Sentence examples for more efficient engineering from inspiring English sources
These findings contribute to a better understanding of roles of α1,6-fucosylation in invertebrates and also to the development of the more efficient engineering of N-glycosylation of recombinant glycoproteins in insect cells.
To thoroughly explore the aerodynamic noise in order to achieve a more efficient engineering application for a vehicle intake system, the large eddy simulation and the finite element method were employed in numerical simulations, and the aeroacoustic characteristics were validated through the experimental data.
If true, then developing improved collections of well-characterized standard biological parts would support the more efficient engineering of increasingly complex and novel biological systems.
In contrast, the concept of reverse engineering has evolved as a powerful tool in which two processes are utilized to genetically characterize existing overproducing strains, and a second generation of information is used for more efficient engineering of new strains that synthesize high yields of natural products [ 79].
Therefore, there is a need to develop more efficient genetic engineering tools.
Functional genomics using high-throughput approaches provides more efficient metabolic engineering design and analysis, but still has limitations.
To construct a safer and more efficient gene engineering Lactococcus lactis for expressing phenylalanine ammonia lyase (PAL) which will benefit PKU therapy.
The method described here would facilitate more efficient metabolic engineering and investigation of physiological functions in R. delemar or other similar mycelial fungi.
Moreover, new technologies enabling more efficient genetic engineering of thermophiles were discussed, such as improved electroporation, ultrasound-mediated DNA delivery, as well as thermo-stable plasmids and functional selection systems.
This suggests that in certain cases, for example, if there are already histidines in the interaction interface (on either interaction partner), mutations, which change the microenvironment of existing histidines might be more efficient for engineering of pH-dependent binding sites than histidine-mutations themselves.
Understanding the influence of sliding speeds and contact pressures on normalized wear rates is important in developing predictive models for designing more efficient and effective engineering system components.
