Researchers at the University of Maryland have achieved a groundbreaking advancement in sustainable construction by genetically modifying poplar trees to produce high-performance structural wood without the need for chemicals or energy-intensive processing. Traditionally, engineered wood—often seen as a renewable alternative to materials like steel, cement, glass, and plastic—requires significant processing with volatile chemicals and large amounts of energy, leading to considerable waste. This new development promises a more sustainable approach to producing engineered wood, with far-reaching implications for carbon sequestration and climate change mitigation.
The key innovation lies in editing a single gene in live poplar trees, enabling them to grow wood that is ready for engineering without the need for traditional processing. “We are very excited to demonstrate an innovative approach that combines genetic engineering and wood engineering, to sustainably sequester and store carbon in a resilient super wood form,” said Yiping Qi, a professor in the Department of Plant Science and Landscape Architecture at UMD and a corresponding author of the study. He emphasized the importance of carbon sequestration in the fight against climate change, highlighting the potential uses of this engineered wood in the future bioeconomy.
Continue reading… “Genetically Modified Poplar Trees: A Sustainable Revolution in High-Performance Engineered Wood”
