The objective of the GIRTER project is the development of an intelligent energy management tool for district heating and cooling networks, which based on adequate monitoring and the application of dynamic simulation techniques, optimize the operation of the generation systems and maximize integration from sources of renewable generation and the use of residual heats from nearby processes.
This will be based on the availability of the energetic resources, a prediction of the demand of the users of the district based on simulation and renewable production, which optimizes the control decisions taking into account the status and operating costs of the equipment auxiliary support distributed at each supply point.
- Development of a demand prediction service, based on customer characteristics and weather conditions.
- Development of simplified models of buildings and generation systems.
- Development of smart thermal network management strategies, which establish the optimum temperature and mode of operation of the network.
- Development of a heat generation management device.
- Establishment of the instrumentation and open communication protocols of the different ring elements necessary for intelligent management.
- Development of simplified models for the characterization of demand, energy generation and distribution systems..
- Development of strategies and a device for the management of Intelligent Thermal Networks
- Development of monitoring and control infrastructure.
- Proof of concept and validation of the prototype in demonstration pilots.rformance analysis.
- Intelligent management system for district thermal networks with polygeneration.
- Operation algorithms based on simplified models of buildings and generation systems.
- Optimization of energy consumption in the operation of thermal networks.
Budget total: 1.046.110,84€
Contribution CARTIF: 144.669,35 €
Date of start and end: oct/2016 – dic/2019
Division of Energies
Energy systems projects:
The overall objective of REWARDHeat is to demonstrate a new generation of low-temperature district heating and cooling (DHC) networks, which will be able to recover renewable (RES) and residual (WH) heat available at low temperatures.
The SunHorizon project aims to demonstrate that combining technologies (TPs) such as solar panels and managed heat pumps with a controller with predictive, proactive and self-learning capabilities saves energy.
The objective of the ReUseHeat project is to demonstrate pioneering, advanced, modular and replicable systems that make it possible to reuse the excess heat available on an urban scale.