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Histology Collection (#2)

Histology, the study of tissues at a microscopic level, unveils the intricate beauty and complexity of our body's structures

Background imageHistology Collection: Histology of flowering plant (colour litho)

Histology of flowering plant (colour litho)
5200665 Histology of flowering plant (colour litho) by English School, (19th century); Private Collection; (add.info.: Histology of flowering plant)

Background imageHistology Collection: Charles-Francois Brisseau de Mirbel (engraving)

Charles-Francois Brisseau de Mirbel (engraving)
815844 Charles-Francois Brisseau de Mirbel (engraving) by French School, (19th century); Private Collection; (add.info.: Charles-Francois Brisseau de Mirbel (1776-18)

Background imageHistology Collection: Marie Francois Xavier Bichat, French physiologist and anatomist (chromolitho)

Marie Francois Xavier Bichat, French physiologist and anatomist (chromolitho)
1094403 Marie Francois Xavier Bichat, French physiologist and anatomist (chromolitho) by French School, (19th century); Private Collection; (add.info.: Marie Francois Xavier Bichat (1771-1802)

Background imageHistology Collection: SCHWANN, Theodor (1810 - 1882). German physiologist

SCHWANN, Theodor (1810 - 1882). German physiologist, anatomist and naturalist. He developed the cell theory. Oil

Background imageHistology Collection: Anatomy of the human skin

Anatomy of the human skin

Background imageHistology Collection: Medical ilustration of a pilonidal cyst near the natal cleft of the buttocks

Medical ilustration of a pilonidal cyst near the natal cleft of the buttocks

Background imageHistology Collection: Santiago Ramon and Cajal (1852-1934) Spanish histologist, physician and pathologist

Santiago Ramon and Cajal (1852-1934) Spanish histologist, physician and pathologist
Santiago Ramon and Cajal (1852-1934).. Spanish histologist, physician and pathologist. He made important discoveries such as laws governing the morphology and connections of nerve cells in the brain

Background imageHistology Collection: Gout crystals

Gout crystals. Polarised light micrograph of uric acid crystals in the synovial fluid (a lubricating liquid in joints) from a patient with gout

Background imageHistology Collection: Santiago Ramon y Cajal, histologist

Santiago Ramon y Cajal, histologist
Santiago Ramon y Cajal (1852-1934), Spanish histologist. Ramon y Cajal was apprenticed to a barber and a shoemaker before taking up medicine

Background imageHistology Collection: Plant cell mitosis, light micrograph

Plant cell mitosis, light micrograph
Plant cell mitosis. Light micrograph of root tip cells from an onion (Allium sp.) undergoing cell division (mitosis). From top left to bottom right

Background imageHistology Collection: Marcello Malpighi, 1628 - 1694. Italian biologist and physician

Marcello Malpighi, 1628 - 1694. Italian biologist and physician. Considered as the "Father of microscopical
Marcello Malpighi, 1628 - 1694. Italian biologist and physician. Considered as the " Father of microscopical anatomy, histology, physiology and embryology"

Background imageHistology Collection: Marie Francois Xavier Bichat 1771 To 1802 French Anatomist And Physiologist Engraved By H Cook

Marie Francois Xavier Bichat 1771 To 1802 French Anatomist And Physiologist Engraved By H Cook After Vigneron From The Book The National Portrait Gallery Volume Iii Published C1820

Background imageHistology Collection: Thymus gland, light micrograph C015 / 4970

Thymus gland, light micrograph C015 / 4970
Thymus gland. Light micrograph of a section through tissue from the thymus gland, part of the lymphoid system. The dense areas are the thymic cortex, which produces lots of lymphocytes

Background imageHistology Collection: Myeloblast blood cell, light micrograph

Myeloblast blood cell, light micrograph
Myeloblast blood cell. Light micrograph of blood cells, including a myeloblast, a precursor for a type of white blood cell (leucocyte). Myeloblasts differentiate into granulocytes

Background imageHistology Collection: Eosinophil white blood cell, TEM

Eosinophil white blood cell, TEM
Eosinophil white blood cell. Transmission electron micrograph (TEM) of a section through an eosinophil white blood cell (leukocyte)

Background imageHistology Collection: Pancreatic acinar cell

Pancreatic acinar cell. Transmission electron micrograph (TEM) of a section through an enzyme-secreting acinar cell in the human pancreas, showing part of the nucleus (round, far left)

Background imageHistology Collection: Promyelocyte blood cell, light micrograph

Promyelocyte blood cell, light micrograph. This blood cell (centre) is a precursor for a type of white blood cell called a granulocyte, formed by granulopoiesis in the bone marrow

Background imageHistology Collection: Macrophage and lymphocytes, TEM

Macrophage and lymphocytes, TEM
Macrophage and lymphocytes, transmission electron micrograph (TEM). Macrophage surrounded by lymphocytes in a lymph node. This view includes many intercellular contacts

Background imageHistology Collection: Hepatocyte liver cell, TEM

Hepatocyte liver cell, TEM
Hepatocyte liver cell. Transmission electron micrograph (TEM) of a section through an hepatocyte liver cell, showing rough and smooth endoplasmic reticulum (ER, dark lines)

Background imageHistology Collection: Liver tissue, TEM

Liver tissue, TEM
Liver tissue. Transmission electron micrograph (TEM) of a section through the liver, showing part of a radial cord of hepatocyte liver cells (dark) and the vascular sinusoids (white)

Background imageHistology Collection: Cartilage cell, TEM C014 / 1433

Cartilage cell, TEM C014 / 1433
Cartilage cell. Transmission electron micrograph (TEM) of a section through a chondrocyte cell from hyaline cartilage of the trachea (windpipe)

Background imageHistology Collection: Cartilage cell, TEM C014 / 1434

Cartilage cell, TEM C014 / 1434
Cartilage cell. Transmission electron micrograph (TEM) of a section through a chondrocyte cell from hyaline cartilage of the trachea (windpipe)

Background imageHistology Collection: Lancet liver fluke C014 / 4846

Lancet liver fluke C014 / 4846
Lancet liver fluke (Dicrocoelium dendriticum). This parasitic trematode (flatworm) tends to live in cattle or other grazing mammals

Background imageHistology Collection: Skeletal muscle, TEM C016 / 5369

Skeletal muscle, TEM C016 / 5369
Skeletal muscle. Transmission electron micrograph (TEM) of a cross section through human skeletal (striated) muscle. Blocks of muscle (lighter grey) are surrounded by connective tissue (black)

Background imageHistology Collection: Earthworm, transverse section

Earthworm, transverse section
Earthworm. Light micrograph of a transverse section through the body of a round segmented earthworm (Lumbricus terrestris) in the intestinal region

Background imageHistology Collection: Coloured SEM of a human hair on the skin

Coloured SEM of a human hair on the skin
Hair on skin. Coloured Scanning Electron Micro- graph (SEM) of a hair on the surface of human skin. At centre is a shaft of hair (dark grey) which has emerged from a follicle in the skin

Background imageHistology Collection: Eyelash hairs, SEM

Eyelash hairs, SEM
Eyelash hairs and skin. Coloured scanning electron micrograph (SEM) of eyelash hairs growing from the surface of human skin

Background imageHistology Collection: Bladder epithelium, light micrograph

Bladder epithelium, light micrograph
Bladder epithelium. Light micrograph of a vertical section through the wall of the urinary bladder. The inner surface is at top

Background imageHistology Collection: Lung alveoli

Lung alveoli. Light micrograph of a section through normal human lung tissue showing alveoli. These are tiny air sacs where most of the diffusion of gases to and from the blood occurs

Background imageHistology Collection: Cardiac muscle, TEM

Cardiac muscle, TEM
Cardiac muscle. Coloured transmission electron micrograph (TEM) of cardiac muscle fibrils (orange)from a healthy heart. Mitochondria (pink) supply the muscle cells with energy

Background imageHistology 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 imageHistology Collection: Blood platelets

Blood platelets. Coloured scanning electron micro- graph (SEM) of activated blood platelets. Platelet cells (thrombocytes) are formed in the bone marrow

Background imageHistology Collection: Whale bone tissue, light micrograph

Whale bone tissue, light micrograph

Background imageHistology Collection: Hazel nut, light micrograph

Hazel nut, light micrograph
Hazel nut. Light micrograph of a section through a nut from a common hazel (Corylus avellana) tree, showing the large amount of fat (red) stored within endosperm tissue

Background imageHistology Collection: Desmosome cell junction, artwork

Desmosome cell junction, artwork
Desmosome cell junction. Computer artwork showing the structure of an adhesion junction, or desmosome. Desmosomes form the most common type of junction between epithelial cells

Background imageHistology Collection: Skin and hair follicles, light micrograph

Skin and hair follicles, light micrograph
Skin and hair follicles. Light micrograph of a section through skin, showing hair follicles (dark purple circular structures). Haematoxylin and eosin stain

Background imageHistology Collection: Visual system, Eye, Iris cells under microscope

Visual system, Eye, Iris cells under microscope
Medicine - Human Histology - Visual system - Eye - Iris cells under microscope

Background imageHistology Collection: Microscopic view inside of the artery with intestinal villi

Microscopic view inside of the artery with intestinal villi

Background imageHistology Collection: Illustration of an atypical growth on the skin that could be a sign of skin cancer

Illustration of an atypical growth on the skin that could be a sign of skin cancer
Illustration of an atypical growth on the skin that could be a warning sign of skin cancer. Sudden change in the appearance, shape, color, size

Background imageHistology Collection: Conceptual image of pancreatic islet of Langerhans

Conceptual image of pancreatic islet of Langerhans

Background imageHistology Collection: Microscopic view of phospholipids

Microscopic view of phospholipids. Phospholipids are a major component of all cell membranes as they can form lipid bilayers

Background imageHistology Collection: Conceptual image of intestinal villi

Conceptual image of intestinal villi

Background imageHistology Collection: Microscopic view of plant tissues

Microscopic view of plant tissues

Background imageHistology Collection: Conceptual image of simple cuboidal epithelia

Conceptual image of simple cuboidal epithelia

Background imageHistology Collection: Surrounding tissue becomes inflamed causing several systemic effects

Surrounding tissue becomes inflamed causing several systemic effects, such as vasodilation, mucous secretion, nerve stimulation and smooth muscle contraction

Background imageHistology Collection: Antihistamine in histamine receptors blocking the allergic reaction

Antihistamine in histamine receptors blocking the allergic reaction

Background imageHistology Collection: Microscopic view of intestinal villi inside the small intestine

Microscopic view of intestinal villi inside the small intestine
Microscopic view of intestinal villi which can be found inside of the small intestine

Background imageHistology Collection: Conceptual image of stratified squamous epithelium

Conceptual image of stratified squamous epithelium




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Histology, the study of tissues at a microscopic level, unveils the intricate beauty and complexity of our body's structures. Through techniques like light micrography and transmission electron microscopy (TEM), scientists have been able to explore various tissues and unravel their secrets. One such tissue is the cerebellum, which plays a crucial role in coordinating movement and balance. By examining cerebellum tissue under a light microscope, we can observe its distinct layers and cell types. The synapse nerve junctions captured through TEM reveal the precise connections between neurons that allow for seamless communication. In 1894, Spanish histologist Santiago Ramon y Cajal created an exquisite drawing showcasing different cell types within the mammalian cerebellum. His meticulous work laid the foundation for understanding neural networks. Moving beyond just one region of the brain, histologists also delve into other fascinating areas like the hippocampus. Microscopic examination of hippocampus brain tissue provides insights into memory formation and spatial navigation. Purkinje nerve cells found within the cerebellum are particularly captivating under scrutiny. Their elaborate branching patterns give rise to their unique appearance when observed through a microscope slide. Histological studies extend beyond neurological tissues; they encompass organs throughout our body systems as well. For instance, kidney tubules in section offer glimpses into renal function while highlighting their structural organization. The human brain itself holds countless mysteries waiting to be unraveled by histologists examining microscope slides containing delicate slices of this complex organ. These slides provide glimpses into both healthy brains and those affected by diseases like Alzheimer's - offering valuable insights into neurodegenerative disorders. Exploring deeper with TEM reveals cellular components such as rough endoplasmic reticulum - an organelle involved in protein synthesis - providing detailed views at nanoscale resolution. Histology not only focuses on neurons but also encompasses glial cells that support neuronal functions. Light micrographs capturing glial stem cell cultures showcase the potential for regeneration and repair within the nervous system.