corrector magnet

简明释义

校正磁棒

英英释义

例句

1.The corrector magnet 校正磁铁 plays a crucial role in maintaining the quality of the particle beam in accelerators.

corrector magnet校正磁铁在保持加速器中粒子束质量方面起着至关重要的作用。

2.The design team integrated the corrector magnet 校正磁铁 into the new particle accelerator to improve beam stability.

设计团队将corrector magnet校正磁铁集成到新的粒子加速器中，以提高束流稳定性。

3.Engineers adjusted the settings on the corrector magnet 校正磁铁 to reduce the aberrations in the imaging system.

工程师调整了corrector magnet校正磁铁的设置，以减少成像系统中的像差。

4.To enhance the performance, scientists upgraded the corrector magnet 校正磁铁 in the synchrotron facility.

为了提升性能，科学家们升级了同步辐射设施中的corrector magnet校正磁铁。

5.The calibration of the corrector magnet 校正磁铁 was essential for accurate experimental results.

对corrector magnet校正磁铁的校准对于准确的实验结果至关重要。

作文

In the world of particle physics, precision is paramount. One of the crucial components that help achieve this precision is the corrector magnet. A corrector magnet (校正磁铁) is used in particle accelerators to adjust and correct the trajectory of charged particles as they travel through the accelerator. These magnets play a vital role in ensuring that the particles are steered accurately along their intended paths, which is essential for successful experiments and discoveries in high-energy physics.Particle accelerators are complex machines that require meticulous design and engineering. The journey of a particle begins when it is injected into the accelerator, where it is then accelerated to nearly the speed of light. However, as particles travel through various components of the accelerator, they can be influenced by magnetic fields and other forces that may cause them to deviate from their desired path. This is where the corrector magnet (校正磁铁) comes into play. By generating precise magnetic fields, these magnets can nudge the particles back on track, ensuring that they stay focused and aligned.The operation of a corrector magnet (校正磁铁) is based on the principles of electromagnetism. When an electric current passes through a coil of wire, it creates a magnetic field. By carefully controlling the strength and direction of this current, physicists can manipulate the magnetic field produced by the corrector magnet (校正磁铁). This allows them to make fine adjustments to the particle beam, correcting any deviations caused by factors such as imperfections in the accelerator's construction or external magnetic interference.Moreover, the use of corrector magnets (校正磁铁) is not limited to just one type of accelerator. They are utilized in various kinds of accelerators, including synchrotrons and linear accelerators. In synchrotrons, for example, multiple corrector magnets (校正磁铁) are strategically placed throughout the ring to ensure that the particle beam remains tightly focused as it travels around the loop. In linear accelerators, corrector magnets (校正磁铁) are often employed at specific intervals to maintain the proper alignment of the beam.The importance of corrector magnets (校正磁铁) extends beyond just maintaining the trajectory of particles. They also play a significant role in enhancing the overall performance of the accelerator. By improving the beam quality and stability, corrector magnets (校正磁铁) contribute to more efficient collisions between particles, leading to a higher likelihood of observing rare events that can provide valuable insights into the fundamental nature of matter and the universe.In conclusion, corrector magnets (校正磁铁) are indispensable tools in the field of particle physics. Their ability to adjust and correct the paths of charged particles ensures that experiments can be conducted with the utmost precision. As technology advances and new discoveries are made, the role of corrector magnets (校正磁铁) will continue to be vital in pushing the boundaries of our understanding of the universe. Without these remarkable devices, the intricate dance of particles within accelerators would be far less coordinated, hindering the progress of scientific exploration and innovation.

在粒子物理学的世界中，精确性至关重要。帮助实现这种精确性的关键组成部分之一是校正磁铁。校正磁铁（corrector magnet）用于粒子加速器中，以调整和校正带电粒子在加速器中移动时的轨迹。这些磁铁在确保粒子沿着预定路径准确引导方面发挥着至关重要的作用，这对于高能物理学中的成功实验和发现至关重要。粒子加速器是复杂的机器，需要精心设计和工程。粒子的旅程始于将其注入加速器，在那里它被加速到接近光速。然而，当粒子通过加速器的各种组件时，它们可能会受到磁场和其他力的影响，导致它们偏离预期路径。这就是校正磁铁（corrector magnet）发挥作用的地方。通过产生精确的磁场，这些磁铁可以轻微地推动粒子回到轨道上，确保它们保持聚焦和对齐。校正磁铁（corrector magnet）的操作基于电磁学原理。当电流通过一根线圈时，它会产生磁场。通过精确控制这一电流的强度和方向，物理学家可以操纵校正磁铁（corrector magnet）产生的磁场。这使他们能够对粒子束进行微调，校正由加速器构造中的缺陷或外部磁干扰等因素造成的任何偏差。此外，校正磁铁（corrector magnet）的使用并不仅限于一种类型的加速器。它们被用于各种类型的加速器，包括同步辐射加速器和线性加速器。例如，在同步辐射加速器中，多个校正磁铁（corrector magnet）被战略性地放置在环形结构中，以确保粒子束在环路中移动时保持紧密聚焦。在线性加速器中，校正磁铁（corrector magnet）通常在特定间隔处使用，以维护束的正确对齐。校正磁铁（corrector magnet）的重要性不仅限于维持粒子的轨迹。它们还在提高加速器的整体性能方面发挥着重要作用。通过改善束的质量和稳定性，校正磁铁（corrector magnet）有助于提高粒子之间碰撞的效率，从而更有可能观察到稀有事件，这些事件可以提供对物质和宇宙基本性质的宝贵见解。总之，校正磁铁（corrector magnet）是粒子物理学领域不可或缺的工具。它们调整和校正带电粒子的路径的能力确保了实验可以以极大的精确度进行。随着技术的进步和新发现的出现，校正磁铁（corrector magnet）的作用将在推动我们对宇宙理解的边界方面继续发挥重要作用。如果没有这些卓越的设备，加速器内粒子的复杂舞蹈将远不如协调，这将阻碍科学探索和创新的进展。