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Ions Collection

"Ions: Unveiling the Hidden World of Charged Particles" Lead ion collisions: Exploring the mysteries of high-energy particle interactions

Background imageIons Collection: Lead ion collisions

Lead ion collisions. Particle tracks from the first stable run lead ion collisions seen by the ALICE (a large ion collider experiment) detector at CERN (the European particle physics laboratory)

Background imageIons Collection: Flame tests

Flame tests
Three ceramic dishes each containing burning ethanol. Each dish has a different colour flame due to chemicals that have been added to the ethanol

Background imageIons Collection: EDTA crystals, light micrograph

EDTA crystals, light micrograph
EDTA crystals. Polarised light micrograph of a section through ethylenediaminetetraacetic acid (EDTA) crystals. EDTA is used primarily for its effectiveness at binding metal ions (chelating)

Background imageIons Collection: Perovskite crystal structure

Perovskite crystal structure. Perovskite is the name for the mineral calcium titanium oxide (CaTiO3). It forms a crystal structure that is very common in oxide minerals

Background imageIons Collection: Lead ion collisions

Lead ion collisions. Particle tracks from the first lead ion collisions seen by the ALICE (a large ion collider experiment) detector at CERN (the European particle physics laboratory) near Geneva

Background imageIons Collection: Particle collision

Particle collision. This event takes place in particle accelerators, which are used to accelerate particles (spheres) such as protons to high energies near the speed of light

Background imageIons Collection: Lead ion collisions

Lead ion collisions. Particle tracks from the first lead ion collisions seen by the ALICE (a large ion collider experiment) detector at CERN (the European particle physics laboratory) near Geneva

Background imageIons Collection: Particle accelerator

Particle accelerator. Trails (red) of energised particles inside a particle accelerator. Particle accelerators are used to accelerate particles such as protons to near the speed of light

Background imageIons Collection: Cell membrane lipid bilayer, artwork F007 / 1477

Cell membrane lipid bilayer, artwork F007 / 1477
Phospholipid bilayer. Computer artwork of the phospholipid bilayer that forms the membrane around all living cells. The cell membrane is made of phospholipid molecules

Background imageIons Collection: Cell membrane ion channels, artwork C016 / 7689

Cell membrane ion channels, artwork C016 / 7689
Cell membrane ion channels. Computer artwork of a section through the membrane of an animal cell, showing transmembrane ion channel proteins (yellow)

Background imageIons Collection: Illustration of copper electrode, as cathode electrons arrive from zinc anode via external circuit

Illustration of copper electrode, as cathode electrons arrive from zinc anode via external circuit, they reduce hydrogen ions from acid, forming hydrogen gas molecules

Background imageIons Collection: Close up of a ball and chain shackles, Oro Grande, California, United States, Route 66

Close up of a ball and chain shackles, Oro Grande, California, United States, Route 66

Background imageIons Collection: Solid metallic copper at bottom of glass beaker containing Zinc sulphate solution

Solid metallic copper at bottom of glass beaker containing Zinc sulphate solution, beaker of blue copper sulphate solution, and zinc metal shavings on watchglass

Background imageIons Collection: Cell membrane lipid bilayer, artwork F007 / 1479

Cell membrane lipid bilayer, artwork F007 / 1479
Phospholipid bilayer. Computer artwork of the phospholipid bilayer that forms the membrane around all living cells. The cell membrane is made of phospholipid molecules

Background imageIons Collection: Cell membrane lipid bilayer, artwork F007 / 1480

Cell membrane lipid bilayer, artwork F007 / 1480
Phospholipid bilayer. Computer artwork of the phospholipid bilayer that forms the membrane around all living cells. The cell membrane is made of phospholipid molecules

Background imageIons Collection: Cell membrane lipid bilayer, artwork F007 / 1478

Cell membrane lipid bilayer, artwork F007 / 1478
Phospholipid bilayer. Computer artwork of the phospholipid bilayer that forms the membrane around all living cells. The cell membrane is made of phospholipid molecules

Background imageIons Collection: Cell membrane lipid bilayer, artwork F007 / 1475

Cell membrane lipid bilayer, artwork F007 / 1475
Phospholipid bilayer. Computer artwork of the phospholipid bilayer that forms the membrane around all living cells. The cell membrane is made of phospholipid molecules

Background imageIons Collection: Cell membrane lipid bilayer, artwork F007 / 1474

Cell membrane lipid bilayer, artwork F007 / 1474
Phospholipid bilayer. Computer artwork of the phospholipid bilayer that forms the membrane around all living cells. The cell membrane is made of phospholipid molecules

Background imageIons Collection: Cell membrane lipid bilayer, artwork F007 / 1473

Cell membrane lipid bilayer, artwork F007 / 1473
Phospholipid bilayer. Computer artwork of the phospholipid bilayer that forms the membrane around all living cells. The cell membrane is made of phospholipid molecules

Background imageIons Collection: Metal-binding protein bound to DNA

Metal-binding protein bound to DNA. Molecular model of the bacterial metal-binding protein NikR (bottom) bound to a strand of DNA (top, helical, deoxyribonucleic acid)

Background imageIons Collection: Sodium chloride structure C016 / 8873

Sodium chloride structure C016 / 8873
Sodium chloride structure, molecular model. Sodium chloride (common salt) consists of a cubic lattice of sodium (small spheres) and chlorine (green) ions and has the chemical formula NaCl

Background imageIons Collection: Rechargeable battery, artwork

Rechargeable battery, artwork
Rechargeable battery, Computer artwork showing the structure of a typical lithium-ion rechargeable battery. The battery consists of a cathode (green) and anode (red)

Background imageIons Collection: Potassium channel molecule

Potassium channel molecule. Molecular model of a KcsA potassium ion (K+) channel molecule from Streptomyces lividans bacteria

Background imageIons Collection: Potassium channel molecule C013 / 8878

Potassium channel molecule C013 / 8878
Potassium channel molecule. Computer model showing the secondary structure of a KcsA potassium ion (K+) channel molecule from Streptomyces lividans bacteria

Background imageIons Collection: Nitrogen-fixing molybdenum iron enzyme C013 / 7176

Nitrogen-fixing molybdenum iron enzyme C013 / 7176
Nitrogen-fixing molybdenum iron enzyme, molecular model showing secondary structure. This protein is a nitrogen fixation enzyme (nitrogenase)

Background imageIons Collection: Ion chromatography system

Ion chromatography system
MODEL RELEASED. Ion chromatography system. Ion chromatography (or ion-exchange chromatography) is the process of ion and polar molecule separation, based on the charge properties of the molecules

Background imageIons Collection: Hydrogen fuel cell, artwork

Hydrogen fuel cell, artwork
Hydrogen fuel cell, computer artwork. This is a clean and efficient power source. Hydrogen is liberated from a natural source such as methanol or natural gases

Background imageIons Collection: Colliding beam fusion reactor

Colliding beam fusion reactor, computer artwork. This is one design for a nuclear fusion reactor that could be used for producing power

Background imageIons Collection: Daniell cell battery

Daniell cell battery
Daniell cell. Invented by the British chemist John Frederic Daniell (1790-1845), the Daniell cell (left) is made from two half-cells, the electrolytes of which are separated by a porous partition

Background imageIons Collection: Calcium channel blockers

Calcium channel blockers. Computer artwork of calcium ions (orange) being blocked from calcium channels by calcium channel blocker drugs (grey)

Background imageIons Collection: Calcium channel blocker effect, artwork

Calcium channel blocker effect, artwork
Calcium channel blocker effect. Conceptual computer artwork of calcium ions (orange) controlling blood flow through the blood vessels (springs) of a human heart

Background imageIons Collection: Potassium channel molecular model

Potassium channel molecular model
Potassium channel research. Molecular model of the molecular structure of a KcsA potassium ion (K+) channel (brown spirals, centre) from a mouse (mus musculus)

Background imageIons Collection: Plasma in Earths magnetic field, UV image

Plasma in Earths magnetic field, UV image
Earths magnetic field. Ultraviolet image of hot plasma (ionised gas, orange) trapped in the Earths magnetic field. The Earth has been superimposed at centre

Background imageIons Collection: Nerve impulse propagation, diagram

Nerve impulse propagation, diagram
Nerve impulse propagation. Diagram showing the mechanism of propagation of the action potential (spike in voltage) which is known as a nerve impulse

Background imageIons Collection: Salt dissolution, artwork

Salt dissolution, artwork
Salt dissolution. Computer artwork showing how sodium chloride (salt) is dissolved in water. At left is a cubic crystal lattice made up of sodium (orange) and chlorine (green) ions

Background imageIons Collection: Synapse structure, artwork

Synapse structure, artwork
Synapse structure. Cutaway artwork showing the structure of a synapse, the point where two nerve ending meet. The electrical impulse moving along a nerve is transmitted to the adjacent nerve by

Background imageIons Collection: Spinel crystal structure

Spinel crystal structure, molecular model. Spinel is the name for the mineral magnesium aluminium oxide (MgAl2O4). The unit cell (repeating crystal region)

Background imageIons Collection: Cristobalite crystal structure

Cristobalite crystal structure
Cristobalite crystal, molecular model. Cristobalite is a form of quartz (silicon dioxide) that forms at high temperatures

Background imageIons Collection: Corundum crystal structure

Corundum crystal structure, molecular model. Corundum (aluminium oxide, Al2O3) is the compound that forms rubies (when red) and sapphires (when blue or any other colour)

Background imageIons Collection: 5g electron orbitals

5g electron orbitals, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

Background imageIons Collection: Platinum sulphide crystal structure

Platinum sulphide crystal structure
Platinum sulphide crystal, molecular model. Platinum sulphide (PtS) is found in the mineral cooperite, usually with palladium and nickel ions present as well as platinum

Background imageIons Collection: Metal surface at the quantum level

Metal surface at the quantum level. This depiction of a metal surface is obtained by applying the Helium-3 spin-echo technique

Background imageIons Collection: Monosodium glutamate molecule

Monosodium glutamate molecule
Monosodium glutamate. Computer model of a molecule of the food flavouring monosodium glutamate (C5.H8 N.O4.Na). The atoms (tubes) of the molecule are colour-coded: carbon (light blue)

Background imageIons Collection: Zeolite A crystal structure

Zeolite A crystal structure
Zeolite A crystal, molecular model. Zeolite A is a synthetic alumino-silicate material manufactured for use as a molecular sieve

Background imageIons Collection: Wurtzite crystal structure

Wurtzite crystal structure, molecular model. Wurtzite is the name for the mineral form of zinc sulphide (ZnS). The unit cell (repeating crystal region) of the crystal is outlined in red

Background imageIons Collection: Tridymite crystal structure

Tridymite crystal structure, molecular model. Tridymite is a form of quartz (silicon dioxide) that forms at high temperatures

Background imageIons Collection: Talc crystal structure

Talc crystal structure, molecular model. Talc is the name for the mineral hydrated magnesium silicate (Mg3Si4O10(OH)2). Silicate ions comprise a central silicon ion (pink)

Background imageIons Collection: Buckyball molecule, computer artwork

Buckyball molecule, computer artwork
Buckyball molecule. Conceptual computer artwork that might represent research into, or hi-tech automated production of, buckyball molecules (white sphere)



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"Ions: Unveiling the Hidden World of Charged Particles" Lead ion collisions: Exploring the mysteries of high-energy particle interactions. Flame tests reveal the vibrant colors produced by different ions in a flame. Magnificent EDTA crystals under a light micrograph, showcasing their intricate beauty. Delving into the fascinating perovskite crystal structure and its unique properties. Witnessing the explosive power of lead ion collisions in cutting-edge particle accelerators. The delicate dance of particles colliding, unraveling secrets at microscopic scales. Journey through time and space with particle accelerators as they unlock new frontiers in scientific discovery. Artistic representation of cell membrane lipid bilayer, highlighting its crucial role in cellular function (artwork F007 / 1477). Revealing the complex network of cell membrane ion channels that regulate vital processes (artwork C016 / 7689). An illustration depicting copper electrode's transformative journey as it reduces hydrogen ions to form hydrogen gas molecules via an external circuit. Close-up view of ball and chain shackles symbolizing freedom from limitations on Oro Grande, California's Route 66 - just like how ions break free from their atomic constraints to shape our world. In this captivating caption, we embark on a scientific odyssey exploring various aspects related to ions – from lead ion collisions and flame tests to EDTA crystals and perovskite structures – unveiling their hidden wonders along with intriguing visuals representing cell membranes, electrodes, and even symbolic imagery evoking liberation itself.