Candescence
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The title is a bit awkward, but hopefully it gets the idea across.
Read more at the source.
Even if it can't remove existing C02 from the atmosphere, something like this that's larger-scale and more efficient could go a long way towards mitigating the damage fossil fuels have on the planet's climate while simultaneously providing another clean source of energy. But if we can use it to reverse climate change on a global scale by reducing atmospheric C02 somehow, that's terrific in itself.
Of course, this technology could take a good while to properly become viable outside of lab tests, but it's a promising development nonetheless.
A chemistry professor in Florida has just found a way to trigger the process of photosynthesis in a synthetic material, turning greenhouse gases into clean air and producing energy all at the same time.
The process has great potential for creating a technology that could significantly reduce greenhouse gases linked to climate change, while also creating a clean way to produce energy.
"This work is a breakthrough," said UCF Assistant Professor Fernando Uribe-Romo. "Tailoring materials that will absorb a specific color of light is very difficult from the scientific point of view, but from the societal point of view we are contributing to the development of a technology that can help reduce greenhouse gases."
The findings of his research are published in the Journal of Materials Chemistry A.
Uribe-Romo and his team of students created a way to trigger a chemical reaction in a synthetic material called metal-organic frameworks (MOF) that breaks down carbon dioxide into harmless organic materials. Think of it as an artificial photosynthesis process similar to the way plants convert carbon dioxide (CO2) and sunlight into food. But instead of producing food, Uribe-Romo's method produces solar fuel.
It's something scientists around the world have been pursuing for years, but the challenge is finding a way for visible light to trigger the chemical transformation. Ultraviolet rays have enough energy to allow the reaction in common materials such as titanium dioxide, but UVs make up only about 4 percent of the light Earth receives from the sun. The visible rangethe violet to red wavelengthsrepresent the majority of the sun's rays, but there are few materials that pick up these light colors to create the chemical reaction that transforms CO2 into fuel.
Read more at the source.
Even if it can't remove existing C02 from the atmosphere, something like this that's larger-scale and more efficient could go a long way towards mitigating the damage fossil fuels have on the planet's climate while simultaneously providing another clean source of energy. But if we can use it to reverse climate change on a global scale by reducing atmospheric C02 somehow, that's terrific in itself.
Of course, this technology could take a good while to properly become viable outside of lab tests, but it's a promising development nonetheless.