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https://scmp.com/news/world/europe/article/2113585/bagels-pretzels-and-screams-how-explain-science-nobels
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Bagels, pretzels and screams: how to explain science Nobels

Some cinnamon and raisin bagels. Photo: SCMP

What do a pretzel, a lock of hair and a scream have in common? They have all been used to explain the highly complex scientific research honoured with a Nobel Prize to the general public.

In recent years, the various Nobel science prize committees have gone to great lengths to make the pioneering discoveries understandable to a broad audience, occasionally finding creative and amusing ways of getting their message across.

“I think we’re sometimes a little scared of being too adventurous when presenting the Nobel Prize because it’s serious and important,” said Sven Lidin, who served for 12 years as a member of the Nobel chemistry committee.

This year’s Nobel Prize season kicks off on October 2 with the medicine prize, followed by the physics prize on October 3 and the chemistry prize on October 4.

Chinese professor Tu Youyou (left), one of the winners of the 2015 Nobel Prize in medicine or physiology. Tu discovered Artemisinin, a drug that has significantly reduced the mortality rates for those suffering from malaria. Photo: EPA
Chinese professor Tu Youyou (left), one of the winners of the 2015 Nobel Prize in medicine or physiology. Tu discovered Artemisinin, a drug that has significantly reduced the mortality rates for those suffering from malaria. Photo: EPA

The tough task of conveying the prizes’ significance beyond academic and scientific circles is one the various committees take seriously.

“If you’re going to reach out to others than scientists then you have to make a lot of effort and also make sure it’s accurate,” said Lidin, who chaired the Nobel chemistry committee from 2012 to 2014.

Currently a chemistry professor at Lund University, Lidin stunned the audience and elicited laughs when he shouted “Boo!” under a painting inspired by Edvard Munch’s The Scream to explain the 2012 Nobel chemistry prize.

The topic was the discovery of “G-protein-coupled receptors”.

The Globe of Science and Innovation at the European Organisation for Nuclear Research (CERN) in Meyrin, near Geneva, where scientists using the world’s largest proton smasher to hunt for particles that may change our understanding of the universe. The organisation won a 2012 science Nobel prize. Photo: AFP
The Globe of Science and Innovation at the European Organisation for Nuclear Research (CERN) in Meyrin, near Geneva, where scientists using the world’s largest proton smasher to hunt for particles that may change our understanding of the universe. The organisation won a 2012 science Nobel prize. Photo: AFP

Not many people may know what they are, but they are crucial: they help our cells react to adrenaline and hormones, explaining how cardiac cells know to raise the heart rate when we are startled, for example.

And in 2014, the chemistry Nobel honoured “the development of super-resolved fluorescence microscopy”, according to the prize citation.

To explain it, Lidin surprised the audience by pulling out a lock of his own hair to show how the prizewinners had laid the foundations for the development of nanoscopes, ultra-powerful microscopes that allow scientists to look closely at the inner workings of a cell.

“It’s very important to not just make a show out of [the announcement], but to also make it relevant,” he said.

Thors Hans Hansson (right) using a pretzel to visualise his explanations during a press conference to announce the winners of the 2016 Nobel Prize in Physics. Photo: AFP
Thors Hans Hansson (right) using a pretzel to visualise his explanations during a press conference to announce the winners of the 2016 Nobel Prize in Physics. Photo: AFP

Thors Hans Hansson, a member of the Nobel physics committee, took a cinnamon bun, a pretzel and a bagel to explain the field of topology, a highly specialised mathematics field studying unusual phases or states of matter.

Referring to the two holes in the pretzel, the one hole in the bagel, and the shape of a bun, Hansson showed that topology explains how a material’s shape can be completely deformed into a new one without losing its core properties.

The committees are also keen to explain why the public should care about the research, providing examples of practical applications.

The G-protein-coupled receptors discovery, for instance, has led to life-changing methods for antihistamines and psychiatric medications with fewer side effects.