Our results indicate that KLu2F7 Yb3+/Er3+ GC are promising temperature sensing materials for designing highly sensitive FIR-based optical thermometers.
As a novel bio-recognition element, aptamers, single strand oligonucleotides, with the superiority including strong affinity, high stability, and easy modification of functional groups, have the potential designing highly sensitive, selective and structure switchable sensing assays [12 14].
The present numerical results can provide valuable information for designing highly sensitive resistance-type strain sensors made from various nanocomposites composed of an insulating polymer matrix and conductive nanofillers.
The unique properties of nanoscale materials offer excellent prospects for designing highly sensitive and selective bioassays of nucleic acids and proteins.
Advancements in material research have profound impacts on the development of sensors and may enable us in the future to design highly sensitive and accurate early warning systems.
A novel method was developed to design highly sensitive ethanol gas sensor based on the mechanism of ethanol quasi molecular imprinting.
Moreover, the observed pseudo-Hall effect is 50% larger than p-type with higher carrier concentration grown by the same process which makes n-type 3C-SiC(1 0 0) with low carrier concentration more suitable material for designing highly sensitive micro-mechanical sensors.
Computationally re-designed periplasmic binding proteins (PBPs) provide a means to design highly sensitive and specific ligand sensing capabilities in receptors.
This allowed us to design highly sensitive and highly accurate target peptides in silico from sequence information registered in protein databases including UniProtKB [ 4].
