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        <IDNo agency="SND">2025-199-1</IDNo>
        <IDNo agency="slu.se">SLU.hbio.2026.IÄ-5</IDNo>
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        <AuthEnty xml:lang="en" affiliation="Department of Animal Biosciences (HBIO), Swedish University of Agricultural Sciences">Lungu-Mitea, Sebastian</AuthEnty>
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        <AuthEnty xml:lang="en" affiliation="Department of Animal Biosciences (HBIO), Swedish University of Agricultural Sciences">Mandava, Geeta</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Institutionen för husdjurens biovetenskaper (HBIO), Sveriges lantbruksuniversitet">Mandava, Geeta</AuthEnty>
        <AuthEnty xml:lang="en" affiliation="Masaryk University, RECETOX">Horáčková, Jana</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Masaryk University, RECETOX">Horáčková, Jana</AuthEnty>
        <AuthEnty xml:lang="en" affiliation="Department of Aquatic Sciences and Assessment, Swedish University of Agricultural Sciences">Golovko, Oksana</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Institutionen för vatten och miljö, Sveriges lantbruksuniversitet">Golovko, Oksana</AuthEnty>
        <AuthEnty xml:lang="en" affiliation="Masaryk University, RECETOX">Toušová, Zuzana</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Masaryk University, RECETOX">Toušová, Zuzana</AuthEnty>
        <AuthEnty xml:lang="en" affiliation="County Administrative Board of Dalarna">Frieberg, Kim</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Länsstyrelsen i Dalarnas län">Frieberg, Kim</AuthEnty>
        <AuthEnty xml:lang="en" affiliation="Department of Animal Biosciences (HBIO), Swedish University of Agricultural Sciences">Örn, Stefan</AuthEnty>
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        <AuthEnty xml:lang="en" affiliation="Masaryk University, RECETOX">Bednář, David</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Masaryk University, RECETOX">Bednář, David</AuthEnty>
        <AuthEnty xml:lang="en" affiliation="Department of Aquatic Sciences and Assessment, Swedish University of Agricultural Sciences">Ahrens, Lutz</AuthEnty>
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        <AuthEnty xml:lang="en" affiliation="Masaryk University, RECETOX">Hilscherová, Klára</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Masaryk University, RECETOX">Hilscherová, Klára</AuthEnty>
        <AuthEnty xml:lang="en" affiliation="Department of Animal Biosciences (HBIO), Swedish University of Agricultural Sciences">Lundqvist, Johan</AuthEnty>
        <AuthEnty xml:lang="sv" affiliation="Institutionen för husdjurens biovetenskaper (HBIO), Sveriges lantbruksuniversitet">Lundqvist, Johan</AuthEnty>
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        <grantNo xml:lang="en" agency="European Union">CETOCOEN (857560)</grantNo>
        <grantNo xml:lang="en" agency="Government of the Czech Republic">Grant Agency of the Czech Republic (25-18233M)</grantNo>
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        <keyword xml:lang="en" vocab="YSO" vocabURI="http://www.yso.fi/onto/yso/p25361">bioanalytics</keyword>
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      <abstract xml:lang="en" contentType="abstract">Please refer to the README file for additional information.

The dataset comprises raw data, metadata, additional analyses, and a supplementary manuscript that links to three publications: the main article and two Data in Brief co-submissions. 

Main article: Cross-species bioanalytical assessment of the oxidative stress and xenobiotic metabolism modes of action for environmental water samples – a multi-layered approach to testing and modelling

Data in Brief: A dataset on the multi-species and multi-endpoint bioanalytical assessment of environmental samples derived from Swedish wastewater treatment plants 

Data in Brief: Human and zebrafish cross-species comparison on ligand affinity towards the aryl hydrocarbon receptor and Keap1 oxidative stress sensor: a molecular docking dataset

Subject: Earth and Environmental Sciences; Interdisciplinary: Environmental Chemistry; Health, Toxicology, and Mutagenesis; Water Science and Technology; Computational Biology

Specific subject area: Environmental Toxicology, Bioanalytical assessment of environmental samples, Molecular docking

Type of data: Table, Chart, Figure, Image, Graph, Molecular docking illustrations, Gene and Protein sequence files, Text

Data format: Raw – within supplementary files; Analysed – within the articles and supplementary files; Illustrative – within the articles and supplementary files

Data source location: Swedish University of Agricultural Sciences (SLU), Uppsala, Uppland, Sweden.

Background &amp; Aim: New approach methods (NAMs), particularly effect-based in vitro assays such as embryo tests and cellular reporter systems, are approaching regulatory acceptance for high-throughput environmental monitoring, yet are predominantly derived from mammalian or bacterial models, limiting their representativeness for aquatic protection goals. This study evaluates the suitability of mammalian reporter assays as surrogates for aquatic vertebrates in effect-based assessments of environmental water samples through integrated biological, chemical, and computational analyses.

Data collection &amp; description: environmental water samples were collected and analysed using a modified zebrafish embryo test, multispecies reporter gene assays targeting oxidative stress and xenobiotic metabolism, and cellular viability assays. Molecular docking and sequence alignment were conducted in silico using publicly available ligand, protein, and sequence databases, with structures processed and analysed using standard computational tools.

Location: Water sampling was conducted at three southern and western Swedish WWTPs (precise location disclosed due to confidentiality) and their respective catchments. All WWTPs are located in close proximity to waterbodies of primary anthropogenic and ecological concern. Chemical analyses and bioanalytics were conducted at SLU, Uppsala, Sweden. Molecular docking modelling and in silico-mediated effect-directed analysis were conducted at RECETOX, Masaryk University, Brno, Czech Republic.

Time period: Chemical analyses: 2018-2019. Bioanalytics: 2019-2022. Computational analyses: 2022-2024

Data organisation: please refer to the README file for a tabular summary.</abstract>
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        <collDate xml:lang="en" date="2019-12-31" event="end">2019-12-31</collDate>
        <collDate xml:lang="en" date="2019-01-01" event="start">2019-01-01</collDate>
        <collDate xml:lang="en" date="2022-12-31" event="end">2022-12-31</collDate>
        <collDate xml:lang="en" date="2022-01-01" event="start">2022-01-01</collDate>
        <collDate xml:lang="en" date="2023-12-31" event="end">2023-12-31</collDate>
        <nation xml:lang="en" abbr="SE">Sweden</nation>
        <nation xml:lang="sv" abbr="SE">Sverige</nation>
        <anlyUnit xml:lang="en" unit="Animal">Animal<concept vocab="DDI Analysis Unit" vocabURI="https://vocabularies.cessda.eu/v2/vocabularies/AnalysisUnit/2.1.3?languageVersion=en-2.1.3">Animal</concept></anlyUnit>
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        <anlyUnit xml:lang="en" unit="Cells">Cells<concept vocab="DDI Analysis Unit" vocabURI="https://vocabularies.cessda.eu/v2/vocabularies/AnalysisUnit/2.1.3?languageVersion=en-2.1.3">Cells</concept></anlyUnit>
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        <universe xml:lang="en">cells, zebrafish embryos, in silico generated receptor-ligand models</universe>
        <dataKind xml:lang="en">Numeric</dataKind>
        <dataKind xml:lang="en">Text</dataKind>
        <dataKind xml:lang="en">Still image</dataKind>
        <dataKind xml:lang="en">Other</dataKind>
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        <sampProc xml:lang="en">Recipient samples were collected as grab samples. Influent and effluent samples as 1-7 day composites. Zebrafish wild-type strains were kept in a state-of-the-art aquatic facility. Embryo tests were conducted in accordance with international guidelines and published literature. Reporter lines were cultured in a state-of-the-art cell culture laboratory. Mode-of-action-specific reporter assays were conducted in accordance with international guidelines and published literature. 
The molecular docking dataset was entirely generated in silico. All generated and utilised PDBQT and FASTA-type files are given in the supplementary information (SI10). The following data sources were utilised: PubChem (https://pubchem.ncbi.nlm.nih.gov); UniProt (https://www.uniprot.org); RCSB Protein Data Bank (https://www.rcsb.org); National Center for Biotechnology Information (NCBI) (https://www.ncbi.nlm.nih.gov/). All acquired crystal and cryo-EM partial structures are mentioned in DIB_B, section 4, and the SM.<concept vocab="DDI Sampling Procedure" vocabURI="https://vocabularies.cessda.eu/v2/vocabularies/SamplingProcedure/2.0.1?languageVersion=en-2.0.1">Recipient samples were collected as grab samples. Influent and effluent samples as 1-7 day composites. Zebrafish wild-type strains were kept in a state-of-the-art aquatic facility. Embryo tests were conducted in accordance with international guidelines and published literature. Reporter lines were cultured in a state-of-the-art cell culture laboratory. Mode-of-action-specific reporter assays were conducted in accordance with international guidelines and published literature. 
The molecular docking dataset was entirely generated in silico. All generated and utilised PDBQT and FASTA-type files are given in the supplementary information (SI10). The following data sources were utilised: PubChem (https://pubchem.ncbi.nlm.nih.gov); UniProt (https://www.uniprot.org); RCSB Protein Data Bank (https://www.rcsb.org); National Center for Biotechnology Information (NCBI) (https://www.ncbi.nlm.nih.gov/). All acquired crystal and cryo-EM partial structures are mentioned in DIB_B, section 4, and the SM.</concept></sampProc>
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        <collMode xml:lang="en">All samples were bioanalytically assessed using a modified zebrafish embryo test, which scored lethal and sublethal endpoints via stereo microscopy (Leica EZ4D) and time-lapse camera recording (Canon EOS 500D). Influent and effluent samples were also analysed using reporter gene assays across three species (zebrafish, human, and mouse) and two modes of action: oxidative stress and xenobiotic metabolism. Cellular viability was assessed via the MTS assay. All endpoints were recorded on a plate reader (Spark, Tecan).<concept vocab="DDI Mode of Collection" vocabURI="https://vocabularies.cessda.eu/v2/vocabularies/ModeOfCollection/5.0.0?languageVersion=en-5.0.0">All samples were bioanalytically assessed using a modified zebrafish embryo test, which scored lethal and sublethal endpoints via stereo microscopy (Leica EZ4D) and time-lapse camera recording (Canon EOS 500D). Influent and effluent samples were also analysed using reporter gene assays across three species (zebrafish, human, and mouse) and two modes of action: oxidative stress and xenobiotic metabolism. Cellular viability was assessed via the MTS assay. All endpoints were recorded on a plate reader (Spark, Tecan).</concept></collMode>
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        <collMode xml:lang="en">Ligand 3D structures were downloaded from PubChem and optimised in Avogadro 1.2.0 and RESP ESP charge Derive (R.E.D.) Server Development 2.0. PDBQT working files were generated via MGLTools. Complete AlphaFold-predicted protein structures were acquired via UniProt. Tertiary structures of the PAS-B domain were predicted with AlphaFold2 using ColabFold. Partial crystal and cryo-EM structures were obtained from RCSB-PDB. AutoDock Vina was utilised for molecular docking. The docking predictions were analysed in PyMOL. For sequence alignment, FASTA files were retrieved from NCBI. Alignment was performed in Unipro Ugene using the ClustalW algorithm.<concept vocab="DDI Mode of Collection" vocabURI="https://vocabularies.cessda.eu/v2/vocabularies/ModeOfCollection/5.0.0?languageVersion=en-5.0.0">Ligand 3D structures were downloaded from PubChem and optimised in Avogadro 1.2.0 and RESP ESP charge Derive (R.E.D.) Server Development 2.0. PDBQT working files were generated via MGLTools. Complete AlphaFold-predicted protein structures were acquired via UniProt. Tertiary structures of the PAS-B domain were predicted with AlphaFold2 using ColabFold. Partial crystal and cryo-EM structures were obtained from RCSB-PDB. AutoDock Vina was utilised for molecular docking. The docking predictions were analysed in PyMOL. For sequence alignment, FASTA files were retrieved from NCBI. Alignment was performed in Unipro Ugene using the ClustalW algorithm.</concept></collMode>
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