balanced oscillator

简明释义

平衡振荡器

英英释义

A balanced oscillator is a type of electronic oscillator that produces a stable output signal, typically in the form of a sine wave, by maintaining equilibrium between its reactive components.

平衡振荡器是一种电子振荡器,通过在其反应组件之间保持平衡,产生稳定的输出信号,通常是正弦波的形式。

例句

1.Engineers often utilize a balanced oscillator 平衡振荡器 in audio equipment to ensure sound clarity.

工程师们通常在音频设备中使用 平衡振荡器 平衡振荡器 来确保声音清晰度。

2.A balanced oscillator 平衡振荡器 is crucial in the development of precise timing devices.

在精密计时设备的开发中,平衡振荡器 平衡振荡器 是至关重要的。

3.The design of the circuit includes a balanced oscillator 平衡振荡器 to minimize distortion.

电路的设计包括一个 平衡振荡器 平衡振荡器 以最小化失真。

4.In telecommunications, a balanced oscillator 平衡振荡器 helps maintain signal integrity over long distances.

在电信中,平衡振荡器 平衡振荡器 有助于在长距离传输中保持信号完整性。

5.In radio technology, a balanced oscillator 平衡振荡器 can produce stable frequencies for signal transmission.

在无线电技术中,平衡振荡器 平衡振荡器 能产生稳定的频率用于信号传输。

作文

In the world of physics and engineering, the concept of a balanced oscillator is crucial for understanding various dynamic systems. A balanced oscillator refers to a system that exhibits periodic motion, where the forces acting on it are in equilibrium. This means that the restoring force, which brings the system back to its equilibrium position, is perfectly balanced by the inertial forces. The simplest example of a balanced oscillator can be found in a pendulum or a mass-spring system, where the oscillations occur due to the interplay of gravitational and elastic forces.The significance of a balanced oscillator extends beyond theoretical physics; it has practical applications in numerous fields. For instance, in electrical engineering, oscillators are fundamental components in circuits that generate signals. A balanced oscillator in this context helps maintain stable frequency outputs, which are essential for communication devices, radio transmitters, and even clocks. The precision of these oscillators ensures that signals can be transmitted without distortion, thereby enhancing the quality of communication.Moreover, the study of balanced oscillators allows engineers to design better systems that minimize energy loss. In mechanical systems, understanding how to create a balanced oscillator can lead to more efficient machines that operate smoothly without unnecessary vibrations or wear. This principle is vital in industries such as automotive engineering, where the performance of engines and suspension systems can significantly benefit from the characteristics of a balanced oscillator.Another interesting aspect of balanced oscillators is their role in the natural world. Many phenomena in nature can be described using the principles of oscillation. For example, the behavior of certain animal populations can be modeled as oscillatory systems, where the population size fluctuates over time due to various factors like food availability and predation. Understanding these dynamics through the lens of a balanced oscillator can provide insights into ecological balance and sustainability.In addition to practical applications, the concept of a balanced oscillator also serves as a metaphor in various contexts. In life, achieving balance is often compared to maintaining a balanced oscillator, where different aspects of our lives—work, family, health, and leisure—must be in harmony to achieve overall well-being. Just as a balanced oscillator operates efficiently when forces are in equilibrium, we too thrive when our lives are well-balanced.In conclusion, the balanced oscillator is not just a fundamental concept in physics but a versatile idea that permeates various disciplines. From engineering to ecology and even personal life, the principles of balance and oscillation remind us of the importance of equilibrium. By understanding how a balanced oscillator works, we can harness its principles to improve technology, analyze natural systems, and strive for balance in our own lives.

在物理和工程的世界中,平衡振荡器的概念对于理解各种动态系统至关重要。平衡振荡器指的是一种表现出周期性运动的系统,其中作用于其上的力处于平衡状态。这意味着恢复力(将系统带回其平衡位置的力量)与惯性力完美平衡。平衡振荡器的最简单示例可以在摆或质量-弹簧系统中找到,其中振荡是由于重力和弹性力之间的相互作用而发生的。平衡振荡器的重要性超越了理论物理;它在众多领域的实际应用中具有重要意义。例如,在电气工程中,振荡器是生成信号的电路中的基本组件。在这种情况下,平衡振荡器帮助维持稳定的频率输出,这对于通信设备、无线电发射机甚至时钟至关重要。这些振荡器的精确性确保信号可以无失真地传输,从而提高通信质量。此外,研究平衡振荡器使工程师能够设计出更好的系统,以最小化能量损失。在机械系统中,了解如何创建平衡振荡器可以导致更高效的机器,这些机器平稳运行而没有不必要的振动或磨损。这个原则在汽车工程等行业中至关重要,因为发动机和悬挂系统的性能可以显著受益于平衡振荡器的特性。平衡振荡器的另一个有趣方面是它们在自然界中的作用。自然界中的许多现象都可以用振荡原理来描述。例如,某些动物种群的行为可以被建模为振荡系统,其中种群数量由于食物供应和捕食等各种因素随时间波动。通过平衡振荡器的视角理解这些动态可以为生态平衡和可持续性提供见解。除了实际应用,平衡振荡器的概念还在各种背景中作为隐喻。在生活中,实现平衡常常被比作维持平衡振荡器,我们生活的不同方面——工作、家庭、健康和休闲——必须和谐相处,以实现整体幸福。正如平衡振荡器在力量处于平衡状态时高效运作,我们在生活中也能在追求平衡时蓬勃发展。总之,平衡振荡器不仅仅是物理学中的基本概念,而是一个渗透到各个学科的多功能思想。从工程到生态学,甚至个人生活,平衡和振荡的原则提醒我们平衡的重要性。通过理解平衡振荡器的工作原理,我们可以利用其原则来改善技术、分析自然系统,并努力在自己的生活中实现平衡。

相关单词

balanced

balanced详解:怎么读、什么意思、用法

oscillator

oscillator详解:怎么读、什么意思、用法