Experimental Investigation on Machine-Induced Damages during the Milling Test of Graphene/Carbon Incorporated Thermoset Polymer Nanocomposites

The fiber laminate composites are extensively used in aerospace, aircraft, automotive components due to their high stiffness, corrosion, moisture resistance, low weight, and durability features. These modified with nanomaterials acquire the desired manufacturing properties. complex structure anisotropic features differ from metals alloys. Additionally, machining principles of laminates significantly conventional engineering materials. present work investigates behavior permeates damage generated while milling graphene-modified carbon-fiber reinforced polymer nanocomposites (G/C@FRNC). surface damages defects caused samples have been examined through high-resolution spectroscopy test. influence constraints such as cutting speed (N), feed rate (F), depth cut (D), graphene oxide weight % (GO) has investigated achieve performances viz. material removal (MRR), force (Fc), roughness (Ra), delamination factor (Fd). outcomes indicated that parameters nanomaterial prominently affects responses. addition improves machinability proposed lesser generated. However, its higher can lead phenomenon agglomeration reduce efficiency. machined sample at a speed. This suggests new system control enhance samples’ quality productivity.