Science of Star Creation, Neuroscience of Hearing, and Tool to Edit DNA
2018 Kavli Prize Announcement
The Norwegian Academy of Science and Letters today announced the winners of the 2018 Kavli Prizes. Given in the fields of astrophysics, nanoscience and neuroscience, this year’s prizes honor scientists who studied molecules in space and illuminated the life cycle of stars and planets, developed a tool to precisely edit DNA, and unlocked the neuroscience underlying human hearing.
Kavli Prize in Astrophysics: Ewine van Dishoeck (the Netherlands)
Kavli Prize in Nanoscience: Emmanuelle Charpentier (France), Jennifer A. Doudna (USA), and Virginijus Šikšnys (Lithuania)
Kavli Prize in Neuroscience: A. James Hudspeth (USA), Robert Fettiplace (UK), and Christine Petit (France)
“These Laureates represent truly pioneering science, the kind of science which will benefit humanity in a profound way. They will inspire both current and future generations to continue searching for answers to some of the most difficult questions of our time. Through their hard work, dedication and innovation, they have strengthened our understanding of existence,” says Ole M. Sejersted, President of the Norwegian Academy of Science and Letters.
The Prize consists of a gold medal and a cash prize of USD $1 million for each field. The Norwegian Academy of Science and Letters selected the Laureates, based on nominations by committees whose members are recommended by six of the world’s most renowned science societies and academies. The announcement of the 2018 Laureates was made in Oslo and streamed live to the World Science Festival in New York City.
The 2018 Kavli Prize Laureates
Astrophysics: Shedding light on the Origins of Stars, Planets and Life
The Kavli Prize in Astrophysics is given to Ewine van Dishoeck for her pioneering work on revealing the chemical and physical processes in interstellar clouds, where stars and planets form. Her work has contributed to a breakthrough of astrochemistry, demonstrating how molecules form and evolve during the transformation of a cloud into stellar systems like our own.
Through observational studies using telescopes on Earth and in space, van Dishoeck unveiled the "water trail,” measuring water vapor from dense clouds to young stars. This helps us understand the formation mechanisms of molecules crucial for life as we know it. She also discovered important structures within the rings of dust and gas surrounding young stars, the birthplace of planets and comets.
Van Dishoeck is professor of molecular astrophysics at the University of Leiden and has played a leading role in advancing the field of astrophysics. This includes serving on the board of the internationally-supported Atacama Large Millimeter/submillimeter Array (ALMA) in Chile—a collection of 66 dishes that can be connected to function as one telescope with a diameter of 10 km (6.2 miles). With this exceptional instrument, van Dishoeck and colleagues have studied the formation of solar-type stellar systems within our galaxy.
"Professor Van Dishoeck's research on the chemistry of the universe has transformed virtually every aspect of the subject. She has advanced a subject that was once regarded as a small activity on the fringes of mainstream astrophysics, and brought it to the forefront of astronomy as a whole,” says Robert Kennicutt, member of the astrophysics prize committee.
Nanoscience: Inventing a Scalpel for the Code of Life
The Kavli Prize in Nanoscience is awarded to three scientists who invented CRISPR-Cas9, the revolutionary nanotool for editing DNA, and opening a new chapter in biology, agriculture and medicine. The USD $1 million prize will be shared by Emmanuelle Charpentier of the Max Planck Society, Jennifer A. Doudna of the University of California, Berkeley, and Virginijus Šikšnys of Vilnius University.
“CRISPR-Cas9 is a breakthrough nanotool that will considerably enhance our understanding of genetic mechanisms. This great invention confers to society enormous capabilities for positive innovations,” says Arne Brataas, head of the nanoscience prize committee.
With their teams, Charpentier and Doudna, and independently Šikšnys invented a new tool that allows researchers to identify specific sequences in the genome and edit them, thereby changing the instruction manual of living things. Their breakthrough was found in combining CRISPR (“Clustered Regularly Interspaced Short Palindromic Repeats”), an element of the immune system of bacteria, with the Cas9 protein to precisely edit DNA.
The pioneering work has unleashed global interest among scientists and the public in a field of research with enormous potential to address disease-causing mutations in humans and improve agriculture. It has also sparked a conversation around the ethical challenges that must be addressed when altering genes.
Neuroscience: Unlocking the Mystery of Hearing
The Kavli Prize in Neuroscience is shared between A. James Hudspeth, of the Rockefeller University, Robert Fettiplace, of the University of Wisconsin, Madison, and Christine Petit, of Collège de France/Pasteur Institute, for their scientific discoveries of the molecular and neural mechanisms of hearing. The Laureates used complementary approaches to unravel the mechanisms by which hair cells in the inner ear transform sound into electrical signals that can be deciphered by the brain.
"They have provided fundamental new insights into how our inner ear transforms sound into electrical signals - the basis of hearing - and have unveiled genetic and molecular mechanisms underlying hearing loss," says Ole Petter Ottersen, head of the neuroscience prize committee. "Their work serves as a sterling example of how concerted efforts across disciplines and technologies can revolutionize our understanding of complex neurobiological processes."
Hudspeth's research has provided much of the framework for our understanding of how sound is converted into neural signals through hair cells and their ion channels. Fettiplace showed that each hair cell in the cochlea of the inner ear is sensitive to a specific range of sound frequencies and discovered the mechanistic basis of this. By exploring the genetics of hereditary deafness, Christine Petit has furthered our understanding of hair cell biology and informed deafness diagnosis and counseling. Combined, these Laureates' work has unraveled the sense of hearing.