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Written by 6:38 am News, Science News - November 2024

Artificial Plants that Generate Electricity

Aim to create a system that captures CO2 while producing O2 and electricity.
Artificial plants that generate electricity

Estimated reading time: 3 minutes

In an exciting breakthrough, researchers at Binghamton University have developed a new type of artificial plant that not only purifies indoor air but also generates electricity. This innovative creation could transform how we think about indoor environments and energy consumption.

The Need for Cleaner Indoor Air

Most people spend about 90% of their time indoors, where air quality can significantly affect health and well-being. Traditional air purification systems often come with high costs and require frequent maintenance. This new artificial plant that generate electricity, offers a more efficient solution by utilizing natural processes to enhance indoor air quality.

Professor Seokheun Sean Choi and PhD student Maryam Rezaie led the research, which builds upon their previous work on bacteria-powered biobatteries, which fueled making of artificial plants that generate electricity. They aimed to create a system that could effectively capture carbon dioxide (CO2) while producing oxygen (O2) and generating a small amount of power.

Artificial Plant that Generate Electricity: How it Works

The artificial plant that generate electricity, uses five biological solar cells along with photosynthetic bacteria to mimic natural photosynthesis. It absorbs CO2 from the air, converting it into O2 while generating electricity.

  • Carbon Dioxide Reduction: The device achieves an impressive 90% reduction in CO2 levels, far exceeding the typical 10% reduction seen with natural plants.
  • Electricity Generation: Currently, each artificial leaf produces around 140 microwatts of power. Although this is a secondary benefit, Choi aims to enhance the technology to produce over 1 milliwatt in the future.

A Sustainable Solution for Households

Choi emphasizes the importance of indoor air quality, especially in light of recent global health events like COVID-19.

“Many sources can generate very toxic materials, like building materials and carpets,” he said. “With some fine-tuning, these artificial plants could be a part of every household. The benefits of this idea are easy to see.”

The artificial plants that generate electricity not only improve air quality but also provide a renewable energy source that can power small devices such as smartphones. This dual functionality makes them an attractive option for modern households looking to reduce their carbon footprint.

Future Developments

The research team plans to integrate energy storage systems, such as lithium-ion batteries or supercapacitors, into the design. This will allow users to store the generated electricity for later use. Additionally, they aim to explore using multiple species of bacteria to enhance the longevity and efficiency of the artificial plants.

  • Water and Nutrient Delivery Systems: Researchers are also investigating ways to minimize maintenance needs by developing systems that automatically supply water and nutrients.

Conclusion

The development of these artificial plants that generate electricity marks a significant step toward creating sustainable indoor environments. By combining air purification with energy generation, Binghamton University’s innovation offers a glimpse into a greener future. As urban areas continue to grow, solutions like these could play a crucial role in improving air quality and reducing energy consumption.

In summary, this groundbreaking research not only addresses pressing environmental challenges but also opens new avenues for sustainable living. For more information on this innovative project, visit Binghamton University’s official news page. 

For more intriguing insights into other STEM-related topics, visit ENTECH Online. Explore our digital magazine dedicated to inspiring teenagers and young adults to pursue their passions in science, technology, engineering, and mathematics.

Image credit: binghamton.edu

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