Home / Articles / Antipathogenic polymer surfaces: a review

Antipathogenic polymer surfaces: a review

Olga Alexandrovna Novoskoltseva 1
Olga Alexandrovna Novoskoltseva
, 
Aleksandr Anatol'evich Yaroslavov 1
Aleksandr Anatol'evich Yaroslavov
1 Department of Chemistry, M. V. Lomonosov Moscow State University, 119991 Moscow, Russian Federation
10.71267/mencom.8034
Published 28 July 2026 , received 6 March 2026
Focus article , Volume 36, Issue 5, 493-501
0
Share
Cite this
GOST
 | 
Cite this
GOST
Copy cite
Novoskoltseva O. A., Yaroslavov A. A. Antipathogenic polymer surfaces: a review // Mendeleev Communications. 2026. Vol. 36. No. 5. pp. 493-501.
GOST all authors (up to 50)
Copy cite
Novoskoltseva O. A., Yaroslavov A. A. Antipathogenic polymer surfaces: a review // Mendeleev Communications. 2026. Vol. 36. No. 5. pp. 493-501.
RIS
 | 
Cite this
RIS
Copy cite
TY - JOUR
DO - 10.71267/mencom.8034
UR - https://mendcomm.colab.ws/publications/10.71267/mencom.8034
TI - Antipathogenic polymer surfaces: a review
T2 - Mendeleev Communications
AU - Novoskoltseva, Olga Alexandrovna
AU - Yaroslavov, Aleksandr Anatol'evich
PY - 2026
DA - 2026/07/28
PB - Mendeleev Communications
SP - 493-501
IS - 5
VL - 36
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
Copy cite
@article{2026_Novoskoltseva,
author = {Olga Alexandrovna Novoskoltseva and Aleksandr Anatol'evich Yaroslavov},
title = {Antipathogenic polymer surfaces: a review},
journal = {Mendeleev Communications},
year = {2026},
volume = {36},
publisher = {Mendeleev Communications},
month = {Jul},
url = {https://mendcomm.colab.ws/publications/10.71267/mencom.8034},
number = {5},
pages = {493--501},
doi = {10.71267/mencom.8034}
}
MLA
Cite this
MLA
Copy cite
Novoskoltseva, Olga Alexandrovna, and Aleksandr Anatol'evich Yaroslavov. “Antipathogenic polymer surfaces: a review.” Mendeleev Communications, vol. 36, no. 5, Jul. 2026, pp. 493-501. https://mendcomm.colab.ws/publications/10.71267/mencom.8034.
Views / Visits
177 / 170

Keywords

antimicrobial
coating
pathogen
polymer
surface

Abstract

The uncontrolled spread of pathogenic microorganisms is recognized as one of the most serious threats to human health in recent times. Antimicrobial polymers represent an important, rapidly developing strategy for preventing microbial growth and suppressing infection, providing highly effective, broad-spectrum pathogen killing through the physical disruption of cell membranes. The non-specific action of antimicrobial polymers prevents the development of multidrug resistance, making them a promising, sustainable alternative to traditional antibiotics, particularly for medical devices and coating. The review examines the key methods for producing antipathogenic polymer coatings with the contact-active and antifouling mechanisms of antimicrobial action, as well as prospects for further development.

Funders

Ministry of Education and Science of the Russian Federation
075-15-2024-483

References

3.
The Mechanisms and the Applications of Antibacterial Polymers in Surface Modification on Medical Devices
Qiu H., Si Z., Luo Y., Feng P., Wu X., Hou W., Zhu Y., Chan-Park M.B., Xu L., Huang D.
Frontiers in Bioengineering and Biotechnology, 2020
7.
Layer-by-layer immobilizing of polydopamine-assisted ε-polylysine and gum Arabic on titanium: Tailoring of antibacterial and osteogenic properties
Zhang Y., Wang F., Huang Q., Patil A.B., Hu J., Fan L., Yang Y., Duan H., Dong X., Lin C.
Materials Science and Engineering C, 2020
8.
Stable and self-healable LbL coating with antibiofilm efficacy based on alkylated polyethyleneimine micelles
Wang Q., Wang L., Gao L., Yu L., Feng W., Liu N., Xu M., Li X., Li P., Huang W.
Journal of Materials Chemistry B, 2019
10.
Polymers as advanced antibacterial and antibiofilm agents for direct and combination therapies
Si Z., Zheng W., Prananty D., Li J., Koh C.H., Kang E., Pethe K., Chan-Park M.B.
Chemical Science, 2022
11.
Nonleaching Biocidal N-Halamine-Functionalized Polyamine-, Guanidine-, and Hydantoin-Based Coatings
Bromberg L., Magariños B., Concheiro A., Hatton T.A., Alvarez-Lorenzo C.
Industrial & Engineering Chemistry Research, 2024
12.
N-Halamine Biocidal Materials with Superior Antimicrobial Efficacies for Wound Dressings
Demir B., Broughton R., Qiao M., Huang T., Worley S.
Molecules, 2017
14.
Contact-killing antibacterial mechanisms of polycationic coatings: A review
Song Q., Chan S.Y., Xiao Z., Zhao R., Zhang Y., Chen X., Liu T., Yan Y., Zhang B., Han F., Li P.
Progress in Organic Coatings, 2024
16.
Fast-Acting Antibacterial, Self-Deactivating Polyionene Esters
Krumm C., Trump S., Benski L., Wilken J., Oberhaus F., Köller M., Tiller J.C.
ACS applied materials & interfaces, 2020
17.
Poly(ethylene imine)s as Antimicrobial Agents with Selective Activity
Gibney K.A., Sovadinova I., Lopez A.I., Urban M., Ridgway Z., Caputo G.A., Kuroda K.
Macromolecular Bioscience, 2012
19.
Polyethyleneimine induced highly dispersed Ag nanoparticles over g-C3N4 nanosheets for efficient photocatalytic and antibacterial performance
Rao S., Li Y., Liu H., Gao S., Zhao J., Rahman N., Li J., Zhou Y., Wang D., Zhang L., Liu Q., Yang J.
Ceramics International, 2021
20.
Silver Nanoparticles–Polyethyleneimine-Based Coatings with Antiviral Activity against SARS-CoV-2: A New Method to Functionalize Filtration Media
Baselga M., Uranga-Murillo I., de Miguel D., Arias M., Sebastián V., Pardo J., Arruebo M.
Materials, 2022
21.
Performance optimization of biomimetic ant-nest silver nanoparticle coatings for antibacterial and osseointegration of implant surfaces
Wang H., Xu X., Wang X., Qu W., Qing Y., Li S., Chen B., Ying B., Li R., Qin Y.
Biomaterials Advances, 2023
23.
Antimicrobial Polymeric Materials with Quaternary Ammonium and Phosphonium Salts
Xue Y., Xiao H., Zhang Y.
International Journal of Molecular Sciences, 2015
24.
Antiviral and antibacterial activity of sodium alginate/poly(diallyldimethylammonium chloride) polyelectrolyte film for packaging applications
de Carvalho G.R., Kudaka A.M., Netto R.A., Delarmelina C., Duarte M.C., Lona L.M.
International Journal of Biological Macromolecules, 2023
25.
BDNF-loaded PDADMAC-heparin multilayers: a novel approach for neuroblastoma cell study
Dąbkowska M., Stukan I., Kowalski B., Donerowicz W., Wasilewska M., Szatanik A., Stańczyk-Dunaj M., Michna A.
Scientific Reports, 2023
26.
Antiviral Polymers: A Review
Akbari A., Bigham A., Rahimkhoei V., Sharifi S., Jabbari E.
Polymers, 2022
27.
tablePolymeric Nanocomposites-based Advanced Coatings for Antimicrobial and Antiviral Applications: A Comprehensive Overview
Amrhar R., Singh J., Eesaee M., Carrière P., Saidi A., Nguyen-Tri P.
Results in Surfaces and Interfaces, 2025
28.
Cationic Antimicrobial Polymers and Their Assemblies
Carmona-Ribeiro A., de Melo Carrasco L.
International Journal of Molecular Sciences, 2013
29.
Poly(diallyldimethylammonium chloride) in antimicrobial and functional Interfaces: A comprehensive review
Reginatto P., Donato R.K., Donato K.Z., Mores Fragoso K.O., Corrêa Cegielski G.G., de Camargo P.R., Silveira G.P., Fuentefria A.M.
European Polymer Journal, 2025
30.
Panova I.G., Lokova A.Y., Bagrov D.V., Loiko N.G., Nikolaev Y.A., Yaroslavov A.A.
Mendeleev Communications, 2023
31.
Sinelnikova D.G., Novoskoltseva O.A., Loiko N.G., Nikolaev Y.A., Yaroslavov A.A.
Mendeleev Communications, 2024
32.
Biocidal Coatings from Complexes of Carboxylated Latex Particles and a Linear Cationic Polymer
Panova I.G., Shevaleva E.A., Gritskova I.A., Loiko N.G., Nikolaev Y.A., Novoskoltseva O.A., Yaroslavov A.A.
Polymers, 2022
33.
Strategies and applications of antibacterial surface-modified biomaterials
Su Q., Xue Y., Wang C., Zhou Q., Zhao Y., Su J., Zhu B.
Bioactive Materials, 2025
34.
Surface modifications for antimicrobial effects in the healthcare setting: a critical overview.
Adlhart C., Verran J., Azevedo N.F., Olmez H., Keinänen-Toivola M.M., Gouveia I., Melo L.F., Crijns F.
Journal of Hospital Infection, 2018
35.
Practical Aspects of Hydrophobic Polycationic Bactericidal “Paints”
Mukherjee K., Rivera J.J., Klibanov A.M.
Applied Biochemistry and Biotechnology, 2008
36.
Broad-Spectrum Supramolecularly Reloadable Antimicrobial Coatings
Artusio F., Müller L., Razza N., Cordeiro Filipe I., Olgiati F., Richter Ł., Civera E., Özkan M., Gasbarri M., Rinaldi L., Wang H., Garcìa E., Schafer J., Michot L., Butot S., et. al.
ACS applied materials & interfaces, 2024
37.
Biobased Anti-Adhesive Marine Coatings from Polyhydroxyalkanoates and Polysaccharides
Faÿ F., Champion M., Guennec A., Moppert X., Simon-Colin C., Elie M.
Coatings, 2023
38.
Antimicrobial s-PBC Coatings for Innovative Multifunctional Water Filters
Sciuto E.L., Filice S., Coniglio M.A., Faro G., Gradon L., Galati C., Spinella N., Libertino S., Scalese S.
Molecules, 2020
39.
Poly(imidazolium ester) antibiotic forms intracellular polymer-nucleic acid biomolecular condensates and fight drug-resistant bacteria
Xu X., Korupalli C., Mahajan D., Tan C., Vu Q.H., Pham L.T., Lu L., Greenberg E.P., Dang T.T., Chan-Park M.B.
Nature Communications, 2025
42.
Anti-fouling poly(2-hydoxyethyl methacrylate) surface coatings with specific bacteria recognition capabilities
Mrabet B., Nguyen M.N., Majbri A., Mahouche S., Turmine M., Bakhrouf A., Chehimi M.M.
Surface Science, 2009
43.
Thermo and light-responsive strategies of smart titanium-containing composite material surface for enhancing bacterially anti-adhesive property
Lin J., Hu J., Wang W., Liu K., Zhou C., Liu Z., Kong S., Lin S., Deng Y., Guo Z.
Chemical Engineering Journal, 2021
45.
Polymers for anti-fouling applications: a review
Laftah W.A., Wan Abdul Rahman W.A.
Environmental Science Advances, 2025
46.
Morphogenesis of bacterial cables in polymeric environments
Gonzalez La Corte S., Stevens C.A., Cárcamo-Oyarce G., Ribbeck K., Wingreen N.S., Datta S.S.
Science advances, 2025
47.
PEG-functionalized aliphatic polycarbonate brushes with self-polishing dynamic antifouling properties
Yu Y., Xia W., Wang W., Wu Z., Chen H.
Colloids and Surfaces B: Biointerfaces, 2024
48.
Fine-Tuned Functionalizable Terpolymer Brush Nanocoating Resists Protein Adsorption and Bacterial Adhesion while Promoting Macrophage Activity and Osteoblast Proliferation
Pilipenco A., Subbiahdoss G., Forinová M., Romanyuk O., Houska M., Spasovová M., Covato C., Scheberl A., Reimhult E., Vaisocherová-Lísalová H.
ACS applied materials & interfaces, 2025
49.
Surface Preconditioning Influences the Antifouling Capabilities of Zwitterionic and Nonionic Polymer Brushes
Víšová I., Vrabcová M., Forinová M., Zhigunová Y., Mironov V., Houska M., Bittrich E., Eichhorn K., Hashim H., Schovánek P., Dejneka A., Vaisocherová-Lísalová H.
Langmuir, 2020
50.
Mixed polymer brushes with integrated antibacterial and antifouling properties
Fu Y., Yang Y., Xiao S., Zhang L., Huang L., Chen F., Fan P., Zhong M., Tan J., Yang J.
Progress in Organic Coatings, 2019
51.
Zwitterionic Polymers: Structure Design and Emerging Applications
Hou S., Liu Y., Yan J., Fang Z., Gong Y., Zhang Q., Yan Y.
Macromolecular Chemistry and Physics, 2025
52.
Recent advances in zwitterionic polymers-based non-fouling coating strategies for biomedical applications
Wen J., Huang S., Hu Q., He W., Wei Z., Wang L., Lu J., Yue X., Men S., Miao C., He Z., Yang X., Zhai G., Li J., Ye L., et. al.
Materials Today Chemistry, 2024
53.
Zwitterionic materials for antifouling membrane surface construction
He M., Gao K., Zhou L., Jiao Z., Wu M., Cao J., You X., Cai Z., Su Y., Jiang Z.
Acta Biomaterialia, 2016
54.
Advanced protein-based hydrophilic coatings for anti-biofouling applications: A review
Wang X., Liu L., Jiang S., Zhao N., Zhuo X., Li S., Zhang W., Xiong D., Li X., Zhu H., Deng X., Li N.
International Journal of Biological Macromolecules, 2025
55.
Modular Design for Proteins Assembling into Antifouling Coatings: Case of Gold Surfaces
Zheng C., Alvisi N., de Haas R.J., Zhang Z., Zuilhof H., de Vries R.
Langmuir, 2023
57.
Sustainable Coating Based on Zwitterionic Functionalized Polyurushiol with Antifouling and Antibacterial Properties
Xu K., Xie H., Sun C., Lin W., You Z., Zheng G., Zheng X., Xu Y., Chen J., Lin F.
Molecules, 2023
58.
Amphiphilic Alginate-Based Layer-by-Layer Coatings Exhibiting Resistance against Nonspecific Protein Adsorption and Marine Biofouling
Gnanasampanthan T., Karthäuser J.F., Spöllmann S., Wanka R., Becker H., Rosenhahn A.
ACS applied materials & interfaces, 2022
60.
Structure–property correlations of foul release coatings based on low hard segment content poly(dimethylsiloxane–urethane–urea)
Rath S.K., Chavan J.G., Ghorpade T.K., Umasankar Patro T., Patri M.
Journal of Coatings Technology Research, 2017
61.
Fouling Release Coatings: A Nontoxic Alternative to Biocidal Antifouling Coatings
Lejars M., Margaillan A., Bressy C.
Chemical Reviews, 2012
62.
Capsaicin-based Silicone Antifouling Coating with Enhanced Interlocking Adhesion via SIPN
Qin Y., Xue J., Wang S., Fan Y., Wang L., Xu J., Zhao J.
Colloids and Surfaces A: Physicochemical and Engineering Aspects, 2023
63.
Research Progress of Marine Anti-Fouling Coatings
Wu S., Wu S., Xing S., Wang T., Hou J., Zhao Y., Li W.
Coatings, 2024
65.
Superhydrophobic Surfaces to Combat Bacterial Surface Colonization
Ashok D., Cheeseman S., Wang Y., Funnell B., Leung S., Tricoli A., Nisbet D.
Advanced Materials Interfaces, 2023
66.
Mechanical-robust and polymer-based superhydrophobic coating toward self-cleaning and anti-corrosion
Zhang H., Ju G., Zhou L., Lu Q., Li X., Su C., Zheng X., Su C., Chen B., Zhang L.
Journal of Cleaner Production, 2024
68.
Superhydrophobic Materials: Versatility and Translational Applications
Yong H., Li Z., Huang X., Wang K., Zhou Y., Li Q., Shi J., Liu M., Zhou D.
Advanced Materials Interfaces, 2022
69.
Microtopographic Superhydrophobic Polymer Surface to Prevent Urinary Tract Infections causing Nosocomial Drug-Resistant Bacterial Adhesion
Patil D., Aravindan S., Pal A., Khan W.H., Pragya P., Pundir S., Xess I., Mohapatra S., Perumal V., Rao P.V.
Surfaces and Interfaces, 2023
70.
Superhydrophobic Polymer Surface with Hierarchical Patterns Fabricated in Hot Imprinting Process
Moon I.Y., Kim B.H., Lee H.W., Oh Y., Kim J.H., Kang S.
International Journal of Precision Engineering and Manufacturing - Green Technology, 2019
71.
Roles of adhesives in forming mechanically robust superhydrophobic coatings
Wei J., Mao M., Li B., Zhang J.
Chemical Science, 2025
72.
Anti-mold properties of hydrophobic and superhydrophobic coatings based on cyanoacrylate adhesive, zinc and silicon oxides nanoparticles, and silicon organic compounds
Vo K.A., Bui C.V., Nguyen A.S., Vo A.Q., Nguyen T.T., Akulova V., Chishankov I., Tran D.L., Le T.T., Nguyen T.A., Salamianski A., Le Dang Q.
Main Group Chemistry, 2025
73.
Effect of surface pattern morphology on inducing superhydrophobicity
Kim S., Kim D.H., Choi S.H., Kim W.Y., Kwon S., Cho Y.T.
Applied Surface Science, 2020
75.
Advances in the Fabrication of Superhydrophobic Polymeric Surfaces by Polymer Molding Processes
Maghsoudi K., Vazirinasab E., Momen G., Jafari R.
Industrial & Engineering Chemistry Research, 2020
76.
Recent advances in polymer-based superhydrophobic coatings: preparation, properties, and applications
Nomeir B., Lakhouil S., Boukheir S., Ali M.A., Naamane S.
Journal of Coatings Technology Research, 2024
77.
Is There a Threshold in the Antibacterial Action of Superhydrophobic Surfaces?
Ellinas K., Kefallinou D., Stamatakis K., Gogolides E., Tserepi A.
ACS applied materials & interfaces, 2017
78.
Inhibition of bacterial adhesion and biofilm formation by a textured fluorinated alkoxyphosphazene surface
Tang M., Chen C., Zhu J., Allcock H.R., Siedlecki C.A., Xu L.
Bioactive Materials, 2021
79.
Innovative Antibacterial Polymer Coatings
Bryaskova R., Philipova N., Bakov V., Georgiev N.
Applied Sciences (Switzerland), 2025
80.
Advanced Antibacterial Strategies for Combatting Biomaterial‐Associated Infections: A Comprehensive Review
Kasapgil E., Garay‐Sarmiento M., Rodriguez‐Emmenegger C.
Wiley Interdisciplinary Reviews: Nanomedicine and Nanobiotechnology, 2024
81.
Smart Antibacterial Surfaces with Switchable Bacteria-Killing and Bacteria-Releasing Capabilities
Wei T., Tang Z., Yu Q., Chen H.
ACS applied materials & interfaces, 2017
82.
Beyond Traditional Coatings: A Review on Thermal-Sprayed Functional and Smart Coatings
Tejero-Martin D., Rezvani Rad M., McDonald A., Hussain T.
Journal of Thermal Spray Technology, 2019
83.
Light-activated antimicrobial coatings: the great potential of organic photosensitizers
Socha K., Gusev I., Mroczko P., Blacha-Grzechnik A.
RSC Advances, 2025
84.
pH-Sensitive Degradable Coatings Releasing Antibacterial Phosphonium Species and Gentamicin
Vásquez Peña M., Ragogna P.J., Gillies E.R.
ACS Applied Polymer Materials, 2024
86.
Enzyme-responsive multifunctional surfaces for controlled uptake/release of (bio)molecules
Mortato M., Argentiere S., De Gregorio G.L., Gigli G., Blasi L.
Colloids and Surfaces B: Biointerfaces, 2014
88.
Mechanically Robust, Self-Healing, Polymer Blends and Polymer/Small Molecule Blend Materials with High Antibacterial Activity
Du J., Li Y., Wang J., Wang C., Liu D., Wang G., Liu S.
ACS applied materials & interfaces, 2020
90.
Combinations of Antimicrobial Polymers with Nanomaterials and Bioactives to Improve Biocidal Therapies
Yañez-Macías R., Muñoz-Bonilla A., De Jesús-Tellez M.A., Maldonado-Textle H., Guerrero-Sánchez C., Schubert U.S., Guerrero-Santos R.
Polymers, 2019
91.
Antimicrobial Polymer−Based Assemblies: A Review
Carmona-Ribeiro A.M., Araújo P.M.
International Journal of Molecular Sciences, 2021
92.
Synergistic Polymer Coatings with Antibacterial and Antiviral Properties for Healthcare Applications
Duque-Sanchez L., Pasic P.J., Esneau C., Batra V., Tjandaputra G., Tan T., Bartlett N., Thissen H.
ACS Omega, 2024
94.
Polyelectrolyte complexes: mechanisms, critical experimental aspects, and applications
Kulkarni A.D., Vanjari Y.H., Sancheti K.H., Patel H.M., Belgamwar V.S., Surana S.J., Pardeshi C.V.
Artificial Cells, Nanomedicine and Biotechnology, 2016
95.
Biocidal Polymer Formulations and Coatings
Misin V.M., Zezin A.A., Klimov D.I., Sybachin A.V., Yaroslavov A.A.
Polymer Science - Series B, 2021
97.
Lokova A.Y., Rosova A.Y., Panova I.G., Loiko N.G., Nikolaev Y.A., Yaroslavov A.A.
Mendeleev Communications, 2024
99.
Panova Irina Gennadievna, Rozova Arina Yuryevna, Ilyasov Leonid Olegovich, Yuzhanin Kirill Igorevich, Loiko Nataliya G, Yaroslavov Aleksandr Anatol'evich
Mendeleev Communications, 2025
100.
Structural peculiarities of the silver-containing nanocomposites based on carboxymethyl cellulose-chitosan polyelectrolyte complexes and their antimicrobial and antiviral applications
Demchenko V., Zaremba P., Rybalchenko N., Zahorodnia S., Artiukh L., Rybalchenko T., Demchenko O., Sytnyk I., Zeng D., Kobylinskyi S., Goncharenko L., Iurzhenko M.
Scientific Reports, 2025
102.
Nanoparticles in polyelectrolyte multilayer layer-by-layer (Lbl) films and capsules—key enabling components of hybrid coatings
Lengert E.V., Koltsov S.I., Li J., Ermakov A.V., Parakhonskiy B.V., Skorb E.V., Skirtach A.G.
Coatings, 2020
103.
Polyelectrolyte Complex Materials Consisting of Antibacterial and Cell-Supporting Layers
Mat Amin K.A., Gilmore K.J., Matic J., Poon S., Walker M.J., Wilson M.R., in het Panhuis M.
Macromolecular Bioscience, 2011
104.
How Do We Determine the Efficacy of an Antibacterial Surface? A Review of Standardised Antibacterial Material Testing Methods
Cunliffe A.J., Askew P.D., Stephan I., Iredale G., Cosemans P., Simmons L.M., Verran J., Redfern J.
Antibiotics, 2021
105.
Evaluation of different antimicrobial polymeric coatings for food contact surfaces
Edo G.I., Mafe A.N., Ali A.B., Akpoghelie P.O., Yousif E., Isoje E.F., Igbuku U.A., Zainulabdeen K., Owheruo J.O., Essaghah A.E., Umar H., Ahmed D.S., Alamiery A.A.
Discover Food, 2025
106.
Antimicrobial non-porous surfaces: a comparison of the standards ISO 22196:2011 and the recently published ISO 7581:2023
Maitz S., Poelzl S., Dreisiebner D., Zarschenas E., Kittinger C.
Frontiers in Microbiology, 2024
107.
A new method for testing non-porous surfaces for their antimicrobial efficacy using an aerosol-generating spray chamber
Poelzl S., Dreisiebner D., Zarschenas E., Nokhbehzaeim R., Kittinger C.
Frontiers in Microbiology, 2025
108.
Rapid determination of the antimicrobial properties of surfaces using an enzymatic activity surrogate
Tanvir S., Kaur A., Anderson W.A.
Canadian Journal of Chemical Engineering, 2024
109.
A realistic approach for evaluating antimicrobial surfaces for dry surface exposure scenarios
Cheong Y.E., Weyandt R., Dewald W., Tolksdorf T., Müller L., Braun A.
Applied and Environmental Microbiology, 2024
110.
Systematic study on the evaluation method of surface antibacterial activity based on the fluorescent observation of bacterial growth
Nakamura N., Yamagishi T., Nagata W., Akahane Y., Seo H., Otsuka A., Hishikawa D., Yoshimoto R., Miyamae N., Ohta S.
Scientific Reports, 2025
111.
Time-Resolved Killing of Individual Bacterial Cells by a Polycationic Antimicrobial Polymer
Benmamoun Z., Chandar P., Jankolovits J., Ducker W.A.
ACS Biomaterials Science and Engineering, 2024
112.
Physico-chemistry from initial bacterial adhesion to surface-programmed biofilm growth
Carniello V., Peterson B.W., van der Mei H.C., Busscher H.J.
Advances in Colloid and Interface Science, 2018
113.
Adhesins Involved in Attachment to Abiotic Surfaces by Gram-Negative Bacteria
Berne C., Ducret A., Hardy G.G., Brun Y.V.
Microbiology spectrum, 2015
115.
Panova I.G., Lokova A.Y., Pankratov T.A., Nikolaev Y.A., Yaroslavov A.A.
Mendeleev Communications, 2024