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References
|
Abdel-Khadir MS, Dadi Mahamat A, Ali A, YK M, Gaye S (2023). Geotechnical Study and Physico-Chemical Characterization of Soils of Three Quarries in the City of Abeche in Chad. International Journal of Advanced Research 11:318-326. |
|
|
Abessolo D, Bernard A, Fokwa D (2020). Effects of the length and content of bamboo fibers on the physico-mechanical and hygroscopic properties of compressed earth blocks used in construction. Afrique Science 16(4):13-22. |
|
|
Annual Results Report Chad (United Nations Chad) (2022). United Nations Office for Coordination. |
|
|
Armel BL (2017). Hygro-thermo-mechanical behavior of structural materials for construction combining kenaf fibers with clay soils. Normandy University P 245. |
|
|
Bachir T (2014). Study of the physicomechanical behavior of compressed earth blocks with fibers, Mohamed Khider University Biskra. |
|
|
Benmansour N (2015). Development and characterization of local natural composites suitable for thermal insulation in homes. Hadj Lakhdar University of Batna. |
|
|
Bouvot S (2001). Mauduit, Etude de valorisation des cendres de chaufferies bois. ADEME DVNAC, Bureau d'Etudes TRIVALOR. |
|
|
Cazacova L, Yapicioglu B (2019). Chapter 14 - Bridging Sustainable Construction Technologies and Heritage: Novel Approach to the Conservation of the Built Environment, Ed(s): Vivian WY Tam, Khoa N Le, In: Sustainable Construction Technologies, Butterworth-Heinemann pp. 395-442. |
|
|
Herki B (2017). Absorption Characteristics of Lightweight Concrete Containing Densified Polystyrene. Civil Engineering Journal 3:8. |
|
|
Houben H, Rigassi V, Garnier P (1996). Garnier, Compressed Earth Blocks. Production Equipment, 2nd ed. Bruxelles. |
|
|
IEA (2016c). World Energy Outlook, (2016). International Energy Agency (IEA), Paris, France 684 p. |
|
|
Izemmouren O (2016). Effect of mineral additions on the durability of compressed earth bricks, Mohamed Khider University - Biskra. |
|
|
Kellati N, Bouardi AE (2007). Study of the thermophysical and acoustic properties of compact and granular cork. Renewable Energy Review CER'07 Oujda pp. 241-244. |
|
|
Khellou A, Hafsi A, Kriker A (2015). Effect of Adding Palm Waste Ash on Material Properties; Gypso-Calacires 7 p. |
|
|
Mansour MB, Jelidi A, Cherif AS, Jabrallah SB (2016). Optimizing the thermal and mechanical performance of compressed earth blocks (CEB). Construction and Building Materials 104:44 51. |
|
|
Marmoret L, Bouguerra A, Al-Rim K, Queneudec M (1995). Thermal conductivity of cellular clay concrete: a case of lightening by reaction with powdered aluminum. Thermal conductivity of cellular clay concrete: case of lightening by reaction with powdered aluminium 34(402):393 400. |
|
|
Milohin GS (2019). Valorization of crushed glass bottles and wood ashes in the manufacture of fired clay bricks. Lorraine University (France). |
|
|
Nguyen LT (2009). Quality and Thermophysical Properties of Pressure Treated Foods [The Ohio State University]. |
|
|
Saadi I, Belouttar R (2009). Mechanical behavior of raw earth bricks reinforced with date palm fibers and straw fibers. In International Seminar, Innovation & valorization in civil engineering and construction materials pp. 1-5. |
|
|
Tam VWY, Tam CM (2006). A review on the viable technology for construction waste recycling. Resources, Conservation and Recycling 47(3):209-221. |
|
|
United Nations Population Division (UNPD) (2015). World Population Prospects. The 2015 revision. |
|
|
Yung EHK, Chan EHW (2012). Implementation challenges to the adaptive reuse of heritage buildings: Towards the goals of sustainable, low carbon cities. Habitat International 36(3):352-361. |
|
|
Zhang L, Gustavsen A, Jelle BP, Yang L, Gao T, Wang Y (2017). Thermal conductivity of cement-stabilized earth blocks. Construction and Building Materials 151:504 511. |
|
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