The potential for ultrahigh-throughput compartmentalization renders droplet microfluidics an attractive tool for the directed evolution of enzymes. Importantly, it ensures maintenance of the phenotype-genotype linkage throughout optimization, enabling reliable identification of improved mutants. The full potential of droplet microfluidics remains unexplored, however, as droplet sorting often relies on low-throughput, custom-made devices that typically only allow simultaneous analysis of two parameters. Here, we report an approach for ultrahigh-throughput screening of an artificial metalloenzyme in double emulsion droplets (DEs) using commercially-available fluorescence-activated cell sorters (FACS). This protocol was validated by screening ...
Ultrahigh-throughput screening, in which members of enzyme libraries compartmentalized in water-in-o...
SummarySingle bacterial cells, each expressing a different library variant, were compartmentalized i...
The explosive growth in our knowledge of genomes, proteomes, and metabolomes is driving ever-increas...
The potential for ultrahigh-throughput compartmentalization renders droplet microfluidics an attract...
The potential for ultrahigh-throughput compartmentalization renders droplet microfluidics an attract...
‘Promiscuous’ enzymes possess additional activities in addition to their native ones, challenging th...
SummaryWe describe a completely in vitro high-throughput screening system for directed evolution of ...
Directed evolution relies on iterative cycles of randomization and selection. The outcome of an arti...
This is the final version. Available from National Academy of Sciences via the DOI in this recordUlt...
The successful creation of custom-made enzymes by directed evolution relies in no small part on scre...
The present PhD thesis summarizes the scientific work conducted in the research group of Prof. Dr. T...
© 2017, National Academy of Sciences. All rights reserved.Ultrahigh-throughput screening (uHTS) tech...
A high-throughput method for single cell screening by microfluidic droplet sorting is applied to a w...
Artificial metalloenzymes (ArMs) are a class of enzymes holding great promise. In contrast to natura...
SummaryDuring the last 25 years, display techniques such as phage display have become very powerful ...
Ultrahigh-throughput screening, in which members of enzyme libraries compartmentalized in water-in-o...
SummarySingle bacterial cells, each expressing a different library variant, were compartmentalized i...
The explosive growth in our knowledge of genomes, proteomes, and metabolomes is driving ever-increas...
The potential for ultrahigh-throughput compartmentalization renders droplet microfluidics an attract...
The potential for ultrahigh-throughput compartmentalization renders droplet microfluidics an attract...
‘Promiscuous’ enzymes possess additional activities in addition to their native ones, challenging th...
SummaryWe describe a completely in vitro high-throughput screening system for directed evolution of ...
Directed evolution relies on iterative cycles of randomization and selection. The outcome of an arti...
This is the final version. Available from National Academy of Sciences via the DOI in this recordUlt...
The successful creation of custom-made enzymes by directed evolution relies in no small part on scre...
The present PhD thesis summarizes the scientific work conducted in the research group of Prof. Dr. T...
© 2017, National Academy of Sciences. All rights reserved.Ultrahigh-throughput screening (uHTS) tech...
A high-throughput method for single cell screening by microfluidic droplet sorting is applied to a w...
Artificial metalloenzymes (ArMs) are a class of enzymes holding great promise. In contrast to natura...
SummaryDuring the last 25 years, display techniques such as phage display have become very powerful ...
Ultrahigh-throughput screening, in which members of enzyme libraries compartmentalized in water-in-o...
SummarySingle bacterial cells, each expressing a different library variant, were compartmentalized i...
The explosive growth in our knowledge of genomes, proteomes, and metabolomes is driving ever-increas...