Media and methods for gene disruption have been described previously (Longtine et al., 1998).
Recently, high-throughput methods for gene sequence classification have been developed by the bioinformatics and computational biology communities.
Several methods for gene synthesis are described in the chapter, including error correction, which becomes critical for large constructs.
Finally, SAM-mediated gene delivery was comparable to fibronectin- and poly-l-lysine-based methods for gene transfer.
Finally, we discuss alternative methods for gene editing including viral delivery vectors, Cas9 nickases, and orthogonal Cas9 systems.
In conclusion, the utilization of biopolymers such as proteins, polypeptides, and polysaccharides will be one of the potentially promising methods for gene delivery.
All studies used validated methods for gene expression analysis; genetic data was analyzed using microarray (three studies) or real-time PCR (RT-PCR) (one study) methods (Table 1).
With the rapid development of life science, the methods for gene detection, protein-binding analysis, small molecules, and DNA detection are urgently needed.
Tattooing [38], micro-injection [39], gene gun [40], ultrasound [41] and electroporation (EP) [42] have been described as physical methods for gene delivery.
Existing methods for gene disruption are limited by their efficiency, time required for completion and potential for confounding off-target effects.
Making use of the developed methods for gene deletion and chromosomal insertion of genes, E. coli genome was manipulated free of antibiotic markers to redirect the pathway flux.
