Landratsamt Waiblingen

BIPV consistently delivered

The extension of the Rems-Murr District Office in Waiblingen has resulted in a technically sophisticated administrative building. It brings together timber hybrid construction, building-integrated photovoltaics (BIPV) and system integration within a coherent overall concept. The project demonstrates how design quality and efficient buildability can work hand in hand.

Detalhes da referência

Tipo de edifício Escritórios e administração
Áreas de produtos BIPV
Sistemas Schüco BIPV
Características Ampliação de edifícios Eficiência energética DGNB
Localização Waiblingen, Baden-Württemberg
Conclusão 2024
Arquitetos Landratsamt Rems/Murr a+r Architekten GmbH Stuttgart
Empresa especializada Neumayr Holding GmbH
Créditos das imagens © Brigida González

Precision planning and efficient delivery

A compact, five-storey new building has been constructed on the site of a former parking deck in the centre of Waiblingen. The polygonal building integrates precisely into the existing district office ensemble and marks the entrance to the new Alte Post campus. The complex geometry of the building placed high demands on the structure, façade and interface coordination. While a reinforced concrete core provides the necessary stability, the surrounding storeys are executed in timber hybrid construction using recycled concrete. This combination enables high load-bearing capacity while reducing material use, thereby contributing to decarbonisation. At ground level, a ventilated brick façade ensures robustness and durability. On the upper floors, a rhythmically structured timber-aluminium mullion-transom system by Schüco has been implemented.

BIPV as a façade design element

The integration of the building-integrated photovoltaic system was realised in close collaboration between a+r Architekten, the system supplier and the fabricator. The modules were conceived as a continuous design feature and precisely integrated into the timber-aluminium façade. Across the differently oriented façade surfaces, varying module formats ensure a consistent appearance that aligns seamlessly with the rhythmic structure of the mullion-transom system. Colour tone and surface finish were carefully coordinated to balance architectural effect with technical performance. With their satin-finished, bronze appearance, the BIPV elements blend harmoniously into the overall design, adding a refined, dynamic depth to the building envelope.

Informações sobre o produto

BIPV

Schüco Building Integrated Photovoltaics

Solutions for Building-Integrated Solar Power Generation​

Directive 2010/31/EU sets out energy performance requirements for new buildings. The specific implementation and applicable requirements in Germany are governed by the national legislation in force at the relevant time.​

Schüco BIPV modules (building-integrated photovoltaics) can be integrated into building envelopes while generating solar energy. Depending on the design, location, orientation and operating conditions, the electricity generated can contribute to meeting the building’s energy demand.​

When assessing a building’s energy performance, the applicable statutory provisions governing the accounting of self-generated electricity may be taken into consideration. Relevant factors include the specific building design, the system configuration and the calculation methods applicable at the time.​

BIPV modules can therefore form part of building concepts aimed at achieving high energy efficiency and reducing reliance on grid-supplied electricity. Whether a building meets the requirements for a nearly zero-energy building, zero-energy building or positive-energy building must be demonstrated on a case-by-case basis in accordance with the applicable statutory requirements and through an appropriate energy performance calculation.​

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Technology and system integration

The photovoltaic façade generates around 88,600 kWh of energy per year, making a key contribution to achieving the KfW Efficiency House 40 standard as well as DGNB Gold certification. The electrical configuration was optimised specifically for the project: instead of the originally planned 24 inverters, only eight units are required thanks to an adapted string layout. Cabling is implemented via standardised connections, while maintenance access points are integrated into the façade brackets. The approximately 30 per cent increase in panel efficiency during the planning phase highlights the rapid pace of technological development and the growing maturity of BIPV systems. The energy concept is aligned with the daily load profile of the administration: solar energy generated during the day is used directly in operation. In combination with digitally controlled building management, this results in efficient, low-maintenance energy use.