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restaurant, Dubai informing of strategies, i.e. from the iridophores cells were studied imitated and implemented as a light shelf, from the non-photosynthetic pigments to a double glazed glass and from the photosynthetic pigments to photovoltaic cells. The reason behind imitating the Tridacna Gigas life mechanism was to improve the café thermal performance. Furthermore, with these lessons learned and strategies derived from, we were able to provide thermal comfort as well as energy efficiency in the building. The results achieved were with the help of the lessons learned; the iridophores cells reduced the amount of light entering the space to 48% on using the light shelf, the non-photosynthetic pigment’s reduced the amount of heat entering the building by 53% on using the double glazed glass, and finally the photosynthesis pigments reduced the electric energy by 4.25% on using the photovoltaic cells. References BRALEY, R., 2008, Giant clam videos, photos and facts - Tridacna Gigas | ARKive. [online] Arkive.org. Available at: http:// www.arkive.org/giant-clam/tridacna-gigas/. DOAN, A., 2014, Biomimetic Architecture: Green Building in Zimbabwe Modeled After Termite Mounds. [online] Inhabitat.com. Available at: http://inhabitat.com/building-modelled-on-termites-eastgate-centre-in-zimbabwe/. FATHERREE, J.W., 2007, Why Do Tridacnids Look the Way They Look? | Details | Articles | TFH Magazine®. [online] Tfhmagazine.com. Available at: http://www.tfhmagazine.com/details/articles/why-do-tridacnids-look-the-way-theylook.htm. HOLIDAY-WEATHER.COM, (2015). Holiday Weather. [online] Available at: http://www.holiday-weather.com/ [Accessed 9 Aug. 2015]. HOLT, A., VAHIDINIA, S., GAGNON, Y., MORSE, D., and SWEENEY, A., 2014, Photosymbiotic giant clams are transformers of solar flux. Journal of the Royal Society Interface, [online] 11(101), pp. 20140678-20140678. Available at: http://rsif. royalsocietypublishing.org/content/11/101/20140678. KAY, P., WATKINS, B., and SEALE, A., 2014, Fluted clam (Tridacna). [image] Available at: http://www.arkive.org/fluted-clam/tridacna-squamosa/image-G24759. KAMISHIMA, Y., 1990, Zoological Science, Okayama 700, Japan: Okayama University, 7, pp. 63-72. [online] Available at: http://biostor.org/reference/106857.text. KNOP, D., 2014, Giant clam. [online] Wikipedia. Available at: http://en.wikipedia.org/wiki/Giant_clam. SHIMEK, R.L., 2014, Innovative Marine Aquaculture. [online] Dtplankton.com. Available at: http://www.dtplankton. com/articles/necessity.html. REDRAWN, 1992, Biology of giant clams (Tridacnidae). [online] Aitutaki Pa’ua Restoration Project. Available at: http:// pauaproject.wordpress.com/clam-biology. REEFKEEPING.COM, 2014, Identifying the Tridacnid Clams - by James Fatherree - Reefkeeping.com. [online] Available at: http://www.reefkeeping.com/issues/2002-07/jf/feature/. SCHOOLWORKHELPER, 2010, Clam Dissection. [online] Available at: http://schoolworkhelper.net/clam-dissection/. TAXONOMY, S., 2013, SnowTaxonomy2013 - Giant clam (mollusca). [online] Snowtaxonomy2013.wikispaces.com. Available at: http://snowtaxonomy2013.wikispaces.com/Giant+clam+(mollusca). TOOTHMAN, J., and ALDOUS, S., 2014, How Solar Cells Work - HowStuffWorks. [online] HowStuffWorks. Available at: http://science.howstuffworks.com/environmental/energy/solar-cell.htm. VIERRA, S., 2014, Biomimicry: Designing to Model Nature | Whole Building Design Guide. [online] Wbdg.org. Available at: http://www.wbdg.org/resources/biomimicry.php?r=sustainable. WULFINGHOFF, D., 1999, ENERGY EFFICIENCY MANUAL. pp. 1000-1005. [online] Available at: http://www.energybooks. com/pdf/10001005.pdf. 634 ZEMCH 2015 | International Conference | Bari - Lecce, Italy