Add BrightSurf on Google Email

A wax shield to conquer the Earth

Researchers discovered that seeds have recycled a plant protection mechanism called the cuticle to withstand terrestrial aggressions. The cuticle increases seed viability, resistance to reactive oxygen species, and maintains dormant state, allowing seeds to survive and propagate in new environments.

SourceUniversité de Genève·JournalPLOS Genetics·DateDec 17, 2015

Green light of hope to overcome Striga-triggered food insecurity in Africa

Researchers have identified the 'wake-up protein' responsible for germination of Striga seeds using a fluorescent probe, accelerating research to control Striga growth and prevent crop losses worth billions of dollars annually. The study reveals that Striga detects host crops through strigolactone receptors, leading to a devastating im...

Rutgers tomato reinvented with even more flavor

Researchers at Rutgers University have recreated a classic tomato variety thought to be lost to history, combining nostalgic flavor with modern durability. The new Rutgers tomato boasts improved flavor, earlier ripening, higher yield, and resistance to cracking, making it perfect for home gardeners and farmers alike.

Research charts a course for increasing edamame acreage in the Midwest

A US research team has identified promising edamame lines for commercial production in the Midwest, with improvements needed to overcome challenges such as poor seed germination and emergence. The study suggests that edamame plants can grow quicker than grain-type soybean, but require shorter plant sizes for efficient mechanical harvest.

York's anti-malarial plant given Chinese approval

A new hybrid plant used in anti-malarial drug production, developed by scientists at the University of York's Centre for Novel Agricultural Products (CNAP), has been registered as a new variety in China. The plant is believed to be the first instance of Chinese registration for an Artemisia annua variety bred outside China.

Food-delivery process inside seeds revealed

A recent Carnegie Institution study has identified three SWEET family proteins essential for delivering sugars from plant leaves to embryonic plants inside seeds. The research found that eliminating these transporters retards embryonic development and reduces seed quality, with potential applications in crop yield enhancement.

SourceCarnegie Institution for Science·JournalThe Plant Cell·DateMar 20, 2015

Seeds out of season

Scientists created a new modeling framework to study the relationships between different stages of a plant's life cycle. The study found that changes in environmental factors can affect the duration of subsequent stages. This research has the potential to improve crop yields and conservation efforts amid climate change.

Gardeners of Madagascar rainforest at risk

A new study by Rice University researchers reveals lemurs play a crucial role in dispersing seeds for trees, increasing survival rates. The findings highlight the importance of preserving lemur populations to maintain the health of Madagascar's rainforests.

SourceRice University·JournalEcology·DateNov 4, 2014

Light pollution impairs rainforest regeneration

A recent study found that light pollution impedes fruit-eating bats from dispersing seeds, which is crucial for tropical forest regeneration. As a result, seed rain is reduced, threatening the natural succession of forests in illuminated habitats.

SourceWiley·JournalJournal of Applied Ecology·DateMar 11, 2014

Research unveils clues about protein mechanism critical to plant growth and yield

Heterotrimeric G proteins play significant roles in plant development, including fruit and seed size and production, defense against pests and pathogens, and response to abiotic stresses. Research by Sona Pandey and collaborators showed that elevated G protein quantities in Camelina sativa led to increased seed production and size.

SourceDonald Danforth Plant Science Center·JournalPLANT PHYSIOLOGY·DateDec 10, 2013

Better water purification with seeds from Moringa trees

Scientists have discovered that seed material from Moringa trees can bind to impurities in water, allowing for more efficient purification. The study found that clusters of material produced with the protein are more tightly packed than those formed with conventional flocculating agents, making it easier to separate and treat waste water.