AEMION+™ - AF3-CLF9-25

Additional Information

Closing the Carbon Loop through CO₂ Electrolysis

CO₂ emissions continue to increase as several industries continue to depend on fossil fuels. The atmospheric  CO₂ concentration has almost doubled after the Industrial Revolution (Current: >400 ppm, before the Industrial Revolution: 280 ppm). This increase translated to a global temperature rise of approximately 2 °C. To reduce the adverse effects of global warming to human life and property, the Intergovernmental Panel on Climate Change (IPCC) limits greenhouse gas emissions in such a way that the global temperature rise will decrease to 1.5 °C. 

One promising way to decarbonize industries is to couple the heavy industrial processes with renewable energy. This route necessitates the use of efficient carbon capture and utilization strategies to sequester  CO₂ from the atmosphere or any other gaseous streams and then convert it to high-value chemicals and fuels. Among the different  CO₂ conversion technologies,  CO₂ electrolysis proves to be low cost, scalable, and sustainable. In contrast to the conventional thermochemical conversion method that requires huge energy input, the electrochemical conversion of  CO₂ using a  CO₂ electrolyzer can be operated under mild conditions and can be powered using renewable energy sources, such as solar, wind, tide, and geothermal energy. As such, electrochemical techniques can be carbon negative, thereby closing the carbon loop and possibly reducing  CO₂ atmospheric emission.

Non-woven PTFE (polytetrafluoroethylene) anion exchange membranes are a type of specialized material that is used in a range of applications, including water treatment and purification, as well as in the production of clean energy.

These membranes are made from a non-woven fabric of PTFE fibers, which are treated with a coating of anion exchange material. Anion exchange is a process in which negatively charged ions are exchanged for other negatively charged ions in a solution, allowing for the removal of impurities and contaminants.

The non-woven PTFE anion exchange membranes offer several advantages over traditional ion exchange resins, including high chemical resistance, high mechanical strength, and excellent thermal stability. They also have a high surface area-to-volume ratio, which allows for a high capacity for ion exchange.

These membranes are used in a range of applications, including water treatment and purification, where they can be used to remove contaminants such as heavy metals, nitrates, and other organic and inorganic impurities. They are also used in the production of clean energy, where they can be used in electrochemical systems such as fuel cells.

Overall, non-woven PTFE anion exchange membranes are a highly specialized material that offers excellent performance in a range of applications. Their high chemical resistance, mechanical strength, and thermal stability make them an ideal option for use in demanding environments where reliability and performance are critical.

What are the differences with woven PTFE membranes?

Anion Exchange Membranes (AEMs) with woven PTFE reinforcement are a type of ion exchange membrane that are used in various applications such as water treatment, fuel cells, and electrochemical processes. They allow the transport of negatively charged ions, such as chloride or hydroxide ions, across the membrane while blocking the passage of other ions. The AEMs are reinforced with a layer of PTFE (polytetrafluoroethylene) which is a hydrophobic material known for its chemical resistance, high temperature tolerance and mechanical strength.

The woven PTFE reinforcement provides several benefits to the AEMs such as:

• Increased mechanical strength: The PTFE reinforcement increases the AEM's tensile strength and durability, making it more resistant to mechanical damage.
• Improved chemical stability: The PTFE reinforcement provides a barrier against the penetration of aggressive chemicals, which can degrade the AEM.
• Enhanced thermal stability: PTFE can withstand high temperatures and has a low thermal expansion coefficient, which helps to maintain the AEM's stability in high-temperature applications.
• Increased flexibility: The woven PTFE reinforcement makes the AEM more flexible, which can be beneficial for certain applications where flexibility is important.
• High permselectivity: Woven PTFE reinforcement improves the permselectivity of AEMs, means, the ability of the membrane to selectively transport ions of a specific charge.

These AEMs are suitable for applications that require high-performance membranes that can withstand harsh conditions such as high temperatures, high pressure, and aggressive chemicals. They are typically used in electrochemical processes and water treatment applications.

Non Disclosure Agreement

This is a proprietary product from Ionomr, therefore, we require a signed NDA between the end customer and Ionomr before we are able to ship out the material, either for commercial use, or research.

This is done to prevent reverse engineering and public disclosure. The NDA does not restrict patenting anything, but does include the physical materials and their composition as confidential which prevents specific disclosure in a patent or otherwise but not calling out use of an AEM including Aemion by trade name. The test results are included as confidential information, and require  approval from both parties to disclose. We are not concerned about blocking any publications, but would typically advise if we believe better results can be achieved.

We have a more explicit MTA (Materials Transfer Agreement) we use with academic/research organizations which outlines more detail around materials IP and publication.

Please find the NDA here and fill it in when contacting us for quotations.