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National R&D

Antiincrustante

Overcoming environmental problems associated with antifouling agents: synthesis of Natureinspired nontoxic biocides and immobilization in polymeric coatings.

Principal Investigator
Researcher

Ph.D in Pharmaceutical and Medicinal Chemistry, M.Sc. in Quality Control of Plant and Drug Substances, and B.Sc. in Pharmaceutical Sciences from Faculty of Pharmacy of University of Porto (FFUP).
Assistant Professor of Organic and Medicinal Chemistry at FFUP and Integrated Research Member of CIIMAR since 2014. Mentor of the Young Ambassadors of the European Marine Board. Member of the Editorial Board of the Marine Drugs.
Research focuses on sustainable synthesis of marine-inspired non-toxic antifouling agents to overcome environmental problems associated with biocides and difficulties in large production of marine natural products:
-funding as Principal Investigator with CIIMAR as proponent: PTDC/CTA-AMB/0853/2021 (€ 244.397,50) and PTDC/AAG-TEC/0739/2014 (€ 161.852,00);
-international patent applications published as Responsible Inventor: WO/2023/053059 (06/04/2023), United States patent US2021395264 AA (23/12/2021), European patent EP3897150 A1 (27/10/2021), Chinese patent CN113226035 A (06/08/2021), WO20128674 A1 (25/06/2020) and as co-Inventor: PCT/IB2022/062027 (11/12/2022);
-innovation awards: BIPacceleration 2022, BIPproof 2022, UITransfer 2023.

RESEARCH GROUPS:

No results found.

We currently do not have a viable option for widespread replacement of copper in antifouling paints. Marine Environment Protection Committee (MEPC) alerted to the severe ecological consequences when no acceptable alternatives exist, namely, acceleration of green house and acid rain effects, due to higher heavy oil consumption, and trans-global contamination of ecosystems with exotic organisms. So, there is a practical and urgent need of identifying innovative environmentally friendly and nontoxic technologies to combat biofouling. Marine natural products have been considered as one of the most promising sources of antifouling compounds in recent years. For example, zosteric acid, which is a p-sulfated cinnamic acid derived from the marine angiosperm Zostera marina, has received much attention as a potential natural product antifoulant. Zosteric acid is fully biodegradable and possesses a half-life in seawater of a few days but the compound has high water solubility and its release from conventional antifouling paints is difficult to control. The team of this project developed a technology to synthesize innovative zosteric acid-inspired compounds, and a new immobilization technology to incorporate them in polymeric coatings. The combination of these two technologies can provide an important contribution to overcome the current limitations on biofouling control.

Leader Institution
CIIMAR-UP
Program
Compete 2020Portugal 2020
Funding
Other projects