Template technology offers an effective way in terms of either designing new-type electrode materials or modifying traditional battery configurations.
This method, successfully used for eukaryotic single cell transcriptomic studies44,45, converts poly(A)+ RNA to full-length cDNA using a modified oligo dT) primer combined with SMART (Switching Mechanism at the 5′ end of RNA Template) technology.
Since the GSP framework is a template technology, its role is firmly focused on the view aspect of an MVC architecture.
It is likely to offer new opportunity for designing nanomaterials and applying to template technology by finely controlling the dendron generations, length of the linear chain, interaction parameters of linear-dendritic triblock copolymers.
Recently, the metal-assisted chemical etching (MACE) method has been demonstrated to produce ordered Si NW arrays [20], combined with monolayer nanosphere lithography (NSL) template technology [6, 21].
It combines the patented SMART (Switching Mechanism at 5' End of RNA Template) technology for double-stranded cDNA synthesis with random priming, which facilitates transcriptome sequencing (RNA-Seq) from degraded total RNA samples.
Recently, there is a fast growing interest in biological template technology, such as the use of bacteria [28, 29], virus [30 32], diatoms [33, 34], butterfly wings [35, 36], and so on.
Lead developers in the single template technology include Helicos BioSciences (Cambridge, MA, USA) and Pacific BioSciences (Menlo Park, CA, USA).
NPs produced by particle replication in nonwetting template technology remained in the lungs for up to 7 days without triggering host immunity after intratracheal administration of 50 μg/mouse [ 98].
