Max Planck Institute for the Structure and Dynamics of Matter

Max Planck Institute for the Structure and Dynamics of Matter

New methods are enabling physicists and biologists at the Max Planck Institute for the Structure and Dynamics of Matter to break new scientific ground. With the help of new radiation sources, especially the x-ray free-electron laser being built at the DESY in Hamburg, the researchers can show the properties and behavior of matter at a spatial resolution of a few nanometers and at time intervals of a few billionths of a billionth of a second. This provides them with completely new insights into the structure and function of biological materials and into the properties of solids and their electronic and structural dynamics. The coherent light of lasers enables the physicists to inspect the collective properties, for example superconductivity, of complex solids, including many types of ceramics.

Contact

Luruper Chaussee 149, Geb. 99 (CFEL)
22761 Hamburg
Phone: +49 40 8998-6570
Fax: +49 40 8994-6570

PhD opportunities

This institute has an International Max Planck Research School (IMPRS):
IMPRS for Ultrafast Imaging and Structural Dynamics

In addition, there is the possibility of individual doctoral research. Please contact the directors or research group leaders at the Institute.

Superconductivity: footballs with no resistance
Indications of light-induced lossless electricity transmission in fullerenes contribute to the search for superconducting materials for practical applications more
Femtochemistry: Atomic ballet in slow motion
Short electron pulses make it possible to observe a structural change in a complex molecule as if watching a film more
Superconductivity without cooling

Superconductivity without cooling

News December 03, 2014
An infrared laser pulse briefly modifies the structure of a high-temperature superconductor and thus removes its electrical resistance even at room temperature more
Graphene can emit laser flashes

Graphene can emit laser flashes

News October 25, 2013
Individual layers of carbon atoms are suitable as active material for terahertz lasers, as they permit population inversion more
The Hanseatic City is set to become an international centre for structural research more
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How light changes matter: from a laser to a few photons

2017 Ruggenthaler, Michael; Hübener, Hannes; Sentef, Michael A.; Appel, Heiko; Rubio, Angel
Chemistry Material Sciences Quantum Physics Solid State Research
The properties of matter, e.g., the conductivity, can be tailored with light. This can be done with a lot of photons that are part of a laser beam, or in certain cases only a few photons are enough. In the theory department of the Max Planck Institute for the Structure and Dynamics of Matter in Hamburg, researchers use both extreme cases to investigate novel states of matter: a laser allows theoretically generating hitherto unobserved states of matter and via a few photons chemical reactions can be altered. more

Molecular movie from Hamburg

2016 Hayes, Stuart; Manz, Stephanie; Bücker, Robert; Kassier, Günther; Miller, R.J. Dwayne.
Chemistry Material Sciences
Many processes in the chemistry of life take place on ultrashort length and time scales. Their observation thus lies beyond the capabilities of optical microscopes. The investigation of such processes using novel electron sources in many cases presents a cost-saving alternative to X-ray studies using synchrotron radiation sources and free-electron lasers. Also the development of methods for the preparation of liquid samples is essential for the study of many organic materials. more

Superconductivity at room temperature: A dream becomes reality for a split second

2015 Först, M.; Mankowsky, R.; Kaiser, S.; Hu, W.; Cavalleri, A.
Material Sciences Solid State Research

Superconductors carry an electric current without resistance only at low temperatures. Now, for the first time, scientists have turned a ceramic crystal into a superconductor even at room temperature, using an ultrashort mid-infrared flash of light. The superconducting state survived only for a couple of picoseconds (millionth of a microsecond), and the researchers found that this light-induced state is based on certain distortions of the material’s crystal lattice. These findings may aid the quest for higher temperature superconductors and pave the way for novel applications.

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