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Therapeutic potential of plant secondary metabolites in treatment of respiratory viral diseases: A review
Medicinal Plants ; 14(1):30-45, 2022.
Article in English | EMBASE | ID: covidwho-1863214
ABSTRACT
Respiratory viral infections are a major public health concern because of their global occurrence, ease of spread and considerable morbidity and mortality. Medical treatments for viral respiratory diseases primarily involve providing relief from symptoms like pain and discomfort rather than treating the infection. Very few antiviral medications have been approved with restrictive usage, high cost, unwanted side effects and limited availability. Plants with their unique metabolite composition and high remedial values offer unique preventive and therapeutic efficacy in treatment of viral infections. The present review is focused on the types and mode of action of plant secondary metabolites that have been used successfully ί in the treatment of infections caused by respiratory viruses like Influenza, SARS, MERS, RSV etc. Plant metabolites such as phenolics, alkaloids, terpenoids and oligosaccharides inhibit attachment and entry of the virus. Others such as flavonoids, viz quercetin and baicalein, alkaloids viz sanguinarine, berberine and emetine, specific lipids and fatty acids prevent viral replication and protein synthesis. These metabolites have the potential to be used as lead molecules that can be optimized to develop potent drugs for effectively combating pandemics caused by respiratory viruses.
Keywords
Achillea millefolium extract; alkaloid; Andrographis paniculata extract; angiotensin converting enzyme 2; Artemisia annua extract; Artemisia arborescens extract; baicalein; Barleria prionitis extract; berberine; Berginia ligulata extract; Betula pubescens extract; Caesalpinia sappan extract; cepharanthine; Citrus extract; Colchicum autumnale extract; coumarin; drug metabolite; Echinacea extract; Emblica officinalis extract; emetine; eugenol; Euphorbia grantii extract; fangquinoline; Ficus religiosa extract; flavonoid; Geranium sanguineum extract; Ginkgo biloba extract; glycyrrhetinic acid; Gymnema sylvestre extract; Houttuynia cordata extract; Jatropha curcas extract; Justica adhatoda extract; lignin; Lycoris radiata extract; Melissa officinalis extract; Nelumbo nucifera extract; Nigella sativa extract; Ocimum basilicum extract; Ocimum campechianum extract; oligosaccharide; Pandanus amaryllifolius extract; peppermint; phenol; plant extract; Pogostemon cablin extract; polyphenol; quercetin; quinone derivative; Rhinacanthus nasutus extract; Salvia miltiorrhiza extract; Sambucus extract; sanguinarine; saponin; Schefflera heptaphylla extract; Selaginella sinensis extract; sinecatechins; steroid; tannin; terpene; terpenoid; tetrandrine; toll like receptor; unclassified drug; antiinflammatory activity; antiviral activity; cholesterol synthesis; genetic transcription; human; influenza; medicinal plant; Middle East respiratory syndrome; Mimusops elengi; nonhuman; pandemic; protein expression; protein synthesis; receptor binding; respiratory syncytial virus infection; review; RNA translation; severe acute respiratory syndrome; Severe acute respiratory syndrome coronavirus 2; viral respiratory tract infection; virogenesis; virus attachment; virus entry; virus load; virus replication

Full text: Available Collection: Databases of international organizations Database: EMBASE Language: English Journal: Medicinal Plants Year: 2022 Document Type: Article

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Full text: Available Collection: Databases of international organizations Database: EMBASE Language: English Journal: Medicinal Plants Year: 2022 Document Type: Article