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False Colour Collection (page 6)

"Unveiling the Hidden Beauty: Exploring False Colour in Microscopy and Imaging" Step into a world where reality meets artistry

Background imageFalse Colour Collection: Pond snails, SEM

Pond snails, SEM
Pond snails. Coloured scanning electron micrograph (SEM) of the shells of snails. These snails live in ponds. Snails are molluscs that protect themselves with a mineralised spiralling shell

Background imageFalse Colour Collection: Honey bee mite, SEM

Honey bee mite, SEM
Honey bee mite. Coloured scanning electron micrograph (SEM) of a honey bee mite (Varroa sp.). Parasitic mites have decimated hives of wild and domesticated honey bees (Apis mellifera)

Background imageFalse Colour Collection: Chrysalis, SEM

Chrysalis, SEM
Chrysalis, coloured scanning electron micrograph (SEM). A chrysalis is the name for the pupa of butterflies and moths (order Lepidoptera)

Background imageFalse Colour Collection: Gills of an Alderfly larva, SEM

Gills of an Alderfly larva, SEM
Gills of an alderfly larva. Coloured scanning electron micrograph (SEM) of the gills of an alderfly (Sialis lutaria) larva. The gills are the feather-like structures seen at top and bottom

Background imageFalse Colour Collection: Tamarins skin

Tamarins skin. Scanning electron micrograph of a tamarins (Saguinus sp.) skin, with two hairs (yellow) emerging from it. Tamarins are a small type of New World monkey

Background imageFalse Colour Collection: Hedgehog skin and spines, SEM

Hedgehog skin and spines, SEM
Hedgehog skin and spines. Coloured scanning electron micrograph (SEM) of the skin of a hedgehog, with spines (blue) protruding from it. A spine is a modified hair made from the protein keratin

Background imageFalse Colour Collection: Tamarins skin and hairs

Tamarins skin and hairs
Tamarins skin. Scanning electron micrograph of a tamarins (Saguinus sp.) skin, with hairs (brown) emerging from it. Tamarins are a small type of New World monkey

Background imageFalse Colour Collection: Striated finch skull, SEM

Striated finch skull, SEM
Striated finch skull. Coloured scanning electron micrograph (SEM) of the skull of the striated finch (Lonchura striata), seen from underneath

Background imageFalse Colour Collection: Young newt, SEM

Young newt, SEM
Young newt. Scanning electron micrograph (SEM) of a juvenile (immature) newt. Although this newt is in the last stages of development

Background imageFalse Colour Collection: Hairs on a geckos toe

Hairs on a geckos toe. Coloured scanning electron micrograph (SEM) showing the numerous hairs which cover the underside of a geckos feet

Background imageFalse Colour Collection: Lovebirds claw, SEM

Lovebirds claw, SEM
Lovebirds claw. Coloured scanning electron micrograph (SEM) of a claw (talon) on the toe of a Lovebird (Agapornis sp.). The claws and beaks of birds are made from keratin, a hard, fibrous protein

Background imageFalse Colour Collection: Mole nose, SEM

Mole nose, SEM
Mole nose. Coloured scanning electron micrograph (SEM) of the snout (pink) of a mole, showing specialised bulbous papillae (projections) known as Eimers organs

Background imageFalse Colour Collection: Underside of a geckos toe

Underside of a geckos toe. Coloured scanning electron micrograph (SEM) showing the numerous hairs which cover the underside of a geckos feet

Background imageFalse Colour Collection: Head of a young newt, SEM

Head of a young newt, SEM
Head of a young newt. Scanning electron micrograph (SEM) of a juvenile (immature) newt. Although this newt is in the last stages of development

Background imageFalse Colour Collection: Orangutan skull, X-ray

Orangutan skull, X-ray
Orangutan skull. Coloured X-ray of an orangutan (Pongo sp.) skull. The orangutan is native to Malaysia and Indonesia

Background imageFalse Colour Collection: Chimpanzee skull, X-ray

Chimpanzee skull, X-ray
Chimpanzee skull. Coloured X-ray of a side view of a chimpanzees (Pan troglodytes) skull. The cranium (upper right) is considerably smaller than in humans

Background imageFalse Colour Collection: Mole hair, SEM

Mole hair, SEM
Mole hair. Coloured scanning electron micrograph (SEM) of a skin of a mole (family Talpidae), showing fine hairs. Moles are small mammals that live in underground burrows

Background imageFalse Colour Collection: Orangutan skull

Orangutan skull. Coloured X-ray of an orangutan (Pongo sp.) skull. The orangutan is native to Malaysia and Indonesia

Background imageFalse Colour Collection: Rat skeleton

Rat skeleton. Coloured X-ray of a rat (Rattus sp.) specimen. The rat is held in place by wire supports (blue vertical lines) which are attached to a base (bottom)

Background imageFalse Colour Collection: Moth rear end, SEM

Moth rear end, SEM
Moth rear end. Coloured scanning electron micrograph (SEM) of the rear end of a moth (order Lepidoptera)

Background imageFalse Colour Collection: Yellow dung fly head, SEM

Yellow dung fly head, SEM
Yellow dung fly head. Coloured scanning electron micrograph (SEM) of the head of a yellow dung fly (Scatophaga stercoraria)

Background imageFalse Colour Collection: Gnat head, SEM

Gnat head, SEM
Gnat head. Coloured scanning electron micrograph (SEM) of the head of a gnat, a small type of fly (order Diptera), seen from the side

Background imageFalse Colour Collection: Bloodworm tail

Bloodworm tail
Bloodworms tail. Coloured scanning electron micrograph (SEM) of the tail of a bloodworm (Chironomus sp.). The bloodworm is the freshwater larva of a midge

Background imageFalse Colour Collection: Mosquito mouthparts, SEM

Mosquito mouthparts, SEM
Mosquito mouthparts. Coloured scanning electron micrograph (SEM) of the mouthparts of a mosquito (family Culicidae). The head is at far right, with compound eyes (green)

Background imageFalse Colour Collection: Compound eye of a mosquito, SEM

Compound eye of a mosquito, SEM
Compound eye of a mosquito. Coloured scanning electron micrograph (SEM) of numerous lenses making up the surface of a compound eye from an Asian tiger mosquito (Aedes albopictus)

Background imageFalse Colour Collection: Flys eye

Flys eye. Coloured scanning electron micrograph (SEM) of a flys (order Diptera) compound eye. The eye is made up of numerous visual units, known as ommatidia

Background imageFalse Colour Collection: Compound eye of a moth, SEM

Compound eye of a moth, SEM
Moths eye. Coloured scanning electron micrograph (SEM) of a section of a moths compound eye. The eye has been sliced to show its internal structure

Background imageFalse Colour Collection: Beetle larva, SEM

Beetle larva, SEM
Beetle larva. Coloured scanning electron micrograph (SEM) of a beetle larva (order Coleoptera)

Background imageFalse Colour Collection: Greenfly, SEM

Greenfly, SEM
Greenfly. Coloured scanning electron micrograph (SEM) of an aphid (sub-order Homoptera), or greenfly, feeding on a plant stem (right, green)

Background imageFalse Colour Collection: Great diving beetles foreleg, SEM

Great diving beetles foreleg, SEM
Great diving beetles foreleg. Coloured scanning electron micrograph (SEM) of the foreleg of a male great diving beetle (Dytiscus marginalis). At the tip of the leg are two claws

Background imageFalse Colour Collection: Soldier ant jaws, SEM

Soldier ant jaws, SEM
Soldier ant jaws. Coloured scanning electron micrograph (SEM) of the head of a leaf-cutter ant (Atta sexdens). This is a soldier ant

Background imageFalse Colour Collection: Breathing tube on a fruit flys pupa, SEM

Breathing tube on a fruit flys pupa, SEM
Breathing tube on a fruit flys pupa, coloured scanning electron micrograph (SEM). This structure is called a spiracle. This fruit fly is Drosophila melanogaster (wild type Oregon R)

Background imageFalse Colour Collection: Leaf cutter ant, SEM

Leaf cutter ant, SEM
Leaf cutter ants head. Coloured scanning electron micrograph (SEM) of the head of a leaf cutter ant. This insect lives in colonies and uses its powerful mandibles to remove pieces of leaves

Background imageFalse Colour Collection: Fly glandular organ, SEM

Fly glandular organ, SEM
Fly glandular organ. Coloured scanning electron micrograph (SEM) of a glandular organ on a March fly (family Bibionidae). This organ is found on the rear of the fly

Background imageFalse Colour Collection: Hercules beetle antenna, SEM

Hercules beetle antenna, SEM
Hercules beetle antenna. Coloured scanning electron micrograph (SEM) of the antenna of a hercules beetle (Dynastes hercules)

Background imageFalse Colour Collection: Moth antenna

Moth antenna. Coloured scanning electron micrograph (SEM) of the antenna of a moth (order Lepidoptera). The antenna is covered in sensory hairs that detect movement and smell

Background imageFalse Colour Collection: Mosquito antenna, SEM

Mosquito antenna, SEM
Mosquito antenna. Coloured scanning electron micrograph (SEM) of one of a mosquitos antennae. The antenna is covered with hairs that contain sensory cells

Background imageFalse Colour Collection: Insect foot, SEM

Insect foot, SEM
Insect foot. Coloured electron micrograph (SEM) of an unidentified insects foot. The foot consists of adhesive pads (red, upper left and right)

Background imageFalse Colour Collection: Fly compound eye, SEM

Fly compound eye, SEM
Fly compound eye. Coloured scanning electron micrograph (SEM) of numerous lenses making up the surface of a compound eye from a hover fly (family Syrphidae). These lenses are called ommatidia

Background imageFalse Colour Collection: Mosquito wing surface, SEM

Mosquito wing surface, SEM
Mosquito wing surface. Coloured scanning electron micrograph (SEM) of the micro-structures on the surface of a mosquito (family Culicidae) wing

Background imageFalse Colour Collection: Tip of ant foot, SEM

Tip of ant foot, SEM
Tip of ant foot. Coloured scanning electron micrograph (SEM) of the tip of a leg from an ant (family Formicidae). The end of an insect leg consists of the final segment, which is called the tarsus

Background imageFalse Colour Collection: Ant foot, SEM

Ant foot, SEM
Ant foot. Coloured scanning electron micrograph (SEM) of the tip of a leg from an ant (family Formicidae). The end of an insect leg consists of the final segment, which is called the tarsus

Background imageFalse Colour Collection: Beetle antenna, SEM

Beetle antenna, SEM
Beetle antenna. Coloured scanning electron micrograph (SEM) of the antenna of a Fregate beetle (Polposipus herculeanus). The antenna is covered in sensory hairs and cells (yellow)

Background imageFalse Colour Collection: Moth proboscis

Moth proboscis. Coloured scanning electron micrograph (SEM) of the labial palps, which are found on either side of the proboscis (tubular feeding organ)



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"Unveiling the Hidden Beauty: Exploring False Colour in Microscopy and Imaging" Step into a world where reality meets artistry, as we delve into the captivating realm of "false colour. " In this mesmerizing journey, we encounter an array of intricate subjects that have been transformed through advanced imaging techniques. Brace yourself for a visual feast that transcends our conventional perception. First up, behold the brain's intricate network of blood vessels captured in a 3D angiogram from 1981. Through false colour enhancement, these delicate pathways come alive with vibrant hues, revealing their hidden complexity. Moving on to nature's wonders, prepare to be enchanted by the Geranium anther under scanning electron microscopy (SEM). Its microscopic details are unveiled in vivid shades, showcasing its remarkable structure and beauty. Next on our exploration is Dahlia flower pollen also observed under SEM. The once minuscule grains now emerge as magnificent orbs adorned with striking colours—a testament to nature's exquisite design. Venturing further into the microscopic realm, we encounter diatoms—tiny algae—with their intricately patterned shells. Under SEM and enhanced with false colouring techniques, these diatoms transform into kaleidoscopic masterpieces that blur the line between science and art. But it doesn't stop there. Witness an ant like never before through SEM; its exoskeleton becomes a work of art when illuminated by vibrant tones. Meanwhile, X-ray imaging reveals the intricate skeleton of a triggerfish—an ethereal display reminiscent of otherworldly creatures lurking beneath ocean depths. Delving deeper within cells brings us face-to-face with rough endoplasmic reticulum—the cellular factory responsible for protein synthesis. Enhanced by false colouring using transmission electron microscopy (TEM), this complex network takes on an otherworldly appearance akin to futuristic cityscapes bathed in neon lights. Shifting gears towards medical marvels captured via X-ray technology unveils both the functional and aesthetic aspects of our bodies.