2023 - 2024
Frankfurt University of Applied Sciences (UAS), Frankfurt am Main
Lehrauftrag für das Fach Bauphysik
Personenverzeichnis
Prof. Dr. Nadja Bishara
Foto: ismd (TU Darmstadt)
Prof. Dr. Nadja Bishara
Fachbereich Technik | Fachrichtung Bau und Umwelt
Materialkunde
Bauphysik und Energieoptimiertes Bauen
Bauphysik und Energieoptimiertes Bauen
Professorin für Bausysteme und Gebäudesimulation
Hochschule Mainz
Holzstraße 36
55116 Mainz
Raum 2.16
Sprechzeiten:
nach Vereinbarung
Vita
2020
Technische Universität Darmstadt - Institut für Statik und Konstruktion
Postdoktorandin und Forschungsgruppenleiterin
2017 - 2020
Krebs und Kiefer Fritz AG, Darmstadt
Projektleiterin Bauphysik, ab 01/2019 Leitende Ingenieurin Bauphysik
2016 - 2016
Passivhaus Institut Dr. Wolfgang Feist, Darmstadt
Forschungsaufenthalt
2014 - 2018
Freie Universität Bozen/Bolzano
Promotion im Bereich Bauphysik
2013 - 2015
Technische Universität Dresden - Institut für Bauklimatik
Wissenschaftliche Mitarbeiterin
2011 - 2012
GWT-TUD GmbH, Dresden
Projektingenieurin Bauphysik
2005 - 2011
Technische Universität Dresden
Studium des Bauingenieurwesens
Publikationen
2026
Moisture performance of silica-paper hybrids in the hygroscopic range
Bosse, N.; Czerwenka, L.; Andrieu-Brunsen, A.; Bishara, N. (2026): Moisture performance of silica-paper hybrids in the hygroscopic range. In: TAPPI Journal, DOI: 10.32964/TJ25.3.169
2026
Monitoring moisture performance of CLT exterior wall constructions in a residential building
Bishara, N.; Reber, J.; Bishara, A.; Knaack, U. (2026): Monitoring moisture performance of CLT exterior wall constructions in a residential building. In: Nagy, B., Szalay, Z. (eds) Proceedings of CESBP 2025 - 6th Central European Symposium on Building Physics. CESBP 2025. Lecture Notes in Civil Engineering, vol 795. Springer, Cham. DOI: 10.1007/978-3-032-14011-1_29
2025
Informed green façade selection: integrating LCA and microclimatic analysis for a dual-method approach
Lang-Eurisch, B.; Bishara, N.; Hübler, C. (2025): Informed Green Façade Selection: Integrating LCA and Microclimatic Analysis for a Dual-Method Approach. In: Journal of Building Performance Simulation, Taylor & Francis, DOI: 10.1080/19401493.2025.2538039
2025
Künstliche Intelligenz in der Bauphysik - Hintergrund, Anwendungen und Potenziale
Kraus, M. A.; Waibel, C.; Bishara, N.; Griego, D. (2025): Künstliche Intelligenz in der Bauphysik - Hintergrund, Anwendungen und Potenziale. In: Bauphysik-Kalender 2025, Ernst und Sohn Verlag, ISBN: 978-3-433-03451-4
2025
Circular Exterior Wall System Made of Paper-Based Materials
Bishara, N.; Burdiles, I.; Bosse, N.; Knaack, U. (2025): Circular Exterior Wall System Made of Paper-Based Materials. In: Sustainable and Regenerative Materials for Architecture, Laurence King Publishing, London, ISBN: 9781529433272
2024
Hygrothermal Performance of a Paper-Based Building Envelope
Bishara, N. (2024): Hygrothermal Performance of a Paper-Based Building Envelope, In book: Multiphysics and Multiscale Building Physics, Publisher: Springer Singapore, DOI: 10.1016/j.enbuild.2024.114708
2024
Adhesive paperboard connections in architectural applications: modelling, characterization, and performance assessment
Jasiolek, A.; Wolf, A.; Bishara, N.; Rosendahl, P. L. (2024): Adhesive paperboard connections in architectural applications: modelling, characterization, and performance assessment. In: The Journal of Adhesion, DOI: 10.1080/00218464.2024.2420895
2024
Experimental and numerical performance analysis of an active cooling wall module equipped with micro-encapsulated phase change material
Xue, Y.; Da Silva, C.; Bishara, N. (2024): Experimental and numerical performance analysis of an active cooling wall module equipped with micro-encapsulated phase change material, In: Energy and Buildings, DOI: 10.1016/j.enbuild.2024.114708
2024
Energy supply for the building stock of tomorrow - a case study.
Reidelbach, F.; Kirschstein, X.; Reber, J.; Bishara, N. (2024): Energy supply for the building stock of tomorrow - a case study. In E3S Web of Conferences, DOI: 10.1051/e3sconf/202456203002
2024
Regeneration of shallow borehole heat exchanger fields: a literature review
Kirschstein, X., Ohagen, M.; Reber, J.; Vardon, P.; Bishara, N. (2024): Regeneration of shallow borehole heat exchanger fields: a literature review. In: Energy and Buildings, DOI: 10.1016/j.enbuild.2024.114381
2024
Façade greening strategies: Integrating Life Cycle Assessment and microclimatic analysis for sustainable urban planning
Lang-Eurisch, B.; Bishara, N. (2024): Façade greening strategies: Integrating Life Cycle Assessment and microclimatic analysis for sustainable urban planning. In: Proceedings of SimBuild 2024. Denver, USA.
2024
Assessing energy flexibility potential via statistical analysis of building mass using rule- and schedule-based control
Reber, J.; Kirschstein, X.; Bishara, N. (2024): Assessing energy flexibility potential via statistical analysis of building mass using rule- and schedule-based control. In: Proceedings of SimBuild 2024. Denver, USA.
2023
The Darmstadt Energy Laboratory for Technologies in Application: Overview Paper – Living Lab DELTA. In: Insights from the Darmstadt Energy Lab for Technologies in Application
Kohne, T.; Beck, M.; Bishara, N.; Seyfried, S.; Schneider, J.; Weigold, M. (2023): The Darmstadt Energy Laboratory for Technologies in Application: Overview Paper – Living Lab DELTA. In: Insights from the Darmstadt Energy Lab for Technologies in Application, Darmstadt, Universitäts- und Landesbibliothek Darmstadt, DOI: 10.26083/tuprints-00026384
2023
Monitoring a paper-house
Bishara, N.; Wolf, A. (2023): Monitoring a paper-house. In: BAMP! CONFERENCE 2023 - 4th International Conference on Building with Paper, S. 27-28
2023
Energy efficiency measures for existing factory buildings
Kirschstein, X.; Schaffarczyk, A.; Schuster, M.; Bishara, N. (2023): Energy efficiency measures for existing factory buildings. In: Proceedings of the 15th International Modelica Conference 2023, DOI: 10.3384/ecp204737
2023
Evaluation of building mass characterization for energy flexibility through rule- and schedule-based control: a statistical approach
Reber, J.; Kirschstein, Xenia; Bishara, N. (2023): Evaluation of building mass characterization for energy flexibility through rule- and schedule-based control: a statistical approach. In: MDPI – Energies, DOI: 10.3390/en16196878
2023
Modelling of floor heating and cooling in residential districts
Kirschstein, X.; Reber, J.; Zeus, R.; Schuster, M.; Bishara, N. (2023): Modelling of floor heating and cooling in residential districts. In: MDPI – Energies, DOI: 10.3390/en16155850
2023
Metrological evaluation of facade coating systems regarding their resistance to microorganism growth
Bishara, A.; Bishara, N.; Kramberger-Kaplan H. (2023): Metrological evaluation of facade coating systems regarding their resistance to microorganism growth. In: IOP Journal of Physics: Conference Series. DOI: 10.1088/1742-6596/2654/1/012027
2021
Energieoptimierte Wohnquartiere – Lösungen für die Energiewende
Kohne, T.; Bishara, N.; Such, M.; Beck, M.; Stadler, E. M.; Schneider, J. (2021): Energieoptimierte Wohnquartiere – Lösungen für die Energiewende. In: Quartier – Fachmagazin für urbanen Wohnungsbau 6.2021, S. 20-25
2021
In situ Ug-value measurement on three different glazing types
Paschke, F.; Bishara, N.; Schulz, I.; Kocer, C.; Schneider, J.; Maier, A. (2021): In situ Ug-value measurement on three different glazing types. In: Journal of Physics: Conference Series, Vol 2069. DOI: 10.1088/1742-6596/2069/1/012134
2021
Experimental determination of the building envelope’s dynamic thermal characteristics in consideration of hygrothermal modelling – Assessment of methods and sources of uncertainty
Bishara, N.; Pernigotto, G.; Prada, A.; Baratieri, M.; Gasparella, A. (2021): Experimental determination of the building envelope’s dynamic thermal characteristics in consideration of hygrothermal modelling – Assessment of methods and sources of uncertainty. In: Energy & Buildings, 236, S. 110798. Elsevier, e-ISSN 1872-6178, DOI: 10.1016/j.enbuild.2021.110798
2018
The effect of ambient moisture conditions on heat flux time shift and decrement factor of multi-layered walls
Bishara, N.; Gasparella, A. (2018): The effect of ambient moisture conditions on heat flux time shift and decrement factor of multi-layered walls. In: Proceedings of the 7th International Building Physics Conference. Syracuse, NY, USA.
2018
Measurement of dynamic properties of building envelope materials and components - methods, tools, instruments and application
Bishara, N. (2018): Measurement of dynamic properties of building envelope materials and components - methods, tools, instruments and application. PhD Thesis. Free University of Bozen, Italy.
2017
CFD modelling of forced convection at a building component surface and coupling to dynamic HAM simulation – assessment and evaluation of methods and accuracy
Bishara, N.; Gasparella, A. (2017): CFD modelling of forced convection at a building component surface and coupling to dynamic HAM simulation – assessment and evaluation of methods and accuracy. In: Energy Procedia 132, S. 855–860. DOI: 10.1016/j.egypro.2017.09.673.
2016
Thermal optimization and performance analysis of an innovative wooden radiant heating system made for room temperature control—Laboratory and numerical investigation of prototypes
Bishara, N.; Schulz, T.; Gecks, J.; Plagge, R.; Wehsener, J. (2016): Thermal optimization and performance analysis of an innovative wooden radiant heating system made for room temperature control—Laboratory and numerical investigation of prototypes. In: Energy and Buildings 138, S. 569–578. DOI: 10.1016/j.enbuild.2016.12.091.
2016
Analysis of the measurements reliability in dynamic test of the opaque envelope
Bishara, N.; Prada, A.; Pernigotto, G.; Baratieri, M.; Gasparella, A. (2016): Analysis of the measurements reliability in dynamic test of the opaque envelope. In: Proceedings of the 4th International High Performance Buildings Conference at Purdue. Purdue, USA.
2016
Untersuchungen zu mehrlagigen Massivholzplatten als Heiz- und Kühlelement
Wehsener, J.; Schulz, T.; Gecks, J.; Bishara, N.; Krug, D.; Plagge, R. (2016): Untersuchungen zu mehrlagigen Massivholzplatten als Heiz- und Kühlelement. In: Bauphysik 28 (3), S. 129–134
2015
Numerical simulation of the hygrothermal behavior of a new solid wood panel for room temperature control – Calibration of the heating curve
Bishara, N.; Vogelsang, S.; Plagge, R. (2015): Numerical simulation of the hygrothermal behavior of a new solid wood panel for room temperature control – Calibration of the heating curve. In: Energy Procedia 78, S. 176–182. DOI: 10.1016/j.egypro.2015.11.136.
2015
Experimental investigation of a new solid wood panel for room temperature control - Analysis of the cooling performance
Bishara, N.; Plagge, R. (2015): Experimental investigation of a new solid wood panel for room temperature control - Analysis of the cooling performance. In: Proceedings of CISBAT 2015 International Conference on Future Buildings and Districts - Sustainability from Nano to Urban Scale. Lausanne, Switzerland.
2014
Development of a solid wood panel for heating and cooling of floor, wall and ceiling constructions
Bishara, N.; Plagge, R. (2014): Development of a solid wood panel for heating and cooling of floor, wall and ceiling constructions. In: 10th Nordic Symposium on Building Physics - Full Papers. Lund, Sweden.
Forschung & Projekte
25.06.2026
Hygrothermische Doppelklima-Prüfkammer
Mit HYDOK (HYgrothermische DOppelKlima-Prüfkammer) wird an der Hochschule Mainz eine Forschungsinfrastruktur zur experimentellen Untersuchung hygrothermischer Prozesse in innovativen Bauteilen aufgebaut. Die Doppelklima-Prüfkammer ermöglicht die realitätsnahe Simulation unterschiedlicher Innen- und Außenklimabedingungen und dient der Analyse des Wärme-, Feuchte- und Alterungsverhaltens von Baustoffen und Konstruktionen. Schwerpunkte sind die Entwicklung und Bewertung nachhaltiger, biogener und faserbasierter Baustoffe sowie Fragestellungen zu Feuchtesicherheit, Dauerhaftigkeit und Energieeffizienz. Die Infrastruktur stärkt den Profilbereich „Nachhaltige Materialien & Strukturen“ und schafft die Grundlage für zukünftige Forschungs-, Transfer- und Drittmittelprojekte.
01.10.2026
Sonderforschungsbereich 1767 "Paper"– Project C4: Papers with adaptive vapor permeability
Materials with adaptive vapor permeability play an essential role in construction, particularly in as semblies that must prevent moisture ingress during winter while allowing drying during summer. Although commercial moisture-dependent vapor retarders exist, they are almost exclusively plastic based multilayer products, which limits their recyclability and hinders material separation after use. Paper, by contrast, is highly recyclable and widely available, yet no paper-based vapor retarder with humidity-adaptive permeability currently exists. This technological gap motivates the development of a paper-based, humidity-adaptive vapor retarder that provides both the required hygrothermal and mechanical performance for building applications. However, developing such a system is challenging because it requires satisfying multiple, sometimes competing, criteria: humidity-dependent vapor diffusion resistance, mechanical durability, dimensional stability, and recyclability. The central goal of Project C04 is to develop a paper-based, moisture-variable vapor retarder whose sd-value can adapt to climatic boundary conditions. Specifically, the project aims to achieve sd-values in the range of approximately 2 m at high relative humidity (summer conditions) and up to 35 m at low relative humidity (winter conditions), thereby matching the functional performance of commercial retarders while offering a fully recyclable, bio-based alternative. Achieving such adaptive behavior requires a fundamental understanding of vapor transport mechanisms in paper sheets and laminates as well as the ability to tailor fiber orientation, pore structure, and physicochemical functionalization.