Roslan S.A.H.Hassan M.Z.Rasid Z.A.Zaki S.A.Daud Y.Aziz S.Sarip S.Ismail Z.2024-05-282024-05-2820152229864910.15282/ijame.12.2015.7.02422-s2.0-84960406252https://www.scopus.com/inward/record.uri?eid=2-s2.0-84960406252&doi=10.15282%2fijame.12.2015.7.0242&partnerID=40&md5=f9de802b09e78914b35901a5dac97c2chttps://oarep.usim.edu.my/handle/123456789/8477In the composite industry, natural fibres have great potential to replace synthetic fibres like carbon and glass, due to their low cost and environmentally friendly materials. Bamboo is emerging as a versatile reinforcing fibre candidate because this woody plant has a number of advantages, such as being naturally strong, biodegradable and abundantly available. In this study, a compression test with a crosshead displacement rate of 1 mm/min was conducted on square and triangular honeycomb core structures based on bamboo-epoxy composites so as to study their specific energy absorption. Both square and triangular honeycomb structures were manufactured by the slotting technique. Initially, a tensile test with the same crosshead displacement rate was conducted to study the tensile strength of unidirectional bamboo-epoxy composites with 0�, 45� and 90� fibre orientations. Bamboo-epoxy composite laminates were fabricated by applying a hand lay-up technique. The experimental data showed that the unidirectional bamboo-epoxy composite with 0� orientation offered the highest tensile strength. This indicates that the bamboo is stronger when parallel to the tensile axis. Meanwhile, the triangular honeycomb bamboo-epoxy structure offered about 10% more energy absorption than the square honeycomb structure, which indicates that the smaller cell size of honeycomb is able to absorb more energy than the bigger one. � Universiti Malaysia Pahang.en-USBambooEpoxyHoneycomb structureMechanical testingArticle28822892121