Electric Power Converter Voltage Stabilization via Adaptive Reference Correction

The patent applies dynamics by making the reference voltage correction adaptive rather than static. The correction amount is dynamically adjusted based on the detected power source voltage, ensuring the corrected reference voltage remains within achievable limits while maintaining output stability. This resolves the contradiction by preventing saturation through dynamic adaptation to varying power source conditions.

The patent implements feedback by detecting the actual power source voltage and using this information to correct the reference voltage. The system continuously monitors the power source voltage and adjusts the reference voltage accordingly, creating a closed-loop control that prevents saturation while maintaining reliable output voltage despite power source fluctuations.

The patent applies beforehand cushioning by implementing rate-of-change limiting on the reference voltage correction. When the power source voltage rises, the reference voltage is decreased, but the rate of this decrease is limited to prevent sudden output voltage drops. This cushioning effect prevents excess current flow by anticipating and mitigating the harmful impact of rapid voltage changes before they occur.

The patent uses dynamics by implementing time-constant-based smoothing of the reference voltage correction. The correction is applied gradually rather than instantaneously, creating a dynamic response that filters out abrupt changes. This dynamic approach maintains reliable voltage control while preventing the precipitous variations that cause excess current.

The patent applies feedback by detecting the actual output voltage and comparing it with the desired reference voltage. This closed-loop control ensures the output voltage remains constant despite power source variations, while the feedback mechanism also helps maintain sinusoidal waveform quality, preventing torque pulsation by ensuring accurate voltage regulation.

The patent uses dynamics by implementing smooth, rate-limited adjustments to the reference voltage. This dynamic correction approach prevents abrupt changes that would cause the output voltage to approach square wave conditions, thereby maintaining motor torque stability while still achieving output voltage constancy through adaptive correction.