degree of porosity

简明释义

孔隙度

英英释义

The degree of porosity refers to the measurement or extent to which a material contains pores or voids, indicating how permeable or absorbent the material is.

孔隙度的程度是指材料中含有孔隙或空隙的测量或程度,表明材料的渗透性或吸收性。

例句

1.A higher degree of porosity 孔隙度 in the rock can lead to increased water storage capacity.

岩石中较高的孔隙度 degree of porosity可能导致水储存能力增加。

2.The engineer measured the degree of porosity 孔隙度 in the soil to determine its suitability for construction.

工程师测量了土壤的孔隙度 degree of porosity以确定其适合用于建筑。

3.To optimize filtration, we need to control the degree of porosity 孔隙度 of the membrane.

为了优化过滤,我们需要控制膜的孔隙度 degree of porosity

4.In ceramics, the degree of porosity 孔隙度 affects the strength and durability of the final product.

在陶瓷中,孔隙度 degree of porosity影响最终产品的强度和耐用性。

5.The degree of porosity 孔隙度 in concrete influences its thermal insulation properties.

混凝土中的孔隙度 degree of porosity影响其热绝缘性能。

作文

The concept of degree of porosity plays a crucial role in various fields, including geology, material science, and engineering. In essence, the degree of porosity refers to the ratio of the volume of voids or pores in a material to the total volume of the material itself. This property is significant because it affects how materials interact with fluids, gases, and even other solid materials. Understanding the degree of porosity helps scientists and engineers design better materials for specific applications, such as construction, filtration, and insulation.In geology, the degree of porosity of rocks and soils can determine their ability to hold water and facilitate groundwater movement. For instance, sedimentary rocks often have higher porosity than igneous rocks, allowing them to store more water. This characteristic is vital for aquifer management and predicting water availability in different regions. By studying the degree of porosity of various geological formations, researchers can make informed decisions about water resource management and environmental conservation.In the field of material science, the degree of porosity is essential for understanding the properties of materials like ceramics, metals, and polymers. A high degree of porosity can lead to lightweight structures, which are desirable in industries such as aerospace and automotive. However, excessive porosity can also compromise the strength and durability of a material. Therefore, engineers must carefully control the degree of porosity during the manufacturing process to achieve the desired balance between weight and strength.Moreover, the degree of porosity has implications for the performance of filters and membranes used in water treatment and air purification. Filters with a specific degree of porosity can effectively trap contaminants while allowing clean water or air to pass through. By optimizing the degree of porosity, manufacturers can enhance the efficiency of these systems, leading to better health outcomes and environmental protection.Additionally, the degree of porosity influences thermal and acoustic insulation properties. Materials with low porosity tend to conduct heat and sound more effectively, while those with higher porosity can provide better insulation. This characteristic is particularly important in the construction industry, where energy efficiency and noise reduction are critical factors in building design.In conclusion, the degree of porosity is a fundamental property that impacts a wide range of applications across different disciplines. Whether it is managing water resources, designing advanced materials, or improving filtration systems, understanding and controlling the degree of porosity is essential for achieving optimal performance. As research continues to evolve, the significance of the degree of porosity will undoubtedly grow, leading to innovative solutions and improved technologies in various sectors.

“孔隙度”这一概念在地质学、材料科学和工程等多个领域中都扮演着至关重要的角色。本质上,孔隙度指的是材料中空隙或孔洞的体积与材料总体积的比率。这个特性非常重要,因为它影响材料与流体、气体甚至其他固体材料的相互作用。理解孔隙度有助于科学家和工程师为特定应用设计更好的材料,例如建筑、过滤和绝缘。在地质学中,岩石和土壤的孔隙度可以决定它们储水和促进地下水运动的能力。例如,沉积岩的孔隙度通常高于火成岩,从而使它们能够储存更多的水。这一特性对于含水层管理和预测不同地区的水资源可用性至关重要。通过研究各种地质构造的孔隙度,研究人员可以就水资源管理和环境保护做出明智的决策。在材料科学领域,孔隙度对于理解陶瓷、金属和聚合物等材料的特性至关重要。高孔隙度可以导致轻量化结构,这在航空航天和汽车等行业中是非常受欢迎的。然而,过高的孔隙度也可能会影响材料的强度和耐久性。因此,工程师必须在制造过程中仔细控制孔隙度,以实现重量和强度之间的理想平衡。此外,孔隙度对水处理和空气净化中使用的过滤器和膜的性能也有影响。具有特定孔隙度的过滤器可以有效捕获污染物,同时允许清洁的水或空气通过。通过优化孔隙度,制造商可以提高这些系统的效率,从而改善健康结果和环境保护。此外,孔隙度还会影响热绝缘和声学绝缘特性。低孔隙度的材料往往更有效地传导热量和声音,而高孔隙度的材料则可以提供更好的绝缘。这一特性在建筑行业尤为重要,因为能源效率和噪音降低是建筑设计中的关键因素。总之,孔隙度是一个基本特性,影响着各个学科的广泛应用。无论是管理水资源、设计先进材料,还是改善过滤系统,理解和控制孔隙度对实现最佳性能至关重要。随着研究的不断发展,孔隙度的重要性无疑会不断增加,从而在各个领域带来创新解决方案和改进技术。

相关单词

degree

degree详解:怎么读、什么意思、用法

porosity

porosity详解:怎么读、什么意思、用法