Beyond polydopamine: expanding the horizon of polycatecholamines for biomaterials and biomedical technologies

Polydopamine (pDA) has emerged as a benchmark material in bioinspired engineering, owing to its facile synthesis, strong adhesion, and chemical versatility. However, pDA is just one member of the broader polycatecholamine family, which includes poly-L-DOPA (pLD), polynorepinephrine (pNE), and polyepinephrine (pEP); each offering unique chemical functionalities and biological advantages. In this perspective, we critically assess the biomedical potential of these underexplored polymers, highlighting how their distinct physicochemical properties can expand current applications in surface modifications, coatings, biointerfaces, bioadhesives, biosensors, and carriers for drug delivery. Comparative analysis reveals that while pDA dominates the field, alternative polycatecholamines also exhibit equally attractive properties, such as enhanced hydrophilicity, biofunctionalization capacity, redox behaviour, and stimuli responsiveness. By broadening the focus beyond pDA, this work aims at catalysing future research on structurally diverse polycatecholamines as next-generation multifunctional biomaterials.

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Publication Details

Journal
Biomaterials Science
Published
2025-12-17
DOI
https://doi.org/10.1039/d5bm01357g
Primary Topic
Polymer Surface Interaction Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Beyond polydopamine: expanding the horizon of polycatecholamines for biomaterials and biomedical technologies

Fabio Variola, Elena Rainone, Hossam Alshaiba
Biomaterials Science
Polymer Surface Interaction Studies
article

Beyond polydopamine: expanding the horizon of polycatecholamines for biomaterials and biomedical technologies

Fabio Variola, Elena Rainone, Hossam Alshaiba
article en

Abstract

Polydopamine (pDA) has emerged as a benchmark material in bioinspired engineering, owing to its facile synthesis, strong adhesion, and chemical versatility. However, pDA is just one member of the broader polycatecholamine family, which includes poly-L-DOPA (pLD), polynorepinephrine (pNE), and polyepinephrine (pEP); each offering unique chemical functionalities and biological advantages. In this perspective, we critically assess the biomedical potential of these underexplored polymers, highlighting how their distinct physicochemical properties can expand current applications in surface modifications, coatings, biointerfaces, bioadhesives, biosensors, and carriers for drug delivery. Comparative analysis reveals that while pDA dominates the field, alternative polycatecholamines also exhibit equally attractive properties, such as enhanced hydrophilicity, biofunctionalization capacity, redox behaviour, and stimuli responsiveness. By broadening the focus beyond pDA, this work aims at catalysing future research on structurally diverse polycatecholamines as next-generation multifunctional biomaterials.

Biomaterials ScienceVol. 14(3)
University of Ottawa (CA), Children's Hospital of Eastern Ontario (CA), Carleton University (CA)
Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 62%
Polymer Surface Interaction Studies
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