Power, Electronic Systems, Applications and Resources on Electrical and Electronic Project-Thesis: Multiple-Pulse PWM

$d = \frac{\delta }{\omega } = {t_{m + 1}} - {t_m}$

$= M{T_S} = M\frac{T}{{2p}}$

${V_{o(rms)}} = \sqrt {\frac{{2p}}{{2\pi }}\int_{(\pi /p - \delta )/2}^{(\pi /p + \delta )/2} {V_S^2d\theta } }$

$= {V_S}\sqrt {\frac{{p\delta }}{\pi }}$

${v_o}(t) = \sum\limits_{n = 1,3,5,...}^\infty {{B_n}\sin n\omega t}$

power electronic converter-Multiple-Pulse PWM

Harmonic Profile for p =5

${v_o}(t) = \sum\limits_{n = 1,3,5,...}^\infty {{B_n}\sin n\omega t}$

${B_n} = \sum\limits_{m = 1}^{2p} {\frac{{4{V_S}}}{{n\pi }}\sin \frac{{n\delta }}{4}}$ $\left[ {\sin n\left( {{\alpha _m} + \frac{{3\delta }}{4}} \right) - \sin n\left( {\pi + {\alpha _m} + \frac{\delta }{4}} \right)} \right]$
previous PWM Inverters
next Voltage Source SPWM Inverter

Power, Electronic Systems, Applications and Resources on Electrical and Electronic Project-Thesis

Multiple-Pulse PWM

No comments:

Post a Comment