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 ...
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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]