The Construction of the building is made of a Structural framework using primary pre-fabricated steel beams, secondary
prefabricated curved steel beams, and building skin with Glass fibre reinforced concrete (GFRC). The ground floor structure is made using concrete. The aerodynamics Sculptural element in the front facade was made using Ferro cement while the atrium's roof was done using ETFE (Ethylene tetrafluoroethylene) a lightweight material that is a superb alternative to glass.
The use of solar energy in various forms is relevant at a time when
the world is debating climate change issues caused by the use of
fossil fuels. Existing buildings consume a significant amount of
energy for lighting, heating, cooling, and other energy-intensive
equipment, which is mostly powered by fossil fuels. Today's goal
should be to replace this fossil fuel with solar energy, which is free
and abundant. Innovative design and implementation approaches
must be investigated in order to match modern technological
components to the scale, proportion, material, colour scheme, and
balance of buildings. As a result, the goal of this thesis is to propose
potential methods of integrating these technologies into existing
and future buildings. Solar Technologies and Solar Glass Solar energy panels provide alternatives to a wide range of energy needs, from small-scale domestic applications to large-scale solar power plants, from cloudy northern rooftops to hot, sunny deserts. Solar glass is an essential
component of these solar panels. Solar glass products are designed and optimized to meet the needs of various solar technologies,
including high solar energy transmittance, strength, and durability, as well as additional functionalities such as transparent conductive
oxide coatings, anti-reflective coatings, and sodium barrier layers.