Tom Chivers is a London-based science writer. He grew up in Oxford, before graduating from the University of Liverpool with a first-class degree in philosophy; he then took a Master’s degree at the King’s College London Centre of Medical Law and Ethics. He worked for the Daily Telegraph for seven years from 2007 to 2014, and was a science writer at BuzzFeed UK from 2015 to 2018. He has received several awards for his journalism, including the ‘Explaining the facts’ category in the Royal Statistical Society’s Statistical Excellence in Journalism awards, and was nominated for the British Journalism Award in science writing in 2017. His first book, The Rationalists: Artificial intelligence and the geeks who want to save the world, will be published by Weidenfeld & Nicolson in summer 2019.
Tom Chivers
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Studying genetics in the age of big data
New biomedical techniques, like next-generation genome sequencing, are creating vast amounts of data and transforming the scientific landscape.
Studying genetics in the age of big data
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Grant review needs reform. How about we add an element of chance?
A process that uses a lottery system saves time, reduces strategic resubmission and accepts that, above a quality threshold, luck has always played a part in science funding.
Grant review needs reform. How about we add an element of chance?
A process that uses a lottery system saves time, reduces strategic resubmission and accepts that, above a quality threshold, luck has always played a part in science funding.
Fly neurons carry molecular signatures of their origins
The pattern of transcription factors a Drosophila neuron expresses offers clues to its lineage and birth order—and ultimately how neural circuits emerge.
Fly neurons carry molecular signatures of their origins
The pattern of transcription factors a Drosophila neuron expresses offers clues to its lineage and birth order—and ultimately how neural circuits emerge.
Polarized cortical organoids mimic the brain’s regional organization
The organoids show region-specific gene-expression changes that match those observed during fetal development.
Polarized cortical organoids mimic the brain’s regional organization
The organoids show region-specific gene-expression changes that match those observed during fetal development.