The transition to a low carbon economy needs to achieve multiple aims: competitiveness, protection of the environment, creation of quality jobs, and social welfare. Thus policy-makers and other key stakeholders require tools that need to focus beyond the energy sector by including these other domains of economy, society and the environment. Currently, most available tools lack integration of these important areas despite being tightly connected to the energy sector. Moreover, current energy modelling tools often lack documentation, transparency and have been developed for a specialized insider audience, which makes validation and comparison of results as well as independent review impossible. Our project aims to solve the current needs of integration and transparency by developing a leading-edge policy modelling tool based on WoLiM, TIMES and LEAP models and incorporating Input-Output Analysis, that allows for accounting of environmental, social and economic impacts. The modular design of the tool will take into account the necessary flexibility to deal with different levels and interests of stakeholders at great sectorial and spatial detail. Finally, transparency will be achieved through an open access freeware distribution of the model based on the open access programming language (Python), providing a detailed user manual, addressed to a wider non-specialist audience, and including free internet courses and learning materials.

The industrial sector could reduce its energy use by at least 13%. 75% of the potential savings can be found in steam and electric motor systems. Actions to tap the full potential in steam systems have been taken in the past but without success since findings from energy audits were not, or partly, implemented. The following barriers have been identified:  There is no business case for steam saving measures for enterprise decision makers;  There is a lack of technical (steam) expertise of energy auditors and within enterprises generally;  There is no formal organisational structure for dealing with energy efficiency (energy management). The objectives and goals of the STEAM-UP proposal are: • Bridging the gap between audit results and implementation by developing an in-depth steam audit covering:  state of the art steam expertise;  involvement of all stakeholders in the enterprise;  identification of non-energy benefits to strengthen business cases;  energy management to secure prolongation. • Reducing the effort for measure implementation by developing an integrated solution for business case reporting and energy management implementation. • Achieve energy savings during this action of 55,6 GWh/a through piloting 75 of the in-depth steam audits. • Building capacity amongst 400 energy auditors for the use of the in-depth steam audit methodology in their daily practise. • Building capacity amongst stakeholders in 75 enterprises on steam and the business benefits to increase steam efficiency. • Building capacity amongst 40 energy management training providers to enable integration of the in-depth steam audit methodology in regular energy training programmes. • Promote knowledge transfer on steam and the benefits to increase steam efficiency. This project focuses on the large, energy-intensive industry but the methodology will also be applicable for SMEs. The developed methodology can be made applicable for a wide range of utilities and processes.

Seven major municipalities in the Athens Metropolitan Area join efforts to launch showcase energy efficiency and renewable energy projects, utilizing innovative financial tools and attracting private investments. The projects comprise energy efficiency interventions in 116 municipal buildings, integration of a total 3.2 MW of photovoltaics on the roofs of these buildings and re-lamping for the municipal lighting. Total energy savings is 45.6 GWh/y and renewable electricity production is 4.8 GWh/y. Total cost for interventions is 20.24 M€ and the PRODESA cost is 1.06 M€. To achieve its objectives, the project shall focus on optimal bundling of the fragmented municipal projects to achieve considerable size, reasonable payback time and risk diversification. Bundling is also expected to lower processing costs. Pooling of resources is used to optimize financial results for all parties and to ensure high participation of ESCOs in the tenders. The newly introduced National Revolving Fund for Energy Efficiency and the Utility ESCO Fund will be part of the pool. Pooling will facilitate the exploitation of innovative financing schemes. Crowdfunding has been recently introduced in the Greek legislation and this tool will be carefully studied and applied. PRODESA is the first of its kind effort in Greece and aims to significantly contribute to the Energy Performance Contracting take-off. For this reason the project consortium has pooled together Key Actors such as the National Center for energy efficiency, the European Crowdfunding Network and entities with technical, financial and legal expertise. Being a showcase project, it emphasizes on capacity building, replicability, dissemination and exploitation of results. Two replicator municipalities are directly involved in the project and a network of at least 30 replicators will be initiated with the help of the Central Union of Municipalities of Greece.

streamSAVE will support Member States in harmonizing accurate, bottom-up energy savings calculations of technical priority actions under Article 7, as well as Article 3 of Member States’ EED reporting. The actions will be targeted to those measures with high energy saving potential and considered as priority issues by Member States. To understand Member States’ priorities, the consortium performed an online survey in May 2019 (explained below). For each of the identified priority actions, streamSAVE is fostering transnational knowledge exchange between public authorities and other key-stakeholders along the following axes: - Axis 1: Knowledge facility where Member States are guided through the status of energy saving methodologies in the EU28 and how they can streamline and improve their bottom-up energy savings calculations. - Axis 2: Peer-to-peer dialogues among public authorities and other key-stakeholders to share experiences, reflect on and validate the streamlined calculation methodologies. - Axis 3: Capacity support facility assisting Member States in implementing streamlined energy savings calculations for specific requests to improve their obligations under Article 3 and Article 7 of the Energy Efficiency Directive An online streamSAVE platform will be set-up to facilitate the exchange of knowledge and experiences among Member States according to the three axes, which is illustrated in the next figure. The project would assist Member States to deliver rapidly scalable savings and hence maximize their chances of successfully meeting the EED energy savings targets. Methodologies developed in this way would be eligible for use on a voluntary basis, but would benefit from the pooling of European expertise and experience and thus support best practice while avoiding duplicative effort.

IASIS aims at providing solutions for curing both contaminated and saline land through phytomanagement. Selected high-yielding, non-food (industrial) crops will provide biomass feedstock to develop intermediate and end bioproducts, following a cascading biorefinery approach, via economic-viable value chains. Farmers will have an active role on how to remediate the contaminated and/or saline soils while generating additional income by providing sustainable feedstock for non-food value-added applications. In order for the main and specific objectives to be fulfilled a total number of 6 work packages have been designed. The work starts with the crops’ optimisation (improved genotypes) and phytomanagement strategies (microbial consortia) development (WP1) for both contaminated and saline soils that will be tested and validated both in lab scale and in field case studies (FCSs). FCSs will be set up (WP2) in eight sites in Europe (4 contaminated and 4 saline), where 8 high-yielding, non-food (industrial) crops will be grown, following low-input and phytomanagement practices, to produce feedstock for the value chains and the bio-products development (WP3) as well as to engage and train the farming community (WP2). Two main groups of bioproducts will be developed (WP3) based on the type of industrial crops exploited (oilseeds and lignocellulosic) and in total 10 intermediate and 10 end-products will be developed and tested. Sustainability and feasibility assessment will be carried out on the most promising biomass-to-products pathways (WP4). A Decision Support System, to assess the viability and the soil remediation of the proposed value chains, and applicable business models will be developed tailored to the IASIS needs that will be applied for the IASIS case studies but will be applicable beyond the project. The regulatory framework will be outlined, while policy recommendations will be proposed. WPs 5 & 6 are dedicated to project dissemination and coordination.