Students will acquire a solid foundation in the design and analysis of high-rise buildings, learning to evaluate and apply criteria for various types of loads, including dead loads, live loads, wind loads, and seismic forces. They will gain hands-on experience with industry-standard software such as ETABS, enabling them to model and analyze diverse building structures, including renowned skyscrapers and their foundation systems. The course will also cover advanced techniques for damping dynamic forces, such as those caused by storms and seismic activity, including mass dampers and base isolation systems. Theoretical knowledge will complement practical examples and case studies to ensure students can effectively translate their learning into real-world applications. This course can be strongly suggested to master engineers but is also suitable for architectural students.
In the High-Rise Building Design module, students are introduced to the fundamental principles and practices associated with the design and construction of tall structures. The course begins with a comprehensive overview of high-rise buildings, including their historical significance and design criteria essential for modern architectural practices.
Students learn about various structural systems and the fundamental loads these buildings encounter alongside their structural forms. This theoretical foundation is critical as they progress to analyze and model different braced systems, including rigid frame and infilled structures, as well as specialized designs such as shear walls and coupled shear wall systems.
The curriculum also emphasizes the importance of architectural parametric design, allowing students to harness digital tools and software, such as ETABS, to simulate and analyze complex structures. Other significant topics include tubular structures, outrigger-braced systems, and the latest advancements in construction technology, ensuring that students are equipped with contemporary knowledge for effective building design.
Additionally, students explore generalized theory and structural cores, addressing the stability and dynamic analysis crucial for high-rise buildings. The module covers foundation systems and damping strategies to mitigate structural risks during earthquakes and high winds, fostering an understanding of wind engineering and aerodynamics.
Case studies provide practical insights into real-world applications, while discussions on fire protection and architectural considerations highlight the interplay between safety and design aesthetics. Throughout the course, individual examinations play a vital role in gauging students' grasp of the material, culminating in a project where students apply their knowledge and skills to design a high-rise building utilizing the software tools practiced during the course. This comprehensive approach ensures that students are well-prepared to meet the industry's challenges of high-rise building design and management.
Teaching ETABS for modeling and analyzing the buildings' structures and preparation for the projects.
Theoretical courses, Wednesday: 11:30-13:00, weekly (16.10.2024-29.01.2025), Location: RR 58.3 (Link: https://campusplan.tu-braunschweig.de/?type=r&nr=68700)
Practical courses (Software), Friday: 9:00-12:30, weekly (08.11.2024-17.01.2025), Location: Beethovenstraße 51, Keller Raum -125.
Written Exam: 90 minutes (50%), Project: design of a high-rise building in teamwork (50%).
English