End-of-Life　(EoL)　wind　turbine　blades　(WTBs),　which　pose　an　environmental　problem　because　of　their　short　service　life　and　lack　of　proven　recycling　options,　are　expected　to　expand　significantly　as　the　wind　power　industry　grows　rapidly.　Potting＇s　＂R　strategy＂　and　this　study＇s　combined　investigation　of　the　recycling　and　integrated　use　of　solid　debris　from　recycled　wind　turbine　blades　(RWTBs)　in　3D　printed　concrete　offer　a　creative　and　costeffective　way　to　address　this　pressing　problem.　The　present　priority　for　handling　the　waste　from　wind　turbine　blades　are　closely　aligned　with　this　approach.　The　study　aims　to　investigate　the　feasibility　of　incorporating　RWTB　components　into　3D　printed　concrete　by　utilizing　the　advantages　of　this　innovative　construction　technique,　which　include　rapid　building,　labor　and　material　savings,　and　the　capacity　to　make　intricate　structures.　Since　RWTBs　have　about　double　the　SiO2　concentration　of　cement,　it　has　been　discovered　that　adding　a　suitable　amount　of　SiO2　improves　cement　hydration　and　the　mechanical　qualities　of　3D　printed　concrete.　In　this　study,　recycled　glass　fibers　(chopped　rGF)　and　GFRP　powder　were　utilized　as　cementitious　materials,　aggregates,　and　fiber-reinforced　components.　The　results　show　that　GFRP　powder,　which　is　produced　by　mechanical　recycling,　can　be　mixed　with　up　to　25　%　of　the　mass　of　cementitious　material　without　affecting　its　mechanical　strength,　printability,　extrudability,　or　buildability.　In　a　similar　vein,　chopped　rGF,　which　is　mechanically　recycled,　can　be　utilized　as　aggregate　and　reinforcing　material　up　to　20　%　of　the　total　volume.　Significant　integration　of　RWTB　solid　waste　is　demonstrated　by　the　co-doping　of　chopped　rGF　and　GFRP　powder,　which　can　account　for　up　to　20　%　of　the　total　mass.　By　offering　a　sustainable　method　for　recycling　RWTB　components　in　building　applications,　this　research　helps　to　promote　the　circular　economy　by　reducing　the　environmental　impact　of　disposing　of　wind　turbine　blades.