dispersed phase

简明释义

分散相

英英释义

A dispersed phase refers to a component in a heterogeneous mixture that is distributed throughout another substance, often in the form of small particles or droplets.

分散相是指在异质混合物中分布于另一种物质中的成分,通常以小颗粒或液滴的形式存在。

例句

1.In spray drying, the liquid feed is transformed into a solid dispersed phase (分散相).

在喷雾干燥中,液体原料转化为固体dispersed phase (分散相)。

2.The stability of the dispersed phase (分散相) can affect the shelf life of the product.

dispersed phase (分散相) 的稳定性会影响产品的保质期。

3.Understanding the behavior of the dispersed phase (分散相) is crucial for optimizing the formulation.

理解dispersed phase (分散相) 的行为对于优化配方至关重要。

4.In the emulsion, the oil is the dispersed phase (分散相) that is mixed with water.

在乳液中,油是与水混合的dispersed phase (分散相)。

5.The dispersed phase (分散相) in this composite material provides enhanced mechanical properties.

这种复合材料中的dispersed phase (分散相) 提供了增强的机械性能。

作文

In the world of materials science and engineering, the concept of a dispersed phase is fundamental to understanding the properties and behaviors of composite materials. A dispersed phase refers to a component that is distributed throughout another material, known as the continuous phase. This interaction between the dispersed phase and the continuous phase can significantly influence the overall characteristics of the material, such as its strength, durability, and thermal conductivity.For instance, consider a common example in our daily lives: concrete. In concrete, the cement acts as the continuous phase while the aggregates, such as sand and gravel, serve as the dispersed phase. The performance of concrete largely depends on the ratio and quality of these components. If the dispersed phase is not properly mixed or if the particles are too large, the resulting concrete may be weak and prone to cracking. On the other hand, a well-distributed dispersed phase can enhance the mechanical properties of the concrete, making it more resilient against environmental stresses.Another fascinating application of the dispersed phase concept can be found in the field of food science. Emulsions, such as mayonnaise or salad dressings, consist of oil droplets (the dispersed phase) suspended in water (the continuous phase). The stability of these emulsions is crucial for their texture and shelf life. If the dispersed phase is not stabilized properly, the oil may separate from the water, leading to an undesirable product. Food scientists often use emulsifiers to maintain the stability of the dispersed phase, ensuring that the final product remains homogenous and appealing to consumers.Moreover, the role of the dispersed phase extends beyond just physical properties; it also plays a vital role in chemical reactions. In catalytic processes, for example, catalysts are often in the form of a dispersed phase that enhances the reaction rate by providing a larger surface area for the reactants to interact. This principle is essential in various industries, including petrochemicals and pharmaceuticals, where efficiency and speed are paramount.Understanding the behavior of the dispersed phase within different systems allows engineers and scientists to design materials with tailored properties for specific applications. For instance, in the development of advanced composites used in aerospace and automotive industries, the careful selection and optimization of the dispersed phase can lead to lighter, stronger, and more fuel-efficient vehicles.In conclusion, the concept of a dispersed phase is not only crucial for the development of new materials but also plays a significant role in everyday products and processes. By mastering the principles surrounding the dispersed phase, researchers and engineers can innovate and improve the functionality of a wide range of materials, leading to advancements in technology and quality of life. As we continue to explore the intricacies of materials science, the dispersed phase will undoubtedly remain a key focus of study and application, shaping the future of various industries and enhancing the products we use every day.

在材料科学和工程的世界中,分散相的概念对于理解复合材料的特性和行为至关重要。分散相是指分布在另一种材料中(称为连续相)的成分。这种分散相与连续相之间的相互作用可以显著影响材料的整体特性,如强度、耐久性和热导率。例如,考虑一个我们日常生活中的常见例子:混凝土。在混凝土中,水泥作为连续相,而骨料(如沙子和砾石)则作为分散相。混凝土的性能在很大程度上取决于这些成分的比例和质量。如果分散相未能正确混合或颗粒过大,最终的混凝土可能会变得脆弱并容易开裂。另一方面,良好分布的分散相可以增强混凝土的机械性能,使其更能抵御环境压力。另一个有趣的分散相概念应用可以在食品科学领域找到。乳化液,如蛋黄酱或沙拉酱,由油滴(分散相)悬浮在水中(连续相)组成。这些乳化液的稳定性对其质地和保质期至关重要。如果分散相未能得到适当的稳定,油可能会与水分离,导致不理想的产品。食品科学家通常使用乳化剂来维持分散相的稳定性,确保最终产品保持均匀且吸引消费者。此外,分散相的作用不仅限于物理特性;它在化学反应中也起着至关重要的作用。例如,在催化过程中,催化剂通常以分散相的形式存在,通过提供更大的表面积来增强反应速率。这一原理在石油化工和制药等各个行业中至关重要,其中效率和速度至关重要。理解不同系统中分散相的行为使工程师和科学家能够设计具有特定应用所需特性的材料。例如,在航空航天和汽车工业中开发先进复合材料时,仔细选择和优化分散相可以制造出更轻、更强、更节能的车辆。总之,分散相的概念不仅对新材料的开发至关重要,而且在日常产品和过程中的作用也非常重要。通过掌握围绕分散相的原理,研究人员和工程师可以创新和改善各种材料的功能,从而推动技术和生活质量的进步。随着我们继续探索材料科学的复杂性,分散相无疑将继续成为研究和应用的关键焦点,塑造各个行业的未来,并增强我们每天使用的产品。

相关单词

dispersed

dispersed详解:怎么读、什么意思、用法

phase

phase详解:怎么读、什么意思、用法