Current-feedback magnetic multivibrator with feedback-controlled frequency compensation circuit using phase-locked loop
Akihiko Katsuki, Masahiro Matsushima
Abstract
Akihiko Katsuki, Masahiro Matsushima
Abstract
Though current-feedback magnetic multivibrators are highly efficient and reliable, the oscillation frequency normally varies according to the load. This paper proposes a new, negative-feedback-controlled, current-feedback magnetic multivibrator. The resulting circuit has almost constant oscillation frequency, provided by a control circuit including a frequency-voltage (F-V) converter. New magnetic multivibrator using the frequency compensation circuit thoroughly cancels the dependence of junction voltages on the load. Variation in saturated flux of the saturable core also has no effect on the oscillation frequency. Oscillation frequency was best compensated at a fixed value when a phase-locked loop (PLL) was employed as F-V converter.
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Though current-feedback magnetic multivibrators are highly efficient and reliable, the oscillation frequency normally varies according to the load. This paper proposes a new, negative-feedback-controlled, current-feedback magnetic multivibrator. The resulting circuit has almost constant oscillation frequency, provided by a control circuit including a frequency-voltage (F-V) converter. New magnetic multivibrator using the frequency compensation circuit thoroughly cancels the dependence of junction voltages on the load. Variation in saturated flux of the saturable core also has no effect on the oscillation frequency. Oscillation frequency was best compensated at a fixed value when a phase-locked loop (PLL) was employed as F-V converter.
Key concepts: Multivibrator, Control theory (sociology), Oscillation (cell signaling), Compensation (psychology), Frequency compensation, Feedback loop, Phase-locked loop, Voltage