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Tissues Collection

Tissues: Unveiling the Hidden World within Our Bodies Step into a world of wonder as we explore the intricate and diverse realm of tissues

Background imageTissues Collection: Teddy Bear (with hidden objects)

Teddy Bear (with hidden objects)

Background imageTissues Collection: Maize root, light micrograph

Maize root, light micrograph
Maize root. Light micrograph of a section through the root of a maize plant (Zea mays) showing a vascular cylinder (centre)

Background imageTissues Collection: Starvation, degrees of wasting (litho)

Starvation, degrees of wasting (litho)
5998374 Starvation, degrees of wasting (litho) by English School, (20th century); Private Collection; (add.info.: Starvation, degrees of wasting)

Background imageTissues Collection: Figure, a mechanical exerciser (b / w photo)

Figure, a mechanical exerciser (b / w photo)
5998387 Figure, a mechanical exerciser (b/w photo) by English Photographer, (20th century); Private Collection; (add.info.: Figure, a mechanical exerciser)

Background imageTissues Collection: Horse Pattern (Koma shobu), from the series Horses, 1822. Creator: Hokusai

Horse Pattern (Koma shobu), from the series Horses, 1822. Creator: Hokusai
Horse Pattern (Koma shobu), from the series Horses, 1822

Background imageTissues Collection: Traditional organic, raw asparagus called Asparagina type, Italy, Europe

Traditional organic, raw asparagus called Asparagina type, Italy, Europe

Background imageTissues Collection: Iris root, light micrograph

Iris root, light micrograph
Iris root. Light micrograph of a section through the root of an Iris plant (Iris germanica) showing a vascular cylinder. The cylinder is comprised of a central cluster of parenchyma cells (red)

Background imageTissues Collection: Tissue Manufacture

Tissue Manufacture
A group of Russian women whiten tissues in a field. Date: circa 1900

Background imageTissues Collection: mode of dividing the tissues in the amputation, medical equipment, surgical instrument

mode of dividing the tissues in the amputation, medical equipment, surgical instrument, history of medicine

Background imageTissues Collection: Lazzaro Spallanzani (1729-1799) Italian biologist. He worked on bacteria (disproved

Lazzaro Spallanzani (1729-1799) Italian biologist. He worked on bacteria (disproved spontaneous generation), digestion (first to use term gastric juice)

Background imageTissues Collection: Black and white Cocker Spaniel pulling tissues from a box with one in its mouth

Black and white Cocker Spaniel pulling tissues from a box with one in its mouth

Background imageTissues Collection: Human skin section, light micrograph

Human skin section, light micrograph
Human skin. Light micrograph of a section through healthy human skin. The outer surface of the skin is at top. The uppermost surface is the epidermis

Background imageTissues Collection: Human skin section, light micrograph P710 / 0472

Human skin section, light micrograph P710 / 0472
Human skin. Light micrograph of a section through healthy human skin. The outer surface of the skin is at top. The uppermost surface is the epidermis

Background imageTissues Collection: Veins of the Human Circulatory System. C017 / 3504

Veins of the Human Circulatory System. C017 / 3504
Plate from 18th century encyclopedia showing an illustration of the human circulatory system. In the circulatory system, veins (from the Latin vena)

Background imageTissues Collection: Leg anatomy, artwork C013 / 4497

Leg anatomy, artwork C013 / 4497
Leg anatomy. Computer artwork of an oblique posterior view looking up a human leg, showing muscles and tendons (brown and white), bones and ligaments (white), arteries and veins (red and blue)

Background imageTissues Collection: Leg anatomy, artwork C013 / 4495

Leg anatomy, artwork C013 / 4495
Leg anatomy. Computer artwork of an oblique side view looking down a human leg, showing muscles and tendons (brown and white), bones and ligaments (white), arteries and veins (red and blue)

Background imageTissues Collection: Leg anatomy, artwork C013 / 4496

Leg anatomy, artwork C013 / 4496
Leg anatomy. Computer artwork of an oblique anterior view looking up a human leg, showing muscles and tendons (brown and white), bones and ligaments (white), arteries and veins (red and blue)

Background imageTissues Collection: Leg anatomy, artwork C013 / 4493

Leg anatomy, artwork C013 / 4493
Leg anatomy. Computer artwork of an oblique anterior view looking down a human leg, showing muscles and tendons (brown and white), bones and ligaments (white), arteries and veins (red and blue)

Background imageTissues Collection: Leg anatomy, artwork C013 / 4494

Leg anatomy, artwork C013 / 4494
Leg anatomy. Computer artwork of an oblique anterior view looking down a human leg, showing muscles and tendons (brown and white), bones and ligaments (white), arteries and veins (red and blue)

Background imageTissues Collection: Leg ligaments, artwork

Leg ligaments, artwork
Leg anatomy. Computer artwork of an anterior view of a human leg, showing the muscles and tendons (brown and white), bones and ligaments (white), arteries and veins (red and blue), nerves (yellow)

Background imageTissues Collection: Researcher storing alcohol preserved Nitsches Bush Viper (Atheris nitschei) dead specimen in ethanol

Researcher storing alcohol preserved Nitsches Bush Viper (Atheris nitschei) dead specimen in ethanol, with tissue samples for molecular analysis, during field survey in tropical montane rainforest

Background imageTissues Collection: Eye structure, light micrograph

Eye structure, light micrograph
Eye structure. Coloured light micrograph of a section through the inner surface of a human eye. This slice shows the vitreous humour (transparent liquid in the eye, top), the retina (pink)

Background imageTissues Collection: Lymph node, SEM

Lymph node, SEM
Lymph node. Coloured scanning electron micrograph (SEM) of a freeze fracture section through a lymph node, showing part of the medullary sinus

Background imageTissues Collection: Osteoblasts, TEM

Osteoblasts, TEM
Osteoblasts. Coloured transmission electron micrograph of osteoblasts, bone-producing cells (pink). They contain rough endoplasmic reticulum (RER, dark pink lines), which produces

Background imageTissues Collection: Breast implant calcification, X-ray

Breast implant calcification, X-ray
Breast implant calcification. Coloured mammogram (breast X-ray) of calcification around the borders of a breast implant (pink) in a womans breast (red) as seen from the side

Background imageTissues Collection: Gauchers disease

Gauchers disease. Light micrograph of a section through a human liver with Gauchers disease. It is a genetic disorder (autosomal recessive)

Background imageTissues Collection: Histology microscope slides

Histology microscope slides. Histologist removing a glass slide from a tray of stored slides. These slides contain thin slices of stained tissue that are analysed using a light microscope

Background imageTissues Collection: Organ engineering, conceptual image

Organ engineering, conceptual image. Computer artwork of a machine printing a kidney, representing the artificial engineering of human tissue to produce organs for transplant

Background imageTissues Collection: Sarsaparilla plant stem, light micrograph

Sarsaparilla plant stem, light micrograph
Maize root. Polarised light micrograph of a section through the root of a sarsaparilla plant (Smilax regelii) showing a vascular cylinder

Background imageTissues Collection: Oleander stem, light micrograph

Oleander stem, light micrograph
Oleander stem. Light micrograph of a cross-section through the stem of an oleander (Nerium oleander) tree. The outer layer is a thick cuticle (yellow) and then cork cambium (blue-green)

Background imageTissues Collection: Blackcurrant plant stem, light micrograph

Blackcurrant plant stem, light micrograph
Blackcurrant plant stem. Light micrograph of a cross-section through the stem of a blackcurrant (Ribes nigrum) plant. The outer cortex (blue and pale brown) is made of cork cambium tissue

Background imageTissues Collection: Spikenard stem, light micrograph

Spikenard stem, light micrograph
Spikenard stem. Light micrograph of a cross-section through the stem of a Spikenard (Aralia sp.) tree. The dark red cells just beneath the surface bark are collenchyma cells

Background imageTissues Collection: Dog rose stem, light micrograph

Dog rose stem, light micrograph
Dog rose stem. Polarised light micrograph of a cross-section through the stem of a dog rose (Rosa canina) plant. The outer cortex (black and red) is made of cork cambium tissue

Background imageTissues Collection: Elm stem, light micrograph

Elm stem, light micrograph
Elm stem (Ulmus procera) section, polarised light micrograph. The black horizontal lines are multiseriate rays, which are composed of several rows of cells

Background imageTissues Collection: Willow stem, light micrograph

Willow stem, light micrograph
Willow stem. Light micrograph of a cross-section through the stem of a willow (Salix sp.) tree. At centre is the pith (white), surrounded by woody xylem tissue (pink)

Background imageTissues Collection: Maple stem, light micrograph

Maple stem, light micrograph
Maple stem. Polarised light micrograph of a cross-section through the stem of a field maple (Acer campestre). This shows the thick layer of cork (phellem)

Background imageTissues Collection: Nettle leaf stalk structures, LM

Nettle leaf stalk structures, LM
Nettle leaf stalk structures. Polarised light micrograph (LM) of a nettle leaf (Urtica dioica), which has been boiled up with dilute sodium hydroxide to separate the cells

Background imageTissues Collection: Mature poppy ovary, light micrograph

Mature poppy ovary, light micrograph
Mature poppy ovary. Light micrograph (LM) of a cross-section through a mature poppy ovary, which is incompletely divided by septa (membranes) that do not meet in the centre

Background imageTissues Collection: Section through a pine needle, LM

Section through a pine needle, LM
Section through a pine needle. Light micrograph (LM) of a section through the needle (leaf) of a pine tree, Pinus sp.. The centre of the needle is occupied by two vascular bundles

Background imageTissues Collection: The Tissue Moth Triphosa dubitata Essex, UK IN000599

The Tissue Moth Triphosa dubitata Essex, UK IN000599
COS-2224 The Tissue Moth Essex, UK Triphosa dubitata Bill Coster Please note that prints are for personal display purposes only and may not be reproduced in any way



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Tissues: Unveiling the Hidden World within Our Bodies Step into a world of wonder as we explore the intricate and diverse realm of tissues. Just like a teddy bear concealing hidden objects, our bodies are filled with these remarkable structures that play vital roles in our health and well-being. Under the microscope, we discover mesmerizing images that showcase nature's artistry. The maize root, elm stem, and dog rose stem light micrographs reveal an astonishing complexity within plant tissues. Each delicate cell intertwines to support growth and nourishment, reminding us of the interconnectedness of all living things. But it is not just plants that possess fascinating tissue compositions; humans too have their own unique tapestry. Starvation leaves its mark on our bodies, degrees of wasting captured lithographically showcasing the heartbreaking consequences when they can deprived of sustenance. In contrast to this somber reality, a black-and-white photo captures a figure engaging in mechanical exercise—a testament to human resilience and determination to keep our tissues strong through physical activity. Art also finds inspiration in tissues. Hokusai's "Horse Pattern" from his renowned series "Horses" showcases how even ancient artists recognized the beauty found within these biological wonders. Beyond aesthetics lies innovation—tissue manufacture revolutionizes medical advancements by providing life-saving solutions for those in need. Iris root light micrograph reminds us that progress often stems from understanding nature at its core. Yet sometimes circumstances demand more drastic measures—the mode of dividing tissues during amputation requires specialized medical equipment and surgical instruments designed with precision to ensure patient well-being while preserving functionality. As we delve deeper into this captivating subject matter, Picture No. 10877009 transports us back in time—to Lazzaro Spallanzani's groundbreaking work disproving spontaneous generation theory—an essential milestone in unraveling the mysteries surrounding bacteria and further expanding our knowledge about cellular organization. So let us marvel at these unseen heroes working tirelessly within us, silently orchestrating the symphony of life.