Figure 4-7 illustrates the pitch analysis based on the relationship derived from the design calculation of the control circuit. In this setup, Ai serves as a buffer for the large stage, thereby alleviating the load on the preamplifier output. The circuit features a low corner frequency of 30 Hz and a high corner frequency of 1 kHz, with a control range of 20 dB. This design not only incorporates an operational amplifier equipped with high bass control tone circuit functions but also includes a high school bass control tone system function. The actual circuit is depicted in Figure 4-9.
The circuit described operates within a defined frequency range, facilitating effective audio processing. The low corner frequency of 30 Hz indicates that the circuit can handle deep bass signals, making it suitable for applications requiring low-frequency response, such as subwoofers or audio systems designed for bass-heavy music genres. The high corner frequency of 1 kHz establishes an upper limit for the circuit's operation, ensuring that it effectively filters out unwanted high-frequency noise while maintaining the integrity of the audio signal within the desired range.
The control range of 20 dB provides significant flexibility in adjusting the bass response, allowing for customization based on user preferences or specific audio environments. The operational amplifier utilized in this circuit is crucial for achieving the desired amplification and tone control, ensuring that the audio signals are processed with minimal distortion and optimal fidelity.
The buffer stage, represented by Ai, plays a vital role in this design by isolating the preamplifier output from the subsequent stages of the circuit. This isolation is essential for preventing loading effects that could degrade the signal quality. By reducing the burden on the preamplifier, the buffer allows for improved overall performance and stability of the audio system.
In summary, the circuit design integrates advanced audio processing capabilities with a focus on low-frequency performance and user control, making it an effective solution for enhancing audio quality in various applications. The schematic in Figure 4-9 provides a visual representation of the circuit, detailing the connections and components involved in achieving the specified functionality.Figure 4-7 pitch analysis using the relation obtained above design calculation control circuit, where Ai is a buffer to put the big stage, to reduce the burden preamp output. L ow-corner frequency of the circuit is 30Hz, high frequency corner frequency of 1kHz, the control range of 20dBo not only to design an operational amplifier having a high bass control tone circuit functions, but also to design a high school bass control tone system function the control circuit, the actual circuit shown in Figure 4-9.
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