Marker-Assisted Hybridization and Selection for Fiber Quality Improvement in Naturally Colored Cotton (G. hirsutum L.)

Naturally colored cotton offers ecological advantages by eliminating the need for chemical dyeing; however, its limited fiber quality restricts its commercial utilization. The main goal of this study was to evaluate the potential of the SSR marker BNL1604 for marker-assisted selection in naturally colored cotton (<i>G. hirsutum</i> L.) and to assess fiber quality variation among hybrid progenies derived from crosses between colored and elite white-fiber cultivars. As an expected outcome of this approach, we also assessed whether hybridization of naturally colored lines with elite white-fiber cultivars could contribute to the improvement of fiber quality traits in segregating progenies. Five colored lines (brown and green), three elite cultivars, and fifteen derived F<sub>3</sub> progenies were analyzed. Fiber traits, including upper half mean length (UHML), strength, elongation, and micronaire, were measured using HVI. Genotyping was conducted with BNL1604, and in silico mapping localized this marker to chromosome A07, with a homoeologous region on D07. White-fiber cultivars exhibited superior fiber length (33.4-35.4 mm) and strength (>31 g·tex<sup>-1</sup>) compared with colored lines. Several F<sub>3</sub> hybrids exhibited transgressive segregation (progeny with trait values significantly exceeding those of both parents, as confirmed by frequency distribution and ANOVA analyses). For instance, the F<sub>3</sub> (C-6577 × L-4099) hybrid achieved UHML values of 30.51 mm and strength > 31.93 g·tex<sup>-1</sup>. Most progenies maintained optimal micronaire (4.0-4.9). It was concluded that the presence of the 107 bp allele of BNL1604 marker was strongly associated with high-quality fiber, specifically improved fiber strength and length. In silico annotation revealed candidate genes near the BNL1604 locus linked to fiber development. These findings highlight the potential of combining hybridization with selection based on the presence of this 107 bp allele to develop high-quality, naturally colored cotton cultivars.

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Journal
Plants
Published
2025-11-26
DOI
https://doi.org/10.3390/plants14233601
Primary Topic
Research in Cotton Cultivation
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article
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article

Marker-Assisted Hybridization and Selection for Fiber Quality Improvement in Naturally Colored Cotton (G. hirsutum L.)

Kuvandik K. Khalikov, Dilrabo K. Ernazarova, Barno B. Oripova, Fakhriddin N. Kushanov et al.
Plants
Research in Cotton Cultivation
article

Marker-Assisted Hybridization and Selection for Fiber Quality Improvement in Naturally Colored Cotton (G. hirsutum L.)

Kuvandik K. Khalikov, Dilrabo K. Ernazarova, Barno B. Oripova, Fakhriddin N. Kushanov, Nigora Khashimova, Feruza F. Mamedova, Abrorjon Y. Kurbonov, Asiya K. Safiullina, Ezozakhon F. Nematullaeva, Sanjar Sh. Djumaev, Naima Sh. Khojaqulova, Muxammad-Latif M. Nazirov
article en

Abstract

Naturally colored cotton offers ecological advantages by eliminating the need for chemical dyeing; however, its limited fiber quality restricts its commercial utilization. The main goal of this study was to evaluate the potential of the SSR marker BNL1604 for marker-assisted selection in naturally colored cotton (<i>G. hirsutum</i> L.) and to assess fiber quality variation among hybrid progenies derived from crosses between colored and elite white-fiber cultivars. As an expected outcome of this approach, we also assessed whether hybridization of naturally colored lines with elite white-fiber cultivars could contribute to the improvement of fiber quality traits in segregating progenies. Five colored lines (brown and green), three elite cultivars, and fifteen derived F<sub>3</sub> progenies were analyzed. Fiber traits, including upper half mean length (UHML), strength, elongation, and micronaire, were measured using HVI. Genotyping was conducted with BNL1604, and in silico mapping localized this marker to chromosome A07, with a homoeologous region on D07. White-fiber cultivars exhibited superior fiber length (33.4-35.4 mm) and strength (>31 g·tex<sup>-1</sup>) compared with colored lines. Several F<sub>3</sub> hybrids exhibited transgressive segregation (progeny with trait values significantly exceeding those of both parents, as confirmed by frequency distribution and ANOVA analyses). For instance, the F<sub>3</sub> (C-6577 × L-4099) hybrid achieved UHML values of 30.51 mm and strength > 31.93 g·tex<sup>-1</sup>. Most progenies maintained optimal micronaire (4.0-4.9). It was concluded that the presence of the 107 bp allele of BNL1604 marker was strongly associated with high-quality fiber, specifically improved fiber strength and length. In silico annotation revealed candidate genes near the BNL1604 locus linked to fiber development. These findings highlight the potential of combining hybridization with selection based on the presence of this 107 bp allele to develop high-quality, naturally colored cotton cultivars.

PlantsVol. 14(23)
Samarkand State University named after Sharof Rashidov (UZ), Academy of Sciences Republic of Uzbekistan (UZ), Tashkent Pediatric Medical Institute (UZ), National University of Uzbekistan (UZ)
Openalex Percentile: Top 73%
Research in Cotton Cultivation
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