Individual Buildings in Timber
Where Architecture Demands Its Own Solutions
Some designs follow no familiar pattern. They span large spaces, develop in extraordinary geometries, or combine materials in new ways. This is precisely where the particular strength of structural timber engineering begins.
Timber offers great structural and design freedom. It can be processed with precision, used for demanding load-bearing structures, and combined with steel, concrete, or glass to create high-performance hybrid constructions. The result is solutions that are not selected from an existing system, but developed for the specific building task at hand.
The more individual the architecture, the more important the interplay between design, structure, and execution. Because an extraordinary idea must not only be convincing in terms of design. It must be calculable, manufacturable, transportable, and precisely assemblable. When these requirements are considered together from the outset, a special idea can become a special building.
What Sets Individual Timber Buildings Apart
Individual building begins where a standard solution fails to meet the requirements of the task. This may be due to a particular geometry, large spans, the intended use, the location, or the combination of different materials.
Structural timber engineering creates diverse possibilities for this. Timber combines high load-bearing capacity and low dead weight with great design freedom. At the same time, individually developed components can be precisely prefabricated and prepared for assembly.
The material alone is not the central focus. What matters is the right solution for each project. This is why we combine timber with steel, concrete, glass, or other materials wherever it makes structural and design sense.
No two projects are alike — and yet each follows the same idea: to build precisely for this location, this use, and this architecture.
Technical Requirements for Individual Buildings
Extraordinary architecture places special demands on the construction. Complex geometries, large spans, individual connections, or hybrid load-bearing structures must be technically coordinated with precision.
It is not sufficient to consider a load-bearing structure purely from a structural perspective. Components must be manufacturable and transportable. Connections must work on site. And assembly must be possible safely and efficiently under the given conditions.
The more demanding the geometry and the larger the components, the more closely these factors interlock. Individual timber buildings therefore require solutions that consider not only the finished result, but also the path to get there.
Planning and Execution
The foundation for a demanding timber construction project is established early. Particularly for individual constructions, it is important to align the architectural idea and technical feasibility from the very beginning.
Our engineers bring their expertise into the planning process and accompany projects through detail development and production, right through to logistics and assembly. Together with architects, structural engineers, and other project partners, solutions are developed that are tailored to the specific building task.
How decisive this process can be is demonstrated by the new market hall at Vienna’s Naschmarkt. The originally planned load-bearing structure could not be realised in that form. In close coordination with the structural engineers, it was therefore reconceived and developed constructively.
Because with extraordinary projects, the outcome is determined not only by the idea, but also by how consistently it is developed down to the last detail.
Economic Viability in the Project Context
Individual architecture and economical execution need not be contradictory. The key is to recognise complexity early and reduce it where it adds no value to the project.
Precise planning, a high degree of prefabrication, and clearly defined processes create important prerequisites for this. When construction, production, transport, and assembly are coordinated early, processes can be better planned and interfaces more effectively managed.
The choice of materials also plays a role. Timber can be combined with other building materials to make targeted use of their respective properties for the structure, architecture, and intended use.
Economic viability in individual buildings therefore does not arise from standardisation at any cost, but from a solution that is structurally and procedurally suited to the project.
Typical Risks in Individual Projects
Many challenges in individual structures arise at the interfaces between design, construction, and execution.
If technical planning is integrated into the design process too late, important parameters for manufacturing, transport, or assembly may already have been fixed. This is particularly limiting for large spans, complex geometries, and hybrid structures.
The interfaces between different materials and trades also deserve particular attention. What appears architecturally straightforward may require structurally demanding connections and intensive detail planning.
The same applies to transport and assembly. Large or individually shaped components place special demands on logistics and the construction sequence. At the New Sydney Fish Market, manufacturing, transport, and assembly were therefore considered together during technical planning.
In practice, the following points in particular should be addressed early:
- Late technical integration into the design process
- Complex interfaces between structure and architecture
- Demanding connections and material combinations
- Component sizes and transport routes
- Assembly conditions and assembly sequences
The earlier these factors are considered together, the better the architectural idea can be translated into a precisely executable construction.
Where Ideas Take Shape
Individual architecture pushes the boundaries of what is possible — and structural timber engineering continues to develop alongside it.
New planning and manufacturing possibilities, hybrid constructions, and precise prefabrication create ever greater scope for distinctive geometries, large spans, and demanding load-bearing structures.
The aim is not to find the same answer for every building task. Rather, it is to develop from an architectural idea a solution that is precisely suited to this project.
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FAQ´s
Yes. Rubner realises individual special structures and architecturally demanding timber constructions – from complex structural systems to challenging building geometries. Wood can be combined with steel, concrete, glass or other building materials to meet design, technical and functional requirements. Each project is developed individually and tailored to the location, use, architecture and client.
Rubner realises individual timber construction projects of various scales – from demanding individual projects to large-volume and logistically complex construction ventures. The production sites in Austria, Italy and France provide the necessary capacity for planning, production, logistics and assembly. This allows even complex timber structures to be realised economically, precisely and on schedule.
Architects should involve Rubner as early as possible in the planning of individual timber construction projects. Early technical coordination is particularly crucial for complex geometries, large spans, hybrid constructions or demanding structural systems. Rubner provides support from concept development through engineering and production to assembly. This allows architectural ideas to be planned with technical precision, economically and in a buildable way.
Rubner realises individual timber structures for various building types, including multi-storey buildings, sports facilities, educational buildings, infrastructure, cultural buildings, shopping centres, commercial buildings and public buildings. What matters is not only the building type, but the individual requirements regarding structural system, architecture, use, location and construction process. The result is tailor-made timber construction projects that are technically and architecturally tailored to each specific project.
Wood is suitable for extraordinary architecture because it combines high load-bearing capacity, low self-weight and great design flexibility. In engineered timber construction, wood can be used to realise complex building forms, large spans and individual structural solutions. In combination with steel, concrete or glass, hybrid constructions are created that unite architectural freedom, technical performance and sustainability.
Wood, concrete and steel each have specific strengths. For individual architecture, wood is particularly suitable when low weight, high prefabrication, design flexibility and a better CO₂ balance are the priority. Concrete and steel can also be appropriate depending on the structural system, span or use. In modern engineered timber construction, materials are frequently combined to realise architecturally demanding and technically efficient special structures.
Individual timber structures are construction projects that are not realised according to a standardised system, but are tailored to the architecture, use, location and technical requirements. These include special structures, complex timber constructions, hybrid structural systems and buildings with particular geometric or functional requirements. In engineered timber construction, these projects are technically planned, prefabricated and precisely assembled.
Engineered timber construction offers high load-bearing capacity, low self-weight, precise prefabrication and great design freedom for special structures. This allows complex geometries, large spans and demanding structural systems to be realised efficiently. In addition, wood supports a more sustainable approach to construction, as the material stores CO₂ and can be combined with other materials to create high-performance hybrid constructions.
Yes. Individual timber structures are frequently planned as hybrid constructions in which wood is combined with steel, concrete, glass or other building materials. This allows load-bearing capacity, fire protection, architecture, facade design and use to be optimally coordinated. Rubner develops such solutions on a project-specific basis, combining timber construction expertise with the demands of modern architecture.
Rubner’s individual timber structures are particularly relevant for architects, clients, project developers, public clients and general contractors. They are suitable for projects in which architecture, structural system, sustainability, construction time and technical implementation are closely interlinked. Particularly for large-volume, public or architecturally demanding construction projects, Rubner offers the necessary experience in planning, production and assembly.
The realisation of an individual timber construction project begins with the technical analysis of the architectural idea. This is followed by engineering, structural planning, detail development, production, logistics and assembly. Rubner coordinates these steps on a project-specific basis so that complex timber structures can be precisely planned, industrially prefabricated and safely assembled on site.
Yes. Individual timber structures are also suitable for public buildings such as schools, sports facilities, cultural buildings, administrative buildings or infrastructure. Particularly in public projects, sustainability, construction time, durability, fire protection and cost-effectiveness play an important role. Engineered timber construction can meet these requirements through precise planning, industrial prefabrication and proven technical solutions.
