Analysis of the self-oscillating series resonant inverter for electronic ballasts

In this paper, we examine the self-oscillating series resonant inverter for electronic ballast applications from a system point of view. By considering the discharge lamp as a linear resistor in steady state, we derive a time-domain closed-form expression of the circuit state variables. Importantly,...

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Veröffentlicht in:IEEE transactions on power electronics 1999-05, Vol.14 (3), p.533-540
Hauptverfasser: Chin Chang, Chang, J., Bruning, G.W.
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description In this paper, we examine the self-oscillating series resonant inverter for electronic ballast applications from a system point of view. By considering the discharge lamp as a linear resistor in steady state, we derive a time-domain closed-form expression of the circuit state variables. Importantly, we observe that the self-oscillating series resonant inverter with lamp loads can be naturally modeled as a relay system. Based on this formulation, the self-oscillating frequencies of the inverter for variable lamp impedance conditions are found via the Tsypkin's locus. The stability of the self-oscillating frequencies is determined in a sampled-data system framework.
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subjects Applied sciences
Ballast
Circuits
Closed-form solution
Electrical engineering. Electrical power engineering
Electronic ballasts
Electronics
Exact sciences and technology
Frequency
Inverters
Lamps
Mathematical models
Power electronics, power supplies
Relay systems
Relays
Resistors
Resonant inverters
Steady state
Time domain analysis
title Analysis of the self-oscillating series resonant inverter for electronic ballasts
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