Search results for "Zinc finger nuclease"

showing 4 items of 4 documents

The application of the CRISPR-Cas9 genome editing machinery in food and agricultural science: Current status, future perspectives, and associated cha…

2019

The recent progress in genetic engineering has brought multiple benefits to the food and agricultural industry by enhancing the essential characteristics of agronomic traits. Powerful tools in the field of genome editing, such as siRNA-mediated RNA interference for targeted suppression of gene expression and transcription activator-like effector nucleases (TALENs) and zinc-finger nucleases (ZFNs) for DNA repair have been widely used for commercial purposes. However, in the last few years, the discovery of the CRISPR-Cas9 system has revolutionized genome editing and has attracted attention as a powerful tool for several industrial applications. Herein, we review current progresses in the uti…

0106 biological sciencesCrops AgriculturalComputer scienceBioengineeringComputational biology01 natural sciencesApplied Microbiology and Biotechnology03 medical and health sciencesGenome editingRNA interference010608 biotechnologyTranscription Activator-Like Effector NucleasesCRISPRFood IndustryHumans030304 developmental biologyGene Editing0303 health sciencesTranscription activator-like effector nucleasebusiness.industryPlants Genetically ModifiedZinc finger nucleaseZinc Finger NucleasesAgricultureGene TargetingEthical concernsCRISPR-Cas SystemsbusinessGenetic EngineeringBiotechnologyBiotechnology advances
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A Comparison of Techniques to Evaluate the Effectiveness of Genome Editing

2018

Genome editing using engineered nucleases (meganucleases, zinc finger nucleases, transcription activator-like effector nucleases) has created many recent breakthroughs. Prescreening for efficiency and specificity is a critical step prior to using any newly designed genome editing tool for experimental purposes. The current standard screening methods of evaluation are based on DNA sequencing or use mismatch-sensitive endonucleases. They can be time-consuming and costly or lack reproducibility. Here, we review and critically compare standard techniques with those more recently developed in terms of reliability, time, cost, and ease of use.

0301 basic medicineDNA End-Joining Repair[SDV.BIO]Life Sciences [q-bio]/BiotechnologyBioengineeringComputational biologyBiologyDNA sequencing03 medical and health sciencesGenome editingScreening methodAnimalsHumansDNA Breaks Double-StrandedHomologous RecombinationComputingMilieux_MISCELLANEOUSGeneticsGene EditingHigh-Throughput Nucleotide SequencingPlantsEndonucleasesZinc finger nuclease030104 developmental biologyCRISPR-Cas SystemsGenetic EngineeringBiotechnologyRNA Guide Kinetoplastida
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Gene Repair of an Usher Syndrome Causing Mutation by Zinc-Finger Nuclease Mediated Homologous Recombination

2012

PURPOSE. Human Usher syndrome (USH) is the most frequent cause of inherited deaf-blindness. It is clinically and genetically heterogeneous, assigned to three clinical types of which the most severe type is USH1. No effective treatment for the ophthalmic component of USH exists. Gene augmentation is an attractive strategy for hereditary retinal diseases. However, several USH genes, like USH1C, are expressed in various isoforms, hampering gene augmentation. As an alternative treatment strategy, we applied the zinc-finger nuclease (ZFN) technology for targeted gene repair of an USH1C, causing mutation by homologous recombination. METHODS. We designed ZFNs customized for the p.R31X nonsense mut…

Gene isoformNonsense mutationCell Cycle ProteinsBiologyRetinaCell Linechemistry.chemical_compoundHumansDNA Breaks Double-StrandedDNA CleavageHomologous RecombinationGeneAdaptor Proteins Signal TransducingZinc fingerGeneticsTargeted Gene RepairfungiZinc FingersDNAEndonucleasesZinc finger nucleaseCytoskeletal ProteinschemistryCodon NonsenseHomologous recombinationUsher SyndromesDNATargeted Gene RepairInvestigative Opthalmology & Visual Science
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The yeast putative transcriptional repressor RGM1 is a proline-rich zinc finger protein.

1991

Abstract I have cloned a yeast gene, RGM1, which encodes a proline-rich zinc, finger protein. rgm1 mutants do not show any obvious phenotype but overexpression of RGM1 gene greatly impairs cell growth. The proline-rich region of RGM1 attached to a heterologous DNA binding domain is able to repress the expression of the target gene. RGM1 shares similar zinc finger motifs with the mammalian Egr (early growth response) proteins as well as proline-rich sequences with a high serine and threonine content, suggesting that RGM1 and Egr proteins could have functional similarities.

Recombinant Fusion ProteinsMolecular Sequence DataRestriction MappingGene ExpressionSaccharomyces cerevisiaeBiologyZIC2TransfectionSequence Homology Nucleic AcidGene expressionGeneticsAmino Acid SequenceCloning MolecularLIM domainSIN3BZinc fingerBase SequenceZinc FingersDNA-binding domainZinc finger nucleaseRING finger domainbody regionsRepressor ProteinsBiochemistryMutagenesisCarbohydrate MetabolismPlasmidsNucleic acids research
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