Materials Research Letters材料研究快报

Materials Research Letters(英文缩写 MATER RES LETT),ISSN 2166-3831,eISSN 2166-3831,中文译名:材料研究快报 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。

2026 年数据 · 影响因子
7.500
JCR 分区
Q1
CAS 分区
B1
近一年发文量
0
本站 PubMed 收录统计

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。

ISSN: 2166-3831 · eISSN: 2166-3831 · 缩写: MATER RES LETT ·中文: 材料研究快报

期刊介绍

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期刊简介

Materials Research Letters 是一本聚焦材料科学前沿的快报型期刊,发表金属、陶瓷、高分子及复合材料等领域的高影响力短篇论文。其定位强调新颖性与及时性,适合报道具有突破意义的实验与理论成果。读者群主要为材料、物理、化学及工程领域的研究人员与研究生,尤其适合关注快速传播前沿进展的学者。

研究方向

主要方向涵盖材料的结构与性能关系、先进表征、计算材料学、能源与电子材料、纳米材料及力学行为等。论文类型以短篇快报为主,强调核心发现的简洁呈现,也接受少量综述与观点文章,要求工作具有明确创新性和广泛兴趣。

期刊特色

研究取向偏重机理清晰、数据扎实且具有普适意义的成果,篇幅紧凑,审稿注重创新而非数据量。适合已有较完整实验或理论支撑、希望快速发表阶段性突破的课题组,也适合关注跨学科材料问题的研究者阅读参考。

投稿难度

投稿难度中等偏上,对新颖性和论证完整性要求较高。建议在投稿前明确核心贡献,精简篇幅并突出与已有工作的差异,同时准备充分的补充数据以应对审稿质疑。不能仅凭分区判断录用难易,需结合具体工作的创新程度评估。

历年影响因子趋势

JCR 数据年份影响因子JCR 分区
20218.516Q1
20228.300Q1
20238.600Q1
20247.900Q1
20257.500Q1

Materials Research Letters 最新收录文献

  1. JCR分区: Q1 CAS分区: B1 影响因子: 7.5

    1. {"_":"Unconventional twinning assisted by pyramidal II stacking faults.","mml:math":[{"xmlns:mml":["http://www.w3.org/1998/Math/MathML"],"mml:mo":["{","}"],"mml:mrow":[{"mml:mn":["10","2"],"mml:mrow":[{"mml:mover":[{"mml:mn":["1"],"mml:mo":["¯"]}]}]}]}]}

    1. 由锥面II型层错辅助的非常规孪晶。{1021¯}
    作者:
    Yang Hu, Dennis M Kochmann
    日期:
    2024-10-28

    Twinning significantly affects the deformation behavior of hexagonal close-packed Mg, so a thorough understanding of twin nucleation and growth mechanisms is required for enhancing the properties of Mg-based materials. The commonly observed tension twins have been traditionally linked to 〈c + a〉 dislocation dissociation, which results in zonal dislocations with large Burgers vectors several times that of a single twinning dislocation and some residual dislocations. Contrarily, our molecular dynamics simulations reveal twin nucleation from pyramidal II stacking faults through atomic shuffling without shear displacements. This introduces an alternative twin nucleation mechanism, different from the classically accepted mechanism of dislocation dissociation.

  2. JCR分区: Q1 CAS分区: B1 影响因子: 7.5

    2. Effect of surface grain boundary density on preosteoblast proliferation on titanium.

    作者:
    Terry C Lowe, Rebecca A Reiss, Patrick E Illescas, Casey F Davis, Melanie C Connick, Johnny A Sena
    日期:
    2020-04-07

    Studies since 2004 have shown that the cytocompatibility of ultrafine grain (UG) commercial purity (CP) titanium exceeds that of coarse grain (CG) CP titanium (Ti) by 30% to 20-fold. To isolate the factors affecting this large reported variability of CP titanium's cytocompatibility, discs of UG and CG titanium were fabricated with controlled texture and roughness. The discs were seeded with MC3T3-E1 pre-osteoblastic cells and cultured for 72 h. The proliferation of cells on polished UG-Ti exceeded unpolished CG-Ti 3.04-fold. Cell proliferation was found to correlate with a new biophysical parameter, the average grain boundary length per surface-attached cell.

  3. JCR分区: Q1 CAS分区: B1 影响因子: 7.5

    3. Dynamic nanoindentation testing: is there an influence on a material's hardness?

    作者:
    A Leitner, V Maier-Kiener, D Kiener
    日期:
    2017-11-03

    Modern nanoindentation devices are capable of dynamic experimentations, which allow us to exploit instrumented hardness tests extensively. Beside the assets of recording mechanical properties continuously over displacement, there are ongoing debates whether the superimposed force alters the material's hardness. We will show for a broad range of materials that significant hardness differences are noted between dynamic and static tests, even for large displacements. Those mainly result from a changing indentation strain-rate during the hold segment at peak load. This fact must be implicitly considered in studies using static indentation tests to guarantee comparability of obtained nanoindentation hardness values and derived quantities.

  4. JCR分区: Q1 CAS分区: B1 影响因子: 7.5

    4. Microfluidics-mediated self-template synthesis of anisotropic hollow ellipsoidal mesoporous silica nanomaterials.

    作者:
    Nanjing Hao, Yuan Nie, Amogha Tadimety, Andrew B Closson, John X J Zhang
    日期:
    2017-09-14

    Herein, a facile strategy was firstly developed to synthesize ellipsoidal mesoporous silica nanomaterials (MSNs) with well-ordered parallel channels along the short axis. A miniaturized microfluidic device with spiral-shaped channels was then chosen as a straightforward and general platform to produce the corresponding hollow counterparts of MSNs under mild conditions. Such reaction process carried out in a microfluidic system was further demonstrated to be more rapid and efficient than conventional batch method under equivalent experimental conditions. The evolution of hollow structure can be well-tuned by flow rates (, etching time), providing new paradigm for rational design and engineering of anisotropic nanostructures.

  5. JCR分区: Q1 CAS分区: B1 影响因子: 7.5

    5. {"_":"Revealing anelasticity and structural rearrangements in nanoscale metallic glass films using TEM diffraction.","i":["in situ"]}

    5. {"_":"利用TEM衍射揭示纳米级金属玻璃薄膜中的滞弹性与结构重排。","i":["原位"]}
    作者:
    Rohit Sarkar, Christian Ebner, Ehsan Izadi, Christian Rentenberger, Jagannathan Rajagopalan
    日期:
    2016-09-22

    We used a novel diffraction-based method to extract the local, atomic-level elastic strain in nanoscale amorphous TiAl films during transmission electron microscopy deformation, while simultaneously measuring the macroscopic strain. The complementary strain measurements revealed significant anelastic deformation, which was independently confirmed by strain rate experiments. Furthermore, the distribution of first nearest-neighbor distances became narrower during loading and permanent changes were observed in the atomic structure upon unloading, even in the absence of macroscopic plasticity. The results demonstrate the capability of electron diffraction to probe structural rearrangements and decouple elastic and anelastic deformation in metallic glasses.

  6. JCR分区: Q1 CAS分区: B1 影响因子: 7.5

    6. The importance of fracture toughness in ultrafine and nanocrystalline bulk materials.

    作者:
    R Pippan, A Hohenwarter
    日期:
    2016-04-12

    The suitability of high-strength ultrafine and nanocrystalline materials processed by severe plastic deformation methods and aimed to be used for structural applications will strongly depend on their resistance against crack growth. In this contribution some general available findings on the damage tolerance of this material class will be summarized. Particularly, the occurrence of a pronounced fracture anisotropy will be in the center of discussion. In addition, the great potential of this generated anisotropy to obtain high-strength materials with exceptionally high fracture toughness in specific loading and crack growth directions will be enlightened. Severely plastically deformed materials are reviewed in light of their damage tolerance. The frequently observed toughness anisotropy allows unprecedented fracture toughness - strength combinations.

  7. JCR分区: Q1 CAS分区: B1 影响因子: 7.5

    7. Electromigration in Gold Films on Flexible Polyimide Substrates as a Self-healing Mechanism.

    7. 柔性聚酰亚胺基板上金膜中的电迁移作为自修复机制
    作者:
    Barbara Putz, Oleksandr Glushko, Megan J Cordill
    日期:
    2015-10-27

    The study of electromigration (EM) in metallisations for flexible thin film systems has not been a major concern due to low applied current densities in today's flexible electronic devices. However, the trend towards smaller and more powerful devices demands increasing current densities for future applications, making EM a reliability matter. This work investigates EM in 50 nm Au thin films with a 10 nm Cr adhesion layer on a flexible polyimide substrate at high current densities. Results indicate that EM does occur and could be used as a self-healing mechanism for flexible electronics.

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指标接近的期刊