TY  - JOUR
A1  - Reger, V.
A1  - Döring, Bernd
A1  - Kuhnhenne, M.
T1  - Passive und aktive Maßnahmen zur Flächenkühlung im Stahl(leicht)bau
JF  - Bauingenieur
N2  - Mit steigenden Dämmstandards und höheren Komfortanforderungen der Nutzer gerät die Problematik der sommerlichen Überhitzung zunehmend in den Fokus. Um die Überhitzung möglichst gering zu halten, sind Maßnahmen und Lösungen zu entwickeln, die den potenziellen Kühlbedarf eines Gebäudes vermeiden sowie reduzieren. Im Rahmen des europäischen Forschungsprojektes BATIMASS wurden Techniken untersucht, die die sommerliche Raumtemperatur ohne zusätzliche Kühlung (passiv) oder aber mit energieeffizienter wasserbasierter Flächenkühlung (aktiv) reduzieren und die besonders für Gebäude in Stahl(leicht)bauweise geeignet sind. Dafür wurde die Methodik der thermisch äquivalenten Decke weiterentwickelt, um das thermische Verhalten von Profilblechdecken in Gebäuden für beide Lösungsansätze analysieren zu können. Darüber hinaus wurde der Einsatz von Phasenwechselmaterial (PCM) zur Steigerung der Speicherfähigkeit von leichten Decken mit besonders geringer thermischer Masse in Simulationen sowie im Labor untersucht und bewertet.
Y1  - 2016
U6  - http://dx.doi.org/10.37544/0005-6650-2016-07-08-63
SN  - 0005-6650
N1  - gedruckt in der Bereichsbibliothek Bayernallee unter der Signatur 13 Z 049
VL  - 91
IS  - Jul/Aug
SP  - 309
EP  - 316
PB  - VDI Fachmedien
CY  - Düsseldorf
ER  - 
TY  - RPRT
A1  - Sansom, M.
A1  - Lawson, R.M.
A1  - Tucho, R.
A1  - Kendrick, C.
A1  - Ogden, R.
A1  - Resalati, S.
A1  - Garay, R.
A1  - Döring, Bernd
A1  - Reger, V.
A1  - Gilbert, J.
A1  - Heikkinen, J.
A1  - Hemmila, K.
T1  - Building in active thermal mass into steel structures (BATIMASS) - EUR 28166EN
N2  - The main objective of the BATIMASS project was to address how the energy balance in relatively lightweight steel buildings can be improved by building in ‘active thermal mass’ (ATM) into the building fabric. This was achieved through concept design, dynamic thermal modelling and testing of a number of potentially viable systems and concepts. A significant programme of thermal simulation modelling was undertaken utilising the thermally equivalent slab (TES) concept to model the passive thermal capacity effect of profiled, composite metal floor decks. It is apparent from the modelling results that thermal mass is a highly complex phenomenon which is highly dependent upon building type, occupancy patterns, climate and many other aspects of the building design and servicing strategy. The ATM systems developed, both conceptually and for prototype testing, focussed on water-cooled composite slabs, the Cofradal floor system and the phase change material (PCM) Energain. In addition to laboratory testing of prototypes, whole building monitoring was undertaken at the Kubik building in Spain and the RWTH test building in Germany. Advanced thermal modelling was also undertaken to estimate the likely benefits of the ATM concept designs developed and for comparison with the test results. In addition to thermal testing, structural tests were conducted on composite floor specimens incorporating embedded water pipes. This Final Report presents the results of the activities carried out under this RFCS contract RFSR CT 2012 00033. The work carried out is reported in six major sections corresponding to the technical Work Packages of the project. Only summaries of the work carried out are provided in this report; all work undertaken is fully reported in the formal project deliverables.
KW  - industrial research
KW  - iron and steel industry
KW  - research project
KW  - materials technology
KW  - resistance of materials
KW  - steel
KW  - metal structure
KW  - ingot
KW  - building industry
KW  - research report
Y1  - 2016
SN  - 978-92-79-63176-4
U6  - http://dx.doi.org/10.2777/25999
SN  - 1831-9424
PB  - Publications Office of the European Union
CY  - Luxembourg
ER  -