Wayne A Parrott
Overview
Explore the profile of Wayne A Parrott including associated specialties, affiliations and a list of published articles.
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39
Citations
1028
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Recent Articles
1.
Stupar R, Locke A, Allen D, Stacey M, Ma J, Weiss J, et al.
Plant Genome
. 2024 Nov;
17(4):e20516.
PMID: 39572930
This strategic plan summarizes the major accomplishments achieved in the last quinquennial by the soybean [Glycine max (L.) Merr.] genetics and genomics research community and outlines key priorities for the...
2.
Hancock C, Germany T, Redd P, Timmons J, Lipford J, Burns S, et al.
Plant Direct
. 2024 Nov;
8(11):e70011.
PMID: 39513014
Screening a transposon-mutagenized soybean population led to the discovery of a recessively inherited chlorotic phenotype. This "y24" phenotype results in smaller stature, weaker stems, and a smaller root system. Genome...
3.
Hancock C, Germany T, Redd P, Timmons J, Lipford J, Burns S, et al.
bioRxiv
. 2024 Feb;
PMID: 38352530
Screening a transposon-mutagenized soybean population led to the discovery of a recessively inherited chlorotic phenotype. This "vir1" phenotype results in smaller stature, weaker stems, and a smaller root system with...
4.
Illa-Berenguer E, LaFayette P, Parrott W
Front Genome Ed
. 2023 Apr;
5:1074641.
PMID: 37032710
The advent of CRISPR-Cas technology has made it the genome editing tool of choice in all kingdoms of life, including plants, which can have large, highly duplicated genomes. As a...
5.
Prias-Blanco M, Chappell T, Freed E, Illa-Berenguer E, Eckert C, Parrott W
Transgenic Res
. 2022 Oct;
31(6):661-676.
PMID: 36239844
Auxotrophic strains of Agrobacterium tumefaciens can contribute to the development of more efficient transformation systems, especially for crops historically considered recalcitrant. Homologous recombination was used to derive methionine auxotrophs of...
6.
Helliwell E, LaFayette P, Kronmiller B, Arredondo F, Duquette M, Co A, et al.
Front Microbiol
. 2022 Jul;
13:923281.
PMID: 35783378
Oomycete and fungal pathogens cause billions of dollars of damage to crops worldwide annually. Therefore, there remains a need for broad-spectrum resistance genes, especially ones that target pathogens but do...
7.
Wyant S, Rodriguez M, Carter C, Parrott W, Jackson S, Stupar R, et al.
G3 (Bethesda)
. 2022 Jan;
12(2).
PMID: 35100358
The mutagenic effects of ionizing radiation have been used for decades to create novel variants in experimental populations. Fast neutron (FN) bombardment as a mutagen has been especially widespread in...
8.
Entine J, Felipe M, Groenewald J, Kershen D, Lema M, McHughen A, et al.
Transgenic Res
. 2021 May;
30(4):551-584.
PMID: 33970411
Genome editing in agriculture and food is leading to new, improved crops and other products. Depending on the regulatory approach taken in each country or region, commercialization of these crops...
9.
Torabi S, Sukumaran A, Dhaubhadel S, Johnson S, LaFayette P, Parrott W, et al.
Sci Rep
. 2021 Jan;
11(1):2556.
PMID: 33510334
Type I Diacylglycerol acyltransferase (DGAT1) catalyzes the final step of the biosynthesis process of triacylglycerol (TAG), the major storage lipids in plant seeds, through the esterification of diacylglycerol (DAG). To...
10.
Johnson A, Mcassey E, Diaz S, Reagin J, Redd P, Parrilla D, et al.
Plant Direct
. 2021 Jan;
5(1):e00300.
PMID: 33506165
Modern plant breeding increasingly relies on genomic information to guide crop improvement. Although some genes are characterized, additional tools are needed to effectively identify and characterize genes associated with crop...