fluidization

简明释义

英[fluːɪdaɪˈzeɪʃən]美[fluːɪdaɪˈzeɪʃən]

n. 流体化；流化作用

英英释义

单词用法

同义词

反义词

例句

1.Porous plates are ceramic or polyethylene in construction which requires minimum air pressure for fluidization.

多孔板是用陶瓷制造的，或者是流化要求气压最低的聚乙烯结构。

2.A new semi-dry desulfurization technique using spray spouted bed was proposed which connected with fluidization of spouted bed and spray-drying technique.

本文结合喷动床流态化技术和喷雾干燥法提出了一种新型喷雾—喷动床半干法烟气脱硫系统。

3.This paper studied the characteristics of fluidization, eating up and electricity on a new-type fluidized bed heat treatment resistance furnace.

对一种新型流化床热处理电炉的流化特性，热态升温特性及电特性进行了试验研究。

4.“Also associated with fluidization is stability, [since] by maintaining stability you're able to maximize your run lengths,” he continued.

“同时稳定与流态化相关，[因为]维持稳定你能够最大限度地提高您的运行长，”他继续说。

5.The empirical formula on the minimum vibration intensity for fluidization is obtained.

建立了最小流化振动强度的经验关联式。

6.The condition of fluidization differs due to different structures of each technique.

由于每种技术的构造不同，流化状态也不相同。

7.The hydrofracturing of Budate Group is mainly related to frequent lithologic characters, tectonism and fluidization.

水力破裂作用的成因主要与布达特群岩性组合特征、构造-流体作用有关。

8.The process of fluidization allows solid particles to behave like a fluid, enhancing mixing and reaction rates.

通过流化过程，固体颗粒能够像液体一样行为，从而增强混合和反应速率。

9.In chemical engineering, fluidization is crucial for the design of reactors that handle particulate materials.

在化学工程中，流化对于处理颗粒材料的反应器设计至关重要。

10.The fluidization of granules in a bed can lead to more efficient heat transfer in industrial processes.

颗粒在床层中的流化可以导致工业过程中的热传递效率提高。

11.Researchers are studying the effects of particle size on the fluidization characteristics of various materials.

研究人员正在研究颗粒大小对各种材料的流化特性的影响。

12.The fluidization phenomenon is often observed in fluidized bed dryers used for drying powders.

在用于干燥粉末的流化床干燥机中，通常会观察到流化现象。

作文

Fluidization is a process that transforms solid particles into a fluid-like state, allowing them to behave similarly to liquids. This phenomenon is widely observed in various industrial applications, particularly in the fields of chemical engineering and materials science. The concept of fluidization (流化) is crucial for understanding how solids can be manipulated and processed efficiently. In essence, when a gas or liquid is passed through a bed of solid particles at a certain velocity, the particles are lifted and suspended, creating a dynamic system where they can flow freely. This process has significant implications for several industries, including pharmaceuticals, food processing, and petrochemicals. One of the most common applications of fluidization (流化) is in fluidized bed reactors, which are essential in the production of chemicals. These reactors utilize the principle of fluidization (流化) to enhance mass and heat transfer between the solid catalyst and the reactants. By maintaining the solid particles in a suspended state, the reaction rates can be significantly increased, leading to higher yields and more efficient processes. This technology has revolutionized the way we produce fuels, fertilizers, and other essential chemicals, making it a cornerstone of modern industrial practices. Additionally, fluidization (流化) plays a vital role in the field of pharmaceuticals. In drug formulation, the ability to create a uniform mixture of active ingredients and excipients is critical for ensuring consistent dosage and efficacy. Through fluidization (流化), manufacturers can achieve better mixing and granulation of powders, resulting in improved flow properties and compaction during tablet production. This not only enhances the quality of the final product but also streamlines the manufacturing process, reducing costs and time. The food industry also benefits from the principles of fluidization (流化). For instance, in the drying of food products, fluidization (流化) can improve heat transfer and moisture removal, leading to better preservation of flavor and nutrients. By utilizing fluidized bed dryers, food manufacturers can achieve uniform drying of particles, ensuring that the final product has a consistent texture and taste. This technique is particularly useful for dehydrating fruits, vegetables, and other perishable items. Despite its advantages, the fluidization (流化) process can also present challenges. For example, achieving the optimal fluidization velocity is crucial; if the velocity is too low, the particles will not be suspended, and if it is too high, it may lead to excessive turbulence and erosion of the particles. Therefore, careful design and control of the fluidization system are essential to maximize efficiency and minimize wear on equipment. In conclusion, fluidization (流化) is a fundamental process that has far-reaching implications across various industries. Its ability to turn solid particles into a fluid-like state enables enhanced processing capabilities, leading to improved efficiency and product quality. As technology continues to advance, the applications of fluidization (流化) are expected to expand further, offering new opportunities for innovation in manufacturing and beyond. Understanding the principles and challenges associated with fluidization (流化) is essential for engineers and scientists working in these fields, as it opens the door to more effective and sustainable practices.