Boron–Diol Chemistry in Marine Systems: Biological Interfaces, Microbial Communication, and Therapeutic Potential Review
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MARINE MEDICINE
ISSN: 3107-1627 |
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| Output data | Year: 2026, Volume: 2, Number: 2, Pages: 39-62 Pages count : 24 DOI: 10.64187/mm.2026.v2.i2.003 | ||||
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Abstract:
Boron is widely distributed in marine and biological systems, particularly in seawater, where it exists in dynamic
equilibrium between boric acid and borate, yet its functional roles remain incompletely understood. Unlike
transition metals, boron does not form stable coordination complexes under physiological conditions but instead
engages in reversible interactions with cis-diol-containing biomolecules, including carbohydrates, ribose
derivatives, and catechol-based metabolites. In marine environments, where diol-rich polysaccharides, biofilms,
and glycoconjugates are abundant, this chemistry is especially relevant at biological interfaces. Here, we propose
that such dynamic boron–diol interactions enable boron to function as a molecular architect of glycan-rich
interfaces. We develop a unifying framework in which borate-mediated coordination transiently links carbohydrate
and amphiphilic domains, generating reversible amphiphile–carbohydrate assemblies that respond to
environmental conditions. These processes provide a mechanistic basis for adaptive interfacial organization in
marine systems, including microbial biofilms, host-associated microbiota, and mucosal-like surfaces. Extending
this concept, boron-mediated interactions may also influence siderophore activity and microbial communication in
marine ecosystems. From a biomedical perspective, these interface-regulating properties suggest potential roles for
boron-containing systems in modulating biofilms, host–microbe interactions, and disease-related processes.
Furthermore, we propose that similar mechanisms may have contributed to early evolution, facilitating the
coupling of simple sugars with primitive amphiphiles and promoting the emergence of protomembrane structures
prior to the development of covalently defined lipid membranes. This perspective reframes boron as a dynamic
mediator of molecular organization across marine and biological systems, operating within a transient coordination
layer that remains largely inaccessible to conventional biochemical analysis
Cite:
Dembitsky V.M.
, Terent’ev A.O.
Boron–Diol Chemistry in Marine Systems: Biological Interfaces, Microbial Communication, and Therapeutic Potential
MARINE MEDICINE. 2026. V.2. N2. P.39-62. DOI: 10.64187/mm.2026.v2.i2.003 OpenAlex
Boron–Diol Chemistry in Marine Systems: Biological Interfaces, Microbial Communication, and Therapeutic Potential
MARINE MEDICINE. 2026. V.2. N2. P.39-62. DOI: 10.64187/mm.2026.v2.i2.003 OpenAlex
Dates:
| Submitted: | Apr 24, 2026 |
| Accepted: | Jun 9, 2026 |
| Published online: | Jul 5, 2026 |
Identifiers:
| ≡ OpenAlex: | W7170040299 |