Bio-materials for building envelope - expected performance, life cycle costing & controlled degradation. Anna Sandak PhD CNR-IVALSA



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Bio-materials for building envelope - expected performance, life cycle costing & controlled degradation Anna Sandak PhD CNR-IVALSA

Architect Michael Green of Vancouver says: The Earth grows our food. The earth can grow our homes. It s an ethical change that we have to go through. Australian architect Alex de Rijke adds: The 18th century was about brick, the 19th about steel, the 20th about concrete, and the 21st century is about wood.

IVALSA experiences

Renzo Piano Le Albere (Trento)

Wood performance

Bio4ever goals Promote innovative bio-materials with minimal environmental impact Establish original construction strategies by reducing gaps between expectations of designers, developers and consumers Integrate science and experiences for understanding functional and aesthetical performance of bio-materials during service life Improve sustainability of bio-materials by controlling its transformation at the end of use Create new business opportunities for the construction industry by using validated material solutions and design tools

Bio4ever concept WP1 Selection of bio-based materials WP3 Degradation mechanisms of materials during service life WP4 Development of suitable degradation processes WP2 Laboratory measurement routine WP5 Multi-scale modelling & simulation of material deterioration WP6 Demonstration tools for architects, engineers, investors WP7 Validation of models and tools within field trials WP8 Dissemination and exploitation of results

WP1. State-of-the art of available bio-based construction materials Objective: to select bio-based materials for studies Bio-based products Artuso (Italy) Oregon State Univ. (USA) MFE & FPT (Greece) ITD (Poland) Oklahoma State Univ. (USA), Bangor Univ. (UK) Modified wood Skog Landscap (Norway) FirmoLin (Nederlands), Maspel (Italy), Ljubljana Univ. (Slovenia) Salzburg Univ. (Austria) Poznan Univ. (Poland), Trento Univ. (Italy) Bern Univ. (Switzerland) k-plus (Austria) 1.1 Report on the bio-based materials to be used in sustainable building M3

WP2. Lab measurement routine for multi-scale characterization Objective: to prepare multi-sensor experimental set-up and to characterize bio-based materials along life cycle An integrated set of prototype and ordinary instruments for determination of bio-materials properties at different scales (from nano to macro) is available at the Lab. of Surface Characterization + Other CNR-IVALSA laboratories to be involved: Wood Quality and Non-destructive Testing, Wood Drying and Thermal Treatment, Preservation and Biodegradation, Fire Behavior, Chemistry of Wood and Wood Products, 2.1 Set of instruments for characterization of investigated bio-materials M6 2.2 A routine measurement protocols M8

WP3. Degradation of bio-materials during service life Objective: to understand mechanisms of biotic and abiotic degradations of natural materials in use Artificial weathering: QUV, Suntest and custom weathering machine Natural weathering: stations located at CNR-IVALSA or elsewhere In field inspections of the real buildings Living laboratory 3.1 A database of comprehensive characteristics and material properties before and after degradation 3.2 Software tools simulating the progress of deterioration at different scales M21 M18

WP4. Optimal end of life transformation Objective: to identify best end of life solution for each bio-material investigated Validation of the state of-the-art methods (pelletizing, combustion, gasification, digestion, land filling, animal bedding, fermentation, platform molecules production) Intensive experimental trials with root fungi, bacteria and insects LCA, LCC, EPD 4.1 Report on bio-materials degradation by insects M17 4.2 Recommendations for best end-of-life transformation M20 4.3 LCA and LCC including reuse, recycling, energy conversion and waste to proteins transformation M24

WP5. Multi-scale modeling and simulation of material deterioration Objective: to develop numerical models of bio-materials performance during service life RH [%] T [ 0 C] Selection of the most suitable data pre- and post- processing algorithms Data Fusion for the integration of experimental data Multivariate classification of bio-materials quality/functionality - special focus on aesthetical aspect Design of dose-response model for material deterioration at different scales Integration of models with software tools for architects 5.1 Models simulating changes in function of the weathering doses and construction details 5.2 Visualization of aesthetical changes to the bio-materials along service life M30 5.3 Tool for computation of service life period and maintenance scheduling M36 M25

WP6. Demonstration tools for architects, engineers and investors Objective: to promote correct use of wood and bio-materials in buildings I HEAR AND I FORGET I SEE AND I REMEMBER I DO AND I UNDERSTAND Confucius, 551 479 BC 6.1 Book with success stories to inspire investors and engineers M29 6.2 Outdoor demonstration station (living lab) M32

WP7. Validation of models and tools within field trials Objective: to assure highest reliability of numerical models durability studies in the field evaluation of mould risk continuation of Round Robin weathering test COST FP1006 short term waterlogging International network: COST Action FP 1006 Bringing new functions to wood through surface modification COST Action FP 1101 Assessment, Reinforcement and Monitoring of Timber Structures COST Action FP 1303 Performance of bio-based building materials COST Action FP 1407 Understanding wood modification through an integrated scientific and environmental impact approach (ModWoodLife) COST Action TU1403 Adaptive Facades Network IUFRO SISNIR Italia D 7.1 Supplementary data set to be used for further models improvement M33

WP8. Dissemination and exploitation of results Objective: to prepare open source knowledge platform on the bio-based building materials 8.1 Website with easy to understand multimedia M1 8.2 Technical handbook dedicated for designers and contractors M24 8.3 Software simulating changes of functional and aesthetic performance M36 + workshops and exhibitions, web TV & booklets, scientific publications

BIO4ever impact compatible with the foreseen research needs as summarized in Horizon 2020: advanced materials, added-value functionalities, extended in-service life of materials and widening material models corresponds to pan-european low carbon building agenda address to the top problems to be solved in next 50 years: environment, energy and food promote bio-materials in the construction sector, assuring confidence of designer, contractors and end-users contribute to practical understanding of the functional and aesthetical performances during the whole life-time service contribute to the prevention of forthcoming risk related to disposal of building materials wastes

Opportunities for you To continue previous initiative (RR test 2) To test innovative bio-materials To participate to STSM / Training Schools To use facilities of the Laboratory of Surface Characterization To work with us as a research assistant (PhD student or post-doc)

Thank you