laminated yoke

简明释义

迭片磁轭

英英释义

例句

1.The manufacturing process of a laminated yoke involves stacking thin sheets of metal.

层压轭的制造过程涉及将薄金属片堆叠在一起。

2.The laminated yoke provides better structural integrity for the magnetic circuit.

层压轭为磁路提供了更好的结构完整性。

3.Using a laminated yoke in transformers helps improve efficiency by minimizing eddy currents.

在变压器中使用层压轭有助于通过最小化涡流来提高效率。

4.In this application, the laminated yoke is essential for achieving optimal performance.

在这个应用中，层压轭对于实现最佳性能是必不可少的。

5.The engineer designed a new motor with a laminated yoke to reduce magnetic losses.

工程师设计了一款新电机，采用了层压轭以减少磁损耗。

作文

In the world of engineering and manufacturing, the term laminated yoke refers to a specific component that is often used in electrical machines, such as transformers and motors. A laminated yoke is typically made by stacking thin sheets of magnetic material, which are insulated from each other, to form a core structure. This design minimizes energy loss due to eddy currents, which can occur when magnetic fields change rapidly. The laminated construction allows for better performance in terms of efficiency and heat management, making it a crucial element in many modern electrical devices.The significance of a laminated yoke can be better understood when we consider its role in the overall functionality of electrical machines. For instance, in a transformer, the yoke serves as a magnetic path that connects the primary and secondary windings. By using a laminated yoke, engineers can ensure that the magnetic flux is efficiently transferred between these windings, resulting in improved power conversion and reduced losses. This is particularly important in applications where energy efficiency is paramount, such as in renewable energy systems and electric vehicles.Moreover, the manufacturing process of a laminated yoke involves careful selection of materials and precise engineering techniques. The choice of magnetic materials, such as silicon steel or ferrite, plays a critical role in determining the performance characteristics of the yoke. Additionally, the thickness of the laminations must be optimized to balance mechanical strength with electromagnetic properties. This intricate interplay of factors highlights the importance of advanced engineering practices in creating effective laminated yoke designs.Beyond their technical specifications, laminated yokes also have environmental implications. With the growing emphasis on sustainability, manufacturers are increasingly looking for ways to reduce waste and improve the recyclability of their products. The use of laminated materials can contribute to this goal by minimizing the amount of raw material needed while still achieving high performance standards. Furthermore, the energy savings realized through more efficient electrical machines can lead to lower carbon emissions, aligning with global efforts to combat climate change.In conclusion, the laminated yoke is a vital component in the realm of electrical engineering, playing a key role in enhancing the efficiency and performance of various machines. Its design and manufacturing process require a deep understanding of both materials science and electrical principles. As technology continues to evolve, the importance of optimizing components like the laminated yoke will only grow, driving innovations that lead to more sustainable and efficient electrical systems.

在工程和制造的世界中，术语层压轭指的是一种特定的组件，通常用于电气设备，如变压器和电动机。层压轭通常由多层薄的磁性材料叠加而成，这些材料相互绝缘，以形成核心结构。这种设计最小化了由于涡流引起的能量损失，而涡流会在磁场快速变化时发生。层压结构能够在效率和热管理方面提供更好的性能，使其成为许多现代电气设备中的关键元素。当我们考虑层压轭在电气机器整体功能中的作用时，可以更好地理解其重要性。例如，在变压器中，轭作为连接初级和次级绕组的磁路。通过使用层压轭，工程师可以确保磁通在这些绕组之间有效传输，从而提高功率转换并减少损耗。这在可再生能源系统和电动汽车等对能效要求极高的应用中尤为重要。此外，层压轭的制造过程涉及对材料的精心选择和精确的工程技术。磁性材料的选择，如硅钢或铁氧体，在决定轭的性能特征方面起着关键作用。此外，层压片的厚度必须经过优化，以平衡机械强度和电磁特性。这种因素之间的复杂相互作用凸显了先进工程实践在创建有效的层压轭设计中的重要性。除了其技术规格外，层压轭还具有环境影响。随着对可持续发展的日益重视，制造商越来越寻求减少废物和改善产品可回收性的方法。使用层压材料可以通过最小化所需原材料的数量，同时仍然达到高性能标准，来促进这一目标。此外，通过更高效的电气机器实现的节能可以导致更低的碳排放，与全球应对气候变化的努力相一致。总之，层压轭是电气工程领域的重要组件，在提高各种机器的效率和性能方面发挥着关键作用。其设计和制造过程需要对材料科学和电气原理有深入的理解。随着技术的不断发展，优化像层压轭这样的组件的重要性只会增加，推动创新，导致更可持续和高效的电气系统。