Recent progress in the field of nanophotonics has opened
up novel
avenues for developing nanomaterial-based biosensing systems, which
can detect various disease-specific biomarkers, including long noncoding
RNAs (lncRNAs) known to circulate in biological fluids. Herein, we
designed and developed a nanophotonic approach for rapid and specific
capture of lncRNAs using oligonucleotide-conjugated graphene quantum-dot-nanoconjugates.
The method offers accurate identification of the target lncRNAs with
high selectivity, despite the presence of other molecules in the given
sample. The observations also pointed toward the high feasibility
and simplicity of the method in the selective determination of lncRNAs.
Overall, the approach has the potential of assessing lncRNA expression
as a function of disease initiation and progression.
Air pollution has emerged as a serious threat to human health due to close association with spectrum of chronic ailments including cardiovascular disorders, respiratory diseases, nervous system dysfunctions, diabetes and cancer. Exposure to air-borne pollutants along with poor eating behaviours and inferior dietary quality irreversibly impacts epigenomic landscape, leading to aberrant transcriptional control of gene expression which is central to patho-physiology of non-communicable diseases. It is assumed that nutriepigenomic interventions such as vitamins can control such adverse effects through their immediate action on mitochondrial epigenomic-axis. Importantly, the exhaustive clinical utility of vitamins-interceded epigenetic synchronization is not well characterized. Therefore, improving the current limitations linked to stability and bioavailability issues in vitamin formulations is highly warranted. The present review not only sums up the available data on the role of vitamins as potential epigenetic modifiers but also discusses the importance of nano-engineered vitamins as potential epidrugs for dietary and pharmacological intervention to mitigate the long-term effects of air pollution toxicity.
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