This circuit oscillates without the crystal. When the crystal is included in the circuit, the frequency will match that of the crystal. The circuit exhibits good starting characteristics even with low-quality crystals.
This circuit design features a basic oscillator configuration that can operate independently of a crystal oscillator, allowing it to generate oscillations based on its intrinsic properties. When a crystal is introduced into the circuit, it stabilizes the oscillation frequency to that of the crystal's resonant frequency, ensuring more precise control over the output frequency.
The oscillator typically comprises an active component, such as a transistor or an operational amplifier, configured in a feedback loop to sustain oscillations. The feedback network may include passive components like resistors and capacitors, which determine the oscillation frequency when no crystal is present. The inclusion of a crystal enhances the circuit's frequency stability and accuracy, making it suitable for applications requiring precise timing signals.
One notable aspect of this circuit is its ability to start oscillating reliably, even when utilizing low-quality crystals. This characteristic can be attributed to the design's robust feedback mechanism, which compensates for variations in the crystal's performance. Consequently, the circuit can maintain functionality across a range of crystal qualities, making it versatile for various electronic applications.
In summary, this oscillator circuit offers flexibility in operation, allowing it to function without a crystal while achieving enhanced frequency stability when one is used. Its effective starting characteristics ensure reliable performance, even with suboptimal crystal components.This circuit oscillates without the crystal. With the crystal in the circuit, the frequency will be that of the crystal The circuit has good starting characteristics even with the poorest crystals.
The drain of the JFET Miller oscillator is tuned to the resonant frequency of the crystal by an LC tank circuit.
The JFET (Junction Field-Effect Transistor) Miller oscillator is a type of oscillator circuit that utilizes the properties of a...
This Wien-bridge sine-wave oscillator utilizes a 2N3819 as an amplitude stabilizer. The 2N3819 functions as a variable-resistance element within the Wien bridge.
The Wien-bridge oscillator is a type of electronic oscillator that generates sine waves. It employs a bridge circuit...
A variable audio oscillator operates within a frequency range of 20 hertz to 20 kilohertz. The circuit utilizes an Intersil 8038 waveform generator, which is designed in a 14-pin dual in-line package (DIP).
The variable audio oscillator circuit is designed...
This circuit is a conventional Pierce type oscillator that utilizes a JFET. It employs fundamental mode crystals and demonstrates good performance and reliability when a low noise JFET is used. The feedback is regulated by the capacitance C1, which...
Electronics tutorial about the 555 oscillator and how the 555 oscillator can be used as a 555 astable oscillator circuit to generate square wave waveforms.
The 555 timer IC is a versatile and widely used component in electronics, particularly for...
Adjusting the 100 K ohm potentiometer modifies the discharge rate of capacitor Ct, thereby affecting the output frequency. A square wave output is produced. The maximum frequency achievable with CMOS technology is constrained to 2 MHz.
The circuit described involves...
We use cookies to enhance your experience, analyze traffic, and serve personalized ads.
By clicking "Accept", you agree to our use of cookies.
Learn more