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Anticoagulant Collection

Anticoagulant: Unraveling the Mysteries of Blood Thinning Aspirin molecule: At the forefront of anticoagulation

Background imageAnticoagulant Collection: Aspirin molecule

Aspirin molecule. Computer artwork showing the structure of a molecule of aspirin (acetylsalicylic acid). Atoms are represented as spheres and are colour-coded: carbon (black), hydrogen (white)

Background imageAnticoagulant Collection: Aspirin in action

Aspirin in action. Computer artwork showing how aspirin has its effect. Aspirin (acetylsalicylic acid) is converted to salicylic acid and acetic acid in the body

Background imageAnticoagulant Collection: Nurse with a jar of medicinal leeches C018 / 2317

Nurse with a jar of medicinal leeches C018 / 2317
Medicinal leeches (Hirudo medicinalis) in a tank of water. Leeches are parasites that feed on blood. They attach themselves to the skin using suckers and create a wound with three sharp jaw plates

Background imageAnticoagulant Collection: Snake venom crystals

Snake venom crystals
Venom research. Hand places snake venom crystals in a desiccator. This venom is from the Malaysian pit viper (Calloselasma rhodostoma), and contains an anticoagulant drug, Ancrod

Background imageAnticoagulant Collection: Snake venom

Snake venom

Background imageAnticoagulant Collection: Milking snake venom

Milking snake venom
Snake venom research. Researcher milks venom from a Malaysian pit viper (Calloselasma rhodostoma). The venom contains an anticoagulant drug which is being studied for use in treating stroke patients

Background imageAnticoagulant Collection: Aspirin drug molecule

Aspirin drug molecule
Aspirin. Molecular model of the drug aspirin (acetylsalicylic acid). Atoms are represented as spheres and are colour coded: carbon (blue), oxygen (red) and hydrogen (grey)

Background imageAnticoagulant Collection: Dabigatran etexilate drug molecule

Dabigatran etexilate drug molecule. This anticoagulant drug has the molecular formula C34.H41.N7.O5. The atoms (rods) are colour-coded: carbon (purple), hydrogen (white), nitrogen (pink)

Background imageAnticoagulant Collection: Aspirin crystals, light micrograph

Aspirin crystals, light micrograph
Aspirin crystals, polarized light micrograph. Aspirin (acetylsalicylic acid) is an analgesic (pain-relieving) drug. It is a non-prescription drug

Background imageAnticoagulant Collection: Anticoagulant molecule

Anticoagulant molecule. Molecular model of one subunit of the anticoagulant heparin. Atoms are represented as spheres and are colour-coded: carbon (green), hydrogen (white), oxygen (red)

Background imageAnticoagulant Collection: Ximelagatran anticoagulent drug molecule

Ximelagatran anticoagulent drug molecule
Ximelagatran anticoagulant drug. Molecular model showing the structure of the anticoagulant drug ximelagatran (marketed as Exanta)

Background imageAnticoagulant Collection: Antithrombin molecule

Antithrombin molecule
Antithrombin, molecular model. Antithrombin is a glycoprotein produced in the liver that inhibits enzymes involved in blood clotting

Background imageAnticoagulant Collection: Warfarin anticoagulant drug molecule

Warfarin anticoagulant drug molecule
Warfarin anticoagulant drug, molecular model. Warfarin is an anticoagulant used to treat blood clotting disorders. Warfarins name derives from the Wisconsin Alumni Research Foundation


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Anticoagulant: Unraveling the Mysteries of Blood Thinning Aspirin molecule: At the forefront of anticoagulation, the humble aspirin molecule has been a game-changer in preventing blood clots and reducing the risk of heart attacks. Aspirin in action: Witnessing its remarkable effects, this microscopic image captures aspirin molecules actively inhibiting platelet aggregation, ensuring smoother blood flow through our veins. Nurse with a jar of medicinal leeches C018 / 2317: Stepping back in time to ancient remedies, medicinal leeches have long been used as natural anticoagulants due to their saliva's ability to prevent clotting during bloodsucking therapy. Snake venom crystals: Nature's potent weapon against coagulation, snake venom contains intricate crystal structures that disrupt normal clotting mechanisms and serve as inspiration for developing new anticoagulant drugs. Milking snake venom: In an intriguing process known as "milking, " skilled handlers extract precious drops of snake venom containing powerful anticoagulant properties from these fascinating reptiles. Dabigatran etexilate drug molecule: A modern breakthrough in anticoagulation, dabigatran etexilate offers an alternative to traditional therapies by directly inhibiting specific clotting factors without requiring frequent monitoring or dietary restrictions. Aspirin crystals, light micrograph: Under the lens of a microscope, we observe mesmerizing patterns formed by crystallized aspirin—a visual representation of its molecular structure and potential impact on blood thinning. Anticoagulant molecule: Delving into the world of pharmaceutical innovation, this captivating image showcases an intricately designed synthetic compound specifically engineered for its potent anti-clotting abilities. In our quest for understanding and harnessing nature's wonders alongside scientific advancements, exploring these diverse facets sheds light on the fascinating realm of anticoagulation.