Exploring Conventional Structural Joints in Biogenic Fiber Material-Based Construction
In response to the growing demand for environmentally friendly construction practices, the construction industry is actively seeking sustainable materials and techniques to minimize its ecological impact. One promising avenue for achieving this sustainability is the incorporation of biogenic fiber materials into construction processes, such as paper and cardboard products . These materials offer the potential for reducing the environmental footprint associated with building projects, making them an attractive alternative to conventional construction materials.
In recent years, biogenic fiber materials have gained traction within the construction sector due to their eco-friendly attributes and potential for enhancing sustainability. However, one of the critical factors in their successful integration lies in understanding their overall mechanical features, specifically the compatibility with conventional structural joints and connections.
This research project aims to delve into the realm of conventional structural joints and their applicability to biogenic fiber materials in construction. While biogenic fiber materials are known for their sustainability, their effectiveness within conventional construction systems is relatively unexplored. Therefore, a comprehensive examination of the compatibility and performance of biogenic fiber materials in various conventional structural joints is paramount.
The primary objective of this research is to investigate how biogenic fiber materials can be effectively integrated into established construction practices and to assess their suitability for different types of structural joints. By doing so, this research seeks to promote the adoption of biogenic fiber materials in the construction industry while ensuring that these materials align with established construction norms and standards, ultimately contributing to ecological sustainability.
Additional information
Capacity | One IREP students |
Project available for | Spring, Summer, and Fall2024 |
Credits | 18 ECTS |
Available via Remote | No |
Project Supervisor | Dr.-Ing. Nadja Bishara, M.Sc. Bernadette Lang-Eurisch |