Q 16,0-JXS32-10-10/15-T1-FU-WA-LF

Crystals

Crystals are solid materials in which the atoms, molecules, or ions are arranged in an orderly, repeating pattern, called a lattice structure. These materials are essential components in many types of electronic devices and circuits. They have excellent electrical, mechanical, optical, thermal, and chemical properties, making them ideal for function control, frequency selection, beam modulation, signal amplification and other applications in various industries.

Q 16, 0-JXS32-10-10/15-T1-FU-WA-LF is an example of crystals designed for use in circuits and electronics. It is a frequency-controlled crystal oscillator that has an oscillator frequency of 32 kHz and is made of AT cut quartz crystals. It is incredibly stable and has a high operating temperature range.

Application Field

Q 16, 0-JXS32-10-10/15-T1-FU-WA-LF is particularly useful in portable, battery-operating electronics because its frequency control enables precise circuit operation. It has become the industry standard in many portable devices, such as digital watches, glucose meters, and handheld radios, as well as large electrical systems, including electric vehicle motors, medical imaging systems, and computer servers.

The oscillator’s stability and accuracy are also advantageous when it comes to time-of-flight measurements. This type of crystal oscillator can also be used to reduce cost and power consumption in integrated circuits. It is also frequently used in embedded systems, especially those that require long-term battery power.

Working Principle

Q 16, 0-JXS32-10-10/15-T1-FU-WA-LF works by frequency-controlled crystal oscillation. The circuit is composed of two main parts, an oscillator and a frequency-determining element. The oscillator generates the signal which is then filtered and amplified. The frequency-determining element sets the signal within a certain range to ensure accuracy. The quartz crystals used in this crystal oscillator are cut in a specialized shape that maintains the signal\'s shape and amplitude in the presence of temperature change, shock, and vibration.

In essence, when an electric current is applied to Q 16, 0-JXS32-10-10/15-T1-FU-WA-LF, it creates an electric field across the quartz crystal, which causes the crystal to vibrate at its natural frequency. The frequency of this vibration is determined by the size and shape of the crystal, and by the way the current is regulated. The frequency of the oscillated signal is then maintained by this regulation current, resulting in highly accurate and stable frequency.

The frequency-controlled crystal oscillator is a reliable and accurate component, which is why it has become an industry standard for many electronic devices. Its excellent electrical, mechanical, optical, thermal and chemical properties make it ideal for various applications, from time-of-flight measurements to cost and power reduction in integrated circuits.