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Fig 1.

Proposed FB cascaded CW multiplier based dc-dc converter.

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Fig 1 Expand

Fig 2.

Ideal waveforms of the developed dc-dc converter during one switching period in CCM mode.

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Fig 2 Expand

Fig 3.

Operating stages of the proposed converter.

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Fig 3 Expand

Fig 4.

Graphical representation of gain changes due to the change in the duty cycle for the suggested converter forn = 1to 5 and the conventional boost dc-dc converter.

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Fig 4 Expand

Table 1.

Comparison of different parameters of the developed dc-dc cascaded converter with others.

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Table 1 Expand

Fig 5.

Input current ripple as a function of input boost inductance.

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Fig 5 Expand

Fig 6.

Voltage stresses on different devices for the proposed converter and others at duty cycle d = 0.5 and output voltage at Vo = 380V.

Thus, the required input voltage decreases as the number of stage increase. (a) Capacitor voltage stress. (b) Switch voltage stress.

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Fig 6 Expand

Fig 7.

Output voltage ripple changes with the change in output capacitance.

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Fig 7 Expand

Fig 8.

Voltage gain at different component numbersfor duty ratio,d = 0.5, Vo = 380V for the developed converter and other topologies.

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Fig 8 Expand

Table 2.

Comparison between the developed converter and some other converters applicable in PV application.

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Table 2 Expand

Table 3.

Specifications of the proposed converter prototype.

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Table 3 Expand

Table 4.

Components description of proposed converter prototype.

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Table 4 Expand

Fig 9.

Simulation results of the developed FB cascaded CW converter.

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Fig 9 Expand

Fig 10.

Experimental wave shapes of the developed converter.

(a) Gate signals: Sa1(Vgs), Sa2(Vgs), Sm1(Vgs) and Sm2(Vgs). (b) CW multiplier terminal (or FB) voltage and current, vb and ib respectively, and parallel inductor current, iLp.

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Fig 10 Expand

Fig 11.

Experimental results.

The output voltage, Vo, boost inductor current, iLs and output current, Io.

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Fig 11 Expand

Fig 12.

Calculated, simulation and experimental voltage gain, Mv versus duty ratio, d for the developed converter for n = 1 to 3 at 50% load.

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Fig 12 Expand

Fig 13.

Measured efficiency for different input voltages.

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Fig 13 Expand

Fig 14.

Loss breakdown (calculated value) of the key components of the developed converter.

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Fig 14 Expand

Fig 15.

Maximum power of the two monocrystalline type PV panels and irradianceon a sunny day.

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Fig 15 Expand

Fig 16.

Maximum power of the two monocrystalline type PV panels and irradiance in a cloudy (slight rain) day.

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Fig 16 Expand