fibrillar

简明释义

英[faɪˈbrɪlə(r)]美[ˈfaɪbrələr]

adj. 纤维状的；纤丝状的

n. 纤维

英英释义

单词用法

同义词

反义词

例句

1.Objective To reveal the fibrillar network in vitreous and the effect of plasmin on this network.

目的观察玻璃体胶原纤维的空间结构及纤溶酶对其空间结构的影响。

2.When the content of PEA is less than 10%, the blends are well-spinnable, and the composite fibers have a well-developed highly oriented fibrillar structure along the fiber axis.

且PEA含量低于10％时，共混物的可纺性好，复合纤维在流动方向形成明显的取向微纤；

3.A certain degree of free fibrillar structure was observed on the fiber surface due to the sheath structure of the fiber subjected to the greater drawing and orientation.

纺丝过程中纤维皮层结构受到更大的拉伸取向作用，并在纤维表面出现一定游离原纤化结构。

4.When the content of PEA is less than 10%, the blends are well-spinnable, and the composite fibers have a well-developed highly oriented fibrillar structure along the fiber axis.

且PEA含量低于10％时，共混物的可纺性好，复合纤维在流动方向形成明显的取向微纤；

5.SEM: A rough surface with fibrillar fragment was presented in partial-thickness lesions district.

扫描电镜结果：显示病变软骨表面纤维化明显，纤维碎片形成。

6.Two different types of phase morphologies take place in copolymers with various compositions, that is, inter-lamellar and inter-fibrillar segregation.

同时，随共聚组成变化，共聚物呈现不同的相分离形态。

7.The results showed that after 24 h in culture a number of protruding vesicles, as well as a small amount of fibrillar component were formed on the surface of protoplasts.

结果表明，离体培养24小时的原生质体表面产生一些突起小泡，有时可见少量纤维组分的形成。

8.The muscle tissue is composed of fibrillar proteins that facilitate contraction.

肌肉组织由纤维状蛋白组成，促进收缩。

9.Researchers found that the fibrillar structure of collagen provides strength to tendons.

研究人员发现，胶原蛋白的纤维状结构为肌腱提供了强度。

10.In the study of neurodegenerative diseases, fibrillar aggregates of proteins are often observed.

在神经退行性疾病的研究中，常常观察到蛋白质的纤维状聚集体。

11.The fibrillar arrangement of fibers in the scaffolding enhances cell attachment.

支架中纤维的纤维状排列增强了细胞附着。

12.The fibrillar nature of amyloid plaques is a key feature in Alzheimer's disease.

淀粉样斑块的纤维状特性是阿尔茨海默病的一个关键特征。

作文

In the world of biology, understanding the structure and function of various components within cells is crucial. One such component that has garnered attention in recent years is the fibrillar structures found in many types of tissues. These fibrillar (纤维状的) structures are essential for maintaining the integrity and functionality of cells. For instance, collagen fibers, which are a type of fibrillar (纤维状的) protein, play a vital role in providing strength and support to connective tissues throughout the body. The significance of fibrillar (纤维状的) proteins extends beyond mere structural support. They are involved in various biological processes, including cell signaling, tissue repair, and even the development of certain diseases. For example, in the context of muscle tissue, the fibrillar (纤维状的) arrangement of myofibrils allows for efficient contraction and relaxation, which is essential for movement and overall physical health. Moreover, the study of fibrillar (纤维状的) structures has implications in medical research. Scientists are investigating how alterations in these structures can lead to conditions such as fibrosis, where excessive fibrillar (纤维状的) tissue accumulates, causing organs to become stiff and less functional. Understanding the mechanisms behind these changes is crucial for developing targeted therapies that can mitigate the impact of such diseases. In addition to their roles in health and disease, fibrillar (纤维状的) proteins also have applications in biotechnology and materials science. Researchers are exploring the potential of using synthetic fibrillar (纤维状的) proteins to create biomaterials that mimic the properties of natural tissues. This could lead to advancements in regenerative medicine, where damaged tissues can be repaired or replaced using engineered materials that closely resemble the original biological structures. Furthermore, the unique properties of fibrillar (纤维状的) structures make them ideal candidates for various industrial applications. For instance, the tensile strength and flexibility of fibrillar (纤维状的) materials can be harnessed in the production of durable fabrics, ropes, and other composite materials. The versatility of these structures highlights the importance of studying their characteristics and behaviors in different environments. In conclusion, the term fibrillar (纤维状的) encompasses a wide range of biological and material phenomena that are integral to both life sciences and engineering. As our understanding of these structures deepens, we can expect to see innovative solutions to health challenges and the development of new materials that enhance our quality of life. The ongoing research into fibrillar (纤维状的) proteins and structures will undoubtedly continue to reveal fascinating insights into the complex interplay between biology and technology.

在生物学的世界中，理解细胞内各种成分的结构和功能至关重要。其中一个近年来受到关注的成分是许多类型组织中的纤维状的（fibrillar）结构。这些纤维状的（fibrillar）结构对于维持细胞的完整性和功能至关重要。例如，胶原纤维作为一种纤维状的（fibrillar）蛋白，在为身体各处的结缔组织提供强度和支持方面发挥着重要作用。 纤维状的（fibrillar）蛋白的重要性不仅仅体现在结构支持上。它们参与了多种生物过程，包括细胞信号传递、组织修复，甚至某些疾病的发展。例如，在肌肉组织的背景下，纤维状的（fibrillar）肌原纤维的排列使得有效的收缩和放松成为可能，这对于运动和整体身体健康至关重要。 此外，纤维状的（fibrillar）结构的研究在医学研究中也具有重要意义。科学家们正在研究这些结构的变化如何导致纤维化等疾病的发生，在这种情况下，过量的纤维状的（fibrillar）组织积累，导致器官变得僵硬且功能降低。理解这些变化背后的机制对于开发能够减轻此类疾病影响的靶向疗法至关重要。 除了在健康和疾病中的作用外，纤维状的（fibrillar）蛋白在生物技术和材料科学中也有应用。研究人员正在探索使用合成的纤维状的（fibrillar）蛋白来创建模仿自然组织特性的生物材料的潜力。这可能会导致再生医学的进步，在这种医学中，受损的组织可以通过工程材料进行修复或替代，这些材料与原始生物结构非常相似。 此外，纤维状的（fibrillar）结构的独特性质使其成为各种工业应用的理想候选者。例如，纤维状的（fibrillar）材料的抗拉强度和柔韧性可以在耐用面料、绳索和其他复合材料的生产中得到利用。这些结构的多功能性突显了研究其在不同环境中特性和行为的重要性。 总之，术语纤维状的（fibrillar）涵盖了一系列在生命科学和工程中不可或缺的生物和材料现象。随着我们对这些结构理解的加深，我们可以期待看到创新的解决方案来应对健康挑战，以及新材料的开发，从而提高我们的生活质量。对纤维状的（fibrillar）蛋白和结构的持续研究无疑将继续揭示生物学和技术之间复杂相互作用的迷人见解。