A new study suggests that, based on the identification of certain molecular mechanisms, it is possible to develop Super-Adaptable Plants (SAP) with higher nutrient absorption in unfavorable conditions.
Trees living in conditions where the carbon dioxide (CO2) has been artificially elevated are likely to become more efficient in conserving water.
One of the impacts of climate change is the proliferation of viruses on cultivated plants. To reduce the use of pesticides and promote the deployment of agroecological practices, one strategy is to increase the natural resistance of plants to viruses. Promising results, using genome editing to mimic natural selection.
A new decade long study from South African National Parks examines the usefulness of high-intensity fires to prevent bush encroachment in the long term and introduces a new approach to tackling the issue.
A new conceptual framework for incorporating the way plants use carbon and water, or plant dynamics, into fine-scale computer models of wildland fire provides a critical first step toward improved global fire forecasting.
A machine vision system capable of locating and identifying apple king flowers within clusters of blossoms on trees in orchards was devised by researchers — a critical early step in the development of a robotic pollination system — in a first-of-its-kind study.
Scientists are drawing inspiration from plants to develop new techniques to separate and extract valuable minerals, metals and nutrients from resource-rich wastewater.
Under cold conditions, not only the mother plant but also the father plant can pass on its chloroplasts to the offspring.
Non-vascular bryophytes live in colonies that cover the ground and resemble tiny forests. In a real forest, plants compete for light in different layers of the canopy. If a plant does not receive enough sunlight, it stops lateral branching and instead grows vertically to reach the sunlight. Researchers discovered that the liverwort Marchantia polymorpha, whose plant body is fundamentally different from those of vascular plants, also adapts its architecture in response to shade.
Researchers have traced the evolution of mint genomes for potential future applications that range from medicines to pesticides to antimicrobials.
