Using Critical Zone Science to Enhance Soil Fertility and Sustain Ecosystem Services for Peri-Urban Agriculture in China
Lead Research Organisation:
James Hutton Institute
Department Name: Ecological Sciences
Abstract
Abstracts are not currently available in GtR for all funded research. This is normally because the abstract was not required at the time of proposal submission, but may be because it included sensitive information such as personal details.
Planned Impact
This project develops a closely integrated project between research teams in the UK and China that directly addresses the following sustainable development challenges of China.
1. Economic development through innovation in agricultural practices
2. Food security through improved agricultural yields on existing productive land
3. Food safety through decreases in plant available soil contaminants
4. Water quality protection and improvement through reduced soil pollution
5. Wellbeing of urban inhabitants through peri-urban land management
6. Ecological resilience of agricultural production to environmental change
7. Meeting environmental commitments through reduced greenhouse gas emissions from land
8. Agricultural nutrient resource recovery from animal and human food consumption
9. The environmental impacts of urbanisation
The project addresses the challenges effectively by linking the research activities with innovation in farming practices through field manipulation experiments that act as testbeds and demonstrations for the use of organic fertilisers. The project addresses the challenges efficiently by focusing on the role of soil as a central control point within the integrated Critical Zone (CZ) system where positive changes in managing soil fertility can influence multiple beneficial outcomes to the development challenges. Efficiency of research investment is gained by drawing on the current investment in staff and infrastructure by the principal China partner (IUE) at the site and through collaboration with the Zhejiang Academy of Sciences Agricultural Institute in Ningbo city. The programme of impact activities includes strong UK and China stakeholders and performance metrics for immediate and long-term impact are defined. UK strengths in novel, high throughput molecular tools for soil food web dynamics will be applied with the Chinese investigators at the Ningbo CZO. This will provide the scientific evidence on how in organic fertiliser application will impact the soil N-cycle and can be pro-actively managed to improve yields and long-term soil fertility for food security. UK strengths in novel isotope biogeochemistry will be carried out jointly with the Chinese partners and will provide the scientific evidence to optimise soil management practices that reduce toxic metals uptake to food crops, to improve food safety. UK strengths for in situ quantitative analysis of emerging contaminants will develop novel biosensor technology and deploy it in the manipulation experiments in China. This will provide the scientific evidence for soil management practices to reduce the flux of contaminants to surface and groundwater. This will protect and improve water quality and help reduce the occurrence of environmental antibiotic resistance. UK strengths in mechanistic soil process modelling that is integrated with CZ flux determinations will be applied to interpret the results of the field manipulation experiments. The modelling will provide the scientific evidence to guide practice in organic fertiliser use to potentially benefit: crop yields, soil and water quality, ecological resilience to atmospheric deposition of urban contaminants, and reduced greenhouse gas emissions from land. Additional impacts include the potential for improved yields to help livelihoods and reduce poverty in farming communities. Joint design and delivery of manipulation experiments with farmers will support early identification and adoption of improved soil management practices. Organic fertilisers increase soil organic matter content which improves soil pore structure through aggregate formation. This increases plant-available water-holding capacity for drought resilience, and increases interaggregate water drainage for flood resilience. Reduced mineral fertiliser use will cut the life-cycle costs of the carbon footprint of manufacturing, greenhouse gas emissions from land, and increased water pollution from nutrient leaching.
1. Economic development through innovation in agricultural practices
2. Food security through improved agricultural yields on existing productive land
3. Food safety through decreases in plant available soil contaminants
4. Water quality protection and improvement through reduced soil pollution
5. Wellbeing of urban inhabitants through peri-urban land management
6. Ecological resilience of agricultural production to environmental change
7. Meeting environmental commitments through reduced greenhouse gas emissions from land
8. Agricultural nutrient resource recovery from animal and human food consumption
9. The environmental impacts of urbanisation
The project addresses the challenges effectively by linking the research activities with innovation in farming practices through field manipulation experiments that act as testbeds and demonstrations for the use of organic fertilisers. The project addresses the challenges efficiently by focusing on the role of soil as a central control point within the integrated Critical Zone (CZ) system where positive changes in managing soil fertility can influence multiple beneficial outcomes to the development challenges. Efficiency of research investment is gained by drawing on the current investment in staff and infrastructure by the principal China partner (IUE) at the site and through collaboration with the Zhejiang Academy of Sciences Agricultural Institute in Ningbo city. The programme of impact activities includes strong UK and China stakeholders and performance metrics for immediate and long-term impact are defined. UK strengths in novel, high throughput molecular tools for soil food web dynamics will be applied with the Chinese investigators at the Ningbo CZO. This will provide the scientific evidence on how in organic fertiliser application will impact the soil N-cycle and can be pro-actively managed to improve yields and long-term soil fertility for food security. UK strengths in novel isotope biogeochemistry will be carried out jointly with the Chinese partners and will provide the scientific evidence to optimise soil management practices that reduce toxic metals uptake to food crops, to improve food safety. UK strengths for in situ quantitative analysis of emerging contaminants will develop novel biosensor technology and deploy it in the manipulation experiments in China. This will provide the scientific evidence for soil management practices to reduce the flux of contaminants to surface and groundwater. This will protect and improve water quality and help reduce the occurrence of environmental antibiotic resistance. UK strengths in mechanistic soil process modelling that is integrated with CZ flux determinations will be applied to interpret the results of the field manipulation experiments. The modelling will provide the scientific evidence to guide practice in organic fertiliser use to potentially benefit: crop yields, soil and water quality, ecological resilience to atmospheric deposition of urban contaminants, and reduced greenhouse gas emissions from land. Additional impacts include the potential for improved yields to help livelihoods and reduce poverty in farming communities. Joint design and delivery of manipulation experiments with farmers will support early identification and adoption of improved soil management practices. Organic fertilisers increase soil organic matter content which improves soil pore structure through aggregate formation. This increases plant-available water-holding capacity for drought resilience, and increases interaggregate water drainage for flood resilience. Reduced mineral fertiliser use will cut the life-cycle costs of the carbon footprint of manufacturing, greenhouse gas emissions from land, and increased water pollution from nutrient leaching.
People |
ORCID iD |
Tim Daniell (Principal Investigator) | |
Roy Neilson (Co-Investigator) |
Publications
Qiu L
(2021)
Insights into the mechanism of the interference of sulfadiazine on soil microbial community and function.
in Journal of hazardous materials
Tang Q
(2022)
How does partial substitution of chemical fertiliser with organic forms increase sustainability of agricultural production?
in The Science of the total environment
Xiang Q
(2020)
Agricultural activities affect the pattern of the resistome within the phyllosphere microbiome in peri-urban environments.
in Journal of hazardous materials
Zheng F
(2019)
Mineral and organic fertilization alters the microbiome of a soil nematode Dorylaimus stagnalis and its resistome.
in The Science of the total environment
Zhou SY
(2020)
Does reduced usage of antibiotics in livestock production mitigate the spread of antibiotic resistance in soil, earthworm guts, and the phyllosphere?
in Environment international
Zhou SY
(2021)
Vertical distribution of antibiotic resistance genes in an urban green facade.
in Environment international
Zhou SY
(2019)
Phyllosphere of staple crops under pig manure fertilization, a reservoir of antibiotic resistance genes.
in Environmental pollution (Barking, Essex : 1987)
Description | Chinese partners include industry stakeholders who have been engaging with the project. This is at an early stage but support is being organised to enable further interaction |
First Year Of Impact | 2022 |
Sector | Agriculture, Food and Drink,Environment |
Impact Types | Cultural,Societal,Economic |
Description | MIDST-CZ: Maximising Impact by Decision Support Tools for sustainable soil and water through UK-China Critical Zone science |
Amount | £81,344 (GBP) |
Funding ID | NE/S009132/1 |
Organisation | Natural Environment Research Council |
Sector | Public |
Country | United Kingdom |
Start | 01/2019 |
End | 03/2022 |
Description | Microbial process and genetic transformations - Microcosm experiment |
Organisation | Chinese Academy of Sciences |
Department | Institute of Urban Environment |
Country | China |
Sector | Academic/University |
PI Contribution | This collaboration is part of Work Package 3 of the project programme. It relates to the design, establishment and sampling of a large microcosm experiment that explores the effects of altered fertilisation practices on soil from the projects main field site. The Hutton team drove the design of the experiment and the post-doc travelled to China to help establish the experiment and provide training to the team from IUE. |
Collaborator Contribution | The Chinese partners are responsible for the running and sampling of the experiment which is on-going. They also perform the preliminary analysis of data from the experiment and will supply data and samples for other analyses. This data has now been supplied and we are assessing samples for further analysis. |
Impact | The experiment has now been completed and we are analysing data with a view to publication. |
Start Year | 2016 |