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New study published in The Crop Journal cracks the code to increasing grain size and reducing chalkiness in rice

A new study published in The Crop Journal has identified the gl9 gene variant as a key factor in increasing grain size and reducing chalkiness in rice. By introducing this allele into elite rice varieties, scientists have improved grain length, width, and weight, leading to enhanced appearance quality and yield.

SourceCactus Communications·JournalThe Crop Journal·TypeExperimental study·DateSep 14, 2022

To cell surface and beyond: Tracing subcellular glycoprotein transport using modified cholera toxin

Scientists at Okayama University designed and tested a modified cholera toxin to study glycosylation in eukaryotic cells. They tracked the toxin's movement through organelles using bioluminescence, gaining insights into protein modification. This method may lead to new treatments for diseases caused by enzyme deficiencies.

SourceOkayama University·JournalChemistry - A European Journal·TypeExperimental study·DateJul 25, 2022

CABBI team develops automated platform for plasmid production

Researchers at University of Illinois at Urbana-Champaign have developed PlasmidMaker, an automated platform for designing and constructing plasmids. The platform uses Pyrococcus furiosus Argonaute-based artificial restriction enzymes to assemble DNA fragments with greater flexibility and precision.

Self-eliminating genes tested on mosquitoes

Researchers at Texas A&M AgriLife Research have developed a mechanism to make temporary genetic changes in mosquitoes that self-delete over time. This technology has the potential to help manage mosquito populations and prevent vector-borne diseases like West Nile virus without permanently altering wild populations' genetic makeup.

SourceTexas A&M AgriLife Communications·JournalProceedings of the National Academy of Sciences·DateMay 2, 2022

Researchers identify sustainable source of immunodeficiency virus-resistant immune cells

Researchers have successfully generated large numbers of virus-resistant immune cells from monkeys using CRISPR/Cas9 gene editing. This breakthrough could lead to the development of a new treatment for HIV/AIDS by providing an alternative to current therapies that require lifelong medication and can cause side effects.

SourceInternational Society for Stem Cell Research·JournalStem Cell Reports·DateMar 31, 2022

Genetically modified proteins convert carbon nanotube to programmable optoelectronic device

Researchers developed a full-function bioelectronic photocell using genetically modified proteins attached to a carbon nanotube. The system can change its electronic properties in response to light, operating as a spotlight or memory cell. This discovery opens the door to environmentally friendly electronic elements, memory devices, an...

SourceSkolkovo Institute of Science and Technology (Skoltech)·JournalAdvanced Functional Materials·DateMar 30, 2022

The hardy wild grass that could save our bread

A team of researchers identified a stem rust resistance gene from wild goat grass species Aegilops sharonensis, which can be cross-bred into wheat for immunity against deadly crop pathogens. The genetic potential of this hardy relative has been largely unexplored and holds promise for reducing the threat of the stem rust disease.

SourceJohn Innes Centre·JournalNature Communications·TypeExperimental study·DateMar 25, 2022

Chemist targets pesky mosquitoes’ genes

Researchers at the University of Cincinnati found that female mosquitoes have a higher abundance of tRNA modifications than males, which could underlie factors associated with female reproduction. This study aims to develop new methods of control for mosquito-borne diseases, such as malaria and yellow fever.

SourceUniversity of Cincinnati·JournalInsect Biochemistry and Molecular Biology·TypeExperimental study·DateFeb 21, 2022

Nuclei-free cells prove utility in delivering therapeutics to diseased tissues

Researchers successfully engineered mesenchymal stromal cells to carry and deliver therapeutics specifically to targeted tissues, offering a precise and reliable approach for treating diseases. This novel cargo-carrier, dubbed 'Cargocytes,' retains most of its cellular functionality while greatly enhancing therapeutic capacity.

SourceUniversity of California - San Diego·JournalNature Biomedical Engineering·DateJan 14, 2022

Bacteria as climate heroes

Acetobacterium woodii bacteria can efficiently metabolize CO2 into formate, providing a sustainable alternative to oil-based products. This process can be genetically modified to produce ethanol or lactic acid, enabling the recycling of CO2 and carbon monoxide.

SourceVienna University of Technology·JournalMetabolic Engineering·TypeExperimental study·DateNov 17, 2021

Soybean study designs and implements a more effective and less toxic bio-fungicide

Researchers have successfully used double-stranded RNA (dsRNA) molecules as a bio-fungicide to suppress the production of a toxin in soybean plants. The study found that dsRNAs produced in bacterial cells can effectively manage fungal diseases, reducing the need for toxic chemicals and potentially mitigating fungicide resistance.

SourceAmerican Phytopathological Society·JournalPhytopathology·TypeExperimental study·DateOct 13, 2021

Coconut tree cloning breakthrough will help propagation and preservation

Scientists at KU Leuven developed a method to multiply coconut trees faster and store them more efficiently, preserving genetic diversity and meeting the demand for coconuts. The technique allows thousands of new specimens with the same genetic profile to be obtained, offering potential for coconut plantations worldwide.

SourceKU Leuven·JournalScientific Reports·TypeExperimental study·DateSep 15, 2021

Tracking genetically modified animals

Researchers at McGill University have developed a new way to track genetically modified animals using artificial transgenes. The discovery provides a powerful tool for locating and managing escaped or released GM animals.

SourceMcGill University·JournalPLOS ONE·TypeExperimental study·DateAug 30, 2021

Pusan National University researchers shed light on the early development of rice seeds

A team of scientists led by Assistant Professor Lae-Hyeon Cho identified a single mutation in the gene that codes for cytidine triphosphate synthase (CTPS), an enzyme crucial for early endosperm development. The study showed that overexpressing CTPS in genetically modified rice plants results in a larger endosperm, opening up opportuni...

SourcePusan National University·JournalPlant Biotechnology Journal·TypeExperimental study·DateAug 23, 2021