The Future Internet (FI) represents an age of unprecedented opportunities for social, economic, and business growth thanks to the global scale connectivity of the virtual as well as of the physical world. This indeed opens up a wealth of innovative and revolutionary real-life scenarios, as for instance illustrated by the smarter cities perspectives where envisioned scenarios significantly ease daily human activities and give support for the growth of new markets and employment opportunities. However, leveraging the FI for the development of innovative software applications remain a challenging task even though major enablers are readily available by ways of service-oriented and cloud computing. It is in particular our vision that enabling the choreography of FI services shall play a significant role in the provisioning of innovative applications. However, existing choreography-based service composition approaches are rather static and are poorly suited to the need of the FI that is a highly dynamic networking environment, further bringing together highly heterogeneous services ranging from Thing- to Business-based services that span different security domains. As a result, the technology is not mature enough for market take-up. CHOReVOLUTION elevates the Readiness Level of existing choreography technologies in order to drop the dynamism and cross-organization security barriers via the automated synthesis of dynamic and secured choreographies in the FI. To meet its objectives, CHOReVOLUTION undertakes both research and innovation tasks. The former concentrates on choreography modelling, synthesis, adaptation, service bus, security, and cloud; the latter focus on industrial validation, development support and integration platform, and the establishment of a CHOReVOLUTION community and market take-up. Last but not least CHOReVOLUTION outcomes are assessed by experimenting with new applications in the field of Intelligent Transportation Systems.

The main objective of EMPOWER is to substantially reduce the use of conventionally fueled vehicles (CFV) in cities by influencing the mobility behaviour of CFV drivers and users towards fundamental change. To achieve this objective EMPOWER will create a set of tools for industry, policy makers and employers. These will empower them beyond the lifespan of this project to understand, help choose and successfully implement ‘positive’ evidence-based and cost-effective policy interventions, based on new and innovative mobility services, and in the context of already existing infrastructure, policy and measures. EMPOWER will reduce the use of CFV by: shifting trips to other modes/other vehicle types, promoting sharing and self-organisation and reducing demand overall e.g. through remote access to services. Undesirable impacts from CFV use will be reduced by: shifting CFV use to outside peak times and diversions to avoid particular areas/routes. The research will be multidisciplinary and involve: social science research with the public, 4 living lab experiments and 7 City demonstrators which will be chosen through an open 'bidding' process. The EMPOWER concept will be used in practice by: City stakeholders being able (through a software tool) to choose positive policy options based on their expected impacts and deliver incentives and social network sharing schemes to individuals using software. The innovation outputs of EMPOWER include an EMPOWER Toolkit to support industry, policy makers and employers to understand, choose and implement positive policy interventions. The Toolkit includes: new mobility services to provide innovative positive policy measures, new evidence on behavioural responses and impacts from positive incentives, improved organisational models for successful implementation of positive policy measures and innovation in the evaluation methodology for new mobility services. We expect at least 1 million persons to be impacted by EMPOWER.

MEISTER will deliver a set of tools to foster e-mobility large scale adoption by (1) demonstrating innovative, sustainable business models to lower installation and operation costs of charging infrastructure, (2) optimizing usage of infrastructure by the smart combination of charging and parking services, (3) integrating EV within urban SUMPs, including the establishment of EV sharing and the inclusion of EV within MaaS schemas to reduce CO2 emissions and optimize urban space usage, (4) providing interoperable platforms and services to users for an easy, convenient and barrier-free access to charging, billing and smart grid services, including an increase of the use of RES and self-generation to power EVs. Thus, MEISTER aims at creating the conditions for smart e-mobility market take up in cities, by means of developing integrated approaches, smart solutions and innovative, sustainable business models, which will be tested and validated in three urban areas in Southern, Central and Northern Europe: Malaga (Spain), Berlin (Germany), and Gothenburg (Sweden). These 3 sites are EU leaders in the field of e-mobility, have complementary contexts and share a common vision on EV deployment. The three MEISTER pilots will involve 51,500 users, 1,000 EV and 660 charging points. MEISTER expects to increase by 15% the demand for EVs, as well to reduce by 20% the installation costs of EVSE infrastructure. At the same time, the project expects to help reduce charging prices by 20% and increase by 30% the usage of RES to charge EVs. As a result of these figures, the project will also have a substantial impact in terms of a reduction of emissions and environmental sustainability, as described in section 2.1.4. Business models and public-private partnership frameworks developed and demonstrated by the project will be designed and documented to facilitate trans-European transferability and impact.