H2020 STARGATE Project: Resilient Agriculture through Adaptive Microclimate Management
- Type Project
- Status Signed
- Execution 2019 -2024
- Assigned Budget 6.994.405,00 €
- Scope Europeo
- Autonomous community Castilla - La Mancha
- Main source of financing Horizon 2020
- Project website https://www.stargate-h2020.eu/
The STARGATE project focuses on integrating data on sustainable productivity and microclimate characteristics to provide a better model for policymakers. Its comparative analysis will draw on national and European data and create visual analytics to support more efficient and modern management in agriculture, contributing to the understanding of local ecology and its characteristics, including meteorological data. STARGATE will create a model focused on the visual presentation of data at a wide range of local and international levels to facilitate better decision-making and on-the-ground implementation in a simpler and more affordable manner. STARGATE's contribution, beyond the state-of-the-art in applied climate data solutions, is the implementation of analytical models to support the formulation and implementation of local and regional policies related to microclimate change mitigation.
Once the policymaking process expands its database and data sources beyond the traditional approach, global datasets for comparative analysis, including weather, climate, and satellite analyses, will be needed to improve decision-making processes. STARGATE is leveraging access to these data and its climate platforms, including developed model platforms, to foster easy adoption by policymakers. STARGATE provides innovative components for visualizing big data, with an emphasis on geospatial visualization and dynamic graphics.
Furthermore, the project has been designed so that its results can be developed in other projects, or adapted to broader contexts (i.e., agri-food industry, climate adaptation, food security, precision agriculture, etc.), providing opportunities to influence policy on a wide range of issues, so that project outcomes last longer and benefit more stakeholders.
During the 1st and 2nd reporting periods, STARGATE focused and worked on the following objectives: Formation of the STARGATE community through engagement of pilot stakeholders: A strong stakeholder community consisting of farmers, farmers’ associations, agronomists, water managers, public sector agencies, governments, agri-businesses, civil society organizations and experts has been developed across 6 countries and 16 different use cases. Definition of the STARGATE pilot case studies through active engagement of pilot stakeholders/users: 16 use cases have been identified, covering different aspects of crop and livestock production as well as different agro-climatic zones and user segments. Understanding service and user requirements for weather and climate information at the pilot sites, as well as the needs and challenges of adopting climate-smart agriculture technologies at the pilot sites: A detailed database of user requirements for weather and climate information needs at the pilot sites, including their spatiotemporal characteristics, has been developed.
Understanding the pilot's data requirements and defining the STARGATE data collection protocol: A detailed analysis of the use cases from a data management perspective leads to the design of the data collection protocols for the STARGATE data management platform. The atmospheric data assimilation system: A workflow chain for an atmospheric data assimilation system has been developed. Satellite and ground-based observations are preprocessed and input into the assimilation system to produce high-quality atmospheric analysis fields. These are then used as inputs for the prediction model, which subsequently produces high-spatial-resolution weather forecasts. The coupled analysis/forecast system is deployed for two separate domain areas covering all pilot sites in six countries. The multi-model numerical weather prediction system: A system was created from three different operational weather prediction models: METEOBLUE, AUTH, and AGROAPPS, providing weather forecasts up to 7 days in advance.
Subseasonal to Seasonal Climate Prediction System: A system has been developed that provides operational climate predictions spanning from 1 month to 6 months. Climate predictions are presented in a meaningful way, including probabilities and anomalies, which can guide the agricultural sector's decision-making chain. Crop-Specific Risk Analysis/Monitoring/Prediction Method for Pilots Based on Historical Climate Data: Several climate risk scenarios have been developed for each pilot use case based on temperature, precipitation, solar radiation, soil moisture, wind, and crop type. Agroclimatic Indicator Set for Each Pilot Site: 16 different agroclimatic indicators have been developed that attempt to account for all aspects of climate impacts on agricultural production at each pilot site. Evaluating the Impact of Crop Practices on the Local Microclimate: Several numerical experiments were carried out in three pilot areas to quantify the impact of irrigated/non-irrigated and tillage/direct seeding agriculture on the near-surface atmospheric environment, especially on the intensity of extreme weather events. Conducting a climatological analysis of past and future climate conditions for the pilot project: A climatological analysis was performed for each use case to identify climate trends and assess the impact of anthropogenic global warming at the pilot sites. The climate analysis covered temperature, precipitation, relative humidity, evapotranspiration, solar radiation, and wind. Strategic and Tactical Climate-Smart Decision Tools: A suite of tools was designed for STARGATE. These tools will be used to assist policymakers, farmers, and agricultural consultants in using farm inputs and energy more efficiently, while reducing agricultural emissions and preserving the environment.
These tools will be developed using state-of-the-art precision agriculture methodologies using earth observations and meteorological data, along with crop models and machine learning algorithms to support the above farming procedures. The Land and Crop Suitability Methodology: A suitability methodology has been developed that will be used by STARGATE for efficient land-use planning and crop variety selection to enhance the adaptability of the agricultural sector at the pilot sites in a changing climate. The Multi-Stakeholder Validation Framework: STARGATE establishes the fundamental concepts and methods for establishing, implementing, and monitoring the participatory process that will be carried out at all pilot sites throughout the project lifetime. Effective Dissemination and Communication of Project Results: A dissemination package has been developed for the effective dissemination and communication of project results.
STARGATE develops an innovative, multi-scale, and holistic methodology for climate-smart agriculture, capitalizing on innovations in climate and microclimate risk management and landscape design. It draws on Earth observation, weather and climate intelligence, and IoT technologies to support more effective farm management and related options for climate change adaptation.
At the same time, local and regional policymaking based on STARGATE's climate-smart tools is leading to improved landscape management, climate risk protection, and implementation related to microclimate change mitigation. STARGATE is following the PPP model using the Living Lab approach to shape a regional multi-stakeholder Climate-Smart Agriculture framework connecting research organizations, policymakers, ICT companies, farmers, and other stakeholders.
Furthermore, STARGATE studies the benefits of applying agri-environment-climate technical solutions to achieve sustainable agricultural development at the field and landscape levels, including livestock and agroforestry. This means that STARGATE supports the modernization of agricultural management while simultaneously enabling an understanding of the underlying ecological factors that shape the rural landscape.
STARGATE's contribution, beyond being a cutting-edge application of applied climate data solutions, lies in the implementation of analytical models to support the formulation and implementation of local and regional policies related to microclimate change mitigation. Currently, policymaking organizations predominantly use their own data, usually limited to their jurisdiction or administrative area. However, once the policy development process expands the evidence base and data sources beyond the traditional approach, the need for global data arises.
The incorporation of national, European, and even global reference datasets for comparative analysis, including meteorological, climate, and satellite data sources, improves decision-making. Landscape-scale studies are necessary to understand key ecological processes. The focus will be on Climate-Smart Agriculture (CSA) and will comprehensively study the benefits of applying agri-environment-climate technical solutions to achieve sustainable agricultural development at the landscape level. This involves supporting the modernization of farm management while simultaneously understanding the underlying ecological factors that shape the agricultural landscape. STARGATE will leverage access to these data, as well as its climate platform, which includes developed model platforms, to promote simple and affordable adoption by policymakers. The simplest approach to decision support in policy development is effective data visualization.
Good visualization makes it easier for policymakers to model sustainable policies and decisions. Unlike algorithmic simulation and modeling, visualization leaves the decision-making and evaluation in the hands of the user, providing additional quality assurance before policy decisions are made. STARGATE offers innovative components for big data visualization, with a focus on geospatial visualization and advanced dynamic mapping.
- ETHNIKO KENTRO EREVNAS KAI TECHNOLOGIKIS ANAPTYXIS
- AGRICULTURAL APPLICATIONS IKE
- INNOVAGRITECH SRL
- ASPLAN VIAK AS
- Region of South Moravia
- VLAAMSE INSTELLING VOOR TECHNOLOGISCH ONDERZOEK N.V.
- LESPROJEKT SLUZBY SRO
- AGROMET IDIOTIKI KEFALAIOUCHIKI ETAIREIA
- VIDZEMES AUGSTSKOLA
- NEUROPUBLIC AE PLIROFORIKIS & EPIKOINONION
- ROSTENICE AS
- SOCIEDADE PORTUGUESA DE INOVACAO CONSULTADORIA EMPRESARIAL E FOMENTO DA INOVACAO SA
- ARISTOTELIO PANEPISTIMIO THESSALONIKIS
- AGRICULTURAL COMPANY IN THE UPPER GALILEE
- INSTYTUT CHEMII BIOORGANICZNEJ POLSKIEJ AKADEMII NAUK
- WIRELESSINFO
- METEOBLUE AG
- PESSL INSTRUMENTS GMBH
- DOISECO UNIPESSOAL LDA
- GAIA EPICHEIREIN ANONYMI ETAIREIA PSIFIAKON YPIRESION
- VYZKUMNY USTAV MELIORACI A OCHRANY PUDY VVI
- G & K KEFALAS GEORGIKI OE
- AGRISAT IBERIA SL
- VIDZEMES PLANOSANAS REGIONS
- MIGAL GALILEE RESEARCH INSTITUTE LTD
- ETAM ANONYMH ETAIREIA SYMBOYLEYTIKON KAI MELETHTIKON YPIRESION
- INSTITUT FUR ANGEWANDTE INFORMATIK (INFAI) EV
- Project website (CORDIS)
- CORDIS project factsheet (pdf)
- Current situation in the pilot regions
- Validation report of the first results
- Defining user requirements
- Future climate risk scenarios
- Gender Action Plan
- Impact of conventional and climate-smart agricultural practices on the local an…
- Practice Summaries Update
- Pilot area profiles
- Development of Agroclimatic Indicators
- Validation framework and multi-stakeholder processes
- Framework for phases 1-2 of the multi-stakeholder Living Labs process (co-creat…
- Definition of the architecture of the Atmospheric Data Assimilation System
- DS Tools Test Protocol
- STARGATE Data Collection Protocol
- Crop and Land Suitability Methodology
- Framework for socioeconomic and policy analysis
- Validated user requirements
- Tactical Methodology of Climate-Smart Decision Tools
- Update user requirements
- Formalization of user requirements
- Methodology of Strategic Tools for Climate-Smart Decision-Making
- Multi-stakeholder community directory
- Practice summaries for early results
- Data management plan
- Broadcast package
- Cloud-based map whiteboard solution for collaborative editing of geographic inf…
- Decision support system (DSS) for beef herd management and grazing habitat sust…
- The effect of controlled tile drainage on the growth and grain yield of spring …
- Geo-L: Discovering topological links for geospatial linked data made easy
- Analysis of Land Suitability for Corn Production under Climate Change and its M…
- Medicane Ianos: Assimilation of 4D-Var data from surface and satellite observat…
- Energy conservation in a livestock building combined with a renewable energy he…
- Climate risk services for cereal crops
- Decision support system (DSS) for beef herd management and grazing habitat sust…
- Calculation of Agroclimatic Factors from Global Climate Data
- Adverse climate impacts on yield gaps in winter wheat, maize, and potatoes in n…
- Maximizing the potential of numerical weather prediction models: Lessons learne…
- ETHNIKO KENTRO EREVNAS KAI TECHNOLOGIKIS ANAPTYXIS website
- Region of South Moravia website
- VLAAMSE INSTELLING VOOR TECHNOLOGISCH ONDERZOEK NV website
- VIDZEMES AUGSTSKOLA website
- NEUROPUBLIC AE PLIROFORIKIS & EPIKOINONION website
- Website of SOCIEDADE PORTUGUESA DE INOVACAO CONSULTADORIA EMPRESARIAL E FOMENTO…
- Website of ARISTOTHELIUS PANEPISTIMIO THESSALONIKIS
- INSTYTUT CHEMII BIOORGANICZNEJ POLSKIEJ AKADEMII NAUK website
- WIRELESSINFO website
- PESSL INSTRUMENTS GMBH website
- MIGAL GALILEE RESEARCH INSTITUTE LTD website
- INSTITUT FUR ANGEWANDTE INFORMATIK (INFAI) EV website
 
 
 
 
        
   
             
             
            