This thesis has been conducted as part of a joint initiative between Malmö University and
Mitt University, aiming to develop a foldable, transportable, and sustainable mountain cabin
suitable for use in remote and inaccessible terrain. The project is motivated by the growing
interest in hiking tourism in Sweden’s mountainous regions, where increased development
risks negatively impacting natural environments. As an alternative to permanent cabins, this
study explores the possibility of creating a cabin that can be easily assembled, disassembled,
and transported without leaving permanent traces on the landscape.
The work addresses three key research questions: how to optimize the cabin for transport in
rough terrain, how to select materials and design the structure to achieve low weight without
compromising stability and how to develop a ground anchoring system that is durable,
reusable, and minimizes environmental impact. The methodology includes literature reviews,
technical calculations using FEM-Design, and the construction of a physical prototype for
practical testing of components and joints.
The cabin is designed for transport via quad bike and trailer. Each building component
weighs no more than 100 kg to comply with Swedish Work Environment Authority
guidelines for manual handling, allowing four people to manage assembly. Material choices
were guided by environmental and structural considerations, with a timber frame, hemp
insulation, and plywood sheathing used to reduce overall weight. The construction is
designed to be vapor-permeable to support moisture regulation and facilitate assembly.
Ground anchoring is achieved using screw piles that require minimal soil disturbance.
Calculations reveal significant wind loads, addressed through dual screw anchors at the
corners and clamp-based fastening for ease of assembly without precision requirements.
The results demonstrate the feasibility of constructing a foldable, practical, and
environmentally friendly cabin for fragile alpine terrain.
2025. , p. 34
Transportable buildings, Wind load, Mountain-adapted construction