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Princeton Scientists Revolutionize Nitrogen Fertilizer Production With Sunlight

Princeton's breakthrough uses sunlight to split nitrogen molecules at room temperature. This could slash energy use in fertilizer production by up to 50%.

There are plants on the ground. In the background, there is a sun in the blue sky.
There are plants on the ground. In the background, there is a sun in the blue sky.

Princeton Scientists Revolutionize Nitrogen Fertilizer Production With Sunlight

Scientists at Princeton University have made a significant breakthrough in nitrogen fertilizer production. They've developed a method that harnesses sunlight to drastically reduce energy consumption, potentially transforming the industry.

The innovative process replaces heat with sunlight to break the strong bonds in nitrogen molecules. This is a major shift from the current Haber-Bosch method, which demands high temperatures and pressure.

The Princeton team, whose names remain uncredited in available sources, achieved this by structuring gold into nanostructures and adding molybdenum. The plasmonic metal acts like a lightning rod, focusing a large amount of energy onto a small surface. This enhances molybdenum's ability to split nitrogen molecules.

When sunlight strikes these particles, surface plasmon resonance occurs. This excites electrons to oscillate, creating an electric field that splits the nitrogen molecules. The process works at room temperature and low pressure, making it more efficient and less energy-intensive than existing methods.

Remarkably, this new method could significantly reduce the energy consumption of nitrogen fertilizer production. Currently, this process accounts for two percent of the world's total energy supply.

Princeton University researchers have pioneered a groundbreaking method for nitrogen fertilizer production. By using sunlight instead of heat, they've drastically reduced energy consumption. This innovation could have substantial global implications, given the significant energy demands of the current production process.

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