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Fluorescent Collection (page 7)

"Unveiling the Vibrant World of Fluorescent Cell Imaging: From Cerebellum Tissue to Dividing Cells" Illuminating the intricate beauty within our brains

Background imageFluorescent Collection: Immunfluorescent LM of cell death (apoptosis)

Immunfluorescent LM of cell death (apoptosis)

Background imageFluorescent Collection: HaCaT culture cell, light micrograph

HaCaT culture cell, light micrograph
HaCaT cell. Immunofluorescence light micrograph of a HaCaT cell dividing into two. The nucleus, which contains the cells genetic information, is purple

Background imageFluorescent Collection: Human cell

Human cell, computer-enhanced confocal light micrograph. This unidentified cell has a large nucleus (rounded, centre) and several long projections from its body. Magnification unknown

Background imageFluorescent Collection: Chromosome analysis

Chromosome analysis
MODEL RELEASED. Chromosome analysis. Geneticist analysing human chromosomes by fluorescent microscopy. Individual chromosomes are visible on the computer monitor as pale blue rods

Background imageFluorescent Collection: DNA

DNA
Deoxyribonucleic acid. Conceptual artwork of DNA (deoxyribonucleic acid) spelt out with fluoresence micrographs of anaphase stage cells. Anaphase is a stage of mitosis (nuclear division)

Background imageFluorescent Collection: Protein structure, artwork

Protein structure, artwork
Protein structure. Computer artwork of alpha helices (coils) and beta sheets (ribbons) of the secondary structure of a protein

Background imageFluorescent Collection: xDNA molecule

xDNA molecule. Computer artwork of a molecule of expanded deoxyribonucleic acid (xDNA). Normal DNA is composed of two strands twisted into a double helix

Background imageFluorescent Collection: Coral polyps fluorescing green

Coral polyps fluorescing green
Feeding polyps of an Acropora sp. coral glow fluorescent green in the dark when illuminated by a blue light. Photographed at Tondoba Bay, Marsa Alam, Red Sea, Egypt

Background imageFluorescent Collection: Bubble tip anemone

Bubble tip anemone. Close-up of the fluorescent tentacles of a bubble tip anemone (Entacmaea quadricolor). The tentacles are usually a dull brown

Background imageFluorescent Collection: Mirabilis anther, light micrograph

Mirabilis anther, light micrograph
Mirabilis anther and pollen grains, confocal fluorescence light micrograph. This anther is from Mirabilis jalapa, the four o clock flower

Background imageFluorescent Collection: Thale cress anther and pollen, micrograph

Thale cress anther and pollen, micrograph
Thale cress anther and pollenr. Fluorescence micrograph of an anther (male reproductive structure) from a thale cress (Arabidopsis thaliana) flower, showing the pollen grains (round) inside

Background imageFluorescent Collection: Thale cress stamens, micrograph

Thale cress stamens, micrograph
Mitosis. Confocal light micrograph of the stages mitosis (nuclear division) and cytokinesis (cell division). During mitosis the nuclear envelope disintegrates (3rd image) and the chromosomes (purple)

Background imageFluorescent Collection: Thale cress flower, micrograph

Thale cress flower, micrograph
Thale cress flower. Fluorescence micrograph of a flower from a thale cress (Arabidopsis thaliana) plant. The female reproductive structures - carpel (red) and stigma (yellow) - can be seen at centre

Background imageFluorescent Collection: Hippocampal neuron fluorescent micrograph

Hippocampal neuron fluorescent micrograph
Hippocampal neuron. Fluorescent micrograph of a neuron (nerve cell, centre) from the hippocampus, surrounded by glial cells (support cells)

Background imageFluorescent Collection: Leaf hairs, fluorescence micrograph

Leaf hairs, fluorescence micrograph
Leaf hairs. Fluorescence micrograph showing leaf hairs (trichomes) on a Nicotiana benthamiana plant. A fluorescence microscope is an optical microscope that uses fluorescence

Background imageFluorescent Collection: Thale cress anther, micrograph

Thale cress anther, micrograph
Thale cress anther. Fluorescence micrograph of an anther (male reproductive structure) from a thale cress (Arabidopsis thaliana) flower, showing the pollen grains (red, round) inside

Background imageFluorescent Collection: Thale cress leaf hair, micrograph

Thale cress leaf hair, micrograph
Thale cress leaf hair. Fluorescence micrograph showing the microfilaments of a leaf hair (trichome) from a thale cress (Arabidopsis thaliana) plant

Background imageFluorescent Collection: Cell structure, fluorescent micrograph

Cell structure, fluorescent micrograph
Cell structure. Fluorescent light micrograph of cultured cells from a cell line derived from African green monkey kidney cells. Microtubules, part of the cells cytoskeleton, are red

Background imageFluorescent Collection: Thale cress stigma, micrograph

Thale cress stigma, micrograph
Thale cress stigma. Fluorescence micrograph of a stigma (female reproductive structure) from a thale cress (Arabidopsis thaliana) flower

Background imageFluorescent Collection: Stamens and carpels, micrograph

Stamens and carpels, micrograph
Stamens and carpels. Fluorescence micrograph of stamens (male reproductive structures, far left) and carpels (female reproductive structures)

Background imageFluorescent Collection: Thale cress stigma, micrograph

Thale cress stigma, micrograph
Thale cress stigma. Fluorescence micrograph of a stigma (female reproductive structure) from a thale cress (Arabidopsis thaliana) flower

Background imageFluorescent Collection: Caenorhabditis elegans, micrograph

Caenorhabditis elegans, micrograph
Caenorhabditis elegans. Fluorescence micrograph of the transparent nematode (roundworm) worm Caenorhabditis elegans. A fluorescence microscope is an optical microscope that uses fluorescence

Background imageFluorescent Collection: Kidney cells, light micrograph

Kidney cells, light micrograph
Kidney cells. Quantum dot fluorescence micrograph of a section through kidney tissue showing its cells

Background imageFluorescent Collection: Embryonic stem cells, light micrograph

Embryonic stem cells, light micrograph
Embryonic stem cells. Fluorescence light micrograph of human embryonic neural stem cells forming neuronal networks. Tubulin protein is red; cell nuclei are blue

Background imageFluorescent Collection: Adipose stem cells, light micrograph

Adipose stem cells, light micrograph
Adipose stem cells. Fluorescence light micrograph of human stem cells derived from adipose (fat) tissue. Nestin protein filaments are red; membrane cofactor protein is green;

Background imageFluorescent Collection: Brain cells, light micrograph

Brain cells, light micrograph
Brain cells. Fluorescence light micrograph of activated microglial cells (stained for membrane co-factor protein, yellow) and oligodendrocytes (stained for myelin basic protein, red)

Background imageFluorescent Collection: Lung cells, fluorescent micrograph

Lung cells, fluorescent micrograph
Lung cells. Immunofluorescence light micrograph of pulmonary endothelial cells. Endothelial cells are specialized epithelial cells that line the inner surface of blood vessels

Background imageFluorescent Collection: Jellyfish

Jellyfish

Background imageFluorescent Collection: Oscillatoria cyanobacteria, dark field LM

Oscillatoria cyanobacteria, dark field LM
Oscillatoria animalis cyanobacteria, dark field light micrograph. The genus name for this cyanobacterium comes from the movement it makes as it orientates itself to the brightest light source

Background imageFluorescent Collection: Fluorescent light bulb powder, SEM

Fluorescent light bulb powder, SEM
Fluorescent light bulb powder. Coloured scanning electron micrograph (SEM) of grains of a phosphor powder used to coat the inside of a fluorescent light bulb. It is this powder that emits the light

Background imageFluorescent Collection: United Kingdom passport under UV light

United Kingdom passport under UV light
United Kingdom passport under ultraviolet (UV) light. Close up of passport design under UV light revealing invisible fluorescent ink

Background imageFluorescent Collection: Passport in UV light

Passport in UV light. Close up photo of a biodata page from a UK passport. This page is printed with invisible inks that fluoresce strongly under ultraviolet (UV) light

Background imageFluorescent Collection: Movement of Listeria bacteria

Movement of Listeria bacteria
Movement of Listeria sp. bacteria. Immunofluorescence deconvolution micrograph showing the comet-like tails that help to propel Listeria sp. bacteria from cell to cell during an infection

Background imageFluorescent Collection: Actin tail, fluorescent micrograph

Actin tail, fluorescent micrograph
Actin tail. Immunofluorescence deconvolution micrograph of a close-up of an actin filament (green) in a cell infected with vaccinia virus particles

Background imageFluorescent Collection: Vaccinia virus infected cell

Vaccinia virus infected cell. Immunofluorescence deconvolution micrograph of a cell infected with vaccinia virus particles. Host and viral DNA (deoxyribonucleic acid) is blue

Background imageFluorescent Collection: E. coli infection mechanism

E. coli infection mechanism. Immunofluorescence deconvolution micrograph of Escherichia coli bacteria (centre). Bacterial DNA (deoxyribonucleic acid) is blue

Background imageFluorescent Collection: Fibroblast cells, fluorescent micrograph

Fibroblast cells, fluorescent micrograph
Fibroblast cells. Immunofluorescence deconvolution micrograph of fibroblast cells. The cell nuclei, which contain the cells genetic information, are blue

Background imageFluorescent Collection: Confocal microscope, artwork

Confocal microscope, artwork
Confocal light microscope, artwork. Confocal microscopy uses fluorescent dyes to highlight tissues, cellular structures and proteins in the samples being analysed

Background imageFluorescent Collection: Rod-shaped bacterium, artwork

Rod-shaped bacterium, artwork
Rod-shaped bacterium, computer artwork. Typical rod-shaped bacteria (bacilli) are Escherichia coli and Salmonella bacteria, but there are many others

Background imageFluorescent Collection: Cytoskeleton, confocal light micrograph

Cytoskeleton, confocal light micrograph. Tubulin, the protein that makes up microtubules, is blue. Microtubules are part of the cytoskeleton, which maintains the cells shape

Background imageFluorescent Collection: Brain blood supply, confocal micrograph

Brain blood supply, confocal micrograph
Brain blood supply. Confocal light micrograph of the superficial vasculature of the cerebral cortex. The blood vessels carry oxygen to the brain tissue and remove carbon dioxide



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"Unveiling the Vibrant World of Fluorescent Cell Imaging: From Cerebellum Tissue to Dividing Cells" Illuminating the intricate beauty within our brains, a light micrograph reveals the mesmerizing patterns of cerebellum tissue. Dive into the microscopic realm as glial cells come alive under a confocal light micrograph, showcasing their fluorescent brilliance. HeLa cells take center stage in this captivating light micrograph (C017 / 8299), displaying their striking fluorescence and cellular structure. Witness another stunning view of HeLa cells (C017 / 8298) through a microscope lens, where their vibrant hues reveal hidden secrets within. Journey into the cerebral cortex and marvel at its nerve cells' fluorescent glow, illuminating the complexity of our brain's architecture. Witness the miracle of life itself as cell division unfolds before your eyes in this breathtaking fluorescent micrograph. Returning to explore cerebellum tissue once more, a light micrograph captures its ethereal essence with radiant colors dancing across each frame. The Metropolitan Police launch on the River Thames may seem unrelated but shares an unexpected connection - fluorescence can be found everywhere. Behold nature's perpetual cycle as dividing cells showcase their vivid fluorescence in yet another awe-inspiring image captured by microscopy techniques. Intriguing and visually stunning, these fluorescent hints offer glimpses into various aspects of cellular biology and beyond – from delicate tissues to bustling cityscapes – reminding us that even at microscopic levels, there is beauty all around us waiting to be discovered.