt/C 催化剂相比，合成的 Pt/e-MXene 复合材料在电催化活性和耐久性方面表现出显着增强的性能。 ^[13] 这项工作提出了在储能设备中使用具有双过渡金属（Mo 和 Ti）的 MXene 复合材料的新途径。 ^[14] 在这项研究中，MnOx/MXene 复合材料被用作模型系统，利用 MXene 的化学活性来引发与氧化锰的界面相互作用。 ^[15] 该方法有可能扩展到大规模批量制备其他金属氧化物和 MXene 复合材料。 ^[16] 在这项研究中，以二维 MXene 为基底，制备了普鲁士蓝类似物@MXene 复合材料（PBA@MXene），并将其用作基于过氧单硫酸盐活化的香豆素（COU）氧化降解的多相催化剂。 ^[17] 结果，制造了皱巴巴的 NC-TiO2/MXene 复合材料，其中纳米 TiO2 分散在皱巴巴的 MXene 表面，所有元素（Ti、O、C 和 N）均匀分布。 ^[18] 通过湿浸渍法将镍掺入 MoS2/MXene 复合材料 (NiMoS2/MXene) 上，用作甲醇电氧化的阳极电极材料。 ^[19] 在这里，我们报告了天然来源酒石酸作为 MXene 复合材料中的非无害添加剂的好处。 ^[20] 本研究提出了一种在棉纤维上生长的聚吡咯 (PPy) 和 MXene 复合材料作为高电容电极。 ^[21] 该方法可推广用于制备其他过渡金属氧化物 (TMO) 和 MXene 复合材料，以提高 TMO 纳米粒子的分散性，以用于各种应用。 ^[22] 在本文中，通过静电自组装制备了一种新型 MnO2/MXene 复合材料。 ^[23] NiCo2S4/MXene 复合材料的良好电化学性能归因于 NiCo2S4 和 MXene 纳米片之间的协同耦合效应，这可以增强充电/放电过程中的电荷转移动力学。 ^[24] 采用一步水热法成功制备了不同摩尔比的TiS2/MXene复合材料，并通过表征确定了最佳比例。 ^[25] 一种新型的高导电性十二硼酸盐/MXene 复合材料已被设计用于高性能超级电容器。 ^[26] 我们首先报告了一种通过带正电的 WO3 纳米棒 (WNR) 和带负电的过渡金属碳化物 (MXene) 之间的紧密静电吸引来制备 WO3/MXene 复合材料的简便策略。 ^[27] 迄今为止，聚合物/MXene复合材料的抗滴落性能鲜有报道。 ^[28]

Ti3c2tx Mxene Composite Ti3c2tx Mxene 复合材料

Results demonstrated that the frequency dependence of electromagnetic parameters for the FeNi/Ti3C2Tx MXene composites could be easily regulated by simply changing the content of FeNi nanoparticles in favor of improved magnetic loss and optimized impedance matching. ^[1] The sulfur content in S/Ti3C2Tx MXene composites is an important factor affecting the cathodes' electrochemical performance. ^[2] A simple noncovalent chemical approach and hydrothermal method were used for effectively riveting Co3O4 nanocrystals to branched polyethylenimine (PEI) functionalized Ti3C2Tx MXene sheets to fabricate Co3O4@PEI/Ti3C2Tx MXene composites. ^[3] Herein, we develop a novel roll-to-roll layer-by-layer assembly strategy to construct bark-shaped carbon nanotube (CNT)/Ti3C2Tx MXene composite film on the fiber surface. ^[4] We synthesize a series of cobalt species combined with carbon nanotubes loaded onto graphene-like titanium carbide (CoOx-N C/TiO2C), which are derived from bimetallic CoZn-based zeolitic imidazolite framework and Ti3C2Tx MXene composite (CoZn-ZIF/Ti3C2Tx). ^[5] The LVO/Ti3C2Tx MXene composite exhibited remarkable electrochemical performance in terms of rate capability and long-term cycle stability in comparison with bare LVO and commercial graphite anodes. ^[6] At high loading (and high conductivity), Ti3C2Tx MXene composites do not heat under RF fields due to reflection of electromagnetic waves, whereas composites with low conductivity do not heat due to the lack of an electrical percolating network. ^[7] In this paper, the NiFe2O4-decorated Ti3C2Tx MXene composites were synthesized by the in-situ chemical co-precipitation method. ^[8] Flexible and stretchable hybrid 3D graphene/Ti3C2Tx MXene composite thin film was fabricated using chemical vapor deposition (CVD) and selective etching method. ^[9]
结果表明，通过简单地改变 FeNi 纳米粒子的含量，可以轻松调节 FeNi/Ti3C2Tx MXene 复合材料的电磁参数的频率依赖性，从而有利于改善磁损耗和优化阻抗匹配。 ^[1] S/Ti3C2Tx MXene 复合材料中的硫含量是影响正极电化学性能的重要因素。 ^[2] 使用简单的非共价化学方法和水热法将 Co3O4 纳米晶体有效地铆接到支化聚乙烯亚胺 (PEI) 功能化的 Ti3C2Tx MXene 片材上，以制备 Co3O4@PEI/Ti3C2Tx MXene 复合材料。 ^[3] nan ^[4] 我们合成了一系列与碳纳米管结合的钴物种，这些碳纳米管负载在类石墨烯碳化钛 (CoOx-N C/TiO2C) 上，它们源自双金属 CoZn 基沸石咪唑石骨架和 Ti3C2Tx MXene 复合材料 (CoZn-ZIF/Ti3C2Tx)。 ^[5] 与裸 LVO 和商用石墨负极相比，LVO/Ti3C2Tx MXene 复合材料在倍率容量和长期循环稳定性方面表现出卓越的电化学性能。 ^[6] 在高负载（和高电导率）下，Ti3C2Tx MXene 复合材料由于电磁波的反射而不会在射频场下发热，而具有低电导率的复合材料由于缺乏电渗透网络而不会发热。 ^[7] 本文采用原位化学共沉淀法合成了 NiFe2O4 装饰的 Ti3C2Tx MXene 复合材料。 ^[8] 使用化学气相沉积 (CVD) 和选择性蚀刻方法制造了柔性和可拉伸的混合 3D 石墨烯/Ti3C2Tx MXene 复合薄膜。 ^[9]

Ti3c2 Mxene Composite Ti3c2 Mxene 复合材料

In the present work, we proposed a facile strategy to synthesize the Fe3O4/Ti3C2 MXene composite. ^[1] The significance of this work is that a coating structure NiCoFe-LDH/Ti3C2 MXene composite morphology was successfully synthesized for the first time which showed excellent electrochemical performance in the application of supercapacitors. ^[2] Specifically, the FeCo-Ti3C2 MXene composite displayed a broad effective bandwidth (RL. ^[3] A black phosphorus (BP)/Ti3C2 MXene composite was prepared by compositing small BP nanoparticles with exfoliated Ti3C2 layers. ^[4] In this work, a new microporous MIL-100(Fe)/Ti3C2 MXene composite was constructed as a well-designed non-noble metal-based Schottky junction photocatalyst with improved nitrogen fixation ability. ^[5]
在目前的工作中，我们提出了一种简便的策略来合成 Fe3O4/Ti3C2 MXene 复合材料。 ^[1] 这项工作的意义在于，首次成功合成了涂层结构NiCoFe-LDH/Ti3C2 MXene复合形态，在超级电容器的应用中表现出优异的电化学性能。 ^[2] 具体来说，FeCo-Ti3C2 MXene 复合材料显示出较宽的有效带宽 (RL. ^[3] 通过将小 BP 纳米粒子与剥离的 Ti3C2 层复合，制备了黑磷 (BP)/Ti3C2 MXene 复合材料。 ^[4] 在这项工作中，构建了一种新的微孔 MIL-100(Fe)/Ti3C2 MXene 复合材料，作为一种精心设计的非贵金属基肖特基结光催化剂，具有更高的固氮能力。 ^[5]

mxene composite film Mxene复合膜

The CCM@void@MXene composite films with “egg-box” structure are ultimately achieved by annealing treatment with spherical CCM@MXene as “egg” and Ti3C2Tx MXene layers as “box”. ^[1] Herein, a method of coating Ti3C2Tx with different sizes was proposed to prepare silver nanowire/MXene composite films. ^[2] In this work, aiming at the excellent triboelectric ability, alternate-layered MXene composite films-based TENG with abundant fluorine groups(-F) through layer-by-layer stacking are designed and fabricated. ^[3] In this work, a flexible TENG, based on wrinkled PDMS/MXene composite films prepared by facile ultraviolet ozone (UVO) irradiation, was constructed as self-powered tactile sensor. ^[4] Herein, a flexible conductive polyimide fiber (PIF)/MXene composite film with densely stacked "rebar-brick-cement" lamellar structure is fabricated using the simple vacuum filtration plus thermal imidization technique. ^[5] Herein, we develop a novel roll-to-roll layer-by-layer assembly strategy to construct bark-shaped carbon nanotube (CNT)/Ti3C2Tx MXene composite film on the fiber surface. ^[6] Here we demonstrate a novel electrochemical polymerization (EP) enabled by a 2D transition metal carbide MXene for obtaining conjugated polymer-MXene composite films deposited on conducting substrates without using traditional electrolytes, indispensable compounds for commonly electrochemical polymerization. ^[7]
具有“蛋盒”结构的 CCM@void@MXene 复合薄膜最终通过以球形 CCM@MXene 为“蛋”、Ti3C2Tx MXene 层为“盒”的退火处理来实现。 ^[1] 在此，提出了一种涂覆不同尺寸的Ti3C2Tx来制备银纳米线/MXene复合薄膜的方法。 ^[2] 在这项工作中，针对优异的摩擦起电能力，通过逐层堆叠设计并制造了具有丰富氟基（-F）的交替层状MXene复合薄膜基TENG。 ^[3] 在这项工作中，基于通过简易紫外臭氧（UVO）照射制备的褶皱 PDMS/MXene 复合薄膜的柔性 TENG 被构建为自供电触觉传感器。 ^[4] 在此，使用简单的真空过滤和热酰亚胺化技术制备了具有密集堆叠的“钢筋-砖-水泥”层状结构的柔性导电聚酰亚胺纤维 (PIF)/MXene 复合薄膜。 ^[5] nan ^[6] 在这里，我们展示了一种由二维过渡金属碳化物 MXene 实现的新型电化学聚合（EP），用于在不使用传统电解质的情况下获得沉积在导电基底上的共轭聚合物-MXene 复合薄膜，而传统的电解质是电化学聚合中必不可少的化合物。 ^[7]

mxene composite membrane Mxene复合膜

In this work, for the first time, the dopamine-functionalized graphene oxide (DGO) nanosheets were intercalated into the MXene (Ti3C2Tx) nanosheets, and subsequently, a series of novel DGO/MXene composite membranes were prepared via vacuum filtration on hydrophilic polyvinylidene fluoride (PVDF) membranes as the support layer. ^[1] Importantly, the excellent photo-induced self-cleaning capability and low oil-adhesion contributed to the high anti-fouling resistance, outstanding reusability, and durability of 2D MXene composite membrane. ^[2] These indicated the good antifouling properties of MXene composite membranes. ^[3]
在这项工作中，首次将多巴胺功能化的氧化石墨烯（DGO）纳米片嵌入到MXene（Ti3C2Tx）纳米片中，随后在亲水性聚偏二氟乙烯上通过真空过滤制备了一系列新型DGO/MXene复合膜。 (PVDF) 膜作为支撑层。 ^[1] 重要的是，优异的光致自清洁能力和低油附着力有助于二维 MXene 复合膜的高抗污性、出色的可重复使用性和耐用性。 ^[2] 这些表明 MXene 复合膜具有良好的防污性能。 ^[3]

mxene composite aerogel Mxene 复合气凝胶

Ultimately, the lightweight PVA/MXene composite aerogels (~33 mg cm−3) can reach the compressible strength at 60% strain of 127. ^[1] Herein, a functionalized cellulose/MXene composite aerogel is prepared by the oxidative self-polymerization of dopamine hydrochloride and freeze-drying, which exhibits an excellent adsorption performance for methylene blue (MB). ^[2] Single-module solar-driven interfacial evaporators based on Janus cellulose nanofibril/MXene composite aerogels were developed, achieving evaporation rates as high as 2. ^[3]
最终，轻质 PVA/MXene 复合气凝胶（~33 mg cm-3）可以在 60% 应变下达到 127 的可压缩强度。 ^[1] 在此，通过多巴胺盐酸盐的氧化自聚合和冷冻干燥制备了功能化纤维素/MXene复合气凝胶，该气凝胶对亚甲基蓝（MB）表现出优异的吸附性能。 ^[2] nan ^[3]

mxene composite material

The strategy of preparing MnCO3 and MXene composite materials through self-assembly of hydrogen bonds to enhance the interface effect has a good application prospect in the design of energy storage materials. ^[1] The sensitivity of sensor characterized by resonant frequency and intensity with a wide humidity range from 10% to 95% RH can be improved by using the GO@MXENE composite material as sensitive material of humidity. ^[2]
nan ^[1] 使用GO@MXENE复合材料作为湿度敏感材料，可以提高10%~95% RH宽湿度范围内以谐振频率和强度为特征的传感器的灵敏度。 ^[2]

mxene composite nanosheet

Then, carbon nanotubes (CNTs)/MXene composite nanosheets were inserted into the CS via vacuum impregnation. ^[1] In this work, a series of Co3 O4 -doped 3 D MXene/RGO hybrid porous aerogels is designed and prepared through a facile in situ reduction and thermal annealing process, in which the reduced graphene oxide (RGO) conductive network can electrically link the separated Co3 O4 -MXene composite nanosheets, leading to enhanced electronic conductivity. ^[2]
然后，通过真空浸渍将碳纳米管 (CNT)/MXene 复合纳米片插入 CS 中。 ^[1] 在这项工作中，通过简便的原位还原和热退火工艺设计和制备了一系列 Co3O4 掺杂的 3 D MXene/RGO 杂化多孔气凝胶，其中还原的氧化石墨烯 (RGO) 导电网络可以将分离的Co3 O4 -MXene 复合纳米片，可提高电子导电性。 ^[2]

mxene composite catalyst Mxene 复合催化剂

In this work, the g-C3 N4 /V2 C MXene composite catalyst was prepared by solvothermal method, and its denitration performance under synergistic plasma (NTP) was investigated. ^[1] A series of MXene composite catalysts were successfully synthesized by densely coating sulfur vacancy-rich CdS nanoparticles on Ti3C2. ^[2]
本工作采用溶剂热法制备了g-C3 N4 /V2 C MXene复合催化剂，并研究了其在协同等离子体（NTP）下的脱硝性能。 ^[1] 通过在 Ti3C2 上致密包覆富含硫空位的 CdS 纳米颗粒，成功合成了一系列 MXene 复合催化剂。 ^[2]

mxene composite foam Mxene 复合泡沫

Herein, we prepared poly(vinylidene fluoride)/cobalt (Co)/MXene composite foams that exhibited applicable impedance matching, enhanced EMW absorption and high-performance thermal conduction properties. ^[1] The multilayer reduced graphene oxide/MXene composite foam shows an excellent EMI shielding effectiveness of more than ~28 dB in C and ~35 dB in X band. ^[2]
在此，我们制备了聚（偏二氟乙烯）/钴（Co）/MXene 复合泡沫材料，该泡沫材料表现出适用的阻抗匹配、增强的 EMW 吸收和高性能的导热性能。 ^[1] 多层还原氧化石墨烯/MXene 复合泡沫具有出色的 EMI 屏蔽效果，C 波段超过 ~28 dB，X 波段超过 ~35 dB。 ^[2]