TY - JOUR
T1 - Human population as a key driver of biochemical burden in an inter-city system
T2 - Implications for One Health concept
AU - Kasprzyk-Hordern, Barbara
AU - Proctor, Kathryn
AU - Jagadeesan, Kishore
AU - Edler, Felicity
AU - Standerwick, Richard
AU - Barden, Ruth
N1 - Funding Information:
The support of Wessex Water Services Ltd and Engineering and Physical Sciences Research Council Impact Acceleration Account (Project number: EP/ K503897/1 and EP/R51164X/1 , ENTRUST Impact Acceleration Account) is greatly appreciated. The support of the Leverhulme Trust (Project No RPG-2013–297 ) and Natural Environment Research Council NWESP project (Project No NE/V010441/1 ) is also greatly appreciated. All data supporting this study are provided as supporting information accompanying this paper, as well as in SI ( Proctor et al., 2021 ) and SI ( Elder et al., 2021 ).
Funding Information:
The support of Wessex Water Services Ltd and Engineering and Physical Sciences Research Council Impact Acceleration Account (Project number: EP/ K503897/1 and EP/R51164X/1, ENTRUST Impact Acceleration Account) is greatly appreciated. The support of the Leverhulme Trust (Project No RPG-2013?297) and Natural Environment Research Council NWESP project (Project No NE/V010441/1) is also greatly appreciated. All data supporting this study are provided as supporting information accompanying this paper, as well as in SI (Proctor et al. 2021) and SI (Elder et al. 2021).
PY - 2022/5/5
Y1 - 2022/5/5
N2 - This paper tests the hypothesis that human population and city function are key drivers of biochemical burden in an inter-city system, which can be used to inform One Health actions as it enables a holistic understanding of city's metabolism encompassing all of the activities of a city in a single model: from lifestyle choices, through to health status and exposure to harmful chemicals as well as effectiveness of implemented management strategies. Chemical mining of wastewater for biophysico-chemical indicators (BCIs) was undertaken to understand speciation of BCIs in the context of geographical as well as community-wide socioeconomic factors. Spatiotemporal variabilities in chemical and biological target groups in the studied inter-city system were observed. A linear relationship (R2 > 0.99) and a strong positive correlation between most BCIs and population size (r > 0.998, p < 0.001) were observed which provides a strong evidence for the population size as a driver of BCI burden. BCI groups that are strongly correlated with population size and are intrinsic to humans’ function include mostly high usage pharmaceuticals that are linked with long term non-communicable conditions (NSAIDs, analgesics, cardiovascular, mental health and antiepileptics) and lifestyle chemicals. These BCIs can be used as population size markers. BCIs groups that are produced as a result of a specific city's function (e.g. industry presence and occupational exposure or agriculture) and as such are not correlated with population size include: pesticides, PCPs and industrial chemicals. These BCIs can be used to assess city's function, such as occupational exposure, environmental or food exposure, and as a proxy of community-wide health. This study confirmed a strong positive correlation between antibiotics (ABs), population size and antibiotic resistance genes (ARGs). This confirms the population size and AB usage as the main driver of AB and ARG levels and provides an opportunity for interventions aimed at the reduction of AB usage to reduce AMR. Holistic evaluation of biophysicochemical fingerprints (BCI burden) of the environment and data triangulation with socioeconomic fingerprints (indices) of tested communities are required to fully embrace One Health concept.
AB - This paper tests the hypothesis that human population and city function are key drivers of biochemical burden in an inter-city system, which can be used to inform One Health actions as it enables a holistic understanding of city's metabolism encompassing all of the activities of a city in a single model: from lifestyle choices, through to health status and exposure to harmful chemicals as well as effectiveness of implemented management strategies. Chemical mining of wastewater for biophysico-chemical indicators (BCIs) was undertaken to understand speciation of BCIs in the context of geographical as well as community-wide socioeconomic factors. Spatiotemporal variabilities in chemical and biological target groups in the studied inter-city system were observed. A linear relationship (R2 > 0.99) and a strong positive correlation between most BCIs and population size (r > 0.998, p < 0.001) were observed which provides a strong evidence for the population size as a driver of BCI burden. BCI groups that are strongly correlated with population size and are intrinsic to humans’ function include mostly high usage pharmaceuticals that are linked with long term non-communicable conditions (NSAIDs, analgesics, cardiovascular, mental health and antiepileptics) and lifestyle chemicals. These BCIs can be used as population size markers. BCIs groups that are produced as a result of a specific city's function (e.g. industry presence and occupational exposure or agriculture) and as such are not correlated with population size include: pesticides, PCPs and industrial chemicals. These BCIs can be used to assess city's function, such as occupational exposure, environmental or food exposure, and as a proxy of community-wide health. This study confirmed a strong positive correlation between antibiotics (ABs), population size and antibiotic resistance genes (ARGs). This confirms the population size and AB usage as the main driver of AB and ARG levels and provides an opportunity for interventions aimed at the reduction of AB usage to reduce AMR. Holistic evaluation of biophysicochemical fingerprints (BCI burden) of the environment and data triangulation with socioeconomic fingerprints (indices) of tested communities are required to fully embrace One Health concept.
KW - AMR
KW - Exposure
KW - Illicit drugs
KW - Lifestyle
KW - Pesticides
KW - Pharmaceuticals
KW - Wastewater-based epidemiology
KW - Water fingerprinting
UR - http://www.scopus.com/inward/record.url?scp=85124662676&partnerID=8YFLogxK
U2 - 10.1016/j.jhazmat.2021.127882
DO - 10.1016/j.jhazmat.2021.127882
M3 - Article
AN - SCOPUS:85124662676
VL - 429
JO - Journal of Hazardous Materials
JF - Journal of Hazardous Materials
SN - 0304-3894
M1 - 127882
ER -