Natural Compounds as Target Biomolecules in Cellular Adhesion and Migration: From Biomolecular Stimulation to Label-Free Discovery and Bioactivity-Based Isolation.
Beatrix PéterImre BoldizsárGábor M KovácsAnna ErdeiZsuzsa BajtayAlexandra VörösJeremy J RamsdenIldikó SzabóSzilvia Erika BőszeRobert HorvathPublished in: Biomedicines (2021)
Plants and fungi can be used for medical applications because of their accumulation of special bioactive metabolites. These substances might be beneficial to human health, exerting also anti-inflammatory and anticancer (antiproliferative) effects. We propose that they are mediated by influencing cellular adhesion and migration via various signaling pathways and by directly inactivating key cell adhesion surface receptor sites. The evidence for this proposition is reviewed (by summarizing the natural metabolites and their effects influencing cellular adhesion and migration), along with the classical measuring techniques used to gain such evidence. We systematize existing knowledge concerning the mechanisms of how natural metabolites affect adhesion and movement, and their role in gene expression as well. We conclude by highlighting the possibilities to screen natural compounds faster and more easily by applying new label-free methods, which also enable a far greater degree of quantification than the conventional methods used hitherto. We have systematically classified recent studies regarding the effects of natural compounds on cellular adhesion and movement, characterizing the active substances according to their organismal origin (plants, animals or fungi). Finally, we also summarize the results of recent studies and experiments on SARS-CoV-2 treatments by natural extracts affecting mainly the adhesion and entry of the virus.
Keyphrases
- label free
- cell adhesion
- gene expression
- biofilm formation
- sars cov
- human health
- ms ms
- healthcare
- anti inflammatory
- signaling pathway
- cell migration
- escherichia coli
- pseudomonas aeruginosa
- high throughput
- drinking water
- candida albicans
- climate change
- cystic fibrosis
- endoplasmic reticulum stress
- cell proliferation
- single cell