“…Because of their good mechanical properties, low cost, high speci c strength, good heat and solvent tolerance, and super adhesiveness, therefore epoxy-based composite materials are commonly used in load-bearing applications, such as automotive, aerospace, building, oil and gas, and marine industries. Moreover, the value of the cured resin, which includes good adhesion to many substrates, relatively high durability (especially when rubber modi ed), high electrical resistivity, good environmental resistance, low shrinkage, and so on, as well as the ease with which the curing reaction can be tailored to accommodate the fabricating process and others industrial demand [9,10] However, the drawback of using phenolic is brittleness and shrinkage, thus, not suitable to be used in advanced engineering areas [2,11] Meanwhile, the phenol and formaldehyde (PF) resin is very costly due to the high and uctuating price of petroleum-based phenol and it has been a considerable push factor in recent decades to replace the raw materials phenol and formaldehyde in the synthetic phase to other renewable bio-based raw materials [7]. Furthermore, the primary source of raw materials for industrial phenol and formaldehyde processing is currently sourcing from petroleum-based material, thus, the various effort has been made to reduce phenol's reliance on petroleum-based due to the massive amounts emitted per year, the decline of fossil fuels, and the environmental issues connected with the use of fossil resources [1,[12][13][14] Otherwise, epoxy has poor thermal and ammability properties compared to phenolic resin, despite it has high mechanical properties, hence, is not suitable to be used in applications that involve heat and ame.…”