Relevant bibliographies by topics / Straw bale building

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  1. Journal articles
  2. Dissertations / Theses
  3. Books
  4. Book chapters
  5. Conference papers

Academic literature on the topic 'Straw bale building'

Author: Grafiati
Published: 4 June 2021
Last updated: 14 February 2022

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Journal articles on the topic "Straw bale building"

1

Li, Xue Ping. "Applied Research on Straw Bale in Northwest Rural Residential Building." Applied Mechanics and Materials 204-208 (October 2012): 3815–18. http://dx.doi.org/10.4028/www.scientific.net/amm.204-208.3815.

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The straw bale is a kind of eco-energy saving building material. Straw bale construction is a building which it use straw bales as the wall materials. Based on the investigation of rural residential buildings status, climatic characteristics and energy consumption status in northwest rural areas, raw material supply, construction cost and construction technology of straw bale building, thermal insulation and fire resistance properties of straw bale, environmental protection characteristic and so on were analyzed, it could make people aware of the straw bale can be used as an ideal material instead of solid clay brick in northwest rural residential building, and it could be extensive used and popularized in rural residential building.
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Bernard, Tomasz, and Azra Korjenic. "Hygro-Thermal Behaviour of Timber Frame Straw Bale Construction as an Energy Efficient Building Technology." Advanced Materials Research 1041 (October 2014): 92–95. http://dx.doi.org/10.4028/www.scientific.net/amr.1041.92.

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Due to an increasing request for ecological building constructions, in particular straw bale buildings, a research in this regard has been performed at the Vienna University of Technology. Straw bale construction is a new rediscovered building technology, which is an alternative to conventional construction technologies. The aim of this study is caring out of hygro-thermal simulation of a straw bale wall construction to design as efficiently as possible straw bale house. The choose of other construction elements for a thermal analysis (appropriate wall, roof and a base plate construction), was based on an extensive literature researche. For the examination of the building a timber frame construction has been selected. The straw bales in this construction were plastered inside with clay plaster and externally with a combination of lime and clay plaster. The roof structure was designed as a green roof and insulated with straw bales. The base plate was also insulated with straw bales. To check the thermal behavior of the structures described above were thermal bridges calculated using a FEM program. The hygrothermal behavior was calculated with HAM4D building physic software, developed on the department for Buildings Physics and Sound Protection on Vienna University of Technology. Ecological and economic evaluation of straw bale construction was carried out with reference to the data from the literature. The performed thermal (with COMSOL) and the first hygrothermal calculations (with HAM4D Software) have demonstrated a very favorable performance of the proposed building components. The achieved low U-values ​​of the components allow the construction of passive houses. The use of self-build-service in the construction process can reduce construction costs significantly. The use of ecological materials such as: straw, clay and wood allows a low cost recycling of building materials.
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Chaussinand, Adrien. "Straw Bale: An Innovative Sustainable Material in Construction." Key Engineering Materials 632 (November 2014): 69–77. http://dx.doi.org/10.4028/www.scientific.net/kem.632.69.

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It is around 10 years that the straw buildings have reappeared on the Europe construction market. Often self-built, these buildings sometimes made only with straw bales and soil aroused interest for their energy and sustainability performance. As there is no feedback existing on this kind of “alternative” construction, it is necessary to verify if straw bale buildings performances can meet today's energy requirements. The purpose of this study is to analyze different aspects of the thermal and energy performance of these buildings using the example of ECO46, an administrative load bearing straw bale building in Lausanne (Switzerland). The conductivity and heat capacity of the straw material were investigated through literature review to find a range of possibilities. Subsequently a dynamic thermal model was created, using the extracted thermal properties, by means of Pleiades+Comfie software. The model was calibrated against two sets of measurements in summer and winter. The results permit to compare the consumption of this building with some standard administrative Swiss buildings. Finally, life cycle assessment (LCA) of ECO46 using SimaPro software was carried out to show the evolution of energy consumption from a building constructed in 1975 to the current construction and to evaluate the main environmental impacts of straw bale building. The result shows that straw bale buildings could be a sustainable solution in the future of construction for its low embodied energy level and its excellent thermal performance if it is well built.
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Cascone, Stefano, Renata Rapisarda, and Dario Cascone. "Physical Properties of Straw Bales as a Construction Material: A Review." Sustainability 11, no. 12 (June 19, 2019): 3388. http://dx.doi.org/10.3390/su11123388.

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Straw bale buildings provide significant benefits in terms of costs, human health, and environmental sustainability. Several studies in different regions have underlined the remarkable properties of straw bales as insulating and construction material; however, to the authors’ knowledge, there are no reviews published on this topic. The main objective of this paper is to provide a better understanding of straw bale systems, focusing on durability and thermal and acoustic insulation properties. To this end, previous tests and studies on straw bale buildings around the world were reviewed, comparing their results, assessing where research currently stands, and identifying the aspects that need to be further investigated. Results from previous tests have highlighted their ability to achieve excellent living comfort and encouraged their use. Guidelines for the characteristics to be achieved during the baling process are now required. Combining straw bale walls with a render or any type of high-density layer can improve both the thermal and acoustic properties of straw bale constructions. Finally, a quantitative assessment of the most significant properties, such as thermal resistance and acoustic insulation, is necessary to reduce the gap between straw bales and traditional building materials.
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Bocco Guarneri, Andrea. "Architect Werner Schmidt's Straw-Bale Construction." Key Engineering Materials 600 (March 2014): 727–38. http://dx.doi.org/10.4028/www.scientific.net/kem.600.727.

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Werner Schmidt (Trübbach, Switzerland, 1953) is one of the most interesting contemporary 'green' architects, particularly experienced in straw-bale building. His accomplishments include now 20 straw-bale buildings of which 14 at least partially load-bearing. This paper extracts some essential principles from his work and explains in detail his technological solutions. This is the result of a thorough analysis, carried on during the preparation of a monograph. The success of his approach derives from many factors, among which: - Schmidt's training as a mason. In contrast with many fellow architects, his designs are rooted in practicality and feasibility. Moreover, he actively participates to the construction work. - His holistic vision of ecological building: straw bales are chosen because of the overall advantages they offer. Preferably, he adopts a modified 'Nebraska' technique, using high-density 'jumbo bales' forming more than 120 cm thick walls. This rather unique method assures rapidity of construction, and allows to solve a number of criticalities associated with 'small bale' building. - Not seeking the highest possible performances lets to focus economic and technical efforts on few elements that really need to be state-of-the-art. The envelope can be built with simple techniques, while parts that need be built precisely (stairs, cooking implements, baths, etc.) can be prefabricated. Schmidt's work shows that high ecological consideration can be coupled with convincing architectural results. The quality of his buildings in terms of energy performance, living value, and beautiful form constitutes a good practice promoting new ways to 'green' architecture.
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Njike, Manette, Walter O. Oyawa, and Silvester O. Abuodha. "Structural Performance of Straw Block Assemblies under Compression Load." Open Construction & Building Technology Journal 14, no. 1 (November 27, 2020): 350–57. http://dx.doi.org/10.2174/1874836802014010350.

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Background: In recent decades, the enduring interest and continued development of straw bale as a walling material are based on its beneficial properties. Straw bale is a biomaterial that contributes greatly to carbon footprint reduction and offers excellent thermal insulation. It is proved that plastered straw bale assemblies have good mechanical properties and can be used for the construction of a single storey building. It is known that straw bale presents high displacement in the assemblies; thus, pre-compression is a major step that helps to push down straw bale so as to avoid future structural failure in the wall. There is no clue yet if this method is structurally beneficial than to stabilized single straw bales before assembling them into a structural panel. Objective: This paper presents the structural performance of straw block assemblies under compression loads. Method: Straw blocks and mortar were used to construct plastered and un-plastered wall panels, which were tested under uniformly distributed compression load till failure. Results: The results obtained show that plastered straw block assemblies can support at least 286 KN/m2, which is higher than the minimum slab load 18.25KN/m2, including imposed load for a residential house. In addition, the strength of plastered straw block assemblies plastered with cement-gum mortar, 0.3 N/ mm2 is greater than the strength of a single storey building (0.19N/mm2). Furthermore, results indicate that un-plastered and plastered straw block assemblies perform better than un-plastered and plastered straw bale assemblies. Plastered straw block assemblies support up to 52KN while plastered straw bale assemblies support only 41.1KN. Conclusion: Under compression load, straw block assemblies have a load carrying capacity greater than the minimum slab load. Therefore, Straw block can be used for the construction of a single storey building.
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Brojan, Larisa, Ben Weil, and Peggi L. Clouston. "AIR TIGHTNESS OF STRAW BALE CONSTRUCTION." Journal of Green Building 10, no. 1 (April 2015): 99–113. http://dx.doi.org/10.3992/jgb.10.1.99.

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Straw bale construction offers a renewable, sustainable and proven alternative to mainstream building methods; still, little is known about its airflow characteristics. To this end, the intent of this paper is to evaluate airtightness of fully constructed and plastered straw bale walls as well as individual plain straw bales. The first experiment entailed measuring the influence of straw bale orientation on airflow characteristics with the finding that straw bale considered alone has poor air flow-retarding characteristics and that plaster is the primary air barrier. A second experiment involved thirty plastered straw bale specimens using three different plaster types. From this experiment, a crack grading system was developed and is herein proposed as a tool to evaluate plaster performance as an air barrier. A third experiment validated the crack grade system through application on four fully constructed straw bale walls. Practical use of the crack grading system was demonstrated on a case study straw bale house in Radomlje, Slovenia, where the predicted air tightness results were validated through comparison to results of blower door tests.
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Cao, Baozhu, Jun Hu, Yuansong Sun, and Hongxin Nie. "Laboratory Investigations into the Bearing Capacity of Straw Bales for Low-Rise Building Applications." Advances in Civil Engineering 2021 (July 6, 2021): 1–10. http://dx.doi.org/10.1155/2021/5557040.

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Investigations were carried out to study the mechanical performance under uniaxial load of unplastered and plastered straw bales. Results from tests on 30 rice straw bales indicated nonlinear load-bearing properties with large deformations and anisotropy. Since the deformations observed did not conform to the current building code requirements, the evaluation of ultimate bearing capacity through the maximum axial vertical load was not possible. To obtain the design strength of rice straw bales in composite walls, further 21 specimens of plastered straw bales were also tested in compression. The permissible deformation of the straw bales was evaluated. It is noteworthy that the large deformability of straw bales can reduce the damage to structures after an earthquake. Consequently, the straw bale use can widely enhance the seismic performance of low-rise buildings.
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Augustyńska, Agnieszka. "Opportunities and threats for natural building using straw bale technology." Budownictwo i Architektura 19, no. 1 (May 30, 2020): 029–38. http://dx.doi.org/10.35784/bud-arch.739.

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In this paper, the possibilities of using straw bale technology in construction, as well as the threats that limit both its development and dissemination, have been presented. This study has also investigated the use of recyclable waste and the role of recycling in natural construction, as well as the impact of CO2 reduction on pro-ecological activities. The characteristics of natural straw construction have been discussed, and the main features of straw bale technology have been presented. Examples of the implementation of straw bale technology in both Poland and Europe have been presented and the methods of their use have been described. An integral part of this study is an overview of the opportunities and threats of the use of straw bale technology in natural construction. Low-emission technologies using biodegradable materials as well as the possibility of building nZEB and passive buildings are indicated as main advantages of the technology. The necessity of introducing legal regulations that would enable the development of natural construction using straw bale technology was indicated. Straw bale technology was created as a response to an ecological challenge for sustainable construction and has significant innovation potential.
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Elias-Ozkan, Soofia Tahira, and Francoise Summers. "THERMAL PERFORMANCE OF THREE DIFFERENT STRAWBALE BUILDINGS AT THE KERKENES ECO-CENTER." Journal of Green Building 8, no. 4 (September 2013): 110–26. http://dx.doi.org/10.3992/jgb.8.4.110.

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By and large, straw is not considered to be a building material, yet in comparison with traditional materials, building with straw bales is definitely more energy-efficient, eco-friendly, and low-cost; qualities that are desirable in sustainable buildings. This paper presents information on three different straw bales buildings at the Kerkenes Eco-Center, which is located in the village of Sahmuratli in central Anatolia, Turkey. The first of these was constructed with load-bearing straw bale walls; the second with straw bales as infill in a timber-frame structure; while the third utilized straw bales in combination with Autoclave Aerated Concrete (AAC) blocks. This last was a hybrid wall construction that has been tried for the first time to take advantage of the thermal-insulation property of straw combined with the humidity-regulating property of mud plaster inside and the weather-resistance property of AAC outside. These three buildings are being monitored for their temperature and humidity variances with the help of data loggers; this data is also presented herein.
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Dissertations / Theses on the topic "Straw bale building"

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Carfrae, Jim. "The moisture performance of straw bale construction in a temperate maritime climate." Thesis, University of Plymouth, 2011. http://hdl.handle.net/10026.1/548.

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This thesis is an investigation into the moisture performance of straw bales used in the construction of buildings. The principle of taking bales of straw off the field and stacking them up on themselves to form the walls of a simple building is a practise that started over a hundred years ago. The modern form of this building method is more sophisticated, and is spreading world wide from its origins in the arid regions of America. Despite advances in modern methods of construction there has been concern and doubt over the suitability of straw bale for use as a building material in a temperate maritime climate. The main concern being that the higher levels of environmental moisture will have the potential to damage the straw over time. In order to assess the moisture performance of the straw bales in the walls of a building in this damp climate, a simple and effective means of measuring the moisture in-situ has been developed as part of this research. The overarching methodology for this research is to develop a more accurate version of a probe that uses a block of wood to measure moisture. An environmental chamber in the laboratory has been used to establish the hygrothermal relationship between the timber to be used in the probe, and samples of the straw used in construction. This is the first time that a continuous set of sorption and desorption isotherms have been created for samples of straw and timber simultaneously, a process that took six months to complete. This data was used in the design of a new wood block probe, and examples of the new probes were installed in the walls of a straw bale house with a known moisture history. The resulting readings from the new probe were compared to those from a professional agricultural straw moisture probe. These results could be checked against the readings of the relative humidity and temperature in the wall. Forty-eight pairs of the new wood block probe were calibrated in the laboratory. Fourteen diverse examples of straw bale construction were selected as case study buildings. Having been surveyed for this research, a number were then selected to have the new probes installed, and evidence of their moisture performance was recorded. Sufficient data was acquired through this process to confirm the suitability of straw bales for use in the construction of buildings, in a temperate maritime climate.
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Marks, Leanne R. "Straw-Bale as a Viable, Cost Effective, and Sustainable Building Material for Use in Southeast Ohio." Ohio University / OhioLINK, 2005. http://rave.ohiolink.edu/etdc/view?acc_num=ohiou1125775864.

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McIntosh, Sean P. "Factors Impeding the Advancement of Straw Bale As a Feasible and Sustainable Construction Building Material in North America." University of Cincinnati / OhioLINK, 2011. http://rave.ohiolink.edu/etdc/view?acc_num=ucin1305896657.

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Undén, Diana. "The road to sustainable building - ‘as clear as mud’? : Investigating the conditions for sustainability transitions in Sweden: A case study of earthen and straw bale builders." Thesis, Stockholms universitet, Kulturgeografiska institutionen, 2017. http://urn.kb.se/resolve?urn=urn:nbn:se:su:diva-143812.

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Achieving a transition to sustainability and decrease the environmental impact of building is part of Sweden's sustainability goals. Authorities and policy makers have a big responsibility to promote and facilitate this transition, but how this is to be achieved is not as readily answered. Using the multi-level perspective on socio-technical transitions, this thesis investigates the conditions for sustainability transitions in Swedish building by learning from the case of earthen and straw home builders. Qualitative mixed methods research, including questionnaires and semi-structured interviews was carried out to explore drivers and barriers for innovative sustainable building in Sweden. Findings suggest that there are barriers for innovative sustainable building in Sweden that might slow down the sustainability transition process, not in terms of regulation but in practices and norms in the current socio-technical regime.
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de, las Heras Reverte Víctor. "Evaluation of natural materials in Sustainable Buildings : A potential solution to the European 2050 long-term strategy." Thesis, KTH, Skolan för industriell teknik och management (ITM), 2021. http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-300115.

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Today, buildings consume 40% of total energy demand in the EU and are responsible for 36% of GHG emissions. For this reason, and due to the delicate situation of climate change that planet Earth is experiencing, solutions are being sought to make the building sector more sustainable. In the current project, the use of natural materials has been chosen as a solution in line with the EU 2050 long-term strategy. This research broadens the knowledge on sustainable building with natural materials as an alternative to conventional construction. To this end, first, an extensive state of the art has been carried out to gather information and identify research gaps on natural building materials and energy efficiency, proving the suitability of natural construction materials. Special emphasis has been put on straw bale construction and rammed earth construction, which have been studied individually. In addition, geometrically identical building models of both building techniques have been developed and simulated in Stockholm and Valencia in order to see how they would perform in different climates. Total energy demand for the straw-bale building of 140.22 kWh/(m2·year) in the case of Stockholm and 37.05 kWh/(m2·year) in the case of Valencia has been obtained. For the rammed earth building, a total demand of 301.82 kWh/(m2·year) has been obtained in Stockholm and 78.66 kWh/(m2·year) in Valencia. Once passive measures are applied in the different models, a reduction in demand for the straw bale building of 77.8% and 36.3% has been achieved for Stockholm and Valencia, respectively. In the rammed earth building, in contrast, the demand has been reduced by 86.3% in Stockholm and 73.9% in Valencia. Heat recovery ventilation and high insulation level have been identified as imperative needs in Stockholm, in contrast to Valencia. Other improvement strategies such as windows substitution, air permeability improvement, or natural ventilation for cooling have been implemented. Apart from that, better performance of the straw-bale buildings has been identified for both climates. Additionally, focusing on thermal inertia, its influence has been identified as not completely significant in terms of annual demand in the simulated climates.
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Škrachová, Ivana. "Optimalizace tvaru a následné ověření pevnosti dřevo-slámových panelů." Master's thesis, Vysoké učení technické v Brně. Fakulta stavební, 2020. http://www.nusl.cz/ntk/nusl-409959.

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The diploma thesis focuses on shape optimization and then on determining of strength of straw bane panels. The thesis aims to maximize the load-bearing capacity of the panels and using static calculation and laboratory testing to prove usability of panels in construction of buildings. From the acquired maximal load values for each panel the technical data sheets were created. Values in the technical data sheets were evaluated on FEM model of a simple house. The model proved applicability and reliability of straw bane panels in construction of buildings.
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Tattersall, Graham. "Structural Testing of Compressed Earth Blocks and Straw Bale Panels." Thesis, 2013. http://hdl.handle.net/1974/8442.

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Globally, there is a need for alternative building materials that require less energy to produce than conventional materials. These alternative materials have gained popularity in recent years, however there is a need to better understand their physical properties in order to increase confidence in their use. As such, a testing program was undertaken to investigate the structural properties of some of these materials. A series of compressed earth blocks made from a mixture of earth and cement compressed to 8 - 12 MPa were tested for their compressive capacity in masonry prisms. The blocks had been weathered for one to two years. The blocks with no cement had a capacity of 2.22 MPa, while cement stabilized blocks had a capacity of 8.11 MPa. Weathering did not result in any significant reduction in the strength of the blocks. Bales of high density straw were tested both with and without cement plaster skins. Unplastered bales exhibited a stiffness between 0.3 - 0.7 MPa when oriented Flat, and 1.2 MPa on edge. The bales had a dilation ratio between 0.1 - 0.3 in the Flat orientation and averaging 3.5 in the Edge orientation. The high density bales plastered with cement plaster exhibited ultimate strengths averaging 171.2 kN/m. Capacity was heavily dependent on plaster strengths, and when normalized for plaster strengths, high density bales had capacities lower than those of regular density bales tested previously (34.1 kN/m/MPa compared to 44.3 kN/m/MPa). Three walls made of straw with cement plaster were constructed with pin-ended conditions to study the effects of buckling in straw bale walls. The average capacity was 12.8 kN/m/MPa when normalized for plaster strength. Pin ends resulted in plastic hinges forming more easily in the walls, and pin ended specimens had a 75% reduction in strength compared to previous tests of "standard" end conditions. Taller walls also resulted in reduced strengths.
Thesis (Master, Civil Engineering) -- Queen's University, 2013-10-30 09:26:46.491
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Bronsema, Nicholas Rangco. "Moisture Movement and Mould Management in Straw Bale Walls for a Cold Climate." Thesis, 2010. http://hdl.handle.net/10012/5536.

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There is a growing interest in straw bale construction for its low embodied energy and insulation value. Early studies of its structural behaviour and fire resistance have shown it to be a viable alternative to traditional building techniques. However, the biggest remaining obstacle to widespread acceptance is the moisture behaviour within the straw bale walls, especially as it concerns mould growth. The uncertainty of this behaviour leads to the hesitation of building officials and insurance providers to freely accept straw bale construction. Therefore, this study investigates the moisture, temperature and mould growth in straw bale walls, through a combination of analysis, dynamic modeling and field studies. A study of mould is presented along with the current methods available for predicting mould growth. Moisture is the primary controllable factor to mould growth in buildings. Therefore, an understanding of moisture accumulation within straw bale walls is necessary to provide a safe design that precludes mould growth. This study compiles the current state of knowledge of the hygrothermal properties of the materials used in straw bale walls. Then a parametric steady-state analysis is conducted to show the expected behaviour of vapour diffusion and the effects of the material properties. Two 14”thick x 6’ wide x 8’ high straw bale test walls were constructed: one was rendered with a typical cement-lime plaster and the other with a clay plaster. Temperature and moisture were monitored throughout the walls for over a year. These test walls provide more information on the macro behaviour of the walls to both vapour diffusion and, more importantly, rain. Hygrothermal computer modeling was conducted and compared to the test data to assess its accuracy. Thermal modeling was successful, while moisture modeling was found to be more difficult due to a lack of accurate rain data. With better climate data it is expected that accurate hygrothermal modeling of straw bale walls is possible. The result of this work is a general starting point for more detailed studies of the hygrothermal behaviour of straw bale walls with the ultimate goal of assessing the mould risk for various construction techniques and locations.
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Books on the topic "Straw bale building"

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Woolley, Tom. Straw bale buildings: An introduction : the experience of straw bale building in Crossgar. Belfast: Queen's University of Belfast Department of Architecture, 1998.

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Bill, Steen, ed. The beauty of straw bale homes. White River Junction, Vt: Chelsea Green Pub., 2000.

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Bainbridge, David A. Plastered straw bale construction: Super energy efficient and economical. Canelo, AZ: Canelo Project, 1992.

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Hodge, Brian G. Building your straw bale home: From foundations to the roof. Collingwood, VIC: CSIRO Pub., 2006.

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Building a straw bale house: The Red Feather construction handbook. New York: Princeton Architectural Press, 2005.

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Myhrman, Matts A. Build it with bales: A step-by-step guide to straw-bale construction, version two. 2nd ed. Tucson, AZ: Out on Bale, 1997.

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Farrant, Tim. How to build straw bale landscape & privacy walls: A working paper. [Tucson, Ariz.?: s.n., 1995.

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1954-, Callahan Tim, ed. Building green: A complete how-to guide to alternate building methods--earth plaster, straw bale, cordwood, cob, living roofs. 2nd ed. New York: Lark Books, 2009.

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1954-, Callahan Tim, ed. Building green: A complete how-to guide to alternative building methods : earth, plaster, straw bale, cordwood, cob, living roofs. New York: Lark Books, 2005.

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Friedemann, Mahlke, ed. Building with straw: Design and technology of a sustainable architecture. Basel: Birkhäuser, 2005.

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Book chapters on the topic "Straw bale building"

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Yang, Jingjing, Yan Liu, and Liu Yang. "Analysis and Improvement Recommendations on Straw Bale Building in Northeast China." In Environmental Science and Engineering, 199–209. Singapore: Springer Singapore, 2020. http://dx.doi.org/10.1007/978-981-13-9528-4_21.

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Gross, Christopher, Jonathan Fovargue, Peter Homer, Tim Mander, Peter Walker, and Craig White. "Lateral Stability of Prefabricated Straw Bale Housing." In Sustainability in Energy and Buildings, 147–54. Berlin, Heidelberg: Springer Berlin Heidelberg, 2009. http://dx.doi.org/10.1007/978-3-642-03454-1_16.

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Lawrence, Mike, Andrew Heath, and Pete Walker. "Monitoring of the Moisture Content of Straw Bale Walls." In Sustainability in Energy and Buildings, 155–64. Berlin, Heidelberg: Springer Berlin Heidelberg, 2009. http://dx.doi.org/10.1007/978-3-642-03454-1_17.

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"Straw-Bale Building." In Inventing for the Environment. The MIT Press, 2003. http://dx.doi.org/10.7551/mitpress/3934.003.0016.

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"Straw Bale House Dornbirn, Austria." In Building Biology, 69–74. Birkhäuser, 2018. http://dx.doi.org/10.1515/9783035610406-009.

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"I. The technology of straw bale building." In Straw Bale Construction Manual, 7–82. Birkhäuser, 2020. http://dx.doi.org/10.1515/9783035618754-002.

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Gupta, Monika S., Uttam K. Roy, and Madhumita Roy. "Expediting Faster Housing Supply in India Using Straw Bale as Prefab Building Material." In Encyclopedia of Renewable and Sustainable Materials, 92–101. Elsevier, 2020. http://dx.doi.org/10.1016/b978-0-12-803581-8.11664-9.

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"Fire protection of multi-storey straw bale buildings." In Research and Applications in Structural Engineering, Mechanics and Computation, 739–40. CRC Press, 2013. http://dx.doi.org/10.1201/b15963-357.

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Conference papers on the topic "Straw bale building"

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Hua, Hong, Fujiang Chen, and Wenjun Peng. "Notice of Retraction: Efficiency Evaluation of Energy-Saving and Emission Reduction of Straw Bale Building." In 2010 International Conference on Management and Service Science (MASS 2010). IEEE, 2010. http://dx.doi.org/10.1109/icmss.2010.5577360.

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