Handbook of Energy Analysis Using Building Information Modeling (BIM)
According to the United Nations Environment Programme (UNEP), buildings are the largest worldwide consumers of energy. Most of the energy used by any building is consumed during the usage (or operational) stage of the building’s life-cycle. Achieving sustainable development at the national level will require minimizing the effects of buildings on the environment with the low energy consumed by buildings. The energy performance of a given building is predicted and assessed by conducting an energy simulation. Using BIM in EPAs greatly reduces time and costs. The purpose of this study was to optimize energy consumption in buildings, using Building Information Modeling Technology (BIM), which can assess energy performance in the building. In this research, the general form of the building was modeled in the Autodesk Revit Software. After reviewing the proposed designs, the main form of the building was selected for modeling. Then, according to the type of materials consumed, the equipment and location of the project, the calculation of the energy consumption of the building was carried out using relevant tools in this scope. Finally, the best possible mode was chosen by examining different energy consumption modes. The results of energy simulation showed that 61.48% of the difference between the best mode of energy consumption optimization and the current state of the building, as well as 79.35%, is compared to the initial state. Finally, parametric studies of alternative cost optimization schemes showed that saving 58.23% of the building's current status for a 30-year horizon.
How to cite:
- Amani, N., Rezasoroush, A. and Tahernezhad, M. (2024). Handbook of Energy Analysis Using Building Information Modeling (BIM). [In Persian]. University Jihad Publishing Organization, Mazandaran branch, Iran. Available on: https://www.linkedin.com/in/amirsoroush, https://doi.org/10.13140/RG.2.2.27787.09763
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- Architectural computing and visualisation methods
- Architectural design
- Architectural science and technology
- Architecture management
- Sustainable architecture
- Automation and technology in building and construction
- Building construction management and project planning
- Building industry studies
- Building information modelling and management
- Building science, technologies and systems
- Data visualisation and computational (incl. parametric and generative) design
- Design management
- Models and simulations of design
- Sustainable design
- Design practice and methods
- Carbon capture engineering (excl. sequestration)
- Architectural engineering
- Construction engineering
- Construction materials
- Photovoltaic power systems
- Photovoltaic devices (solar cells)
- Engineering design
- Environmentally sustainable engineering
- Life cycle assessment and industrial ecology
- Energy generation, conversion and storage (excl. chemical and electrical)