Biomaterials are bio-based, reusable, non-toxic, and
environmentally friendly materials derived from plants, animals, fungi,
organisms or their derivatives, and inorganic materials. The first and most
examples of biomaterials are encountered in the field of health, but they are
also used in many fields such as chemistry, biology, textiles, engineering, and
architecture.
In recent years, biomaterial studies have gained
significant importance in architecture. The use of biomaterials increases the
energy efficiency of buildings and reduces their carbon footprint. Today,
examples of their use in architecture are developing. Various building elements
and insulation materials are being produced and developed using biomaterials.
For example, organic waste such as pulp, straw, seeds, stalks, or peanut shells
are being utilized in the construction of partition walls. These products
generally have a low specific gravity and are preferred for their impact
resistance. Rice straw and linen are suitable for thermal insulation, while
potato peels and cork stand out for their water-repellent properties. Soybean
waste, which has high porosity, is used for sound insulation. The construction
industry, with its traditional building materials, is responsible for 37% of
global carbon emissions. The production processes of materials like concrete,
glass, and steel require intensive energy use and contribute to environmental
pollution. Biomaterials are sustainable materials because they possess
properties such as environmentally friendly, durable, long-lasting, providing
thermal comfort, reducing carbon and energy emissions, and self-renewal through
photosynthesis.
Research in the field of biomaterials covers
topics such as the discovery of new materials, the improvement of existing
materials, and the development of more sustainable architectural solutions.
Biomaterials research is carried out through collaborative work across
different disciplines such as biology, medicine, chemistry, and engineering.
This approach requires the collaboration of scientists from different areas of
expertise. The research group, which will adopt an awareness-raising and
application-oriented approach, aims to emphasize how biomaterials can be used
in architecture and how they contribute to sustainability goals through its
interdisciplinary studies.
In this context, the research group;
Development of bio-based materials (e.g., mushroom
mycelium, algae-based polymers, bacterial cellulose),
Bioarchitectural applications (bio-inspired
structures, living buildings, self-healing materials),
Sustainability analysis (life cycle assessment of
materials, carbon footprint, recycling potential),
Digital integration (combination of 3D printing,
parametric design and biomaterials),
Ethical and social dimensions (accessibility of
biomaterials, cultural adaptation, legal frameworks),
Within
the scope and purpose stated above, the research group plans to carry out;
Research
projects:
Laboratory experiments, prototype development, field tests.
Events: Seminars, workshops, conferences
(e.g., annual bioarchitecture workshops).
Collaborations: Universities, industrial companies
(e.g., with biomaterials manufacturers such as BioMason or Ecovative) or
international networks (e.g., Biomimicry Institute).
Publications
and Sharing:
Articles, reports, creation of open access databases.
Education: Student mentoring, online courses
or certificate programs.