Energy-Efficient Retrofit of Buildings by Interior Insulation

Materials, Methods, and Tools

1st Edition - November 24, 2021
Imprint: Butterworth-Heinemann
Editors: Thomas Stahl, Karim Ghazi Wakili
Language: English
Paperback ISBN:
9 7 8 - 0 - 1 2 - 8 1 6 5 1 3 - 3
eBook ISBN:
9 7 8 - 0 - 1 2 - 8 1 6 5 1 5 - 7

Energy-Efficient Retrofit of Buildings by Interior Insulation: Materials, Methods and Tools offers readers comprehensive coverage of current research in German Language Countries… Read more

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Energy-Efficient Retrofit of Buildings by Interior Insulation: Materials, Methods and Tools offers readers comprehensive coverage of current research in German Language Countries. Chapters provide an overview on the development of energy efficiency for building retrofits and the role of internal insulation, cover materials with chapters on Brick, Wood, Plaster, Clay, and Natural Stone, explain the impact of internal insulation in those materials and how to cope with problems such as moisture build, mold and algae growth, provide practical advice on how to apply internal insulation in the most effective way, including Salt Efflorescence, Noise Protection, Fire Prevention, and more.

The practical approach of the book, with examples in all chapters, makes it valuable for Civil and Architectural Engineers involved with building retrofit. The book may also be useful to researchers in the field of Building Physics due to the breadth of the coverage.

Cover image
Title page
Table of Contents
Copyright
Contributors
Section 1: Materials
Chapter 1.1: Materials (Wood, Concrete, Brick, Natural Stones, Renewables…)
Abstract
1.1.1: Brickwork walls and internal insulation
1.1.2: Protection against driving rain and rising damp
1.1.3: Example of a retrofitted building by means of internal insulation and hydrophobization of the brickwork
References
Further reading
Chapter 1.2: Peculiarities of using VIP as internal insulation
Abstract
Acknowledgment
1.2.1: Introduction
1.2.2: Brick wall and internal insulation systems
1.2.3: Sensor positioning and measurement procedure
1.2.4: Results and discussions
1.2.5: Comparison of thermal bridge calculations
References
Chapter 1.3: Hydrophilic and hydrophobic materials as internal insulations for historic masonry walls
Abstract
1.3.1: Introduction
1.3.2: Definition of hydrophilic and hydrophobic
1.3.3: Hygric properties of insulation materials
1.3.4: Parametric study using hygrothermal calculations
1.3.5: Results of the hygrothermal simulations
References
Chapter 1.4: Historical plasters in connection with thermal insulations
Abstract
1.4.1: Historical plasters
1.4.2: Requirements to subsequently installed insulation with respect to historic plasters/renders
References
Chapter 1.5: Advantages and use of a newly developed load-bearing insulation material made of cattail
Abstract
1.5.1: Background
1.5.2: Plant and cultivation
1.5.3: Environmental protection significance
1.5.4: Properties of the magnesite-bonded Typha board
1.5.5: Application on a half-timbered building
1.5.6: Comparative study with other interior insulation systems in the monastery of Benediktbeuern
1.5.7: Summary
References
Chapter 1.6: Hygric interactions with antigraffiti systems
Abstract
1.6.1: Introduction
1.6.2: Colorants and their removal options
1.6.3: Antigraffiti systems
1.6.4: AGS and moisture transport
1.6.5: Summary
References
Chapter 1.7: Insulating plasters and their use as internal insulation
Abstract
1.7.1: Introduction
1.7.2: Composition of insulating plasters
1.7.3: Climatic conditions for hygrothermal analysis
1.7.4: 1D hygrothermal analysis of building details
1.7.5: 2D Hygrothermal analysis of building details
1.7.6: Thermal bridges—Solution proposals for internal edges
References
Section 2: Measurements and procedures
Chapter 2.1: Restoration of moisture and salt damaged masonry
Abstract
2.1.1: Introductory remarks
2.1.2: Condition of residential buildings in Austria
2.1.3: Planning steps for drying damp masonry
2.1.4: Horizontal sealing method against capillary rising damp
2.1.5: Accompanying measures for masonry drying
2.1.6: Summary
References
Chapter 2.2: Status analysis and building diagnosis prior to the application of internal insulation; practical implementation of the results obtained; some examples
Abstract
2.2.1: Introductory remarks
2.2.2: Research methods
2.2.3: Which data should/can the preliminary examination provide?
2.2.4: Object examples
2.2.5: Summary
References
Chapter 2.3: Influence of internal thermal insulation on the sound insulation of walls
Abstract
Acknowledgments
2.3.1: Introduction
2.3.2: Fundamentals of sound insulation
2.3.3: Effect of internal insulation on sound insulation
2.3.4: Issues for outdoor-indoor transmission
2.3.5: Issues for indoor-indoor transmission
2.3.6: Summary and suggestions
References
Chapter 2.4: Peculiarities of installing internal insulation in half-timbered walls; detailed solutions; some examples
Abstract
2.4.1: Problem definition
2.4.2: Half-timbered constructions
2.4.3: Professional framework repair
2.4.4: Solutions
2.4.5: Examples
References
Chapter 2.5: In situ measurement of water uptake on facades and its correspondence with internal insulation materials
Abstract
Acknowledgment
2.5.1: Introduction
2.5.2: In situ measurement
2.5.3: Laboratory measurement method of water absorption
2.5.4: Evaluation of the measurements
2.5.5: Measurement results
2.5.6: Assessment of the measurements
References
Chapter 2.6: Holistic and process approach to internal insulation
Abstract
2.6.1: Introduction
2.6.2: Basic principles
2.6.3: Quality management for internal insulation
2.6.4: Quality assurance and monitoring
2.6.5: Quality assurance by thermography
References
Chapter 2.7: Peculiarities of fire protection in case of internal insulation; fire prevention and fire protection concepts; some examples
Abstract
2.7.1: Building regulations and goals of fire protection
2.7.2: Building materials and components according to DIN 4102
2.7.3: Selected components from the point of view of fire protection
2.7.4: Necessary consideration of a fire protection concept
2.7.5: Documentation of the execution
References
Chapter 2.8: Variations and design options in renovation with internal insulation
Abstract
2.8.1: Basic principles and design variations for internal insulation
2.8.2: Project examples
References
Further reading
Chapter 2.9: Internally insulating building details in contact with the ground
Abstract
2.9.1: Introduction
2.9.2: Near ground and ground contact area
2.9.3: Materials and methods
2.9.4: Results
2.9.5: Conclusion
2.9.6: Selected examples
References
Chapter 2.10: Mitigation of structural thermal bridges
Abstract
2.10.1: Initial situation
2.10.2: Possibilities for mitigating thermal bridges
2.10.3: Closing words
2.10.4: Outlook
Chapter 2.11: Energy-efficient renovation with internal insulation
Abstract
2.11.1: Introduction
2.11.2: Thermal insulation systems for internal insulation
2.11.3: Evaluation of interior insulation systems using object examples with different constructions and coatings
2.11.4: Final summary
References
Section 3: Simulation and analysis tools
Chapter 3.1: Case study: Near zero energy building
Abstract
Acknowledgment
3.1.1: Renaissance building in Freiberg
3.1.2: Summary
Further reading
Chapter 3.2: Hygrothermal behavior of internal insulation systems with component integrated heating elements
Abstract
3.2.1: Introduction
3.2.2: Internal insulation and heating elements
3.2.3: Calculations
3.2.4: Measurements
3.2.5: Outlook
References
Chapter 3.3: Interior insulation and mold problems
Abstract
3.3.1: Introduction
3.3.2: Execution of investigations
3.3.3: Air flow behind the insulation
3.3.4: Calculations regarding defects
3.3.5: Calculations for the connection interior wall/ceiling
3.3.6: Summary
References
Chapter 3.4: Comparison of different internal thermal insulation materials with respect to their hygrothermal behavior
Abstract
3.4.1: Introduction
3.4.2: Classification regarding diffusion resistance
3.4.3: Classification after handling the condensation risk
3.4.4: Interaction of thermohygric material parameters
3.4.5: Outlook
References
Chapter 3.5: Energy performance evaluation of internal insulation as a measure for the modernization of existing buildings
Abstract
Acknowledgments
3.5.1: Introduction
3.5.2: The public law verification procedure and energy consulting
3.5.3: Overview of energy performance evaluation methods
3.5.4: Refurbishment of existing buildings with interior insulation and its energetic evaluation
3.5.5: Final remark
References
Index

Thomas Stahl

Thomas Stahl earned his MS degree in building physics and engineering from the University of Applied Sciences in Stuttgart and his second MS degree in building refurbishment from the University of Weimar. He has longtime working experience in the Building Science and Technology Laboratory of the Swiss Federal Laboratories for Materials Science and Technology (Empa) as building physicist and material developer (aerogel insulation plaster, moisture buffering plaster). From 2014 to 2019 he has been engaged in the development of innovative building materials in the R&D of Swiss Industrial companies serving as research team leader and managing director. Since 2016, he is co-founder and managing director of the Institute for Applied Building Physics (IABP) in Winterthur, Switzerland. Thomas Stahl is leading a working group within the International Association for Science and Technology of Building Maintenance and Monuments Preservation (WTA) and author of numerous publications in national and international journals.

Affiliations and expertise

Managing Director, Institute for Applied Building Physics, Winterthur, Switzerland

Karim Ghazi Wakili

Karim Ghazi Wakili obtained his MS degree in experimental physics as well as his PhD from the Swiss Federal Institute of Technology (ETHZ) in Zurich Switzerland. He joined the Swiss Federal Laboratories for Materials Science and Technology (Empa) as member of the scientific staff, group leader and finally Senior Scientist in the former Laboratory for Building Physics where he served over a total period of 26 years. Since 2016 he is co-founder and managing director of the Institute for Applied Building Physics (IABP) in Winterthur Switzerland and has also a partial affiliation with the Bern University of Applied Sciences. His area of research and expertise includes heat and mass transfer in porous building materials at ambient and fire temperatures as well as the corresponding numerical simulations and experimental techniques. He is member of the editorial board of “Energy and Buildings”, “Advances in Building Energy Research” and “Buildings”.

Affiliations and expertise

Co-founder and managing director, Institute for Applied Building Physics, Winterthur, Switzerland

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