TS036F33CDT

Crystals are important elements in a variety of electronic applications. The TS036F33CDT is a type of crystal that can be used in applications such as frequency control, timing, transmission, data reception, and signal reception. With its 6.0 MHz frequency and 33pF capacitance, this crystal offers a range of benefits.

Application

The TS036F33CDT crystal is a 6.0 MHz parallel resonant crystal. It is suitable for a wide range of applications, including frequency control, timing, transmission, data reception, and signal reception. The crystal has a very low ESR of 50 Ohms maximum and a very high Q value of 1000 maximum. This makes it suitable for applications which require high stability and accuracy. It is also highly reliable, making it ideal for harsh environments. The TS036F33CDT crystal has low power consumption, making it suitable for battery operated applications. The package size is 3.2mm x 2.5mm, making it suitable for space constrained applications.

Working Principle

The TS036F33CDT crystal is a parallel resonant device. It works by oscillating at a specific frequency depending on its size and shape. The oscillations are generated by a voltage applied to the device by an external circuit. When the current passes through the crystal, it generates an oscillating electric field that vibrates the material in the crystal. This causes the crystal to produce an oscillating electric output voltage at a specific frequency. The frequency of the output voltage is determined by the size and shape of the crystal, as well as other factors. The output frequency of the TS036F33CDT crystal is 6.0 MHz.

Conclusion

The TS036F33CDT crystal is a highly reliable and low-power 6.0 MHz parallel resonant crystal suitable for frequency control, timing, transmission, data reception and signal reception applications. The device is capable of very high stability and accuracy and is suitable for battery operated applications due to its low power consumption. It also has a very small package size making it suitable for space constrained applications.