
Powder Metallurgy
Powder metallurgy(粉末冶金)是一种制造金属部件的工艺,通过将金属粉末压制成形并加热至低于其熔点的温度来实现。该工艺常用于生产复杂形状和高性能材料的零件。
词汇分析
该词主要用作名词,指代一种特定的冶金工艺。它没有显著的形容词形式。而与之相关的形容词可能包括“powdered”(粉末状的),指的是使用粉末材料的状态。
词语辨析
与“powder metallurgy”相关的词汇包括“metal powder”(金属粉末)和“sintering”(烧结),这两个词在粉末冶金的过程中起着重要作用。
词汇扩充
相关词汇包括:sintering(烧结),compaction(压制),alloy(合金),additive manufacturing(增材制造)。
近义词
- Metal powder technology(金属粉末技术)
- Composite manufacturing(复合材料制造)
反义词
- Traditional metallurgy(传统冶金)
- Casting(铸造)
用法
在技术文献和工业应用中,通常使用“powder metallurgy”来描述特定的制造技术和过程。
例句
Powder metallurgy allows for the production of complex shapes that are difficult to achieve with traditional methods, making it highly efficient.
粉末冶金允许生产复杂形状,这些形状用传统方法难以实现,因此它是非常高效的。
In powder metallurgy, the sintering process is crucial for achieving the desired density and strength.
在粉末冶金中,烧结过程对于实现所需的密度和强度至关重要。
Metal powders used in powder metallurgy can vary in size and shape, affecting the final properties of the materials.
用于粉末冶金的金属粉末可以在大小和形状上有所不同,这会影响材料的最终性能。
The compaction stage in powder metallurgy is essential to ensure uniformity and strength in the final product.
粉末冶金中的压制阶段对于确保最终产品的均匀性和强度至关重要。
Powder metallurgy is often used to create high-performance components in automotive and aerospace industries.
粉末冶金常用于制造汽车和航空航天行业中的高性能部件。
With advances in technology, the applications of powder metallurgy continue to expand across various industries.
随着技术的进步,粉末冶金的应用在各个行业中不断扩大。
The flexibility of powder metallurgy allows for the production of tailored materials for specific applications.
粉末冶金的灵活性允许为特定应用生产定制材料。
One of the key advantages of powder metallurgy is its ability to minimize waste during the manufacturing process.
粉末冶金的一个关键优点是其在制造过程中能够最小化浪费。
Researchers are exploring new powder metallurgy techniques to improve the efficiency of metal production.
研究人员正在探索新的粉末冶金技术,以提高金属生产的效率。
Enhanced properties of materials produced via powder metallurgy make them suitable for demanding environments.
通过粉末冶金生产的材料的优良性能使其适合于苛刻的环境。
The development of new metal powders is key to advancing powder metallurgy technologies.
新金属粉末的发展是推动粉末冶金技术进步的关键。
Applications of powder metallurgy can be found in medical implants and tools due to its biocompatibility.
由于其生物相容性,粉末冶金的应用可以在医疗植入物和工具中找到。
Powder metallurgy reduces the need for extensive machining, making it a cost-effective manufacturing method.
粉末冶金减少了对广泛加工的需求,使其成为一种具有成本效益的制造方法。
The combination of different metal powders can produce unique alloys through powder metallurgy.
通过粉末冶金,不同金属粉末的组合可以生产独特的合金。
Environmental considerations are important in the development of sustainable powder metallurgy processes.
在开发可持续的粉末冶金工艺时,环境考虑因素是重要的。
Powder metallurgy plays a vital role in the production of components for renewable energy technologies.
粉末冶金在可再生能源技术组件的生产中起着至关重要的作用。
Many industries are moving towards powder metallurgy due to its environmentally friendly production methods.
许多行业因其环保的生产方法而转向粉末冶金。
Understanding the properties of metal powders is essential for optimizing powder metallurgy processes.
了解金属粉末的性质对于优化粉末冶金过程至关重要。
Powder metallurgy enables the production of lightweight components without compromising strength.
粉末冶金能够在不影响强度的情况下生产轻量化组件。