References
- Blazy, J., Drobiec, Ł. & Blazy, R. (2022) The use of glass fibre reinforced concrete to create structural elements and architectural forms (in polish). Przegląd Budowlany, 93, 5-6, 27–33.
- Czajkowska, A., Raczkiewicz, W. & Ingaldi, M. (2023) Determination of the linear correlation coefficient between Young’s modulus and the compressive strength in fibre-reinforced concrete based on experimental studies. Production Engineering Archives, 29(3), 288–297. DOI: 10.30657/pea.2023.29.33.
- Ding, Y. & Kusterle, W. (2000) Compressive stress-strain relationship of steel fibre-reinforced concrete at early age. Cement and Concrete Research, 30, 1573–1579.
- Dobashi, H., Matsuda, M., Kondo, Y. & Fujii, A. (2007) Development of Steel Fiber Reinforced Highly Flowable Concrete Segments and Application to Construction. Society for Mining, Metallurgy & Exploration.
- Glinicki, M.A. (2008) Equivalent flexural strength of fiber-reinforced concrete (In Polish). Inżynier Budownictwa, 1.
- Helbrych, P. (2021) Effect of dosing with propylene fibers on the mechanical properties of concretes. Construction of Optimized Energy Potential (CoOEP), 10(2), 39–44. DOI: 10.17512/bozpe.2021.2.05.
- Hoła, J., Pietraszek, P. & Schabowicz, K. (2010) Structural Design of Traditionally Constructed Buildings (In Polish). Wrocław: Dolnośląskie Wydawnictwo Edukacyjne.
- Jura, J. & Ulewicz, M. (2021) Assessment of the possibility of using fly ash from biomass combustion for concrete. Materials, 14, 6708.
- Kobaka, J. & Katzer, J. (2022) A principal component analysis in concrete design. Construction of Optimized Energy Potential (CoOEP), 11, 203–214. DOI: 10.17512/bozpe.2022.11.23.
- Kysiak, A. & Szuba, B. (2023) Modular houses as a form of sustainable construction. Construction of Optimized Energy Potential (CoOEP), 12, 182–190. DOI: 10.17512/bozpe.2023.12.20.
- Latifi, M.R., Biricik, Ö. & Mardani Aghabaglou, A. (2021) Effect of the addition of polypropylene fiber on concrete properties. Journal of Adhesion Science and Technology, 36(4), 345–369. DOI: 10.1080/01694243.2021.1922221.
- Ma, M., Tam, V.W., Le, K.N. & Osei-Kuei, R. (2022) Factors affecting the price of recycled concrete: A critical review. Journal of Building Engineering, 46, 103743.
- Pietrzak, A. (2024) Effect of polypropylene fiber structure and length on selected properties of concrete. Construction of Optimized Energy Potential (CoOEP), 13, 78–88. DOI: 10.17512/bozpe.2024.13.09.
- Pietrzak, A. & Ulewicz M. (2023) Influence of post-consumer waste thermoplastic elastomers obtained from used car floor mats on concrete properties. Materials, 16(6), 2231. DOI: 10.3390/ma16062231.
- Purcell, A., Forde, M.M., Maharaj, R. & Maharaj, C. (2021) Optimising the performance of crumb rubber modified concrete. Journal of Solid Waste Technology and Management, 47(1), 137–145.
- Respondek, Z. (2017) Construction-fitting process organization and management in a small business. Production Engineering Archives, 14(14), 40–44. DOI: 10.30657/pea.2017.14.10.
- Selejdak, J., Bobalo, T., Blikharskyy, Y. & Dankevych, I. (2023) Mathematical modelling of stress-strain state of steel-concrete beams with combined reinforcement. Production Engineering Archives, 29(1), 108–115. DOI: 10.30657/pea.2023.29.13.
- Stefanidou, M., Kamperidou, V., Konstandinidis, A., Koltsou, P. & Papadopoulos, S. (2022) Rheological properties of biofibers in cementitious composite matrix. In Advances in Bio-Based Fiber, Moving Towards a Green Society. The Textile Institute Book Series. DOI: 10.1016/B978-0-12-824543-9.00017-7.
- Sukontasukkul, P., Pomchiengpin, W. & Songpiriyakij, S. (2010) Post-crack (or post-peak) flexural response and toughness of fiber reinforced concrete after exposure to high temperature. Construction and Building Materials, 24, 1967–1974.
- Teng, T.-L., Chu, Y.-A., Chang, F.-A., Shen, B.-C. & Cheng D.-S. (2008) Development and validation of numerical model of steel fiber reinforced concrete for high-velocity impact. Computational Materials Science, 42, 90–99.
- Ulewicz, M. & Halbiniak, J. (2016) Application of waste from utilitarian ceramics for production of cement mortar and concrete. Physicochemical Problems of Mineral Processing, 52, 1002–1010.
- Ulewicz, M. & Pietrzak, A. (2021) Properties and structure of concretes doped with production waste of thermoplastic elastomers from the production of car floor mats. Materials, 14, 872.
- Ulewicz, M. & Pietrzak, A. (2023) Influence of post-consumer waste thermoplastic elastomers obtained from used car floor mats on concrete properties. Materials, 16, 2231.
- Uygunoǧlu, T. (2008) Investigation of microstructure and flexural behavior of steel-fiber reinforced concrete. Materials and Structures, 41, 1441–1449.
- Vighio, A.A., Zakaria, R., Ahmad, F., Munikanan, V., Wahi, N., Aminuddin, E., Jia Wen, T., Mohd Saha, K., Umran, N.I.L. & Pawłowicz, J.A. (2024) Overall thermal transfer analysis of glazing facade design for passive building energy efficiency. Civil and Environmental Engineering Reports, 34(4), 503–520. DOI: 10.59440/ceer/193131.
- Wang, Z.-L., Liu, Y.-S. & Shen, R.F. (2008) Stress-strain relationship of steel fiber-reinforced concrete under dynamic compression. Construction and Building Materials, 22, 811–819.
- Wang Z.-L., Wu L.P. & Wang J.G. (2010) A study of constitutive relation and dynamic failure for SFRC in compression. Construction and Building Materials, 24, 1358–1363.
- Yazici S., Inan G. & Tabak V. (2007) Effect of aspect ratio and volume fraction of steel fiber on the mechanical properties of SFRC. Construction and Building Materials, 21, 1250–1253.
- Zhang, Y., Mao, Y., Jiao, L. Shuai, C. & Zhang, H. (2021) Eco-efficiency, eco-technology innovation and eco-well-being performance to improve global sustainable development. Environmental Impact Assessment Review, 89, 106580.