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�ճ����Cambridge Animal Alphabet series celebrates Cambridge's connections with animals through literature, art, science and society. Here, T is for Tasmanian Devil and the researchers studying the transmissable cancer that threatens these marsupials with extinction.

DNA from 4,500-year-old Ethiopian skull reveals a large migratory wave of West Eurasians into the Horn of Africa around 3,000 years ago had a genetic impact on modern populations across East Africa.

A new genetic study of over 200,000 women reveals the underlying mechanisms of polycystic ovary syndrome, as well as potential interventions.

An international study of nearly 70,000 women has identified more than forty regions of the human genome that are involved in governing at what age a woman goes through menopause. ̽��ֱ��study, led by scientists at the Universities of Cambridge and Exeter, found that two thirds of those regions contain genes that act to keep DNA healthy, by repairing the small damages that can accumulate with age. 

A rare DNA base, previously thought to be a temporary modification, has been shown to be stable in mammalian DNA, suggesting that it plays a key role in cellular function.

When is a rare disease not a rare disease? ̽��ֱ��answer: when big data gets involved. An ambitious new research project aims to show patients that they are not alone.

A team of researchers led by the ̽��ֱ�� of Cambridge has described for the first time in humans how the epigenome – the suite of molecules attached to our DNA that switch our genes on and off – is comprehensively erased in early primordial germ cells prior to the generation of egg and sperm.

One of the world’s leading childhood brain tumour experts, Professor Richard Gilbertson, has been appointed as Li Ka Shing Chair of Oncology in Cambridge and Director of the Cambridge Cancer Centre. He will take up his appointment in August.

Wealth and power may have played a stronger role than “survival of the fittest”.

Many animals, including humans, acquired essential ‘foreign’ genes from microorganisms co-habiting their environment in ancient times, according to research published in the open access journal Genome Biology. ̽��ֱ��study challenges the conventional view that animal evolution relies solely on genes passed down through ancestral lines and suggests that, at least in some lineages, the process is still ongoing.