H2020 BIOPLAT-EU Project: Promoting the sustainable use of underutilized land for bioenergy production through a web-based platform for Europe
- Type Project
- Status Filled
- Execution 2018 -2021
- Assigned Budget 2.490.407,5 €
- Scope Europeo
- Autonomous community Castilla - La Mancha
- Main source of financing Horizon 2020
- Project website https://bioplat.eu//
Marginalized, underutilized, and contaminated land could be useful for non-food biomass production. In this context, the EU-funded BIOPLAT-EU project will promote the market adoption of sustainable bioenergy in Europe using these lands, which do not compete with food and feed production. First, the project will create a database of maps of MUC lands in Europe, as well as an easy-to-use public tool for searching these lands to facilitate sustainability assessments. For example, users can select a suitable crop and bioenergy pathway.
The project will also develop a web-based platform that will serve as a decision-support tool based on the results of the feasibility studies and the business models developed by the project. The project, with its webGIS tool, has proven to be an excellent aid and the first step in assessing the potential for bioenergy value chain development. The tool offers unprecedented insight into the potential of MUC land for bioenergy crop production in Europe. This is expected to aid the deployment of bioenergy on MUC land, increase the share of renewable energy in final energy consumption, and contribute to EU policies and SDG targets. The BIOPLAT-EU platform has proven to be a valid pre-feasibility assessment tool that can therefore guide interested investors toward the most promising value chain for further evaluation.
The indicators included in the webGIS platform are suitable for a technical analysis (one of the three components of a feasibility assessment). Since feasibility assessments in investment projects can typically be worth 1 to 3% of the investment volume, BIOPLAT-EU could be considered to reduce investment costs conservatively by up to 1%. At the same time, the tool assesses some sustainability indicators—i.e., environmental indicators such as CO2 emissions and social indicators—automatically, without incurring additional costs.
The initial tasks focused on mapping MUC lands in the EU and Ukraine. This was achieved by compiling a geospatial database of MUC lands that offer potential for bioenergy feedstock production, which is necessary for the webGIS tool and its functionalities.
Two types of maps were produced: first, a European map of MUC lands (TIER-1 map) and, second, regional maps for twelve case study areas (TIER-2 maps) in Germany, Hungary, Italy, Romania, Spain, and Ukraine. In parallel with the mapping, a review and harmonization of the methodologies and tools used for bioenergy sustainability analyses in the EU was carried out. This work laid the groundwork for the conceptual design of the webGIS platform and its Sustainability Assessment Tool (STEN) and enabled the development of its structure. The webGIS tool was formed by integrating and combining the GIS maps and the TEN tool.
Its development was carried out in three phases. In the first phase, the conceptual design was defined. This included identifying user requirements, user profiles, and use cases. The main variables and algorithms for calculating the set of sustainability indicators were identified. During the second phase, the prototype was developed. It was based on analyzing user requirements, building a mockup to facilitate user interaction, gathering information and developing basic layers for the data model, and developing the TEN tool. In the third phase, the webGIS prototype integrated all the GIS layers and data necessary for full operation. An instruction manual was developed. The tool was tested internally in 12 selected case study areas with defined value chains in the six case study countries and then externally with other stakeholders and optimized accordingly. A series of events were held in the case study regions with the aim of mobilizing stakeholders, informing them about opportunities for biomass production on MUC lands, and supporting them in implementing such projects.
In addition, the webGIS tool was tested live, and stakeholders, in turn, provided feedback on its adjustments. Communication was also conducted with judicial authorities regarding legal barriers to bioenergy deployment. Support for financial structuring was a key focus during the second project period. Twelve feasibility studies and business modeling studies were conducted in the selected value chains in the case study regions. The results showed that in some cases the projects were feasible, in some cases they required initial grants to be viable, and in others they were not. These results were highly dependent on local conditions.
The project offered technical support to stakeholders through the technical assistance function. One of the very interesting operational outcomes of the project was that a consulting firm conducted a study to explore the feasibility of reclaiming contaminated and underutilized land in Europe for sustainable biofuel production. Using the webGIS tool, they identified the most interesting land locations in Europe that could be used for bioenergy production. They managed to identify five countries with high potential and where bioenergy projects would be financially attractive and lead to savings in GHG emissions. From this, they moved to Stage 2, where they began planning the implementation phase and will continue using the webGIS tool. Thanks to the tool, Neste successfully conducted a pan-European assessment to explore MUC land suitable for oilseed crop production in Europe.
The results showed that the tool is technically applicable and easy to use for mapping potential value chains. The webGIS tool can identify potential MUC areas for oilseed crop production, allowing market participants to further assess them and begin developing more detailed bioenergy value chains. Combining the tool's information on MUC land and crop suitability reveals significant potential across Europe, with the greatest potential existing in eastern and southern Europe.
The evaluation determined that rapeseed oil and sunflower oil had the greatest potential. The project results were disseminated through various materials and dissemination channels. Due to the pandemic, the most efficient way to disseminate the results, and especially the webGIS tool, was through social media. The LinkedIn post announcing the tool had 1,523 views. The consortium published three peer-reviewed articles, and a fourth is in the pipeline with accepted status.
To achieve the EU's climate goals and the SDGs, bioenergy will play an integral role, but only if it is produced sustainably. Marginal, underutilized, and contaminated (MUC) land cannot be used for food production or for recreational and conservation purposes, but in some cases it still retains the potential to produce biomass for non-food purposes. The BIOPLAT-EU project will promote and support the uptake of sustainable bioenergy projects on these lands.
Furthermore, such use of these lands is unknown to stakeholders, so the project will promote and communicate about such opportunities through a web-based platform, including a user-friendly public tool utilizing a global information system that will assess the environmental, social, and techno-economic sustainability aspects of the defined value chains for bioenergy production on MUC lands, and through stakeholder engagement activities. To remove legal obstacles to the adoption of such projects, outreach activities will be organized with the responsible authorities.
Regarding technical and financial barriers, the project will support stakeholders and provide guidance on how such projects can be implemented. It will also connect biomass producers and processors with investors and provide guidance on how to make their projects bankable. The overall objective of the project is to promote market adoption of sustainable bioenergy in Europe using MUC land for non-food biomass production by providing a web-based platform to serve as a decision-support tool.
The BIOPLAT-EU proposal will promote and support the implementation of sustainable bioenergy projects on marginal, underutilized, and contaminated (MUC) lands. These lands cannot be used for food production or for recreational and conservation purposes, but in some cases retain the potential to produce biomass for non-food purposes. Furthermore, stakeholders are unaware of this use of these lands; therefore, the proposal will promote and inform about these opportunities through a web-based platform, including a user-friendly public tool utilizing a global information system, that will assess the environmental, social, and techno-economic sustainability aspects of the defined value chains for bioenergy production on MUC lands, as well as through stakeholder engagement activities.
To remove legal barriers to the implementation of these projects, communication activities will be organized with the responsible authorities. Regarding technical and financial barriers, the proposal will support stakeholders and provide guidance on how to implement these projects. It will also connect biomass producers and processors with investors and provide guidance on how to achieve profitability for their projects.
Bioenergy will play an important role in meeting the EU's climate goals. For example, the Renewable Energy Directive has established that 32% of Europe's energy production will come from renewable energy sources by 2030. To meet these and other climate goals, bioenergy must be produced sustainably. The availability of sustainable biomass resources is a key prerequisite for further developing advanced biofuels and entering the market. MUC land, a viable option in bioenergy production. An effective measure to support the sustainable expansion of bioenergy is the use of marginal, underutilized, and contaminated land to produce biomass. For the most part, this land can no longer be used for food or feed production or for recreational and conservation purposes. However, in some cases, MUC land has the potential to produce biomass feedstock suitable for bioenergy production. Furthermore, using these lands for biomass production could have several positive environmental and socioeconomic benefits.
These include restoring soil productivity, increasing biodiversity, promoting rural economic development, and increasing household incomes. Sustainability Tool for Bioenergy Production In order to scale up sustainable biomass and bioenergy production, the BIOPLAT-EU project developed a digital platform. It primarily incorporates a tool that uses Global Information System (GIS) maps. Available in English, French, German, Hungarian, Italian, Romanian, Spanish, and Ukrainian, this web-based GIS tool visualizes MUC lands on an interactive map covering Europe and neighboring countries. Relevant stakeholders, such as farmers, landowners, and investors, can search for MUC land plots and discover what type of biomass can be grown on them. To decide whether to proceed, they assess a set of environmental (e.g., soil quality), social (e.g., jobs in the bioenergy sector), and economic (e.g., net energy balance) sustainability indicators for selected bioenergy value chains. "This mapping provides a first insight into the viability and sustainability performance of the value chain and serves as a decision-support tool," explains Rainer Janssen of WIP Renewable Energies, the German renewable energy consulting firm that coordinated BIOPLAT-EU. "Actions can be carried out online without the need for extensive research, expertise, or funding." A manual, video, and online helpdesk are available to provide assistance. Valuable insights into MUC land availability across Europe. Project partners conducted an assessment to test the web-based GIS tool's ability to find MUC land suitable for sustainable oilseed crop production in Europe. "By combining the tool's information on MUC land and crop suitability, there is great potential across Europe, especially in the eastern and southern parts," says Janssen. The results showed that the tool is technically applicable and easy to use for mapping potential value chains.
Market participants may find promising MUC areas for oilcrop production and wish to further evaluate their options and begin developing more comprehensive bioenergy value chains. The pan-European assessment concluded that rapeseed and sunflower oil hold the greatest potential. "For the first time, a concise and easy-to-use overview of MUC lands across Europe was available, based on scientific data," Janssen concludes. "Thanks to BIOPLAT-EU, end-users can leverage the tool and explore opportunities to develop value chains for sustainably producing biomass on these lands."
- WIRTSCHAFT UND INFRASTRUKTUR GMBH & CO PLANUNGS KG
- JOANNEUM RESEARCH FORSCHUNGSGESELLSCHAFT MBH
- THE FOOD AND AGRICULTURE ORGANIZATION OF THE UNITED NATIONS
- CENTRUL PENTRU PROMOVAREA ENERGIEI CURATE SI EFICIENTA IN ROMANIA ENERO ASOCIATIEI
- NESTE OYJ
- 1TO3 CAPITAL BV
- NAUKOVO-TEHNICHNII CENTAR BIOMASA LLC
- FORSHUNGSINSTITUTE FUR BERGBAUFOLGELANDSCAFTEN E.V.
- EUROPEAN LANDOWNERS ORGANIZATION
- GEONARDO KORNYEZETVEDELMI TERINFORMATIKAI ES REGIONALIS PROJEKTFEJLESZTO KORLATOLT FELELOSSEGU TARSASAG
- UNIVERSIDAD DE CASTILLA - LA MANCHA
- CONSIGLIO PER LA RICERCA IN AGRICOLTURA E L'ANALISI DELL'ECONOMIA AGRARIA
- Project website (CORDIS)
- CORDIS project factsheet (pdf)
- Project presentation video
- Video interviews with stakeholders
- Video of the project results
- WIRTSCHAFT UND INFRASTRUKTUR GMBH & CO PLANUNGS KG website
- JOANNEUM RESEARCH FORSCHUNGSGESELLSCHAFT MBH website
- Website of THE FOOD AND AGRICULTURE ORGANIZATION OF THE UNITED NATIONS
- NESTE OYJ website
- NAUKOVO-TEHNICHNII CENTAR BIOMASA LLC website
- EUROPEAN LANDOWNERS ORGANIZATION website
- Website of GEONARDO KORNYEZETVEDELMI TERINFORMATIKAI ES REGIONALIS PROJEKTFEJLE…
- Website of the University of Castile-La Mancha
- Website of CONSIGLIO PER LA RICERCA IN AGRICOLTURA AND L'ANALISI DELL'ECONOMIA …