Molecular Graphic Collection

Explosion of Sarin nerve gas molecules
Sarin nerve gas. Computer artwork of exploding molecules of the nerve gas Sarin (methylphosphonefluridic, (1-methyl ester, chemical formula (C4.H10.O2.P.F))

Computer graphic of a molecule of ATP
ATP. Computer graphic representation of a molecule of adenosine triphosphate (ATP). The molecule acts as an intracellular battery of metabolic energy

Lycopene molecule, tomato pigment
Lycopene. Computer graphic of lycopene, the red carotenoid pigment of tomatoes, rose hips and many other berries, and flowers of the pot marigold, Calendula officinalis

Antibody. Molecular graphic of the electron density surface of the antibody immunoglobulin G (IgG). This Y-shaped protein is produced by B- lymphocyte white blood cells as part of an immune response

Universal joint, computer model. This mechanical joint design, made entirely from carbon (turquoise) and hydrogen (grey) atoms, is an example of nanotechnology

Rhinovirus

Computer representation of part of a DNA molecule
DNA molecule. Computer representation of a segment of the molecule Deoxyribonucleic Acid (DNA). This structure contains all the inherited instructions necessary for the development of a living organ

Computer artwork of part of a beta DNA molecule
DNA molecule. Computer representation of a segment of the molecule Deoxyribonucleic Acid (DNA). This structure contains all the inherited instructions necessary for the development of a living organ

Computer graphic of deformity in a DNA molecule
Deformed DNA molecule. Computer-generated model of a segment of the molecule Deoxyribonucleic Acid (DNA), showing a deformity in its shape. DNA forms a natural double-helix shape

Computer artwork of a segment of beta DNA

Molecular graphic of LAC repressor binding to DNA
LAC repressor binding to DNA. Computer graphic of a lac repressor molecule (pink) interacting with genes on DNA that control lactose metabolism in Escherichia coli bacteria

Insulin molecule, close-up view
Insulin. Computer graphic showing a part of the molecule of human insulin. Insulin is a hormone which is produced in the pancreas by cells of the Islets of Langerhans

Helium atom, artwork
Hydrogen atom. Computer artwork representing the structure of a single hydrogen atom. Hydrogen (H2) is a diatomic (two-atom) molecule

Vitamin A molecule
Vitamin A. Computer model of a molecule of vitamin A, or retinol (C20. H30. O). Atoms are represented as rods and are colour-coded: carbon (black), hydrogen (white) and oxygen (red)

Molecule of carbon dioxide
Carbon dioxide. Computer graphic of a molecule of carbon dioxide (CO2). The dotted spheres are a Van Der Waals representation of atoms

Computer artwork of part of a molecule
Molecule. Computer artwork of part of a molecule depicting its arrangement of atoms (balls). The rods holding the balls together represent the chemical bonds between the atoms

Histidine amino acid
Histidine. Computer model of a molecule of the amino acid histidine (C6. H9. N3.O2). Atoms (solid tubes) are colour-coded: carbon (green), oxygen (red), hydrogen (grey) and nitrogen (blue)

Molecular graphic of a molecule of water
Water molecule. Computer graphic of a molecule of water (H20). The dotted spheres are a Van Der Waals representation of the atoms

Molecular graphic of vitamin E
Vitamin E. Molecular graphic of vitamin E. Green spheres represent carbon atoms, white spheres represent hydrogen and red spheres represent oxygen. Solid lines represent bonds

Sodium chloride cubic crystal
Sodium chloride. Computer graphic of crystallised common salt (sodium chloride), showing a crystal plane (at left) which forms part of sodium chlorides cubic crystal (at right)

Molecules of water
Water. Computer illustration of water molecules. The red spheres represent hydrogen atoms and the yellow spheres represent oxygen atoms

Molecule. Computer artwork of part of a molecule depicting its arrangement of atoms (balls). The rods holding the balls together represent the chemical bonds between the atoms

Molecular structure of ice
Illustration of the molecular structure of ice. Ice consists of, and is formed by, water molecules which have frozen into hexagonal crystals

Vitamin B6 molecule
Vitamin B6. Computer graphic depicting a molecule of vitamin B6 (pyridoxine hydrochloride). The molecular formula is C8.H11.NO3. Atoms appear as spheres, joined by atomic bonds

Benzene molecule
Benzene. Computer-generated model of a molecule of benzene (C6H6). The benzene molecule contains six carbon atoms (coloured white) arranged in the form of a ring

Beta carotene molecule
Carotene. Computer graphic of a beta carotene molecule, a yellow pigment found in a variety of fruits and vegetables (including carrots), which is needed by the human body for making vitamin A

Sodium chloride crystal
Sodium chloride. Computer model of a plane of the crystal lattice of common salt (sodium chloride), a chemical which is found widely in nature and is used as a food flavouring

Encephalin peptide
Encephalin. Computer molecular graphic of part of a molecule of encephalin, a polypeptide found in the human brain. It has a painkilling effect

Cyclosporin drug molecule
Cyclosporin. Computer graphic showing a molecule of the drug cyclosporin. The cyclic (circular) structure of this hydrophobic peptide molecule is seen here

B-chain of insulin molecule
Insulin. Computer graphic showing a part of the molecule of human insulin. A single insulin mole- cule is made up of two chains of amino acids, the A and B chains

Computer artwork of the hormone insulin
Insulin. Computer artwork of a molecule of the hormone insulin, essential in maintaining the balance of glucose metabolism in the body

Nicotine. Molecular graphic of a molecule of nicotine, an addictive alkaloid drug found in tobacco. The atoms, represented by spheres, are carbon (yellow) and nitrogen (pink)

Penicillin drug molecule
Penicillin. Computer graphic of part of a molecule of penicillin, an antibiotic drug. The spheres represent atoms and are colour-coded as: carbon (green), oxygen (red), hydrogen (white)

Computer graphic of a strychnine molecule
Strychnine. Computer graphic of a molecule of strychnine, an alkaloid drug which is used medicinally in low doses but which is also used as a poison for rats and other vermin

Valium molecule
Diazepam. Computer graphic of a molecule of diaze- pam, also known commercially as valium, a tranqu- illiser drug. The molecules atoms are colour- coded: carbon (C) is blue, hydrogen (H) is white

Nicotine molecule
Nicotine. Computer graphic of a molecule of nico- tine, an addictive, poisonous alkaloid drug found in tobacco; it is also used as an insecticide

Computer graphic of a molecule of sucrose
Sucrose. Computer graphic of a molecule of sucrose, commonly known as table, cane or beet sugar. Sucrose is comprised of atoms of carbon (C, blue), oxygen (O, red) and hydrogen (H, white)

Iron molecule over water
Iron molecule. Computer artwork of a cubic model of a molecule of alpha-iron floating over water. Iron (Fe) atoms are depicted as spheres

Sarin nerve gas molecule

DDT molecule. Computer model of a molecule of the pesticide DDT (dichlorodiphenyltrichloroethane, C14. H9. Cl5). Atoms (spheres) are colour-coded: carbon (red), hydrogen (white), chlorine (blue)

VX nerve gas molecule
VX nerve gas. Computer artwork of a molecule of the nerve gas VX (methylphophonothioic acid, S- [2(diethylamino)ethyl]-2-methylpropyl ester, chemical formula (C11. H26. N. O2.P.S))

Buckyball (C60) molecule over water
Buckyball. Computer graphic of buckyball (Buckminsterfullerene, C60) molecule hovering over water. The buckyballs constituent spheres represent carbon atoms whilst the lines represent the bonds

Computer graphic of buckyballs (C60)
Buckyballs. Computer graphic of buckyball (Buckminsterfullerene, C60) molecules. The spheres represent carbon atoms whilst the lines represent the bonds between them

Computer graphic of a buckyball (C60)
Buckyball. Computer graphic of a buckyball (Buckminsterfullerene, C60) molecule. The spheres represent carbon atoms whilst the lines represent the bonds between them

Buckminsterfullerene
Buckyball. Computer graphic of a buckyball (Buckminsterfullerene, C60) molecule. The green spheres represent carbon atoms whilst the lines represent the bonds between them

Molecules that smell like camphor

Computer graphic of a molecule of AMP
AMP. Computer graphic representation of a molecule of adenosine monophosphate (AMP). Atoms are depicted as spheres, joined by atomic bonds

Formaldehyde molecule
Formaldehyde. Computer graphic representation of a molecule of formaldehyde (methanal). Its molecular formula is HCHO. Atoms are depicted as spheres and colour- coded: carbon (grey)

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"Molecular Graphics: Unlocking the Intricacies of Life's Building Blocks" Witness the explosive intricacy of Sarin nerve gas molecules, unraveling their deadly secrets through molecular graphics. Dive into the microscopic world with a computer graphic showcasing the complex structure of ATP, the energy currency of life. Explore nature's vibrant palette as you delve into a stunning molecular graphic revealing the lycopene molecule responsible for tomato's rich red pigment. Marvel at an artistic representation of insulin, where science meets creativity to showcase this vital hormone's intricate molecular structure. Unleash your immune system superhero - Antibody. Discover its elegant architecture and understand how it fights off invaders through a captivating molecular graphic. Enter the realm of mechanical wonders with a computer model illustrating a universal joint, providing insights into its functionality and applications in various fields. Encounter one of humanity's most common foes – Rhinovirus – as you explore its detailed structure using cutting-edge molecular graphics technology. Embark on an extraordinary journey within our genetic blueprint by visualizing DNA helices in all their mesmerizing glory through advanced computer representations. Immerse yourself in awe-inspiring artwork unveiling part of a DNA molecule, capturing both its beauty and complexity simultaneously on screen. Witness scientific innovation at play as you examine a striking computer graphic highlighting deformities within DNA molecules, shedding light on potential genetic disorders or mutations. Behold the iconic double-helix structure that defines our very existence - DNA helix - portrayed vividly through state-of-the-art visualization techniques that bring this fundamental building block to life. Intricate and visually captivating, these remarkable molecular graphics offer us glimpses into worlds unseen; they serve as powerful tools for scientists to better comprehend life's mysteries while igniting curiosity among enthusiasts worldwide.