Basic science advances in spinal cord injury and regeneration research have led to a variety of novel experimental therapeutics designed to promote functionally effective axonal regrowth and sprouting.
Recent advances in basic science in research related to spinal cord injury (SCI) and regeneration have led to a variety of novel experimental therapeutics designed to promote functionally effective axonal regrowth and sprouting.
One of the suggested advanced engineering solutions is to use functionally graded composite interlayers.
Extensive research has been devoted to the development of advanced oxygen reduction reaction (ORR) catalysts with functionally diverse active sites.
Functionally graded materials (FGMs) are advanced materials with improved properties that enable them to withstand severe working environment which the traditional composite materials cannot withstand.
We believe that this work would allow us to identify functionally relevant and coherent subgraphs in cancer networks, which can be advanced to experimental validation to further our understanding of the complex biology of cancer.
As noted above, mouse plaques do not generally rupture, no matter how advanced they become, so factors that are thought to affect plaque stability in people cannot be functionally characterized in mice.
Moreover, an important concept advanced by this work is the presence of multiple systems that act in parallel to stabilize functionally different pools of postsynaptic neurotransmitter receptors at the same class of synapse.
Functionally graded materials (FGMs) are regarded as one of the most promising candidates for future advanced composites in many engineering sectors.
The assumption that functionally rational notations can represent organisational spaces is central to engineering diagrammatical approaches in the delivery of advanced technology.
