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Vasodilation Collection

"Vasodilation: Unveiling the Intricate Mechanisms and Systemic Effects" Surrounding tissue becomes inflamed causing several systemic effects

Background imageVasodilation Collection: Surrounding tissue becomes inflamed causing several systemic effects

Surrounding tissue becomes inflamed causing several systemic effects, such as vasodilation, mucous secretion, nerve stimulation and smooth muscle contraction

Background imageVasodilation Collection: Antihistamine in histamine receptors blocking the allergic reaction

Antihistamine in histamine receptors blocking the allergic reaction

Background imageVasodilation Collection: Prostaglandin I2 drug molecule F007 / 0185

Prostaglandin I2 drug molecule F007 / 0185
Prostaglandin I2 (PGI2, epoprostenol) pulmonary hypertension drug, molecular model. PGI2 is an eicosanoid drug that inhibits platelet activation and causes vasodilation

Background imageVasodilation Collection: Prostaglandin I2 drug molecule F007 / 0184

Prostaglandin I2 drug molecule F007 / 0184
Prostaglandin I2 (PGI2, epoprostenol) pulmonary hypertension drug, molecular model. PGI2 is an eicosanoid drug that inhibits platelet activation and causes vasodilation

Background imageVasodilation Collection: Artwork of arteriole dilated by alpha-blocker drug

Artwork of arteriole dilated by alpha-blocker drug
Dilated arteriole. Artwork of an arteriole (small artery) dilated by an alpha-blocker drug given to treat hypertension - abnormally high blood pressure. The large red cells are red blood cells

Background imageVasodilation Collection: Blood vessel dilation, computer artwork

Blood vessel dilation, computer artwork
Blood vessel dilation. Computer artwork of blood vessel dilation (expansion) in response to drugs taken to control arterial blood pressure

Background imageVasodilation Collection: Atrial natriuretic peptide molecule

Atrial natriuretic peptide molecule. Computer model showing the structure of a molecule of the hormone atrial natriuretic peptide (ANP)

Background imageVasodilation Collection: Prostaglandin E1 molecule

Prostaglandin E1 molecule. Computer model showing the structure of the hormone prostaglandin E1 (PGE1). Atoms are colour-coded (carbon: dark grey, hydrogen: light grey, oxygen: red)

Background imageVasodilation Collection: Prostaglandin E2 molecule

Prostaglandin E2 molecule. Computer model showing the structure of the hormone prostaglandin E2 (PGE2). Atoms are colour-coded (carbon: dark grey, hydrogen: light grey, oxygen: red)


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"Vasodilation: Unveiling the Intricate Mechanisms and Systemic Effects" Surrounding tissue becomes inflamed causing several systemic effects, as the body's intricate response to injury or infection unfolds. This captivating process, known as vasodilation, holds the key to understanding how our bodies combat various challenges. One crucial player in this symphony is histamine, a chemical released during allergic reactions. Antihistamines step in by binding to histamine receptors and blocking the cascade of events that trigger an allergic reaction. By doing so, they help prevent surrounding tissue inflammation and alleviate symptoms. Enter Prostaglandin I2 drug molecules F007/0185 and F007/0184 - these remarkable compounds possess potent vasodilatory properties. They act on blood vessels, promoting their relaxation and widening arterioles for improved blood flow throughout the body. An awe-inspiring artwork showcases an alpha-blocker drug dilating an arteriole with precision. But it doesn't end there. Computer-generated imagery beautifully illustrates blood vessel dilation itself – a mesmerizing sight where vessels expand gracefully like blooming flowers. This expansion allows increased delivery of oxygen-rich blood to tissues in need while facilitating waste removal from those areas. The story continues with other critical players such as Atrial Natriuretic Peptide (ANP), Brain Natriuretic Peptide (BNP), Prostaglandin F2a molecule, Prostaglandin E1 molecule, and Prostaglandin E2 molecule – all contributing their unique roles in regulating vascular tone through vasodilation. These molecular marvels work tirelessly behind the scenes; ANP helps regulate fluid balance by relaxing smooth muscle cells lining blood vessels while BNP aids in reducing excessive fluid volume within congested hearts. Meanwhile, prostaglandins E1 and E2 exert their influence on vascular walls by inducing relaxation and widening them further.