Antifouling/antibacterial coating derived from a sustainable natural resource for biomedical devices have shown promising outcomes, especially in the prevention of bacterial growth. Herein, pulse-plasma chemical vapour deposition is used to fabricate antimicrobial coatings from Terpinen-4-ol, a tea tree oil-based precursor. In this manuscript, during RF plasma polymerisation, pulsed plasma is used to retain the pristine monomer structure in the developed stable coating and thereby enhance its antibacterial activity. The developed films have tunable physical and chemical properties. Diverse film surface properties were obtained by varying the plasma deposition parameters, mainly the deposition mode (pulse and continuous wave) and duty cycle....
Radio frequency plasma enhanced chemical vapor deposition is currently used to fabricate a broad ran...
This work reveals a versatile new method to produce films with antimicrobial properties that can als...
Novel, highly chlorinated surface coatings were produced via a one-step plasma polymerization (pp) o...
Antifouling/antibacterial coating derived from a sustainable natural resource for biomedical devices...
Plasma polymerisation was used to deposit thin oligomeric films of terpinen-4-ol on a range of subst...
Plasma polymerisation was used to deposit thin oligomeric films of terpinen-4-ol on a range of subst...
Terpinen-4-ol is the main constituent of Melaleuca alternifolia essential oil known for its biocidal...
This paper describes the synthesis and characterization of a novel organic polymer coating for the p...
This paper describes the synthesis and characterization of a novel organic polymer coating for the p...
Antibacterial coating is necessary to prevent biofilm-forming bacteria from colonising medical tools...
Bacterial colonisation of biomedical devices demands novel antibacterial coatings. Plasma-enabled tr...
Sustainable marine antifouling strategies aim to minimize long term environmental impacts while effe...
Conformal poly(allyl alcohol) (PAA) coatings were grown on a biomedical grade polyurethane scaffold...
Medical devices are often vulnerable to colonization by nosocomial pathogens (bacteria), leading to ...
Radio frequency plasma enhanced chemical vapor deposition is currently used to fabricate a broad ran...
This work reveals a versatile new method to produce films with antimicrobial properties that can als...
Novel, highly chlorinated surface coatings were produced via a one-step plasma polymerization (pp) o...
Antifouling/antibacterial coating derived from a sustainable natural resource for biomedical devices...
Plasma polymerisation was used to deposit thin oligomeric films of terpinen-4-ol on a range of subst...
Plasma polymerisation was used to deposit thin oligomeric films of terpinen-4-ol on a range of subst...
Terpinen-4-ol is the main constituent of Melaleuca alternifolia essential oil known for its biocidal...
This paper describes the synthesis and characterization of a novel organic polymer coating for the p...
This paper describes the synthesis and characterization of a novel organic polymer coating for the p...
Antibacterial coating is necessary to prevent biofilm-forming bacteria from colonising medical tools...
Bacterial colonisation of biomedical devices demands novel antibacterial coatings. Plasma-enabled tr...
Sustainable marine antifouling strategies aim to minimize long term environmental impacts while effe...
Conformal poly(allyl alcohol) (PAA) coatings were grown on a biomedical grade polyurethane scaffold...
Medical devices are often vulnerable to colonization by nosocomial pathogens (bacteria), leading to ...
Radio frequency plasma enhanced chemical vapor deposition is currently used to fabricate a broad ran...
This work reveals a versatile new method to produce films with antimicrobial properties that can als...
Novel, highly chlorinated surface coatings were produced via a one-step plasma polymerization (pp) o...