The benchmark is produced by additive manufacturing (AM) and subjected to digitization by a dental three-dimensional scanner.
In the present study, a scaffold with an in-built discrete gradient in pore size was produced by additive manufacturing.
In literature [2], reported functional electrospun nanofibrous composite structures can also be produced by incorporating functional additives in the fiber matrix or on the fiber surface.
Tricolour impressions can be produced by combining coloured lights (additive synthesis) or by passing white light through combinations of complementary filters, each of which holds back one of the primary colours (subtractive synthesis).
Scaffolds can be produced by using either conventional or additive techniques, resulting in structures with different levels of porosity, pore size, interconnectivity, and spatial distribution.
In this work, lattices based on triply periodic minimal surfaces were produced by polymer additive manufacturing and examined with a combination of experimental and computational methods.
In the present study a structural characterization and in vitro cell-biological evaluation was performed on polycaprolactone (PCL) scaffolds that were produced by the additive manufacturing technique selective laser sintering (SLS), followed by a plasma-based surface modification technique, either non-thermal oxygen plasma or double protein coating, to functionalize the PCL scaffold surfaces.
Similar cost per QALY results in cardiovascular disease were produced by the additive and multiplicative models; however, this finding may not be generalisable to other health conditions.
Finally, as shown in Fig. 3c, the restriction of hyper-locomotion to a few routes, as demonstrated by increased path stereotypy, was produced by the additive effects of NAc lesion and DPAT (main effect of lesion – F1,90 = 19.83, P < 0.001, = 0.181; main effect of drug – F1,90 = 17.89, P < 0.001, = 0.166; lesion by drug interaction – F1,90 = 0.65, P = 0.421, = 0.007).
