Recent Studies on Methanol Crossover in Liquid-Feed Direct Methanol Fuel Cells
T. I. Valdez
Abstract
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T. I. Valdez
Abstract
Open-access reader
In this work, the effects of methanol crossover and airflow rates on the cathode potential of an operating direct methanol fuel cell are explored. Techniques for quantifying methanol crossover in a fuel cell and for separating the electrical performance of each electrode in a fuel cell are discussed. The Effect of methanol concentration on cathode potential has been determined to be significant. The cathode is found to be mass transfer limited when operating on low airflow rate and high concentrations of methanol. Improvements in cathode structure and low methanol concentrations have been shown to result in improved cell performance.
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In this work, the effects of methanol crossover and airflow rates on the cathode potential of an operating direct methanol fuel cell are explored. Techniques for quantifying methanol crossover in a fuel cell and for separating the electrical performance of each electrode in a fuel cell are discussed. The Effect of methanol concentration on cathode potential has been determined to be significant. The cathode is found to be mass transfer limited when operating on low airflow rate and high concentrations of methanol. Improvements in cathode structure and low methanol concentrations have been shown to result in improved cell performance.
Key concepts: Methanol, Cathode, Direct methanol fuel cell, Methanol reformer, Methanol fuel, Mass transfer, Materials science, Electrode