A recent study in Ficus hispida genomics has unlocked the genetic mechanisms driving this fig tree’s unique reproductive system.

A significant study has mapped the genetic complexity of Populus cathayana, an ecologically and economically valuable poplar species. 

The rapid advancement in personalized healthcare has driven the development of wearable biomedical devices for real-time biomarker monitoring and diagnosis. Traditional invasive blood-based diagnostics are painful and limited to sporadic health snapshots. To address these limitations, microneedle-based sensing platforms have emerged, utilizing interstitial fluid (ISF) as an alternative biofluid for continuous health monitoring in a minimally invasive and painless manner. The rapid advancement in personalized healthcare has driven the development of wearable biomedical devices for real-time biomarker monitoring and diagnosis. Traditional invasive blood-based diagnostics are painful and limited to sporadic health snapshots. To address these limitations, microneedle-based sensing platforms have emerged, utilizing interstitial fluid (ISF) as an alternative biofluid for continuous health monitoring in a minimally invasive and painless manner.

A pivotal study reveals tactics used by the pathogen Botrytis cinerea to undermine strawberry plant immunity.

Pioneering research has unlocked new understanding of the genetic intricacies within the octoploid strawberry, focusing on the interplay and divergence among its four ancestral subgenomes.

A new study has made significant strides in plant genome editing by developing an A-to-K base editing system for rice and tomato. 

The researchers verified that a LFMF promoted the inward absorption of iron ions and inhibited iron ion excretion, resulting in an elevated iron ion concentration within the cell. This, in turn, stimulated carotenoid synthesis by R. mucilaginosa.