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Thermal collectors




List of projects where this technology is being implemented.

SMARTER TOGETHER

The European lighthouse cities Vienna (Austria), Munich (Germany) and Lyon (France), the follower cities Santiago de Compostela (Spain), Sofia (Bulgaria) and Venice (Italy), the observer cities Kiev (Ukraine) and Yokohama (Japan) come together to improve citizens’ quality of life. SMARTER TOGETHER... Continue reading
Funding programme: H2020, SCC 1 - 2015: Smart Cities and Communities solutions integrating energy, transport, ICT sectors through lighthouse (large scale demonstration - first of the kind) projects
SCIS Clusters: Demonstration projects, Smart Cities and Communities, Integration of energy systems, ICT and transport in cities

Triangulum

The three point project Triangulum is one of the European Smart Cities and Communities Lighthouse Projects, set to demonstrate, disseminate and replicate solutions and frameworks for Europe’s future smart cites. The flagship cities Manchester (UK), Eindhoven (NL) and Stavanger (NO) serve as a... Continue reading
Funding programme: H2020, SCC 1 - 2014 Smart Cities and Communities solutions integrating energy, transport, ICT sectors through lighthouse (large scale demonstration - first of the kind) projects
SCIS Clusters: Demonstration projects, Smart Cities and Communities, Integration of energy systems, ICT and transport in cities

REMOURBAN

REMOURBAN is a lighthouse project whose ultimate goal is to design and validate a urban regeneration model in the cities of Nottingham (United Kingdom), Valladolid (Spain) and Tepebasi/Eskisehir (Turkey), while maximizing its replication potential in two follower cities, Seraing (Belgium) and... Continue reading
Funding programme: H2020, SCC 1 - 2014 Smart Cities and Communities solutions integrating energy, transport, ICT sectors through lighthouse (large scale demonstration - first of the kind) projects
SCIS Clusters: Demonstration projects, Smart Cities and Communities, Integration of energy systems, ICT and transport in cities

DIRECTION

DIRECTION aimed at demonstrating how the use of very innovative and cost-effective energy efficiency technologies can lead to the achievement of very low energy new buildings. This aim along with the effective adoption of low energy buildings was achieved by switching to a model whereby energy... Continue reading
Funding programme: FP7, Topic EeB.ENERGY.2011.8.1-1: Demonstration of very low energy new buildings
SCIS Clusters: Demonstration projects, Energy Efficiency in Buildings, New Buildings

CITyFiED

The CITyFiED project aims to develop a replicable, systemic and integrated strategy to adapt European cities and urban ecosystems into the smart city of the future, focusing on reducing the energy demand and GHG emissions and increasing the use of renewable energy sources by developing and... Continue reading
Funding programme: FP7, 4- Demonstration of optimised energy systems for high performance-energy districts.
SCIS Clusters: Demonstration projects, Sustainable energy solutions on district level, Optimisation of energy systems for high-efficiency districts

CELSIUS

To increase energy efficiency in EU, CELSIUS helps cities across Europe to develop secure, affordable and low carbon district heating and cooling solutions that form part of the city's wider energy system. The focus is on maximising the use of waste heat or secondary heat within a city by capturing... Continue reading
Funding programme: FP7, 2- Large scale systems for urban area heating and/or cooling supply
SCIS Clusters: Demonstration projects, Energy System Integration, Large Scale Energy Systems – Heating & Cooling

A solar thermal collector collects heat by absorbing sunlight. There are various types of solar thermal collectors, ranging from low-temperature unglazed collectors, which are typically used to heat swimming pools, to evacuated tube collectors, which consist of an array of single or twin-wall glass tubes, with a vacuum providing insulation against heat loss.

The most widely used thermal collectors are flat plate collectors, which are used for domestic hot water applications. Concentrating collectors use reflective surfaces to concentrate sunlight onto a small area, where it is absorbed and converted to heat. Concentrators can increase the power flux of sunlight hundreds of times.

The principal types of concentrating collectors include: compound parabolic, parabolic trough, fixed reflector moving receiver, fixed receiver moving reflector, Fresnel lens, and central receiver. Concentrating solar collectors in concentrated solar power (CSP) facilities concentrate sunlight onto a receiver where it heats a heat transfer fluid that subsequently transfers its absorbed heat to water to produce steam, which in turn powers a steam turbine-generator (STG) to produce electricity.

Thermal collectors are combined with storage systems to provide water for hot water (DHW) and heating purposes. They can also serve as the energy supply unit for heat pumps and sorption cooling technologies. Similar to photovoltaic module, solar thermal collectors can be installed during refurbishing activities in very different kinds of layouts and scales.