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Water Soluble Collection

"Unlocking the Power of Water Soluble: Exploring Vital Nutrients and Medicinal Marvels" In the vast realm of science

Background imageWater Soluble Collection: Vitamin B12, molecular model

Vitamin B12, molecular model. Vitamin B12 (cyanocobalamin) is an essential nutrient that humans are unable to produce and need to obtain from their diet

Background imageWater Soluble Collection: Pharmaceutical jars for Pilule de radius and Gum Arabic (faience)

Pharmaceutical jars for Pilule de radius and Gum Arabic (faience)
CHT237139 Pharmaceutical jars for Pilule de radius and Gum Arabic (faience) by French School, (19th century); Bibliotheque de la Faculte de Pharmacie, Paris

Background imageWater Soluble Collection: Eye lens protein molecule F006 / 9758

Eye lens protein molecule F006 / 9758
Eye lens protein. Molecular model of gammaB-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageWater Soluble Collection: Eye lens protein molecule F006 / 9695

Eye lens protein molecule F006 / 9695
Eye lens protein. Molecular model of alpha-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageWater Soluble Collection: Eye lens protein molecule F006 / 9652

Eye lens protein molecule F006 / 9652
Eye lens protein. Molecular model of alpha-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageWater Soluble Collection: Eye lens protein molecule F006 / 9367

Eye lens protein molecule F006 / 9367
Eye lens protein. Molecular model of delta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageWater Soluble Collection: Eye lens protein molecule F006 / 9253

Eye lens protein molecule F006 / 9253
Eye lens protein. Molecular model of beta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageWater Soluble Collection: Vitamin B1 molecule C016 / 8278

Vitamin B1 molecule C016 / 8278
Vitamin B1 molecule. Computer model showing the structure of a molecule of vitamin B1 (thiamine). Atoms are represented as colour-coded spheres: carbon (light blue), hydrogen (white)

Background imageWater Soluble Collection: Vitamin B1 molecule C016 / 8277

Vitamin B1 molecule C016 / 8277
Vitamin B1 molecule. Computer model showing the structure of a molecule of vitamin B1 (thiamine). Vitamin B1 is an essential nutrient that humans are unable to produce

Background imageWater Soluble Collection: Vitamin B1 molecule C016 / 8276

Vitamin B1 molecule C016 / 8276
Vitamin B1 molecule. Computer model showing the structure of a molecule of vitamin B1 (thiamine). Vitamin B1 is an essential nutrient that humans are unable to produce

Background imageWater Soluble Collection: Vitamin B1 molecule C016 / 8275

Vitamin B1 molecule C016 / 8275
Vitamin B1 molecule. Computer model showing the structure of a molecule of vitamin B1 (thiamine). Vitamin B1 is an essential nutrient that humans are unable to produce

Background imageWater Soluble Collection: Vitamin B1 molecule

Vitamin B1 molecule. Computer model showing the structure of a molecule of vitamin B1 (thiamine). Vitamin B1 is an essential nutrient that humans are unable to produce

Background imageWater Soluble Collection: Eye lens protein molecule C015 / 5153

Eye lens protein molecule C015 / 5153
Eye lens protein. Molecular model of beta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageWater Soluble Collection: Eye lens protein molecule C015 / 5152

Eye lens protein molecule C015 / 5152
Eye lens protein. Molecular model of beta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageWater Soluble Collection: Vitamin B7 crystals, light micrograph

Vitamin B7 crystals, light micrograph
Vitamin B7 crystals, polarised light micrograph. Vitamin B7, also called biotin or vitamin H, is an essential nutrient used by the body in cell growth

Background imageWater Soluble Collection: Vitamin B1 crystals, light micrograph

Vitamin B1 crystals, light micrograph
Vitamin B1 crystals, polarised light micrograph. Vitamin B1, also called thiamine, is an essential nutrient that humans are unable to produce and so need to obtain from their diet

Background imageWater Soluble Collection: Vitamin B6

Vitamin B6. Computer model of a molecule of vitamin B6 (pyridoxine). Atoms are represented as rods and are colour-coded: carbon (blue), hydrogen (white), nitrogen (purple) and oxygen (orange)

Background imageWater Soluble Collection: Vitamin B1, molecular model

Vitamin B1, molecular model. The chemical formula for vitamin B1, also called thiamine, is C12.H17.N4.O.S. Atoms are represented as balls and are colour-coded: carbon (blue), hydrogen (gold)

Background imageWater Soluble Collection: Vitamin B12

Vitamin B12. Computer model of a molecule of vitamin B12. Atoms are represented as spheres and are colour-coded: carbon (yellow), hydrogen (white), nitrogen (blue) and oxygen (red)

Background imageWater Soluble Collection: Vitamin B12 and coenzyme molecule

Vitamin B12 and coenzyme molecule
Vitamin B12 and coenzyme. Molecular model of vitamin B12 in its cofactor (active) form. Cofactors are compounds that are bound to a coenzyme

Background imageWater Soluble Collection: Vitamin B2, molecular models

Vitamin B2, molecular models. Vitamin B2, also called riboflavin, is an essential nutrient that humans are unable to produce and so need to obtain from their diet

Background imageWater Soluble Collection: Vitamin B9, molecular model

Vitamin B9, molecular model. The chemical formula for vitamin B9, also called folic acid or folate, is C19.H19.N7.O6. Atoms are represented as rods and are colour-coded: carbon (blue)

Background imageWater Soluble Collection: Vitamin B7, molecular model

Vitamin B7, molecular model. The chemical formula for vitamin B7, also called biotin or vitamin H, is C10.H16.N2.O3.S. Atoms are represented as rods and are colour-coded: carbon (blue)

Background imageWater Soluble Collection: Vitamin B6, molecular model

Vitamin B6, molecular model. The chemical formula for vitamin B6, also called pyridoxine, is C8.H11.N.O3. Atoms are represented as spheres and are colour-coded: carbon (blue), hydrogen (gold)

Background imageWater Soluble Collection: Vitamin B3 (nicotinamide) molecule

Vitamin B3 (nicotinamide) molecule
Vitamin B3. Molecular model of nicotinamide, a derivative of vitamin B3 (also called niacin or nicotinic acid). Its chemical formula is C6.H6.N2.O

Background imageWater Soluble Collection: Vitamin B3, molecular model

Vitamin B3, molecular model. The chemical formula for vitamin B3, also called niacin or nicotinic acid, is C6.H5.N.O2. Atoms are represented as spheres and are colour-coded: carbon (blue)

Background imageWater Soluble Collection: Vitamin B12 (cyanocobalamin) molecule

Vitamin B12 (cyanocobalamin) molecule
Vitamin B12. Molecular model of the form of vitamin B12 known as cyanocobalamin. This variant is not found naturally, only made synthetically and added to manufactured vitamin supplements



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"Unlocking the Power of Water Soluble: Exploring Vital Nutrients and Medicinal Marvels" In the vast realm of science, water-soluble compounds have emerged as a fascinating subject. Among them, Vitamin B12 stands tall with its molecular model captivating our attention. Its intricate structure holds the key to numerous health benefits, making it an essential nutrient for our bodies. As we delve deeper into pharmaceutical wonders, we encounter two intriguing jars - Pilule de radius and Gum Arabic (faience). These vessels symbolize the potential of water-soluble substances in medicine. The Pilule de radius jar hints at a revolutionary remedy while Gum Arabic unveils nature's gift for therapeutic purposes. Shifting gears towards ocular marvels, eye lens protein molecules F006/9758, F006/9695, F006/9652, F006/9367, and F006/9253 come into focus. These microscopic structures hold immense significance in understanding vision-related ailments and their potential treatments. Through unraveling these proteins' secrets lies hope for enhancing eye health. Amidst this scientific exploration emerges another vital molecule – Vitamin B1 (C016 / 8278). Its molecular structure captivates us once again as we uncover its role in maintaining overall well-being. With additional variants like C016 / 8277, C016 / 8276, C016 / 8275 alongside others yet to be discovered; Vitamin B1 showcases its versatility within our body systems. Water soluble compounds continue to amaze scientists worldwide by offering new insights into human health and medicinal advancements. From unlocking the mysteries behind essential vitamins to exploring ocular breakthroughs through lens proteins – each discovery brings us closer to harnessing their full potential. So let us embrace this journey of scientific wonderment as we unlock the power of water-soluble compounds – paving the way for healthier lives and brighter futures ahead.