<https://s.mj.run/EKpTlwQlGdQ> A high-detail architectural rendering of a semi-outdoor pavilion designed primarily as a classroom, with a secondary use as a flexible pavilion space. The structure is fully 3D-printed, utilizing advanced additive manufacturing to create complex, interlocking geometries that emphasize structural tectonics and showcase the potential of 3D-printed construction. The floor is seamlessly integrated with the walls and roof as a single, continuous form, highlighting the unity of structure and space. Designed with modular and scalable components, allowing the pavilion to expand or connect with additional units. The pavilion’s design embraces intricate details and organic textures, justifying the use of 3D printing for maximum complexity and precision. Constructed from sustainable composite materials (wood), it has integrated seating and workspaces within the structure. Lighting: bright, natural daytime setting, casting subtle shadows that emphasize the layered, additive textures. Style: modern, innovative, parametric design with a seamless integration of floor, walls, and roof. An advanced 3D-printed pavilion system with modular, plug-in components for a university campus. The structure consists of primary load-bearing modules, adaptable roof, and shading elements, providing protection from the elements with climate adaptability. Insulation is clipped between modules (Skiftesverk technique). Secondary modules include vegetation, furniture, and connections to other base slabs, integrating nature and environment. Tertiary modules allow future expansion, such as connections to existing walls or rooftops, leveraging 3D-printing flexibility. All modules use a universal knot system where top elements overlap bottom elements for rainwater runoff. [...]