Advanced Composites and Hybrid Materials先进复合材料与杂化材料
Advanced Composites and Hybrid Materials(英文缩写 ADV COMPOS HYBRID MA),ISSN 2522-0128,eISSN 2522-0136,中文译名:先进复合材料与杂化材料 是一本学术期刊。本页汇总该期刊的最新影响因子、分区信息以及最新收录于 PubMed 的文献,帮助您快速了解期刊全貌。
发文量统计区间：2025-11-01 至 2026-10-31，按本站收录文献的发表日期统计。
期刊介绍
历年影响因子趋势
| JCR 数据年份 | 影响因子 | JCR 分区 |
|---|---|---|
| 2021 | 11.806 | Q1 |
| 2022 | 20.100 | Q1 |
| 2023 | 23.200 | Q1 |
| 2024 | 21.800 | Q1 |
| 2025 | 15.500 | Q1 |
Advanced Composites and Hybrid Materials 最新收录文献
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1. Enhancing the in-plane shear properties of carbon fiber reinforced polymer composite laminates with aligned carbon nanofiber z-threads.
1. 利用定向碳纳米纤维z向线程增强碳纤维增强聚合物复合层压板的面内剪切性能PMID:日期:2026-06-02[中文摘要] 面内剪切强度在碳纤维增强聚合物（CFRP）层合板中起着关键的结构作用。然而，由于厚度方向（即z方向）缺乏增强，CFRP层合板在承受角铺层间剪切应力时容易发生灾难性失效。以往研究报道，在层间使用非取向纳米颗粒插层对提高面内剪切强度的效果可忽略不计。本研究提出了一种提高面内剪切性能的新方法，即采用碳纳米纤维（CNFs）z向穿线CFRP（ZT-CFRP），利用电取向CNFs作为纳米增强体，沿z方向穿过碳纤维之间的间隙，形成机械互锁的多尺度纤维增强网络。对对照CFRP、0.5wt%非取向CNF改性CFRP以及环氧基体中分散0.5wt%和1.0wt% CNFs的ZT-CFRP样品的[45/-45]层合板进行了面内剪切试验。与对照CFRP相比，0.5wt%和1.0wt% ZT-CFRP样品的面内剪切强度和韧性模量分别显著提高了25.6%和22.2%。对照CFRP样品同时表现出层内和层间分层失效模式，损伤跨越铺层扩展，而ZT-CFRP样品则表现出更局限于层间区域的局部化失效，表明层内区域得到了显著增强。相比之下，非取向CNF改性CFRP在测试值和显微观察上均比对照CFRP和ZT-CFRP更弱、更脆。本研究证明了在CFRP层合板内添加纳米纤维时采用先进纳米结构排列对于提高面内剪切性能的重要性。在线版本包含补充材料，可在10.1007/s42114-026-01893-6获取。
[英文摘要] In-plane shear strength plays a critical structural role of carbon fiber reinforced polymer (CFRP) laminates. However, the lack of reinforcement in the through-thickness direction (i.e., z-direction) makes a CFRP laminate susceptible to catastrophic failure when subjected to shear stresses between the angle plies. Previous studies reported that using interleaves of unaligned nano particles between the plies had negligible in-plane shear strength improvements. This study introduces a novel approach for improving in-plane shear properties through the use of carbon nanofibers (CNFs) z-threaded CFRP (ZT-CFRP), which utilizes electrically aligned CNFs as nano-reinforcement to thread through the gaps between carbon fibers along the z-direction and forms a mechanically interlocked multiscaled fiber reinforcement network. In-plane shear tests were conducted on [45/-45] laminates of control CFRP, 0.5wt% unaligned CNF-modified CFRP, and ZT-CFRP samples containing 0.5 wt% and 1.0 wt% CNFs dispersed in the epoxy matrix. Compared with control CFRP, the 0.5wt% and 1.0wt% ZT-CFRP samples showed significant 25.6% and 22.2% increases in the in-plane shear strength and the modulus of toughness, respectively. While the control CFRP samples exhibited both intralaminar and interlaminar delamination failure modes, with damage spreading across the plies, the ZT-CFRP samples demonstrated a more localized failure confined to the interlaminar region, which indicated a significantly reinforced intralaminar region. In contrast, unaligned CNF-modified CFRPs were weaker and more brittle than both control CFRP and ZT-CFRPs in the testing values and microscopy. This study proved the importance of using advanced nanostructure arrangement when adding nanofibers inside CFRP laminates to improve the in-plane shear performance. The online version contains supplementary material available at 10.1007/s42114-026-01893-6.
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2. In situ UV-laser-induced forward transfer of carbon nanosphere/graphene composites on siloxane-polyurethane substrates for human health monitoring.
2. 原位紫外激光诱导前向转移碳纳米球/石墨烯复合材料至硅氧烷-聚氨酯基底用于人体健康监测PMID:日期:2026-03-17[中文摘要] 在本研究中，我们采用单步烧蚀技术开发了紫外激光诱导碳纳米球/石墨烯（UV-LICNG）复合材料。该方法利用紫外激光诱导前向转移（UV-LIFT）技术，在具有优异力学性能的硅烷封端聚氨酯（S-PU）基底上直接制备线图案化的UV-LICNG复合材料。UV-LICNG的独特结构由共轭碳纳米球和具有大比表面积的石墨烯组成，使其具备出色的应变和湿度传感性能。基于分离式传感机制，UV-LICNG基应变传感器在低应变范围内表现出高灵敏度的应变检测能力，实现了高灵敏度系数（在0-2%应变范围内GF ≈ 146.5），并具有优异的线性度（R ≈ 0.9906）、快速的响应和恢复时间（分别为29 ms和31 ms），以及在0.2%应变下超过3,000次拉伸循环的卓越耐久性。这些特性使得能够精确检测细微的人体运动和发声引起的应变信号。此外，UV-LICNG固有的纳米-微米多孔石墨结构赋予了其优异的湿度传感性能，表现为快速的响应和恢复时间（分别为4.2 s和4.8 s），从而有助于实现可靠的呼吸监测和非接触式皮肤湿度传感。应变和湿度传感能力的结合，加之UV-LIFT工艺的简便性和可扩展性，凸显了UV-LICNG基可穿戴电子设备在连续人体健康监测和多功能可穿戴传感应用中的巨大潜力。在线版本包含补充材料，可在10.1007/s42114-026-01732-8获取。
[英文摘要] In this study, we developed UV-laser-induced carbon nanosphere/graphene (UV-LICNG) composites using a single-step ablation technique. This method employs UV-laser-induced forward transfer (UV-LIFT) to directly fabricate line-patterned UV-LICNG composites on silane-terminated polyurethane (S-PU) substrates with excellent mechanical properties. The unique structure of UV-LICNG, comprising conjugated carbon nanospheres and graphene with a large surface area, enables outstanding strain and humidity sensing performance. Owing to a separation-based sensing mechanism, the UV-LICNG-based strain sensor exhibits highly sensitive strain detection in the low-strain regime, achieving a high gauge factor (GF ≈ 146.5 within the 0-2% strain range), along with excellent linearity (R ≈ 0.9906), rapid response and recovery times (29 ms and 31 ms, respectively), and exceptional durability over 3,000 stretching cycles at 0.2% strain. These attributes enable precise detection of subtle human motions and vocalization-induced strain signals. In addition, the intrinsic nano-micro porous graphitic structure of UV-LICNG imparts excellent humidity-sensing performance, characterized by fast response and recovery times (4.2 and 4.8 s, respectively), thereby facilitating reliable respiration monitoring and non-contact skin humidity sensing. The combined strain and humidity sensing capabilities, together with the simplicity and scalability of the UV-LIFT process, highlight the strong potential of UV-LICNG-based wearable electronics for continuous human health monitoring and multifunctional wearable sensing applications. The online version contains supplementary material available at 10.1007/s42114-026-01732-8.
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3. {"_":"One-dimensional well-defined peapod CoNi@C nanocomposite hollow nanorod towards enhanced electromagnetic performance.","sub":["x","y"]}
3. {"_":"一维结构明确的豆荚状CoNi@C纳米复合中空纳米棒及其增强的电磁性能研究","sub":["x","y"]}PMID:日期:2026-03-02[中文摘要] 微波吸收材料(MAMs)不仅能实现高电磁吸收，还具有轻质和抗氧化等特点。这是某些特殊领域亟待解决的问题。因此，我们开展了一系列实验，制备了一维豌豆荚状CoNi@C吸波材料。通过实验结果和前期工作，我们发现一维结构在实现高吸收效率和轻量化方面具有巨大潜力，并能在低填充率下实现良好的阻抗匹配，这归因于一维结构导电性的增强以及核壳结构引起的界面极化，同时一维结构会进一步增大异质界面面积并增强界面极化损耗。一系列豌豆荚状CoNi@C的最小反射损耗(RL)和有效吸收带宽(EABD)分别为：CoNi@C(12.3 GHz，2.2 mm)为-48.4 dB和4.8 GHz，CoNi@C(9.5 GHz，2.1 mm)为-43.2 dB和5.8 GHz。由于Ni的加入，形成的NiO层保护了合金颗粒，使CoNi@C具有一定的抗氧化性。在空气中350 ℃氧化12 h后，CoNi@C的RL和EABD分别保持在-41.2 dB和5 GHz。这项工作展示了一维结构在MAMs轻量化方面的重要潜力，并为后续MAMs抗氧化性研究提供了有价值的见解。在线版本包含补充材料，可在10.1007/s42114-026-01702-0获取。
[英文摘要] Microwave absorbing materials (MAMs) not only achieve high electromagnetic absorption, but also have the characteristics of lightweight and oxidation resistance. This is a problem that needs to be solved urgently in some special fields. Therefore, we have done a series of experiments and prepared one-dimensional pea pod-like CoNi@C absorbing material. Through the experimental results and previous work, we find that one-dimensional structure has great potential to achieve high absorption efficiency and lightweight, and can achieve good impedance matching at low filling rate, which is attributed to the enhancement of conductivity of one-dimensional structure and the interface polarization caused by core-shell structure, and the one-dimensional structure will further increase the heterogeneous interface area and enhance the interface polarization loss. The minimum reflection loss (RL) and effective absorption width (EABD) of a series of pea pod-like CoNi@C were - 48.4 dB and 4.8 GHz for CoNi@C (12.3 GHz, 2.2 mm), and-43.2 dB and 5.8 GHz for CoNi@C (9.5 GHz, 2.1 mm). Because of the addition of Ni, the formed NiO layer protects the alloy particles, which makes CoNi@C have certain oxidation resistance. After being oxidized at 350 ℃ for 12 h in air, the RL and EABD of CoNi@C remained at -41.2 dB and 5 GHz, respectively. This work shows the important potential of one-dimensional structure in lightweight of MAMs, and provides valuable insights for the subsequent research on oxidation resistance of MAMs. The online version contains supplementary material available at 10.1007/s42114-026-01702-0.
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4. Enzyme-induced mineralization of calcium carbonate in 3D printable granular hydrogels.
4. 3D打印颗粒水凝胶中碳酸钙的酶诱导矿化PMID:日期:2026-03-02[中文摘要] 许多生物材料（如骨）是机-无机复合材料，由聚合物基质构成，该基质在温和条件下支持生物矿化。这些材料通常由少数几种含量丰富的组分（如多糖、蛋白质和矿物质）组成，并表现出密度归一化刚度、韧性和功能性的卓越组合。通过节能工艺制备具有类似性能组合的仿生合成多孔复合材料，仍是一项尚未解决的挑战。该挑战的某些方面可利用诱导生物矿化的活细菌来应对。然而，活细菌限制了生物医学应用，尤其是在体内，且需要小心处理，成本高昂。为解决这些局限性，我们引入了完全由天然来源聚合物制成的含酶颗粒前驱体。这些前驱体可浇铸或直写成型为厘米级结构，随后在温和条件下矿化，达到高达92 wt%的CaCO含量和56 vol%的孔隙率。所得矿化支架表现出高达4 MPa的抗压强度（比强度：5.2 MPa·cm·g）和56 MPa的压缩模量（比模量：72 MPa·cm·g）。尽管这些数值是在干燥状态下测得的，但其落在具有相似孔隙率（50-90%）的人体骨小梁的报道范围内（Morgan等，Annu Rev Biomed Eng 20:119-43, 91；Tanoto等，Extreme Mech Lett 73:102265, 92）。所得生物矿化-有机复合材料表现出低细胞毒性。这些发现凸显了该方法在温和条件下3D打印生物相容性CaCO基复合材料的潜力。我们设想该配方将为组织工程开辟新的可能性。在线版本包含补充材料，可访问10.1007/s42114-026-01662-5获取。
[英文摘要] Many biological materials, such as bone, are organic-inorganic composites, made from a polymeric matrix that supports biomineralization under mild conditions. These materials are usually composed of a small set of abundant components like polysaccharides, proteins, and minerals, and exhibit a remarkable combination of density normalized stiffness, toughness, and functionality. Producing bio-inspired synthetic porous composites with a similar combination of properties through energy-efficient processes still presents an unmet challenge. Some aspects of this challenge can be addressed using living bacteria that induce biomineralization. However, living bacteria limit biomedical applications, especially in vivo, require careful handling, and are costly. To address these limitations, we introduce enzyme-containing granular precursors exclusively made from naturally sourced polymers. These precursors can be cast or direct ink written into cm-sized structures before they are mineralized under benign conditions to reach CaCO contents up to 92 wt% with a porosity of 56 vol%. The resulting mineralized scaffolds exhibit a compressive strength up to 4 MPa (specific: 5.2 MPa·cm·g) and a compressive modulus of 56 MPa (specific: 72 MPa·cm·g). Although measured in the dry state, these values fall within the range reported for human trabecular bone with similar porosities (50-90% (Morgan et al., Annu Rev Biomed Eng 20:119-43, 91; Tanoto et al., Extreme Mech Lett 73:102265, 92). The resulting biomineral-organic composites show low cytotoxicity. These findings highlight the potential of this approach to 3D print biocompatible CaCO-based composites under mild conditions. We envisage this formulation to open up new possibilities for tissue engineering. The online version contains supplementary material available at 10.1007/s42114-026-01662-5.
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5. Integrated carbon nanotube-reinforced PTFE nanofiber membranes for breathable, super-hydrophobic, and thermally resilient triboelectric nanogenerators.
5. 用于透气、超疏水且耐热摩擦纳米发电机的集成碳纳米管增强聚四氟乙烯纳米纤维膜PMID:日期:2026-02-02The rapid advancement of self-powered wearable electronics has created an urgent demand for materials that can simultaneously enable efficient energy harvesting and reliable sensing while maintaining mechanical flexibility, breathability, and environmental robustness. Here, a carbon nanotube (CNT)-reinforced polytetrafluoroethylene (PTFE) nanofiber membrane with multiple functionalities is developed through an electrospinning-sintering strategy, integrating high breathability, super-hydrophobicity, and thermal resilience within a single architecture. The incorporation of CNTs enhances dielectric properties and mechanical strength, forming a robust charge-retentive fibrous network. The optimized membrane exhibits a super-hydrophobic surface with a water contact angle of 155.49°, along with excellent air permeability and outstanding thermal stability. When assembled into a triboelectric nanogenerator (TENG), the device delivers an open-circuit voltage of ~ 122 V, sufficient to power portable electronics. The TENG also demonstrates excellent fouling resistance and self-cleaning capability, maintaining stable performance after repeated contamination-washing cycles. Owing to its breathable and flexible configuration, the device enables real-time motion and respiration monitoring without compromising air exchange. It also exhibits consistent output under high-temperature (up to 250 °C) and underwater conditions, with the latter further showcased through Morse-code communication. This work establishes a scalable materials design strategy for multifunctional nanofibrous TENGs, offering a versatile platform for adaptive, self-powered electronic systems operable across diverse environments. The online version contains supplementary material available at 10.1007/s42114-026-01657-2.
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6. Microbiota-responsive oral nano-amifostine enables colorectal-specific radioprotection and tumor immunity via gut microenvironment reprogramming.
6. 微生物群反应性口服纳米氨磷汀通过肠道微环境重编程实现结直肠特异性辐射防护和肿瘤免疫PMID:日期:2025-11-19Radiotherapy for abdominal malignancies is limited by intestinal toxicity and secondary colorectal cancers. Here, we develop an oral, microbiota-responsive nano-amifostine (CS/PEC-AMF NPs) system that achieves site-specific radioprotection in the colorectum without compromising antitumor efficacy. By conjugating amifostine to pectin and encapsulating it with chitosan, the nanoparticles enable pH- and microbiota-triggered release in the large bowel, safeguarding drug bioactivity during gastrointestinal transit. In murine models, CS/PEC-AMF NPs attenuate both acute and chronic radiation-induced bowel injury, restore epithelial integrity, preserve stem cell populations, and promote tight junction repair. Integrated metagenomic and metabolomic analyses reveal that the system normalizes gut microbiota diversity and composition, increases short-chain fatty acid production, and facilitates macrophage polarization towards the anti-inflammatory M2 phenotype. Notably, the formulation synergistically enhances tumor suppression and extends survival in orthotopic colorectal tumor models undergoing radiotherapy and reduces the incidence of secondary colorectal tumors post-irradiation. Mechanistically, transcriptomic analysis demonstrates the suppression of proinflammatory pathways and the promotion of DNA repair programs. This study provides a paradigm for leveraging functional nanomaterials to orchestrate precise, tissue-specific radioprotection and immune modulation, addressing a key challenge in abdominal cancer therapy. Graphical abstract The online version contains supplementary material available at 10.1007/s42114-025-01492-x.
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7. Al-based functionally graded super-intermetallic compounds for the turbine blade of a high-performance jet engine.
7. 用于高性能喷气发动机涡轮叶片的基于铝的功能梯度超金属间化合物PMID:日期:2025-11-12An Al-based functionally graded structure is fabricated, featuring a discrete compositional gradient of 48.1Al47.9Ti4.0V/73.7Al24.2Ti2.1V/89.5Al10.0Ti0.5V in atomic percentage. This structure is produced via dual-hybrid laser powder bed fusion and directed energy deposition combined with computer numerical control milling. Particularly remarkable is the high tensile strength, ranging from 0.5 to 1.7 GPa. This strength is attributable to three key factors: (1) rapid solidification during inert gas flow following high-energy laser irradiation, (2) the formation of γ-like intermetallic matrix phases along with γ'-like (α-based in the composition of 48.1Al47.9Ti4.0V) intermetallic precipitate phases, and (3) the presence of segregates and precipitates with more V-based compounds at the grain boundaries, distinguishable by their sizes, shapes, and distributions across the microstructures. In addition, (4) large anisotropically lamellar precipitate phases, several hundreds of nanometers in diameter, are predominantly observed in the dendritic regions. Owing to these Al-based intermetallic compounds, each exhibiting low densities (2.9-3.7 g cm) and high thermal resistances (450-900 °C), the functionally graded structure is then employed in the topological optimization of a turbine blade system for a high-performance jet engine. This process involves identifying the stress-bearing regions, removing any stress-free areas, and applying a structural-stiffness-increasing mechanism through shape and geometric transformation. The online version contains supplementary material available at 10.1007/s42114-025-01499-4.
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8. {"_":"Characterization and mesoscale modeling of an enhanced UHMWPE fabric treated with -diazirine: multicriteria crosslinker selection and surrogate-based inverse parameter estimation.","i":["bis"]}
PMID:日期:2025-07-01Ultra-high molecular weight polyethylene (UHMWPE) woven fabrics are commonly used in armor applications due to their superior biaxial mechanical and physical properties. In this study, three different diazirine-based crosslinker options were initially considered as the chemical treatment applied to a dry UHMWPE plain weave to improve a range of its properties. The optimum crosslinker was then selected using a VICOR multicriteria decision-making model. Specifically, through the bias-extension and yarn pull-out tests, it was observed that the optimum crosslinker significantly enhanced (> 100%) the crossover interactions between the warp/weft yarns. Subsequently, a mesoscale finite element model was developed to predict both the tensile and shear responses of the untreated and treated fabrics. In developing this model, an inverse analysis was employed to capture the effect of yarn transverse elastic modulus and the friction at the crossovers-two properties that are known to be difficult to measure directly in the weave form of yarns. These parameters were sampled using a design of computational experiments and then optimized via a surrogate-based model. Finally, challenges presented by the crosslinking at the single yarn level during characterization are discussed and resolved numerically. For both the treated and untreated fabrics, the mesoscale model is shown to predict the material behavior accurately.
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9. Fully bio-based composite and modular metastructures.
9. 全生物基复合与模块化超结构PMID:日期:2025-07-01The reliance on fossil-derived components in the design of metamaterials and metastructures presents sustainability and environmental challenges, prompting the development of alternative solutions. In response, this study proposes a fully bio-based and modular metastructure composed of rods extracted from the giant bamboo () and plant-based polymeric joints derived from soybean () and castor oil (), aiming to offer a sustainable alternative for load-bearing structural components. The research investigates the design, fabrication, and mechanical performance of a unit trussed cell (50 × 50 × 50 mm) engineered to exhibit auxetic-like chiral rotation and enhanced energy absorption under compressive loading. These cells are assembled into trussed beams (400 × 50 × 50 mm), and further into sandwich beams with 5 mm thick balsa wood skins. Material properties of the bamboo and polymer components are assessed via physical, chemical, and mechanical characterisation to asses their potential chemical-adhesion compatibility, density, and mechanical performance. Following the fabrication of the proposed structures, further experimental evaluation includes compression of the trussed cell and four-point bending of the beam configurations, while finite element analysis (FEA) is used to simulate elastic behaviour under torsional and cantilever loading. Results demonstrate that the metastructure trussed cell (with a mass of ~ 30 g) supports up to 700 kg in compression, achieving ~ 2 mm displacement, 4° rotation, and absorbing ~ 750 μJ/mm of energy; it also exhibits a force-displacement slope of ~ 4,200 N/mm and an equivalent Poisson ratio near zero within the elastic regime (up to ~ 1 mm displacement). The trussed and sandwich beams exhibit equivalent densities of ~ 0.19 and ~ 0.21 g/cm, respectively, while achieving bending loads of ~ 2000 N and ~ 3600 N, corresponding to maximum bending moments of ~ 103 and ~ 188 kN∙mm, and toughness values of ~ 158 and ~ 193 μJ/mm, respectively. Simulated torsional response of the trussed cell indicates a torque of ~ 7,300 N∙mm per degree of twist, while FEA results for cantilever loading show a homogenised flexural modulus of the beams of ~ 623 MPa (trussed) and ~ 751 MPa (sandwich). These outcomes underscore a promising direction for developing renewable, high-strength, and lightweight composite structures, with applications ranging from civil construction to aerospace engineering. Graphical Abstract
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10. A review of high-entropy materials with their unique applications.
PMID:日期:2025-03-03High-entropy materials (HEMs) constitute an innovative category of advanced materials distinguished by their distinctive atomic arrangements and remarkable multifunctional attributes. This thorough overview critically analyzes the core principles, synthesis methods, and novel applications of HEMs, emphasizing their transformative potentials in electromagnetic and biological fields. This study examines how the high configurational entropy effect, lattice distortion, and slow diffusion mechanisms facilitate the stabilization of single-phase systems including numerous primary elements. Recent advancements in HEM development have demonstrated exceptional skills in electromagnetic wave absorption, attaining reflection losses of up to - 35.10 dB via nano-domain designs and synergistic dielectric-magnetic loss mechanisms. Including rare-earth elements has substantially affected magnetic ordering and transition temperatures, with La-based compounds displaying spontaneous magnetization of approximately 15.2 emu/g. In biomedical applications, innovative HEM formulations have attained improved biocompatibility with a diminished Young's modulus (69-140 GPa) and exceptional corrosion resistance. This review provides a detailed roadmap for researchers and engineers focused on the practical application of advanced materials, through a methodical analysis of current developments in energy storage, catalysis, electromagnetic shielding, and biological applications. We emphasize the significance of composition design and processing parameters in attaining customized features for specific technological applications while recognizing key difficulties and future research avenues in this swiftly advancing sector.