Generative AI in architectural designing and enhancing sheer walls & slabs
DOI:
https://doi.org/10.14419/cztd4z82Abstract
The design of beam and slab systems of reinforced concrete shear wall structures has long been an integral part of architectural and structural engineering. However, traditional methods applied to these systems for design purposes are usually labor-intensive and inefficient if the complexities encountered in modern buildings are considered. Generally, traditional methods heavily rely on time-consuming mathematical calculations and strict adherence to the design principles, which on a large scale can lead to inaccuracy, delays, and increased costs. New demands on architectural design, coupled with increasing concerns about sustainability, make even more innovative and adaptive approaches necessary in the designing process.
This paper addresses the shortcomings of the existing method by developing a new system that uses generative artificial intelligence and deep learning for automated enhancement in the design of beam and slab systems within shear wall structures. Through deep neural networks, high-dimensional architectural data analysis with optimized structural layouts would be possible, which might realize innovative design alternatives to meet the needs of buildings. This automation does not only diminish the time and labor invested in the design process but also improves the designs overall accuracy and efficiency with a performance equal to those produced by competent engineers.
Another significant characteristic of the proposed system is its capability to integrate several aspects of building design through the merging of attributes of space and elements. Additional leverage in the design process comes from the interactive tools of the system: through it, architects and engineers can iteratively experiment with design variations in real-time running, ensuring that their final solution meets the aesthetic and functional demands of the project.
The system further contains an environmental impact module, prioritizing sustainability in the design process. Such a module evaluates the carbon footprint of any material or construction method in use, ensuring, as much as possible, the use of environment-friendly materials. Since environmental considerations are integrated into the system right from the outset, it vies for sustainable construction practices, according to today's demand for green building solutions in the current construction scenario.