FS-335 868.3500MC

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Crystals are the foundation of many modern technological advancements. In essence, they are nothing more than a solid block of vibration-resistant material like quartz, or synthetic material like quartz, that is constructed into a crystal. The crystalline structure of the material allows electrical signals to pass through them in a specific frequency, enabling engineers to ensure that their devices operate as intended. Due to this fact, crystals are heavily used in radio communications systems, clocks, watch oscillators, and many other types of electronic circuitry. Of all crystals, the FS-335 868.3500MC, is one of the most widely used due to its relatively low cost, robustness, and wide range of application fields.

The FS-335 868.3500MC crystal is a type of miniature-frequency crystal with a built-in frequency-control capacitance to allow for precise tuning of the output signal over a large range of frequencies. This precision makes the FS-335 868.3500MC crystal suitable for use in FM radios and mobile phones, as it can be tuned to the exact frequencies specified for transmission. Furthermore, the crystal is also ideal for use in other types of wireless communication systems in which precise frequency tuning is necessary.

When it comes to the application field and working principle of the FS-335 868.3500MC crystal, it can be broken down into several components. The first part of the crystal is the resonator, which is the vibrating piece of quartz or synthetic material that is constructed into the specific crystalline structure. This resonator is especially designed to vibrate at a specific frequency, and is often referred to as the “fundamental frequency” or the “tuning frequency”. The resonator is connected to a pair of terminals, usually referred to as the “oscillation pins”, which are used to input and output the desired electrical signals.

The second component in the crystal is the frequency-control capacitance, which is connected in parallel to the oscillation pins and is responsible for controlling the frequency of output of the crystal. This is done by allowing the electrical signal from the oscillation pins to pass through a tuned quartz crystal, which effectively changes the frequency of the signal by a process known as “unlocking”. This “unlocking” process is based on the crystal\'s natural frequency, and any changes in this frequency result in changes in the frequency of the output signal.

Finally, the last component of the crystal is the “offset”, which is the adjustment that is made to the output signal frequency in order to ensure that it is accurately within the desired frequency range. In some cases, the offset may be adjusted by the manufacturer depending on the frequency range specified in the data sheet. In other applications, the frequency offset of the crystal may be adjusted manually by the user in order to fine-tune the desired frequency range.

In conclusion, the FS-335 868.3500MC crystal is a miniature-frequency crystal that is ideal for use in many applications due to its relatively low cost, robustness, and wide range of frequency range. Its application field and working principle can be broken down into several components, including the resonator, frequency-control capacitance, and offset, which are all essential for its precise tuning of the output signal over a large frequency range. As such, the FS-335 868.3500MC crystal is an invaluable component in many wireless communication systems, as well as other electronic circuitry that requires precise frequency tuning.

The specific data is subject to PDF, and the above content is for reference