Exploring growth within a confined space
Embedding bacteria in soft material tests researchers’ theories.
Embedding bacteria in soft material tests researchers’ theories.
The Raman spectroscopy-based method enables early detection and quantification of pathogens in plants, to enhance plant disease management.
As climate change brings greater threats to coastal ecosystems, new research can help planners leverage the wave-damping benefits of marsh plants.
Using nanoparticles that store and gradually release light, engineers create light-emitting plants that can be charged repeatedly.
MIT professors Dave Des Marais and Caroline Uhler combine plant biology and machine learning to identify genetic roots of plant responses to environmental stress.
SMART nanosensors are safer and less tedious than existing techniques for testing plants’ response to compounds such as herbicides.
A new seed-coating process could facilitate agriculture on marginal arid lands by enabling the seeds to retain any available water.
Engineered plant nanosensors and portable Raman spectroscopy will help enable sustainable practices in traditional and urban agriculture.
MIT researchers grow structures made of wood-like plant cells in a lab, hinting at the possibility of more efficient biomaterials production.
Sensor developed by SMART researchers would allow rapid diagnosis of nutrition deficiency in plants, enabling farmers to maximize crop yield in a sustainable way.
SMART researchers use Raman spectroscopy for early detection of SAS, which can help farmers better monitor plant health and improve crop yields.
Nanoscale devices integrated into the leaves of living plants can detect the toxic heavy metal in real time.
Microneedles made of silk-based material can target plant tissues for delivery of micronutrients, hormones, or genes.
PhD candidate’s journey to the center of the plant cell wall relies on nuclear magnetic resonance technology.
Carbon nanotubes embedded in leaves detect chemical signals that are produced when a plant is damaged.