416F260X2CDR

Crystals: 416F260X2CDR Application Field and Working Principle

Crystals are an essential part of everyday life. In simple terms, a crystal is an organized arrangement of atoms, ions, or molecules in regular patterns. These various arrays give each crystal its unique shape, size, and identity. When electrically or mechanically disturbed, these same atoms and molecules oscillate at a steady, predictable frequency. A 416F260X2CDR crystal is a tiny quartz crystal housed in a sealed oscillator package that comes as a standard footprint in the frequency control industry. Because of its high stability, versatility and temperature uniformity, it has recently been used in a variety of applications requiring precise frequency control, including in clocks, computers, satellite communication equipment, and test and measurement devices.

The 416F260X2CDR ensures accuracy and stability of a frequency signal generated from an oscillator circuit. It consists of a quartz crystal and an IC (integrated circuit) connected by a series of electrical connections on the package used to form a crystal oscillator. The quartz crystal acts as a tank circuit, which is sensitive to voltage and capacitance changes. It consists of a parallel combination of an inductor, a capacitor and an input or forcing voltage. The resonance frequency of the crystal determines the frequency of the output.

The 416F260X2CDR crystal is constructed by clamping a quartz crystal resonator between two silver electrodes on either side. These electrodes are clamped to a housing which contains a substrate and has a series of integrated circuit connections on it. The quartz crystal is the heart of the crystal oscillator and is the most important part of the overall circuitry. Its frequency is determined by the mechanical characteristics of the crystal, and its stability is determined by its shape and size. The built-in quartz crystal provides a stable frequency output, eliminating the need for additional circuitry and expensive thermostats.

When electrical voltage is applied to the electrode terminals, the quartz crystal resonator begins to oscillate in response. As the energy is converted between energy stored in the crystal and energy dissipated in the oscillator circuit, the frequency is kept within a certain range. The oscillator circuit is composed of resistors, capacitors and an amplifier. These components ensure precise control of the oscillator\'s output frequency. The AC voltage output of the oscillator is in turn kept at a specific frequency, which is determined by the crystal itself.

Besides its frequency stability, another important feature of the 416F260X2CDR crystal is its frequency temperature coefficient. The crystal oscillator must remain stable despite variations in its operating environment, particularly changes in temperature. While the crystal itself is essentially temperature-stable, its frequency changes with temperature. To overcome this limitation, the oscillator employs an amplifier with temperature compensation circuitry wherein, as temperatures vary, the AC voltages change to keep the frequency constant, despite temperature changes.

The 416F260X2CDR crystal is widely used for a variety of applications due to its low price and high stability. This crystal is most commonly used in clocks and watches, telecommunications, computer motherboards, aerospace and control instruments. It is also used in medical applications such as electrocardiograms and pacemakers, as well as in radar systems and military communications.

The 416F260X2CDR crystal oscillator is a critical component in many electronic applications. It provides high frequency stability, uniform temperature behavior, and low cost. Its ease of use and ability to be used in extreme applications have made it the preferred oscillator for many applications. Although its use is most common in clocks and watches, this crystal oscillator can also be used in radar, satellite communication, medical applications, and industrial controls, among many others.