We propose here a hidden Markov model (HMM) to incorporate sequence motif information, TF-DNA interaction data and chromatin modification patterns to precisely identify cis-regulatory modules (CRMs).
Nevertheless, our family relationship analysis, seen as a tentative to understand large scale population patterns and not to precisely detect each single family pair, provided a coherent global picture.
However, we suggest that small, disjunct, high-elevation grassland isolates are precisely the pattern to be expected from a reduction in grazing pressure through time, following reduced herbivore diversity and density.
Intriguingly, our work reveals a chaperone chain in which UNC-45 tandem modules assemble a multisite docking platform that enforces collaboration with Hsp70 and Hsp90 in a precisely defined pattern to assemble myosin filaments.
Accordingly, UNC-45 assembles a multimeric scaffolding complex that offers binding sites for Hsp70 and Hsp90 chaperones in a precisely defined pattern to work on the array of myosin head domains protruding from prearranged myofilaments.
3D cell-printing technique has been under spotlight as an appealing biofabrication platform due to its ability to precisely pattern living cells in pre-defined spatial locations.
The richness of synthetic circuit outputs can be dramatically enhanced by sophisticated environmental control systems designed to precisely pattern spatial temporally heterogeneous environmental stimuli controlling these circuits.
Furthermore, with a systematic understanding of the governing mechanisms of substrate-regulated graphene morphology, we envision a promising strategy to precisely pattern graphene into desired morphology on engineered substrate surfaces.
After the IDC fabrication, a polymeric well is patterned around each IDC to precisely define the sensing area and thus deposit coatings of various polymers, by drop casting, in a reproducible and controlled manner.
Taken together, the data confirm the potential of using microsized ParC patterns onto PDMS substratum to precisely and locally modulate cell aggregate morphology.
