Consistent Circularity

BelEtage

Reuse-Demonstrator

Dealing with existing structures will be one of the most important tasks in Germany and Europe in the future. With this practical research project, we offer a reality-based platform, which enables students to train important techniques and basic principles of a circular construction in the building sector. The starting point was a deconstruction workshop. The students learned to measure and evaluated the gained materials and set up a digital material depot with material passes. Afterwards, students were asked to design a storage and service building, using the parts obtained from the deconstruction in a fully circular manner including additional materials from the urban mine.

Moderne Holzkonstruktion einer überdachten Tribüne an einem Sportplatz bei Dämmerung.
The final design of BelEtage, using recovered materials from the urban mine. ©NB, Manuel Rausch

Facts

Funder: FSV Ebringen
Programme: Public Academic Partnership
Overall budget: €330.000,00
Role KIT: Academic Advisorship
Project duration: 2023–2027
KIT researchers: Prof. Dirk E. Hebel, Manuel Rausch, Michael Hosch, Hanna Hoss, Fanny Kaiser Hirt, Elena Boerman, Luca Diefenbacher, Oskar Emmrich – Chair for Sustainable Construction

Project partners

Badenova, Fairways, Südbadischer Fußballverband, Naturenergie.

Project website

Contact

Prof. Dirk E. Hebel
Phone: +49 721 608 42167
dirk.hebel.edu

 

Textüberschrift

A Teaching and Research Series on Straw Construction as a Scalable Strategy for Contemporary Architecture

In the summer semester of 2025, the teaching and research series kicked off with a foundational seminar and a straw construction field trip to Switzerland. In July 2025, a symposium was held focusing on scalability in straw construction. The content, visual, and research-related findings are currently being compiled into a compendium. The focus is on Building Class IV and its potential in straw construction. This is currently giving rise to the publication “Straw – Construction Manual” (Edition Detail Verlag). In parallel, Annastasia Hochmuth is beginning her doctoral research at the KHB on the construction principles of straw-insulated wood-frame construction, with a focus on Building Classes IV and V.

Zwei Bauarbeiter beim Strohballenbau neben dem Buch „Stroh“ (Konstruktionshandbuch, Edition DETAIL).
Foto: Atelier Kaiser Shen/P. Schneider, Buch: KHB

Facts

KIT researchers:

T.T.-Prof. Florian Kaiser, Jule Büchle, Annastasia Hochmut
Chair of Circular Timber Construction

Project partners

Detail Verlag

Project website

Contact

Jule Büchle
jule.buechle∂kit.edu

 

Chlorine Dreams

The Architecture of Bathing

The architecture of bathing has played a central role in many global cultures, from Aztec temazcales and Jewish mikvot to gay saunas and Olympic pools. Communal bathing fosters social bonds and inter-group mixing; however, it can often exclude women, the poor, the disabled, and people of colour. And today, social bathing is under threat around the world, thanks to reduced public funding, the energy crisis and declining use. This monograph traces the history of social bathing in seven chapters on the following themes: spirituality, health, sport, leisure, race, gender and sexuality. Each chapter includes inspiring counter-examples that promote integration and buck decline.

Menschen im und am Rand eines großen öffentlichen Schwimmbads mit Bahnen und Zuschauertribünen.
Pacaembu Stadium Swimming Pool, São Paulo, 2025. ©Tom Wilkinson

Facts

Funder: KIT Karlsruhe Institute of Technology
Programme: Chair of Architecture Theory
Role KIT: Research Assistant Position
Project duration: 2023–2026
KIT researchers: Dr. Tom Wilkinson, Chair for Architecture Theory

Contact

Dr. Thomas Wilkinson
thomas.wilkinson∂kit.edu

 

CirCLER

Circular Economy Transition Manager: guiding companies of the furniture value chain to deploy their transition strategy for a more circular economy

CirCLER provides an innovative training toolkit to help the furniture industry successfully manage the transition to a circular economy across the entire value chain. The new professional profile, Circular Economy Transition Manager, is tailored to the furniture industry’s need for green, digital, and cross-functional skills. The new joint curricula (EQF Levels 4, 5, 6) are being developed alongside the accompanying interactive training toolkit. Their development takes into account the EU principles of quality, transparency, and mobility (ECVET, ECTS, EQF, EQAVET). The part-time training program will be available in 6 EU languages and will target students and employees through customizable training pathways.

Infografik zum Projekt CirCLER zur Förderung der Kreislaufwirtschaft in der EU-Möbelindustrie.

Facts

Funder: European Union
Programme: ERASMUS-EDU-2022-PI-ALL-INNO-EDU-ENTERP
Overall budget: €1.169.043,00
Role KIT: Partner
Project duration: 2024–2027
KIT researchers:

M.Sc. Maria Victoria Gomez Gomez, Chair of Chair of Building Lifecycle Management
Dr. Volker Koch, Chair of Chair of Building Lifecycle Management

Project partners

AMBIT – Interior furnishings and hotel contract cluster and innovation hub (Spain), FLA – Federazione italiana delle industrie del legno del sughero del mobile dell'illuminazione e dell' arredamento (Italy), ATU – Atlantic technological university (Ireland), CETEM – Asociacion empresarial de investigacion centro tecnologico del mueble y la madera de la region de murcia (Spain), POLIMI – Politecnico di milano (Italy), CSM – Centro sperimentale del mobile e dell arredamento srl (Italy), ASLAM – Aslam cooperativa sociale (Italy), FORZA – Forza agency for sustainable development of the carpathian region nonprofit organization (Ukraine), UVA – Vaasan yliopisto (Finland), METODO - Metodo estudios consultores sl (Spain), UNITBV – Universitatea transilvania din brasov (Romania), EFIC – European furniture industries confederation (Belgium), FURV – Fundacio urv (Spain), UNFU – Ukrainian national forestry university (Ukraine), CPI – Center republike slovenije za poklicno izobrazevanje (Slovenia).

Project website

Contact

Dr. Volker Koch
Phone: +49 721 608 42166
volker.koch∂kit.edu

 

Circular Biobased Composites

100% Bio-Based and Circular Material Alternative to Wood-Based Panels for Sustainable Construction

The project addresses the growing need for sustainable construction materials by storing biogenic carbon from wood processing residues and agricultural waste and producing circular building materials using fungal mycelium as a natural binder. The project converts industrial and agricultural residues into sustainable insulation and engineered wood products. Technical tests on thermal and acoustic insulation, mechanics, and durability ensure that the panels and lightweight mycelium materials meet construction and furniture industry standards. A feasibility study, life cycle assessment, and cost analysis will further evaluate environmental benefits, scalability, and economic viability. Finally, a silent room demonstrator will be built to assess usability and performance and support future market introduction.

Moderne Holzkonstruktion einer überdachten Tribüne an einem Sportplatz bei Dämmerung.
The final design of BelEtage, using recovered materials from the urban mine. ©NB, Manuel Rausch

Facts

Funder: FSV Ebringen
Programme: Public Academic Partnership
Overall budget: €330.000,00
Role KIT: Academic Advisorship
Project duration: 2023–2027
KIT researchers: Prof. Dirk E. Hebel, Manuel Rausch, Michael Hosch, Hanna Hoss, Fanny Kaiser Hirt, Elena Boerman, Luca Diefenbacher, Oskar Emmrich – Chair for Sustainable Construction

Project partners

Badenova, Fairways, Südbadischer Fußballverband, Naturenergie.

Project website

Contact

Dr. Nazanin Saeidi
Phone: +49 721 608 42167
nazanin.saeidi.edu

 

Circular Construction Joining Technology

Development of a Selection Methodology for the Design of Architectural Components in the Context of the Circular Economy

The research investigates circular construction by understanding joining technology as an organizational and systemic rather than a purely material decision. It focuses on how the logic of construction systems determines reversibility, disassembly and reuse. Based on this, a selection methodology for systematic planning in architecture is developed, enabling architects to specifically select building systems according to their circular performance and circular strategy.

Moderne Holzkonstruktion einer überdachten Tribüne an einem Sportplatz bei Dämmerung.
Joining technologies as a separate layer of information in a two-dimensional horizontal drawing of an exterior wall. ©NB, Daniela Schneider, Dirk Hebel

Facts

Funder: FSV Ebringen
Programme: Public Academic Partnership
Overall budget: €330.000,00
Role KIT: Academic Advisorship
Project duration: 2023–2027
KIT researchers: Prof. Dirk E. Hebel, Manuel Rausch, Michael Hosch, Hanna Hoss, Fanny Kaiser Hirt, Elena Boerman, Luca Diefenbacher, Oskar Emmrich – Chair for Sustainable Construction

Project partners

Badenova, Fairways, Südbadischer Fußballverband, Naturenergie.

Project website

Contact

Daniela Schneider
daniela.schneider∂kit.edu

 

Digital FabLab

A temporary extension of the Digital Workshop of the Faculty of Architecture

Responding to the growing spatial demands of digital design and fabrication processes, the project provides an adequate environment while simultaneously acting as a built research prototype. Its structural system is based on reclaimed timber, forming a load-bearing framework that foregrounds material reuse. The foundation consists of stone-filled gabion structures, eliminating the need for conventional concrete. A modular timber system enables disassembly and reuse, while façade elements and windows are sourced from the urban mine. In this way, the building operates not only as a workshop space, but also as a material experiment and a temporary repository of resources.

Moderne Holzkonstruktion einer überdachten Tribüne an einem Sportplatz bei Dämmerung.
Rendering of the 2021 design: view of the southwest façade. ©NB, Manuel Rausch

Facts

Programme: KIT Department of Architecture – Digital Workshop Spaces
Overall budget: €650.000,00
Role KIT: Project Developer and Designer
Project duration: 2025–2027
KIT researchers: Prof. Dirk E. Hebel, Manuel Rausch – Chair for Sustainable Construction
Prof. Moritz Dörstelmann, Erik Zanetti, Daniel Fischer– Chair for Digital Design and Fabrication
Prof. Dr. Riccardo La Magna, Tamara Haußer – Chair for Design of Structures

Project website

Contact

Prof. Dirk E. Hebel
Phone: +49 721 608 42167
dirk.hebel.edu

 

HOME II

Contact

Dr. Nazanin Saeidi
Phone: +49 721 608 42167
nazanin.saeidi.edu

 

KIT Materials Library

The KIT Materials Library underwent a complete redesign from 2020 to 2023. The renovation and architectural redesign were carried out according to the principles of circular construction, using recycled and reused materials. In addition to technical repairs, the historic ceiling was uncovered and the parquet floor refinished. Discarded magazine racks now serve as exhibition and storage areas for the material samples. The library's content was also reoriented; for example, building materials are no longer presented as semi-finished products but as pure building materials that can circulate in the biological or technical cycle without loss of quality or that consist of secondary raw materials. The physical facilities are complemented by a materials database maintained by the network Materialbibliothek Deutscher Hochschulen (MDH).

Moderne Holzkonstruktion einer überdachten Tribüne an einem Sportplatz bei Dämmerung.
View of the KIT Materials Library. ©Zooey Braun

Facts

Funder: Wacker Chemie AG, KIT Department of Architecture – Chair for Sustainable Construction
Programme: Department of Architecture – Teaching and Research
Overall budget: €300.000,00
Grant amount: €300.000,00
Role KIT: Project Partner
Project duration: 2020–2023
KIT researchers: Prof. Dirk E. Hebel, Sandra Boehm, Elena Boermann – Chair for Sustainable Construction
Thomas Kinsch – ARCH-Materialbibliothek

Project partners

Manuel Rausch, studio-mra.

Project website

Making the Colonial Landscape

Timber, Water, and Architecture in Early Modern Peru

This research project connects environmental history of architecture, transcultural studies, and cultural landscape research. It examines how built and unbuilt environments in the early modern Viceroyalty of Peru functioned as a complex, interconnected system under colonial conditions. Case studies address building material production, especially timber, and transport, water management, and climate-specific construction cultures. Central to the analysis is the extractive colonial logic that treated both environment and people as resources, consolidating asymmetric power structures. Yet within these constraints, transcultural processes enabled the subversive preservation of indigenous knowledge, through applied techniques and building materials alike.

Detailreiche, geschnitzte Holzdecke mit geometrischen Mustern in einem historischen Raum.
Potosí, La Merced, cedar artesonado, early 17th century. ©Marco Silvestri

Facts

Project duration: 2026–2027
KIT researchers: Dr. Marco Silvestri – Chair of the History of Construction and Architecture

Contact

Dr. Marco Silvestri
marco.silvestri∂kit.edu

 

Mehr.WERT.Pavillon

A circular pavillon for the German Federal Garden Show (BUGA) in Heilbronn, 2019

The Mehr.WERT.Pavillon addresses the question how we can perform a paradigm shift in the way we use resources, from the currently dominant linear economy towards a circular economy of closed and pure material cycles. The pavilion makes use of the existing urban mine, e.g. the load-bearing structure is made from reused steel originating from a disused coal-fired power plant. Furthermore it acts as a material depot. The materials used in the construction are therefore selected and used in such a way that, after the dismantling of the building, they can be completely returned to clean and pure material cycles for reuse, recycling or biodegradation. The aim is to discuss important issues of construction and the associated use of resources with decision-makers from politics, construction planning and implementation and to develop new innovative concepts, applications and methods for practice and teaching.

Moderne Holzkonstruktion einer überdachten Tribüne an einem Sportplatz bei Dämmerung.
Mehr.WERT.Pavillon – BUGA Heilbronn 2019. ©Zooey Braun

Facts

Funder: GreenCycle GmbH, DSD – Duales System Holding GmbH & Co. KG, SER Sanierung im Erd- und Rückbau GMBH, Bundesgartenschau Heilbronn 2019
Programme: Bundesgartenschau Heilbronn 2019
Overall budget: €330.000,00
Grant amount: €80.000,00
Role KIT: Project Partner
Project duration: 2018–2018
KIT researchers: Prof. Dirk E. Hebel, Felix Heisel, Lisa Krämer, Karsten Schlesier, Simon Sommer, Philipp Staab, Sophie Welter, Katna Wiese – Chair for Sustainable Construction
Prof. Rosemarie Wagner – Chair of Building Technology

Project partners

2hs Architekten und Ingenieur, PartGmbB Hebel Heisel Schlesier, Lisa Krämer, Simon Sommer, Prof. Matthias Pfeifer, AMF Theaterbauten GmbH, Udo Rehm/FC-Planung GmbH, Gebr. A. & F. Hinderthür GmbH,  Elektro-Scheu GmbH, Kaufmann Zimmerei und Tischlerei GmbH, Manuel Rausch, Filmbüro – Videoproduktion Stuttgart, AMF Theaterbauten GmbH, Deutsche Foamglas GmbH, Glas Trösch GmbH, Hagedorn GmbH, Handy-Aktion Baden-Württemberg, Heinrich Feeß GmbH & Co. KG, Institut für Umwelt- und Zukunftsforschung – Sternwarte Bochum, Magna Naturstein GmbH, Really ApS, Schröder Bauzentrum GmbH/DeFries, Smile Plastics, SPITZER-Rohstoffhandelsgesell. mbH Selb, StoneCycling BV, Studio Dirk Vander Kooij.
 

Project website

Contact

Prof. Dirk E. Hebel
Phone: +49 721 608 42167
dirk.hebel∂kit.edu

 

MyCeiling

Modular lightweight ceiling system based on compressed mycelium composite shells

MyCeiling develops a modular, bio-based lightweight ceiling system using compressed mycelium composite shells reinforced with wood and bamboo structures. The project explores for the first time the use of mycelium as a structural material in load-bearing ceiling elements through optimized shell geometries, material formulations, and scalable manufacturing processes such as fiber injection molding and hot pressing. Mechanical, fire, and durability performance are systematically investigated, while digital design and fabrication methods enable efficient production of circular, CO₂-reducing building systems.

Architekturmodell eines Raums mit gewölbten Holzdecken und einer Person zum Maßstab.
Compressed mycelium shell elements for modular ceiling systems. ©NB, Manuel Rausch

Facts

Funder: Federal Institute for Research on Building, Urban Affairs and Spatial Development (BBSR) 
Programme: Future Construction – Innovation Programme
Overall budget: €550.000,00
Grant amount: €29.000,00 (KIT)
Role KIT: Project Partner
Project duration: 2025–2027
KIT researchers: Prof. Dirk E. Hebel, Dr. Nazanin Saeidi, Dr. Alireza Javadian – Chair for Sustainable Construction
Prof. Dr. Riccardo La Magna – Chair for Design of Structures

Project partners

University of Kassel, Fiber Engineering GmbH.

Project website

Contact

Dr. Alireza Javadian
Phone: +49 721 608 42167
alireza.javadian∂kit.edu

 

MycoTree

Textüberschrift

Textüberschrift

NEWood – A Renewable Wood Alternative

Bio-based Composite Material Development using Mycelium and Waste Streams for Circular Construction

This project investigates the development of NEWood, a fully bio-based composite material made from wood and agricultural waste bound with fungal mycelium. It addresses the environmental impact of conventional construction materials by replacing synthetic binders and reducing reliance on virgin resources. The research focuses on optimizing material formulations, exploring scalable manufacturing processes such as fiber injection molding and compression molding, and developing first prototypes for construction and interior applications. The project establishes the scientific and technological foundation for circular, low-carbon material systems and future industrial scaling.

Fächerförmig angeordnete, rechteckige Proben von beigem, körnigem Steinmaterial.
NEWood samples produced at MycoLab IEB. ©Tobias Wootton

Facts

Funder: KIT Sustainable and Responsible Innovation Challenge (SaRI/ARRTI)
Programme: Excellence Strategy – Responsible Innovation Initiative
Overall budget: €40.000,00
Grant amount: €40.000,00
Role KIT: Project Partner
Project duration: 2022–2023
KIT researchers: Dr. Nazanin Saeidi, Dr. Alireza Javadian – Professorship of Sus­tain­able Con­struc­tion

Project partners

Fiber Engineering GmbH.

Project website

Contact

Dr. Nazanin Saeidi
Phone: +49 721 608 42167
nazanin.saeidi∂kit.edu

ReSidual

Research into robotic prefabrication of a locally differentiated clay-fibre composite material system

The project combines the established research approach of gradient concrete with traditional earthen construction methods and their functional variations involving aggregate and straw additives, as well as current approaches to horizontally spanning earthen components with integrated biogenic tensile reinforcement.

Infografik zum Innovationskonzept der Gradient-Earth-Research der Klimaschutzstiftung BW.

Facts  
Funder: Baden-Württemberg Stiftung gGmbH
Programme: Ideas competition - Sustainable Construction Research
Overall budget: €98.900,00
Grant amount: €98.900,00
Role KIT: Project Lead
Project duration: 12 months
KIT researchers: DDF – Digital Design and Fabrication

Project website

Seaweed, Hemp and Autumn Leaves

The Potential of Biological Insulation Materials for an Ecological and Circular Construction Turnaround

This research project investigates the quantitative and qualitative potential of insulation materials that are 100% biological and can therefore circulate within the biological cycle. A key research question is what quantities of fossil- and mineral-based insulation materials can be replaced by 100% biological insulation materials. The research aims to further establish renewable raw materials in building material production and thus significantly reduce dependence on finite resources. In this context, insulation materials made from renewable raw materials can make a significant contribution to the transformation of the construction and materials industry towards an emission-free building sector.

Nahaufnahme getrockneter, brauner Tabakblätter.
Seaweed – a 100% biological insulation material. ©KIT Fakultät für Architektur, Fotowerkstatt

Facts

Programme: Dissertation
Project duration: 2021–ongoing
KIT researchers: Sandra Böhm – Professorship of Sustainable Con­struc­tion

Contact

Prof. Dirk E. Hebel
Phone: +49 721 608 42167
dirk.hebel∂kit.edu

 

Tanjas Gardenhouse

A rammed earth building in Ebringen near Freiburg

Tanjas Gardenhouse is a student-built project developed during a seminar in the summer semester 2021. Using excavated soil from a nearby pool construction, a rammed earth garden house was realized on site. The project tested the use of standardized concrete formwork for rammed earth construction and suitable mixtures of clay with sand and gravel. Conceived as a hands-on workshop, it provided practical experience with earth as a building material. Reclaimed windows from a demolished Art Nouveau villa were integrated, while large sandstone blocks from the same source form the foundation. In this way, the building combines material experimentation with the reuse of local resources.

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Art Nouveau Window combined with rammed earth wall on a sandstone foundation. ©Lisa Behringer, NB

Facts

Programme: Private-academic partnership
Role KIT: Project Partner
Project duration: 2020
KIT researchers: Prof. Dirk E. Hebel, Sandra Böhm, Katharina Blümke – Professorship of Sustainable Construction
Prof. Rosemarie Wagner – Professorship of Building Technology

Project website

Contact

Prof. Dirk E. Hebel
Phone: +49 721 608 42167
dirk.hebel∂kit.edu

 

Typological Resilience

Tool for the quick and cost-effective evaluation of the potential for converting existing office buildings into residential use

The project provides a digital tool for the rapid and cost-effective evaluation of the potential for converting office buildings into residential use. In the first step, the tool uses artificial intelligence to identify structurally relevant building components and their geometric properties in standard pixel-based office floor plans. The tool generates optimized residential layout schemes within the existing building structures. To do so, it draws on plan grammars based on selected residential building references. These references are particularly well-suited for addressing the challenges involved in converting office buildings into residential use: building depth and geometry.

Raster aus verschiedenen cyanfarbenen, kreuzförmigen Symbolen auf schwarzem Hintergrund.
Testing grammars based on varying geometries of office buildings. ©R+E

Facts

Project duration: 2022–ongoing
KIT researchers: Prof. Marc Frohn,Tim Panzer, Jasmin Hoffmann, Masa Mori
Chair of Space and Design
Prof. Dr. Hartmut Prautzsch, Institute for Visualization and Data Analysis

Contact

Prof. Marc Frohn
Phone: +49 721 608 42173
marc.frohn∂kit.edu

 

UMiSeSa

Construction of a circular, timber-based pavilion using reclaimed wood for the Bad Urach Garden Show 2027, with subsequent reuse as a bicycle station along the Brühlbach Trail

The City of Bad Urach is developing a pavilion for the 2027 Garden Show along a new cycling path, designed consistently according to principles of circular construction. The focus is on reusing reclaimed timber from a deconstruction project in Billigheim-Ingenheim, reversible construction methods, and material-appropriate detailing. The timber is analyzed and categorized, forming the basis for both the architectural design and structural system. During the Garden Show, the pavilion will serve as a venue for selling regional products; afterwards, it will be repurposed as a rest stop and bicycle station. Developed as an interdisciplinary teaching project at KIT, it results in a feasible prototype with exemplary character for the reuse of building components.

Innenansicht eines historischen Dachstuhls mit massiven Holzbalken und Lehmwänden.

Facts

Funder: City of Bad Urach, Eigenbetrieb Gartenschau
Programme: Ideas competition – Sustainable Construction Research
Project duration: 2026–2027
KIT researchers:

Prof. Dennis Mueller, Chair of Building Construction and Design
Prof. Dr. Riccardo La Magna, Chair of Design of Structures
Prof. Dr. Philipp Dietsch, Chair of Timber Construction and Structural Design

Project partners

City of Bad Urach, Eigenbetrieb Gartenschau

Project website

Contact

Clara Süßmann
clara.suessmann∂kit.edu

Lukas Bessai
lukas.bessai∂kit.edu

UMiSeSa – Urban Mining in Serial Renovation

Transdisciplinary analysis and piloting of serial renovation strategies that maximize the urban mining principle for skeleton buildings from the 1960s to the 1980s

The UMiSeSa research explores how circular economy principles can be integrated into serial renovation concepts for existing buildings. The main goal is to reduce CO2-Emissions according to LCA and energy demand. A two storey facade pilot on the KIT South Campus tests the approach using natural, regional materials and incorporating reused components. The project includes a detailed building analysis, pollutant assessment, and heating season monitoring. Results will form a practical guideline and evaluate extension potential, supporting scalable, resource efficient transformation of building stock.

Moderne Fassade eines mehrstöckigen Gebäudes mit grüner Wellblechverkleidung und roten Markisen.
Visualisation of the 2026 design: view of the south façade. ©NB

Facts

Funder: Federal Institute for Research on Building, Urban Affairs and Spatial Development (BBSR) on behalf of the Federal Ministry for Housing, Urban Development and Building (BMWSB)
Programme: ZUKUNFT BAU Research funding
Overall budget: €363.706,05
Grant amount: €55.217,94 (Sustainable Construction, Prof. Dirk E. Hebel)
Role KIT: Project Partner
Project duration: 2025–2027
KIT researchers: Prof. Dr. Riccardo La Magna – Professorship of Design of Structures
Prof. Dr. Dirk Hebel – Professorship of Sustainable Construction
Prof. Dr. Andreas Wagner – Professorship of Building Science and Technology
Prof. Dr. Kunibert Lennerts – Professorship of Technology and Management in Con­­­struc­­­tion

Project partners

KIT SE4 Planen und Bauen, Zirkular, Zimmerei Grünspecht e. G., Almosch Holzbau GmbH.

Project website

Urban Mining and Recycling UMAR

A Demonstrator for a Circular Economy in the Building Industry

The Urban Mining & Recycling (UMAR) Experimental Unit is part of the NEST research building on the campus of the Swiss Federal Laboratories for Materials Science and Technology (Empa) in Dübendorf, Switzerland. The project is designed to be fully reusable, recyclable or compostable. This places life-cycle thinking at the forefront of the design: Instead of merely using and subsequently disposing of resources, they are borrowed from their technical and biological cycles for a certain amount of time before being put back into circulation once again. UMAR functions simultaneously as a materials laboratory and a temporary material storage.

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TUMAR Unit in Dübendorf, Switzerland. ©Zooey Braun

Facts

Funder: Eidgenössische Materialprüfungsanstalt EMPA
Programme: Next Evolution in Sustainable Technology NEST
Overall budget: €900.000,00
Grant amount: €450.000,00
Role KIT: Partner
Project duration: 2014–2017
KIT researchers: Prof. Dirk E. Hebel – Professorship of Sustainable Construction

Project partners

Prof. Dr. Dr. Werner Sobek – University of Stuttgart), Prof. Felix Heisel – Cornell University, Bernd Köhler – Werner Sobek AG.

Project website

Contact

Prof. Dirk E. Hebel
Phone: +49 721 608 42167
dirk.hebel∂kit.edu