firebrick

简明释义

英[ˈfaɪəbrɪk]美[ˈfaɪərbrɪk]

n. 耐火砖

英英释义

单词用法

同义词

反义词

例句

1.The furnace chamber has flue next to activation path which were built up with special firebrick.

炉芯包括内烟道和活化道，用特异型耐火砖堆砌组装而成。

2.The premature failure modes of firebrick forming dies made of steel 10 and its failure reason are analyzed. The possibility of using rare earth Mg ductile iron to replace steel 10 was expounded.

分析了10钢制耐火砖成型模板过早失效的形式及原因，论证了采用稀土镁球铁代替10钢制作成型模板的可行性。

3.The paper analyses ablative mechanism of firebrick lining in imperial smelting furnace, presents the improvement measures in Shaoguan Smelter and results thus achieved.

文章分析了铅锌密闭鼓风炉耐火材料的侵蚀机理，介绍了韶关冶炼厂鼓风炉耐火材料方面的改进及使用效果。

4.All kinds of firebrick die. Refractory ball mold. Die frame.

各种耐火砖模具。耐火球模具。模具外框。

5.Stones drilling bit: Use for drilling stones, concrete, firebrick etc.

摘要：石材钻头：适用于石材、混凝土、耐火材料的钻孔。

6.Several different kinds of immobilized photocatalysts were prepared using firebrick granules as carrier.

以耐火砖颗粒为载体制备了几种不同类型的负载型光催化剂。

7.It is an ideal raw material for producing firebrick and monolithic materials, with the characteristic of big crystal, compact texture, high temperature property and high slag resistance.

电熔镁砂结晶体大、组织致密、高温性能好、抗渣性强，是生产耐火砖和散状料的优质原料。

8.The premature failure modes of firebrick forming dies made of steel 10 and its failure reason are analyzed. The possibility of using rare earth Mg ductile iron to replace steel 10 was expounded.

分析了10钢制耐火砖成型模板过早失效的形式及原因，论证了采用稀土镁球铁代替10钢制作成型模板的可行性。

9.The oven is lined with firebrick to withstand high temperatures.

烤箱内部铺有耐火砖以承受高温。

10.We need to replace the broken firebrick in the fireplace.

我们需要更换壁炉中损坏的耐火砖。

11.The kiln was built using specially designed firebrick for optimal heat retention.

窑是用专门设计的耐火砖建造的，以实现最佳的热量保持。

12.You can find firebrick in many industrial applications due to its heat resistance.

由于其耐热性，您可以在许多工业应用中找到耐火砖。

13.The pizza oven uses firebrick to create a perfect cooking environment.

比萨烤箱使用耐火砖来创造完美的烹饪环境。

作文

In the world of construction and architecture, materials play a crucial role in determining the durability and effectiveness of structures. One such material that stands out for its unique properties is firebrick. A firebrick (耐火砖) is specifically designed to withstand high temperatures and is commonly used in furnaces, kilns, and fireplaces. The importance of firebrick in industrial applications cannot be overstated, as it provides both thermal insulation and structural integrity under extreme conditions. The composition of firebrick typically includes alumina and silica, which contribute to its ability to endure heat without melting or deforming. This makes firebrick an indispensable material in industries that require high-temperature processes, such as metalworking and ceramics. For example, in a steel mill, the furnaces must reach temperatures exceeding 1,500 degrees Celsius. Here, firebrick serves as a lining that protects the outer structure from the intense heat generated during production. Moreover, firebrick is not only functional but also versatile. It comes in various shapes and sizes, allowing architects and engineers to design intricate structures while maintaining safety and efficiency. The aesthetic appeal of firebrick has also been recognized in residential settings. Many homeowners choose firebrick for their fireplaces, not just for its heat resistance but also for its rustic charm and durability. In addition to its practical uses, the manufacturing process of firebrick is noteworthy. The bricks are created by molding clay and other raw materials into the desired shape, followed by firing them in a kiln at high temperatures. This process enhances the strength and durability of the firebrick, ensuring it can withstand the rigors of high-heat environments. As a result, the lifespan of a firebrick is significantly longer than that of regular bricks, making it a cost-effective choice over time. Another aspect worth mentioning is the environmental impact of firebrick production. With the growing emphasis on sustainability, manufacturers are exploring ways to produce firebrick using recycled materials and more energy-efficient methods. This shift not only reduces waste but also lowers the carbon footprint associated with traditional brick manufacturing. As industries evolve, the demand for eco-friendly materials like firebrick is likely to increase, leading to innovations that benefit both the environment and the economy. In conclusion, the significance of firebrick (耐火砖) in construction and industry is profound. Its ability to withstand high temperatures while providing structural support makes it an essential component in various applications. From industrial furnaces to residential fireplaces, firebrick proves its worth through its durability, versatility, and aesthetic appeal. As we move towards a more sustainable future, the evolution of firebrick production will undoubtedly play a key role in shaping the materials we rely on for construction and manufacturing.

在建筑和建筑学的世界中，材料在决定结构的耐久性和有效性方面发挥着至关重要的作用。一个突出的材料就是耐火砖。耐火砖（firebrick）专门设计用于承受高温，通常用于炉子、窑和壁炉。耐火砖在工业应用中的重要性不容小觑，因为它在极端条件下提供了热绝缘和结构完整性。 耐火砖的组成通常包括铝土矿和硅石，这些成分使其能够承受高温而不熔化或变形。这使得耐火砖在需要高温处理的行业中成为不可或缺的材料，如金属加工和陶瓷制造。例如，在钢铁厂，炉子必须达到超过1500摄氏度的温度。在这里，耐火砖作为衬里，保护外部结构免受生产过程中产生的强烈热量影响。 此外，耐火砖不仅功能性强，而且用途广泛。它有各种形状和尺寸，允许建筑师和工程师在保持安全与效率的同时设计复杂的结构。耐火砖的美学吸引力也在住宅环境中得到认可。许多房主选择在他们的壁炉中使用耐火砖，不仅因为它的耐热性，还因为它的乡村魅力和耐用性。 除了实用性，耐火砖的制造过程也值得一提。这些砖块是通过将粘土和其他原材料模制成所需形状，然后在高温下在窑中烧制而成的。这个过程增强了耐火砖的强度和耐用性，确保其能够承受高热环境的严酷考验。因此，耐火砖的使用寿命显著长于普通砖，使其在长期使用中成为一种经济有效的选择。 另一个值得提及的方面是耐火砖生产的环境影响。随着对可持续发展的日益重视，制造商正在探索使用回收材料和更节能的方法来生产耐火砖。这种转变不仅减少了废物，还降低了与传统砖制造相关的碳足迹。随着行业的发展，对环保材料如耐火砖的需求可能会增加，从而推动有利于环境和经济的创新。 总之，耐火砖（firebrick）在建筑和工业中的重要性深远。它承受高温的能力，同时提供结构支持，使其在各种应用中成为必不可少的组成部分。从工业炉到住宅壁炉，耐火砖通过其耐用性、多功能性和美学吸引力证明了自己的价值。随着我们朝着更加可持续的未来迈进，耐火砖生产的演变无疑将在塑造我们依赖的建筑和制造材料中发挥关键作用。