bau project overview - effesus · 19-20/09/2012 kick-off meeting (brussels) 24/01/2014 five project...

SEVENTH FRAMEWORK PROGRAMME

SME - Targeted Collaborative Project

PROJECT OVERVIEW

EFFESUS ENERGY EFFICIENCY FOR EU HISTORIC DISTRICTS SUSTAINABILITY



PROJECT OVERVIEW

Project Full Title ENERGY EFFICIENCY FOR EU HISTORIC DISTRICTS SUSTAINABILITY

Project Acronym EFFESUS

Type of instrument SME - Targeted Collaborative Project

Programme Environment (including climate change)

Call EeB.ENV.2012.6.6-2 Concepts and solutions for improving energy

efficiency of historic buildings, in particular at urban district scale

– Call: FP7-2012-NMP-ENV-ENERGY-ICT-EeB

Duration 48 months

Partnership 23 partners from 13 countries



CONSORTIUM

PARTNER COUNTRY TYPE

TECNALIA Spain Private research centre

FRAUNHOFER Germany Private research centre

RED Italy SME

I2S Greece SME

SNEKKERIET Norway SME

SNANO Turkey SME

D’APPOLONIA Italy Large company

SANTIAGO Spain End user. Policy maker

ACCIONA Spain Large Company

HGO Sweden University

EURAC Italy Private research centre

DWE Ireland SME

AST Portugal SME

RODWELL United Kingdom SME

CNR-ISAC Italy Public research centre

USTUTT Germany University

NTNU Norway University

BOFIMEX The Netherlands SME

SCOTLAND United Kingdom End user. Policy maker

APG United Kingdom SME

HOR-BER Hungary SME

GOUAS France SME

AMS Greece SME



CONSORTIUM

BUDGET PER COUNTRY

19%

24%

5%1%9%

6%

3%

14%

4%

8%

2%

1%

4%IT

ES

GR

TR

NO

SE

IE

DE

NL

UK

HU

PT

FR

BUDGET PER TYPE OF INSTITUTION

36%

4%46%

14%SME

END USER

RES

LARGE C.

SMEs are responsible for the 37% of the total effort in person-months and 36% of the budget.



PROJECT HISTORY

01/12/2011 EFFESUS proposal submitted under the call FP7-2012-NMP-ENV-ENERGY-ICT-EeB

15/02/2012 Initial information on the outcome of the proposal evaluation � Evaluation

Summary Report (Total score: 14 / 15)

28/02/2012 Starts the negotiation process

01/09/2012 Project start date

19-20/09/2012 Kick-off meeting (Brussels)

24/01/2014 Five project meetings (Budapest, Santiago de Compostela, Visby, Glasgow, Munich)

25 DELIVERABLES SUBMITTED

“ to develop and demonstrate , through case studies, a methodology and

criteria for selecting and prioritizing energy efficiency interv entions , based

on existing and new cost-effective technologies and sy stems compatible

with heritage values, for significant life cycle energy efficiency improvements in the

rehabilitation of historic districts ”

Main objective



Concept and objectives

The EFFESUS concept is to reduce the environmental impact of Europe’s valuable urban

heritage by making significant improvements to its energy efficiency while conserve and even

promote the cultural, historic, urban and architectural value of European’s historic cities.

Technological, policy and legislative breakthroughs needed focusing:

• Data management which connects, at district, building and component scales, energy behaviour together with

building and district typologies and weathering conditions;

• A dynamic repository of available and novel energy efficiency technologies both at building and district level, suitable

for cultural heritage assets;

• As the existing solutions do not fully cover cultural heritage requirements and needs, development of new specific

systems and technologies for energy efficiency in cultural heritage buildings and historic towns is needed;

• The need to develop adequate intervention criteria, methodological approaches and tools able to achieve the

required value between comfort improvement, energy efficiency, economical, technical and normative feasibility and

respect of the cultural, architectural and environmental value;

• Analysis of the barriers hindering the application of the developed solutions that implies the socioeconomic and

environmental assessment of available solutions and modification of existing regulations;

• Education about benefits on energy efficient solutions



Expected impact:

•Reduction of energy consumption and GHG emission in historic cities up to

25%.

•Reduction of waste and resources consumption by the reuse and

promotion of historic structures

•Creation of new jobs in the field of energy refurbishment

•Improving quality of life of citizens living and working in historic districts

Expected Impact



Project Structure

WP4: Development of conservation compatible new

materials for

envelope retrofitting

WP10: Project Management

WP8: Business potential, certification and exploitation

WP9: Education, awareness, dissemination and training

WP1: European building and urban stock structured categorization and multiscale

data management model

WP2: Repository on existing and replicable technologies for energy efficiency

improvement in historic buildings and districts

WP3: Smart management and

integration of renewable and energy

efficiency solutions

WP7: Demonstration in real case studies

WP5: Conceptualisation,

result integration and strategies for decision

making

WP6: Development of the Decision Support

System



Main Deliverable

The main deliverable of the project will be a decision support system (DSS) which includes all the

parameters needed to select energy efficiency interventions in historic districts





Connects energy

behaviour of components,

buildings and districts

with weathering

conditions, architectural

typology and materials

WP1

Main Deliverable





repository of existing and

new energy saving

technologies, systems and

architectural solutions

suitable for historic

buildings and districts

WP2+WP3+WP4

Main Deliverable



The main deliverable of the project is a decision support system (DSS) which includes all the parameters

needed to select energy efficiency interventions in historic districts

The tool to assess the user

for the proper selection,

prioritisation and

management of the most

appropriate solutions,

considering the balance

between energy saving,

feasibility and cultural

values.

WP5 + WP6

Main Deliverable



Scientific and technical objectives and outcomes

OBJECTIVE 1

European historic districts categorization and multiscale data model for the

assessment and management of energy

OUTCOMES

European building and urban stock categorization: A structured categorization of

European historic districts based on determinant parameters such climate zone,

building typology, age, cultural heritage value and energy performance that will serve

to guide research, facilitate conclusions and ensure results transferability.

Multiscale data model: A unique data model for the storage and management of the

information necessary for the improvements of the energy efficiency at district level,

which connects the urban strategic scale with the scale of building and component

level.

WP1






OBJECTIVE 2

Cost effective Technologies and Systems for significantly improving energy efficiency

of historic buildings and districts.

OUTCOMES

Energy efficiency solutions repository

• Historic district geographical information system-HISD-GIS

• Adaptation of smart grid solutions to historic districts

• Energy storage

• Indoor climate solutions

• New outdoor mortar

• Aerogel insulation

• New solar radiation selective coating

WP2

WP3

WP4

+ WP7


OBJECTIVE 3

Development of a methodology and tool to assess on energy retrofitting

interventions in historic cities

OUTCOMES

Decision Support System: a friendly use expert system that articulates and made

accessible all the knowledge generated during the project. This DSS will provide all

the necessary information for decision makers and for all the value chain of

stakeholders, by including technical parameters and evaluation criteria to guide about

the selection and prioritisation of interventions.

WP5

WP6

+ WP7




OBJECTIVE 4

Overcoming technical and non-technical barriers for the implementation of project

results

OUTCOMES

• New business models

• Exploitation Plan

• Energy certification scheme

• Future scenarios and Life Cycle Analysis

• Dissemination Plan

WP8

WP9



Project Timetable



Work Planning

Sep-12 Oct-12 Nov-12 Dec-12 Jan-13 Feb-13 M ar-13 Apr-13 M ay-13 Jun-13 Jul-13 Aug-13 Sep-13 Oct-13 Nov-13 Dec-13 Jan-14 Feb-14 M ar-14 Apr-14 M ay-14 Jun-14 Jul-14 Aug-14 Sep-14 Oct-14 Nov-14 Dec-14 Jan-15 Feb-15 M ar-15 Apr-15 M ay-15 Jun-15 Jul-15 A ug-15 Sep-15 Oct-15 Nov-15 Dec-15 Jan-16 Feb-16 M ar-16 A pr-16 M ay-16 Jun-16 Jul-16 A ug-16

M1 M2 M3 M4 M5 M6 M7 M8 M9 M10 M11 M12 M13 M14 M15 M16 M17 M18 M19 M20 M21 M22 M23 M24 M25 M26 M27 M28 M29 M30 M31 M32 M33 M34 M35 M36 M37 M38 M39 M40 M41 M42 M43 M44 M45 M46 M47 M48

WP1. EU urban stock categorization and data management model

Task 1.1 Identification and collection of existing data

Task 1.2 impact indicators

Task 1.3 European and national policies

Task 1.4 Structured categorisation

Task 1.5 Multiscale data model

WP2. Energy efficiency solutions repository

Task 2.1 Ex isting technologies at building level

Task 2.2 Ex isting technologies at district level

Task 2.3 Best practices

Task 2.4 Recovery old solutions

Task 2.5 Development of the repository

WP3. Smart management and integration of energy efficiency solutions

Task 3.1 GIS for energy supply and demand

Task 3.2 Smart grid

Task 3.3 Energy storage technologies

Task 3.4 Moisture and thermal properties of original windows

Task 3.5 Intelligent indoor climate solutions

WP4. New materials for envelope retrofiting

Task 4.1 Radiation selective coatings

Task 4.2 Aerogels for blow in insulation

Task 4.3 Mortars

Task 4.4 Outdoor application

WP5: Integration and strategies for decision making

Task 5.1: Results integration Strategy

Task 5.2: Transferable models

Task 5.3: Interconnection between district, building and components levels

Task 5.4: Design of the methodological framework

WP6: Development of the Decision Support system

Task 6.1 Architecture of the DSS

Task 6.2: Development of the expert system

Task 6.3: Content Management and Advanced Visualization

Task 6.4: Validation of the DSS

WP7: Demonstration through real case studies

Task 7.1: Monitoring of energy and indoor microclimate

Task 7.2 Installation of the technologies

Task 7.3: Imapact evalaution

WP8: Business potential, certification and exploitatiom

Task 8.1. Development of new business models

Task 8.2. Energy certification scheme

Task 8.3: Exploitation plan

Task 8.4: Future scenarios

WP9: Awareness, dissemination and training

Task 9.1: Stakeholder Dialogue

Task 9.2: Public awareness raising

Task 9.3. Dissemination to scientific community

Task 9.4. Training for students

Task 9.5. Advanced Training

WP10. Management

Task 10.1 Governance structure, communication

Task 10.2 Overall coordination

Task 10.3 Project monitoring

M1 M2 M3 M4

Year 1 Year 31st Quarter 2nd Quarter 3rd Quarter 4th Quarter 5th Quarter 6th Quarter 7th Quarter 8th Quarter

Year 29th Quarter 10th Quarter 11th Quarter 12th Quarter

Year 413th Quarter 14th Quarter 15th Quarter 16th Quarter

First 3 WPs finalised

Products developed

WP5 finalised

Main deliverables submitted



Multiescale data model

• Database of the structures categorization method for historic EU building stock.

Solutions repository

• Assessment on existing technologies, systems and tools for the retrofitting of historic buildings.

• Assessment on existing technologies, systems and tools for supplying energy within historic district.

• Assessment of passive retrofitting solutions.

• Energy efficiency solutions repository built up.

• Historic district geographical information system.

Product development

• Energy storage technology in historic buildings and at district level.

• Original windows improvement of moisture and thermal properties.

• Optimised and intelligent indoor climate solution.

• New radiation cost-effective selective coating.

• Advanced aerogel as blow in insulation.

• New lime based mortar.

Strategy for decision making

• Interconnection between district, building and components level.

• Methodological framework.

Developed solutions



Efficient windows with improved moisture and thermal properties

Developed solutions



New radiation selective coating compatible with historic buildings to reduce the transfer of

heat in façades

Developed solutions



Advanced aerogel as blow in insulation to optimise the insulations performance both in terms

of used space as well as security for structural health and reversibility of intervention

Developed solutions



New hydraulic lime-based mortar with optimal insulating properties for use as plaster and

render

Santiago de Compostela (ES)

Glasgow (UK)

Istanbul (TR)

Genoa (IT)

Visby (SE)

Benediktbeuern(DE)

Budapest (HU)

Case Studies



Case Studies



Visby, Sweden

Genoa, Italy

Categorisation of historic buildings and urban districts

Santiago de Compostela, Spain

Control strategies

Case Studies



Budapest University of Technology and Economics

Efficient windows and intelligent indoor climate solution

Case Studies



Istanbul, Turkey

New radiation selective coating compatible with historic buildings facades

Case Studies



Glasgow, Scotland

Advanced aerogel as blow in insulation

Case Studies



Benediktbeuern, Germany

New lime-based mortar

Decision support system



Dissemination



• http://www.effesus.eu/the-effesus-website-is-online

• Regular newsletter

• Leaflet in 12 languages

• Presented at 30 conferences, workshops and fairs

• Training courses

Thank you very much for your attention

Dr. Isabel Rodríguez-Maribona



bau project overview - effesus · 19-20/09/2012 kick-off meeting (brussels) 24/01/2014 five project...

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