19.07.2013 Views

advanced building skins 14 | 15 June 2012 - lamp.tugraz.at - Graz ...

advanced building skins 14 | 15 June 2012 - lamp.tugraz.at - Graz ...

advanced building skins 14 | 15 June 2012 - lamp.tugraz.at - Graz ...

SHOW MORE
SHOW LESS

You also want an ePaper? Increase the reach of your titles

YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.

Advanced Building Skins<br />

Again the poor standard raised a poor sectorial image of prefabric<strong>at</strong>ion technology. Recently some<br />

things have changed to a better starting position. The rapid growth and availability of computer<br />

capacity to perform calcul<strong>at</strong>ions and newest prefabric<strong>at</strong>ion technologies allow for the first time a<br />

combin<strong>at</strong>ion of highly efficient prefabric<strong>at</strong>ion technologies with design tools simultaneously allowing<br />

a high individualiz<strong>at</strong>ion of products i.e. façades. In practice, this leads to enormous time- and cost<br />

savings as well as following possibilities:<br />

Comprehensive high quality transdisciplinary integral planning<br />

Efficient high quality prefabric<strong>at</strong>ion<br />

Minimiz<strong>at</strong>ion of install<strong>at</strong>ion times with lower error r<strong>at</strong>e<br />

Mass production of basic elements due to prefabric<strong>at</strong>ion<br />

Expanding design options due to a modular approach<br />

High potential for enhancement of sustainability performance<br />

Due to this initial position the K-Project, “Multifunctional Plug & Play Façade” (acronym: MPPF),<br />

launched in 2008. The research project MPPF aims the development of a multifunctional façade<br />

system to be used in modular construction methods with the highest possible level of prefabric<strong>at</strong>ion.<br />

The approach lies in “the expansion of the functionality of these prefabric<strong>at</strong>ed façade elements with<br />

<strong>building</strong> engineering functions (like e.g. he<strong>at</strong>, cold input, air input, lighting, w<strong>at</strong>er, power and IT<br />

supply) as well as by solar energy technologies (solar thermal, PV)”[39]. Figure 3 shows the function<br />

modules (1-18) integr<strong>at</strong>ed in the first version of the MPPF test facade of the consortium’s leader<br />

FIBAG in Stallhofen, Styria.<br />

- 9 -<br />

Function modules in MPPF Protoype 1<br />

01) opaque polycrystalline PV ceiling - south<br />

02) opaque polycrystalline PV centre - south<br />

03) opaque polycrystalline PV baseline - south<br />

04) opaque polycrystalline PV ceiling - west<br />

05) opaque polycrystalline PV centre - west<br />

06) opaque polycrystalline PV baseline - west<br />

07) amorphous semi-transparent (10%) PV - south<br />

08) amorphous semi-transparent (20%) PV - south<br />

09) daylight photovoltaics module (PTM) - south<br />

10) Solar thermal ceiling module - south<br />

11) Solar thermal centre module - south<br />

12) Solar thermal baseline module - south<br />

13) Solar thermal ceiling module - south<br />

<strong>14</strong>) Solar thermal centre module - south<br />

<strong>15</strong>) Solar thermal baseline module - south<br />

16) HVAC module - west<br />

17) HVAC electrochromic glazing - south<br />

18) HVAC electrochromic glazing - west<br />

Figure 3: Different function modules integr<strong>at</strong>ed in the test facade. Source [39]

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!