Antiviral Collection

Red bryony, Bryonia dioica
5855062 Red bryony, Bryonia dioica; (add.info.: Red bryony, Bryonia dioica. Handcoloured botanical illustration drawn and engraved on steel by William Clark from John Stephenson)

Dumpty tree frog, Australian green tree frog, Whites tree frog, Litoria caerulea, controlled conditions

RNA silencing molecule C015 / 7697
RNA silencing. Molecular model of a synthetic double stranded ribonucleic acid (RNA) molecule. RNA is the intermediate molecule between DNA (deoxyribonucleic acid) and its protein products

RNA silencing molecule C015 / 7696
RNA silencing. Molecular model of a synthetic double stranded ribonucleic acid (RNA) molecule. RNA is the intermediate molecule between DNA (deoxyribonucleic acid) and its protein products

Flu virus surface protein and drug. Molecular model of the neuraminidase glycoprotein enzyme found on the surface of the influenza (flu) virus, in complex with the drug oseltamivir

Zanamivir flu drug, molecular model C016 / 5801
Zanamivir flu drug, molecular model. Zanamivir is an antiviral drug (commonly known by its trade name Relenza). It is administered in spray form for inhalation

Zanamivir flu drug, molecular model C016 / 5800
Zanamivir flu drug, molecular model. Zanamivir is an antiviral drug (commonly known by its trade name Relenza). It is administered in spray form for inhalation

Zanamivir flu drug, molecular model C016 / 5799
Zanamivir flu drug, molecular model. Zanamivir is an antiviral drug (commonly known by its trade name Relenza). It is administered in spray form for inhalation

Zanamivir flu drug, molecular model C016 / 5798
Zanamivir flu drug, molecular model. Zanamivir is an antiviral drug (commonly known by its trade name Relenza). It is administered in spray form for inhalation

Influenza inhibition mechanism, artwork C016 / 5794
Influenza inhibition mechanism. Artwork of the membrane of an influenza (flu) virus, showing a molecule of the drug zanamivir (space-filled sphere model)

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"Unlocking the Power of Antiviral Defense: Exploring Nature's Guardians" In the vast realm of nature, remarkable creatures like Dumpty tree frog, Australian green tree frog, and Whites tree frog have evolved unique defense mechanisms against viral invaders. These amphibians possess an extraordinary ability to combat viruses through a process called RNA silencing. RNA silencing molecules C015/7697 and C015/7696 play a crucial role in this antiviral defense system. They act as guardians within these frogs' bodies, targeting and neutralizing harmful viral genetic material with astonishing precision. But nature's arsenal doesn't end there. Enter Zanamivir flu drug - a powerful weapon derived from scientific breakthroughs. Molecular models C016/5801, C016/5800, C016/5799, and C016/5798 showcase the intricate structure of this potent antiviral agent designed to combat influenza by inhibiting its surface protein. As we delve deeper into understanding the influenza inhibition mechanism depicted in artwork C016/5794, we uncover how Zanamivir flu drug disrupts the virus's replication cycle. By binding to specific sites on the virus surface protein responsible for infecting healthy cells, it prevents further spread and aids our immune system in eliminating the threat. The collaboration between nature's defenders - Dumpty tree frog, Australian green tree frog, Whites tree frog – armed with their RNA silencing capabilities alongside advanced pharmaceutical research has paved new avenues for developing effective antiviral strategies. Through continuous exploration of these fascinating organisms and innovative drug development techniques like Zanamivir flu drug molecular models (C016 series), scientists strive towards creating safer medications that can combat ever-evolving viral strains effectively. Together with these incredible natural protectors and cutting-edge science at our disposal, humanity stands united against viral adversaries – forging ahead towards a healthier future where antiviral defenses reign supreme.