Plant genome editing has undergone a transformative shift with the advent of advanced molecular tools.
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plant genome editing
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The modularity and programmability of these emerging tools enable gene function studies, synthetic pathway designs, and targeted trait stacking.
Quoted textsource-backed
Their modularity and programmability are enabling gene function studies, synthetic pathway designs and targeted trait stacking.
Some emerging plant genome editing technologies allow DSB-free DNA editing, precise base substitutions, and RNA editing without altering genomic DNA.
Quoted textsource-backed
Some of these technologies allow DSB-free editing of DNA, precise base substitutions and RNA editing without altering the genomic DNA
Emerging tools in plant genome editing extend beyond conventional double-strand-break-mediated approaches and enable genome and transcriptome modulation.
Quoted textsource-backed
the landscape is now rapidly evolving with the emergence of novel systems that go beyond the conventional double strand break (DSB)-mediated approaches. Advanced and recent tools include LEAPER, SATI, RESTORE, RESCUE, ARCUT, SPARDA, helicase-based approaches like HACE and Type IV-A CRISPR system, and transposon-based techniques like TATSI and piggyBac. These tools unlock previously inaccessible avenues of genome and transcriptome modulation.
Many of the recent tools remain to be applied in plant systems, although they have been effective elsewhere and may have potential for climate-resilient crop engineering.
Quoted textsource-backed
Although, many of these recent tools remain to be applied on plant systems, they are proven to be effective elsewhere and hold a great potential to be effective in creating climate-resilient crops.