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Gaseous Exchange Collection

"Gaseous Exchange: The Intricate Dance of Life" In this captivating engraving, we delve into the fascinating world within living organisms

Background imageGaseous Exchange Collection: Anatomy of Organs Engraving

Anatomy of Organs Engraving
Engraved illustrations of Anatomy of the Fasciae, Integuents, and Organs of Mastication and Respiration from Iconographic Encyclopedia of Science, Literature and Art, Published in 1851

Background imageGaseous Exchange Collection: Lung tissue, TEM

Lung tissue, TEM
Lung tissue, coloured transmission electron micrograph (TEM). A single alveolus is at center. At top right is a pulmonary capillary containing a red blood cell (red) and a platelet (yellow)

Background imageGaseous Exchange Collection: Lungs and bronchial tree, artwork

Lungs and bronchial tree, artwork
Lungs, computer artwork. Both the bronchial tree, the network of airways serving both lungs, and the overall shape of the lungs, is shown here

Background imageGaseous Exchange Collection: Yeast and sugar solution turned into froth of carbon dioxide (anaerobic respiration)

Yeast and sugar solution turned into froth of carbon dioxide (anaerobic respiration)

Background imageGaseous Exchange Collection: Fish gills, SEM C015 / 8613

Fish gills, SEM C015 / 8613
Fish gills. Coloured scanning electron micrograph (SEM) of filaments from fish gills. These filaments provide a large surface area for the exchange of carbon dioxide for oxygen

Background imageGaseous Exchange Collection: Fish gills, SEM C015 / 8663

Fish gills, SEM C015 / 8663
Fish gills. Coloured scanning electron micrograph (SEM) of filaments from fish gills. These filaments provide a large surface area for the exchange of carbon dioxide for oxygen

Background imageGaseous Exchange Collection: Fish gills, SEM C015 / 8661

Fish gills, SEM C015 / 8661
Fish gills. Coloured scanning electron micrograph (SEM) of filaments from fish gills. These filaments provide a large surface area for the exchange of carbon dioxide for oxygen

Background imageGaseous Exchange Collection: Fish gills, SEM C015 / 8660

Fish gills, SEM C015 / 8660
Fish gills. Coloured scanning electron micrograph (SEM) of filaments from fish gills. These filaments provide a large surface area for the exchange of carbon dioxide for oxygen

Background imageGaseous Exchange Collection: Yew Tree Leaf Surface (SEM)

Yew Tree Leaf Surface (SEM)
Yew tree leaf surface. Coloured scanning electron micrograph (SEM) of the surface of the leaf of an English yew (Taxus baccata)

Background imageGaseous Exchange Collection: Yew Leaf Stomata (SEM)

Yew Leaf Stomata (SEM)
Yew stomata. Coloured scanning electron micrograph (SEM) of stomata (pores) on the surface of the leaf of an English yew (Taxus baccata)

Background imageGaseous Exchange Collection: Pine needle surface, SEM C015 / 5167

Pine needle surface, SEM C015 / 5167
Pine needle surface. Coloured environmental scanning electron micrograph (ESEM) of the surface of a pine needle (Pinus sp.) showing stomata (red)

Background imageGaseous Exchange Collection: Tomato leaf, SEM C015 / 5173

Tomato leaf, SEM C015 / 5173
Tomato leaf. Coloured environmental scanning electron micrograph (ESEM) of the surface of a tomato (Solanum lycopersicum) leaf

Background imageGaseous Exchange Collection: Tomato leaf stoma, SEM C015 / 5174

Tomato leaf stoma, SEM C015 / 5174
Tomato leaf stoma. Coloured environmental scanning electron micrograph (ESEM) of a stoma (centre) on the surface of a tomato (Solanum lycopersicum) leaf

Background imageGaseous Exchange Collection: Tomato leaf, SEM C015 / 5172

Tomato leaf, SEM C015 / 5172
Tomato leaf. Coloured environmental scanning electron micrograph (ESEM) of the surface of a tomato (Solanum lycopersicum) leaf

Background imageGaseous Exchange Collection: Tobacco leaf, SEM C015 / 5171

Tobacco leaf, SEM C015 / 5171
Tobacco leaf. Coloured environmental scanning electron micrograph (ESEM) of the surface of a tobacco (Nicotiana sp.) leaf

Background imageGaseous Exchange Collection: Pine needle stoma, SEM C015 / 5168

Pine needle stoma, SEM C015 / 5168
Pine needle stoma. Coloured environmental scanning electron micrograph (ESEM) of a stoma (red) on the surface of a pine needle (Pinus sp.)

Background imageGaseous Exchange Collection: Closed stoma on Kalanchoe leaf, SEM C016 / 4428

Closed stoma on Kalanchoe leaf, SEM C016 / 4428
Closed stoma on Kalanchoe leaf. Coloured scanning electron micrograph (SEM) of a leaf from the succulent Kalanchoe blossfeldiana, showing a closed stoma (centre)

Background imageGaseous Exchange Collection: Closed stoma on Kalanchoe leaf, SEM C016 / 4427

Closed stoma on Kalanchoe leaf, SEM C016 / 4427
Closed stoma on Kalanchoe leaf. Coloured scanning electron micrograph (SEM) of a leaf from the succulent Kalanchoe blossfeldiana, showing a closed stoma (centre)

Background imageGaseous Exchange Collection: Closed stoma on Kalanchoe leaf, SEM C016 / 4424

Closed stoma on Kalanchoe leaf, SEM C016 / 4424
Closed stoma on Kalanchoe leaf. Coloured scanning electron micrograph (SEM) of a leaf from the succulent Kalanchoe blossfeldiana, showing a closed stoma (centre)

Background imageGaseous Exchange Collection: Spiderwort leaf surface, light micrograph

Spiderwort leaf surface, light micrograph
Spiderwort lead surface. Light micrograph of a stomata (centre and bottom right) on the lead of a spiderwort (Tradescantia sp.) plant

Background imageGaseous Exchange Collection: Chickens egg outer shell detail, SEM

Chickens egg outer shell detail, SEM
Chickens egg outer shell detail, coloured scanning electron micrograph (SEM). Hard-shelled eggs are produced by birds and some reptiles. The shell protects the growing embryo inside

Background imageGaseous Exchange Collection: Clams gill, SEM

Clams gill, SEM
Clams gill, coloured scanning electron micrograph (SEM). The gill is the respiratory organ of a clam, being responsible for extracting oxygen from the water

Background imageGaseous Exchange Collection: Lung, X-ray

Lung, X-ray
Lung. Coloured bronchography (X-ray) of a healthy human lung. A contrast medium has been added to show the network of airways (green) in the right lung

Background imageGaseous Exchange Collection: Lung alveoli, SEM

Lung alveoli, SEM
Lung alveoli. Coloured scanning electron micrograph (SEM) of alveoli (air spaces) in the lungs. Blood vessels containing erythrocytes (red blood cells) are also seen

Background imageGaseous Exchange Collection: Alveolar cell, TEM

Alveolar cell, TEM
Alveolar cell. Coloured transmission electron micrograph (TEM) of a section through a type II alveolar cell. This cell is found in the alveoli (air sacs) of the lungs

Background imageGaseous Exchange Collection: Lung blood vessel, SEM

Lung blood vessel, SEM
Lung blood vessel. Coloured scanning electron micrograph (SEM) of blood vessels around alveoli (air spaces, dark brown) in the lungs. Erythrocytes (red blood cells) are seen in the blood vessel

Background imageGaseous Exchange Collection: Bronchial tree, computer artwork

Bronchial tree, computer artwork. The human bronchial tree is the network of airways serving both lungs. The trunk of the tree is the trachea (windpipe, top centre)

Background imageGaseous Exchange Collection: Lungs, computer artwork

Lungs, computer artwork. Both the bronchial tree, the network of airways serving both lungs, and the overall shape of the lungs, is shown here

Background imageGaseous Exchange Collection: Plant stomata, artwork

Plant stomata, artwork
Plant stomata. Artwork of a section through a leaf showing a stoma (black and grey, upper centre). Stomata are pores in the epidermis of the leaf and the site of gaseous exchange in the plant

Background imageGaseous Exchange Collection: Lung alveolus blood supply, artwork

Lung alveolus blood supply, artwork. The alveoli (air sacs) are the site of gaseous exchange in the lungs. Carbon dioxide from de-oxygenated red blood cells (blue) passes from the capillaries

Background imageGaseous Exchange Collection: Mint leaf surface, SEM

Mint leaf surface, SEM
Mint leaf surface. Coloured scanning electron micrograph (SEM) of the surface of a mint (Menta sp.) leaf. The white structures are oil glands

Background imageGaseous Exchange Collection: Feverfew leaf surface, SEM

Feverfew leaf surface, SEM
Feverfew leaf surface. Coloured scanning electron micrograph (SEM) of a stoma on the leaf of a feverfew (Tanacetum parthenium) plant

Background imageGaseous Exchange Collection: Lung alveolus, artwork

Lung alveolus, artwork
Lung alveolus, computer artwork. Alveoli are the site of gas exchange in the lungs of mammals, where oxygen is taken up and carbon dioxide released

Background imageGaseous Exchange Collection: Soft rush stem, light micrograph

Soft rush stem, light micrograph
Soft rush stem. Fluorescent light micrograph of a cross section through pith from a soft rush (Juncus effusus) stem. The star-shaped aerenchyma tissue (upper frame)

Background imageGaseous Exchange Collection: Lung alveoli and red blood cells, TEM

Lung alveoli and red blood cells, TEM
Lung alveoli and red blood cells. Coloured transmission electron micrograph (TEM) of a section through lung alveoli (blue) and red blood cells (red)

Background imageGaseous Exchange Collection: Lung alveoli and blood cells, TEM

Lung alveoli and blood cells, TEM
Lung alveoli and blood cells. Coloured transmission electron micrograph (TEM) of a section through lung alveoli and blood cells

Background imageGaseous Exchange Collection: Ivy stem, SEM

Ivy stem, SEM
Ivy stem. Coloured scanning electron micrograph (SEM) of the surface of an ivy plant stem. The star- shaped trichomes, a type of modified hair cell, may function in preventing water loss

Background imageGaseous Exchange Collection: Sunflower leaf, SEM

Sunflower leaf, SEM
Sunflower leaf. Coloured scanning electron micrograph (SEM) of the underside of a sunflower leaf (Helianthus annuus). The green and yellow structures are trichomes

Background imageGaseous Exchange Collection: Closed stoma, SEM

Closed stoma, SEM
Closed stoma. Coloured scanning electron micrograph (SEM) of a closed stoma (centre) on the leaf surface of the succulent Kalanchoe (Kalanchoe blossfeldiana)

Background imageGaseous Exchange Collection: Tomato leaf surface, SEM

Tomato leaf surface, SEM
Tomato leaf surface. Coloured scanning electron micrograph (SEM) of the surface of a tomato leaf (Lycopersicon esculentum). It is covered in trichomes (red), which secrete oil, and hairs

Background imageGaseous Exchange Collection: Leaf stomata, light micrograph

Leaf stomata, light micrograph
Leaf stomata. Light micrograph of a vertical section down through the surface of a leaf from a Scots pine tree (Pinus sylvestris)

Background imageGaseous Exchange Collection: Plant pores, SEM

Plant pores, SEM
Plant pores. Coloured scanning electron micrograph (SEM) of stomata (pores) on the pistil of a bellflower (Adenophora sp.). Stomata are the site of gaseous exchange, or respiration

Background imageGaseous Exchange Collection: Bronchial tree and lungs, artwork

Bronchial tree and lungs, artwork
Bronchial tree. Computer artwork representing a human bronchial tree and lungs. The human bronchial tree is the network of airways serving both lungs



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"Gaseous Exchange: The Intricate Dance of Life" In this captivating engraving, we delve into the fascinating world within living organisms. The intricate anatomy of organs comes to life, revealing the remarkable mechanisms that enable survival. Firstly, we witness a mesmerizing transformation as yeast and sugar solution ferment, producing a froth brimming with carbon dioxide through anaerobic respiration. This process highlights how even in the absence of oxygen, life finds ingenious ways to sustain itself. Moving on to the bronchial tree artwork series, we are transported into the realm of mammals' respiratory system. These branching passageways intricately connect our lungs to every corner of our bodies, ensuring efficient gas exchange. With each breath we take, oxygen fills our lungs while carbon dioxide is expelled – an essential dance that keeps us alive. But it's not just mammals who possess such incredible adaptations; fish too have their own unique method for gaseous exchange. Through scanning electron microscopy (SEM), we explore fish gills in astonishing detail. These delicate structures allow water rich in oxygen to flow over them while extracting precious O2 molecules and releasing CO2 back into their watery environment. The enchanting images captured by SEM C015/8613/8663/8661/8660 showcase nature's ingenuity at its finest – a testament to evolution's ceaseless quest for survival strategies. Gaseous exchange serves as a reminder that life is interconnected and constantly adapting to its surroundings. Whether it be through intricate anatomical engravings or microscopic wonders revealed under SEMs lens - these snapshots offer glimpses into the awe-inspiring beauty hidden within every breath taken by living organisms around us.