Serafín Cruz-Izquierdo

Dr. Serafín Cruz-Izquierdo

Postgrado en Recursos Genéticos y Productividad-Genética, Fisiología Vegetal, Colegio de Postgraduados, Montecillo, Mexico
orcid
Research Professor

Research Focus & Metrics

Academic Career Length

27Years (2000-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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30 December 2013 in BMC Genomics
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Journal Article
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Zlatko ŠatovićZlatko Šatović
Zlatko Šatović
CÁCarmen Ávila
Carmen Ávila
Serafín Cruz-IzquierdoSerafín Cruz-Izquierdo
Serafín Cruz-Izquierdo
RDRamón Díaz-Ruíz
Ramón Díaz-Ruíz
GGGloria M García-Ruíz
Gloria M García-Ruíz
ATAna M Torres
Ana M Torres
Faba bean (Vicia faba L.) is among the earliest domesticated crops from the Near East. Today this legume is a key protein feed and food worldwide and continues to serve an important role in culinary traditions throughout Middle East, Mediterranean region, China and Ethiopia. Adapted to a wide range of soil types, the main faba bean breeding objectives are to improve yield, resistance to biotic and abiotic stresses, seed quality and other agronomic traits. Genomic approaches aimed at enhancing faba bean breeding programs require high-quality genetic linkage maps to facilitate quantitative trait locus analysis and gene tagging for use in a marker-assisted selection. The objective of this study was to construct a reference consensus map in faba bean by joining the information from the most relevant maps reported so far in this crop.

27 June 2017 in Molecular Breeding
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CÁCarmen Ávila
Carmen Ávila
MRM. D. Ruiz-Rodríguez
M. D. Ruiz-Rodríguez
Serafín Cruz-IzquierdoSerafín Cruz-Izquierdo
Serafín Cruz-Izquierdo
SASergio G. Atienza
Sergio G. Atienza
JCJ. I. Cubero
J. I. Cubero
ATAna M Torres
Ana M Torres

5 June 2022 in Horticulturae
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MSMaría Karen Serrano-Fuentes
María Karen Serrano-Fuentes
FGFERNANDO CARLOS GÓMEZ-MERINO
FERNANDO CARLOS GÓMEZ-MERINO
Serafín Cruz-IzquierdoSerafín Cruz-Izquierdo
Serafín Cruz-Izquierdo
José Luis Spinoso-CastilloJosé Luis Spinoso-Castillo
José Luis Spinoso-Castillo
Jericó Jabín Bello-BelloJericó Jabín Bello-Bello
Jericó Jabín Bello-Bello
In vitro mutagenesis is an alternative to induce genetic variation in vanilla (Vanilla planifolia Jacks. ex Andrews), which is characterized by low genetic diversity. The objective of this study was to induce somaclonal variation in V. planifolia by gamma radiation and detect it using inter-simple sequence repeat (ISSR) molecular markers. Shoots previously established in vitro were multiplied in Murashige and Skoog culture medium supplemented with 2 mg·L−1 BAP (6-benzylaminopurine). Explants were irradiated with different doses (0, 20, 40, 60, 80 and 100 Gy) of 60Co gamma rays. Survival percentage, number of shoots per explant, shoot length, number of leaves per shoot, and lethal dose (LD50) were recorded after 60 d of culture. For molecular analysis, ten shoots were used for each dose and the donor plant as a control. Eight ISSR primers were selected, and 43 fragments were obtained. The percentage of polymorphism (% P) was estimated. A dendrogram based on Jaccard’s coefficient and the neighbor joining clustering method was obtained. Results showed a hormetic effect on the explants, promoting development at low dose (20 Gy) and inhibition and death at high doses (60–100 Gy). The LD50 was observed at the 60 Gy. Primers UBC-808, UBC-836 and UBC-840 showed the highest % P, with 42.6%, 34.7% and 28.7%, respectively. Genetic distance analysis showed that treatments without irradiation and with irradiation presented somaclonal variation. The use of gamma rays during in vitro culture is an alternative to broaden genetic diversity for vanilla breeding.

27 March 2024 in Genes
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Guillermo Garcia-BarriosGuillermo Garcia-Barrios
Guillermo Garcia-Barrios
LCLeonardo A. Crespo-Herrera
Leonardo A. Crespo-Herrera
Serafín Cruz-IzquierdoSerafín Cruz-Izquierdo
Serafín Cruz-Izquierdo
PVPaolo Vitale
Paolo Vitale
JSJosé Sergio Sandoval-Islas
José Sergio Sandoval-Islas
RPRosa Angela Pacheco-Gil
Rosa Angela Pacheco-Gil
Genomic prediction relates a set of markers to variability in observed phenotypes of cultivars and allows for the prediction of phenotypes or breeding values of genotypes on unobserved individuals. Most genomic prediction approaches predict breeding values based solely on additive effects. However, the economic value of wheat lines is not only influenced by their additive component but also encompasses a non-additive part (e.g., additive × additive epistasis interaction). In this study, genomic prediction models were implemented in three target populations of environments (TPE) in South Asia. Four models that incorporate genotype × environment interaction (G × E) and genotype × genotype (GG) were tested: Factor Analytic (FA), FA with genomic relationship matrix (FA + G), FA with epistatic relationship matrix (FA + GG), and FA with both genomic and epistatic relationship matrices (FA + G + GG). Results show that the FA + G and FA + G + GG models displayed the best and a similar performance across all tests, leading us to infer that the FA + G model effectively captures certain epistatic effects. The wheat lines tested in sites in different TPE were predicted with different precisions depending on the cross-validation employed. In general, the best prediction accuracy was obtained when some lines were observed in some sites of particular TPEs and the worse genomic prediction was observed when wheat lines were never observed in any site of one TPE.

1 January 2018 in Journal of Soil Science and Plant Nutrition
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EHErick Herrera-Jiménez
Erick Herrera-Jiménez
AAAlejandro Alarcón
Alejandro Alarcón
JLJhon Larsen
Jhon Larsen
RFRonald Ferrera-Cerrato
Ronald Ferrera-Cerrato
Serafín Cruz-IzquierdoSerafín Cruz-Izquierdo
Serafín Cruz-Izquierdo
MFMariana Ronalda Ferrera-Rodríguez
Mariana Ronalda Ferrera-Rodríguez
This research evaluated the growth responses of maize plants due to the inoculation of two indole-producing Trichoderma strains in comparison to the application of two exogenous phytohormones. Either T. tomentosum (EMMFRS1C2) or T. harzianum (MichV6S3C2) were inoculated as conidia or as fungal filtrates obtained from Luria-Bertani, liquid medium, with or without the addition of L-Tryptophan (1 g L-1). In addition, two concentrations (5 and 10 mg L-1) of indole acetic acid (IAA) and indole butyric acid (IBA) from which 2 mL were applied per plant. Twelve treatments and six replicates distributed in a completely randomized design. Plants were maintained for 50 days in microcosms (perlite and vermiculite, 2:1 v/v), under greenhouse conditions (38ºC±5) and watered every 48 h. The best plant growth responses (height, root length, leaf area, and root, stem and total dry weight were achieved by inoculating conidia of either T. tomentosum (EMMFRS1C2) or T. harzianum (MichV6S3C2) in combination with tryptophan (1 g L-1) when compared to control plants; but T. harzianum (MichV6S3C2) only resulted in beneficial effects in root length. Moreover, the application of fungal filtrates had similar plant growth responses than the application of either IAA or IBA at 5 mg L-1.

Verified
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Guillermo Garcia-BarriosGuillermo Garcia-Barrios
Guillermo Garcia-Barrios
JCJose Crossa
Jose Crossa
Serafín Cruz-IzquierdoSerafín Cruz-Izquierdo
Serafín Cruz-Izquierdo
VAVíctor Heber Aguilar-Rincón
Víctor Heber Aguilar-Rincón
JSJ. Sergio Sandoval-Islas
J. Sergio Sandoval-Islas
RPRosa Angela Pacheco-Gil
Rosa Angela Pacheco-Gil
Genomic prediction combines molecular and phenotypic data in a training population to predict the breeding values of individuals that have only been genotyped. The use of genomic information in breeding programs helps to increase the frequency of favorable alleles in the populations of interest. This study evaluated the performance of BLUP (Best Linear Unbiased Prediction) in predicting resistance to tan spot, spot blotch and Septoria nodorum blotch in synthetic hexaploid wheat. BLUP was implemented in single-trait and multi-trait models with three variations: (1) the pedigree relationship matrix (A-BLUP), (2) the genomic relationship matrix (G-BLUP), and (3) a combination of the two matrices (A+G BLUP). In all three diseases, the A-BLUP model had a lower performance, and the G-BLUP and A+G BLUP were statistically similar (p ≥ 0.05). The prediction accuracy with the single trait was statistically similar (p ≥ 0.05) to the multi-trait accuracy, possibly due to the low correlation of severity between the diseases.