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Research examining traces of parasites in the remains of medieval ¹ú¼ÊÃ×À¼¶ÔÕó¿ÆĪ residents suggests that local friars were almost twice as likely as ordinary working townspeople to have intestinal worms – despite monasteries of the period having far more sanitary facilities.  

Coprolites from the Must Farm archaeological excavation in East Anglia shows the prehistoric inhabitants were infected by parasitic worms that can be spread by eating raw fish, frogs and shellfish.

Earliest archaeological evidence of intestinal parasitic worms infecting the ancient inhabitants of Greece confirms descriptions found in writings associated with Hippocrates, the early physician and ‘father of Western medicine’.    

Professor Nick Davies, who gives this week’s , has been studying reed warblers for more than 30 years – and has unlocked many of the secrets of their interactions with the cuckoo. His work shines light on the evolutionary games played out in nature as species compete with environmental pressures, with other species, and with the opposite sex, to pass on their genes.

A study of reed warbler behaviour reveals for the first time that in assessing the risks posed by cuckoos the birds combine information from multiple sources. An ‘information highway’ provides one set of clues and personal encounters another. Only when both add up, do the birds take defensive action.

Using new ‘pattern recognition algorithm,’ latest research highlights how birds are ‘fighting back’ against the parasitic Common Cuckoo in what scientists describe as an evolutionary ‘arms race’. They found that birds with the most sophisticated and distinctive egg patterning are those most intensely targeted by the cuckoo’s egg mimicry.

Evolutionary trick allows cuckoos to mimic the plumage of birds of prey, and may be used to scare mothers from their nests so that cuckoos can lay their eggs. Mimicry in cuckoos may be more much more widespread than previously thought.

Screening method created to expedite the development of new drugs in the fight against tropical diseases such as malaria and African sleeping sickness.

A ground-breaking imaging system to track malarial infection of blood cells in real time has been created by a collaboration catalysed by the University’s Physics of Medicine Initiative.

New research is helping to unveil how the parasite that causes sleeping sickness uses stealth tactics to escape detection by the human immune system.