Zukünftige Termine
Events die der OC oder GDCh zuzuordnen sind.
- 2026-10-21T17:15:00+02:00
- 2026-10-21T19:00:00+02:00
21
MittwochGDCh-Kolloquium: Prof. Dr. Hiroaki Suga
Prof. Dr. Hiroaki Suga, The University of Tokyo, Department of Chemistry: Genetic Code Reprogramming by flexizymes for Therapeutic Innovation Genetic code reprogramming is the method to redesign the genetic code restricted by 20 pro-teinogenic amino acids with other exotic building blocks. Although there are some ways to re-program the genetic code, flexizymes invented by Suga and colleagues are highly versatile cata-lysts to charge a wide range of such amino acids, including D-amino acids, beta/gamma-amino acids, and hydroxy acids. The combination of flexizyme technology with a custom-made cell-free translation system, referred to as Flexible In-vitro Translation (FIT) system, enables for ex-pression of libraries of nonstandard peptides containing exotic building blocks. This method is further integrated with mRNA display has led to the invention of RaPID (Random nonstandard Peptides Integrated Discovery) system, giving ultrafast discovery of de novo bioactive peptides.
- 2026-11-17T17:15:00+01:00
- 2026-11-17T19:00:00+01:00
17
DienstagGDCh - Verleihung der Sigrid Peyerimhoff-Preise
GDCh - Verleihung der Sigrid Peyerimhoff-Preise ...................................................
- 2026-12-08T17:00:00+01:00
- 2026-12-08T19:00:00+01:00
8
DienstagGDCh-Kolloquium: Prof. Dr. Peer Kirsch
Prof. Dr. Peer Kirsch, TU Darmstadt: Self-Assembled Monolayers for Molecular Electronics and Spintronics Functionalized self-assembled monolayers (SAMs) can be used as active components in electronic and spintronic devices. SAMs composed of dipolar, conformationally flexible phosphonic acids enable elec-trically switchable tunnel junctions with memristive characteristics. The performance of such organic devices is comparable to that of their state-of-the-art inorganic counterparts. The big advantage of organic systems is their intrinsic functional versatility: a rather complex property profile can be easily designed into the individual component molecules, whereas deposition and device fabricating pro-cesses remain always the same. A potential challenge of many SAM systems - thermal stability - was resolved by using thermally and chemically robust phosphonic acids as anchoring groups which are compatible with oxide and nitride substrate materials common in electronics industry.