HYDRA - Cheap-GSHPs - Tech Brochure REV 6

2018
C H E A P A N D E F F I C I E N T
A P P L I C AT I O N O F R E L I A B L E
G R O U N D S O U R C E H E AT
E X C H A N G E R S A N D P U M P S
TECHNICAL BROCHURE
Acronym Cheap-GSHPs
Website www.cheap-gshp.eu
Topic LCE-03-2014
Type of action IA
Call
H2020-LCE-2014-2
Start date 01/06/2015
End date 31/05/2019
Duration 48 months
Coordinator CNR – ISAC
Contact Adriana Bernardi
(a.bernardi@isac.cnr.it)
CHEAP-GSHPs project has received funding from the
European Union’s Horizon 2020 research and innovation
programme under grant agreement No. 657982

GENERAL
INFORMATION
I
n order to achieve the objectives of Cheap-GSHPs, a multidisciplinary and complementary consortium
...has been built, composed by specialists in dierent disciplines involved (physics, climatology,
chemistry, mechanics, engineering, architecture, drilling and GSHE technology). The majority of them
have a large and comprehensive experience in the framework of the European Commission (EU)
Research Programs and particularly in shallow geothermal systems.
T
he proposal will focus on one hand on the development of more ecient and safe shallow geothermal
........systems and the reduction of the installation costs. This will be realized first by improving drastically
an existing, innovative vertical borehole installation technology and the design of coaxial steel GSHE and
second, newly designed basket type GSHE’s with novel installation methodologies will be developed.
With a view to improve safety and reduce permitting requirements the improved coaxial GSHE’s will be
installed respectively to depths of 40 – 50 meters and the basket type GSHE’s to 15 – 20 meters. This
doesn’t prevent however the coaxial GSHE’s to be installed up to depths of 100 – 120 meters.
O
n the other hand, the proposal will develop a decision support system (DSS) and other design tools
..........covering the geological and drillability aspects, feasibility and economic evaluations based on
dierent plant set-up options, selection, design, installation, commissioning and operation of low
enthalpy geothermal systems. These tools will be made publicly available on the web at dierent levels
for respectively non-expert and expert users, including comprehensive training to lower the market entry
threshold.
G
iven that drilling and GSHE technologies are mature but costly, this holistic approach is included in the
........proposal to bring the overall cost of the total project down, i.e. not just the cost of the GSHE itself but
the avoidance of ground response tests, the reduction of the engineering costs for the design of the GSHE
and the integration of heat pumps with building heating and cooling systems. Also the use of the novel
heat pumps for higher temperatures developed within the project will reduce the costs in the market for
retrofitting buildings, in particular for historical ones, when replacement of the high temperature
terminals can be avoided. The developments will be demonstrated in six sites with dierent
undergrounds and climate conditions, whilst the tools will be applied to several virtual demo cases.
T
he Consortium is
......composed by17
p a r t n e r s ( I t a l y ,
B e l g i u m , G r e e c e ,
G e r m a n y , F r a n c e ,
I r e l a n d , R o m a n i a ,
S p a i n a n d
S w i t z e r l a n d ) .
Northern, Southern,
Western, Eastern and
Central EU countries
are well balanced so
t h a t E u r o p e i s
geographically well
represented.
PARTNERS WITHIN THE CONSORTIUM
2 Cheap-GSHPs
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PROJECT
RESULTS
WP1
GEOLOGICAL MAPPING, CLIMATIC DATA AND ENERGY
REQUIREMENTS
A
ll the most relevant aspects that have to be taken into account when designing a new ........... GSHP
..........system are considered, in order to assist users of the Decision Support System (DSS) and explain
how the data obtained have been collected and analyzed as shown in WP5. For allowing proper
calculations of the DSS robust databases have to be built up.
The databases present also representative values that can be easily understood by expert and nonexpert
users. The resulting map is derived from the generalized geological context (and its associated
thermal behavior) with respect to the geological variability of the underground conditions in the Cheap-
GSHPs partner countries.
T
DRILLABILITY AND THERMAL PROPERTIES OF THE UNDERGROUND
he drillability of the geological classes defined in FAU_PAR-MAT-CON was investigated. The result of
.......this analysis presents the best drilling technique for each type of underground classes.
V
A
N
Dominant Parent Material for
E classification due to consolidation
(FAU PAR-MAT-CON)
S
No information
Igneous & Metamorphic Rocks
Consolidated Sedimentary Rocks
Unconsolidated Materials (undefined)
Sand (unconsolidated)
Clay (unconsolidated)
Gravel (unconsolidated)
Organic Material
Kilometers
0 155 310 620 930 1.240
Underground Drillability
(FAU_PAR-MAT-CON)
Clay
(unconsolidated)
Sand
(unconsolidated)
Without groundwater
Sand
(unconsolidated)
With groundwater
thermo-geological database is necessary in order to pick up the right values when sizing a GSHE
..........system. Two dierent types of databases have been built up: one for non-expert users ans one for
expert users. The more detailed database has been the result of an activity based on literature analysis as
well as on experimental measurements on samples of dierent ground types.
Type of
Probe
Helix
Coaxial
PE
Coaxial
INOX
Double
U PE
Helix
Coaxial
PE
Coaxial
INOX
Double
U PE
Drilling
Tool
Augerø
400 mm
Easy drill
ø101 mm
Rods with
casing ø
76 mm
Easy drill
ø152 mm
Augerø
400 with
casing
Easy drill
ø101 mm
Rods ø 76with
tricone ø 76 mm
Easy drill
ø152 mm
Drilling
Fluid
No fluid
400L/min
H2O with
polymers
150L/min
with H2O
800L/min
H2O with
polymers
No fluid
400L/min
H2O with
polymers
150L/min
with H2O
800L/min
H2O with
polymers
Suggested
depth
20 m
100 m
100 m
100 m
20 m
100 m
100 m
100 m
Cost Time
[€/meter] [meter/h]
60
25
20
40
80
25
20
40
10
20
10
20
5
20
10
20
A
CLIMATIC DATA AND BUILDING ENERGY DEMANDS
climate database has been created to be integrated within the design tool (WP4) developed by the
...........project as well as the DSS.
First, data have been collected using the Test Reference Years (TRY) available in ENERGYPLUS software
and come TRYs from the database of METEONORM. By comparing the locations and the Köppen-Geiger
map of Europe, it results a good definition of most of the climate classes.
D
ierent types of buildings have been considered: four residential buildings and five non- residential
..........buildings, like as a day care analyze, three administrative buildings and a municipal building were
analyzed. Three dierent levels of insulation have been considered for dierent climates. In this way
several correlations linking the building area (for residential buildings) or volume (for non-residential
buildings) have been found as a function of the Koeppen-Geiger climate and type of building. Moreover
standardized hourly profiles have been identified for each month.
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PROJECT
RESULTS
WP2
HELICOIDAL GSHE AND DRILLING MACHINE
DEVELOPMENTS
OBJECTIVES
Development of a drilling machine capable of drilling boreholes with diameters about 350 mm at
various depth
Simulate, study and develop new GSHE geometries for boreholes with a diameter of 350 mm
Simulate, study and develop new GSHE geometries for boreholes with a diameter of 175 mm using a
drilling machine which combines ‘Vibrasond’ & ‘easy drill’ drilling technology
Identify the best configurations of GSHE and drilling machine
F
RESULTS
irst, a survey within all partner countries was done to evaluate the recent installation costs and the
.......performances of dierent GSHE systems under fixed and various boundary conditions. Then, dierent
polyethylene materials and manufacturing processes were tested theoretically and practically to develop
a new 15 m long GSHE to fit in boreholes with 350 mm.
This easy-to-handle prototype was installed at the drilling machine test site in Molinella, Italy (see picture
below) and later on at four dierent demonstration sites of the project. To be able to install this new GSHE
in large-dimensioned boreholes, an adequate drilling and installation technique was developed, the socalled
‘enlarged-easy-drill’ technology. This application allows drillings in soft sediments without
supporting casing as the drilling rods covers this function. Another issue of this WP was to enlarge the
penetrometer technique for boreholes of 175-325 mm to fit with heat basket type GSHEs. This was quite
challenging, hence the diameter of the helicoidal GSHE was reduced to fit in boreholes < 100 mm.
Although the manufacturing of GSHE with a diameter of 85-90 mm was successful, simulations show
that this geometry will have a poor geothermal performance.
W
CONCLUSION
ithin the WP the combined
...........development of a new helicoidal
GSHE together with the advanced
‘enlarged-easy-drill’ technology was
accomplished. An easy-to-handle
GHSE prototype, with defined and
s i m u l a t e d d i m e n s i o n s , w a s
successfully installed applying this
new drilling methodology. Therefore
the achievements of WP2 can tested
under real conditions within WP6 at the
demonstration sites all over Europe.
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PROJECT
RESULTS
WP3
COAXIAL GSHE AND INSTALLATION MACHINE
DEVELOPMENT
I
OBJECTIVES
n this work package, a new rotating and vibrating drilling head is developed. In addition, a high-pressure
....water supply system injects water through a drill bit to lose, further reducing the piling time of steel coaxial
heat exchangers. Finally, closure systems ensure the tightness of the heat exchangers. In addition,
improvements to the heat exchanger design (diameter, insulated internal tube,..) and new materials are
studied to improve thermal energy exchange with the soil. In a test field, the dierent designs and
machine developments are tested.
F
RESULTS
rom the simulations and cost/benefit studies, a stainless steel tube with an enlarged external diameter
.......of 76 mm is the best compromise between thermal extraction yield and material cost. A co-extruded
inner tube with foam insulation has been realized. Together with the reduced borehole resistance of such
GSHE’s, when compared to conventional double-U’s, higher thermal extraction yields in transient
operating conditions are expected to be achieved.
Machine ancillaries: vibrating, rotating
machine head (d) mounted on existing
penetrometer (a), high pressure pump to
inject water through the tip of the GSHE.
An insulated inner tube (c) prevents the
geothermal fluid going up from being cooled
down by the colder fluid coming down. In
addition, the fluid velocity inside the GSHE
reaches turbulent flow conditions, thereby
further increasing the energy exchange with
the soil.
T
cheap-gshp.eu
CONCLUSION
he modifications to the piling methodology enables the installation of larger diameter heat
.........exchangers in more types of undergrounds. The drilling methodology (a) is a variation of the
traditional one, designed to optimize the cost/installation for large diameter GSHE’s. The new design
uses 1.5 m to 3.0 m long tubes with an external diameter of 76.1 mm.
To avoid having to extract the drill bit, a drill bit to lose has been designed with a low cost manufacturing
approach. The drilling machine with the new drilling head and the high-pressure pump for water injection
was built and will be used in all the demonstration sites to verify its operability in dierent types of
underground.
The high cost of geothermal plants is due to the cost and duration of the drilling operation. The reduction
of drilling time (b) using these new technologies will be one of the steps to achieve the objective of cost
reduction of Cheap GSHP project. The increased thermal energy exchange rate of the improved co-axial
heat exchangers in transient operating conditions is the other step towards this cost reduction objective
since less meters need to be installed for the same power requirement.
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5

PROJECT
RESULTS
WP4
SOFTWARE AND MODELLING TOOLS FOR LOW ENTHALPY
GEOTHERMAL SYSTEMS AND HEAT PUMP DEVELOPMENTS
OBJECTIVES
D
Development a software for simulation the performance of geothermal system, including the heat
pump
Create the guideline for optimal selection of configuration the heat pump in function to application
Create the guideline for optimizer setup between geothermal system and others removable energy
Development of new ground source heat pump of high temperature with low GWP refrigerant
uring the Cheap-GSHP's project is developed the free software platform (DSS = Dynamic Simulation
.........Software) with the friendly user interface. In this software is implemented a special algorithmic for
simulation of the heat pumps performances and the ground source heat exchanger performance. Two
dierent calculation methods are developed in the first task. One simplified model with easy input for
non-expert users. The second mode is for expert users and it is based on full dynamic simulation,
including the ground, the building and the heat pump. The software enables to include solar thermal
collectors for heating dominant conditions for the recharge of the ground.
T
he other result is an inventory of the heat pumps with the technologies of the dierent components
........(evaporators, condensers, compressors, compressor drives, lamination mechanisms, refrigerants,
controls, others like ejectors) and to create a selection guide line. It includes a cost/benefit guide to help
the selection of the best technology for the heat pump considering the working conditions, that will be
included in the selection software. The inventory includes also the environmental impact of the use un
refrigerants combined with the heat-pump performance. The WP includes also the study of dierent
typical plant configurations in combination with other removable energy technologies like solar thermal,
wind, photovoltaic and storage systems. The output include a guideline and cost analysis table to help the
optimization of the total plant configuration for dierent application, user priorities and the regional
energy prices. This information are included in DSS.
T
he last result is the design and manufacture of a new generation
.......geothermal heat pump with natural refrigerant like CO2, used in transcritical
cycle and low GWP HFO R1234ze. The heat pump is designed to
produce high temperature water, up to 80°C with low temperature
dierence. The technology applied is the two stage in partial cascade cycle
and the ejector to maximize the performance on the evaporator and
reduce the investments on the ground source heat exchanger. This new
heat pump prototype is installed at Technical Museum Tesla in Zagreb for
the air conditioning of the exhibition room
I
n conclusion the WP create a software and guideline to help all the user to selection the complex
....geothermal system combination many removable technologies, in this way the result would be to
increase a sensitization the people with this new eco-friendly technology.
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RESULTS
CONCLUSION
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PROJECT
RESULTS
WP5
DECISION SUPPORT TOOL DEVELOPMENT
T
OBJECTIVES
he objective of WP5 is the development of a user-friendly web application that enables the end-users
.......to choose the optimal geothermal technology for their installations. This objective is focused on
building:
A decision support system (DSS) to identify the best low enthalpy geothermal system composed of
GSHE and heat pump in function of the underground, the building loads, the climatic conditions and
the owners' criteria.
A web platform that gives access to the system through a user friendly interface (GUI).
A
s a result of the work carried out, the DSS has been developed. It is composed of dierent modules: the
...........databases used to store all the information, the DSS engine that performs the calculations.
necessary to provide the user with a series of ranked geothermal system solutions and the web platform
that serves as a user interface.
The system includes three dierent databases: the DSS database that contains the information about the
users and their projects, the solution repository that contains the information about the dierent
technologies supported by the DSS and the data model database that contains auxiliary information
necessary for performing the calculations.
T
RESULTS
he DSS engine is the part of the software that generates the solution adapted to each user's case and
........return them ranked according to the user's importance. First, the energy demand for each particular
case is calculated (in terms of the building type, climate, etc.) and then the solution (combination of
technologies, heat pumps, heat exchangers, and renewable and auxiliary support systems). Finally, the
dierent solutions generated are ranked based on the preference of the user.
CONCLUSION
Geothermal system
Weight
100.0%
Vite R1234ze and Helical
14.8%
Alternative R134a and Co-axial 10.8%
Alternative R134a and Single U 9.2%
Vite R1234ze and Single U
8.3%
Alternative R134a and Double U 7.9%
Alternative R1234ze and Single U 7.3%
Vite R134a and Double U
6.7%
Alternative R1234ze and Co-axial 6.4%
Vite R1234ze and Co-axial
5.9%
Vite R1234ze and Double U
4.9%
Alternative R1234ze and Helical 4.0%
Alternative R134a and Helical 3.5%
Alternative R1234ze and Double U 3.4%
Vite R134a and Co-axial
2.5%
Vite R134a and single U
2.4%
Vite R134a and Helical
2.1%
Inconsistency
0.0%
Rol
25.0%
7.4%
3.9%
0.6%
1.8%
1.8%
0.4%
3.9%
0.6%
0.2%
1.8%
0.2%
1.0%
1.0%
0.1%
0.2%
0.1%
42.7%
Space
25.0%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
1.6%
0.0%
Cost
25.0%
4.8%
1.2%
4.8%
4.8%
0.4%
1.2%
0.3%
0.1%
3.1%
1.2%
1.2%
0.4%
0.6%
0.6%
0.1%
0.2%
45.6%
LCA
25.0%
1.0%
4.2%
2.3%
0.1%
4.2%
4.2%
1.0%
4.2%
1.0%
0.3%
1.0%
0.5%
0.2%
0.6%
0.5%
0.2%
41.3%
T
he development has resulted in an innovative
........user-friendly web application that advises endusers
with little knowledge on geothermal energy
of the optimal geothermal technologies for their
facilities, according to their own preferences and
based on very simple information. This tool will be
important for bringing geothermal technologies
closer to the public, serving as a marketing and
dissemination tool.
Figure DSS platform - ranking of solutions
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7

PROJECT
RESULTS
WP6
DEMONSTRATION OF DEVELOPED BHES, DRILLING
TECHNOLOGY & HIGH TEMPERATURE HEAT PUMP
D
OBJECTIVES
Demonstrate the developed technology at 6 sites: helicoidal ground heat exchanger, coaxial ground
heat exchanger, drilling equipment & methods, high temperature heat pump;
Evaluate energy output of developed helicoidal and coaxial ground heat exchangers in dierent
climatic conditions through measurements of pilot systems in 6 sites for at least 12 months;
Evaluate the high temperature heat pump performance: energy output, eciency, reliability,
temperature levels;
Predict performance of developed systems in the long run by computer simulation: virtual cases;
Compare with standard technology.
DEMONSTRATION SITES
emo sites completed covered a variety of geological environments, climatic conditions and building
............typologies. They are the UPV campus test site in Valencia, Spain, the bioclimatic oce building of CRES
in Pikermi, Greece, the residential eco-house in Putte, Belgium, the REHAU test field in Erlangen, Germany,
the Belfield House at University College Dublin, Ireland and the Nikola Tesla museum in Zagreb, Croatia. All
demo systems are equipped with real time data logging and online monitoring systems.
I
ew technologies demonstrated or tested in above sites were
..........innovative drilling rig and equipment, stainless steel 304L coaxial
BHEs and piling method, helicoidal BHE and auger/easy drill installation
method. At the Zagreb demo site the high temperature HFO/CO2 twin
cycle heat pump developed by the project is also demonstrated.
urthermore, the future application of the new technologies
.......developed were evaluated by computer simulation of heating and
cooling needs at 10 existing buildings, which covered both the building
energy use and the energy supply from the earth.
n each case, information about geometry and distribution of spaces (drawings), building data (description or
.....thermal properties of opaque and glazing element), description of the use of the occupied spaces (lighting and
schedules) and ground properties were collected and a building model was created for its dynamic simulation.
T
N
F
CONCLUSIONS
he developed helicoidal BHE oers significant advantages over standard helix in terms of 5-fold more allowable
...........installation depth, pipe stability and easy installation. It also outperforms the single-U in terms of thermal energy
output.
The developed 76mm 304L stainless steel coaxial BHE with inner insulated pipe showed 10-20% higher geothermal
energy yield, 20% cost savings in unstable soil conditions and 15-55% less geothermal energy costs in both heating
and cooling operation, compared to single and double U BHEs.
The easy drill technology proved eective in cases of unconsolidated soil with unstable borehole walls.
The piling method combining thrust, rotation, vibration, water injection, inner shaft, drillbit-to-loose and welding was
validated as an eective as drilling method with similar BHE installation rates in consolidated formations and 50%
less installation times in unconsolidated sediments.
The developed high temperature heat pump provides reliable heating coupled to a high temperature heating system.
8 Cheap-GSHPs
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PROJECT
RESULTS
WP7
ENVIRONMENTAL IMPACT, RISK ASSESSMENT,
STANDARDS & REGULATIONS
T
OBJECTIVES
Legislative and Regulatory Impact Analysis for the deployment shallower closed loop collectors at key
sites
Transferrable Risk Assessment Matrices for Regulatory and Environmental Conditions
Environmental Impact Assessment at Case Study Locations
Life Cycle Cost Analysis and Carbon Footprint
Standards - Materials, Drilling and Equipment - Overview and Promotion
Regulatory Recommendations with respect to facilitating the deployment of the new technologies
developed
he Legislation and Regulation Analysis Brochures carried out an analysis of the legislative and
........regulatory requirements in place at the case study locations. The brochures provide a summary of the
requirements for the installation of GHE in dierent Member States and review environmental restrictions
governing the regulatory and licensing procedures, as well as the standards of GSHE design and
completion methodologies. The brochures identify the receiving environments most suited to
deployment of the innovative collector systems developed within the CHEAPS project. Environmental
impact assessments were carried out for each drilling and installation demonstration site.
A
summary report compares some of the key aspects of the implementation of regulatory and
..........legislative systems in dierent Member States and focuses specifically on those relating to closed
loop ground heat exchangers. It highlights the main context for understanding potential regulatory and
legislative quick wins with respect to the deployment of the helicoidal and co-axial heat exchangers
developed within the CHEAPs project.
A
risk assessment support tool for assessing specific aspects of design, installation and operation of
..........the collector in dierent environmental conditions and dierent building types was developed. It
demonstrates how the dierent characteristics of buildings and their energy demands can be addressed
using the collector, drilling and heat pump technologies developed by the CHEAPS project and also the
potential for integration with other technologies within heating and cooling delivery systems. A life cycle
cost analysis of the new technologies developed in the CHEAPS project has been developed.
S
tandards in Europe related to ground source heat
...........pump systems were categorised and ways to introduce
the Cheap-GSHPs technology into them were proposed
including the application of geothermal technologies in
historical buildings and buildings with cultural functions. The
analysis of the applicable standards and the development of
the CHEAP-GSHPs project technologies highlighted
shortcomings in the text of the standards that are perceived
as potentially inhibiting the route to market of the innovative
technologies. A set of recommendations to CEN and IEC
committees that are drafting the standards applicable to the
CHEAP-GSHPs technologies were developed. National
standards where modifications may be necessary have been
identified and recommendations proposed.
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RESULTS
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9

PROJECT
RESULTS
WP8
OBJECTIVES
In depth analysis of the current situation in regard to market penetration, market potential and
identification of barriers in the countries of the participating partners. Identification of the business
opportunities of the products developed within Cheap-GSHPs project.
Assessment on how the new products (heat exchangers, drilling technologies, high temperature heat
pump and information and software design tools) can contribute to overcome those barriers in order to
extend the GSHP market or exploit new market niches. Development of the exploitation plans for the
new products and services obtained within the framework of the project.
Development of new Business Models addressing the safe exploitation of the Cheap-GSHPs
technologies.
Development of an IPR strategy. Identification of sensible Intellectual Property Rights for the new
products and processes and analysis of those mechanisms that will better allow safeguarding them.
RESULTS
An action plan with supporting measures towards the introduction of the Cheap-GSHPs technologies
in the market in general and in the historical buildings in particular. It will be communicated to decision
makers at national and/or regional level.
Four systematic and strategic business model definitions for making profit and introducing the
products developed to the market that will help the developer partners to achieve this goal.
A new business model to put on the market a new, integrated, ecient and cheap shallow geothermal
solution
CONCLUSIONS
I
I
n WP8 dierent SWOT analysis as a basis of
....the market support action plan were
completed and the supporting measures for the
introduction of the CHEAP technologies into the
market and, particularly, in the historical
buildings, were defined. In addition, a Canvas
business model for each developed technology
was completed and a new business model,
called CHEAP GSHPs business platform, was
defined. This model, that includes all the
partners that want to participate at a European
level and that serves to enlarge the market for
geothermal energy, will be a key point for the
consortium, really creating a new business
model to put on the market a new, ecient and
cheap shallow geothermal solution.
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cheap-gshp.eu

COORDINATOR:
INSTITUTE OF ATMOSPHERIC SCIENCES AND CLIMATE - NATIONAL RESEARCH COUNCIL (CNR-ISAC)
Corso Stati Uniti 4, 35127 Padova, Italy
www.isac.cnr.it
Contact person: Adriana Bernardi, a.bernardi@isac.cnr.it
INSTITUTE OF CONSTRUCTION TECHNOLOGIES
NATIONAL RESEARCH COUNCIL (CNR-ITC)
Corso Stati Uniti 4, 35127 Padova, Italy
www.itc.cnr.it
Contact person: Laura Fedele,
laura.fedele@itc.cnr.it
REHAU AG+CO (REHAU)
Rheniumhaus, Rehau 95104, Germany
www.rehau.com
Contact person: Mario Psyk, mario.psyk@rehau.com
DEPARTMENT OF GEOSCIENCES
UNIVERSITA’ DEGLI STUDI DI PADOVA (UNIPD)
Via Gradenigo 6, 35131 Padova, Italy
www.unipd.it
Contact person: Antonio Galgaro,
antonio.galgaro@unipd.it
FRIEDRICH-ALEXANDER-UNIVERSITAT
ERLANGEN NURNBERG (FAU)
Schlossplatz 4, Erlangen 91054, Germany
www.uni-erlangen.de
Contact person: David Bertermann,
david.bertermann@fau.de
DEPARTMENT OF INDUSTRIAL ENGINEERING
UNIVERSITA’ DEGLI STUDI DI PADOVA (UNIPD)
Via Venezia 1, 35131 Padova - Italy
www.unipd.it
Contact person: Michele De Carli,
michele.decarli@unipd.it
CENTRE FOR RENEWABLE ENERGY SOURCES
AND SAVING (CRES)
Marathonos 19th Km, Pikermi 19009, Greece
www.cres.gr
Contact person: Dimitrios Mendrinos, dmendrin@cres.gr
FUNDACION TECNALIA RESEARCH & INNOVATION
(TECNALIA)
Parque Tecnologico de Miramon Paseo Mikeletegi 2,
Donostiasan Sebastian 20009, Spain
www.tecnalia.com
Contact person: Amaia Castelruiz Aguirre,
amaia.castelruiz@tecnalia.com
SCUOLA UNIVERSITARIA PROFESSIONALE
DELLA SVIZZERA ITALIANA (SUPSI)
Stabile Le Gerre, Manno 6928, Switzerland
www.supsi.ch
Contact person: Sebastian Pera,
sebastian.pera@supsi.ch
ENERGESIS GROUP S.L. (ENERGESIS)
Av Peris I Valero 142, Valencia 46006, Spain
www.energesis.es
Contact person: Javier F. Urchueguía,
javier@energesis.es
RESEARCH AND ENVIRONMENTAL DEVICES SRL (RED)
Via Galileo Galilei 7 A 2, TEOLO PD 35037, Italy
www.red-srl.com
Contact person: Luc Pockelé,
luc.pockele@red-srl.com
GALLETTI BELGIUM NV (GALLETTI)
Essenestraat 16, Ternat 1740, Belgium
www.galletti.be
Contact person: Fabio Poletto, fabio.poletto@hiref.it
SOCIETATEA ROMANA GEOEXCHANGE
(SRG - RGS)
Bdul Pache Protopopescu 66 Sector 2,
Bucharest 021414, Romania
www.geoexchange.ro
Contact person: Robert Gavriliuc,
robertgavriliuc@yahoo.com
ANER SISTEMAS INFORMATICOS SL (ANER)
Araba Kalea 43 2 Planta, Zarautz 20800, Spain
www.aner.com
Contact person: Lucía Cardoso, lucia@aner.com
SLR ENVIRONMENTAL CONSULTING
(IRELAND) LIMITED (SLR)
Dundrum Business Park 7, Windy Arbour 14, Ireland
www.srlconsulting.com
Contact person: Riccardo Pasquali,
rpasquali@geoservsolutions.com
HYDRA SRL (HYDRA)
Via Guiccioli 6, Molinella 40062 (BO), Italy
www.hidrahammer.it
Contact person: Davide Righini,
davide@hydrahammer.it
GEO GREEN SPRL (GEO-GREEN)
Rue De Priesmont Marbais 63,
Villers La Ville 1495, Belgium
www.geo-green.be
Contact person: Jacques Vercruysse,
info@geo-green.be
UNESCO REGIONAL BUREAU FOR
SCIENCE AND CULTURE IN EUROPE
Castello 4930, 30122 Venice, Italy
www.unesco.org/venice
Contact person: Davide Poletto,
d.poletto@unesco.org
PIETRE EDIL SRL (PIETRE EDIL)
Str Slanic 2 Et 3 Ap 3 Sector 3, Bucharest 030242, Romania
www.pietre-edil.ro
Contact person: Leonardo Rossi,
archleonardorossi@yahoo.it
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