3. Keynote:
Joshua Thumin - Center for Sustainable Energy (CSE)
Case Studies:
Marta Chillida Munguet – City of Granollers (ES)
James Wilson - Islington Council (UK)
Prof. Massimo Santarelli – University of Torino (IT)
Moderation
Carsten Rothballer, ICLEI Europe, Coordinator Sustainable Resources, Climate and Resilience
This project has received funding from the European Union's Horizon 2020 research
and innovation programme under grant agreement No. 723636.
4. 14:30 - 14:40
Setting the scene for Circular Heating and Cooling
14:40 – 14:55
THERMOS Tool and Project
14:55 – 15:35
Case studies, examples and replicable solutions
15:35 – 16:00
Panel Debate
16:00 – 16:20
Introduction & take off for Gutleutmatten study tour
5. • What do we understand when we talk about “circularity”?
• EU COMs and legislative proposals on Circular Economy define circularity recycling rate.
Recycling is here the share of recycled materials in End-of-Life waste.
• However, circularity should not only refer to material use but also include
energy resources.
Figure 1: Shows the metabolism of Austria in 2014, includingextraction,net imports, material- and energetic use as well as domestic processed output (DPO), vapor,
carbon as well as recycling (Jacobi et al., 2018). Source: Jacobi, N., Haas, W., Wiedenhofer, D., Mayer, A., 2018. Providing an economy-widemonitoringframework for
the circulareconomy in Austria: Status quo and challenges. Resources, Conservation and Recycling 137, 156–166. https://doi.org/10.1016/j.resconrec.2018.05.022
• Trade-offs between material
use and energy use as well as
rebound effects can be
depicted;
• Substitution effects of fossils
with renewables can be shown;
• Allows for more accurate
assessment of circularity based
on the overall material and
energetic throughput (e.g. for
biomass and fossils)
6. Europe consumes half of its
energy for H/C purposes. Most
in buildings and industry
thermos-project.eu
7. Most thermal energy is produced
from fossil fuels (66%) and only
13% comes from renewable
energies
thermos-project.eu
8. There is more heat wasted
during electricity production in
Europe than is required to
heat all buildings in the
continent
Heat demands: 1,529 PJ/y
Excess heat: 2,470 PJ/y
District heating share: 12%
Renewable energy in
heating: 12%
Not a technical barrier to
improve energy efficiency
…
thermos-project.eu
9. • Population:
1.76 million
• Area:
511 km2
• Total Heat Demand (HD):
64 PJ
• HD in density > 300 TJ/km2: 26 PJ
• HD in density 120-300 TJ/km2:
24 PJ
• Biomass resourses in the region:
• Forest residues: 1 PJ
• Biowaste: 3 PJ
• Straw: 2 PJ
• Estimated excess heat:
> 450 PJ
Heat Demand Densities 2015 [PETA
4.2]
Bonn
Cologne
179 PJ
150 PJ
75 PJ
20 km
25 km
Bonn-Cologne in HRE4’s
Pan-European Thermal Atlas
thermos-project.eu
10. Pathway to Circular Heating and Cooling
Source: Rasmus Lund, Aalborg University, 4DH Paris, 2017
Efficiency
Integration
Heat
sources
11. www.heatroadmap.eu
@HeatRoadmapEU
This project has received funding
from the European Union's Horizon
2020 research and innovation
programme under grant agreement
Heat Roadmap Europe
7
The heating and cooling sector can play an important role by integrating the
increasing shares of variable renewable energy and enhance the grid
flexibility.
4
In the vast majority of urban areas, district energy is technically and
economically more viable than other network and individual based solutions,
and can be 100% decarbonised through the use of renewables, large heat
pumps, excess heat, and cogeneration.
2
Energy efficiency on both the demand and the supply side are necessary to
cost-effectively reach the decarbonisation goals.
1
The heating and cooling sector can be fully decarbonised based on
technologies and approaches which already exist, are market-ready and
have successfully been implemented in Europe.
12. www.heatroadmap.eu
@HeatRoadmapEU
This project has received funding
from the European Union's Horizon
2020 research and innovation
programme under grant agreement
District heat supply
• Different types of heat start to
play a different role
• CHPs operate to the
electricity markets and ‘pair’
with large heat pumps
• HPs combined: ~75%
• Individual boilers are almost
irrelevant
• Constraints are mostly
temporal and geographic
38%
4%
25%
2%
9%
1%
5%
2%
14%
District heating source shares in
HRE 2050 CHP plants
Geothermal
Heat pumps
Solar thermal
Industrial excess
Electric boilers
Fuel boilers
Waste
incineration
13. Specific (sub)sectoral targets and
horizontal and vertical integration
• EE and RE go hand-in-hand but need to have seperate targets
• EE transistion costs are lower and affordable if the energy system is
optimised locally, regionally and across-boarders
• Horizontal integration of EE targets: Overall EE target should be translated
(in NECAPs) into all sectors (electricity, heating and cooling, transport etc.)
and their subsectors.
• Vertical integration of EE targets: throughout governmental levels
14. Panel Debate
Technical options for heat transfer, infrastructure and development and how to address
user psychology, legislature, incentives and costs
15. Thank you for your attention!
Stay on to join us for an introduction and subsequent study tour to
the Gutleutmatten development area
This project has received funding from the European Union's Horizon 2020 research
and innovation programme under grant agreement No. 723636.
16. 16:00 – 18:30
Study Tours in the City of Freiburg
Study Tour 1: Green Industry Park
Climate protection and energy efficiency in Freiburg’s largest industrial area
Study Tour 2: Former Landfill Eichelbuck
From waste mountain to energy mountain
Study Tour 3: THERMOS study visit to ‘Gutleutmatten’
Visit to one of Freiburg’s most important urban development projects
#LocalRenewables #THERMOSInspire @LR_Series @THERMOS_eu
