WP4 activities: Task 4.4 - Energy Plan Executive Summary Report D 4.4



Similar documents
Alterenergy Molise - WP4 activities: Task Energy Assessment Executive Summarry Report D 4.3

Hybrid heat pumps. saving energy and reducing carbon emissions

main heating: pre1998 ducted warm air system main heating fuel: mains gas main heating SAP efficiency: 70.0% main heating controls: programmer

Data Collection Summary Report

The days of cheap abundant electricity are over! This article forms part

The natural ombination

Market Mechanisms for Energy Efficiency: White Certificates in Italy

Directorate for the Built Environment Building Standards Division

How To Calculate Energy In Quadrons

ENERGY STATEMENT for a proposed new residential care home at Great North Road, Doncaster, South Yorkshire, DN6 7EJ

Sustainable Schools Renewable Energy Technologies. Andrew Lyle RD Energy Solutions

RENOVATION OF SCHOOL #171 SPORT COMPLEX

Module 2.2. Heat transfer mechanisms

RULES FOR THE SETTING UP OF SUSTAINABLE BRANCHES Summary

Daikin Altherma Hybrid Heat Pump

Solar Energy in Egypt Advantages and Obstacles

Institute for Renewable Energy

Solar systems provide a range of flexible heating

Vitocaldens 222-F Compact Gas-Hybrid appliance

ROTEX gas hybrid heat pump. A strong team.

PELLEXIA COMFORT ENVIRONMENT COMPATIBLE

Project Idea Note: Solar Water Heating Fee-For-Service Program in the Caribbean

Photo Kirklees IS SOLAR ENERGY FOR ME? A guide to going solar

Daikin Altherma Hybrid Heat Pump

Daikin Altherma Hybrid Heat Pump

Domestic energy consumption in Barnet has reduced but remains higher than the British average:

Intelligent Management System to integrate and control energy generation, consumption and exchange for European Sport and Recreation Buildings

EnPC/ESCO in Romania (public buildings and public lighting)

Incentive Programmes for Solar Thermal Technology in Thailand

Greenhouse Gas Implications of HVAC Upgrades in Multi-Unit Residential Buildings

Energy Efficiency and Renewable Energy For Schools

Ministero dello Sviluppo Economico

Energy Efficiency Market Transformation Opportunities for Texas

Implementation of the EPBD in Cyprus. Status in November > Introduction. 2 > Certification. Cyprus

Energy Conservation Audits for Six Performing Arts Facilities A Toronto s Green Theatres Project

The city of Malmö, Sweden

Green Guide for Businesses Strategy: Energy

Solar Thermal Systems

Riga Smart City Concept. Timurs Safiuļins Riga Energy Agency

Summary technical description of the SUNSTORE 4 plant in Marstal

Industrial Green Building Retrofit 101 Opportunities and Challenges. Light Industrial Green Building Retrofits. Why Green Retrofit?

Energy'Saving,'Thermal'Comfort'and'Solar'Power'Information'Sheet'

MONITORING SCHOOL ENERGY CONSUMPTION

Photovoltaics and Solar Thermal Energy in Germany: Market Development, Applications, Industry and Technology

Sustainable water heating solutions through solar systems

PROBIS SUPPORTING PUBLIC PROCUREMENT OF BUILDING INNOVATIVE SOLUTIONS

Report Date: 04/03/2014. Assessor: John Doyle Address: BLOCK K APT 108 SANDYFORD VIEW DUBLIN 18 BER: MPRN:

Solar Energy Systems. Matt Aldeman Senior Energy Analyst Center for Renewable Energy Illinois State University

ANALYSIS 2: Photovoltaic Glass Replacement

Half the cost Half the carbon

Energy-efficient Products for Better use of Energy in the Home

Energy Saving Opportunities for Businesses. Presented by Anna Selgert, Outreach Representative

ErP made easy! Valves, controls + systems. Guideline Individual packages according to ErP with high energy efficiency and a good benefit/cost ratio

DISTRIBUTED GENERATION AND ENERGY EFFICIENCY FOR ACHIEVING ENERGY SELF-SUSTAINING INDUSTRIAL AREAS

From energy audits to ICT implementation: a methodology applied to sport facilities

Improving comfort and energy efficiency in a nursery school design process S. Ferrari, G. Masera, D. Dell Oro

The complete heating system.

FREQUENTLY ASKED QUESTIONS (SOLAR WATER HEATER)

HUB RADIATOR HYBRID. Multi-energy hybrid system to produce heating and DHW. Multi-energy hybrid system to produce heating, cooling and DHW

Heat Pumps in the Building Sector: Hybrid Heat Pumps opening UK retrofit opportunities?

VGB Congress Power Plants 2001 Brussels October 10 to 12, Solar Power Photovoltaics or Solar Thermal Power Plants?

Funding Opportunities for Energy Efficiency: Utility Programs and Tax Incentives

Solar Water Heating Systems in Georgia

Solar and Wind Energy for Greenhouses. A.J. Both 1 and Tom Manning 2

High-efficient gas boiler CompactGas

Corporate Energy Conservation & Demand Management Plan (CECDMP)

Rainwater Harvesting

THE ROOFPOINT ENERGY AND CARBON CALCULATOR A NEW MODELING TOOL FOR ROOFING PROFESSIONALS

Natural geothermal energy.

Exemplary Retrofitting of an Old School in Stuttgart - EROS -

Zero Energy Building: the first self-sufficient house. Near Zero Energy Building: Same built example. Zero Energy Building: examples

Solar Energy Systems

Improving thermal insulation of concrete sandwich panel buildings

The impact of smart metering on energy efficiency in low-income housing in Mediterranean

Energy Economics. Rangan Banerjee

Esco s experience, know-how sharing from Energy Efficiency Italian industry

Daikin Altherma hybrid heat pump. The natural combination

Field test of a novel combined solar thermal and heat pump system with an ice store

A SOLAR GUIDE - EVERYTHING YOU NEED TO KNOW

Greenhouse gas abatement potential in Israel

Ecodan Air Source Heat Pump and Flow Temperature Controller 2

Corporate Energy Conservation and Demand Management Plan Engineering Department. Public Works Division

Dispelling the Solar Myth - Evacuated Tube versus Flat Plate Panels. W illiam Comerford Sales Manager Ireland Kingspan Renewables Ltd.

Energy efficiency building standards in Japan

Vicot Solar Air Conditioning. V i c o t A i r C o n d i t i o n i n g C o., l t d Tel: Fax:

Energy Strategic Plan Los Angeles Community College District Community College League Conference

SAP 2012 IN A NUTSHELL

ALONE. small scale solar cooling device Project No TREN FP7EN Project No TREN/FP7EN/ ALONE. small scale solar cooling device

Transcription:

Energy Efficiency Improvement Program (PMEE) for public buildings owned by the municipality of Agnone WP4 activities: Task 4.4 - Energy Plan Executive Summary Report D 4.4 October 2014

Introduction ALTERENERGY (Energy Sustainability for Adriatic Small Communities) is a Strategic Project funded within the cross-border Cooperation Programme IPA-Adriatic 2007-2013. Launched in September 2011, with a 12,5 Mln Euro total budget and with a duration of 4 years (completion of work in August 2015), ALTERENERGY aims to promote Energy sustainability through the ever- wider use of renewable energy sources and through the diffusion of interventions to increase efficiency and energy saving, thereby seeking to contribute to the achievement of the Europe 2020 objectives. In particular, this Strategic Project promotes sustainability within small Adriatic communities (having a population of less than 10.000 inhabitants ) through an integrated approach for the efficient use of energy and its production from renewable sources. The specific aim of the project is to develop replicable management models of sustainable energy resources within small Adriatic municipalities, thus improving their ability to plan and manage integrated actions of energy saving and production from renewable sources. In this context, the region Molise(Partner of the Strategic Project ALTERENERGY 1 )has identified Agnone as the community where to conduct the experimental activities of the Project(Memorandum of Understanding between Region and Municipality signed on 17/12/2013). By public tender, region Molise has designated a Temporary Firms Association (formed by IZI spa, EdilNEZ consortium, CRESME Consulting Srl, AFORIS Srl) to provide all the necessary technical support to accomplish its tasks for the Alterenergy Project. One of these task is the development of an Energy Efficiency Improvement Program (in Italian PMEE ) for public buildings to be tested in Agnone municipality. The task was performed with the support Planergy, a web application specifically designed to monitor public real estate from the energy consumption point of view. 2 The performed activities are fully consistent with those included in the SEAP issued by Agnonemunicipality on May 2013 which are organized into the following three phases. 1. Energy Assessment: after a site survey in each public building, collection and analysis of data related to energy consumption and structure performance (ref.wp4 activities - Task 4.3); 1 ALTERENERGY relies on a partnership of 18 organizations, regions, ministries and energy agencies belonging to all the countries of the Adriatic area: Italy (7 Adriatic Regions- Puglia, Abruzzo, Emilia Romagna, Friuli Venezia Giulia, Marche, Molise, Veneto), Albania, Bosnia Herzegovina, Croatia, Greece, Montenegro, Serbia and Slovenia.

2. Energy plan: after a technical desk analysis and a quantitative / qualitative assessment of results achieved in the first phase, identification of candidate Energy Efficiency Improvement 2 measures (such as technical interventions on building envelope or systems), estimation of their expected cost-benefit ratios, selection of the package of applicable technical solutions which maximizes the expected revenues at the entire real estate stock level i.e. PMEE(ref. WP4 activities -Task 4.4); 3. Definition of a convenient Financial Plan which can support PMEE procedures according to a building Monitoring and Verification approach(ref. WP6 activities -Task 6.2) WP 4 task 4.3 Energy Assessment WP 4 task 4.4 Energy Plan WP 6 task 6.2 Financial Plan Definition This document is an executive summary of Report D 4.4 concerning Energy Plan activities (phase II), carried out on 8 properties of Agnone municipality. 3 2 In Italian: Misure di Efficienza Energetica MEE

Results outline The energy plan has been developed for a set of 8 properties owned by Agnone municipality on the basis of the information framework obtained from the Energy Assessment (please refer to Report D 4.3). The results are summarized in the following table. USE ENERGY CONSUMPTION Code Property Main Use Total available area (in & out) (m 2 ) Available Int. Area (m 2 ) Used int. area (m 2 ) Usage rate (%) (3) Primary Energy Perf. Energy Index (kwhp) kwhp/m 2 (mean 2011-13) (mean 2011-14) CO 2 emission (kg CO 2 ) (mean 2011-2014) 1 Town Hall Office 1.818 1.490 1.490 81,5% 166.258 112 70.707 2 Palazzo San Francesco Culture 2.940 1.823 1.570 81,5% 95.297 61 37.605 3 Palazzo dei Filippini 643 459 0 0,0% 3.845 0 2.097 4 Palazzo Bonanni Office 1.738 1.532 485 72,2% 50.294 104 22.950 5 6 Palazzo Nuova Pretura Scuola elementare Capoluogo Marinelli Office 1.350 1.350 1.350 46,3% 84.289 62 30.776 Education 2.020 1.500 1.500 96,3% 245.876 164 85.911 7 Scuola Materna Education 908 608 608 83,3% 85.238 140 33.498 4 8 Asilo nido Ape Maia Education 470 220 220 83,3% 10.818 49 3.323 The identification of the Energy Efficiency Improvement measures has been achieved in three steps: 1. Construction of a catalogue of solutions feasible for our analysed building set. 2. Estimate of the costs of proposed measures and of their expected effects on each building. 3. Selection of those measures which are successfully applicable for the analysed properties through an evaluation in terms of their cost benefit ratio.

The catalogue of possible measures to improve Energy Efficiency For the purposes of the evaluation and selection of measures to improve energy efficiency, below are cited the solutions found and belonging to the following three categories: solutions to improve building envelope; solutions to improve technological systems; incentives for energy efficiency. 1.1 Interventions to improve building envelope performance Energy Efficiency Measure on building envelope Cost (material + mounting) /m 2 Cost considered for the estimation /m 2 Achievable Energy savings Savings considered in the estimation Thermal insulation of Perimeter walls - - - - INV1 - External coat 75-100 85 20-25% 20% INV2 - Internal insulation 40-70 60 15-25% 15% 5 Roof Thermal insulation INV3 Insulated Soffit 40-70 55 15-20% 15% INV4 Insulated top surface 75-100 85 25-30% 25% INV5 Thermal Insulation of floor on the ground 20-50 35 10% 7% INV6 Replacement of windows and doors 350-550 400 10% 7% Energy Efficiency measures: Costs and savings table

1.2 Interventions for improvement of technological systems Energy Efficiency Measure on building systems Notes Technical life IMP1 Replacement of heat generators with condensation generators IMP2 Replacement of electrical water heaters with electric heat pumps IMP3 Installation of solar thermal collectors for hot water facility Modular condensation generators with digital thermo regulation Air-to-water heat pump with storage tank at wall, plastic material with high thermal insulation Flat plate solar collectors, storage ranging from 200 to 300 litres, natural circulation, high efficiency rate. >= 15 years 15 yars 15 years IMP4 Installation of photovoltaic system P<20 kw Photovoltaic modules, 60 polycrystalline high efficiency silicon cells, Nominal power 240 kw. 20 years 6 IMP5 Replacing fluorescent lamps with 50.000 LED hours IMP6 Replacing incandescent bulbs with LED lamps (Light Emitting Diode) 50.000 LED hours IMP7 Replacing halogen lamps with LED 50.000 hours

Financial instruments and incentive tools In this report the following accessible incentive tools have been considered for energy efficiency improvement interventions: - Energy Efficiency Thermal Incentive (in Italy named Conto termico ); - Net metering for photovoltaic systems; - Energy Saving Certificates (or white certificates). For the buildings set under analysis only the Conto termico incentive has found fruitful applications. Its characteristics are summarized in the following table. Summarizing framework of Energy Efficiency Thermal Incentive ( Conto Termico in Italy) Solutions TYPE OF INTERVENTION CONDITIONS FOR PUBLIC ADMINISTRATION INV IMP1 Improvement of the building envelope (e.g. insulation of walls and roofs, replacement of windows and doors, solar screen installation) Installation in replacing of condensing boilers Access mode: direct, after execution of the interventions incentive booking, funding approval, start of intervention within 60 days from approval. Incentive: 40% of sustained costs with limitations on building surface entity and overall cost. Duration: 5 years 7 Technical requirements: guaranteed minimum value of heat transmittance (for building envelope); guaranteed minimum values for thermal efficiency (for systems). IMP3 IMP2 Replacement of heating systems with heat pumps nominal inferior thermal power P 500 kw installation of solar cooling systems, solar thermal collectors replacement of electric water heaters with heat pump water heaters Access mode: direct, after execution of the interventions incentive booking, funding approval, start of intervention within 60 days from approval. Incentive: for heat pumps incentive rates are dependent on system technology and on expected thermal energy production level; for solar cooling and/or heating systems incentive rates depend on radiation surface. Duration: 2 years system replacements up to 35 kw; 5 years in all other cases. Technical requirements: guaranteed minimum values of yield and performance Replacement of heating systems with heat pumps nominal inferior thermal power 500 kw P 1000 kw Access mode: booking and registration of intervention conditioned on funding availability. Incentive, duration and minimum tecnical requirements: as above

Evaluation criteria to assess Energy Efficiency interventions Based on building characteristics (e.g. volumes, dimensions, envelope surfaces, usage, energy flows behaviour) and on measured energy consumption (period 2011-2013), a building model has been developed and the potential impact of each improvement measure listed in the catalogue has been analysed and evaluated. Interventions not compatible with existing zoning ordinances have been discarded. Adopted performance indicators Each standard type of intervention has been evaluated according to the following two performance indicators : where 1. payback time T r defined as the number of years an Energy efficiency intervention provides a return on investment; C inv denotes the total investment amount; I tot the total obtainable incentive amount; R the annual expected energy saving rate. T r C inv R I tot 8 2. CO 2 emissions abatement cost indicator which is defined as the ratio between the initial investment cost C inv [Euro] and the avoided emissions of CO 2 t saved during the entire investment period (related to the equipment technical life). The selected interventions package The package of selected interventions to be implemented on the analysed building stock is reported in the following table.

ESTIMATED ANNUAL ENERGY SAVINGS INCENTIVE BENEFICI AMBIENTALI BUILDING TYPE SOLUTION INVESTMEN T ESTIMATED TECHNICAL LIFE EE GAS ANNUAL COST SAVINGS / year n years tot Tons of CO2 NOT EMITTED INTO THE ATMOSPHERE (in technical life) Cost/benefit ratio Euro years kwh mc / year /Ton CO2 1 municipio- verdi INV4 34.080 30-1.255 1.117 2.726 5 13.632 102 201 2 municipio- verdi INV5 12.950 30-439 391 1.036 5 5.180 36 218 3 municipio - tamburri INV4 24.000 30-666 593 1.680 5 8.400 54 289 4 municipio - tamburri INV5 8.050 30-233 207 564 5 1.000 25 277 5 municipio IMP5 5.809 11 2.117-635 - - - 16 360 6 municipio IMP6 642 11 2.201-660 - - - 17 38 7 Pal. San Francesco IMP1 18.330 20-792 705 1.466 5 7.330 43 257 8 Pal. San Francesco IMP5 3.429 12 963-289 - - - 18 192 9 Pal. San Francesco IMP6 3.269 12 6.401-1.920 - - - 118 28 10 Pal. San Francesco IMP 7 1.522 12 486-146 - - - 9 169 11 Pal. Bonanni IMP6 911 11-1.593 1.418 - - - 27 34 12 Nuova pretura INV4 54.400 30-1.280 1.139 4.352 5 21.760 104 315 13 Nuova pretura INV5 17.500 30-448 399 1.400 5 7.000 36 289 14 Nuova pretura IMP1 11.532 20-544 484 931 5 4.655 29 234 15 Nuova pretura IMP5 9.478 17 3.221-966 - - - 84 112 16 Nuova pretura IMP6 578 17 742-222 - - - 19 30 17 Scuola elementare INV1 104.300 30-3.965 3.529 8.344 5 41.720 232 269 18 Scuola elementare INV4 48.000 30-3.965 3.529 3.840 5 19.200 305 94 19 Scuola elementare INV5 17.920 30-1.388 1.235 1.434 5 7.168 103 104 20 Scuola elementare IMP1 28.164 20-1.979 1.761 2.253 5 11.265 107 158 21 Scuola elementare IMP3 4.596 15-813 723 1.127 2 2.254 33 71 22 Scuola elementare IMP5 12.497 11 4.487-1.346 - - - 76 164 23 Scuola elementare IMP6 239 11 4.487-1.346 - - - 2 156 24 Scuola elementare IMP4 6.400 20 4.487-1.346 - - - 169 38 25 Asilo nido IMP1 2.282 20-191 170 183 5 915 10 132 26 Asilo nido IMP5 1.971 15 840-252 - - - 19 101 27 Asilo nido IMP4 1.971 20 1.266-380 - - - 18 112 28 Scuola materna INV1 32.340 30-1.151 1.024 2.587 5 12.936 93 208 29 Scuola materna INV4 52.000 30-1.151 1.024 4.160 5 20.800 93 334 30 Scuola materna IMP3 1.701 20-242 215 392 2 784 13 70 31 Scuola materna IMP5 7.976 15 3.685-1.106 - - - 85 94 32 Scuola materna IMP4 5.400 20 4.270-1.281 - - - 132 41 TOTALI GENERALI 534.236 21 39.652 22.095 31.560 185.999 79 185.999 2229 156 9 The selected investment package shows the feasibility of an investment plan where 32 energy efficiency measures are applied on eight buildings for a total investment of 534.236. The initiative should generate: An expected annual savings of 31.560 per year; A total incentive of 185.999 (distributed in 5 years). Pay Back Time: about 11 years. During the technical life of the interventions package, the avoided carbon dioxide emissions in the atmosphere amount to 2.229 t for an expected CO 2 abatement cost equal to 156 /Ton.