Molecular markers can effectively identify and select recessive alleles for improved fiber quality in cotton breeding programs.

Molecular mapping and characterization of traits controlling fiber quality in cotton

Cotton fiber quality is influenced by genotype, environmental conditions, and regional differences, with CIM-785 showing better fiber characteristics in both Khanewal and Multan regions.

Impact of Novel Varietal and Regional Differences on Cotton Fiber Quality Characteristics

Genetic mutations alter surface and thermal characteristics of cotton fibers differently for Li2-short and liy, but similarly for Li2-long and Li2-mix, with different mechanisms for the other three mutants.

Surface and Thermal Characterization of Cotton Fibers of Phenotypes Differing in Fiber Length

Cotton fibers have unique surface and friction characteristics, with potential for standardization in testing methods.

Friction and surface characteristics of cotton fibers

IMA 08 WS and BRS 335 are the best cotton genotypes for the Brazilian Cerrado, with high adaptability and stability in fiber yield and quality traits.

Adaptability and Stability of Cotton Genotypes Regarding Fiber Yield and Quality Traits

The manual harvesting system provides the best cotton fiber quality, followed by the picker and stripper systems, with impurity content being the most significant factor in fiber characteristics.

Multivariate analysis of fiber characteristics of dense cotton in different harvest systems

Creating resistant medium fiber cotton varieties is crucial for ensuring high-quality textile and technical products in the coming decade.

ANALYSIS OF SOME CHARACTERISTICS OF MEDIUM FIBER CULTURAL COTTON VARIETIES

Environmental factors and regional climate significantly impact cotton fiber quality in Greece, with environmental factors and season being the main sources of variance for most qualitative characteristics.

Environmental and Regional Effects on Fiber Quality of Cotton Cultivated in Greece

Whole genome sequencing identified seven significant fiber quality loci in upland cotton, providing valuable information for marker-assisted selection and potential biotechnological applications.

Whole genome sequencing of a MAGIC population identified genomic loci and candidate genes for major fiber quality traits in upland cotton (Gossypium hirsutum L.)

This study aims to improve fiber quality in naturally colored cotton by targeting key enzymes regulating fiber dynamics, focusing on carbohydrate metabolism and enzyme activities.

Physiological Characteristics Associated with Fiber Development in Two Naturally Colored Cotton Cultivars

This study identified 983 quantitative trait loci (QTLs) in cotton, providing valuable information for breeding improved fiber quality and yield simultaneously.

Genome‐wide quantitative trait loci reveal the genetic basis of cotton fibre quality and yield‐related traits in a Gossypium hirsutum recombinant inbred line population

The genetic map of cotton reveals seven QTLs for six fiber-related traits, suggesting that fiber-related traits are controlled by genes in homoeologous genomes subjected to selection and domestication.

Genetic mapping and QTL analysis of fiber-related traits in cotton (Gossypium)

Cotton fibers show different surface characteristics, with depectinized cotton showing low acidity and dewaxed cotton showing a composite of cellulose and pectic substance curves.

Surface characteristics of cotton fibers, as indicated by electrophoretic studies

Actin dynamics and the GhACTIN1 gene play a crucial role in cotton fiber development, with biotechnological approaches potentially improving fiber quality.

Role of Actin Dynamics and GhACTIN1 Gene in Cotton Fiber Development: A Prototypical Cell for Study

This study identified 34 stable quantitative trait loci (QTLs) in sea island cotton, which can be used to improve fiber quality in breeding practices.

Genome-wide association analysis reveals loci and candidate genes involved in fiber quality traits in sea island cotton (Gossypium barbadense)

The friction coefficient of cotton fibers decreases with increased load or velocity, and is positively correlated with the real contact area, especially at low velocities and medium load.

Relationship between the real contact behavior and tribological characteristics of cotton fabric

Phytohormones play a crucial role in regulating cotton fiber development, and understanding their role could lead to improved fiber quality in new cotton varieties.

Molecular Regulation of Cotton Fiber Development: A Review

Cottonized flax fibers have higher crystallinity, adsorption capacity, and smaller MB desorption than cotton fibers, with flax fibers showing higher specific surface area and adsorption capacity.

Cottonised flax fibres vs. cotton fibres: structural, textural and adsorption characteristics

Advances in gene expression studies reveal that MYB transcription factors and phytohormones play a role in cotton fiber development, with similar molecular events between leaf and seed trichome development.

Swimming Turned on Its Head: Stability and Maneuverability of the Shrimpfish (Aeoliscus punctulatus)

Cotton research reveals a common ancestor, ethylene production pathway, and various regulatory mechanisms, accelerating genetic improvement and potential pest and disease control.

Recent Advances and Future Perspectives in Cotton Research.

These studies suggest that cotton fiber quality is influenced by genetic factors, environmental conditions, and harvesting methods, with specific genotypes and regions showing better adaptability and fiber characteristics.