Design of Sustainable and Energy Efficient Building Energy Analysis using Revit Insight

This report explores a comprehensive methodology for designing a sustainable and energy-efficient building in an urban region typified by a tropical wet and dry (semi-arid) climate. The climate presents unique challenges, including prolonged periods of intense summer heat, short but heavy monsoonal rainfall and mild winters. These conditions necessitate a climatesensitive architectural response that minimizes energy consumption while maximizing occupant comfort and long-term performance. The design process leverages Building Information Modeling (BIM) using Autodesk Revit, enabling a fully integrated workflow that spans from 2D planning to 3D modeling, energy analysis and performance visualization. The building’s orientation and form are optimized to reduce solar heat gain by aligning the longer facade along the north-south axis and minimizing exposure to the harsh western sun. Passive strategies such as cross-ventilation, shading devices and strategic zoning of high-occupancy spaces enhance thermal comfort and reduce reliance on mechanical cooling systems. The building envelope is modeled with attention to energy efficiency, incorporating insulated wall assemblies, high-performance glazing and passive solar controls. A solar path and shadow analysis guides the placement of fenestration and shading elements to reduce cooling loads while maximizing daylight. The Revit platform facilitates real-time synchronization across 2D and 3D views, automated material take off schedules and coordination of annotations, ensuring design precision and interdisciplinary collaboration. It also enables seamless export to energy simulation tools such as Insight 360, Green Building Studio and Tally for life cycle assessment, this report demonstrates a holistic approach to sustainable design that balances climate responsiveness, occupant wellbeing and technological innovation. By integrating passive architecture, intelligent material uses and BIMenabled workflows, the design achieves measurable reductions in operational energy demand, enhances long-term adaptability, and contributes meaningfully to the built environment of urban region.