The phrase "allows the engineering of" is correct and usable in written English.
It can be used when discussing the capability or permission to design or create something, often in a technical or scientific context.
Example: "This new software allows the engineering of complex algorithms that can solve intricate problems."
Alternatives: "enables the design of" or "facilitates the creation of".
The use of starch in gelled form as porogen allows the engineering of the porosity and the control of pore shape and distribution.
Sundew is an important source of pharmacologically active 1,4-naphthoquinones, and genetic transformation allows the engineering of its biochemical pathways.
The success in expressing the mature cytochrome c″ in E. coli allows the engineering of the cycA gene by site-directed mutagenesis thereby providing an ideal method for producing mutant protein for studying the structure/function relationship.
The large carrying capacity allows the engineering of ACs with multiple copies of the same transgene, gene complexes, and to include regulatory elements necessary for the regulated expression of transgene(s).
This approach allows the engineering of graphene defects and enables further investigation of their effect upon graphene-based sensor characteristics.
Advances in molecular genetic methods have allowed the engineering of increasingly sophisticated animal models of cortical malformations and associated epilepsy.
Background: Recent advances in the molecular biology of polyketide biosynthesis have allowed the engineering of polyketide synthases and the biological ('combinatorial') synthesis of novel polyketides.
The vast variety of these specialist fabrics, and the almost infinite number of parameters available to control their properties, allow the engineering of suitable structures for specific applications.
Furthermore, the ability to manipulate these pathways is now possible and will allow the engineering of crops with improved sulphur acquisition and utilization traits.
The developed models allow the engineering of the rise times, fall times, total pulse time, pulsing frequency, and plasma ion density to minimize the implant energy spread, while maximizing the dose rate.
The advent of nanophotonics has allowed the engineering of very selective emitters and absorbers; however, thermal stability remains a challenge since nanostructures become unstable at temperatures much below the melting point of the used materials.
