Phosphates Collection

DNA molecule, computer model
DNA molecule. Computer artwork of the molecular structure of DNA (deoxyribonucleic acid). The DNA molecule is composed of two strands twisted into a double helix

West Indies Sombrero
(Leeward Islands) Formerly exploited for its phosphates but, sad to say, the deposits are now exhausted

Torbernite on Quartz, Wheal Basset, Illogan, Cornwall, England
An earthy, orange coated, quartz mass bearing fine towers and clusters of books of emerald to bottle green square plates of torbernite

Marble, phosphates etc (colour litho)
3648655 Marble, phosphates etc (colour litho) by English School, (20th century); Private Collection; (add.info.: Marble, phosphates etc)

Phosphates, wavellite, lazulite, cuprouranite, vivianite, turquoise (colour litho)
2797873 Phosphates, wavellite, lazulite, cuprouranite, vivianite, turquoise (colour litho) by English School, (20th century); Private Collection; (add.info.: Phosphates, wavellite, lazulite)

Phosphates, apatite, pyromorphite, vanadinite, erythrite (colour litho)
2797874 Phosphates, apatite, pyromorphite, vanadinite, erythrite (colour litho) by English School, (20th century); Private Collection; (add.info.: Phosphates, apatite, pyromorphite, vanadinite)

Genetic sequence. Printout of the genetic code of a single strand of DNA (deoxyribonucleic acid). DNA normally comprises two spiralling paired strands of sugar phosphates that are linked by

Phosphate factory, Metlaoui, Tunisia, North Africa
Phosphate factory at Metlaoui, Tunisia, North Africa. Date: circa 1910

Phosphates Quay, Bone (Annaba), Algeria, with railway trucks and stored goods. Date: circa 1910

Illustration of turquoise in rough form

Monazite

Amblygonite on rock surface, close-up

Torbernite crystals in iron-rich groundmass, close-up

A piece of Xenotime

Pyromorphite crystals in limonite groundmass, close-up

Wavellite

Turquoise embedded in iron oxide groundmass, close up

Autunite crystals, close-up

DNA quadruplex, molecular model. This dimeric quadruplex of DNA (deoxyribonucleic acid) is thought to form as part of telomeres

DNA hybrid duplex, molecular model. This model shows a chimeric junction, where a DNA (deoxyribonucleic acid) strand changes from one form to another

John Lawes, British agriculturalist
John Bennet Lawes (1814-1900), British agriculturalist and chemist, in a caricature published in the British weekly magazine Vanity Fair in 1882

DNA with money. Computer artwork of a DNA double helix superimposed over a British 20 pound note. This image could represent the commercial implications of DNA research

Destruction of DNA helix. The computer artwork may represent the breakdown of DNA during an explosion or the destruction of DNA in hot, molten lava

Man and DNA. Computer artwork of a DNA molecule wrapped around a male figure. A molecule of DNA (deoxyribonucleic acid) consists of two strands of sugar phosphates forming a double helix (spiral)

DNA in bubble. Conceptual computer artwork of a DNA double helix within a bubble in water. This image could represent the fragility of the DNA molecule or the need for protection of an individuals

DNA in space. Computer artwork of a DNA double helix in space above Earth. This may represent the possible uniqueness of Earth as a cradle of life in the universe

DNA helix on circuit board. Computer artwork representing the fusion of computers and humans to form cybernetic beings, or the use of computers in genetic engineering to design improved humans

Woman and DNA. Computer artwork of a DNA molecule wrapped around a female figure. A molecule of DNA (deoxyribonucleic acid) consists of two strands of sugar phosphates forming a double helix (spiral)

DNA and a genetic sequence
DNA model and a genetic sequence. Printout of the genetic code of a single strand of DNA (deoxyribo- nucleic acid). Also seen is a model of DNA

DNA helices. Models showing the double helix and nucleotide base structure of DNA (deoxyribonucleic acid) molecules. The double helix is formed by two spiralling strands of sugar phosphates

DNA helix. Hands holding a model of part of the double helix of DNA (deoxyribonucleic acid), which is formed of spiralling paired strands of sugar phosphates that are linked by nucleotide base pairs

Dinosaur DNA clone, conceptual image

DNA helical structure, artwork

Metalaoui, Tunisia - Phosphate Mines
The Mines of the Society of Phosphates of Sfax-Gafsa at Metalaoui, Tunisia

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Phosphates: Unveiling the Mysteries of DNA and Beyond From the intricate structure of a DNA molecule to computer models simulating genetic sequences, phosphates play an essential role in unraveling the secrets of life. Found in various forms across the globe, they leave their mark on everything from stunning natural formations to industrial factories. In the West Indies' enchanting Sombrero Island, they can like tiny architects shaping our genetic blueprint. They bind with DNA and create a mesmerizing dance that determines who we are. A computer model visualizes this intricate connection, revealing how phosphates guide our very existence. Venturing into Cornwall's Wheal Basset mine in England, torbernite on quartz showcases nature's artistic flair. Here, phosphates intertwine with minerals to form captivating patterns that captivate both scientists and art enthusiasts alike. Marble adorned with phosphates adds vibrant hues to lithographs, reminding us of their presence throughout history. Wavellite, lazulite, cuprouranite - these colorful lithographs transport us further into the world of phosphates. Their diverse forms highlight their versatility and importance in geological processes. Apatite and pyromorphite emerge as stars among them – vividly illustrating how these compounds contribute not only to Earth's beauty but also its scientific wonders. Journeying through North Africa reveals another facet of phosphate significance. Metlaoui's phosphate factory stands tall as a testament to human innovation harnessing these valuable resources for agricultural purposes. Phosphates Quay in Bone (Annaba), Algeria serves as a gateway connecting continents through trade routes shaped by these mineral treasures. As we delve deeper into understanding life's building blocks, genetic sequences become our guiding light once again. Phosphates intricately weave themselves within this sequence – an elegant reminder that even at its core level; life relies on their presence. Illustrations depicting turquoise in rough form remind us that beyond genetics, it also hold aesthetic allure.