Fiber reinforced polymer composites are the go-to materialfor designing applications thatrequire a high strength and stiffness at minimal weight such as aerospace structures, wind turbines or ultralight vehicles. However, delamination between the reinforcing plies remains a major occurring failure type.Interleaving electrospun nanofibres between the reinforcing plies has proven to be a viable interlaminar toughening method which significantly limitsthe occurrence of delamination failure in composites. This contributionsgives an overview into the relationship between the electrospun nanofibre properties and the resulting toughenedcomposites
Nylon 6,6 nanofibers were interleaved in the mid-plane of glass fiber/epoxy matrix composite laminat...
An experimental and theoretical study is performed to explore the novel delamination suppression con...
AbstractInherent brittleness of epoxy in composite laminates restricted their application in many in...
Fiber reinforced polymer composites are the material of choice for designing applications which requ...
Today, fiber-reinforced polymer composites are a standard material in applications where a high stif...
The present article overcomes existing challenges in inter-laminar toughening of novel multifunction...
Fiber reinforced polymer composite laminates have become a standard material in applications were a ...
Delamination between reinforcing plies is one of the most important failure mechanisms encountered i...
Electrospun nanofibre interleaving has a great potential for toughening of composite laminates as an...
Electrospun (polymeric) nanofibers are proved to be one of the most successful toughening techniques...
Among various failure modes in composite laminate materials, the delamination is one of the most com...
In the last few decades nanofibers have been developed and introduced in a vast number of industrial...
Nylon 6,6 nanofibers manufactured by means of electrospinning have been used to interleave Mode II f...
In this study, the effects of interleaved nanofibre veils on the Mode I and Mode II interlaminar fra...
The present work aims for investigate the influence of electrospun Nylon 6,6 nanofibrous mat on the ...
Nylon 6,6 nanofibers were interleaved in the mid-plane of glass fiber/epoxy matrix composite laminat...
An experimental and theoretical study is performed to explore the novel delamination suppression con...
AbstractInherent brittleness of epoxy in composite laminates restricted their application in many in...
Fiber reinforced polymer composites are the material of choice for designing applications which requ...
Today, fiber-reinforced polymer composites are a standard material in applications where a high stif...
The present article overcomes existing challenges in inter-laminar toughening of novel multifunction...
Fiber reinforced polymer composite laminates have become a standard material in applications were a ...
Delamination between reinforcing plies is one of the most important failure mechanisms encountered i...
Electrospun nanofibre interleaving has a great potential for toughening of composite laminates as an...
Electrospun (polymeric) nanofibers are proved to be one of the most successful toughening techniques...
Among various failure modes in composite laminate materials, the delamination is one of the most com...
In the last few decades nanofibers have been developed and introduced in a vast number of industrial...
Nylon 6,6 nanofibers manufactured by means of electrospinning have been used to interleave Mode II f...
In this study, the effects of interleaved nanofibre veils on the Mode I and Mode II interlaminar fra...
The present work aims for investigate the influence of electrospun Nylon 6,6 nanofibrous mat on the ...
Nylon 6,6 nanofibers were interleaved in the mid-plane of glass fiber/epoxy matrix composite laminat...
An experimental and theoretical study is performed to explore the novel delamination suppression con...
AbstractInherent brittleness of epoxy in composite laminates restricted their application in many in...