PharmCycle: a holistic approach to reduce the contamination of the aquatic environment with antibiotics by developing sustainable antibiotics, improving the environmental risk assessment of antibiotics, and reducing the discharges of antibiotics in the wastewater outlet

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@article{b2917ffdd3d64c59b9688e783f1b7cf5,
title = "PharmCycle: a holistic approach to reduce the contamination of the aquatic environment with antibiotics by developing sustainable antibiotics, improving the environmental risk assessment of antibiotics, and reducing the discharges of antibiotics in the wastewater outlet",
abstract = " Background The overall aim of the interdisciplinary research project “PharmCycle” is to reduce the contamination of the aquatic environment with antibiotics by developing sustainable antibiotics, improving the environmental risk assessment of antibiotics, and reducing the discharges of antibiotics in the wastewater outlet. An overview of the holistic approach and first results are given. Results The first step is to design sustainable antibiotics, which are effective against target organisms but, after their use, are less toxic, and are rapidly and completely degradable. To develop sustainable antibiotics, two different approaches (subprojects) are applied within PharmCycle: First, a re-design of the existing antibiotics with chemical and in silico methods (“Benign by Design”). Second, sustainable peptide-based antibiotics are produced with biotechnological methods. In the second step, the environmental risk assessment for antibiotics in the framework of the authorization process and for monitoring purposes is improved. There is a lack of data for the environmental risk assessment of antibiotics on the European market. With more transparency of these data, the environmental risk assessment for active substances and for the class of antibiotics can be improved. The aim is to increase the data availability by applying the Aarhus convention and by providing legal access to environmental information. Beside other shortages in the environmental risk assessment required by the European legislation, the effects of antibiotics directly applied in marine aquacultures are not assessed by marine prokaryotic test systems. Therefore, a marine cyanobacteria test was developed, which is more sensitive to selected priority antibiotics than the marine eukaryotic algae test (DIN EN ISO 10253) required by the European Medicines Agency. Marine cyanobacteria are of high importance for the nitrogen cycle and primary production. Moreover, they seem to play an important role with respect to climate change. To reduce the emission of antibiotics used as human pharmaceutical products to the aquatic environment, the third step focusses on the main pathway, the wastewater. Investigations to improve the wastewater treatment of priority antibiotics and sustainable antibiotics are conducted by a combination of methods: activated sludge units, activated carbon adsorption, and membrane filtration systems. Conclusions With the aim of improving the environmental risk assessment of antibiotics and to reduce the emission of antibiotics to the aquatic environment, an interdisciplinary approach is applied which includes the analysis of the German, European, and international law and the development of new legal instruments.",
keywords = "Pharmaceuticals, Antibiotics, Sustainable pharmacy, Antimicrobial peptides, Environmental risk assessment, Wastewater treatment, Aarhus convention, Environmental information law, Chemistry",
author = "Joerg Andrae and Falk Beyer and Gesine Cornelissen and Joern Einfeldt and Jens Heseding and Klaus Kuemmerer and Kim Oelkers and Carolin Floeter",
note = "Funding Information: The authors would like to thank the Applied University of Hamburg and the law office Teppe Hamburg and the Deutsche Bundesstiftung Umwelt (K. K{\"u}mmerer) for their funding. Publisher Copyright: {\textcopyright} 2018, The Author(s).",
year = "2018",
month = dec,
day = "1",
doi = "10.1186/s12302-018-0156-y",
language = "English",
volume = "30",
journal = "Environmental Sciences Europe",
issn = "0934-3504",
publisher = "Springer",
number = "1",

}

RIS

TY - JOUR

T1 - PharmCycle

T2 - a holistic approach to reduce the contamination of the aquatic environment with antibiotics by developing sustainable antibiotics, improving the environmental risk assessment of antibiotics, and reducing the discharges of antibiotics in the wastewater outlet

AU - Andrae, Joerg

AU - Beyer, Falk

AU - Cornelissen, Gesine

AU - Einfeldt, Joern

AU - Heseding, Jens

AU - Kuemmerer, Klaus

AU - Oelkers, Kim

AU - Floeter, Carolin

N1 - Funding Information: The authors would like to thank the Applied University of Hamburg and the law office Teppe Hamburg and the Deutsche Bundesstiftung Umwelt (K. Kümmerer) for their funding. Publisher Copyright: © 2018, The Author(s).

PY - 2018/12/1

Y1 - 2018/12/1

N2 - Background The overall aim of the interdisciplinary research project “PharmCycle” is to reduce the contamination of the aquatic environment with antibiotics by developing sustainable antibiotics, improving the environmental risk assessment of antibiotics, and reducing the discharges of antibiotics in the wastewater outlet. An overview of the holistic approach and first results are given. Results The first step is to design sustainable antibiotics, which are effective against target organisms but, after their use, are less toxic, and are rapidly and completely degradable. To develop sustainable antibiotics, two different approaches (subprojects) are applied within PharmCycle: First, a re-design of the existing antibiotics with chemical and in silico methods (“Benign by Design”). Second, sustainable peptide-based antibiotics are produced with biotechnological methods. In the second step, the environmental risk assessment for antibiotics in the framework of the authorization process and for monitoring purposes is improved. There is a lack of data for the environmental risk assessment of antibiotics on the European market. With more transparency of these data, the environmental risk assessment for active substances and for the class of antibiotics can be improved. The aim is to increase the data availability by applying the Aarhus convention and by providing legal access to environmental information. Beside other shortages in the environmental risk assessment required by the European legislation, the effects of antibiotics directly applied in marine aquacultures are not assessed by marine prokaryotic test systems. Therefore, a marine cyanobacteria test was developed, which is more sensitive to selected priority antibiotics than the marine eukaryotic algae test (DIN EN ISO 10253) required by the European Medicines Agency. Marine cyanobacteria are of high importance for the nitrogen cycle and primary production. Moreover, they seem to play an important role with respect to climate change. To reduce the emission of antibiotics used as human pharmaceutical products to the aquatic environment, the third step focusses on the main pathway, the wastewater. Investigations to improve the wastewater treatment of priority antibiotics and sustainable antibiotics are conducted by a combination of methods: activated sludge units, activated carbon adsorption, and membrane filtration systems. Conclusions With the aim of improving the environmental risk assessment of antibiotics and to reduce the emission of antibiotics to the aquatic environment, an interdisciplinary approach is applied which includes the analysis of the German, European, and international law and the development of new legal instruments.

AB - Background The overall aim of the interdisciplinary research project “PharmCycle” is to reduce the contamination of the aquatic environment with antibiotics by developing sustainable antibiotics, improving the environmental risk assessment of antibiotics, and reducing the discharges of antibiotics in the wastewater outlet. An overview of the holistic approach and first results are given. Results The first step is to design sustainable antibiotics, which are effective against target organisms but, after their use, are less toxic, and are rapidly and completely degradable. To develop sustainable antibiotics, two different approaches (subprojects) are applied within PharmCycle: First, a re-design of the existing antibiotics with chemical and in silico methods (“Benign by Design”). Second, sustainable peptide-based antibiotics are produced with biotechnological methods. In the second step, the environmental risk assessment for antibiotics in the framework of the authorization process and for monitoring purposes is improved. There is a lack of data for the environmental risk assessment of antibiotics on the European market. With more transparency of these data, the environmental risk assessment for active substances and for the class of antibiotics can be improved. The aim is to increase the data availability by applying the Aarhus convention and by providing legal access to environmental information. Beside other shortages in the environmental risk assessment required by the European legislation, the effects of antibiotics directly applied in marine aquacultures are not assessed by marine prokaryotic test systems. Therefore, a marine cyanobacteria test was developed, which is more sensitive to selected priority antibiotics than the marine eukaryotic algae test (DIN EN ISO 10253) required by the European Medicines Agency. Marine cyanobacteria are of high importance for the nitrogen cycle and primary production. Moreover, they seem to play an important role with respect to climate change. To reduce the emission of antibiotics used as human pharmaceutical products to the aquatic environment, the third step focusses on the main pathway, the wastewater. Investigations to improve the wastewater treatment of priority antibiotics and sustainable antibiotics are conducted by a combination of methods: activated sludge units, activated carbon adsorption, and membrane filtration systems. Conclusions With the aim of improving the environmental risk assessment of antibiotics and to reduce the emission of antibiotics to the aquatic environment, an interdisciplinary approach is applied which includes the analysis of the German, European, and international law and the development of new legal instruments.

KW - Pharmaceuticals

KW - Antibiotics

KW - Sustainable pharmacy

KW - Antimicrobial peptides

KW - Environmental risk assessment

KW - Wastewater treatment

KW - Aarhus convention

KW - Environmental information law

KW - Chemistry

UR - http://www.scopus.com/inward/record.url?scp=85049770026&partnerID=8YFLogxK

U2 - 10.1186/s12302-018-0156-y

DO - 10.1186/s12302-018-0156-y

M3 - Journal articles

VL - 30

JO - Environmental Sciences Europe

JF - Environmental Sciences Europe

SN - 0934-3504

IS - 1

M1 - 24

ER -

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