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Métodos Terapêuticos e Terapias MTCI
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1.
Plant Physiol Biochem ; 207: 108334, 2024 Feb.
Artigo em Inglês | MEDLINE | ID: mdl-38219424

RESUMO

The exponentially increasing population and the demand for food is inextricably linked. This has shifted global attention to improving crop plant traits to meet global food demands. Potato (Solanum tuberosum L.) is a major non-grain food crop that is grown all over the world. Currently, some of the major global potato research work focuses on the significance of microRNAs (miRNAs) in potato. miRNAs are a type of non-coding RNAs that regulate the gene expression of their target mRNA genes by cleavage and/or their translational inhibition. This suggests an essential role of miRNAs in a multitude of plant biological processes, including maintenance of genome integrity, plant growth, development and maturation, and initiation of responses to various stress conditions. Therefore, engineering miRNAs to generate stress-resistant varieties of potato may result in high yield and improved nutritional qualities. In this review, we discuss the potato miRNAs specifically known to play an essential role in the various stages of the potato life cycle, conferring stress-resistant characteristics, and modifying gene expression. This review highlights the significance of the miRNA machinery in plants, especially potato, encouraging further research into engineering miRNAs to boost crop yields and tolerance towards stress.


Assuntos
MicroRNAs , Solanum tuberosum , MicroRNAs/genética , MicroRNAs/metabolismo , Solanum tuberosum/metabolismo , Plantas/genética , Desenvolvimento Vegetal , Regulação da Expressão Gênica de Plantas , Estresse Fisiológico/genética
2.
Methods Mol Biol ; 2575: 153-179, 2023.
Artigo em Inglês | MEDLINE | ID: mdl-36301475

RESUMO

Plants possess a plethora of important secondary metabolites, which are unique sources of natural pigments, pharmaceutical compounds, food additives, natural pesticides, and other industrial components. The commercial significance of such metabolites/compounds has directed the research toward their production and exploration of methods for enhancement of production. Biotechnological tools are critical in selecting, integrating, multiplying, improving, and analyzing medicinal plants for secondary metabolite production. Out of many techniques that are being explored to enhance secondary metabolite production, "plant cell transfection" is the latest tool to achieve maximum output from the plant source. It is based upon the introduction of foreign DNA into the plant cell relying on physical treatment such as electroporation, cell squeezing, sonoporation, optical transfection nanoparticles, magnetofection, and chemical treatment or biological treatment that depends upon carrier. One of the promising tools that have been exploited is CRISPR-Cas9. Overall, the abovementioned tools focus on the stable transfection of desired gene transcripts. Since the integration and continuous expression of transfected gene of particular trait represents stable transfection of host cell genome, resulting from transfer of required trait to daughter cells ultimately leading to enhanced production of secondary metabolites of interest. This chapter will review a set of biotechnological tools that are candidates for achieving the enhanced bioactive compound production indicated here to be used for drug discovery.


Assuntos
Células Vegetais , Plantas Medicinais , Transfecção , Plantas Medicinais/metabolismo , Biotecnologia , Eletroporação
3.
Brief Funct Genomics ; 16(6): 336-347, 2017 Nov 01.
Artigo em Inglês | MEDLINE | ID: mdl-28369196

RESUMO

Saffron is considered to be the costliest spice of the world. It has been regarded as highly valued medicinal plant in Ayurveda to treat various ailments. Over the past few years, considerable interest has developed in saffron because of its anticancer, antimutagenic, antioxidant and immunomodulatory properties. Saffron's colour, bitter taste and aroma are its three main and peculiar characteristics, which are conferred by three chemicals namely: crocin, picrocrocin and safranal, respectively. The present review focuses on recent research/progress made in saffron in the area of functional genomics and highlights the potential of several genes and transcription factors involved in carotenoid/apocarotenoid pathway and responsible for flavour and aroma of saffron.


Assuntos
Carotenoides/metabolismo , Crocus/genética , Genes de Plantas , Carotenoides/uso terapêutico , Crocus/química , Regulação da Expressão Gênica de Plantas , Transcrição Gênica
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