Brassica para Efecto bociógeno potencial
Brassica napus — 5 estudios científicos revisados
Moderate¿Sirve Brassica para efecto bociógeno potencial?
Los glucosinolatos presentes en Brassica napus pueden interferir con la captación de yodo por la glándula tiroides, lo que teóricamente podría alterar la producción de hormonas tiroideas si el consumo es crónico y elevado.
Compuestos activos involucrados: Agentes, Antioxidantes, Carotenoides, Glucosinolatos, Ortólogos, Sinapina, Ácidos grasos, Terpenos, Tocoferoles
Evidencia Científica
Los siguientes estudios han investigado la relación entre Brassica y efecto bociógeno potencial:
Genetic enhancement of Brassica napus seed quality.
The ultimate value of the Brassica napus (canola) seed is derived from the oil fraction, which has long been recognized for its premium dietary attributes, including its low level of saturated fatty acids, high content of monounsaturated fatty acids, and favorable omega-3 fatty acid profile. However, the protein (meal) portion of the seed has also received favorable attention for its essential amino acids, including abundance of sulfur-containing amino acids, such that B. napus protein is being contemplated for large scale use in livestock and fish feed formulations. Efforts to optimize the co
PubMed: 23979711Genetic architecture of glucosinolate variation in Brassica napus.
The diverse biological activities of glucosinolate (GSL) hydrolysis products play significant biological and economical roles in the defense system and nutritional qualities of Brassica napus (oilseed rape). Yet, genomic-based study of the B. napus GSL regulatory mechanisms are scarce due to the complexity of working with polyploid species. To address these challenges, we used transcriptome-based GWAS approach, Associative Transcriptomics (AT), across a diversity panel of 288 B. napus genotypes to uncover the underlying genetic basis controlling quantitative variation of GSLs in B.
PubMed: 31255878The study on the function of the receptor kinase BnFERONIA of Brassica napus in regulating salt tolerance and ABA tolerance.
CrRLK1L receptor kinases, particularly FERONIA (FER), play critical roles in plant stress adaptation and hormonal signaling, yet their functional characterization in economically vital crops like Brassica napus remains limited. Here, we identified 108 CrRLK1L family members through genome wide screening in B. napus and focused on BnFERONIA, a homolog evolutionarily conserved with FERONIA orthologs in Arabidopsis and related crucifers. CRISPR/Cas9 generated BnFERONIA knockout mutants (cas9-fer) in Arabidopsis exhibited contrasting abiotic stress responses: hypersensitivity to salt stress (100 m
PubMed: 40829479DEAD-box RNA helicase 6 regulates drought and abscisic acid stress responses in rapeseed (Brassica napus).
DEAD-box RNA helicase is a major subfamily of RNA helicases with vital roles played in plant growth, development, and plant-environment interactions. RNA helicase 6 in rapeseed (Brassica napus) (BnRH6) is a member of DEAD-box RNA helicase. While previous research has demonstrated the role of BnRH6 in salt stress regulation, the involvement of BnRH6 in drought stress adaptation remains unknown. This report described a function of BnRH6 in drought stress response. BnRH6 was sufficiently induced by osmotic stress.
PubMed: 37595852Temporal control of the Aux/IAA genes BnIAA32 and BnIAA34 mediates Brassica napus dual shade responses.
Precise responses to changes in light quality are crucial for plant growth and development. For example, hypocotyls of shade-avoiding plants typically elongate under shade conditions. Although this typical shade-avoidance response (TSR) has been studied in Arabidopsis (Arabidopsis thaliana), the molecular mechanisms underlying shade tolerance are poorly understood. Here we report that B. napus (Brassica napus) seedlings exhibit dual shade responses.
PubMed: 37929685Seguridad y Precauciones
La seguridad en el consumo de Brassica napus (canola) debe abordarse desde una perspectiva nutricional y bioquímica, considerando que sus componentes pueden interactuar con procesos fisiológicos complejos. En el caso de mujeres embarazadas y en periodo de lactancia, no existen datos clínicos que sugieran toxicidad aguda; sin embargo, la precaucción es fundamental debido a la presencia de glucosinolatos. Los glucosinolatos son compuestos secundarios (antinutrientes) que, al ser metabolizados, pueden liberar isotiocianatos. En teoría, un consumo excesivo de estos compuestos podría interferir con la función tiroidea, la cual es crítica durante el desarrollo fetal y la producción de leche. Se recomienda un consumo moderado y equilibrado, evitando suplementos concentrados de aceite de canola durante estas etapas. Para niños menores de 12 años, la vigilancia debe centrarse en la digestibilidad y el equilibrio de micronutrientes.
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