摘要
Current plant functional genomics is converging on two as- pects to provide sustainable solutions to cater to the demands of the growing population： 1） engineering crops for sustainable food security, where recently identified CRISPR/Cas is playing a detrimental role （Belhaj et al., 2014） and 2） identifying regulators of the post-transcriptional regulation, which can be functionally engineered. Canonical splicing has been widely seen and associated with functional protein diversity in plants （Min et al., 2015） （Figure 1）. Concurrent patterns of exonic and intronic splicing have revealed several new isoforms,
Current plant functional genomics is converging on two as- pects to provide sustainable solutions to cater to the demands of the growing population： 1） engineering crops for sustainable food security, where recently identified CRISPR/Cas is playing a detrimental role （Belhaj et al., 2014） and 2） identifying regulators of the post-transcriptional regulation, which can be functionally engineered. Canonical splicing has been widely seen and associated with functional protein diversity in plants （Min et al., 2015） （Figure 1）. Concurrent patterns of exonic and intronic splicing have revealed several new isoforms,
