Scientists have created a new tracking method for plant lipids. The approach could fill our knowledge gaps of lipid movement and help us improve yields in crops targeted for biofuels.
While cholera rages across many regions of the world, a team of microbiologists and plant scientists from the Benning lab has pinpointed a genetic weakness in the pandemic’s armor, which could lead to future treatments.
The two proteins, called VAP, indicate where endocytosis, a form of transport in which a living cell imports molecules, should occur.
The NPR1 gene keeps the unfolded protein response, a plant fail-safe for stressful times, in check.
Understanding how the plant cell's food processors are built might help us breed better plants and even benefit human medicine.
How plants harvest their own chloroplasts - photosynthesis machines that make their food - to help defend against outside threats.
The natural solar panels constantly grow and shrink in size to adjust to changes in their hosts' environments. Scientists want to tap into this energy source for biofuels and food purposes.
Scientists have linked how water-dwelling bacteria monitor light wavelengths in their surroundings with their capacity to do photosynthesis. The research has medical/biofuels implications.
The protein, which helps to construct peroxisomes, also interacts with chloroplasts and mitochondria. The organelles are important for generating and managing plant energy supplies.
The fundamental protein complex potentially guards plants from high light and ageing effects. This new observation could change how we view photosynthesis.
The Nature Communications study shows how high temperature weakens plant defenses while, separately, strengthening bacterial attacks.
A peek into the logistics of how bacterial nanofactories move electrons, towards creating chemical products. Future apps include renewable energy and medical tools.
When engineers want to speed up a system, they look for the slowest steps and make them faster. In plants, this approach potentially does more harm than good, says the Kramer lab.
The new family of proteins protects cyanobacteria from sunlight damage, and they are interesting for use in synthetic medical or renewable energy applications.
Scientists show how the two OCP parts interact and also create new synthetic versions of that protein. The goal is to use it in synthetic healthcare systems, powered by light.
The Howe lab delves into how defense genes do more than just fight. They also tangle with growth functions.
The Kerfeld lab has analyzed over 200 sets of cyanobacteria DNA. This knowledge is getting us closer to understanding how to build synthetic factories that will someday produce green fuels or products used to diagnose diseases.