centrifugal field

简明释义

离心力场;

英英释义

例句

1.The centrifugal field 离心场 in the cyclone separator is crucial for efficient separation.

气旋分离器中的离心场对于高效分离至关重要。

2.In a washing machine, the centrifugal field 离心场 helps remove excess water from clothes.

在洗衣机中，离心场帮助去除衣物中的多余水分。

3.The centrifugal field 离心场 generated in the laboratory is used to separate different substances.

实验室中产生的离心场用于分离不同的物质。

4.During the ride, the centrifugal field 离心场 pushes passengers against their seats.

在游乐设施上，离心场将乘客推向座位。

5.The spinning toy creates a centrifugal field 离心场 that makes the balls fly outward.

这个旋转的玩具产生了一个离心场，使得球向外飞出。

作文

The concept of a centrifugal field is fascinating and plays a crucial role in various scientific disciplines, particularly in physics and engineering. To understand what a centrifugal field is, we first need to grasp the basic principles of centrifugal force. Centrifugal force is an apparent force that acts outward on a mass moving in a circular path around a center. This force is not a real force but rather a result of inertia, which is the tendency of an object to resist changes in its state of motion. As an object moves in a circle, it experiences an inward force (centripetal force) that keeps it on that circular path, while simultaneously, it feels an outward push due to its inertia, creating the sensation of a centrifugal field.In practical terms, the centrifugal field can be observed in various everyday situations. For instance, when you are in a car taking a sharp turn, you may feel yourself being pushed against the door. This sensation is due to the centrifugal field created by the car's circular motion. The faster the car turns, the stronger the feeling of being pushed outward becomes. Similarly, amusement park rides that spin in circles, like the Ferris wheel or a spinning teacup ride, utilize the principles of a centrifugal field to create thrilling experiences for riders, as they feel the effects of centrifugal force pushing them outward.In engineering, the centrifugal field has practical applications in designing machines such as centrifuges. A centrifuge is a device that uses the principle of centrifugal force to separate substances of different densities. In laboratories, centrifuges are commonly used to separate blood components, where the heavier red blood cells move to the bottom of the tube, while the lighter plasma remains on top. This separation process is crucial in medical diagnostics and research.Moreover, the centrifugal field concept extends beyond mechanical applications. In astrophysics, it helps explain the behavior of celestial bodies. For example, as planets rotate, they experience a centrifugal field that affects their shape and gravitational pull. The Earth, for instance, is not a perfect sphere but rather an oblate spheroid, slightly flattened at the poles and bulging at the equator due to the centrifugal field resulting from its rotation.Understanding the centrifugal field also has implications in the field of sports and physical activities. Athletes often use the principles of centrifugal force to enhance their performance. For example, in track cycling, cyclists lean into turns to counteract the effects of the centrifugal field, allowing them to maintain speed and stability. Coaches teach athletes how to harness these forces effectively to improve their techniques and outcomes.In conclusion, the centrifugal field is a multifaceted concept with applications across various fields, including physics, engineering, and sports. By understanding the dynamics of this phenomenon, we can better appreciate the forces at play in our daily lives and the natural world around us. Whether it's feeling the push against a car door or witnessing the separation of substances in a centrifuge, the centrifugal field is a testament to the intricate relationship between motion and force, illustrating the beauty of physics in action.

“离心场”的概念令人着迷，在各种科学学科中发挥着至关重要的作用，特别是在物理和工程学中。要理解什么是“离心场”，我们首先需要掌握离心力的基本原理。离心力是一种表观力，它在质量沿着中心的圆形路径移动时向外作用。这种力并不是真正的力量，而是惯性的结果，惯性是物体抵抗其运动状态变化的倾向。当物体在圆周上移动时，它会受到一种向内的力（向心力），使其保持在圆形路径上，同时，由于惯性，它感受到一种向外的推力，从而形成“离心场”的感觉。在实际应用中，“离心场”可以在各种日常情况中观察到。例如，当你在车里急转弯时，你可能会感到自己被推向车门。这种感觉是由于汽车的圆周运动所产生的“离心场”。汽车转弯越快，向外推的感觉就越强。同样，游乐园的旋转设施，如摩天轮或旋转茶杯，利用“离心场”的原理为乘客创造刺激的体验，因为他们感受到离心力将他们向外推的效果。在工程学中，“离心场”在设计机器（如离心机）方面具有实际应用。离心机是一种利用离心力原理分离不同密度物质的设备。在实验室中，离心机常用于分离血液成分，其中较重的红细胞沉到底部，而较轻的血浆则保持在顶部。这一分离过程在医学诊断和研究中至关重要。此外，“离心场”的概念不仅限于机械应用。在天体物理学中，它有助于解释天体的行为。例如，随着行星的旋转，它们会经历“离心场”，这会影响它们的形状和引力。例如，地球并不是一个完美的球体，而是一个扁球体，在极地稍微扁平，在赤道处略微隆起，这都是由于其旋转产生的“离心场”。理解“离心场”在体育和身体活动领域也有重要意义。运动员通常利用离心力的原理来提高他们的表现。例如，在赛道自行车比赛中，自行车手在转弯时向内倾斜，以抵消“离心场”的影响，从而保持速度和稳定性。教练们教导运动员如何有效利用这些力量，以改善他们的技术和成果。总之，“离心场”是一个多面向的概念，在物理、工程和体育等各个领域都有应用。通过理解这一现象的动态特征，我们可以更好地欣赏我们日常生活和自然世界中所发生的力量。无论是感受到汽车门上的推力，还是目睹离心机中物质的分离，“离心场”都证明了运动与力量之间错综复杂的关系，展示了物理学在实践中的美丽。