General
Modern computational design is gradually forming a modern environment of continuous flow of information, computer systems and algorithms that lead to the total control of properties, behavior and all kinds of aspects concerning materials in the design process. New technologies (such as the use of nanotechnology) contribute to rapid developments in materials science, increasing the requirements, the range of their properties, their variability, their response to different environmental conditions – to heat, light, electricity, etc. Thus, an expanded field is formed between the conventional management of materials as part of the construction of a project, and their apparent active participation in the production of architectural forms, as well as their treatment as dynamic rather than static systems.
Course content
Programme aims
The aim is to develop ways of approaching the selection process of materials in relation to their aesthetic quality, properties, behavior, resistance, processing, relevance and durability, in relation to the influence of external factors and requirements that influence design (in conventional and new digital environments), implementation, security, user health and project duration. One of the goals of the course is to cultivate active individual participation, but also group cooperation, as well as interaction with the tutor.
Learning Outcomes: Knowledge and Understanding
Upon completion of the course, students will be able to understand structural and decorative material selection issues in technical projects, which are based on their general secondary education (principles of physics, chemistry and engineering) and supported by advanced level science textbooks, as options are included resulting from developments at the cutting edge of materials technology and modern digital design capabilities.
They will be able to shape their choices during their studies in order to combine aesthetic choices with the general and specific requirements of the projects, integrating the structural materials into creative design process, always taking into account the safety and health of the users, and the environment.
Bibliography
Allen, E., & Iano, J., (2019) (7th edit). Fundamentals of Building Construction: Materials and Methods. N. Jersey: Wiley.
Ashby, M., Shercliff, H., & Cebon, D., (2007). Materials: Engineering, Science, Processing and Design. U.K.: Butterworth-Heinemann.
Bechtholdt, M., (2008). Innovative Surface Structures-Technologies and Applications. Oxford: Taylor & Francis
Berge, B., (2009). The Ecology of Building Materials. UK: Architectural Press.
Beverly, G., (2014). Textiles: The Whole Story: Uses, Meanings, Significance. London: Thames and Hudson Ltd.
Bonda, P., Sosnowchik, K., (2007). Sustainable Commercial Interiors. New Jersey: John Wiley and Sons.
Chapman, J., (2015), (2nd ed.) Emotional Durable Design: Objects, Experiences and Empathy. London, N. York: Routledge.
Coulson, J., (2012). Wood in Constuctions: How to Avoid Costly Mistakes. U.K.: Wiley Blackwell.
Duggal, S., K., (2016). Building Materials, 5th edit. N. Delhi: New Age International Ltd.
Edwards, B., W., & Naboni, E., (2013) (3rd ed.). Green Buildings Pay: Design, Productivity and Ecology. Oxford: Routledge.
Ermann, M., (2015). Architectural Acoustics Illustrated. N. Jersey: Wiley.
Georgiadou, Z (2021). Constuctive and Decorative Materials. Thessaloniki: Tziolas Publications.
Hodgson, F., T., (2016).Concretes, Cements, Mortars, Plasters & Stucco – How to Use and Prepare them. N.L.: Fredonia Books.
Moxon, S., (2014). Sustainability in Interior Design. London: Laurence King Pub.
Muthu, S., S., (2015). (edit.). Sustainable Apparel Production. N. York: CRC Group Press.
Robertson, M., (2014). Sustainability: Principles and Practice. Oxford: Routledge.
Schweitzer, Ph., A., (2005).Paint and Coatings: Applications and Corrosion Resistance. U.S.A.:Taylor and Francis.
Soutsos, M. & Domone, P. (edit.)(2017). Construction Materials: Their Nature and Behavior. U.S.A.: CRC Press.