416F32013CDR

Crystals

Crystals, like other materials, are not uniform throughout, they consist of different metals, minerals and oxides. The main purpose of using crystals is to convert and store energy, as well as to amplify and filter electric and radio signals and frequencies. Crystals are also used in both precision and industrial applications.

416F32013CDR Application Field and Working Principle

416F32013CDR, also known as ultra thin crystal resonator, are designed for telecommunication, computing and general electronic circuits applications. It is an extremely thin crystal resonator that’s usually used together with an oscillator or resonator.

The working principle of 416F32013CDR is based on the piezoelectric effect; which states that when a crystal is subjected to an electric field, it produces a mechanical stress and when the crystal is put under mechanical stress, it produces an electric field. This effect can be used for the generation, transmission, and reception of sound, radio or power.

Since the 416F32013CDR is an ultra thin crystal resonator, it can be used in applications that require high precision because it has high stability in frequency as low as 10Hz and has low equivalent parallel capacitance between pins. It is also used for many other applications such as rotational speed detectors and acoustic sensors.

The 416F32013CDR is also capable of producing low losses at higher frequencies, it is ultra thin therefore it can fit inside the circuit board with less space, and it is also very compact in size and resilient to external factors such as shock, temperature, vibration and other elements.

Overall, the 416F32013CDR is an ultra thin crystal resonator that’s used in many applications ranging from precision instruments to industrial devices. It is used to convert and store energy, amplify and filter electric and radio signals and frequencies, and other applications such as rotational speed detectors and acoustic sensors. It is also known for its high precision and stability, as well as its low losses at higher frequencies.