Mouse brain cells hi-res stock photography and images

Mouse brain tissue under the microscope 100x Stock Photo

RMWX8CG1–Mouse brain tissue under the microscope 100x

In addition to blood vessels (red) and nerve cells (green), this mouse brain has abnormal clumps of proteins called plaques (blue). These plaques multiply in the brains of people with Alzheimer's disease and Stock Photo

RM2JKFT6C–In addition to blood vessels (red) and nerve cells (green), this mouse brain has abnormal clumps of proteins called plaques (blue). These plaques multiply in the brains of people with Alzheimer's disease and

A mouse brain in cross section Stock Photo

RM2J8X272–A mouse brain in cross section

Confocal laser scanning microscope image of cells in the hippocampus of the mouse brain Stock Photo

RM2EM5D21–Confocal laser scanning microscope image of cells in the hippocampus of the mouse brain

mouse brain under the microscope Stock Photo

RFR6NPP3–mouse brain under the microscope

Confocal laser scanning microscopy image of immunofluorescence- labelled cells in the cerebral cortex of the mouse brain Stock Photo

RF2GYNB6E–Confocal laser scanning microscopy image of immunofluorescence- labelled cells in the cerebral cortex of the mouse brain

Longitudinal section of mouse head with brain, spinal cord and tongue Stock Photo

RF2GXE0GE–Longitudinal section of mouse head with brain, spinal cord and tongue

RF2F9NN6A–Longitudinal section of mouse head with brain, spinal cord and tongue

buttons on the circuit Board close up on a black background. Stock Photo

RF2D9BCTB–buttons on the circuit Board close up on a black background.

semiconductor components on a black background Stock Photo

RF2BNARH2–semiconductor components on a black background

This photo shows the cerebellum (a part of the brain) of a mouse embryo. Multiplying neurons are shown in red. Purkinje cells, a specific kind of neuron important for the regulation of fine movements, equilibrium, and posture, are shown in green. Blue color indicates all the cell nuclei. This image was taken as part of a NIAMS-supported study of the effect of the enzyme Ezh2 on the development of neurons in the embryonic brain ca. 2016 Stock Photo

RM2HP6NJD–This photo shows the cerebellum (a part of the brain) of a mouse embryo. Multiplying neurons are shown in red. Purkinje cells, a specific kind of neuron important for the regulation of fine movements, equilibrium, and posture, are shown in green. Blue color indicates all the cell nuclei. This image was taken as part of a NIAMS-supported study of the effect of the enzyme Ezh2 on the development of neurons in the embryonic brain ca. 2016

New born neurons in the transgenic mouse hippocampus (dentate gyrus) labeled with green fluorescent marker Stock Photo

RFFRRC6Y–New born neurons in the transgenic mouse hippocampus (dentate gyrus) labeled with green fluorescent marker

Fiber optics background with lots of light spots Stock Photo

RFCC6AXJ–Fiber optics background with lots of light spots

RMHRJGK3–Cerebellum, Fluorescent LM

RFCC69G7–Fibre Optical

A shot of the back side of a new computer mother board This image is a nice background image for print material related to compu Stock Photo

RFB1NRG4–A shot of the back side of a new computer mother board This image is a nice background image for print material related to compu

. Biology of the laboratory mouse. Mice as laboratory animals; Mice; Animals, Laboratory; Mice. SPONTANEOUS NEOPLASMS IN MICE 229 both sexes. The only other cases in the Uterature are a papillary adenoma of the ependyma cells of the lateral ventricle, an endothelioma of the cere- brum and an adenoma of the hypophysis in 11,118 autopsies by Slye (60). One other adenoma of the hypophysis has been reported (19). In our stocks we have diagnosed two adenocarcinomas of the hypophysis composed chiefly. Normal brain —Medulloblastoma Fig. 126.—Medulloblastoma from the brain of a mouse (X200). of eosino Stock Photo

RMRHK4PM–. Biology of the laboratory mouse. Mice as laboratory animals; Mice; Animals, Laboratory; Mice. SPONTANEOUS NEOPLASMS IN MICE 229 both sexes. The only other cases in the Uterature are a papillary adenoma of the ependyma cells of the lateral ventricle, an endothelioma of the cere- brum and an adenoma of the hypophysis in 11,118 autopsies by Slye (60). One other adenoma of the hypophysis has been reported (19). In our stocks we have diagnosed two adenocarcinomas of the hypophysis composed chiefly. Normal brain —Medulloblastoma Fig. 126.—Medulloblastoma from the brain of a mouse (X200). of eosino

UI Set of 64 Basic Line Icons of arrow, valentine, pencil, love, shape Vector Illustration Stock Vector

RF2BMHJW0–UI Set of 64 Basic Line Icons of arrow, valentine, pencil, love, shape Vector Illustration

RMWX8G55–Mouse brain tissue under the microscope 100x

$Type II neurons (green) in the mouse cochlea contact many hair cells, but represent only a small fraction of neurons in the auditory nerve, the nerve that transmits sound information from the ear to the brain . Scientists are just beginning to study the role of type II neurons in hearing. Stock Photo$

RM2JKFTP3–Type II neurons (green) in the mouse cochlea contact many hair cells, but represent only a small fraction of neurons in the auditory nerve, the nerve that transmits sound information from the ear to the brain . Scientists are just beginning to study the role of type II neurons in hearing.

Confocal laser scanning microscopy image of immunofluorescence- labelled cells in the ventral tegmental area of the mouse brain Stock Photo

RF2GYNB79–Confocal laser scanning microscopy image of immunofluorescence- labelled cells in the ventral tegmental area of the mouse brain

RF2BNARHA–semiconductor components on a black background

RFCC6BA4–Fibre Optical

RFCC6B8X–Fiber Optical

. Animal biology. Biology; Zoology; Physiology. i^^rfrwin r/Aki*^ E Epithelium. Fig 7. — Various types of cells, highly magnified. A, egg and sperm of Segmented Worm; B, muscle cells (unstriated) from bladder of Frog; C, one white and three red blood cells of Frog; D, pigment cell from skin of Fish; E, epithelial cells (ciliated), including a gland cell, from intestine of Dog; F, nerve cell (neuron) from brain of Mouse.. Please note that these images are extracted from scanned page images that may have been digitally enhanced for readability - coloration and appearance of these illustrations Stock Photo

RMRN5PNF–. Animal biology. Biology; Zoology; Physiology. i^^rfrwin r/Aki*^ E Epithelium. Fig 7. — Various types of cells, highly magnified. A, egg and sperm of Segmented Worm; B, muscle cells (unstriated) from bladder of Frog; C, one white and three red blood cells of Frog; D, pigment cell from skin of Fish; E, epithelial cells (ciliated), including a gland cell, from intestine of Dog; F, nerve cell (neuron) from brain of Mouse.. Please note that these images are extracted from scanned page images that may have been digitally enhanced for readability - coloration and appearance of these illustrations

RMWX8G4X–Mouse brain tissue under the microscope 100x

A section of the auditory nerve in a young adult mouse. Supporting glial cells (blue) line the neural fibers (red) and allow rapid and reliable transfer of sound information from the ear to the brain. Researchers can test whether they target glial cells to prevent neural loss and restore hearing. Stock Photo

RM2JKFT6W–A section of the auditory nerve in a young adult mouse. Supporting glial cells (blue) line the neural fibers (red) and allow rapid and reliable transfer of sound information from the ear to the brain. Researchers can test whether they target glial cells to prevent neural loss and restore hearing.

Confocal laser scanning microscopy image of immunofluorescence- labelled cells in the hippocampus of the mouse brain. Corpus callosum fibers are also Stock Photo

RF2GYN9RH–Confocal laser scanning microscopy image of immunofluorescence- labelled cells in the hippocampus of the mouse brain. Corpus callosum fibers are also

Confocal microscopy image of immunofluorescence- labelled cells in the hippocampus of the mouse brain. Callosal fibers and part of cortex seen Stock Photo

RF2H084TA–Confocal microscopy image of immunofluorescence- labelled cells in the hippocampus of the mouse brain. Callosal fibers and part of cortex seen

Sagittal section of mouse cerebellum labelled with immunofluorescence and visualized with confocal laser scanning microscopy. Large Purkinje cells and Stock Photo

RF2GYN9GK–Sagittal section of mouse cerebellum labelled with immunofluorescence and visualized with confocal laser scanning microscopy. Large Purkinje cells and

RF2BNARHR–semiconductor components on a black background

RFCC6B8W–Fiber Optical

RMWX8CM8–Mouse brain tissue under the microscope 100x

This photo shows the cerebellum (part of the brain) of a mouse embryo. Multiplicating neurons are shown in red. Purkinje cells, a specific type of neuron important for regulating fine movement, balance and posture, are shown in green. Blue color indicates all cell nuclei. This image was awarded as part of a NIAMS-supported study on the effect of the enzyme Ezh2 on the development of neurons in the embryonic brain. Stock Photo

RM2JKFTF2–This photo shows the cerebellum (part of the brain) of a mouse embryo. Multiplicating neurons are shown in red. Purkinje cells, a specific type of neuron important for regulating fine movement, balance and posture, are shown in green. Blue color indicates all cell nuclei. This image was awarded as part of a NIAMS-supported study on the effect of the enzyme Ezh2 on the development of neurons in the embryonic brain.

RF2GYN9E5–Sagittal section of mouse cerebellum labelled with immunofluorescence and visualized with confocal laser scanning microscopy. Large Purkinje cells and

semiconductor components on a blue background Stock Photo

RF2BNARH6–semiconductor components on a blue background

RFCC6B8P–Fiber Otical

RMWX8CHW–Mouse brain tissue under the microscope 100x

An NIH-funded mouse study suggests that a high-salt diet may impair the brain. A high-salt diet in mice can increase the number of immune cells releasing IL17 (green), which can negatively affect blood flow in the brain. Stock Photo

RM2JKFTDR–An NIH-funded mouse study suggests that a high-salt diet may impair the brain. A high-salt diet in mice can increase the number of immune cells releasing IL17 (green), which can negatively affect blood flow in the brain.

RF2GYN9NH–Sagittal section of mouse cerebellum labelled with immunofluorescence and visualized with confocal laser scanning microscopy. Large Purkinje cells.

semiconductor components on a red background Stock Photo

RF2BNARHN–semiconductor components on a red background

RMWX8CGX–Mouse brain tissue under the microscope 100x

A newborn mouse cochlea (purple) grown in cell culture and neurons (orange) that send information from the cochlea to the brain. The cochlea is the hearing organ of the inner ear. Researchers use these miniature structures to learn how individual cell types work and to test potential therapies for hearing loss. Stock Photo

RM2JKFTD0–A newborn mouse cochlea (purple) grown in cell culture and neurons (orange) that send information from the cochlea to the brain. The cochlea is the hearing organ of the inner ear. Researchers use these miniature structures to learn how individual cell types work and to test potential therapies for hearing loss.

RF2GYNB3G–Sagittal section of mouse cerebellum labelled with immunofluorescence and visualized with confocal laser scanning microscopy. Large Purkinje cells

Section of mouse brain internal capsule, with oligodendrocyte processes labelled with immunofluorescence and visualized with a confocal microscope Stock Photo

RF2H084WF–Section of mouse brain internal capsule, with oligodendrocyte processes labelled with immunofluorescence and visualized with a confocal microscope

Cerebral cortex in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser scanning microscopy Stock Photo

RF2GYN9BB–Cerebral cortex in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser scanning microscopy

Section of mouse hippocampus area CA1, cells labelled with immunofluorescence and visualized with a confocal laser scanning microscope Stock Photo

RF2GYNA0Y–Section of mouse hippocampus area CA1, cells labelled with immunofluorescence and visualized with a confocal laser scanning microscope

Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is. Stock Photo

RF2EM5FD0–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RF2EM5JBA–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

Projections of neurons from the visual cortex are known to extend to cells in the brainstem that regulate innate motors. This image shows a neural projection of the visual cortex of a mouse. Stock Photo

RM2JKFTKT–Projections of neurons from the visual cortex are known to extend to cells in the brainstem that regulate innate motors. This image shows a neural projection of the visual cortex of a mouse.

RMWX8G3T–Mouse brain tissue under the microscope 100x

RF2EM5J86–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

This image shows distinct neural connections in a cross section of a mouse's hippocampus, a region of the brain involved in remembering facts and events. The large crescent-shaped area in green is the CA1 hippocampal area. Its highly specialized neurons, called location cells, serve as the brain's GPS system for tracking location. In red, the CA2 hippocampal area. It is important for former memories of social interactions. Stock Photo

RM2JKFTCP–This image shows distinct neural connections in a cross section of a mouse's hippocampus, a region of the brain involved in remembering facts and events. The large crescent-shaped area in green is the CA1 hippocampal area. Its highly specialized neurons, called location cells, serve as the brain's GPS system for tracking location. In red, the CA2 hippocampal area. It is important for former memories of social interactions.

RMWX8G3P–Mouse brain tissue under the microscope 100x

RF2EM5JD3–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

In a mouse model of Niemann-Pick type C disease, the cerebellum is stained for Purkinje cells (yellow) and inflammation (red). Stock Photo

RM2JKFT9M–In a mouse model of Niemann-Pick type C disease, the cerebellum is stained for Purkinje cells (yellow) and inflammation (red).

RF2EM5J9H–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RMWX8CKK–Mouse brain tissue under the microscope 100x

Cerebral cortex and part of the hippocampus under it in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser Stock Photo

RF2GYN9XM–Cerebral cortex and part of the hippocampus under it in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser

Cerebellar folium from a section of mouse brain, labelled with immunofluorescence and recorded with confocal laser scanning microscopy. Purkinje cells Stock Photo

RF2GRDBCE–Cerebellar folium from a section of mouse brain, labelled with immunofluorescence and recorded with confocal laser scanning microscopy. Purkinje cells

Section of mouse rostral hippocampus labelled with immunofluorescence and visualized with a confocal laser scanning microscope Stock Photo

RF2GYNA4J–Section of mouse rostral hippocampus labelled with immunofluorescence and visualized with a confocal laser scanning microscope

Section of mouse cerebral cortex, with oligodendrocytes labelled with immunofluorescence and visualized with a confocal laser scanning microscope Stock Photo

RF2GYNA7D–Section of mouse cerebral cortex, with oligodendrocytes labelled with immunofluorescence and visualized with a confocal laser scanning microscope

RF2GRDB0B–Cerebral cortex and part of the hippocampus under it in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser

In this image, the researchers used a newly developed polarized light microscope to plot the spatial orientation of neurons in a thin section of the mouse midbrain. Neurons that stretch horizontally displayed in green, while those oriented at a 45 degree angle are pinkish red and those at 225 degrees are purplish blue. These colors do not involve staining or labeling the cells with fluorescent markers: the colors are emitted strictly from light interacting with the physical orientation of each neuron. Stock Photo

RM2JKFTN3–In this image, the researchers used a newly developed polarized light microscope to plot the spatial orientation of neurons in a thin section of the mouse midbrain. Neurons that stretch horizontally displayed in green, while those oriented at a 45 degree angle are pinkish red and those at 225 degrees are purplish blue. These colors do not involve staining or labeling the cells with fluorescent markers: the colors are emitted strictly from light interacting with the physical orientation of each neuron.

RMWX8G79–Mouse brain tissue under the microscope 100x

RF2GRDA87–Cerebral cortex and part of the hippocampus under it in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser

RF2GRD9RX–Cerebral cortex and part of the hippocampus under it in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser

RF2EM5EHE–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RF2EM5E8M–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

New findings in a responsible mouse study that a loss of mossy cells may contribute to seizures and memory problems in a form of epilepsy. Stock Photo

RM2JKFTE6–New findings in a responsible mouse study that a loss of mossy cells may contribute to seizures and memory problems in a form of epilepsy.

RF2GRED9B–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

A mouse neuron in the striatum imaged using a two-photon light microscope allows researchers to measure dendritic spine changes and their influence on addiction. Stock Photo

RM2JKFTFF–A mouse neuron in the striatum imaged using a two-photon light microscope allows researchers to measure dendritic spine changes and their influence on addiction.

RF2GRECC1–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

Meningeal macrophages (shown in white, red, and blue) are always alert to potential threats to brain tissue. Stock Photo

RM2JKFTCY–Meningeal macrophages (shown in white, red, and blue) are always alert to potential threats to brain tissue.

RF2GRECXD–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

Researchers have identified connections between neurons in brain systems associated with reward, stress and emotion. Conducted on mice, the new study could help unravel several psychiatric disorders, including alcohol use disorders, anxiety disorders, insomnia and depression in humans. Stock Photo

RM2JKFTJ5–Researchers have identified connections between neurons in brain systems associated with reward, stress and emotion. Conducted on mice, the new study could help unravel several psychiatric disorders, including alcohol use disorders, anxiety disorders, insomnia and depression in humans.

RF2GREBGY–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

Smell-sensitive neurons form long connections (pink) that enter the brain through the nasal passages, where they interact with other types of neurons (blue and yellow). Throughout life, these neurons die and are replaced by new ones. Researchers are trying to figure out how and when this happens in mice. Stock Photo

RM2JKFTHW–Smell-sensitive neurons form long connections (pink) that enter the brain through the nasal passages, where they interact with other types of neurons (blue and yellow). Throughout life, these neurons die and are replaced by new ones. Researchers are trying to figure out how and when this happens in mice.

RF2GREBG7–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

Close-up of neurons in a mouse with Niemann-Pick type C1 neurodegenerative disease. A major way to assess the impact of a therapeutic potential on the central nervous system is to assess cerebellar pathology in mice. Stock Photo

RM2JKFTM2–Close-up of neurons in a mouse with Niemann-Pick type C1 neurodegenerative disease. A major way to assess the impact of a therapeutic potential on the central nervous system is to assess cerebellar pathology in mice.

RF2GRECW9–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

An NIH-funded mouse study is the first to show that visual stimulation helps rewire the visual system and partially restores sight. This image shows regeneration of mouse retinal ganglion cell axons (magenta and green) extending from the site of optic nerve injury (left). Stock Photo

RM2JKFTR6–An NIH-funded mouse study is the first to show that visual stimulation helps rewire the visual system and partially restores sight. This image shows regeneration of mouse retinal ganglion cell axons (magenta and green) extending from the site of optic nerve injury (left).

RF2GRECCP–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

A genetic disorder of the nervous system, neurofibromatosis causes tumors to form on nerves throughout the body, including a type of tumor called optic nerve glioma that can lead to childhood blindness. The image was used to activate the unique imaging capabilities of one of our most recent (at the time) laser scanning microscopes and is of a wild-type (normal) mouse retina in the fiber optic layer. Stock Photo

RM2JKFTME–A genetic disorder of the nervous system, neurofibromatosis causes tumors to form on nerves throughout the body, including a type of tumor called optic nerve glioma that can lead to childhood blindness. The image was used to activate the unique imaging capabilities of one of our most recent (at the time) laser scanning microscopes and is of a wild-type (normal) mouse retina in the fiber optic layer.

RF2GREDA0–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RMCT4FGX–ORIENTIA TSUTSUGAMUSHI

RF2GREC08–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RMCT4FTH–ORIENTIA TSUTSUGAMUSHI

RF2GREBYP–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RF2GREDP2–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RF2GRECTR–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RF2GRED8G–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RF2GREC0T–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

RF2GRECN7–Mouse brain section stained with the Golgi stain, a 19th century technique that was widely used until recently - and occasionally still is.

Cerebellar folium from a section of mouse brain, labelled with immunofluorescence and recorded with confocal laser scanning microscopy. Large Purkinje Stock Photo

RF2AYH7NT–Cerebellar folium from a section of mouse brain, labelled with immunofluorescence and recorded with confocal laser scanning microscopy. Large Purkinje

RF2AYH715–Cerebellar folium from a section of mouse brain, labelled with immunofluorescence and recorded with confocal laser scanning microscopy. Large Purkinje

RF2AYH61C–Cerebral cortex and part of the hippocampus under it in a section of a mouse brain, labelled with immunofluorescence and recorded with confocal laser

Mouse brain cells Stock Photos and Images

Mouse brain cells Stock Photos and Images

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