A Structural Review of Thermoelectricity for Fuel Cell CCHP Applications

<table class="figure-group"><tr class="fig-image" id="a"><td><object data="https://static.hindawi.com/articles/jen/volume-2020/2760140/figures/2760140.fig.0018a.svgz" name="2760140.fig.0018a" type="image/svg+xml"></object></td></tr><tr class="fig-caption"><td><b>(a) </b>TEG simulink model with a boost converter controlled by P&amp;O MPPT</td></tr><tr class="fig-image" id="b"><td><object data="https://static.hindawi.com/articles/jen/volume-2020/2760140/figures/2760140.fig.0018b.svgz" name="2760140.fig.0018b" type="image/svg+xml"></object></td></tr><tr class="fig-caption"><td><b>(b) </b>TEG experimental setup</td></tr><tr class="fig-image" id="c"><td><object data="https://static.hindawi.com/articles/jen/volume-2020/2760140/figures/2760140.fig.0018c.svgz" name="2760140.fig.0018c" type="image/svg+xml"></object></td></tr><tr class="fig-caption"><td><b>(c) </b>TEG generated power as a function of the load variations (i) without P&amp;O MPPT and (ii) with P&amp;O MPPT</td></tr></table>

<div>Simulated and experimental TEG, boost converter, and P&amp;O MPPT schemes (adapted from [<a href="/journals/jen/2020/2760140/#B50">50</a>]).</div>

Journal of Energy

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Figure 18

Figure 18: A Structural Review of Thermoelectricity for Fuel Cell CCHP Applications 