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Search results for “Insects”

1,000+ results for "Insects"

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

Using public surveillance to study insect vectors of Chagas disease in Texas

In Texas, a citizen science program utilizing public surveillance tracked the distribution and infection prevalence of triatomine insects, showing 63% infected with Trypanosoma cruzi. The study suggests that citizen collections are a valid way to document insect distribution, providing a unique sample for disease vector studies.

SourcePLOS·JournalPLOS Neglected Tropical Diseases·DateDec 10, 2015

How plants turn into zombies

Scientists at Jena University have discovered how bacteria infect plants by hijacking the regulation of flower development, preventing normal growth and sexual reproduction. The study sheds light on the molecular reasons behind this phenomenon, where infected plants 'become the living dead'.

SourceFriedrich-Schiller-Universitaet Jena·JournalTrends in Plant Science·DateOct 16, 2015

Re-thinking plant and insect diversity

Biologists at the University of York have found that there is no simple relationship between insect diet and diversity, with some plant-feeding groups being incredibly rich while others are not. The study suggests that other factors play a greater role in explaining diversity.

SourceUniversity of York·JournalThe American Naturalist·DateOct 13, 2015

How the stick insect sticks (and unsticks) itself

Insects like stick insects can walk up vertical surfaces using adhesive pads on their feet, but scientists long believed that wet and dry feet required different mechanisms to adhere. New research reveals that the fluid on their feet plays a crucial role in controlling adhesion, with potential applications in modern devices.

SourceUniversity of Cambridge·JournalSoft Matter·DateOct 7, 2015

Colorful caterpillar chemists

Scientists at STRI in Panama compared the diets of two caterpillar species and found that generalist moth caterpillars could actively store toxic plant chemicals in their bodies. This discovery opens new avenues for understanding plant-insect coevolution and has potential medical applications.

SourceSmithsonian Tropical Research Institute·JournalJournal of Chemical Ecology·DateOct 2, 2015

The secret to the success of insects

A new family of glycerol transporters has been discovered in insects, which may have enabled their dominance on Earth. The transporters, called entomoglyceroporins, have a higher ability for glycerol transport than other channels, suggesting they played a key role in insects' success.

SourceThe University of Bergen·JournalNature Communications·DateAug 6, 2015

Greener pest control

A team of scientists is working on a project to create new pesticides that target specific insect species without harming beneficial ones. By mimicking the hormone systems of these insects, researchers hope to disrupt their reproductive cycles and prevent population explosions.

The 100 million year-old piggyback

Scientists have discovered a 100-million-year-old insect fossil that shows an adult female insect caring for its young, a behavior previously unknown to exist during the Mesozoic era. This discovery pushes back the earliest direct evidence of insect brood care by more than 50 million years.

SourceeLife·DateMar 31, 2015

Video reveals acrobatic feats of praying mantises

Researchers observed young praying mantises jumping to a target with precision and accuracy, rotating their bodies at 2.5 times per second. The insects' unique ability to maintain stability and control during flight has implications for the development of tiny robots.

SourceCell Press·JournalCurrent Biology·DateMar 5, 2015

Study sheds light on chemicals that insects use to communicate and survive

Researchers at UC Riverside devised a method to isolate hydrocarbon molecules used by insects for communication and differentiation. The study found that nearly all insects produce the R form of these chemicals, paving the way for understanding their functions and potential applications in controlling pest species.

SourceUniversity of California - Riverside·JournalProceedings of the National Academy of Sciences·DateJan 13, 2015

Study finds insects play important role in dealing with garbage on NYC streets

A new study from North Carolina State University reveals that insects and other arthropods consume large amounts of garbage on NYC streets, including 2,100 pounds of discarded junk food per year. The researchers found that pavement ants are particularly efficient foragers in urban environments and compete with rats to eat human garbage.

SourceNorth Carolina State University·JournalGlobal Change Biology·DateDec 2, 2014

Green spaces don't ensure biodiversity in urban areas

A University of Iowa study found that planting trees in urban areas does not guarantee an increase in insect populations, despite attracting species. The researchers surveyed tree species and insect abundance, concluding that built environments can limit diversity by impeding insects' ability to interact with other trees.

SourceUniversity of Iowa·JournalPLOS ONE·DateOct 31, 2014

Taking infestation with a grain of salt

A study by SDSU biologist Jeremy Long found that scale insects have a complex effect on cordgrass growth, with salinity being a key factor. In fresh water, infested plants grew taller, but in salt water, the effect was reversed. The research suggests that plants can overcompensate for grazing when not stressed by salinity.

SourceSan Diego State University·JournalPLOS ONE·DateOct 13, 2014

Bats change strategy when food is scarce

Researchers found desert long-eared bats changed their diet from mostly scorpions on the ground to catching flying insects when prey was scarce. The change involved altered call and flight behavior, indicating potential flexibility in echolocation.

SourceUniversity of Bristol·JournalJournal of Experimental Biology·DateSep 4, 2014