Differential Interference Collection

Wuchereria bancrofti parasite
Wuchereria bancrofti. Light micrograph of the microfilaria larval stage of the parasitic worm Wuchereria bancrofti, which causes filariasis in humans. W

Paramecium protozoa, light micrograph
Paramecium bursaria protozoa, light micrograph. These ciliate protozoa inhabit freshwater, where they feed mainly on bacteria

Dividing cell. Differential interference contrast (DIC) light micrograph of a cell (lower left) in the metaphase stage of mitosis (cell division). The cells nuclei are stained with fluorescent dye

Paramecium protozoan, light micrograph
Paramecium protozoan. Differential interference contrast micrograph of a Paramecium sp. protozoan. This ciliate protozoan inhabits freshwater, where it feeds mainly on bacteria

Pleurosigma sp diatoms, light micrograph
Diatoms. Differential interference contrast micrograph of Pleurosigma angulatum marine diatoms. Diatoms are a group of photosynthetic, single-celled algae containing about 10, 000 species

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

Actinosphaerium protozoan. Differential interference contrast micrograph of an Actinoshaerium sp. heliozoa protozoan. This single-celled freshwater organism has many pseudopodia radiating outwards

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

Shelled amoeba, light micrograph
Shelled amoeba. Differential interference contrast micrograph of the testate (shelled) amoeba Arcella sp.. The circular shell is formed form the polysaccharide chitin

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

Mosquito wing, light micrograph
Mosquito wing. Differential interference contrast micrograph of the scale-like hairs at the edge of northern house mosquitos (Culex pipiens) wing

Vorticella protozoa, light micrograph
Vorticella protozoa. Differential interference contrast micrograph of a colony of Vorticella sp.. This ciliate protozoan consists of a bell-shaped head and a stalk that is anchored to the substrate

Copepod larva, light micrograph
Copepod larva. Differential interference contrast micrograph of a nauplius larva. A nauplius is the first larval stage of a crustacean in which the thorax and abdomen have not developed yet

Kerona protozoan, light micrograph
Kerona protozoan. Differential interference contrast micrograph of the ciliate protozoan Kerona polyporum. This protozoan is parasitic on freshwater hydras.Magnification

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

Honey bee wing, light micrograph
Honey bee wing. Differential interference contrast micrograph of the upper surface of a honey bee (Apis mellifera) wing. Magnification about x150 when printed at 10 centimetres wide

Marine nematode worm, light micrograph
Marine nematode worm. Differential interference contrast micrograph of a marine nematode worm found in the North Sea. Magnification: x300 when printed at 10 centimetres wide

Green alga, light micrograph
Green alga. Differential interference contrast micrograph of the desmid green alga Euastrum didelta. Desmids are a common group of freshwater single-celled algae that have intricate cell walls. E

Gloeotrichia cyanobacteria. Differential interference contrast micrograph of filamentous colonies of Gloeotrichia sp. cyanobacteria (formally known as blue-green algae)

Spirogyra conjugation, light micrograph
Spirogyra algae. Differential interference contrast micrograph of Spirogyra sp. algae after conjugation, a form of sexual reproduction

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)

Black fly proboscis, light micrograph
Black fly proboscis. Differential interference contrast micrograph of the proboscis of a black fly (Simulium sp.). Female black flies feed on blood, while the males feed on nectar

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"Differential Interference: Unveiling the Intricacies of Cellular Warfare" In the microscopic realm, a silent battle unfolds as organisms fight for survival. One such example is the relentless struggle between Wuchereria bancrofti parasite and its host. Through differential interference, this parasitic worm cunningly manipulates mitosis within dividing cells, wreaking havoc on its unsuspecting victim. Under the lens of a light micrograph, Paramecium protozoa come into focus, showcasing their intricate structure and behavior. These single-celled organisms engage in an intense dance of life as they navigate their environment with grace and precision. The captivating images reveal the delicate beauty hidden within these tiny creatures. Amongst them, Vorticella protozoa captivate our attention with their unique appearance under the microscope's gaze. Their elegant stalks extend gracefully from their bodies like miniature springs ready to launch at any moment. This mesmerizing display highlights nature's remarkable diversity and adaptability. But it doesn't stop there; even more wonders await discovery in this microscopic world. A water bear emerges from obscurity, revealing its resilience against extreme conditions through its ability to survive desiccation and radiation exposure. Its tenacity serves as a reminder that life finds a way even in seemingly inhospitable environments. Pleurosigma sp diatoms add another layer of fascination to this narrative with their intricate patterns etched upon their silica shells. These beautiful structures not only serve as protection but also contribute to Earth's ecosystem by playing a crucial role in carbon cycling. Differential interference unravels these captivating stories hidden beneath our naked eyes' limitations—unlocking secrets that shed light on how organisms interact and adapt within their microscopic realms. As we delve deeper into this unseen world, we gain profound insights into the complexity of life itself—a testament to nature's ingenuity and endless surprises awaiting exploration beyond what meets our everyday sight.