triacs

简明释义

[ˈtraɪ.æks][ˈtraɪ.æks]

n. 三端双向可控硅元件

英英释义

A triac is a semiconductor device that can control current flow in both directions, commonly used in AC power applications.

三端双向可控硅是一种半导体器件,可以控制交流电流的双向流动,通常用于交流电源应用。

单词用法

phase control using triacs

使用三端双向晶闸管的相位控制

triac-based dimmer switch

基于三端双向晶闸管的调光开关

silicon-controlled rectifier (scr) and triacs

硅控整流器(SCR)和三端双向晶闸管

triac switching circuit

三端双向晶闸管开关电路

同义词

thyristors

晶闸管

Thyristors are widely used in power control applications.

晶闸管广泛用于电力控制应用。

solid-state relays

固态继电器

Solid-state relays provide faster switching times compared to mechanical relays.

与机械继电器相比,固态继电器提供更快的切换时间。

反义词

diacs

双向可控硅

Diacs are often used for triggering applications.

双向可控硅常用于触发应用。

switches

开关

Mechanical switches provide a simple on/off control.

机械开关提供简单的开/关控制。

例句

1.Triacs are used to control AC mains loads.

三端双向晶闸管用于控制AC电源负载。

2.Triacs are used to control AC mains loads.

三端双向晶闸管用于控制AC电源负载。

3.In temperature control applications, triacs 晶闸管 help maintain consistent heating.

在温度控制应用中,triacs 晶闸管有助于保持恒定的加热效果。

4.The use of triacs 晶闸管 in dimmer switches allows for smooth adjustments of light levels.

在调光开关中使用triacs 晶闸管可以平滑调整光线水平。

5.When designing a motor control circuit, engineers often select triacs 晶闸管 for their reliability.

在设计电机控制电路时,工程师通常选择triacs 晶闸管以确保其可靠性。

6.The heating element in this device is regulated by triacs 晶闸管 for efficient energy consumption.

该设备中的加热元件由triacs 晶闸管调节,以实现高效的能量消耗。

7.In modern lighting systems, we often use triacs 晶闸管 to control the brightness of lamps.

在现代照明系统中,我们经常使用triacs 晶闸管来控制灯的亮度。

作文

In the world of electronics, various components play crucial roles in ensuring devices function smoothly and efficiently. One such component that has gained significant attention is the triacs. A triac is a type of semiconductor device that can control current flow in both directions, making it particularly useful for alternating current (AC) applications. This ability to control power makes triacs essential in a variety of devices, from light dimmers to motor speed controls.The operation of triacs is based on the principle of triggering. When a small current is applied to the gate terminal of the triac, it allows a larger current to flow between its main terminals. This characteristic is what makes triacs so valuable in applications where variable power is needed. For instance, in a light dimmer, the triac regulates the amount of electricity flowing to the light bulb, allowing users to adjust brightness levels according to their preferences.Another important aspect of triacs is their ability to handle high voltage and current levels. This capability enables them to be used in industrial applications, such as controlling large motors or heating elements. In these scenarios, the reliability and efficiency of triacs can lead to significant energy savings and improved performance.However, like any electronic component, triacs also have their limitations. One of the main challenges with using triacs is related to their sensitivity to electrical noise. In environments with fluctuating voltages or electromagnetic interference, triacs may inadvertently trigger, leading to unwanted operation of connected devices. To mitigate this issue, designers often incorporate additional circuitry to filter out noise and ensure stable operation.Despite these challenges, the advantages of using triacs far outweigh their drawbacks. Their versatility and efficiency have made them a popular choice in many modern electronic applications. From household appliances to complex industrial machinery, triacs are integral to the functioning of numerous devices we rely on every day.In conclusion, understanding the role of triacs in electronics is essential for anyone interested in the field. Their unique properties enable precise control of electrical power, making them invaluable in a wide range of applications. As technology continues to advance, the importance of triacs will likely grow, paving the way for even more innovative uses in the future. Whether you are an engineer, a hobbyist, or simply someone curious about electronics, gaining knowledge about triacs will undoubtedly enhance your understanding of how modern devices operate.

在电子世界中,各种组件在确保设备顺利高效运行方面发挥着至关重要的作用。其中一个引起显著关注的组件是triacsTriac是一种半导体器件,可以控制电流在两个方向上的流动,这使得它在交流电(AC)应用中特别有用。这种控制电力的能力使得triacs在各种设备中至关重要,从灯光调光器到电机速度控制。Triacs的操作基于触发原理。当小电流施加到triac的栅极端子时,它允许更大的电流在其主端子之间流动。这一特性使得triacs在需要可变功率的应用中非常有价值。例如,在灯光调光器中,triac调节流向灯泡的电量,允许用户根据自己的喜好调整亮度水平。Triacs的另一个重要方面是它们处理高电压和电流水平的能力。这一能力使得它们可以用于工业应用,例如控制大型电机或加热元件。在这些情况下,triacs的可靠性和效率可以带来显著的节能和改善性能。然而,与任何电子组件一样,triacs也有其局限性。使用triacs的主要挑战之一与其对电噪声的敏感性有关。在电压波动或电磁干扰的环境中,triacs可能会意外触发,导致连接设备的不必要操作。为了减轻这个问题,设计师通常会加入额外的电路来过滤噪声,并确保稳定操作。尽管存在这些挑战,使用triacs的优势远远超过其缺点。它们的多功能性和效率使其成为许多现代电子应用中的热门选择。从家用电器到复杂的工业机械,triacs是我们每天依赖的众多设备正常运作的关键。总之,理解triacs在电子学中的作用对于任何对该领域感兴趣的人来说都是至关重要的。它们独特的特性使得电力的精确控制成为可能,使其在广泛的应用中不可或缺。随着技术的不断进步,triacs的重要性可能会增加,为未来更加创新的用途铺平道路。无论您是工程师、爱好者,还是只是对电子学感兴趣的人,了解triacs无疑将增强您对现代设备如何运作的理解。