IBS Institute of Science and Innovation for Bio-sustainability by Claudio Vilarinho

By  |  Comments

jm_ibs_005

Architect Cláudio Vilarinho designed IBS Institute of Science and Innovation for Bio-sustainability at Minho University in Portugal. The proposal for the building was to break up the existing gray monotony around it and to be able to captivate those who pass by it. Take a look at the complete story below.

jm_ibs_001 jm_ibs_003 jm_ibs_004 jm_ibs_005 jm_ibs_007 jm_ibs_008 jm_ibs_011 jm_ibs_012 jm_ibs_013 jm_ibs_015 jm_ibs_018 jm_ibs_021 jm_ibs_022 jm_ibs_024 jm_ibs_025 jm_ibs_027 jm_ibs_028 jm_ibs_031 jm_ibs_033 jm_ibs_034 jm_ibs_035 jm_ibs_037 jm_ibs_038 jm_ibs_039 jm_ibs_040 jm_ibs_043 jm_ibs_044 jm_ibs_045 jm_ibs_046 jm_ibs_047 jm_ibs_048 jm_ibs_050 jm_ibs_055 jm_ibs_057 jm_ibs_059 jm_ibs_066 jm_ibs_068 jm_ibs_069 jm_ibs_070 jm_ibs_073 jm_ibs_076 jm_ibs_077 jm_ibs_079 jm_ibs_081 jm_ibs_082 jm_ibs_084 jm_ibs_085 jm_ibs_086 jm_ibs_087 jm_ibs_088 jm_ibs_090 jm_ibs_091 jm_ibs_094 jm_ibs_095 jm_ibs_097 jm_ibs_098 jm_ibs_099 jm_ibs_102 jm_ibs_103 jm_ibs_104 jm_ibs_106 jm_ibs_107 jm_ibs_108 jm_ibs_109 jm_ibs_111 jm_ibs_112 jm_ibs_113 jm_ibs_114 jm_ibs_117 jm_ibs_118 jm_ibs_119 jm_ibs_120 jm_ibs_122 jm_ibs_123 jm_ibs_124 jm_ibs_125 jm_ibs_126 jm_ibs_127 jm_ibs_128 jm_ibs_129 jm_ibs_130 jm_ibs_131 jm_ibs_132 jm_ibs_133 jm_ibs_134 jm_ibs_135 jm_ibs_136 jm_ibs_137 jm_ibs_138 jm_ibs_139 jm_ibs_140 jm_ibs_141 jm_ibs_142 jm_ibs_143 jm_ibs_144 jm_ibs_145 jm_ibs_146 jm_ibs_147 jm_ibs_148 jm_ibs_149 jm_ibs_150 jm_ibs_151 jm_ibs_152 jm_ibs_153 jm_ibs_154 jm_ibs_155 jm_ibs_156 jm_ibs_157 jm_ibs_158 jm_ibs_159 jm_ibs_160 jm_ibs_161 jm_ibs_162 jm_ibs_163 jm_ibs_164 jm_ibs_165 jm_ibs_166 jm_ibs_167 jm_ibs_168 jm_ibs_169 jm_ibs_170 jm_ibs_171 jm_ibs_172 jm_ibs_173 jm_ibs_174 jm_ibs_175 jm_ibs_176 jm_ibs_177 jm_ibs_178 jm_ibs_179 jm_ibs_180 jm_ibs_181 jm_ibs_182 jm_ibs_183 jm_ibs_184 jm_ibs_185 jm_ibs_186 jm_ibs_187 jm_ibs_188 jm_ibs_189 jm_ibs_190 jm_ibs_191 jm_ibs_192 jm_ibs_193 jm_ibs_194 jm_ibs_195 jm_ibs_196 jm_ibs_197 jm_ibs_198 jm_ibs_199 jm_ibs_200 jm_ibs_201 jm_ibs_202 jm_ibs_203 jm_ibs_204 jm_ibs_205 jm_ibs_206 jm_ibs_207 jm_ibs_208 jm_ibs_209 jm_ibs_210 jm_ibs_211 jm_ibs_212 jm_ibs_213 jm_ibs_214 jm_ibs_215 jm_ibs_216 jm_ibs_217 jm_ibs_218 jm_ibs_219 jm_ibs_220 jm_ibs_221 jm_ibs_222

We propose a building with a unique image for the campus. A building that breaks the existing gray monotony – referring not only about the pictorial issue of the Campus, but also about the “global crisis without end” – and that, at the same time, is able to captivate.
The solar cell technology has not changed much over the times, however, silicon solar cells prevail “says Dr. Craig Grimes, professor of Electrical Engineering, Materials Science and Design at the Pennsylvania State University. “You spend a lot of energy, 5 gigajoules per square meter to produce silicon solar cells. It can be argued, first, that these cells never fully recover the energy used to produce them.” The new approach is to develop light-sensitive pigments that have been made using nanoparticles and various pigments. Researchers are studying titanium nanotubes to replace the layers of sensible pigment particles in the solar cells, and their initial effort produced about 3 percent of solar energy converted into electricity. The inability of researchers to grow longer titanium nanotubes reduced the proportion of solar conversion.

The search for future technology themes, was the genesis of the selected image for the building. The facade skin, happened through an architectural reinterpretation, it retracts the symbolic power of the ERI purpose. We used as reference the titanium nanotubes. Associated with recent discoveries, the titanium nanotubes have, among others, capacities for reuse and cheap production, becoming, this way, an inspiration for an architecture that seeks sustainability as an ideal. Nowadays, at the offices of UM (Minho University), researching processes are occurring in what concerns to materials development, one possible example is what’s happening in the civil engineering laboratory. In order to develop common synergies, we propose the skin of the building in prefabricated elements of a cementitious matrix material. This material reinforced with micro-fibers, has no conventional reinforcement, which could cause corrosion problems, among other features, is a very ductile material, plastic, fluid, self-compatible and allows to control the crack and therefore doesn’t crack. This skin allows the inclusion of pigmentation/oxides doesn’t need constant maintenance and lasts longer than common materials. To finish, it also allows a wide range of the architectural freedom

Photography by Joao Morgado