/ OBJECTIVE: INNOVATION

Similar documents
Strategies for energy efficiency improvement in residential and office buildings: their role at building and country scale

Renewables. Vacuum Tube Solar Systems. Solar Energy to the Power of

Long-term monitoring and smart heat pumps for nzeb

Future tree planting on the two acre lot will offset remaining lifetime carbon emissions.

AQUAPROF BASIC AQUAPROF TOP ACTIVE SWITCH

German American Chamber of Commerce PRESENTATION ON NOVEMBER 6th, 2008 Axel Popp

Modeling and analyzing solar cooling systems in Polysun

New developed solar thermal systems for heating and cooling Budapest, 16 th April 2009 Tsekouras Panagiotis Mech. Engineer NTUA Centre for Renewable

Innovative Solar thermal systems for heating and cooling

Future European Heat. Renewable heating comparisons

NWC District Energy Campus Energy - RFQ Supporting Documentation. April 25, 2018

Hot water persons. Map section

NORTH AMERICAN MONITORING OF A HOTEL WITH ROOM SIZE GSHPS

Economic Estimation of Heat Storage Type Geothermal Source Heat Pump System Applied in K-Ward Office Building

Case study of an ECBC Compliant, Energy Efficient Building: Aranya Bhawan, Jaipur

Renewable Energy Sources Applications in the residential sector and Investments in large commercial systems

Solar Air-Conditioning Systems in small - medium scale applications

Zero Energy House in Japan: Actual results and future target. Isamu Ohta Misawa Homes Institute of Research & Development CO., LTD.

Indo-Swiss Building Energy Efficiency Project. Case Study: Aranya Bhawan, Jaipur

SIMULATION MODEL IN TRNSYS OF A SOLAR HOUSE FROM BRAŞOV, ROMANIA

A New Type of Hybrid Groundwater Energy System

STUDY ON TESTING FEASIBILITY OF SOLAR ENERGY IN THE PALESTINIAN TERRITORIES

Solar Power. Technical Aspects and Environmental Impacts. 6 th March 2011 Sustainable Energy Options (UAU212F) - University of Iceland

Energy Efficiency, GeoExchange Systems and Renewable Energy MiAPPA Winter 2010

Verified net Zero Energy Building with air source heat pumps for SME

Sustainable Building Façade and Advanced Fenestration Systems

Solar Thermal Optimization for District Hot Water through Energy Modeling

Research on integrated solar and geothermal energy engineering design in hot summer and cold winter area

TVA Melton Hill Dam Sustainable Recreation Area

Clean Energy Extension

GEOTHERMAL SPACE COOLING

Renewable and low carbon energy in new developments. Will Rivers The Energy Saving Trust

IGEN. OCHSNER GMLW 19 - Air Source Heat Pump Performance in Irish Climate. One Year Monitoring Study

AORA SOLAR S TULIP SYSTEM A HYBRID SOLAR THERMAL SOLUTION

Feasibility Study. Solar plant with district heating net (Austria)

Frequently Asked Questions: Existing Houses/Buildings

Demonstration of the TESSe2b system in residential houses in Austria, Cyprus and Spain and their energy analysis

Solar thermal heating systems in European Union


Performance analysis of a PV driven heat pump system during a heating season in high latitude countries

Geothermal Praxis in Germany

Project PolarSol koti 41\193\- Map section

Imp ementation Case:

A study of photovoltaic thermal (PV/T) hybrid system with computer modeling

Solar Energy Technologies

Individual solar and smart energy systems

SOLAR PHOTOVOLTAIC ENERGY

Lean Production Performance Metrics

A MARRIAGE OF HELIO AND GEO ENERGY SOURCES

LOW-ENERGY HOUSING ESTATE SUNDAYS

Mechanical Tech Report 2

Available online at ScienceDirect. Energy Procedia 70 (2015 )

SOLAR THERMAL IT S HOT AGAIN! Solar Water Heating and Solar Thermal Energy Solutions

Efficient utilization of energy sources

ANNUAL ENERGY PERFORMANCE OF SOLAR THERMAL SYSTEMS IN BRAŞOV, ROMANIA

Solar Thermal Systems- A reliable technology for Green Buildings

EVALUATION OF A GRID-CONNECTED PHOTOVOLTAIC SYSTEM SUPPLYING POWER TO A DAIRY FARM

COMPANY PROFILE. Energy Srl Piazza Manifattura, Rovereto TN Italy

Action 3.1 GCHP Case Studies from Italy

GEOTHERMAL OVERVIEW. Presented by John Cole East Coast Account Rep. for RENEWABLE ENERGY. Construction Automotive Industry

Heat Pumps in Smart Grids. Technology Collabortation Programme on Heat Pumping Technologies (HPT TCP) Market status summary per country

Energy Efficiency in Kuwait: Past, Current & Future

How to Design Zero Emission Buildings

CIRS: Regenerative Sustainability

Welcome Everyone. Not Quite this kind! Geothermal Heat Pumps are a indirect solar heating system! Introduction to Geothermal

Solar heat in Industry and Commerce to cut energy costs and green house gas emissions

A STUDY ON DESIGN OPTIMIZATION OF A NEAR NET-ZERO ENERGY HOUSE

Nearly Zero Energy Building in Lecco Modern technological building compared to an ancient Villa

Here Comes The Sun Applications of Solar Energy. Marc Rosenbaum, P.E. South Mountain Company West Tisbury, MA

RAMBOLL THERMAL TECHNOLOGY WITH DISTRICT ENERGY SYSTEMS

Exploiting the Free, Renewable Energy, Above and Below your Farm. Michigan State University March 10, 2016

Make the best of the sun meeting thermal and electrical energy demands

Jonas Strautnikas T6614KA ANALYSIS OF EXHAUST AIR-SOURCE HEAT PUMP. Bachelor s Thesis Double Degree Programme in Building Services Engineering

Solar energy house with brine-water heat pump and PV. Map section

City of Altheim Geothermal Energy Supply

Implications of Measured Commercial Building Loads on Geothermal System Sizing

ECBC Impacts: Experiences from the ECBC Pilot Building in Rajasthan Jyotirmay Mathur Malaviya National Institute of Technology Jaipur, India

THE GEOTHERMAL ADVANTAGE

HEat PumP technology FoR underfloor HEatINg comfortheat.com.au

Job Sheet 2. The Ground Loop OBJECTIVE PROCEDURE. Introduction

Renewable Heat for Renewable Cities: Geoexchange Heating and Cooling: Introduction and Case Study of St Peters College Sports Centre

Thermal Energy Storage in Office Buildings Foundations

Solar Cooling for Southern Climates, Double Effect Absorption Chillers with High Concentrating Collectors Versus Standard Single Effect Systems

Evaluation of Vertical and Horizontal Geoexchange Systems

BioResHybrids in AUSTRIA

Peter Randall Solar Kingdom Ltd

Available online at ScienceDirect. Energy Procedia 91 (2016 )

Cost Reduction Potential of Polymeric Collectors

Bruck an der Mur. Project summary. Energy concept: Background for the renovation reasons

North Light and Pole Star GDF SUEZ

Solar Powered Integrated Farming System: Irrigation, Rice Husking and Fishing

M01.11 Executive summary

Holistic Design Approach For Energy Efficiency ASHRAE TECHNOLOGY AWARD CASE STUDIES

The Impact of VISIONWALL High Performance Windows on the Northern Telecom Building in Ottawa, Ontario

Scottish Court Service. Carbon Trust Standard Case Study

BEEP Guidelines for Energy Efficient Design of Multi-Storey Residential Buildings

Renewables investment boost in a global uncertain context

A MULTI-CRITERIA PERFORMANCE STUDY OF AN INTEGRATED DEMAND/SUPPLY ENERGY SYSTEM FOR LOW AND ZERO CARBON TECHNOLOGIES WITHIN DOMESTIC BUILDING DESIGN

Solar Power Realities

Tasks of the planner

Transcription:

/ OBJECTIVE: INNOVATION

CALEFFI GROUP FACTS AND FIGURES 2

CALEFFI GROUP FACTS AND FIGURES CALEFFI WORLDWIDE 3

THE NEW RESEARCH CENTER - HISTORY 2006 - APRIL DESIGN 2006 - DECEMBER START OFFICIAL OPENING 2008 - JUNE 2008 - DECEMBER FIRST PROJECT 4

THE NEW RESEARCH CENTER TESTS RESEARCH NEW PRODUCT DEVELOPMENT 5

THE NEW RESEARCH CENTER BASEMENT THERMAL ENERGY PLANT BASEMENT [780 m 2 ]

THE NEW RESEARCH CENTER GROUND FLOOR LABORATORIES GROUND FLOOR [860 m 2 ]

THE NEW RESEARCH CENTER FIRST FLOOR DESIGN OFFICE and EXPERIENCE ROOM FIRST FLOOR [1015 m 2 ] 8

ENERGY LABEL 9

2007 ENERGY LABEL THE ENERGY CLASS IS AN INDEX OF THE NEEDED ENERGY QUANTITY FOR THE STANDARD USAGE OF THE BUILDING, INCLUDING HEATING AND COOLING. INSULATION AND VMC SYSTEM TYPE ENERGY CLASS + < 14 kwh/m 2 a < 27 kwh/m 2 a < 41 kwh/m 2 a < 54 kwh/m 2 a < 68 kwh/m 2 a < 95 kwh/m 2 a < 136 kwh/m 2 a > 136 kwh/m 2 a 10

2009 BUILDING ENERGY LABEL THE BUILDING ENERGY REQUIREMENTS IS WITHIN THE ENERGY CLASS WITH REQUIREMENTS LOWER THAN 27 kwh/m 2 a STANDARD BUILDING CUBOROSSO BUILDING 11

BUILDING STRUCTURE SUPPORTING STEEL STRUCTURE 12

BUILDING STRUCTURE STRATIGRAPHY 310 mm 13

BUILDING STRUCTURE STANDARD CONSUMPTION DESIGN CONSUPTION 7.465 Nm 3 CH 4 / Y ANNUAL SAVINGS: 3.800 Nm 3 CH4 3.625 Nm 3 CH 4 / Y 14

SYSTEMS (RENEWABLE ENERGY) 15

SYSTEMS (RENEWABLE ENERGY) SOLAR PV SYSTEM SOLAR THERMAL SYSTEM 16 GEOTHERMAL SYSTEM

SOLAR SYSTEMS 17

SYSTEMS (RENEWABLE ENERGY) SOLAR THERMAL SYSTEM 18

SOLAR THERMAL SYSTEM THE SYSTEM IS DIVIDED IN TWO SECTIONS: FLAT SOLAR PANELS VACUUM SOLAR PANELS 19

SOLAR THERMAL SYSTEM FLAT SOLAR PANELS: 8 PANELS PRODUCTION: ABOUT 7.0 MWh/Y VACUUM SOLAR PANELS: 6 PANELS PRODUCTION: ABOUT 8.0 MWh/Y

SOLAR THERMAL SYSTEM 4000 LT / DAY WATER CONSUMPTION (50 C) BOILER INTEGRATION VACUUM PANELS FLAT PANELS

CH 4 SAVINGS [m 3 CH 4 ] PRODUCTION kwh SOLAR THERMAL SYSTEM 3000 TOTAL PRODUCTION 2010 16.540 kwh / year 2500 2000 1500 1000 500 0 Gen. Feb. Mar. Apr. Mag. Giu. Lug. Ago. Sett. Ott. Nov. Dic. 200 180 160 140 120 100 80 60 40 20 0 CH 4 SAVINGS 1.682 m 3 CH 4 Gen. Feb. Mar. Apr. Mag. Giu. Lug. Ago. Sett. Ott. Nov. Dic. 22

CH 4 SAVINGS [m 3 CH 4 ] PRODUCTION kwh SOLAR THERMAL SYSTEM 2010-2015 GLOBAL PRODUCTION 104 MWh 20000 18000 16000 14000 12000 10000 8000 6000 4000 2000 0 2010 2011 2012 2013 2014 2015 CH 4 SAVINGS 11.031 m 3 CH 4 2000 1800 1600 1400 1200 1000 800 600 400 200 0 2010 2011 2012 2013 2014 2015 23

SYSTEMS (RENEWABLE ENERGY) SOLAR PV SYSTEM 24

SOLAR PV SYSTEM 84 PV PANELS 4 INVERTERS 19.6 kwp 25

CO 2 [kg] PRODUCTION kwh SOLAR PV SYSTEM TOTAL PRODUCTION 2010 22.217 kwh / year 3500 3000 2500 2000 1500 1000 500 0 2500 Gen. Feb. Mar. Apr. Mag. Giu. Lug. Ago. Sett. Ott. Nov. Dic. CO 2 EMISSION SAVINGS 2010 14.199 kg 2000 1500 1000 500 0 Gen. Feb. Mar. Apr. Mag. Giu. Lug. Ago. Sett. Ott. Nov. Dic. 26

CO 2 [kg] PRODUCTION kwh 30000 SOLAR PV SYSTEM 2010-2015 GLOBAL PRODUCTION 141 MWh 25000 20000 15000 10000 5000 0 2010 2011 2012 2013 2014 2015 CO 2 EMISSION SAVINGS 95.339 kg 18000 16000 14000 12000 10000 8000 6000 4000 2000 27 0 2010 2011 2012 2013 2014 2015

GEOTHERMAL SYSTEMS 28

GEOTHERMAL SYSTEMS GEOTHERMAL SYSTEM 29

GEOTHERMAL SYSTEMS GROUND SOURCE HORIZZONTAL PROBES GROUND SOURCE VERTICAL PROBES WATER SOURCE

WATER SOURCE (OPEN LOOP SYSTEM) RETURN WELL 9m HP BUFFER TANK HEATING/COOLING SYSTEM SUMMER DRAWING WELL 27m 17 C WINTER 13 C 8 C 12 C

WATER SOURCE WELL: - SUCTION DEPTH: 27 m - DRAIN DEPTH (3 DIFFERENT WELLS): ABOUT 9 m - PIPE SIZE: DN65 - ENERGY SOURCE: 45 50kW PUMP: - DEPTH 25 m - FLOW RATE 10.500 l/h - HEAD 52 m w.c. HEAT PUMP: - COOLING/HEATING POWER GENERATED 65.0 kw - ELECTRICAL POWER USED 13.0 kw

WATER SOURCE ADVANTAGES NO INFLUENCE FROM EXTERNAL TEMPERATURE LOW-MEDIUM SYSTEM COST GOOD EFFICIENCY 27 m 9 m DISADVANTAGES BUROCRACY RISK OF GROUND WATER POLLUTION

WATER SOURCE OPERATION 1: MACHINE INSTALLATION

WATER SOURCE OPERATION 2: DRILLING

WATER SOURCE OPERATION 3: PIPE PLACEMENT

WATER SOURCE OPERATION 3: WELL INSULATION (BENTONITE CEMENT)

CH 4 SAVINGS [m 3 CH 4 ] PRODUZIONE kwh 16000 14000 12000 10000 8000 6000 4000 2000 WATER SOURCE TOTAL PRODUCTION 76.463 kwh / year 0 Gen. Feb. Mar. Apr. Mag. Giu. Lug. Ago. Sett. Ott. Nov. Dic. CH 4 SAVINGS 3.462 m 3 CH 4 600 500 400 300 200 100 0 Gen. Feb. Mar. Apr. Mag. Giu. Lug. Ago. Sett. Ott. Nov. Dic. 38

CH 4 SAVINGS [m 3 CH 4 ] PRODUCTION kwh 90000 80000 WATER SOURCE 2010-2015 GLOBAL PRODUCTION 469 MWh 70000 60000 50000 40000 30000 20000 10000 0 2010 2011 2012 2013 2014 2015 CH 4 SAVINGS 21.830 m 3 CH 4 4000 3500 3000 2500 2000 1500 1000 500 39 0 2010 2011 2012 2013 2014 2015

GROUND SOURCE - HORIZONTAL GROUND-SOURCE HORIZONTAL PROBES

GROUND SOURCE - HORIZONTAL ADVANTAGES PROBES FIELD DEPTH = 1M (LOW INSTALLATION COST) EASY INSTALLATION 1 m CLOSED LOOP DISADVANTAGES INFLENCED BY EXTERNAL WEATHER CONDITIONS WIDE SPACE NEEDED

GROUND SOURCE - HORIZONTAL PROBES FIELD DATA: - OVERALL SURFACE: 200 m 2 - PROBES DEPTH: 1 m - CENTER AXIS: 40 cm 1 m - EVAPORATOR POWER: 7.5 kw - SPECIFIC GROUND HEAT : 40 W/m 2 WATER TEMPERATURE CONDITIONS: SUMMER WINTER 14/17 C 10/13 C 2/3 C 5/6 C

GROUND SOURCE - HORIZONTAL OPERATION 1: GROUNDWORK

GROUND SOURCE - HORIZONTAL OPERATION 2: PROBES INSTALLATION

GROUND SOURCE - HORIZONTAL OPERATION 3: PROBES FIXING

GROUND SOURCE - HORIZONTAL OPERATION 4: CLOSING THE PROBES FIELD

GROUND SOURCE - VERTICAL GROUND-SOURCE VERTICAL PROBES

GROUND SOURCE - VERTICAL ADVANTAGES NO INFLUENCE OF THE EXTERNAL TEMPERATURE EFFICIENT USE OF THE THERMAL GROUND ENERGY 90 m NO NEED OF BIG GROUND AREAS 20m WELLS DISTANCE CLOSED LOOP DISADVANTAGES HIGH DRILLING COSTS NOT EASY PROBES PLACEMENT

GROUND SOURCE - VERTICAL PROBES FIELD DATA: - PROBES DEPTH N.1: 100 m - PROBES DEPTH N.2: 70 m - MINIMUM CENTER DISTANCE 20 m - EVAPORATOR POWER: 7.65 kw - SPECIFIC GROUND HEAT : 45 W/m 20m WELLS DISTANCE WATER TEMPERATURE CONDITIONS: SUMMER WINTER 13/15 C 8/10 C 4/5 C 8/9 C

GROUND SOURCE - VERTICAL OPERATION 1: DRILLING

GROUND SOURCE - VERTICAL OPERATION 2: PROBES POSITIONING

GROUND SOURCE - VERTICAL OPERATION 3: CONNECT TOHEAT PUMP

ENERGY SAVING 2010-2015 53

PRODUCTION [kwh] ENERGY SAVING 2010-2015 2010-2015 GLOBAL PRODUCTION 714 MWh 140000 120000 100000 80000 60000 40000 20000 0 2010 2011 2012 2013 2014 2015 SOLAR PV SYSTEM SOLAR THERMAL SYSTEM GEOTHERMAL SYSTEM

ENERGY SAVING 2010-2015 SOLAR PV SYSTEM GEOTHERMAL SYSTEM 20% 66% 14% SOLAR THERMAL SYSTEM 2010-2015 GLOBAL PRODUCTION 714 MWh

HVAC SYSTEM 56

HVAC SYSTEM - DESIGN

HVAC SYSTEM BOILER ROOM

HVAC SYSTEM HEAT PUMP

HVAC SYSTEM DISTRUTION MANIFOLD LINES FOR TESTS LINES FOR CLIMATIZATION

CALEFFI S.p.A. S.R. 229 n. 25 28010 Fontaneto D Agogna (NO) Italia Tel. +39 0322 8491 Fax +39 0322 863306 e-mail: info@caleffi.it www.caleffi.it