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Scientists open door to achieving high-precision 'slippery structural hydrogel'

Researchers introduce trehalose into hydrogels to form hydrogen bond interactions, improving dehydration resistance, lubrication performance, mechanical properties, and manufacturing accuracy. This discovery proposes a new design principle for high-precision manufacturing of hydrogel materials.

SourceInternational Journal of Extreme Manufacturing·JournalInternational Journal of Extreme Manufacturing·DateJan 15, 2024

Issue cover image a new study points to evolutionary causes and ecological consequences of the absence of a digestive enzyme in birds

A new study reveals that birds lost the ability to digest trehalose, a non-reducing disaccharide found in common food sources, likely due to evolutionary divergence from their common ancestor. This loss has significant ecological implications, including reduced access to energy-rich foods and potential adaptations by other species.

SourceUniversity of Chicago Press Journals·JournalPhysiological and Biochemical Zoology·TypeExperimental study·DateJun 3, 2022

Protein structure paves the way for new broad spectrum antifungals

A team of Duke researchers has solved the structure of an enzyme required to synthesize trehalose, a chemical cousin to table sugar that pathogenic fungi need to survive in human hosts. The research paves the way for designing new antifungal drugs against three deadly fungi: Cryptococcus, Candida, and Aspergillus.

SourceDuke University·JournalProceedings of the National Academy of Sciences·DateJun 14, 2016

Natural sugar may treat fatty liver disease

Researchers found that trehalose prevents the buildup of fat in liver cells by blocking the transport of energy from sugar into liver cells. This triggers autophagy, a natural process where cells consume stored fats and other waste materials. The study suggests that trehalose may offer a potential treatment for nonalcoholic fatty liver...

SourceWashU Medicine·JournalScience Signaling·DateFeb 23, 2016

Sugar gene helps rice tolerate drought, salt, cold

Cornell researchers introduce a trehalose-enhancement gene into Indica rice varieties, demonstrating stress tolerance and increased productivity. The transgenic plants also exhibit improved photosynthesis and nutrient utilization, making them more robust under various environmental stresses.

SourceCornell University·JournalProceedings of the National Academy of Sciences·DateNov 25, 2002