Nobel Laureate series 2025

Venkatraman (Venki) Ramakrishnan

Nobel Prize in Chemistry 2009  "for studies of the structure and function of the ribosome" 
Public lecture: Why We Die: The New Science of Aging and the Quest for Immortality
Tuesday, 21 October 2025, 7 pm
Audimax, TU Dresden 

© Kate Joyce / Santa Fe Institute

About Venki Ramakrishnan:
Venki Ramakrishnan received his bachelor’s degree in physics from Baroda University in India in 1971 and his Ph.D. in physics from Ohio University in 1976. He then studied biology for two years at the University of California, San Diego before beginning his postdoctoral work with Peter Moore at Yale University. After a long career in the USA at Brookhaven National Laboratory and the University of Utah, he moved to England in 1999, where he has been a group leader at the MRC Laboratory of Molecular Biology in Cambridge. He received the Nobel Prize for Chemistry in 2009 and was the president of the Royal Society from 2015-2020.

In 2000, Ramakrishnan’s laboratory determined the atomic structure of the 30S ribosomal subunit and its complexes with ligands and antibiotics. This work led to insights into how the ribosome “reads” the genetic code, as well as antibiotic function. Ramakrishnan’s lab subsequently determined high-resolution structures of functional complexes of the entire ribosome at various stages along the translational pathway, which led to insights into its role in protein synthesis during decoding, peptidyl transfer, translocation and termination. For the last decade, his laboratory has been applying cryoelectron microscopy to study eukaryotic and mitochondrial translation, especially initiation of translation and translational regulation.

Ramakrishnan is the author of two popular books, Gene Machine (2018), a very frank popular memoir about the race for the structure of the ribosome, and more recently,  Why We Die: The New Science of Aging and the Quest for Immortality (2024).

Public lecture: Why We Die: The New Science of Aging and the Quest for Immortality
The knowledge of aging and death has driven human culture, including our religions, ever since we became aware of our mortality. For much of our existence there was not much we could do about it, but over the past few decades, biology has made major advances in our understanding of the causes of aging, thus for the first time opening up the possibility of intervening in the process. At the same time, the combination of longer lives and reduced fertility rates means that many societies are faced with an aging population. This has led to a large amount of investment in aging research from governments as well as private industry funded largely by tech billionaires, and led to a both real advances and a large amount of hype. In this talk I will discuss some of the key findings about why and how we age and die and prospects for the future. I will also talk a bit about the possible consequences of societies with extremely long-lived populations.

Nobel Laureate speaker series 2024

Reinhard Genzel

Nobel Prize in Physics 2020
Public lecture: Galaxien und Schwarze Löcher (lecture held in German, "Galaxies and black holes")
Wednesday, 23 October 2024, 7 p.m.
Audimax, TU Dresden

Reinhardt Genzel zu Gast an der TU Dresden: 23. Oktober 2024

© MPE

Prof. Dr. Reinhard Genzel is Director at the Max Planck Institute for Extraterrestrial Physics (MPE) in Garching, Scientific Member of the Max Planck Society and Professor at the Graduate School for Physics and Astronomy at the University of California in Berkeley. He is one of the world's leading researchers in the field of infrared and submillimeter astronomy. His research focuses on experimental astrophysics, black holes, galactic nuclei, galaxy evolution, star formation and extragalactic astrophysics. In 2020, he was awarded the Nobel Prize in Physics, together with the US astronomer Andrea Ghez, for the discovery of a supermassive compact object at the center of our galaxy, the Milky Way.

Galaxien und Schwarze Löcher (Galaxies and black holes)

At the center of the Milky Way sits an extraordinarily compact object that astronomers call Sagittarius A*. Based on the predictions of Einstein's theory of general relativity, it has been suspected for 50 years that SgrA* could be a supermassive black hole. To investigate this hypothesis, Reinhard Genzel and his team have been on the trail of this mass monster for forty years. Using high-precision measurements of stellar motions around SgrA* and of bursts of hot gas from the immediate vicinity of SgrA*, Genzel and a second group led by Andrea Ghez in California have convincingly shown that SgrA* really must be a black hole with a mass of 4 million solar masses. It is now even possible to measure characteristic effects of the general theory of relativity, such as the gravitational redshift of light or the orbital precession of a passing star, for the first time in such an extreme environment. At the same time, it has become clear that most galaxies are home to massive black holes and that these black holes must have formed around a billion years after the Big Bang. Together with Roger Penrose and Andrea Ghez, Reinhard Genzel was awarded the Nobel Prize in Physics in 2020.

Anne L'Huillier

Nobel Prize in Physics 2023
Public lecture: Attosecond pulses of light for the study of electron dynamics
Friday, 28 June 2024, 7 p.m.
Audimax, TU Dresden

Anne L'Huillier zu Gast an der TU Dresden: 28. Juni 2024

© LTH

Anne L'Huillier is a Swedish/French researcher in attosecond science. During the first part of her career, she worked at the Commissariat à l'Energie Atomique, in Saclay, France, first as a PhD student until 1986, then as a permanent researcher until 1995. She was postdoc at Chalmers Institute of Technology, Gothenburg. Sweden in 1986, and at the University of Southern California, Los Angeles, USA in 1988. In 1995, she moved to Lund University, Sweden and became full professor in 1997. Her research, both theoretical and experimental, is centered around high-order harmonic generation in gases and its applications, in particular in attosecond science. She was awarded the Nobel Prize in Physics 2023 together with Pierre Agostini and Ferenc Krausz for “for experimental methods that generate attosecond pulses of light for the study of electron dynamics in matter”.

Abstract: Attosecond pulses of light for the study of electron dynamics

When an intense laser interacts with a gas of atoms, high-order harmonics are generated. In the time domain, this radiation forms a train of extremely short light pulses, of the order of 100 attoseconds. Attosecond pulses allow the study of the dynamics of electrons in atoms and molecules, using pump-probe techniques. This presentation will highlight some of the key steps of the field of attosecond science.

Didier Queloz

Nobel Prize in Physics 2019
Public lecture: The Exoplanet revolution
Thursday, 30 May 2024, 7 p.m.
Audimax, TU Dresden

Didier Queloz zu Gast an der TU Dresden 30. Mai 2024

© Prof. Dr. Didier Queloz (ETH Zürich/D-​PHYS/Heidi Hostettler)

Prof Didier Queloz, FRS, is Jacksonian Professor of Natural Philosophy at Cambridge Cavendish Laboratory and part-time professor of physics at ETH- Zurich.
He was born in Switzerland in 1966.
He is at the origin of the ‘exoplanet revolution’ in astrophysics when in 1995 during his PhD with his supervisor they announced the first discovery of a giant planet orbiting another star, outside the solar system. They received the 2019 Nobel Prize in Physics for this spectacular discovery that kick-started the rise of exoplanet researches.
Over the next 25 years, Didier Queloz scientific contributions have been to make progress in detection and measurement of exoplanet systems with the goal to retrieve information on their physical structure to better understand their formation and evolution and to compare with our Solar System. He participated and conducted various programs leading to the detection of hundred planets, include many breakthrough results.
More recently, his activity has focused on the detection of Earth like planets, establishing a comprehensive research program with the goal of making further progress in our understanding of habitability of exoplanets and life in the Universe. He is the funding director of the new Leverhulme Centre for Life in the Universe at Cambridge and of the new Centre for Origin and Life in the Universe at ETH-Z, Switzerland .
In addition to his research and teaching activities, he participates to numerous documentaries movies, articles TV and radio interviews to share excitement and to promote interest for science in general and particularly topics about exoplanets and life in the Universe.

Public lecture: The Exoplanet revolution

The wealth and diversity of planetary systems that have now been detected modified our perspective on planet formation as a whole and more specifically our place in the Universe. It also  present an opportunity of historical perspectives and an irresistible call to look for signs of life on these new worlds as a way to explore our own origins.  I will introduce the audience with the challenges and recent progresses in this new field of research and will  touch upon the emergence of a new paradigm for the origins of life on Earth. (Didier Queloz)

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Photo gallery Nobel Laureates at TU Dresden 2016-2023

Nobel lectures at TU Dresden 2016-2023

© Robert Lohse

Edvard Moser at TU Dresden on 13 April 2016

The Norwegian neuroscientist Edvard Moser was awarded the Nobel Prize in Physiology or Medicine 2014 together with his wife May-Britt Moser and the British-American neurologist John O’Keefe for the research of the brain’s positioning system. Learn more

© Robert Lohse

Edvard Moser at TU Dresden on 13 April 2016

In his lecture "The GPS of the brain: Grid cells and the neural map of space", Moser spoke about the discovery of so-called grid cells, which, in joint action with other cells, form the “GPS system” in our brain.

© Robert Lohse

Shuji Nakamura at TU Dresden on 11 May 2016

The Japanese-born American material scientist Shuji Nakamura was awarded the Nobel Prize in Physics 2014 together with the Japanese researchers Isamu Akasaki and Hiroshi Amano for the development of blue light-emitting diodes (LEDs). Learn more

© Robert Lohse

Shuji Nakamura at TU Dresden on 11 May 2016

In his lecture "Invention of blue LED and future solid state lighting", Nakamura spoke about how he, Akasaki and Amano achieved a breakthrough in developping the first blue LED. The development of blue LEDs was the prerequisite for the production of white light using the combination of red, green and blue LEDs and thus, the basis for efficient, energy-saving light sources.

© Robert Lohse

Stefan Hell at TU Dresden on 22 June 2016

Stefan Hell was awarded the Nobel Prize in Chemistry 2014 "for the development of super-resolved fluorescence microscopy". He shares the prize with his American colleagues Eric Betzig and William E. Moerner. The German physicist Hell has succeeded in exceeding the limitations of optical microscopy and thus, in laying foundations for optical nanoscopy. Learn more

© Robert Lohse

Stefan Hell at TU Dresden on 22 June 2016

In his lecture, Hell talked about the development of the so-called “Stimulated Emission Depletion” (STED-) microscopy, which uses fluorescence to make nanoscale biological structures visible by chemical processes.

© Robert Lohse

Gerhard Ertl at TU Dresden on 6 July 2016

The German physicist and chemist Gerhard Ertl was awarded the Nobel Prize in Chemistry 2007 “for his studies of chemical processes on solid surfaces”. With his work, Gerhard Ertl, the Emeritus director of the Fritz Haber Institute of the Max Planck Society in Berlin, created the basis for the understanding of industrial catalysts and catalytic processes. Learn more

© Robert Lohse

Gerhard Ertl at TU Dresden on 6 July 2016

In his lecture "Catalysis on surfaces: Engine of chemical transformations", Ertl also reported on how his research findings are still widely employed, such as in the production of chemical fertilizers, efficient catalytic converters or in the investigations of climate phenomena.

© Sven Döring

Sir John B. Gurdon at TU Dresden on 26 April 2017

The British developmental biologist Sir John B. Gurdon was awarded the 2012 Nobel Prize in Physiology or Medicine "for the discovery that mature cells can be reprogrammed to become pluripotent. Learn more

© Sven Döring

Sir John B. Gurdon at TU Dresden on 26 April 2017

In his talk "Somatic cell nuclear transfer: memory of the past versus hope for the future", Gurdon spoke about his pioneering study in which he found the prove that the mature cell, just as embryonic stem cells, still contain the genetic information needed to form all types of cells.

© Sven Döring

Paul Modrich at TU Dresden on 16 May 2017

Biochemist Paul Modrich was awarded the 2015 Nobel Prize in Chemistry along with Tomas Lindahl and Aziz Sancar "for mechanistic studies of DNA repair." Learn more

© Sven Döring

Paul Modrich at TU Dresden on 16 May 2017

In his lecture "Mechanisms in DNA mismatch repair", Modrich told how he has worked over decades on the idea of decoding the repair mechanism in the DNA code. Just as with all cell mechanisms, chromosome replication is not free from mistakes, misspellings in the genetic code are constantly happening. In 1989, Modrich succeeded in identifying the mismatch repair system (MMR) in cells.

© Sven Döring

Christiane Nüsslein-Volhard at TU Dresden on 7 June 2017

Christiane Nüsslein-Volhard is a German developmental biologist and geneticist. She was the first German woman to be awarded the Nobel Prize in Physiology or Medicine in 1995 for the discovery concerning the genetic control of early embryonic development. She shares the prize with her colleague Eric F. Wieschaus and the US-American geneticist Edward B. Lewis. Learn more

© Sven Döring

Christiane Nüsslein-Volhard at TU Dresden on 7 June 2017

Fish have particularly beautiful and diverse color patterns, which are created by the mosaic-like distribution of differently colored pigment cells. In her lecture "The stripes of the zebrafish: Why and how does beauty arise in animals?", Christiane Nüsslein-Volhard talked about how these patterns are formed and which genes are responsible for the diversity and evolution of color patterns.

© Sven Döring

Arthur McDonald at TU Dresden on 28 June 2017

The Canadian particle physicist Arthur B. McDonald was awarded the Nobel Prize in Physics 2015 together with Takaaki Kajita from Japan. Both researchers succeeded in proving that neutrinos have mass, a fact contradictory to the Standard Model of Elementary Particle Physics. Learn more

© Sven Döring

Arthur McDonald at TU Dresden on 28 June 2017

In his lecture "A Deeper Understanding of our Universe from 2 km Underground", McDonald took the Dresden public in his underground lab, where is team in 2001 succeeded in proving that neutrinos have a mass - a break-through in neutrino research and in our understanding of the universe.

© Robert Lohse

Klaus von Klitzing at TU Dresden on 11 April 2018

Klaus von Klitzing was awarded the Nobel Prize in Physics in 1985 for the discovery of the quantum Hall effect. This states that at low temperatures and strong magnetic fields, a Hall voltage occurs in a current-carrying semiconductor structure that changes in steps - according to what is now known as the "von Klitzing constant". Learn more

© Robert Lohse

Klaus von Klitzing at TU Dresden on 11 April 2018

In his lecture "A new kilogram next year and what it has to do with my Nobel Prize", von Klitzing explained how the International System of Units is to be revolutionised with the help of natural constants. Until now, the unit "kilogramme" was defined by a material prototype - the original kilogramme - which becomes smaller and smaller over time despite elaborate mechanical protection devices.

© Sven Döring

Ben Feringa at TU Dresden on 18 April 2018

Ben Feringa was awarded the Nobel Prize in Chemistry in 2016, together with Jean-Pierre Sauvage and Fraser Stoddart, for "the design and synthesis of molecular machines". Learn more

© Sven Döring

Ben Feringa at TU Dresden on 18 April 2018

In his lecture "The Art of Building Small", Feringa explained how motors can be made from molecules. In 1999, he and his team built the first light-powered micro-car from a few molecules. The molecular motors can be used in the human body, for example in the construction of muscle elements or micromachines - as well as a means of transport for medicine.

© Sven Döring

Serge Haroche at TU Dresden on 27 June 2018

Die Untersuchung von Lichtteilchen brachte Serge Haroche 2012 den Nobelpreis für Physik ein: Ihm gelang es, ein Photon in eine Kiste zu sperren, um quantenmechanische Auswirkungen bei der Kollision von Licht und Materie zu untersuchen. Learn more

© Sven Döring

Serge Haroche at TU Dresden on 27 June 2018

In his lecture "Juggling with atoms and photons in cavity: from fundamental tests to quantum metrology", the French quantum physicist spoke about colliding light and matter particles.

© Michael Schmidt

Ada E. Yonath at TU Dresden on 24 April 2019

For more than 15 years, Ada E. Yonath pursued the vision of deciphering the riddle of ribosomes and thus understanding the fundamental process of protein formation in the human body. In early 2000, the then 61-year-old finally achieved the breakthrough for which she was awarded the Nobel Prize in Chemistry in 2009 - making her only the fourth woman to receive this award at the time. Learn more

© Michael Schmidt

Ada E. Yonath at TU Dresden on 24 April 2019

In her lecture "Ribosomes: A Connection Between The Far Past & Near Future", the Israeli biologist spoke about her scientific achievements in the crystallisation and X-ray structure analysis of ribosomes, which earned her the Nobel Prize, and also about their importance for the development of novel antibiotics.

© Michael Schmidt

Thomas Südhof zu Gast am 26. April 2019

Since the 1980s, Thomas Südhof has been working on the question of how brain cells communicate with each other. In 2013, he was awarded the Nobel Prize in Physiology or Medicine together with Randy W. Schekman and James E. Rothman for his discoveries of mechanisms regulating vesicular traffic. His research results are the basis for therapies against Alzheimer's disease, for example. Learn more

© Michael Schmidt

Thomas Südhof at TU Dresden on 26 April 2019

In his lecture "How Synapses Are Made", Südhof took the audience on a journey to one of the most important transport systems of our cells, the synapses.

© Sven Döring

Michael Kosterlitz at TU Dresden on 15 May 2019

Michael Kosterlitz received the Nobel Prize in Physics in 2016 together with David J. Thouless and F. Duncan M. Haldane for research on the theory of various topological phases of matter. The pioneering work of the three Nobel Prize laureates marked the beginning of the success story of topology in its application to physical problems. Learn more

© Sven Döring

Michael Kosterlitz at TU Dresden on 15 May 2019

In his lecture "Random Walk Through Physics To The Nobel Prize", Kosterlitz not only told of his scientific successes, but also of his great passion: climbing. A climbing crevice in the Italian Alps was even named after him: the "Fessura Kosterlitz".

© Sven Döring

Takaaki Kajita at TU Dresden on 3 July

The Japanese physicist Takaaki Kajita,is known for neutrino experiments at the Kamioka Observatory – Kamiokande and its successor, Super-Kamiokande. In 2015, he was awarded the Nobel Prize in Physics jointly with Canadian physicist Arthur B. McDonald “for the discovery of neutrino oscillations, which shows that neutrinos have mass”. Learn more

© Sven Döring

Takaaki Kajita at TU Dresden on 3 July

In his lecture "Oscillating Neutrinos", Kajita talked about how he was able to detect the mass of neutrinos, the so-called "ghost particles", in a zinc mine 1,000m underground, a result that shook the standard model of elementary particle physics.

© Sven Döring

Sir Andre Geim at TU Dresden on 8 June 2022

For the discovery of the "miracle materials" graphene, Andre Geim was awarded the 2010 Nobel Prize in Physics together with his colleague Konstantin Novoselov. Learn more

© Sven Döring

Sir Andre Geim at TU Dresden on 8 June 2022

"A Random Walk to Graphene" was the title of his lecture, during which Geim revealed much about his scientific curiosity to the Dresden public. For his experiments on diamagnetic levitation, which produced the so-called "levitating frog", he was awarded the Ig Nobel Prize of the year 2000, making him the only person to be both a Nobel and Ig Nobel Prize winner.

© Sven Döring

Sir Gregory Winter at TU Dresden on 22 June 2022

Gregory Winter is a British molecular biologist who in 2018, together with George P. Smith, received the Nobel Prize in Chemistry for the development of phage display of peptides and antibodies. Winter used this technique to develop antibody drugs on a purely human basis for the first time, which can be used to target specific diseases. Learn more

© Sven Döring

Sir Gregory Winter at TU Dresden on 22 June 2022

In his lecture "Harnessing evolution to make new medicines," Sir Gregory explained how he harnessed the principles of evolution to develop targeted antibodies against specific diseases. Winter founded numerous companies that market his antibody drugs, currently Bicycle Therapeutics.

© Sven Döring

Donna Strickland at TU Dresden on 8 February 2023

In 2018, Donna Strickland became the third woman ever, after the German-American Maria Goeppert-Mayer and Marie Curie, to be honored with the Nobel Prize in Physics. In 1985, as a doctoral student at the University of Rochester, Strickland and her supervisor, Gérard Mourou, developed a method for generating ultrashort laser pulses: the so-called chirped pulse amplification (CPA). Learn more

© Sven Döring

Donna Strickland at TU Dresden on 8 February 2023

In 1997, she joined the University of Waterloo, where her ultrafast laser group develops high-intensity laser systems for nonlinear optics investigations. The chirped pulse amplification (CPA) is now used worldwide - for example in laser eye surgery. Learn more

© Sven Döring

Ben List at TU Dresden on 3 May 2023

In 2003, Ben List moved to the Max-Planck-Institut für Kohlenforschung in Mülheim/Ruhr as head of a research group and became one of the directors there in 2005. He still holds this position today. He has been awarded dozens of prestigious prizes in the field of chemistry. In 2021, he received the Nobel Prize for his work on asymmetric organocatalysis. Learn more

© Sven Döring

Ben List at TU Dresden on 3 May 2023

With his group at the Max-Planck-Insitut für Kohlenforschung, Chemistry Nobel Prize Laurates Benjamin List aims towards the invention of new strategies for the development of “perfect chemical reactions”. For him, the science of catalysis is truly fascinating. In his talk, List spoke about the catalysis with organic molecules and how strong and confined acids could become universal catalysts.