NEXT STORY

The necessity for the theory for hypercycles

RELATED STORIES

a story lives forever

Register

Sign in

My Profile

Sign in

Register

NEXT STORY

The necessity for the theory for hypercycles

RELATED STORIES

No theory without experiments, no experiments without theory

Manfred Eigen
Scientist

Views | Duration | ||
---|---|---|---|

51. A nice story about quasispecies | 178 | 01:06 | |

52. Günther Strunk's true evolution experiment | 163 | 03:08 | |

53. Nature finds a way not to calculate everything in detail | 126 | 05:53 | |

54. A chance meeting with Francis Crick in Mainz | 204 | 01:02 | |

55. What does a hypercycle do? | 317 | 03:42 | |

56. Proving the hypercycle system | 150 | 03:49 | |

57. "The Hypercycle - A Principle of Natural... | 1 | 222 | 01:12 |

58. No theory without experiments, no experiments without theory | 367 | 04:40 | |

59. The necessity for the theory for hypercycles | 138 | 01:46 | |

60. Einstein and the theory of quantum mechanics | 275 | 01:45 |

- 1
- ...
- 4
- 5
- 6
- 7
- 8
- ...
- 12

Comments
(0)
Please sign in or
register to add comments

First was theory, I told you, and then there were experiments, we said we can't simply make theory. We have to find out that we do the right theory, or the relevant type of theory, and that we did by those experiments. And then we found, yes, we can even do theories for... experiments for things where you cannot do the theory. This evolution experiment, you cannot calculate it, the evolution tells you the system will find the optimal solution, and it did so, but the way how it did it nobody would have guessed before. So this established the technological principle, and now comes the third phase that we built machines for the purpose of using them for finding new substances and this is an entirely new phase in our work.

Before I get to this phase I should say perhaps a little more about theory... about Peter Schuster. I cannot introduce you into this theory of highly non-linear networks, but I can say what are the problems and what are the type of solutions we look for, and let's just start with that.

[Q] *That's a good idea. But I would like to say the following. I have learned, being with you for more than thirty years, that you are a person, a scientist, who says, 'No theory without experiments, no experiments without theory'. So this just... that's your slogan for your science but this is... *

That's the way physics works.

[Q] *Yes, but there are physicists who only concentrate on theory, and you combine it in a... I would say a very efficient way, otherwise the evolution... *

There was one great physicist who really placed the theory above everything, that was Albert Einstein. When Einstein founded general relativity there was no experimental... no proof... but there was no experimental evidence on which he could base his theory. It was made a theory out of his head, and it turned out to be a right theory. The special relativity, you could say there was the Michelson-Morley experiment which said that light velocity is independent of the system in which... so you cannot add velocity, the light velocity is an absolute way an upper limit of velocity and also that the light velocity was a limiting velocity came out of Maxwell's electromagnetic theory. So you could say, all right, for special relativity there were some hints - but still, I mean it... surprising results. Einstein made a theory of relativity to become independent of time and space and out came a relation like that mass is equivalent to energy and vice versa. And then in gravitation theory mass determines... bends the space, and causes light beams to be deflected by mass.

There was no experimental proof by then and it took quite some time and it turned out to be right. All other theories I think have been based on experimental facts. Think quantum mechanics, we had quantum theory, it was recognised by Planck and Einstein with his photoelectric law, that energy is quantized. But then people tried to understand the spectra and it didn't work. They knew there is a new theory which has to come and which has to be described and Heisenberg and Schrödinger independently found this new type of theory and it turned out to be equivalent to one another.

Nobel Prize winning German biophysical chemist, Manfred Eigen (1927-2019), was best known for his work on fast chemical reactions and his development of ways to accurately measure these reactions down to the nearest billionth of a second. He published over 100 papers with topics ranging from hydrogen bridges of nucleic acids to the storage of information in the central nervous system.

**Title: **No theory without experiments, no experiments without theory

**Listeners:**
Ruthild Winkler-Oswatitch

Ruthild Winkler-Oswatitsch is the eldest daughter of the Austrian physicist Klaus Osatitsch, an internationally renowned expert in gas dynamics, and his wife Hedwig Oswatitsch-Klabinus. She was born in the German university town of Göttingen where her father worked at the Kaiser Wilhelm Institute of Aerodynamics under Ludwig Prandtl. After World War II she was educated in Stockholm, Sweden, where her father was then a research scientist and lecturer at the Royal Institute of Technology.

In 1961 Ruthild Winkler-Oswatitsch enrolled in Chemistry at the Technical University of Vienna where she received her PhD in 1969 with a dissertation on "Fast complex reactions of alkali ions with biological membrane carriers". The experimental work for her thesis was carried out at the Max Planck Institute for Physical Chemistry in Göttingen under Manfred Eigen.

From 1971 to the present Ruthild Winkler-Oswatitsch has been working as a research scientist at the Max Planck Institute in Göttingen in the Department of Chemical Kinetics which is headed by Manfred Eigen. Her interest was first focused on an application of relaxation techniques to the study of fast biological reactions. Thereafter, she engaged in theoretical studies on molecular evolution and developed game models for representing the underlying chemical proceses. Together with Manfred Eigen she wrote the widely noted book, "Laws of the Game" (Alfred A. Knopf Inc. 1981 and Princeton University Press, 1993). Her more recent studies were concerned with comparative sequence analysis of nucleic acids in order to find out the age of the genetic code and the time course of the early evolution of life. For the last decade she has been successfully establishing industrial applications in the field of evolutionary biotechnology.

**Tags:**
Michelson–Morley experiment, Maxwell's electromagnetic theory, gravitational theory, quantum mechanics, photoelectric law, quantized energy, Peter K Schuster, Albert Einstein, Albert A Michelson, Edward W Morley, James Clerk Maxwell, Max Karl Ernst Ludwig Planck, Werner Karl Heisenberg, Erwin Rudolf Josef Alexander Schrödinger, Erwin Schrödinger

**Duration:**
4 minutes, 41 seconds

**Date story recorded:**
July 1997

**Date story went live:**
24 January 2008