Methanol fuel cell

The so-called Direct Methanol Fuel Cell is a type of Proton Exchange Membrane Fuel Cell (PEMFC). It uses aqueous solutions and gaseous methanol as fuel sources directly, without the need to reprocess methanol, gasoline, natural gas, etc. through a reformer in order to extract hydrogen for power generation. Compared to proton exchange membrane fuel cells (PEMFCs), direct methanol fuel cells (DMFCs) have advantages such as the ability to generate electricity at low temperatures, lower risk associated with the fuel components, and a simpler cell structure, which make them a viable option for use in portable electronic devices. 　　Direct methanol fuel cells are a variant of proton exchange membrane fuel cells; they use methanol directly without the need for prior reformation. Methanol is converted into carbon dioxide, protons, and electrons at the anode. As in a standard proton exchange membrane fuel cell, protons pass through the proton exchange membrane to react with oxygen at the cathode, while electrons travel through the external circuit to the cathode where they do work. Under alkaline conditions, the overall reaction is: 2CH4O + 3O2 = 2CO2 + 4H2O. At the anode: 3O2 + 12e– + 6H2O = 12OH–. At the cathode: 2CH4O – 12e– + 12OH– = 2CO2 + 10H2O. Under acidic conditions, the overall reaction remains the same. At the anode: 3O2 + 12e– + 12H+ = 6H2O. At the cathode: 2CH4O – 12e– + 2H2O = 12H+ + 2CO2. The desired operating temperature for this type of battery is below 120°C, which is slightly higher than that of standard proton exchange membrane fuel cells; its efficiency is around 40%. Direct methanol fuel cells are a variant of proton exchange membrane fuel cells; they use methanol directly without the need for prior reformation. Methanol is converted into carbon dioxide and hydrogen at the anode, just as in a standard proton exchange membrane fuel cell, after which hydrogen reacts with oxygen. The desired operating temperature for this type of battery is 120°C, which is slightly higher than that of standard proton exchange membrane fuel cells; its efficiency is around 40%. Its drawback is that converting methanol into hydrogen and carbon dioxide at low temperatures requires more platinum catalyst than conventional proton exchange membrane fuel cells. However, this increased cost is offset by the convenience of using liquid fuel and the ability to operate without the need for reforming. The technology used in direct methanol fuel cells is still in its early stages of development, but it has successfully demonstrated that it can be used as a power source for mobile phones and laptops, and it holds potential for use by specific end-users in the future.

What is the status of industrialization of methanol fuel cells in China?

I request the original poster and industry experts to provide more information on methanol fuel cells for everyone to learn from*

Both Tsinghua University and Tianjin University are conducting research! It seems that industrialization in the domestic market has made no progress at all!

Among fuel cells, proton exchange membrane fuel cells are the ones that have seen the most activity in terms of industrialization. Methanol fuel cells exist in various laboratories, but no industrialization has been achieved yet. Proton exchange membrane fuel cells are being developed by institutions such as the Dalian Institute of Chemical Physics, SAIC Group, Shanghai Shenli Technology Co., Ltd., and Xinyuan Power Co., Ltd