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Why fruit flies eat practically anything

Researchers at Kyoto University discovered that fruit flies can thrive on various diets due to their flexible response to carbohydrates. In contrast, genetic cousins of the fruit fly are 'nutritional specialists' and can only grow on specific plants. The study sheds light on how organisms adapt to different nutritional environments.

SourceKyoto University·JournalCell Reports·DateSep 3, 2019

Knowing berry pests' varied diets may help control them

A Cornell University study reveals that spotted-wing drosophila adults and larvae eat mushroom and apple mixtures, as well as bird manure, to survive before and after the growing season. The results may help curb pest populations by encouraging growers to limit access to certain non-fruit food sources.

SourceCornell University·JournalEcological Entomology·DateAug 6, 2019

Transparent fruit flies

Scientists have made fruit flies transparent using a new clearing method, allowing for high-resolution imaging of complex neural networks. This breakthrough enables the study of the connectome and behavior of Drosophila melanogaster, with potential applications in understanding neurodegenerative diseases.

SourceVienna University of Technology·JournalNature Communications·DateNov 22, 2018

Fruit fly species can learn each other's dialects

Researchers found that fruit fly species from different backgrounds can communicate more effectively when they cohabitate and learn each other's visual and scent cues. The study suggests that variation in communication ability between species may be analogous to dialects, which can be alleviated through socialization.

SourcePLOS·JournalPLOS Genetics·DateJul 19, 2018

Organ regeneration is no longer a distant dream

Researchers at Osaka University have clarified the cellular mechanism behind left-right asymmetric organ morphogenesis using live imaging and computer simulations. The team discovered that 'cell sliding' is essential for this process, which may lead to breakthroughs in regenerating organs with tubular structures.

Mapping the brain

Neurobiologists have reconstructed nerve cells and synapses in a larval brain, revealing new circuit connection patterns that will aid future research on brain function. The project represents a significant contribution to the creation of a complete wiring diagram of the Drosophila larvae's brain.

SourceUniversity of Konstanz·JournalNature·DateAug 9, 2017

Supplement can lessen kidney damage linked to genetic mutations in transgenic fruit flies

A novel dietary supplement has been shown to reverse cellular damage caused by specific genetic mutations in the kidneys of transgenic fruit flies. The study provides a personalized model for testing novel therapies for rare diseases such as focal segmental glomerulosclerosis (FSGS), which currently lack treatment options.

SourceChildren's National Hospital·JournalJournal of the American Society of Nephrology·DateApr 20, 2017

Location, location, location: Cellular hotspots for tumors and regeneration

Two studies reveal unique properties of cells in Drosophila larvae that exhibit resistance to cell death and participate in tissue regeneration. Cells from specific 'tumor hotspots' express conserved signaling pathways necessary for tumor formation, while deregulation of these pathways is implicated in human cancer therapy resistance.

SourcePLOS·JournalPLOS Biology·DateSep 1, 2016

Breaking through insect shells at a molecular level

Scientists at the universities of Bonn and Leipzig found a way to break through insect shells using enzyme chitinase 2 and growth factor idgf6. This discovery offers new starting points for controlling agricultural parasites and disease-carrying insects, such as mosquitoes that spread Zika virus.

SourceUniversity of Bonn·JournalScientific Reports·DateFeb 3, 2016

Enemy odors help flies protect their offspring

Female Drosophila flies avoid laying eggs near parasitic wasps due to an innate early warning system that detects their odor. The study identified the specific olfactory circuit responsible for this detection, revealing a highly specific and efficient defense mechanism against predators.

SourcePLOS·JournalPLOS Biology·DateDec 16, 2015

The fly's time

A team of researchers discovered that the main clock of flies is controlled by mechanisms similar to those regulating human internal clocks. This study demonstrates how distant organisms can share similar biological clock gears despite displaying different circadian activities.

SourceUniversité de Genève·JournalCurrent Biology·DateJun 1, 2015