double coil

简明释义

双绕线圈

英英释义

例句

1.The jewelry designer created a unique necklace featuring a double coil 双线圈 pendant.

珠宝设计师设计了一款独特的项链，配有双线圈吊坠。

2.The technician explained that the heating element uses a double coil 双线圈 design for better efficiency.

技术员解释说，加热元件采用了双线圈设计，以提高效率。

3.The double coil 双线圈 setup allows for more precise measurements in our experiments.

这种双线圈设置使我们实验中的测量更加精确。

4.In our new model, we implemented a double coil 双线圈 system to enhance the magnetic field strength.

在我们的新型号中，我们实施了一个双线圈系统，以增强磁场强度。

5.Using a double coil 双线圈 transformer can significantly reduce energy losses.

使用双线圈变压器可以显著减少能量损失。

作文

The concept of a double coil is often encountered in various scientific and engineering fields, particularly in physics and electrical engineering. A double coil refers to a configuration where two coils are wound together, typically around a common axis. This design can significantly enhance the performance of electromagnetic devices, such as transformers and inductors. The interaction between the two coils allows for a more efficient transfer of energy, which is essential in many applications. In the realm of electromagnetism, the double coil configuration is particularly beneficial for creating stronger magnetic fields. When an electric current passes through the coils, it generates a magnetic field that can be manipulated for various purposes. For example, in a transformer, the primary coil receives electrical energy, while the secondary coil delivers it to the load. The presence of a double coil setup ensures that a larger amount of energy is transferred with minimal losses. Moreover, the double coil design is not limited to electrical applications; it also finds relevance in mechanical systems. In spring mechanisms, a double coil spring can provide greater flexibility and strength compared to a single coil spring. This is because the dual coils can distribute the load more evenly, reducing the risk of failure under stress. Engineers often utilize this principle when designing components that require durability and resilience. In addition to its practical applications, the double coil concept can also be observed in nature. For instance, the structure of DNA features a double helix formation, which can be likened to a double coil. This natural occurrence highlights the efficiency and stability provided by such configurations, whether in biological systems or engineered devices. The spiral structure of DNA allows for the compact storage of genetic information, showcasing how the double coil design can optimize space and functionality. Understanding the mechanics of a double coil is crucial for students and professionals in STEM fields. By grasping how these coils interact and influence each other, one can better appreciate the underlying principles of electromagnetism and mechanical design. Furthermore, innovations in technology often stem from a deep comprehension of such fundamental concepts. As we continue to advance in areas like renewable energy and robotics, the double coil configuration may play a pivotal role in developing more efficient systems. In conclusion, the double coil serves as a vital element in both theoretical and practical applications across multiple disciplines. Its ability to enhance energy transfer, improve mechanical properties, and mimic natural structures makes it an invaluable concept. As we explore further into the realms of science and engineering, understanding the significance of a double coil will undoubtedly contribute to future innovations and advancements.

“双线圈”这一概念常常出现在物理学和电气工程等多个科学与工程领域。双线圈是指两个线圈共同缠绕在一起，通常围绕一个共同的轴心。这种设计能够显著提升电磁设备的性能，例如变压器和电感器。两个线圈之间的相互作用使得能量的传输更加高效，这在许多应用中都是至关重要的。在电磁学领域，双线圈配置对于产生更强的磁场尤其有利。当电流通过线圈时，会产生一个可以被操控的磁场，用于各种目的。例如，在变压器中，初级线圈接收电能，而次级线圈将其传递给负载。双线圈结构的存在确保了以最小损耗传输更多的能量。此外，双线圈设计不仅限于电气应用，它在机械系统中同样具有相关性。在弹簧机制中，双线圈弹簧相比单线圈弹簧可以提供更大的灵活性和强度。这是因为双线圈可以更均匀地分配负载，降低在应力下失效的风险。工程师们常常利用这一原理设计需要耐用性和韧性的组件。除了实用应用外，双线圈概念也可以在自然界中观察到。例如，DNA的结构具有双螺旋形态，可以比作双线圈。这一自然现象突显了这种配置所提供的效率和稳定性，无论是在生物系统还是工程设备中。DNA的螺旋结构允许紧凑存储遗传信息，展示了双线圈设计如何优化空间和功能。理解双线圈的机制对于STEM领域的学生和专业人士至关重要。通过掌握这些线圈如何相互作用及其影响，人们可以更好地理解电磁学和机械设计的基本原理。此外，技术创新往往源于对这些基本概念的深入理解。随着我们在可再生能源和机器人等领域的不断进步，双线圈配置可能在开发更高效的系统中发挥关键作用。总之，双线圈作为多学科理论与实践应用中的关键元素，其增强能量传输、改善机械特性以及模仿自然结构的能力使其成为一个不可或缺的概念。随着我们进一步探索科学和工程领域，理解双线圈的重要性无疑将为未来的创新和进步做出贡献。