Local flexibility market design for aggregators providing multiple flexibility services at distribution network level

This paper presents a general description of local flexibility markets as a market-based management mechanism for aggregators. The high penetration of distributed energy resources introduces new flexibility services like prosumer or community self-balancing, congestion management and time-of-use optimization. This work is focused on the flexibility framework to enable multiple participants to compete for selling or buying flexibility. In this framework, the aggregator acts as a local market operator and supervises flexibility transactions of the local energy community. Local market participation is voluntary. Potential flexibility stakeholders are the distribution system operator, the balance responsible party and end-users themselves. Flexibility is sold by means of loads, generators, storage units and electric vehicles. Finally, this paper presents needed interactions between all local market stakeholders, the corresponding inputs and outputs of local market operation algorithms from participants and a case study to highlight the application of the local flexibility market in three scenarios. The local market framework could postpone grid upgrades, reduce energy costs and increase distribution grids’ hosting capacity.Postprint (published version

The Design of the Internal Energy Market in Relation to Energy Supply Security and Climate Change

The Clingendael International Energy Programme (CIEP), the Loyola de Palacio Chair on EU Energy Policy of the Robert Schuman Centre of Advanced Studies (European University Institute), the Fondazione Eni Enrico Mattei (FEEM) and Wilton Park Conferences (WPC) organize a four-tier program for discussing the potential for a smart EU Energy Policy. The Florence workshop is then the first one in a series of four where academics will discuss the various interactions between the three objectives of the EU Energy Policy with stakeholders from governments, regulators and the industry. This workshop addressed the internal energy market design and its consequences for energy supply security and climate change policies. The workshop gathered over one day and a half 42 experts to discuss current problems and possible solutions for a smart EU Energy Policy.Smart energy policy,3d EU directive,Market design,Renewable energy,gas reform

The design of the Internal Energy Market in relation energy supply security and climate change

The Clingendael International Energy Programme (CIEP), the Loyola de Palacio Chair on EU Energy Policy of the Robert Schuman Centre of Advanced Studies (European University Institute), the Fondazione Eni Enrico Mattei (FEEM) and Wilton Park Conferences (WPC) organize a four-tier program for discussing the potential for a smart EU Energy Policy. The Florence workshop is then the first one in a series of four where academics will discuss the various interactions between the three objectives of the EU Energy Policy with stakeholders from governments, regulators and the industry. This workshop adressed the internal energy market design and its consequences for energy supply security and climate change policies. The workshop gathered over on day and a half 42 experts to discuss current problems and possible solutions for a smart EU Energy Policy.Smart energy policy; 3rd EU directive; Market design; Renewable energy; gas reform

Scenarios for the development of smart grids in the UK: literature review

Smart grids are expected to play a central role in any transition to a low-carbon energy future, and much research is currently underway on practically every area of smart grids. However, it is evident that even basic aspects such as theoretical and operational definitions, are yet to be agreed upon and be clearly defined. Some aspects (efficient management of supply, including intermittent supply, two-way communication between the producer and user of electricity, use of IT technology to respond to and manage demand, and ensuring safe and secure electricity distribution) are more commonly accepted than others (such as smart meters) in defining what comprises a smart grid. It is clear that smart grid developments enjoy political and financial support both at UK and EU levels, and from the majority of related industries. The reasons for this vary and include the hope that smart grids will facilitate the achievement of carbon reduction targets, create new employment opportunities, and reduce costs relevant to energy generation (fewer power stations) and distribution (fewer losses and better stability). However, smart grid development depends on additional factors, beyond the energy industry. These relate to issues of public acceptability of relevant technologies and associated risks (e.g. data safety, privacy, cyber security), pricing, competition, and regulation; implying the involvement of a wide range of players such as the industry, regulators and consumers. The above constitute a complex set of variables and actors, and interactions between them. In order to best explore ways of possible deployment of smart grids, the use of scenarios is most adequate, as they can incorporate several parameters and variables into a coherent storyline. Scenarios have been previously used in the context of smart grids, but have traditionally focused on factors such as economic growth or policy evolution. Important additional socio-technical aspects of smart grids emerge from the literature review in this report and therefore need to be incorporated in our scenarios. These can be grouped into four (interlinked) main categories: supply side aspects, demand side aspects, policy and regulation, and technical aspects.

Service Orientation and the Smart Grid state and trends

The energy market is undergoing major changes, the most notable of which is the transition from a hierarchical closed system toward a more open one highly based on a “smart” information-rich infrastructure. This transition calls for new information and communication technologies infrastructures and standards to support it. In this paper, we review the current state of affairs and the actual technologies with respect to such transition. Additionally, we highlight the contact points between the needs of the future grid and the advantages brought by service-oriented architectures.