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Motile Collection

"Exploring the World of Motile Microorganisms: A Captivating Journey" Embark on a mesmerizing journey into the microscopic realm

Background imageMotile Collection: Budding yeast cell

Budding yeast cell. Computer artwork of asection through a yeast ( Candida albicans )cell that is reproducing asexually. A daughtercell (top left) is budding from the parent cell

Background imageMotile Collection: Dendritic cells, artwork

Dendritic cells, artwork. Dendritic cells, a type of white blood cell, are called antigen presenting cells (APCs) and are found in the bodys tissues

Background imageMotile Collection: Oxytricha ciliate protozoan, SEM C019 / 0253

Oxytricha ciliate protozoan, SEM C019 / 0253
Oxytricha sp. ciliate protozoan, coloured scanning electron micrograph (SEM). Oxytricha is a tiny single-celled aquatic organism

Background imageMotile Collection: Salmonella bacterium dividing, SEM

Salmonella bacterium dividing, SEM
Salmonella bacterium dividing. Coloured scanning electron micrograph (SEM) of of a Salmonella bacterium dividing. The two new daughter cells are seen at upper right and lower left

Background imageMotile Collection: Plate 14 Peridinium Peridinea from Kunstformen der Natur (Art Forms in Nature)

Plate 14 Peridinium Peridinea from Kunstformen der Natur (Art Forms in Nature) illustrated by Ernst Haeckel (1834-1919)
5615759 Plate 14 Peridinium Peridinea from Kunstformen der Natur (Art Forms in Nature) illustrated by Ernst Haeckel (1834-1919) by Haeckel

Background imageMotile Collection: Paramecium sp. protozoan, SEM

Paramecium sp. protozoan, SEM
Paramecium protozoan. Coloured scanning electron micrograph (SEM) of a Paramecium sp. protozoan. This single-celled organism is aquatic, living in freshwater habitats

Background imageMotile Collection: Euglena gracilis, SEM

Euglena gracilis, SEM
Euglena gracilis protists. Coloured scanning electron micrograph (SEM) of Euglena gracilis protists. These organisms possess a unique combination of plant and animal characters. Like the algae, E

Background imageMotile Collection: Didinium ciliate protozoan, SEM C019 / 0235

Didinium ciliate protozoan, SEM C019 / 0235
Didinium sp. ciliate protozoan, coloured scanning electron micrograph (SEM). This tiny single-celled organism is found in freshwater and marine habitats

Background imageMotile Collection: Pyrococcus furiosus archaea artwork

Pyrococcus furiosus archaea artwork
Pyroccocus furiosus archaea, artwork. Archaea are single-celled organisms that are similar to bacteria but have been found to have higher organism characteristics

Background imageMotile Collection: Euglena gracilis

Euglena gracilis protists. Light micrograph of a group of Euglena gracilis protists. These organisms possess a unique combination of plant and animal characters. Like the algae, E

Background imageMotile Collection: Cancer cell, artwork C016 / 9843

Cancer cell, artwork C016 / 9843
Cancer cell. Computer artwork of a cancerous (malignant) cell (top left) in tissue. The uneven surface and cytoplasmic projections are characteristic of cancer cells

Background imageMotile Collection: Chilodonella ciliate protozoan, SEM

Chilodonella ciliate protozoan, SEM
Chilodonella ciliate protozoa, coloured scanning electron micrograph (SEM). These tiny single- celled organisms are found in fresh water

Background imageMotile Collection: Euglena flagellate protozoa, SEM C016 / 9103

Euglena flagellate protozoa, SEM C016 / 9103
Euglena flagellate protozoa. Coloured scanning electron micrograph (SEM) of two Euglena sp. flagellate protozoa. Euglena sp

Background imageMotile Collection: Euglena flagellate protozoa, SEM C016 / 9104

Euglena flagellate protozoa, SEM C016 / 9104
Euglena flagellate protozoa. Coloured scanning electron micrograph (SEM) of two Euglena sp. flagellate protozoa. Euglena sp

Background imageMotile Collection: Rotifer, light micrograph C016 / 9550

Rotifer, light micrograph C016 / 9550
Rotifer. Light micrograph of a freshwater rotifer (Brachionus calyciflorus). Rotifers are microscopic aquatic animals that are related to roundworms

Background imageMotile Collection: Rotifer with eggs, light micrograph C016 / 8587

Rotifer with eggs, light micrograph C016 / 8587
Rotifer with eggs. Differential interference contrast (DIC) light micrograph of a rotifer (phylum Rotifera) carrying eggs (small, round)

Background imageMotile Collection: Tetrahymena protozoan, SEM

Tetrahymena protozoan, SEM
Tetrahymena protozoan. Coloured scanning electron micrograph (SEM) of a Tetrahymena sp. ciliate protozoan. Tetrahymena are free-living freshwater unicellular organisms found in ponds

Background imageMotile Collection: Rotifer, light micrograph

Rotifer, light micrograph
Rotifer. Darkfield illuminated light micrograph of a rotifer (phylum Rotifera). Rotifers (phylum Rotifera) are microscopic aquatic animals that are related to roundworms

Background imageMotile Collection: Spirostomum ciliate protozoan, SEM C019 / 0308

Spirostomum ciliate protozoan, SEM C019 / 0308
Spirostomum sp. ciliate protozoan, coloured scanning electron micrograph (SEM). These tiny single-celled organisms are found in freshwater and marine habitats

Background imageMotile Collection: Blepharisma ciliate protozoan, SEM C019 / 0228

Blepharisma ciliate protozoan, SEM C019 / 0228
Blepharisma ciliate protozoan, coloured scanning electron micrograph (SEM). These tiny single-celled organisms are found in freshwater and marine habitats

Background imageMotile Collection: Didinium ciliate protozoan, SEM C019 / 0237

Didinium ciliate protozoan, SEM C019 / 0237
Didinium sp. ciliate protozoan, coloured scanning electron micrograph (SEM). This tiny single-celled organism is found in freshwater and marine habitats

Background imageMotile Collection: Spirostomum ciliate protozoan, SEM C019 / 0307

Spirostomum ciliate protozoan, SEM C019 / 0307
Spirostomum sp. ciliate protozoan, coloured scanning electron micrograph (SEM). These tiny single-celled organisms are found in freshwater and marine habitats

Background imageMotile Collection: Climacostomum protozoan, SEM C019 / 0243

Climacostomum protozoan, SEM C019 / 0243
Climacostomum sp. ciliate protozoan, coloured scanning electron micrograph (SEM). These tiny single-celled organisms are found in freshwater and marine habitats

Background imageMotile Collection: Paramecium sp. protozoa (SEM) C014 / 2148

Paramecium sp. protozoa (SEM) C014 / 2148
Paramecium protozoa. Coloured scanning electron micrograph (SEM) of Paramecium sp. protozoa. These single-celled organisms are aquatic, being found in freshwater habitats

Background imageMotile Collection: Rotifer, light micrograph C014 / 4666

Rotifer, light micrograph C014 / 4666
Rotifer, differential interference contrast micrograph. These animals are related to roundworms. They are usually freshwater organisms though a few marine sp

Background imageMotile Collection: Bdelloid rotifer, SEM

Bdelloid rotifer, SEM
Bdelloid rotifer. Coloured scanning electron micrograph (SEM) of a rotifer (class Bdelloidea) from a pond. Rotifers (phylum Rotifera) are microscopic aquatic animals that are related to roundworms

Background imageMotile Collection: Rotifer with eggs, light micrograph C016 / 8588

Rotifer with eggs, light micrograph C016 / 8588
Rotifer with eggs. Differential interference contrast (DIC) light micrograph of a rotifer (phylum Rotifera) carrying eggs (small, round)

Background imageMotile Collection: Cancer cell, SEM C014 / 0628

Cancer cell, SEM C014 / 0628
Cancer cell. Coloured scanning electron micrograph (SEM) of a carcinoma cancer cell (pink) migrating (metastasising) along a layer of normal epithelial cells (purple)

Background imageMotile Collection: Cancer cell, SEM C014 / 0627

Cancer cell, SEM C014 / 0627
Cancer cell. Coloured scanning electron micrograph (SEM) of a carcinoma cancer cell (yellow) migrating (metastasising) along a layer of normal epithelial cells (brown)

Background imageMotile Collection: Actin-based motility, SEM C017 / 8335

Actin-based motility, SEM C017 / 8335
Actin-based motility. Coloured scanning electron micrograph (SEM) of Shigella sp. bacteria (pink) infecting cells. Filaments of the protein actin, which is part of the cells cystoskeleton

Background imageMotile Collection: Actin-based motility, SEM C017 / 8334

Actin-based motility, SEM C017 / 8334
Actin-based motility. Coloured scanning electron micrograph (SEM) of Shigella sp. bacteria (pink) infecting cells. Filaments of the protein actin, which is part of the cells cystoskeleton

Background imageMotile Collection: Actin-based motility, light micrograph C017 / 8333

Actin-based motility, light micrograph C017 / 8333
Actin-based motility. 3D model made from optical sections of Shigella sp. bacteria (pink) infecting cells. Filaments of the protein actin, which is part of the cells cystoskeleton

Background imageMotile Collection: Cancer cell, artwork C013 / 4622

Cancer cell, artwork C013 / 4622
Cancer cell. Computer artwork of a single typical cancer cell in the human body. The uneven surface and cytoplasmic projections are characteristic of cancer cells

Background imageMotile Collection: Chlamydomonas sp. algae, SEM

Chlamydomonas sp. algae, SEM
Green algae. Coloured scanning electron micrograph (SEM) of two Chlamydomonas sp. green algae. These single-celled organisms are aquatic, living in freshwater habitats

Background imageMotile Collection: Euplotes ciliate protozoan, SEM

Euplotes ciliate protozoan, SEM
Euplotes ciliate protozoan. Coloured scanning electron micrograph (SEM) of a ciliate protozoan (Euplotes sp.). This single-celled organism is found in fresh and marine water

Background imageMotile Collection: Plankton cell wall, SEM

Plankton cell wall, SEM
Plankton cell wall. Coloured scanning electron micrograph (SEM) of the geometrical plates making up the mineralised cell wall of a planktonic alga (Coronosphaera mediterranea)

Background imageMotile Collection: Euglena protozoan, SEM

Euglena protozoan, SEM
Euglena protozoan (Euglena sp.), coloured scanning electron micrograph (SEM). This protozoan is described as flagellate because it has a flagellum (thin tail-like structure)

Background imageMotile Collection: Rotifer worm, light micrograph

Rotifer worm, light micrograph
Rotifer worm. Light micrograph of the rotifer worm Platyas quadricornis. This free-swimming, aquatic micro-organism has a body which is divided into three sections

Background imageMotile Collection: Flagellate protozoan, SEM

Flagellate protozoan, SEM
Flagellate protozoan, coloured scanning electron micrograph (SEM). This is a protozoan that has a flagellum (thin tail-like structure, lower left)

Background imageMotile Collection: Alga-covered protozoan, SEM

Alga-covered protozoan, SEM
Alga-covered protozoan, coloured scanning electron micrograph (SEM). Algae (blue) are seen on the body of the protozoan, and cilia (green) are used to waft the algae to the protozoans feeding area

Background imageMotile Collection: Protozoan cilia, SEM

Protozoan cilia, SEM
Protozoan cilia. Coloured scanning electron micrograph (SEM) of cilia (microscopic hairs) from a ciliate protozoan. Ciliate protozoans are single-celled aquatic organisms

Background imageMotile Collection: Breslauides ciliate protozoan, SEM

Breslauides ciliate protozoan, SEM
Breslauides ciliate protozoan. Coloured scanning electron micrograph (SEM) of a ciliate protozoan (Breslauides sp.). This tiny single-celled organism is found in water

Background imageMotile Collection: Protozoan cilia, SEM

Protozoan cilia, SEM
Protozoan cilia. Coloured scanning electron micrograph (SEM) of cilia (microscopic hairs) from a ciliate protozoan. Ciliate protozoans are single-celled aquatic organisms

Background imageMotile Collection: Blepharisma ciliate protozoan, SEM

Blepharisma ciliate protozoan, SEM
Blepharisma ciliate protozoan. Coloured scanning electron micrograph (SEM) of a ciliate protozoan (Blepharisma sp.). This tiny single- celled organism is found in freshwater

Background imageMotile Collection: Rotifer colony

Rotifer colony. Light micrograph of a colony of Conochilus hippocrepis rotifer worms. The colony is composed of between 50 and 100 individual worms, attached at the base of their feet

Background imageMotile Collection: Banded sea urchin

Banded sea urchin (Echinothrix calamaris). The sea urchin is an echinoderm, a relative of the star fish. Its exoskeleton shell, or test, is covered in spines that protect it from predators

Background imageMotile Collection: Helicobacter pylori bacterium, artwork

Helicobacter pylori bacterium, artwork

Background imageMotile Collection: Rotifer feeding, light micrograph

Rotifer feeding, light micrograph
Rotifer feeding. Light micrograph of a rotifer (centre) feeding on an alga (green, left). Rotifers (phylum Rotifera) are microscopic aquatic animals that are related to roundworms

Background imageMotile Collection: Frontonia protozoa, light micrograph

Frontonia protozoa, light micrograph
Frontonia protozoa. Light micrograph of a group of Frontonia sp. ciliate protozoa

Background imageMotile Collection: Euglena flagellate protozoan, SEM

Euglena flagellate protozoan, SEM
Euglena flagellate protozoan. Coloured scanning electron micrograph (SEM) of a Euglena sp. flagellate protozoan present in a urine sample taken from someone with a urinary tract infection (UTI)

Background imageMotile Collection: Frontonia protozoan, light micrograph

Frontonia protozoan, light micrograph
Frontonia protozoan. Light micrograph of a Frontonia sp. ciliate protozoan

Background imageMotile Collection: Philodina rotifer, light micrograph

Philodina rotifer, light micrograph
Philodina rotifer. Light micrograph of a Philodina roseola rotifers head, showing its mouthparts (left). Rotifers are microscopic aquatic animals that are related to roundworms

Background imageMotile Collection: Bacterial flagellum structure, artwork

Bacterial flagellum structure, artwork
Bacterial flagellum structure. Computer artwork of a section through a bacterial cell wall showing the structure of the flagellum base

Background imageMotile Collection: Rotifer foot, light micrograph

Rotifer foot, light micrograph. Rotifers are microscopic aquatic animals that are related to roundworms. The hair-like cilia surrounding the rotifers mouth (right) are used to trap food particles

Background imageMotile Collection: Paramecium protozoan, artwork

Paramecium protozoan, artwork
Paramecium protozoan. Computer artwork of a Paramecium sp. ciliate protozoan. Its single cell is covered in numerous cilia (white lines), hair-like structures that it beats for propulsion

Background imageMotile Collection: Loxophyllum ciliate, light micrograph

Loxophyllum ciliate, light micrograph
Loxophyllum ciliate. Light micrograph of a Loxophyllum helus ciliate protozoan. This tiny single-celled organism is found in marine environments

Background imageMotile Collection: Euglena flagellate protozoans, SEM

Euglena flagellate protozoans, SEM
Euglena flagellate protozoans. Scanning electron micrograph (SEM) of Euglena sp. flagellate protozoans. Euglena sp. is a freshwater unicellular (single-celled)

Background imageMotile Collection: Euglena protozoan, light micrograph

Euglena protozoan, light micrograph
Euglena protozoan. Differential interference contrast micrograph of the flagellate protozoan Euglena spirogyra. This freshwater single-celled organism can either obtain energy from sunlight

Background imageMotile Collection: Euglena protozoa, light micrograph

Euglena protozoa, light micrograph
Euglena protozoa. Differential interference contrast micrograph of the flagellate protozoa Euglena acus. These freshwater single-celled organisms can either obtain energy from sunlight

Background imageMotile 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 imageMotile Collection: S. maltophilia bacterium, TEM

S. maltophilia bacterium, TEM
Stenotrophomonas maltophilia bacterium, coloured transmission electron micrograph (TEM). This aerobic Gram-negative bacterium, previously known as Pseudomonas maltophilia

Background imageMotile 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 imageMotile Collection: Gastrotrich freshwater animal, SEM

Gastrotrich freshwater animal, SEM
Gastrotrich, coloured scanning electron micrograph (SEM). Gastrotrichs are microscopic, worm-like animals found in both freshwater and marine habitats

Background imageMotile Collection: Lepadella rotifer, light micrograph

Lepadella rotifer, light micrograph
Rotifer. Differential interference contrast micrograph of a Lepadella sp. rotifer. Rotifers are microscopic aquatic animals that are related to roundworms

Background imageMotile Collection: Synura golden-brown algae

Synura golden-brown algae
Golden-brown algae. Differential interference contrast micrograph of two Synura uvella golden-brown algae colonies. Each cell has two flagella (long hair-like structures)

Background imageMotile Collection: Campylobacter oral bacteria, TEM

Campylobacter oral bacteria, TEM
Campylobacter bacteria. Coloured transmission electron micrograph (TEM) of two Campylobacter rectus bacteria. These Gram-negative rod-shaped bacteria have single flagellum (hair-like strand)

Background imageMotile Collection: Bacterium

Bacterium. Computer artwork of a bacterium with numerous long flagella (upper right). The flagella are beaten to propel the bacterium

Background imageMotile Collection: Swimming bacterium, computer artwork

Swimming bacterium, computer artwork. This is a rod-shaped flagellated bacterium, meaning that it uses tail-like extensions (flagella, upper left) to propel itself forward

Background imageMotile Collection: E. coli and Shigella sp. bacteria

E. coli and Shigella sp. bacteria. Fluorescence confocal light micrograph of Escherichia coli and Shigella sp. bacteria (blue) in human Caco-2 cells (green)

Background imageMotile Collection: Swimming bacteria, computer artwork

Swimming bacteria, computer artwork. These are rod-shaped flagellated bacteria, meaning that they use tail-like extensions (flagella) to propel themselves forward

Background imageMotile Collection: S. maltophilia bacteria, TEM

S. maltophilia bacteria, TEM
Stenotrophomonas maltophilia bacteria, coloured transmission electron micrograph (TEM). This aerobic Gram-negative bacterium, previously known as Pseudomonas maltophilia



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"Exploring the World of Motile Microorganisms: A Captivating Journey" Embark on a mesmerizing journey into the microscopic realm, where life thrives in its most diverse and dynamic forms. From budding yeast cells to dendritic cells, from oxytricha ciliate protozoans to salmonella bacteria dividing, witness the incredible motility that drives these organisms forward. In this captivating artwork depicting dendritic cells, we are reminded of their crucial role in our immune system's defense mechanism. Their ability to move swiftly and efficiently allows them to detect foreign invaders and initiate an immune response. The intricate SEM image of Oxytricha ciliate protozoan showcases its remarkable mobility as it glides through water with grace. Its hair-like structures called cilia propel it forward, enabling it to navigate its surroundings effortlessly. Witness the awe-inspiring sight of a Salmonella bacterium dividing under the scanning electron microscope (SEM). This tiny organism demonstrates its agility as it multiplies rapidly, highlighting its adaptability and survival instincts. Plate 14 Peridinium Peridinea from Kunstformen der Natur by Ernst Haeckel introduces us to another fascinating motile creature. The delicate beauty of this peridinium species is captured in stunning detail, showcasing nature's artistic prowess. Paramecium sp. , another intriguing protozoan species seen through SEM imaging, exhibits swift movements using hair-like projections known as cilia. These tiny creatures gracefully swim through their aquatic habitat while feeding on bacteria and other microorganisms. Euglena gracilis reveals itself under SEM as a single-celled organism equipped with both flagellum for locomotion and chloroplasts for photosynthesis. Its ability to move towards light sources demonstrates nature's ingenious adaptations for survival. Pyrococcus furiosus archaea artwork portrays these heat-loving microorganisms thriving near hydrothermal vents deep beneath the ocean surface. Despite extreme conditions, they exhibit astonishing motility, defying the odds and thriving in their unique environment.

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