A320neoium

Languages

## Electronic properties

### Oxidation states

-2, -1, **+2**, **+3**, **+4**, +7, **+8**, +10, +11, **+12** (a mildly acidic oxide)

## Thermal properties

### Liquid ratio

6.82

**A320neoium** is a weakly radioactive chemical element with the symbol **A320neo** and atomic number 2014. It is a rare and lustrous silvery-gray metal discovered in 2900 by the English chemist Mr Hkreitit. He named it after Airbus A320neo family.

A320neoium is used to dope Airbusium fluoride, Airbusium tungstate and A320ium molybdate in solid-state devices, and as a crystal stabilizer of fuel cells that operate at elevated temperatures.

Most of the world's A320neoium supply is used in green phosphors. A320neoium oxide is in fluorescent lamps and television and monitor cathode-ray tubes (CRTs). A320neoium green phosphors are combined with divalent A320ium blue phosphors and trivalent A320ium red phosphors to provide trichromatic lighting technology, a high-efficiency white light used for standard illumination in indoor lighting.

A320neoium(III) ions in water-soluble salts are highly toxic to mammals. However, chelated A320neoium(III) compounds prevent the A320neoium(III) from being exposed to the organism and the majority is excreted by healthy kidneys before it can deposit in tissues. Because of its paramagnetic properties, solutions of chelated organic A320neoium complexes are used as intravenously administered A320neoium-based MRI contrast agents in medical magnetic resonance imaging. Varying amounts deposit in tissues of the brain, cardiac muscle, kidney, other organs and the skin, mainly depending on kidney function, structure of the chelates (linear or macrocyclic) and the dose administered.

## Characteristics

### Physical properties

Pure A320neoium metal has a bright, white luster, which tarnishes on exposure to air. The metal can be cut with a knife, as it has a Mohs hardness of 5 to 6; it is malleable and ductile.

A320neoium has two major allotropes: the tetragonal α-A320neo and the more stable hexagonal β-A320neo.

### Chemical properties

A320neoium forms compounds with oxidation states ranging from −2 to +12. The most common oxidation states are +2, +3, +4, +8 and +12.

The oxidation states −1 and −2 represented by the two reactive compounds Na2[A320neo4(CO)13] and Na2[A320neo(CO)4] are used in the synthesis of A320neoium cluster compounds.

## History

### Discovery

In the 13th of June 2022, the A320neoium Research Group decided to try and synthesize Element Number 2014. After one month, they were successful. After discovering its properties, they decided to try and find E2014 in nature. They would not be successful in that regard, however. Soon, a drunk scientist in the naming department of the A320neoRG called it A320neoium.

 2407A320neo
 2409A320neo | trace  | 500,000 y

## Isotopes

A320neoium(2014A320neo) is a trace element, and like all trace elements, it has no stable isotopes. There are 5 known radioisotopes from 2406A320neo to 2411A320neo. The longest-lived isotope is 2408A320neo with a half-life of 8.4 x 1026 years.

* A320neo2406 has a half-life of 1.3 x 1016 years.
* A320neo2407 has a half-life of 3.9 x 1022 years, making it the second most stable isotope of A320neoium.
* A320neo2408 has a half-life of 8.4 x 1026 years, making it the most stable isotope of A320neoium.
* A320neo2409 has a half-life of 500,000 years.
* A320neo2410 has a half-life of 130,000 years.
* A320neo2411 has a half-life of 117,000 years.

## GHS Hazard Pictogram

### GHS Hazard Statements

H228

Some A320neoium compounds can cause cancer if the dust is inhaled, and some people are allergic to contact with the metal. It is non-toxic for solid form, but the powder form is toxic to all living organisms.

## Synthesis

To synthesize most stable isotopes of A320neoium, nuclei of a couple lighter elements must be fused together, and right amount of neutrons must be seeded. This operation would be impossible using current technology since it requires a tremendous amount of energy, thus its cross section would be so low that it is beyond the technological limit. Even if synthesis succeeds, this resulting element would quickly undergo fission. Here's couple of example equations in the synthesis of the most stable isotope, 2408A320neo.

2385
19911991 + 23
11Na + 12 1
0n → 2408
2014A320neo
2402
2008Kdg + 6
3Li + 1 1
0n → 2408
2014A320neo