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University of Bristol


Evolutionary origins of animal biodiversity

Research team analyzed thousands of features across all living animal groups to create a 'shape space' for animal body plans. The results show that fundamental evolutionary change occurred in fits and starts, with animal designs continuing to evolve to the present day.

SourceUniversity of Bristol·JournalProceedings of the National Academy of Sciences·DateSep 3, 2018

Disappearing into thin air

University of Bristol researchers have discovered a way to exploit hypoxia to kill cancer cells without harming healthy tissue. The study found that a specific receptor, GPRC5A, can be targeted using genetic techniques to trigger cancer cell death.

SourceUniversity of Bristol·JournalEMBO Molecular Medicine·DateAug 24, 2018

Plants can tell the time using sugars

A study discovered that plants regulate their internal 'circadian clock' using sugars from photosynthesis to stay in tune with day and night cycles. This process enables plants to match their activities to the time of day, crucial for growth, flower opening, and energy reserve management.

SourceUniversity of Bristol·JournalCurrent Biology·DateAug 2, 2018

New insights into plants' conquest of land

Researchers at the University of Bristol have revealed insights into how plants evolved from simple aquatic algae to complex, upright forms. The study found that CLAVATA peptides control cell growth and division at plant tips, enabling 3D shapes and multiple directional growth.

SourceUniversity of Bristol·JournalCurrent Biology·DateJul 19, 2018

Spiders go ballooning on electric fields

Scientists from the University of Bristol have discovered that spiders can become airborne in the absence of wind when subjected to electric fields, defying current theories on aerodynamic drag. The researchers believe that electric fields trigger ballooning and provide lift, revolutionizing our understanding of spider dispersal.

SourceUniversity of Bristol·JournalCurrent Biology·DateJul 5, 2018

Swimming bacteria work together to go with the flow

Bacteria can reduce liquid viscosity and make it flow frictionlessly. Researchers at the University of Bristol found that bacterial suspensions can exhibit negative viscosity, a phenomenon previously thought impossible in physics. This discovery could lead to the development of bacteria-powered machines.

SourceUniversity of Bristol·JournalPhysical Review Letters·DateJul 4, 2018

New drug and material discoveries to be untangled in VR

Scientists at the University of Bristol have developed new virtual reality cloud-based tools to accelerate research tasks in drug and material discovery. Using real-time molecular simulations, researchers can now interact with molecules in a virtual space, folding, knotting, and changing their shape to test interactions.

SourceUniversity of Bristol·JournalScience Advances·DateJul 2, 2018

Mongooses remember and reward helpful friends

New research by University of Bristol researchers found that dwarf mongooses can quantify earlier acts of cooperation and provide suitable levels of delayed rewards. The study shows that mongooses have sufficient cognitive ability to trade goods and services with their groupmates, with grooming being traded for sentinel behavior.

SourceUniversity of Bristol·JournalProceedings of the National Academy of Sciences·DateMay 28, 2018

Giraffes surprise biologists yet again

A new study by University of Bristol PhD student Zoe Muller found that giraffe group sizes are not influenced by predation risk, contradicting a long-held assumption. Giraffe groups were smaller when adult females had calves, highlighting the complexity of their behavior and ecology.

SourceUniversity of Bristol·JournalJournal of Zoology·DateMay 18, 2018

How Nagana is carried by tsetse flies

Tsetse flies transmit Nagana disease to livestock by injecting trypanosomes into the skin, which then invade the bloodstream and cause severe illness. Understanding how these microbes develop inside the fly may lead to new methods of controlling the spread of the disease.

SourceUniversity of Bristol·JournalPLOS Pathogens·DateMay 17, 2018

New type of opal formed by common seaweed discovered

Researchers at the University of Bristol have discovered a novel type of opal formed by brown algae, exhibiting iridescence due to self-assembled oil droplet nanostructures. The seaweed's chloroplasts-containing cells can switch on and off this dynamic self-assembly, creating changing opals that react to sunlight.

SourceUniversity of Bristol·JournalScience Advances·DateApr 17, 2018