The goal of this work is to discover the defects induced by 3D printing of porous polymeric blocks using ste-reolithography and any related compressive behaviour. Processing of polymeric blocks containing varied por-osity contents in the range 0–60% is performed. X-ray micro-tomography is used to assess the microstructural details of the polymeric ...
Additive manufacturing (AM) is a suitable technique for the production of components with different geometries and complexity that cannot be easily fabricated with traditional manufacturing techniques. However, considering the manufacturing restrictions can clarify the feasibility of the designs to be produced by AM. In this context, this study inv...
The goal of this work is to discover the defects induced by 3D printing of porous polymeric blocks using ste-reolithography and any related compressive behaviour. Processing of polymeric blocks containing varied por-osity contents in the range 0–60% is performed. X-ray micro-tomography is used to assess the microstructural details of the polymeric ...
In recent years, the development of 3D printing in flow analysis has allowed the creation of new systems with various applications. Up to now, 3D printing was mainly used for the manufacture of small units such as flow detection cells, preconcentration units or mixing systems. In the present study, a new 3D printed lab-on-valve system was developed...
In recent years, the development of 3D printing in flow analysis has allowed the creation of new systems with various applications. Up to now, 3D printing was mainly used for the manufacture of small units such as flow detection cells, preconcentration units or mixing systems. In the present study, a new 3D printed lab-on-valve system was developed...
In recent years, the development of 3D printing in flow analysis has allowed the creation of new systems with various applications. Up to now, 3D printing was mainly used for the manufacture of small units such as flow detection cells, preconcentration units or mixing systems. In the present study, a new 3D printed lab-on-valve system was developed...
In recent years, the development of 3D printing in flow analysis has allowed the creation of new systems with various applications. Up to now, 3D printing was mainly used for the manufacture of small units such as flow detection cells, preconcentration units or mixing systems. In the present study, a new 3D printed lab-on-valve system was developed...
In recent years, the development of 3D printing in flow analysis has allowed the creation of new systems with various applications. Up to now, 3D printing was mainly used for the manufacture of small units such as flow detection cells, preconcentration units or mixing systems. In the present study, a new 3D printed lab-on-valve system was developed...
The goal of this work is to discover the defects induced by 3D printing of porous polymeric blocks using ste-reolithography and any related compressive behaviour. Processing of polymeric blocks containing varied por-osity contents in the range 0–60% is performed. X-ray micro-tomography is used to assess the microstructural details of the polymeric ...
In recent years, the development of 3D printing in flow analysis has allowed the creation of new systems with various applications. Up to now, 3D printing was mainly used for the manufacture of small units such as flow detection cells, preconcentration units or mixing systems. In the present study, a new 3D printed lab-on-valve system was developed...
