Sentence examples for biological electronic from inspiring English sources
The metal and metal oxide NPs have attractable properties like biological, electronic, magnetic, and photocatalytic activity [5].
The study of surface morphology of Au deposited on mica is crucial for the fabrication of flat Au films for applications in biological, electronic, and optical devices.
In this framework, the study of the surface morphology of Au deposited on mica is crucial [18 39] in view of the fabrication of flat Au films for applications in biological, electronic, optical devices and techniques (i.e. surface enhanced Raman spectroscopy).
The technique has found tremendous utility in preparing materials with interesting biological, electronic, and mechanical properties.
So the car, the plane, the bicycle, the voice-only telephone, the espresso machine and, luckily, the wall-to-wall bookshelf will still be with us.The world will face severe biological and electronic pandemics, another gift from globalisation.Religious practice will experience a revival, seen as a conveyor of robust heuristics, cultural values and rituals.
Au and Ag NPs are among the most widely used nanomaterials in biological and electronic applications.
The composites formed could find the potential applications as antibacterial and conducting materials for biological and electronic devices.
But by seeking to create an artificial organism that seamlessly merges biological and electronic parts, the team is creating an entirely new model of what a robot can be.
The prototype of an amperometric glucose biosensor was realized by thermal inkjet printing using biological and electronic water-based inks, containing a glucose oxidase (GOD) from Aspergillus niger and the conducting polymer blend poly 3,4-ethylenedioxythiophene/polystyrene sulfonic acid) (poly 3,4-ethylenedioxythiophene/polystyrene
The rational design of materials with tailored properties is of paramount importance for a wide variety of biological, medical, electronic and optical applications.
Now that the validity of exploiting supramolecular interactions for the design of surfaces with well-defined density and spatial distribution of functional groups has been established, we anticipate that this strategy will play a significant role in the future of functionalized surface materials for wide variety of biological, medical, electronic, and optical applications.
