01995naa a2200313 a 450000100080000000500110000800800410001902400520006010000250011224501270013726000090026430000940027352010030036765000270137065300170139765300110141465300160142570000250144170000250146670000210149170000210151270000200153370000170155370000200157070000200159070000110161070000200162177300400164121674392024-09-17       2024    bl uuuu     u00u1 u    #d7 ahttps://doi.org/10.1016/j.jare.2024.08.0242DOI1 aFREITAS-ALVES, N. S.  aCRISPR/Cas genome editing in soybeanbchallenges and new insights to overcome existing bottlenecks.h[electronic resource]  c2024  cOn-line first. Na publicação: Isabela T. Lourenço-Tessutti; Maria Fatima Grossi-de-Sa.  aSoybean is a worldwide-cultivated crop due to its applications in the food, feed, and biodiesel industries. Genome editing in soybean began with ZFN and TALEN technologies; however, CRISPR/Cas has emerged and shortly became the preferable approach for soybean genome manipulation since it is more precise, easy to handle, and cost-effective. Recent reports have focused on the conventional Cas9 nuclease, Cas9 nickase (nCas9) derived base editors, and Cas12a (formally Cpf1) as the most commonly used genome editors in soybean. Nonetheless, several challenges in the complex plant genetic engineering pipeline need to be overcome to effectively edit the genome of an elite soybean cultivar. These challenges include (1) optimizing CRISPR cassette design (i.e., gRNA and Cas promoters, gRNA design and testing, number of gRNAs, and binary vector), (2) improving transformation frequency, (3) increasing the editing efficiency ratio of targeted plant cells, and (4) improving soybean crop production.  aGenetic transformation  aBase editors  aCas12a  aCRISPR/Cas91 aMOREIRA-PINTO, C. E.1 aTÁVORA, F. T. P. K.1 aPAES-DE-MELO, B.1 aARRAES, F. B. M.1 aLOURENCO, I. T.1 aMOURA, S. M.1 aOLIVEIRA, A. C.1 aMORGANTE, C. V.1 aQI, Y.1 aSA, M. F. G. de  tJournal of Advanced Research, 2024.