7 hours ago
Not trying to answer for the OP, just commenting on the thread.
According to AI... ...assuming the electrolytic that's in it now is polarized...
--------------------------------------
Using a polarized electrolytic capacitor instead of a non-polarized one for audio coupling can lead to several issues:
- Distortion & Nonlinear Behavior – Electrolytic capacitors are designed for DC circuits, meaning they expect a constant polarity. In an AC audio signal, the voltage can reverse, causing the capacitor to behave unpredictably, introducing distortion.
- Leakage Current & Reduced Performance – Polarized electrolytic capacitors tend to have higher leakage currents, which can degrade the signal quality and reduce fidelity.
- Potential Damage – If the capacitor is reverse-biased, it may break down over time or even fail catastrophically.
- Workarounds – Some designs use two polarized electrolytic capacitors in series (with opposite polarity) to mimic a non-polarized capacitor, but this is not always ideal.
For audio applications, it's generally best to use non-polarized capacitors, such as film capacitors, which offer better frequency response and lower distortion. If space constraints require electrolytics, consider non-polarized electrolytic capacitors, which are specifically designed for AC signals.
According to AI... ...assuming the electrolytic that's in it now is polarized...
--------------------------------------
Using a polarized electrolytic capacitor instead of a non-polarized one for audio coupling can lead to several issues:
- Distortion & Nonlinear Behavior – Electrolytic capacitors are designed for DC circuits, meaning they expect a constant polarity. In an AC audio signal, the voltage can reverse, causing the capacitor to behave unpredictably, introducing distortion.
- Leakage Current & Reduced Performance – Polarized electrolytic capacitors tend to have higher leakage currents, which can degrade the signal quality and reduce fidelity.
- Potential Damage – If the capacitor is reverse-biased, it may break down over time or even fail catastrophically.
- Workarounds – Some designs use two polarized electrolytic capacitors in series (with opposite polarity) to mimic a non-polarized capacitor, but this is not always ideal.
For audio applications, it's generally best to use non-polarized capacitors, such as film capacitors, which offer better frequency response and lower distortion. If space constraints require electrolytics, consider non-polarized electrolytic capacitors, which are specifically designed for AC signals.