Buildings are significant contributors to greenhouse gas emissions and energy consumption in both industrialized and developing countries. This article explores the integration of bamboo as reinforcement in concrete columns which promotes durability and energy efficiency in construction. Its incorporation aligns with Sustainable Development Goal (SDG) 7, fostering modern and sustainable energy access. The study materializes the concept through cube and prism samples, subjected to compressive and flexural strength tests following industry standards. The research methodology validates the innovation's potential by evaluating its performance against conventional concrete columns. Laboratory tests reveal distinct differences in compressive and flexural strength between bamboo-reinforced and conventional concrete columns. While conventional concrete outperforms bamboo-reinforced concrete in compressive strength, bamboo-reinforced concrete exhibits superior flexural strength. Variations in results are attributed to the orientation and arrangement of bamboo within the samples. Further enhancements through bamboo pre-treatment and stakeholder collaboration could amplify its impact in the construction industry. This research contributes to the pursuit of sustainable practices and resource-efficient solutions in the global construction landscape.
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