New DMG HQ in Denmark Fagseminar Passivhus og lavenergibygg Onsdag d. 18.november 2009

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New DMG HQ in Denmark Fagseminar Passivhus og lavenergibygg Onsdag d. 18.november 2009 Kirsten Mariager

Frontpage

Who are We? Danish Energy Management (DEM) (Energy Management and Consulting) Danish Management Group (DMG) Danish Project Management (Monitoring and Project Management) Danish ICT Management (IT and Technology consulting and development)

Energy Efficiency 2008 2012: Energy Efficiency in Industrial, Commercial and Public Sector - Indonesia Survey of Building Performance Design of a New Ministry Building in Malaysia Development of Energy Efficiency in the Building Sector in Botswana Retrofit of ADB Headquarters

Danish Management Group: - A Green Group Wind Energy covers all electricity demand of the Group worldwide New headquarter energy-exporting!

New DMG HQ in Viby, Denmark 1500 m 2 new office building Being one of Europe s first 100 % self-sufficient low-energy office building The new Landmark in Aarhus

Basement Basement Ground floor 1 st Floor

Facade SE Facade N Facade S Facade NW

The new HQ is one of the first Passive House Office Buildings in Denmark Passiv House Definition: A passive house is a building in which a comfortable interior climate can be maintained without active heating and cooling systems (Adamson 1987 and Feist 1988). The house heats and cools itself, hence "passive". Max. 15 kwh/m 2 heating demand Max. 120 kwh/m 2 total primary energy (heating, hot water, electricity) http://www.passivehouse.com

Danish Energy Regulation

Danish Energy Demand overwiev

Energy balances Annually energy demand and annually energy performance Solar heating 3 Automation 3 Server room 3 PV Facade 12 Automation 4000 Server room 4000 Solar heating 4400 PV Facade 16000 Printers Telephone Fax 17 PC ect. Printers Telephone Fax 23000 PC ect. Ventilation 6 Lighting 5 PV Roof 32 Ventilation 8000 Lighting 6700 PV Roof 42500 Heat pump 4 Heat pump 5100 Hot water 4 Ventilation loss 1 PV-T Parking 5 Hot water 5300 Ventilation loss 1800 PV-T Parking 6400 Heat loss 15 Heat pump 13 Heat loss 20200 Heat pump 18000 Energy demand Energy performance Energy demand Energy performance 58 kwh/m2 office building 65 kwh/m2 office building 78100 kwh/year 87300 kwh/year + 10% energy surplus

Automation 3 Server room 3 Printers Telephone Fax 17 PC ect. Ventilation 6 Lighting 5 Heat pump 4 Hot water 4 Ventilation loss 1 40% ~ 23 kwh/m2 60% ~ 35 kwh/m2 Energy demand Heat loss 15 Total 58 kwh/m2 Primary Energy building operation 15*1+(1+4+4+5+6)*2,5 = 65 kwh/m2 Primary Energy all installations 15*1+43*2,5 = 123 kwh/m2

Energy strategies passive strategies Minimization of passive solar heating in the summer glazing, orientation 500 mm insulation of building envelope U = 0,1 W/m 2o C Light weight construction No thermal bridges Low energy windows U = 0,8 W/m 2o C Light transmission through glazing areas No central heating Some priorities: Natural ventilation in summer - Low energy demand - Manual operation Mechanical ventilation in winter - Visible and honest it is what you see - No noisy ventilation systems - Indoor climate thermal/atmospheric

Energy strategy technologies Solar Heating (domestic hot water) 15 m 2 Mechanical ventilation in winter with heat recovery (85%) BIPV in roof and SE-façade - 450 m 2 + 220 m 2 PVT on roof area over parking area (electricity + hot air) Heat pump for central preheating of ventilation air

PV Composite Facade High stiffness Low weight Translucent Large spans Weather resistance

PV Composite Facade Black Siemens mono crystalline solar cells (156 x 156 mm) Profiles 500 x 1620 mm horizontally Lamination directly on profiles Alternatively glued with clear TESA tape Junction box on the back On roof single layered glass is used as front covering 50 mm ventilated cavity openings in top and bottom (preheating/cooling)

The Pattern

The Pattern flexibility

PV Costs and Performance (incl. VAT 25%) PV Cost ~ 4,6 mill dkr/614.000 Euro PV Cost pr. m 2 ~ 6.800 dkr/906 Euro/m 2 Performance: Roof 92 kwh/m 2 (Amorpheus 44 kwh/m 2 / 4.400 dkr/m 2 ) Facade 73 kwh/m 2

Natural ventilation Openings in the skylights and... ventilation openings located in narrow window bands above the ordinary windows in the offices are equipped with electronic actuators. The openings can be left open during night-time. The ordinary windows in the offices are manually controlled. The windows must be closed during night-time due to security reasons.

DMG HQ and Economy (Incl. VAT 25%) 1500 m 2 Total cost without grant: 32 mill dkr ( 4,3 mill. Euro) / 21.000 kr/m 2 (2.850 Euro/m 2 ) Applied for app. 4 mill dkr Total cost with grant: 28 mill dkr (3,7 mill. Euro / 18.700 kr/m2 (2.500 Euro/m 2 ) Proposals for grant: Development and Demonstration of New PV-Composite Profiles Building Integrated Photo Voltaic Direct Current

Other technologies taken into consideration PCM (Phase Changing Material) PCM is very small capsules with a core of wax with a melting point at 23 o C or 26 o C The theory: When a material changes from one form to another the temperature is constant during this phase. Think of a drink: As long as you have ice in the drink the temperature is 0 o C. When the ice is melted the temperature rises. The melting energy is taken from the water.

Phase Changing Materials cooling and heating The cooling process: The sun is shining The PCM material is warmed up At 23 o C the PCM is melting The heat to makes PCM melting is taken from the indoor air The temperature in the construction (wall/floor/ceiling) is constant during the melting process. When all the PCM has melted the temperature will rise again During night the PCM-construction could be cooled by natural ventilation. Result: Cooling energy and ventilation is reduced The heating process: In the night the temperature will fall The PCM material is hardening The temperature in the construction is constant during the hardening period When all the PCM has hardened the temperature will fall again Result: Heating energy can be reduced

40 m 2 PCM plaster boards in ceiling and internal walls Office for one person facing SE PCM plaster boards compared with traditional plaster boards. In average the indoor temperature will decrease with 2 o Cusing PCM 5% of the time t > 24 o Cwith PCM 19% of the time t>24 o C without PCM

PCM Phase Changing Material Plaster Boad 30 dkr/m2 (4 Euro/m2) PCM Smart Board 375 dkr/m2 (50 Euro/m2) http://www.micronal.de/portal/basf/ien/dt.jsp?setcursor=1_290798

Wind Energy Quite Revolution 30 db(a) in side buildings and 45 db(a) out side buildings (distance 33 m) Performance - 6.000 10.000 kwh/year Price - 360.000 dkr (48.000 Euro)

BI WE Bahrain Wold Trade Centre

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