Microorganisms for energy – does it work? And how could this be connected with CO2 conversion? Microorganisms particularly gained interest in carbon capture and utilization research due to the ability to convert CO2 to a broad range of possible valuable products and fuels. Application of such microorganisms has become highly attractive as several different strains of pure as well as mixed cultures of microorganisms are suitable for application in biofuel and biochemical generation.
Complex, recalcitrant polymers represent a barrier in the biodegradation process during anaerobic digestion (AD) towards biogas production. This concerns both, biopolymers from plant waste as well as synthetic polymeric plastics entering biogas plants as packaging material with food waste. Therefore, microbial populations and their enzymes involved in the hydrolysis of lignocellulose-rich plant material and modified polyesters are investigated to develop a strategy to biologically boost the conversion of waste to bioenergy by tailor-made microbial communities and bioaugmentation.
Natural products play a vital role in our everyday life- say in detergents, for the food and beverage production or in medicine. For the discovery of new natural products of bacteria a methodology called functional metagenomics opens up new possibilities.
Follow up with the second article of “Connection carbon”. Missed to read the first part? Here you go!
Among numerous carbon-carbon coupling reactions in organic synthesis, the Friedel-Crafts acylation enables the direct connection of aromatic compounds with carbonyl moieties. It is therefore one of the most popular chemical transformations and extensively used. The resulting products- aromatic ketones- are valuable building blocks and relevant to a range of industrial sectors, including the pharmaceutical, biotechnological and fine chemical industry. ACIB pioneers in developing a biocatalytic equivalent for this fundamental reaction, thereby exploiting a so-far little investigated cofactor-independent acyltransferase. But why considering enzymes to do this reaction?
Products derived from industrial biotechnology often compete with chemical processes. But what are the main aspects for successful applications of industrial biotechnology in manufacturing? Processes should be fast, cost-efficient and – from technological point of view – biocatalysts and enzymes need to deal with harsh process conditions.
In the past years the advent of microbiome research was facilitated by a tremendous decrease in DNA sequencing costs. The progression of sequencing technology and the growing demand for large datasets (beyond the size of the human genome) enabled this favorable progress, which even surpassed Moore’s Law. There are various technologies that benefited from these developments and many of them have a set position in modern laboratories.
Welcome to the first of two articles about “Connection Carbon“.
Carbon-carbon bonds are the basis for all vital organic molecules, which makes them attractive building blocks for e.g. pharmaceuticals, fragrances, flavors and many others. The key to an efficient and green production thereof are specific enzymes.