The research is focused on implemention of digital innovation and generative design methods, for the design of automated materials recovery facilities in Riga. . The objective of this study is to contribute to
the understanding of digital technologies and their potentials for designing such facilities and inspire further research in this field.
This thesis provides a review of innovative digital technologies and design methods that could be used
to implement circular economy principles in the architectural design of an automated materials
recovery facility in Riga. The circular economy is a framework that addresses issues such as climate
change, biodiversity loss, waste, and pollution through principles such as designing out waste and
pollution, keeping products and materials in use, and regenerating natural systems. The EU has
proposed a circular action plan, which presents architects with new challenges, such as designing
recycling and resource-sharing facilities. The building and construction sector plays a significant role
in fighting climate change, and innovation is a critical component of the transition to a circular
economy, driven by technological advancements such as digitization and automation. The article aims
to provide an overview of relevant technologies and design methods, such as 3D printing, robotic
automation, and generative design, and discuss their potential to efficiently implement circular
economy principles in the design of automated materials recovery facilities in Riga. The objective of
this study is to contribute to the understanding of digital technologies and their potentials for designing
such facilities and inspire further research in this field.
Address: Spilve meadows, Riga
Function: Materials recovery facility
Plot area: 3,7 km2
Materials recovery facility: 8000 m2