Phosphate Collection (page 3)

Wavellite
Aggregates of honey-coloured wavellite forming radiating needles on slate. Wavellite comprises of (hydrated aluminum phosphate hydroxide). Specimen from Filleigh, Devon

Libethenite
Wedge-shaped, dark green crystals of libethenite (copper phosphate hydroxide) with pale brown duftite. Specimen from the Phoenix mine, Lnkinhorne, Cornwall

Variscite
A rare, bluish green, mineral, found in aluminum-rich rocks. Variscite comprises of (hydrated aluminum phosphate)

Metatorbernite
A specimen of the mineral metatorbernite which contains uranium, copper and phosphorus. It is also radioactive

Schultenite comprises of (lead arsenate hydroxide) and derives from the phosphates group. Specimen from the Natural History Museum, London

Wardite is comprised of hydrated sodium aluminum phosphate hydroxide. This bright green specimen has been deposited in variscite nodules

Pyromorphite

Autunite comprises of (hydrated calcium uranyl phosphate). This is a green, radioactive, highly fluorescent mineral. This specimen is from the Natural History Museum, London

Phosphophyllite comprises of (hydrated zinc iron manganese phosphate). Blue-green specimen from the collections of the Natural History Museum, London

Augelite comprises of (aluminum phosphate hydroxide). This specimen has well developed semi-transparent crystals and is from the Natural History Museum, London

Olivenite comprises of (copper arsenate hydroxide). It is a rare copper mineral normally deep olive green in coluor. Specimen from Wheal Jewel, Gwennap, Cornwall

Lazulite comprises of (magnesium iron aluminum phosphate hydroxide) not to be confused with lazurite - as it looks and sounds the same is a rare ornamental and gemstone

Pycnodus zeaformis Longbottom, fish tooth plate
Corn-on-the-cob fish tooth plate from a paratype specimen dating from the Lower or Middle Eocene phosphates; Tamagu?lelt, Gao region, Mali

Torbernite

Imitation turquoise
A slab of imitiation turquoise. True specimens of turquoise are among the most valuable non-transparent minerals

Apatite (calcium (fluoro, chloro, hydroxyl) phosphate). It is a source of phosphorous for fertilisers, but rarely as a gemstone or mineral

Liroconite comprises of (hydrated copper aluminum arsenate hydroxide). It is blue in colour and forms from the oxidation of copper ores. Specimen from the collections of the Truro Museum, Cornwall

Turquoise vein in shale
Turquoise (hydrated copper aluminum phosphate) vein in shale, from Victoria, Australia. Turquoise is perhaps the most valuable non-transparent mineral

A collection of turquoise specimens
Rough, polished and worked specimens of turquoise (Hydrated Copper Aluminum Phosphate). Turquoise is perhaps the most valuable of the non-transparent minerals

Turquoise
Four different examples of worked turquoise. Turquoise (hydrated copper aluminum phosphate) is perhaps one of the most valuable non-transparent minerals

Apatite - Ca5(PO4)3F - Yates mine - Otter lake - Quebec - Canada - Used in the production of phosphate fertilizers
CAN-4439 Apatite - Ca5(PO4)3F Yates mine - Otter lake - Quebec - Canada Used in the production of phosphate fertilizers and the production of salts of phosphoric acid

Phosphate Mine
Workers pushing railway wagons full of phosphate at a mine in Sfax, Tunisia, North Africa. Date: 1930s

DNA construction, artwork
Conceptional computer artwork of a DNA being constructed or repaired

DNA structure
Computer artwork depicting the Bases of a DNA structure: Adenine (blue), Guanine (red), Cytosine (green) and Thymine (yellow)

Genetic individuality, computer artwork
Genetic individuality. Conceptual computer artwork showing the ability of human genetic information to be translated into digital binary code for biometric purposes

DNA. Computer artwork of a deoxyribonucleic acid (DNA) molecule (right) and a historical drawing of a male figure by Leonardo da Vinci (1453-1519)

DNA molecules, conceptual artwork
DNA molecules, conceptual computer artwork

DNA molecule and face. Computer artwork of a section of a molecule of DNA (deoxyribonucleic acid) and a human face in profile. DNA is composed of two strands twisted into a double helix

DNA molecule shadow, computer artwork. DNA (deoxyribonucleic acid) is composed of two strands twisted into a double helix

Genetic engineering, conceptual artwork. DNA (deoxyribonucleic acid) molecule made of Lego representing scientists ability to alter and rearrange an organisms genetic material

DNA molecule and Petri dish
DNA molecule in a petri dish, computer artwork. DNA (deoxyribonucleic acid) forms a shape called a double helix, which is like a twisted ladder

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"Unveiling the Blueprint of Life: Phosphate, the DNA Molecule's Vital Backbone" In the intricate world of genetics, phosphate emerges as a silent hero, forming an indispensable part of the DNA molecule. Like an artist's brushstroke on a canvas, this turquoise-hued compound weaves its way through Picture No. 11050115, creating a mesmerizing artwork that encapsulates life itself. Found abundantly in nature, phosphate is not only confined to scientific realms but also manifests in captivating forms. Torbernite on Quartz at Wheal Basset in Cornwall, England showcases its ethereal beauty amidst ancient rocks—a creation that feels both earthly and otherworldly simultaneously. Venturing into history reveals another facet of phosphate's significance—the electric phosphate smelting furnace. In Muscle Shoals area, Alabama during 1942, Alfred T Palmer captured these colossal structures where elemental phosphorus was forged—an embodiment of human ingenuity harnessing nature's power for progress. As smoke billows from TVA chemical plant's towering stack nearby Muscle Shoals in Alabama—another masterpiece by Alfred T Palmer—we witness the birthplace of elemental phosphorus production. This industrial marvel becomes a testament to mankind's ability to transform raw materials into essential components for various applications. Phosphate stands tall as more than just a chemical compound; it symbolizes our quest for understanding life's building blocks and our relentless pursuit of innovation. From its role within DNA molecules to its presence in grand industrial landscapes—it remains an enigmatic force fueling both biological and technological advancements alike.