Molecules Collection (page 9)

Glutaminyl-tRNA synthetase molecule
Glutaminyl-tRNA synthetase protein molecule. Molecular model showing bacterial glutaminyl-tRNA synthetase complexed with glutamine tRNA (transfer ribonucleic acid)

Paracetamol molecule
Serotonin molecule. Computer model showing the structure of a molecule of the neurotransmitter (nerve signalling chemical) serotonin (5-hydroxytryptamine)

Bone morphogenetic protein complex, molecular model. Bone Morphogenetic Protein-7 (BMP-7, blue) in complex with the secreted antagonist Noggin (pink)

Light-harvesting protein complex, molecular model. Peripheral light-harvesting protein complex from the purple bacterium Rhodopseudomonas acidophila

Buckminsterfullerene molecule C016 / 8372
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (spheres)

Buckminsterfullerene molecule C016 / 8370
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (spheres)

Buckminsterfullerene molecule C016 / 8368
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (spheres)

Buckminsterfullerene molecule C016 / 8369
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (spheres)

Buckminsterfullerene molecule C016 / 8364
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (spheres)

Buckminsterfullerene molecule C016 / 8367
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (spheres)

Buckminsterfullerene molecule C016 / 8363
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (spheres)

Buckminsterfullerene molecule C016 / 8361
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (orange)

Buckminsterfullerene molecule C016 / 8362
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (orange)

Buckminsterfullerene molecules C016 / 8359
Buckminsterfullerene molecules. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (black)

Buckminsterfullerene molecule C016 / 8358
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (black)

Buckminsterfullerene molecule C016 / 8357
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (black)

Buckminsterfullerene molecule C016 / 8351
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope) of carbon that has 60 carbon atoms (dark blue)

Plant water transport, artwork
Plant water transport. Artwork of water molecules (blue) entering a tree through osmosis in the roots, passing upwards through the xylem vessels in the trunk and branches

Carbon nanotube, artwork C016 / 8270
Carbon nanotube. Computer artwork of the inside of a carbon nanotube, also known as a buckytube, showing the hexagonal carbon structure

Carbon nanotube, artwork C016 / 8269
Carbon nanotube. Computer artwork of the inside of a carbon nanotube, also known as a buckytube, showing the hexagonal carbon structure

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)

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

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

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

Carbon nanotube, artwork C016 / 8271
Carbon nanotube. Computer artwork of a carbon nanotube, also known as a buckytube, showing the hexagonal carbon structure. Atoms are represented as spheres and the bonds between them by rods

Buckminsterfullerene molecule C016 / 8268
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope)

Buckminsterfullerene molecule C016 / 8266
Buckminsterfullerene molecule. Computer artwork showing the molecular structure of buckminsterfullerene, a structurally distinct form (allotrope)

Carbon nanotubes in POM matrix, SEM C016 / 8042
Carbon nanotubes. Coloured scanning electron micrograph (SEM) of carbon nanotubes in a POM matrix. Carbon nanotubes are a type of fullerene, a structural type (allotrope) of carbon

Biotin ligase enzyme, molecular model. This enzyme is a protein formed from 268 amino acids and two chains (green and pink)

B-Z junction in DNA, molecular model. Deoxyribonucleic acid (DNA) occurs in three forms, A-DNA, B-DNA and Z-DNA. The first two are right-handed, with B-DNA being the more common form

Cat allergen protein, molecular model C015 / 3962
Cat allergen protein. Molecular model of the tetrameric form of the major cat allergen fel d 1 (Felis domesticus allergen 1)

Bacterial RNA plasmid loop-loop complex, molecular model. This strand of ribonucleic acid (RNA) is part of a plasmid, the loop of genetic material found in bacterial cells

Cat allergen protein, molecular model
Cat allergen protein. Molecular model of the tetrameric form of the major cat allergen fel d 1 (Felis domesticus allergen 1)

Methane monooxygenase enzyme, molecular model. This is the particulate methane monooxygenase (pMMO) form of this metalloenzyme, an integral membrane protein that contains copper and zinc

Atomic interactions, conceptual image C013 / 5595
Atomic interactions, conceptual image. Computer artwork representing the interactions between atomic and sub-atomic particles

FP2 malaria protease enzyme complex, molecular model. This complex consists of the falcipain-2 (FP2) protease enzyme (purple, right) bound to a cystatin (orange, left), a form of protease inhibitor

Follicle-stimulating hormone complex C015 / 0945
Follicle-stimulating hormone (FSH) complex with receptor, molecular model. FSH helps to regulate human sexual development and reproductive processes. In females, it acts on follicles in the ovaries

Follicle-stimulating hormone complex C015 / 0944
Follicle-stimulating hormone (FSH) complex with receptor, molecular model. FSH helps to regulate human sexual development and reproductive processes. In females, it acts on follicles in the ovaries

Glutamate transporter protein, molecular model. This is a membrane protein that facilitates the uptake of glutamate by a cell, thus playing an important role in neurology in higher organisms

Purple bacterium photosynthesis centre, molecular model. Purple bacteria are phototrophic bacteria that produce energy through photosynthesis

Oestrogen related receptor-DNA complex. Molecular model of human estrogen related receptor-2 (heRR-2, purple) binding to a strand of DNA (deoxyribonucleic acid, red and yellow-green)

Lambda repressor-operator complex. Molecular model of the lambda repressor protein (red and green) binding to a region of DNA (deoxyribonucleic acid, orange and blue) known as the lambda operator

Repair protein and DNA, molecular model
Repair protein and DNA. Molecular model of the Ku heterodimer (grey, blue and purple) bound to a strand of DNA (deoxyribonucleic acid, orange and green) as part of the repair process

Max transcription factor-DNA complex. Molecular model of the Max transcription factor (purple and red) bound to a strand of DNA (deoxyribonucleic acid, light blue and orange)

Antibody fragment-lysozyme complex
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Bacterial regulator-DNA complex. Molecular model of a complex formed between a bacterial regulator called SarA (orange and brown) and a fragment of DNA (pink and yellow-green strands)

Bacterial protein-chaperone complex. Molecular model of a bacterial effector protein binding to a chaperone protein that helps prevent keep the bacterial protein in an unfolded or partially folded

Hin recombinase-DNA complex. Molecular model of the Hin recombinase protein (pink) bound to a double helix (green and orange) strand of DNA (deoxyribonucleic acid)

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"Molecules: The Building Blocks of Life and Beyond" From the intricate workings of an anaesthetic inhibiting an ion channel C015/6718 to the genius mind of James Clerk Maxwell, they have captivated scientists and artists alike. With their diverse structures and functions, they hold the key to understanding life at its core. Delving into the world of proteins, we witness their secondary structure through mesmerizing artwork that unveils their complexity. Meanwhile, the caffeine drug molecule keeps us awake while bacterial ribosomes tirelessly synthesize proteins within our cells. Vitamin B12's molecular model reminds us of nature's intricate design as zinc fingers elegantly bind to a DNA strand, orchestrating genetic processes. And who can forget capsaicin - the fiery molecule responsible for giving chili peppers their spicy kick? But molecules aren't limited to just earthly matters; they extend beyond our planet's boundaries. Oxytocin neurotransmitter molecules remind us of love's chemical connection while praziquantel parasite drugs combat infections in distant lands. Interferon molecules stand tall as defenders against viral invasions, showcasing our body's remarkable defense mechanisms. And amidst all this scientific wonder lies a breathtaking sight - Aurora Borealis dancing over a snow-covered coniferous forest in Northern Finland. Intricate and awe-inspiring, these glimpses into the molecular world remind us that there is so much more than meets the eye. From unlocking medical breakthroughs to unraveling nature's mysteries or simply marveling at captivating artistry – they can truly extraordinary entities shaping our understanding of life itself.