filamentary

简明释义

英[ˌfɪləˈmentəri]美[ˈfɪləmentəri]

adj. 单纤维的；似丝的；细丝的

英英释义

单词用法

同义词

反义词

例句

1.While the planetary nebula phase is thought to last for around 10, 000 years, astronomers estimate the age of the outer filamentary portions of this halo to be 50, 000 to 90, 000 years.

虽然行星状星云阶段持续约1万年，天文学家估计其外晕的丝状物质年龄在5万至9万年间。

2.A new spectrograph slices across billions of light-years to map the filamentary structure of the universe and trace the distribution of elements that are fundamental to life.

一个新的摄谱仪回溯数十亿光年远的宇宙绘制宇宙网状结构图，并追溯宇宙中生命基本元素的分布。

3.While the planetary nebula phase is thought to last for around 10, 000 years, astronomers estimate the age of the outer filamentary portions of this halo to be 50, 000 to 90, 000 years.

虽然行星状星云阶段持续约1万年，天文学家估计其外晕的丝状物质年龄在5万至9万年间。

4.The results show that in the presence of small amount of sulphite, the structure of developed grain changes from compact to filamentary and etch pit can be found.

结果表明，少量亚硫酸盐的加入使显影后的银颗粒从紧密结构变成粗银丝结构，并且发现有生成侵蚀坑的现象。

5.Hum produced from within the filamentary structure.

灯丝结构本身所产生的HUM。

6.Follow-up images taken by Hubble on Jan. 25 and 29, however, revealed a complex X-pattern of filamentary structures near the nucleus.

然而从下面这张哈勃望远镜1月25日和29日拍摄下的照片来看，我们可以发现在星球核体附近出现的一个奇特的X状纤维构造。

7.Furthermore, with the increase of air gap spacing, the transition from the homogeneous to filamentary discharge is related to the fluctuation of discharge current.

随着空气间隙距离的增加，均匀放电向丝状放电的转化与电流脉冲波动相关。

8.The filamentary structure of the spider silk makes it incredibly strong yet lightweight.

蜘蛛丝的细丝状结构使其既强韧又轻便。

9.In the lab, we observed the filamentary growth patterns of certain bacteria under a microscope.

在实验室中，我们在显微镜下观察到了某些细菌的丝状生长模式。

10.The filamentary network of neurons is essential for transmitting signals in the brain.

神经元的细丝状网络对于在大脑中传递信号至关重要。

11.The artist used filamentary threads to create a delicate sculpture that captured light beautifully.

艺术家使用细丝状线材创作了一件精致的雕塑，完美地捕捉了光线。

12.The fiber optics rely on filamentary strands to transmit data at high speeds.

光纤依靠细丝状光缆以高速传输数据。

作文

In the realm of science, particularly in biology and materials science, the term filamentary refers to structures that are thread-like or composed of thin fibers. These filamentary structures can be found in various natural and synthetic materials, playing crucial roles in their properties and functions. Understanding the significance of filamentary arrangements can provide insights into numerous biological processes as well as technological advancements. For instance, in the study of plant biology, one can observe that many plants possess filamentary root systems. These roots are not only essential for nutrient and water absorption but also contribute to the stability of the plant. The filamentary nature of these roots allows them to spread out over a larger area, enhancing their ability to anchor the plant in the soil while maximizing their access to resources. Moreover, the microscopic structure of these roots often reveals a network of filamentary cells that facilitate the transport of nutrients and water from the soil to the rest of the plant. In the field of materials science, filamentary structures are pivotal in the development of advanced materials such as composites and nanofibers. For example, carbon nanotubes are known for their exceptional strength and electrical conductivity, which can be attributed to their filamentary arrangement of carbon atoms. These nanotubes have a filamentary geometry, making them incredibly lightweight yet strong, and they are utilized in various applications ranging from electronics to aerospace engineering. The concept of filamentary structures is also significant in the context of human tissues. In medicine, understanding the filamentary organization of muscles and connective tissues can lead to better treatments for injuries and diseases. For instance, tendons exhibit a filamentary arrangement of collagen fibers, which gives them their tensile strength. By studying these filamentary structures, researchers can develop therapies that enhance healing and recovery processes. Furthermore, the filamentary characteristics of certain organisms, such as fungi, highlight the diversity of life forms on Earth. Fungi often have filamentary hyphae that allow them to absorb nutrients efficiently from their surroundings. This filamentary growth enables them to thrive in various environments, contributing to ecosystems by decomposing organic matter and recycling nutrients. In conclusion, the term filamentary encompasses a wide range of applications and implications across different scientific fields. From the intricate filamentary root systems of plants to the innovative uses of filamentary materials in technology and medicine, this concept is fundamental to our understanding of both natural phenomena and engineered systems. As research continues to explore the potential of filamentary structures, we can expect to uncover even more fascinating insights that bridge biology, materials science, and medicine, ultimately leading to advancements that benefit society as a whole.

在科学领域，特别是在生物学和材料科学中，术语filamentary指的是细线状或由细纤维组成的结构。这些filamentary结构可以在各种自然和合成材料中找到，在它们的特性和功能中发挥着至关重要的作用。理解filamentary排列的重要性可以为许多生物过程以及技术进步提供见解。 例如，在植物生物学的研究中，人们可以观察到许多植物具有filamentary根系。这些根不仅对营养和水分的吸收至关重要，还对植物的稳定性作出贡献。这种filamentary性质使根能够在更大的区域内扩展，从而增强其在土壤中的锚定能力，同时最大限度地获取资源。此外，这些根的微观结构通常揭示了一种filamentary细胞网络，促进了从土壤到植物其他部分的营养和水分运输。 在材料科学领域，filamentary结构在先进材料如复合材料和纳米纤维的开发中至关重要。例如，碳纳米管因其卓越的强度和电导率而闻名，这可以归因于其filamentary的碳原子排列。这些纳米管具有filamentary几何形状，使其轻便而坚固，广泛应用于电子和航空航天工程等多个领域。 filamentary结构的概念在人体组织的背景下也具有重要意义。在医学中，理解肌肉和结缔组织的filamentary组织可以导致更好的伤害和疾病治疗。例如，肌腱表现出胶原纤维的filamentary排列，这赋予了它们抗拉强度。通过研究这些filamentary结构，研究人员可以开发出增强愈合和恢复过程的疗法。 此外，某些生物体的filamentary特征，如真菌，突显了地球上生命形式的多样性。真菌通常具有filamentary的菌丝，使其能够有效地从周围环境中吸收营养。这种filamentary生长使它们能够在各种环境中繁衍生息，通过分解有机物质和循环营养来为生态系统做出贡献。 总之，术语filamentary涵盖了不同科学领域的一系列应用和含义。从植物的复杂filamentary根系到技术和医学中filamentary材料的创新应用，这一概念对于我们理解自然现象和工程系统都是基础性的。随着研究继续探索filamentary结构的潜力，我们可以期待发现更多迷人的见解，将生物学、材料科学和医学联系起来，最终推动有益于整个社会的进步。