Modeling and Fabrication of a Kinetic Solar Energy-absorbing Window as a Green Idea for Sustainable Future Buildings

Renewable versus nonrenewable energy sources and their respective environmental impacts have emerged as preeminent industrial, as well as environmental concerns. Negotiation between policies that promote economic development with those promoting conservationism has yielded promising opportunities for the future. These opportunities engage frameworks focused on economic directives while simultaneously considering the need for environmental directives. Buildings present a unique opportunity for sustainability as they represent the largest proportion of consumed energy, relative to other consumers reliant on the energy grid system. The largest source of energy expenditure in a modern building is through the heating and cooling system which facilitates and maintains a comfortable living temperature. By effectively implementing innovative approaches focused on energy preservation and overall reduction of consumption, it is possible to meet emission reduction goals and mitigate other adverse environmental conditions.

Windows play a vital role in energy consumption and overall maintenance of a comfortable temperature. Understandably, the construction and fabrication of windows are the primary means through which optimized temperatures are achieved. This occurs not only through heat and energy transference but also by providing a protective differential between the inside of the building and the harsh weather conditions of the outdoors. As such, appropriate widow design strategies not only enhance comfort but reduce overall energy consumption. This study seeks to evaluate double-skin windows in order to offer a solution to excessive energy consumption. The windows work by generating a natural ventilation system in summer and then by producing hot air in winter for year-round comfort that is economical. Since current double-skin windows fail to effectively provide ventilation during warm seasons, a kinetic double-skin window was proposed to address this problem and optimize the heating and cooling functions of the building. The results of this research are applicable to modern construction and can be implemented into current design structures.