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LIFE Project: Cultivating Resilience: Climate Change Adaptation Strategies for Greenhouses to Improve Performance and Resource Efficiency

  • Type Project
  • Status In progress
  • Execution 2024 -2028
  • Assigned Budget 4.468.538,00 €
  • Scope Europeo
  • Autonomous community Andalucía
  • Main source of financing LIFE
  • Project website Web del proyecto
Description

The LIFE-ACCLIMATE project seeks to implement and demonstrate a sustainable and resource-efficient greenhouse horticulture model as a climate change adaptation strategy, leveraging advanced technologies such as ground-based and aerial robots, Artificial Intelligence (AI), and Decision Support Systems (DSS).

Contextual description

The Mediterranean region is projected to experience more frequent and severe heat waves, resulting in decreased crop yields, particularly for heat-sensitive crops such as vegetables. Under future climate scenarios, yields could decline by up to 50% for certain crops, including vegetables. According to the United Nations (UN), the global population is projected to reach 9.7 billion by 2050, requiring a 70% increase in global food production. The agricultural sector faces a growing demand for food, as the effects of climate change reduce crop yields in many regions and increase the risk of pest and disease outbreaks, leading to food insecurity and loss of income for farmers. To address these challenges, it is critical to develop sustainable agricultural practices that are resilient enough to withstand some of the worst effects of climate change.

The European Union (EU) supports this approach through policies and regulations such as the Farm to Fork Strategy, which promotes sustainable agriculture and the use of greenhouses for climate change adaptation. Greenhouses have been identified as a potential solution to the threats posed by climate change and population growth, as they provide controlled environments that protect crops from extreme weather conditions and allow cultivation in areas unsuitable for traditional agriculture, such as arid or urban regions. Despite their potential, greenhouses rely heavily on large volumes of energy (which contribute to greenhouse gas emissions) and resource-intensive practices that generate large amounts of water, fertilizers, and pesticides, resulting in negative environmental impacts. Therefore, while greenhouses are considered key elements for the future sustainability of the agricultural sector, addressing these challenges is critical to their sustainable operation.

Objectives
  • Increase crop yield: Implement advanced monitoring systems, such as remote sensing technologies, to optimize crop yield in greenhouse agriculture.
  • Improving water efficiency: Develop and implement precision irrigation systems and fertigation strategies, using data from ground-based and aerial robots and monitoring platforms.
  • Improve energy efficiency: Integrate smart energy management systems, such as AI-based algorithms and automated controls.
  • Reduce pesticide use: Explore and implement bio-based pesticides and auxiliary wildlife, integrating them with innovative integrated pest and disease management systems.
  • Optimize nutrient management: Develop precise nutrient management techniques, using accurate monitoring data and AI algorithms.
  • Reduce GHG emissions: Implement sustainable practices and technologies, such as energy-efficient heating and cooling systems and resource optimization methods.
Results
  • Optimize crop yield in greenhouse agriculture, with the goal of achieving a minimum 25% increase compared to the baseline.
  • Reduce water consumption in greenhouses by at least 25%.
  • Optimize energy use for heating, cooling, and lighting in greenhouses, with the goal of reducing energy consumption by at least 25%.
  • Completely stop the use of chemical pesticides and reduce the impact of pests and diseases by at least 50%.
  • Optimize fertilizer application and minimize nutrient losses in greenhouses, with the goal of reducing fertilizer use by 20%.
  • Reduce GHG emissions associated with greenhouse operations by a minimum of 20%.
Contact information
  • Coordinator/entity name: Jorge Antonio Sánchez Molina  
  • Postal address: SACRAMENTO CANADA ROAD, 04120, ALMERIA

Coordinators
  • UNIVERSIDAD DE ALMERÍA
Collaborators
  • UNIVERSIDAD POLITECNICA DE MADRID
  • DOMCA SA
  • GARAIA S COOP
  • ASOCIACION DE EMPRESAS TECNOLOGICAS INNOVALIA
  • AGROBIGDATE SOLUTIONS SL
  • ACORDE TECHNOLOGIES SA
  • FUNDACION GRUPO CAJAMAR
  • FUNDACION CENTRO TECNOLOGICO DE COMPONENTES
  • AGROBIO SL
  • ALERION TECHNOLOGIES SL