Active Plants, Animals & Ecology Chemistry

Environmental Biotechnology Innovation Centre

In plain English

AI plain-English summary

Scientists are genetically reprogramming bacteria, fungi, and other organisms to digest plastic waste, absorb heavy metals, and break down oil spills. This matters because current methods for cleaning up pollution—incineration, chemical treatment, landfill—are often energy-intensive, expensive, or simply move the problem elsewhere. The researchers aim to create living systems that can do the job more efficiently and sustainably. They are using synthetic biology to design new metabolic pathways inside microbes, turning them into "factories" that convert harmful chemicals into harmless byproducts or even valuable resources. They are also building biosensors that detect pollutants in real time, allowing for faster responses to contamination events. If successful, this work could transform waste management and water treatment. Instead of shipping plastic to landfill, treatment plants might one day feed it to engineered microbes that break it down on site. Contaminated industrial sites could be cleaned by bacteria that selectively remove toxic metals. The project is applied from the start, working with 13 industry partners in water, waste, and environmental biotechnology to move lab discoveries into practical use.

View original technical description
We are embarking on an exciting research initiative aimed at addressing urgent environmental challenges. Our focus is on using cutting-edge techniques from synthetic biology, biotechnology, computation modelling and engineering science to develop innovative solutions in bioengineering and bioremediation. Through genetic engineering, we can modify the genetic material of organisms, making them more effective at removing specific pollutants from the environment. This includes targeting substances like plastic waste, hydrocarbons, and metals. By enhancing the natural abilities of these organisms, we can find more sustainable and cost-effective ways to clean up our planet. Another aspect of our research involves metabolic engineering, where we modify the chemical pathways inside organisms. By introducing new enzymes or optimizing existing ones, we can create "microbial factories" that efficiently break down harmful chemicals. This helps in the safe disposal of pollutants and contributes to a cleaner environment. We are also exploring the development of biosensors and biodevices that can detect and respond to environmental pollutants in real-time. These devices act as environmental monitors, allowing us to identify and address issues promptly. This rapid response helps in protecting ecosystems and human health. Additionally, we are using advanced genome editing technologies to precisely modify the DNA of organisms. This allows us to create entirely new organisms or enhance the functions of existing ones. By doing so, we can design organisms that are better suited for environmental tasks like converting waste into valuable resources. We will collaborate with experts from many fields, including our 13 project partners spanning the water and waste management as well as the environmental biotechnology sectors, to drive innovation and develop practical applications that address environmental challenges. By combining our knowledge and resources, we hope to make a significant impact in pollution reduction, waste management and resource recovery. Through transparent communication and responsible research practices, we aim to gain public trust and support for our work. We understand the importance of ethical considerations and regulatory compliance in deploying these technologies safely. We are also dedicated to conducting research that benefits all members of society, taking into consideration the social, economic and environmental impacts of our work. By embracing equity, diversity and integrity as integral components of our research approach, we strive to create positive and inclusive change in our scientific community and society as a whole. Together, we can work towards a more sustainable and equitable future for everyone. Ultimately, by harnessing the power of science and technology, we can find innovative ways to protect our environment and ensure a better and more sustainable world for future generations.

View the original record at the funder ↗

Researchers

Alexander Yakunin (Co-Investigator)Boyd McKew (Co-Investigator)Bruce Jefferson (Co-Investigator)Cindy Smith (Co-Investigator)Davey Jones (Co-Investigator)David John Lea-Smith (Co-Investigator)Francis Hassard (Co-Investigator)Frederic Coulon (Principal Investigator)Gabriela Carla Dotro (Co-Investigator)Kristell Le Corre Pidou (Co-Investigator)Louise Horsfall (Co-Investigator)Natalio Krasnogor (Co-Investigator)Peter Golyshin (Co-Investigator)Ronan McCarthy (Co-Investigator)Sonia Heaven (Co-Investigator)Tao Lyu (Co-Investigator)Tom Curtis (Co-Investigator)Tony Gutierrez (Co-Investigator)Vinod Kumar (Co-Investigator)Yongqiang Liu (Co-Investigator)Yue Zhang (Co-Investigator)Zhugen Yang (Co-Investigator)

Related Research

Grants with similar aims, by meaning.

Cyanobacteria engineering for restoring environments (CYBER)
Robotic technologies for Automated Adaptive Laboratory Evolution
EEBio: Efficient Engineering and Control of Predictable and Reliable Biosystems
Engineering Robust Synthetic Microbial Communities for Sustainable Biotechnology Applications
Recycling nutrient resources in waste for food security and environmental sustainability

Original classification

Research Grant

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.