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Microvillus Collection

Microvilli are tiny, finger-like projections that cover various surfaces in our body, playing crucial roles in different physiological processes

Background imageMicrovillus Collection: Gallbladder surface, SEM

Gallbladder surface, SEM
Gallbladder. Coloured scanning electron micrograph (SEM) of the surface of the gallbladder showing the numerous microvilli that cover the columnar epithelium

Background imageMicrovillus Collection: Illustration showing intestinal villi

Illustration showing intestinal villi
Human anatomy: intestinal villi. Drawing

Background imageMicrovillus Collection: Intestinal microvilli, TEM

Intestinal microvilli, TEM
Intestinal microvilli, coloured transmission electron micrograph (TEM). The microvilli are finger-like projections (seen here in circular cross-section)

Background imageMicrovillus Collection: Goblet cells

Goblet cells. Coloured transmission electron micrograph (TEM) of a section through goblet cells in the lining of the small intestine, part of the digestive tract. They are full of mucus (yellow)

Background imageMicrovillus Collection: Microscopic view of white blood cells inside blood vessel

Microscopic view of white blood cells inside blood vessel

Background imageMicrovillus Collection: Interior detail of the cochlea

Interior detail of the cochlea

Background imageMicrovillus Collection: Red blood cells with leukocytes

Red blood cells with leukocytes

Background imageMicrovillus Collection: Cluster of blastomeres forming a developing morula

Cluster of blastomeres forming a developing morula (early stage of embryonic development)

Background imageMicrovillus Collection: Red blood cell flow inside the artery

Red blood cell flow inside the artery

Background imageMicrovillus Collection: Microscopic view of H5N1 virus with red blood cells and white blood cells

Microscopic view of H5N1 virus with red blood cells and white blood cells

Background imageMicrovillus Collection: Microscopic view of plasma cell inside blood vessel

Microscopic view of plasma cell inside blood vessel

Background imageMicrovillus Collection: Microscopic cross section view of the small intestine

Microscopic cross section view of the small intestine. TheAsmall intestineAis a long, highly convoluted tube in the digestive system that absorbs about 90% of the nutrients from the food we eat

Background imageMicrovillus Collection: Red blood cells with white blood cells

Red blood cells with white blood cells

Background imageMicrovillus Collection: Intestinal microvilli, SEM C016 / 9066

Intestinal microvilli, SEM C016 / 9066
Intestinal microvilli. Coloured scanning electron micrograph (SEM) of a section through the lining of the small intestine, showing the densely packed microvilli (hair-like, top)

Background imageMicrovillus Collection: Intestinal microvilli, SEM C016 / 9067

Intestinal microvilli, SEM C016 / 9067
Intestinal microvilli. Coloured scanning electron micrograph (SEM) of a section through the lining of the small intestine, showing the densely packed microvilli (hair-like, top)

Background imageMicrovillus Collection: Intestinal brush border, TEM

Intestinal brush border, TEM
Intestinal brush border. Transmission electron micrograph (TEM) of intestinal absorptive cells sectioned horizontally at their apex to show the surface microvilli (round)

Background imageMicrovillus Collection: Gallbladder surface, SEM C015 / 9613

Gallbladder surface, SEM C015 / 9613
Gallbladder surface, coloured scanning electron micrograph (SEM). The columnar epithelium of the surface is covered in microvilli (tiny hair-like projections)

Background imageMicrovillus Collection: Gallbladder surface, SEM C015 / 9611

Gallbladder surface, SEM C015 / 9611
Gallbladder surface, coloured scanning electron micrograph (SEM). At centre are three secretory glands (yellow). The columnar epithelium of the surface is covered in microvilli

Background imageMicrovillus Collection: Gallbladder surface, SEM C015 / 9612

Gallbladder surface, SEM C015 / 9612
Gallbladder surface, coloured scanning electron micrograph (SEM). The columnar epithelium of the surface is covered in microvilli (tiny hair-like projections)

Background imageMicrovillus Collection: Trachea lining, TEM C014 / 1469

Trachea lining, TEM C014 / 1469
Trachea lining. Transmission electron micrograph (TEM) of a longitudinal section through the lining of the trachea (windpipe), which links the larynx (voicebox) to the lungs

Background imageMicrovillus Collection: Mouth cancer cell, SEM C014 / 1460

Mouth cancer cell, SEM C014 / 1460
Mouth cancer cell. Coloured scanning electron micrograph (SEM) of a squamous cell carcinoma (cancer) cell from a human mouth

Background imageMicrovillus Collection: Intestinal microvilli, SEM C014 / 1452

Intestinal microvilli, SEM C014 / 1452
Intestinal microvilli. Coloured transmission electron micrograph (SEM) of a transverse section through microvilli, showing their interiors

Background imageMicrovillus Collection: Mouth cancer cell, SEM C014 / 1459

Mouth cancer cell, SEM C014 / 1459
Mouth cancer cell. Coloured scanning electron micrograph (SEM) of a squamous cell carcinoma (cancer) cell from a human mouth

Background imageMicrovillus Collection: Dividing cancer cell, SEM C014 / 0362

Dividing cancer cell, SEM C014 / 0362
Dividing cancer cell. Coloured scanning electron micrograph (SEM) of a colorectal cancer cell undergoing mitosis (nuclear division) and splitting into two daughter cells (left and right)

Background imageMicrovillus Collection: Intestinal microvilli, SEM C014 / 1451

Intestinal microvilli, SEM C014 / 1451
Intestinal microvilli. Coloured transmission electron micrograph (SEM) of a transverse section through microvilli, showing their interiors

Background imageMicrovillus Collection: Trachea lining, TEM C014 / 1471

Trachea lining, TEM C014 / 1471
Trachea lining. Transmission electron micrograph (TEM) of a transverse section through the lining of the trachea (windpipe), which links the larynx (voicebox) to the lungs

Background imageMicrovillus Collection: Intestinal microvilli, TEM C014 / 1454

Intestinal microvilli, TEM C014 / 1454
Intestinal microvilli. Transmission electron micrograph (TEM) of a section through an epithelial cell from a human small intestine, showing the densely packed microvilli

Background imageMicrovillus Collection: Intestinal microvilli, TEM C014 / 1453

Intestinal microvilli, TEM C014 / 1453
Intestinal microvilli. Transmission electron micrograph (TEM) of a section through an epithelial cell from a human small intestine, showing the densely packed microvilli

Background imageMicrovillus Collection: Trachea lining, TEM C014 / 1470

Trachea lining, TEM C014 / 1470
Trachea lining. Transmission electron micrograph (TEM) of a longitudinal section through the lining of the trachea (windpipe), which links the larynx (voicebox) to the lungs

Background imageMicrovillus Collection: Trachea lining, TEM C014 / 1472

Trachea lining, TEM C014 / 1472
Trachea lining. Transmission electron micrograph (TEM) of a transverse section through the lining of the trachea (windpipe), which links the larynx (voicebox) to the lungs

Background imageMicrovillus Collection: Mouth cancer cells, SEM

Mouth cancer cells, SEM
Mouth cancer cells. Coloured scanning electron micrograph (SEM) of squamous cell carcinoma (cancer) cells from a human mouth

Background imageMicrovillus Collection: Mouth cancer cell dividing, SEM

Mouth cancer cell dividing, SEM
Mouth cancer dividing. Coloured scanning electron micrograph (SEM) of a squamous cell carcinoma (cancer) cell from a human mouth undergoing mitosis (nuclear division)

Background imageMicrovillus Collection: Mouth cancer cell, SEM

Mouth cancer cell, SEM
Mouth cancer cell. Coloured scanning electron micrograph (SEM) showing the surface of a squamous cell carcinoma (cancer) cell from a human mouth

Background imageMicrovillus Collection: Small bowel epithelium, TEM

Small bowel epithelium, TEM
Small bowel epithelium. Transmission electron micrograph (TEM) of a section through the epithelial lining of a villus in the small bowel, showing the enterocyte cells

Background imageMicrovillus Collection: Dividing cancer cell, SEM C014 / 0361

Dividing cancer cell, SEM C014 / 0361
Dividing cancer cell. Coloured scanning electron micrograph (SEM) of a colorectal cancer cell undergoing mitosis (nuclear division) and splitting into two daughter cells (left and right)

Background imageMicrovillus Collection: Dividing brain cancer cells, SEM C014 / 0354

Dividing brain cancer cells, SEM C014 / 0354
Dividing brain cancer cells. Coloured scanning electron micrograph (SEM) of a cancerous astrocyte brain cell that has just undergone cytokinesis (cell division)

Background imageMicrovillus 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 imageMicrovillus 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 imageMicrovillus Collection: Kidney tubule, TEM

Kidney tubule, TEM
Kidney tubule. Coloured transmission electron micrograph (TEM) of a section through a proximal convoluted tubule in the kidney

Background imageMicrovillus Collection: Trachea lining, TEM

Trachea lining, TEM
Trachea lining. Coloured transmission electron micrograph (TEM) of a transverse section through the lining of the trachea (windpipe). The trachea links the larynx to the lungs

Background imageMicrovillus Collection: Intestinal microvilli, SEM

Intestinal microvilli, SEM
Intestinal microvilli. Coloured scanning electron micrograph (SEM) of microvilli from the duodenum, the first part of the small intestine

Background imageMicrovillus Collection: Kidney tubules, SEM

Kidney tubules, SEM
Kidney tubules. Coloured scanning electron micrograph (SEM) of proximal convoluted tubules (dark brown) in the kidney. The proximal convoluted tubules function to reabsorb water

Background imageMicrovillus Collection: Small intestine microvilli, SEM

Small intestine microvilli, SEM
Microvilli in the small intestine, coloured freeze-fracture scanning electron micrograph (SEM). The microvilli (across upper centre)

Background imageMicrovillus Collection: Inner ear sensory cells, SEM

Inner ear sensory cells, SEM
Inner ear sensory cells. Coloured scanning electron micrograph (SEM) of bundles of cilia (hair cells, blue) situated in the macula utriculi within the human inner ear



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Microvilli are tiny, finger-like projections that cover various surfaces in our body, playing crucial roles in different physiological processes. When examining the gallbladder surface under a scanning electron microscope (SEM), these microvilli appear as numerous small protrusions, enhancing the organ's ability to absorb nutrients efficiently. An illustration depicting intestinal villi showcases the intricate structure of microvilli found on their surface. These microscopic folds increase the absorptive area of the intestines, aiding in nutrient absorption and digestion. Under a transmission electron microscope (TEM), we can observe intestinal microvilli up close. These delicate structures extend from the epithelial cells lining our intestines and further amplify nutrient absorption by maximizing contact with digested food particles. In another fascinating view inside our bodies, a microscopic image reveals white blood cells navigating through blood vessels. Here, microvilli within these vessels contribute to maintaining proper blood flow and facilitating immune responses when encountering pathogens or injuries. Venturing into the auditory system, an interior detail of the cochlea unveils specialized hair cells adorned with microvilli. These sensory structures convert sound vibrations into electrical signals for us to perceive sounds accurately. Examining red blood cells alongside leukocytes provides insight into how microvillous interactions occur within our circulatory system. Microvilli on endothelial cells lining arteries help regulate blood flow while allowing efficient exchange between oxygen-carrying red blood cells and protective white blood cells defending against infections. During embryonic development, blastomeres cluster together forming a developing morula – an early stage embryo consisting of multiple dividing cells. Microscopic examination highlights how cell-to-cell communication facilitated by intercellular bridges formed by microvilli plays a vital role in this process. Zooming back into circulation dynamics, observing red blood cell flow inside an artery demonstrates how smoothly they navigate past each other thanks to well-organized arrangements of endothelial cell microvilli along vessel walls.