Tag: Planungsprozess

  • Paradigm shift in energy planning

    Paradigm shift in energy planning

    Numerous countries have committed to being climate-neutral by 2050. For building and energy systems, this requires a rapid transition from fossil fuels to renewable energies and greater networking of different sectors. Buildings, mobility, industry, electricity, heat and synthetic fuels must interact and be planned in an integrated manner. Matthias Sulzer from Empa and Michael Wetter from the Lawrence Berkeley National Laboratory argue that the current planning processes do not do justice to this complexity and that a paradigm shift is therefore necessary.

    Current planning process – a silo mentality
    Today’s planning processes are organised by discipline, which leads to inefficient and suboptimal results. Engineers and architects work one after the other instead of collaborating across disciplines. This linear, “waterfall” approach leaves little room for iteration and optimisation in the overall system. Sulzer emphasises that this approach is no longer sufficient to meet the requirements of future, flexible energy systems.

    Inspiration from the chip industry
    Sulzer and Wetter propose a planning approach inspired by the chip industry. The electronics and computer scientist Alberto Sangiovanni-Vincentelli has revolutionised chip manufacturing with his “platform-based design”. This concept uses different levels of abstraction for the holistic analysis and optimisation of systems and creates universally valid, modularly combinable models. This model could also be applied to building and energy systems in order to automate and modularise planning.

    Advantages of a model-based planning process
    A model-based planning process would mean that models are used not only to analyse, but also to specify and build systems. These blueprints could be combined in a modular way to clearly define the design and functionality of a system. This would revolutionise planning, construction and operating processes and promote the necessary digitalisation and automation to achieve the ambitious decarbonisation targets.

    Pilot project at Empa
    The EU project GOES, led by Empa, is a first step towards the application of platform-based design in the energy sector. A pilot plant with 144 geothermal probes is being developed on the Empa campus in Dübendorf as the first application of this concept. The aim is to define the various abstraction levels of decision-making and to standardise the interfaces.

    The implementation of an automated and modular planning process is crucial for achieving climate neutrality by 2050, and Sulzer and Wetter are convinced that this paradigm shift will significantly increase the flexibility and efficiency of energy systems. The approach offers a promising solution to meet the challenges of decarbonisation and ensure security of supply.

  • The next step towards realising the vision of the Davos medical campus

    The next step towards realising the vision of the Davos medical campus

    The new research building “Research II” marks a step forward in the masterplan for the Davos medical campus designed by OOS. This plan aims to establish Davos as a centre of innovation with research activities, particularly in the fields of allergies, asthma and cardiology. Various structural measures have been undertaken to date, including the reorganisation of existing buildings and the introduction of a new therapy and catering wing.

    The Research II building creates additional space for various research activities and complements the existing campus building, which already serves as a training campus and research laboratory with offices. In addition, Research II offers space for external partners who benefit from the expertise and innovative atmosphere. Research II will thus be used by a large number of different institutions to pool their strengths with the aim of translational research.

    The project was developed taking into account the diverse requirements of various research projects such as CK-CARE, Cardio-Care and Davos BioSciences. The architecture and interior fittings were designed to be flexible and modular in order to facilitate future changes of use. Particular attention was paid to incorporating the needs of all users into the planning process, using a fixed budget as a guideline.

    The design is kept as flexible as possible to allow for a variety of uses. Although the building is currently designed for offices and laboratories, other uses can also be easily integrated. In addition, the interior design allows for flexible division into up to three separate areas.

    Aesthetically, “Research II” integrates seamlessly into the existing medical campus. One striking element is the cascading staircase that runs vertically through the building and encourages encounters between users. In addition, the use of shared labs and shared facilities encourages dialogue between different user groups and reduces investment costs. The BSL-2 laboratories are flexible and tailored to the needs of the users.

    Overall, “Research II” not only expands the capacities of the Davos Medical Campus, but also helps to realise the vision of the master plan step by step.