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Scientific Spokesperson
Prof. (apl.) Dr. Wolfgang Wenzel

Phone: +49(0)721 608-26386

wolfgang wenzelTqj2∂kit edu


Dr. Nathalie Matter-König
Managing Director
Dr. Nathalie Matter-König

Phone: +49(0)721 608-26973
nathalie matter-koenigXbj2∂kit edu

Welcome to the KIT Center Materials in Technical and Life Sciences

The challenges of the digital economy of the 21st century in the context of the forth industrial revolution require a constant development of new materials to enable new and challenging applications. The KIT Center Materials in Technical and Life Sciences integrates KIT research groups from the natural sciences, engineering and life sciences, which share a common interest in material research and in the development of new materials. The close cooperation between scientists from different disciplines creates a great potential for leading edge research in material sciences. The technological development requires continuous research into and development of new efficient materials for specific applications. In the KIT Materials Center, new materials and technologies are developed in a closed chain, from basic research to economic implementation, thanks to the integration of basic and application-oriented research. The development of nanostructured materials as well as the development of environmentally friendly technologies play a special role in the KIT Center. Furthermore, the integration of information-based approaches and modeling in the context of the digitalization of material sciences plays a growing, and increasingly important, role.

The work of the KIT Materials Center covers five topics:



Agent 007: Organic Molecules as Bearers of Secrets

KIT Scientists Design Chemical Compounds for Use as Passwords for Encrypted Information. They use a new and highly secure approach by combining computer science with chemistry and a conventional encryption method with a chemical password. Their development is now reported in an open access publication in Nature Communications, April 2018.

Groundbreaking for the ZEISS Innovation Hub @ KIT

New ZEISS Site at One of the Most Innovative Locations in Germany – New Space for Spinoffs and Enhanced Collaboration between Business and Academia – 12,000 m2 of Flexible Space Thanks to an Investment of EUR 30 Million

KIT Press Release

Microenergy Supply without Battery and Cable

KIT’s Startup otego GmbH Has Developed “oTEG,“ the First Commercial Printed Thermoelectric Generator Worldwide.

KIT Press Release

Why Perovskite Solar Cells Are So Efficient

Solar cells with efficiencies above 20% and produced at low costs – perovskites make this possible. Now, KIT-researchers have gained fundamental insight into the function of perovskite solar cells. They found that bound states of electron-hole pairs can form during the absorption of light. Still, these pairs can be separated easily for current to flow. In addition, they enhance absorption.

Appl. Phys. Lett., Jan 2018

3D Nanoprinting Facilitates Communication with Light

Researchers of KIT have how developed a new solution for the coupling of optical microchips to each other or to optical fibers. They use tiny beam-shaping elements that are printed directly onto the facets of optical components by a high-precision 3D printing process. These elements can be produced with nearly any three-dimensional shape and enable low-loss coupling of various optical components with a high positioning tolerance.

Nature Photonics, March 2018

Optical Distance Measurement at Record-High Speed

Graphic representation of measurement with a laser beam on a bullet. (Graphics: Christian Grupe, Philipp Trocha, KIT)

Microresonator-based optical frequency combs enable highly-precise optical distance ranging at a rate of 100 million measurements per second – publication in Science, Feb. 2018

DPG Prize for Superprecise 3D Laser Printing

Revolutionary 3D Laser Printing Process Is Used Worldwide – The German Physical Society Honors the Institute of Nanotechnology and the Innovation Management Service Unit of KIT as well as the Nanoscribe company.

KIT-Press Release

How Fungi Grow: A Movie from Inside the Cell

Fungi may be harmful pathogens. On the other hand, they are used for the production of food or medicine and in bioengineering. In either case, it is required to precisely understand their growth mechanism.Using high-performance light microscopy, KIT-Researchers watched mold fungi as they grew in the cell. The findings are presented in Science Advances

KIT Press Release

Scientists Observe Nanowires as They Grow

Report on a growth study of self-catalyzed GaAs nanowires based on time-resolved in situ X-ray structure characterization during molecular-beam-epitaxy in combination with ex situ scanning-electron-microscopy.

Nano Lett., Jan 2018
Komplexe Parkettmuster
Complex Tessellations, Extraordinary Materials

A surface-confined multistep reaction allows for the observation of the emergence of complexity through the formation of a defect-tolerant molecular network.

Nat. Chem., Jan 2018

Science: Metamaterial mit Dreheffekt

Kräfte von oben werden über Stege auf die senkrecht stehenden Ringstrukturen übertragen. Deren
Rotation übt zieht an den Ecken der waagerechten Flächen des Würfels.
Pressemitteilung des KIT

Fluoropor Beschichtung
Neuer Werkstoff schützt gegen Wasser und Schmutz

Transparente Beschichtung für Alltagsanwendungen

Neuer Werkstoff „Fluoropor“ lässt Wasser abperlen und widersteht Abrieb dank durchgehender Nano-/Mikrostruktur.

„Fluoropor“ als Beschichtung auf einer Kupfer-Dünnschicht.

Presseinformation des KIT

Stiefmütterchen hilft die Lichtausbeute bei Solarzellen zu erhöhen

Wissenschaftler am KIT kopieren Mikrostrukturen auf der Blüte und erhöhen die Leistung von Solarzellen

Presseinformation des KIT

Mikroskopie: Scharfer Blick auf empfindliche Proben

Neues Multifunktions-Elektronenmikroskop am KIT kann Strukturen in empfindlichen Materialien aufspüren. Nahaufnahme des neuen Multifunktions-Elektronenmikroskops am KIT.

Presseinformation des KIT

Quantensimulator: erster funktionierender Baustein

Supraleitender Quantensimulator übertrifft konventionellen Computer und könnte komplizierte biologische Prozesse wie den Pflanzenstoffwechsel abbilden
Quantenbits können im Gegensatz zu klassischen Bits zwei Zustände zugleich annehmen: rechts und links, gelb und blau, Null und Eins.

Presseinformation des KIT

Kernspinresonanz hohe Sensitivitaet auf engem Raum
Kernspinresonanz: hohe Sensitivität auf engem Raum

Zwei Lenz-Linsen in einem Helmholtz-Spulenpaar angeordnet. Die Simulation zeigt, wie die Lenz-Linsen den magnetischen Fluss räumlich fokussieren.

Presseinformation des KIT
Navigationssystem der Hirnzellen entschlüsselt

Hirnentwicklung in der Petrischale: Axone (gruen) der Nervenzellen der Netzhaut lesen beim Wachstum mit molekularen Antennen (magenta) an ihrem Ende chemische Signale, die zum Ziel führen.

Presseinformation des KIT