crystal section
简明释义
晶体断面
英英释义
A crystal section refers to a thin slice or piece of a crystal that is often used for scientific analysis or observation under a microscope. | 晶体截面是指晶体的薄片或切片,通常用于科学分析或在显微镜下观察。 |
例句
1.The crystal section revealed intricate patterns that were not visible to the naked eye.
这个水晶切片显示出肉眼无法看到的复杂图案。
2.The geologist examined the crystal section for signs of mineral growth.
地质学家检查了水晶切片以寻找矿物生长的迹象。
3.In our lab, we use a microscope to analyze the crystal section of the sample.
在我们的实验室中,我们使用显微镜分析样本的水晶切片。
4.She learned how to prepare a crystal section for her geology class.
她学习如何为地质课准备一个水晶切片。
5.The crystal section was crucial for understanding the rock's formation.
这个水晶切片对理解岩石的形成至关重要。
作文
In the realm of science and technology, particularly in materials science, the study of crystalline structures plays a pivotal role. One of the key concepts in this field is the crystal section, which refers to a specific slice or cross-section of a crystal that allows scientists to analyze its internal structure. Understanding the crystal section is crucial for various applications, including semiconductor manufacturing, mineralogy, and even pharmaceuticals. When we talk about a crystal section, we are essentially discussing how a crystal can be examined in two dimensions. Crystals are three-dimensional structures composed of atoms arranged in a highly ordered pattern. By creating a crystal section, researchers can observe the arrangement of these atoms and gain insights into the material's properties. For instance, the way atoms are arranged in a crystal can significantly affect its electrical, optical, and mechanical properties.The process of obtaining a crystal section typically involves cutting a thin slice from a larger crystal using specialized tools. This slice is then polished and prepared for analysis. Techniques such as X-ray diffraction and electron microscopy are often employed to study the crystal section in detail. These methods provide valuable information about the symmetry, lattice parameters, and defects within the crystal structure.One practical application of studying crystal sections is in the field of electronics. For example, silicon crystals are widely used in semiconductor devices. By examining the crystal section of silicon, engineers can determine how impurities affect its conductive properties. This knowledge is essential for designing efficient electronic components that power our modern devices.Moreover, in mineralogy, the analysis of crystal sections helps geologists identify different minerals and understand their formation processes. Each mineral has a unique crystalline structure, and by studying the crystal section, scientists can infer the conditions under which the mineral formed. This information can be crucial for resource exploration and environmental studies.In the pharmaceutical industry, the study of crystal sections is vital for drug development. Many drugs are crystalline solids, and their effectiveness can be influenced by their crystalline form. By analyzing the crystal section of a drug compound, researchers can assess its stability, solubility, and bioavailability. This understanding can lead to the development of more effective medications with fewer side effects.In conclusion, the concept of the crystal section is fundamental in various scientific fields. It provides a window into the intricate world of crystalline materials, allowing researchers to uncover the secrets hidden within their structures. As technology advances, the importance of understanding crystal sections will only continue to grow, paving the way for innovations in electronics, geology, and medicine. The ability to analyze and manipulate these sections will undoubtedly lead to breakthroughs that enhance our quality of life and expand our understanding of the natural world.
在科学和技术的领域,尤其是在材料科学中,晶体结构的研究起着至关重要的作用。这个领域的一个关键概念是晶体截面,它指的是晶体的特定切片或横截面,允许科学家分析其内部结构。理解晶体截面对于各种应用至关重要,包括半导体制造、矿物学甚至制药。当我们谈论晶体截面时,我们实际上是在讨论如何在二维中检查晶体。晶体是由原子以高度有序的模式排列而成的三维结构。通过创建晶体截面,研究人员可以观察这些原子的排列,并深入了解材料的性质。例如,晶体中原子的排列方式会显著影响其电气、光学和机械性能。获取晶体截面的过程通常涉及使用专用工具从较大的晶体中切割出一薄片。然后对这片切片进行抛光和准备,以便进行分析。X射线衍射和电子显微镜等技术通常用于详细研究晶体截面。这些方法提供了关于晶体结构中的对称性、晶格参数和缺陷的宝贵信息。研究晶体截面的一个实际应用是在电子学领域。例如,硅晶体广泛用于半导体器件。通过检查硅的晶体截面,工程师可以确定杂质如何影响其导电性能。这些知识对于设计高效的电子元件至关重要,这些元件为我们的现代设备提供动力。此外,在矿物学中,晶体截面的分析帮助地质学家识别不同的矿物并了解它们的形成过程。每种矿物都有独特的晶体结构,通过研究晶体截面,科学家可以推断矿物形成时的条件。这些信息对于资源勘探和环境研究至关重要。在制药行业,研究晶体截面对药物开发至关重要。许多药物是晶体固体,其有效性可能受到其晶体形式的影响。通过分析药物化合物的晶体截面,研究人员可以评估其稳定性、溶解度和生物利用度。这种理解可以导致开发出更有效的药物,副作用更少。总之,晶体截面的概念在各个科学领域中都是基础性的。它为我们提供了一个观察晶体材料复杂世界的窗口,使研究人员能够揭示其结构中隐藏的秘密。随着技术的进步,理解晶体截面的重要性只会继续增长,为电子学、地质学和医学的创新铺平道路。分析和操纵这些截面的能力无疑将导致突破,提升我们的生活质量,扩展我们对自然世界的理解。
相关单词