405I35B13M00000

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Crystals

Crystals are essential components in the manufacture of electrical, optoelectronic and semiconductor devices due to their physical and chemical properties. A particular crystal, such as the 405I35B13M00000, is used in particular applications based on its working principles and physical characteristics. This article examines the application field, characteristics and working principle of the 405I35B13M00000 crystal.

Application Field

The 405I35B13M00000 crystal has a wide range of applications due to its varied electrical, optical and thermal properties. This crystal is frequently used in a variety of electrical and electronic products for their timekeeping functions. It is most commonly used in watches, clocks, digital multimeters, thermal controllers, and automotive timing devices, among many other electronics. Additionally, the 405I35B13M00000 crystal finds use in high frequency electro-optical systems and other high-speed applications that have precision timing requirements. It is notable for its stability and reliability.

Physical Characteristics

The 405I35B13M00000 crystal is an LCC type of oscillator which is composed of an outer metal shell and an internal ceramic substrate. It has an operating temperature of -20°C to +85°C and an operating voltage of 3V~3.3V. Its frequency range is typically 0.1MHz to 50MHz and its frequency tolerance is ±30ppm with an operating temperature of 0°C to +70°C. In addition, the crystal also has a mechanical shock resistance of 30 to 250G and a storage temperature range of -55°C to +125°C.

Working Principle

The 405I35B13M00000 crystal works by producing a symmetrical electrical signal that is used to maintain a specific oscillation frequency. The signal is created when an electric field oscillates within the crystal at a frequency determined by its physical characteristics, such as its size, shape, thickness and material composition. The internal construction of the crystal is such that it responds to the oscillatory nature of the electric field. This causes the crystal to vibrate at a certain frequency which is then used to maintain a specific oscillation frequency.

Once the electric field establishes its oscillation frequency, the vibration of the crystal is converted into an alternating electrical signal. This electrical signal is then used as input to drive an integrator, which in turn provides a stable sine wave output frequency. Thus, the oscillation of the electric field establishes the fundamental frequency of the 405I35B13M00000 crystal and is used in many applications such as timing devices and frequency reference.

In conclusion, the 405I35B13M00000 crystal is a useful, reliable and precise component used in various electronic and electrical applications. Its wide application field, diverse physical characteristics and precise working principle make the crystal a popular choice in many industries. It is notable for its stable and reliable performance that is suitable for many high frequency, high speed and precision applications.

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