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Newtonium (119Nw)
Pronunciation /'n(y)ü•tōn•ē•(y)üm/
Name in Saurian Donkedaim (Dn)
Systematic name Ununennium (Uue)
Location on the periodic table
Period 8
Coordinate 8s1
Above element Francium (87Fr)
Below element Pasturium (165Ps)
Previous element Moscovium (118Mc)
Next element Galilinium (120Gl)
Family Hydrogen family (Alkali metals)
Series Newtonide series
Atomic properties
Atomic mass 319.6468 u, 530.7860 yg
Atomic radius 240 pm, 2.40 Å
Van der Waals radius 318 pm, 3.18 Å
Subatomic particles 436
Nuclear properties
Nucleons 317 (119 p+, 198 n0)
Nuclear ratio 1.66
Nuclear radius 8.15 fm
Half-life 2.9298 mon
Electronic properties
Electron notation 119-8-20
Electron configuration [Mc] 8s1
2, 8, 18, 32, 32, 18, 8, 1
Oxidation states +1, +3
(strongly basic oxide)
Electronegativity 0.83
First ionization energy 436.7 kJ/mol, 4.526 eV
Electron affinity 63.1 kJ/mol, 0.654 eV
Covalent radius 259 pm, 2.59 Å
Physical properties
Bulk properties
Molar mass 319.647 g/mol
Molar volume 115.321 cm3/mol
Density 2.772 g/cm3
Atomic number density 1.88 × 1021 g−1
5.22 × 1021 cm−3
Average atomic separation 576 pm, 5.76 Å
Speed of sound 786 m/s
Magnetic ordering Paramagnetic
Crystal structure Body centered cubic
Color Grayish white
Phase Liquid
Melting point 293.42 K, 528.15°R
20.27°C, 68.48°F
Boiling point 927.86 K, 1670.15°R
654.71°C, 1210.48°F
Liquid range 634.44 K, 1142.00°R
Liquid ratio 3.16
Triple point 293.42 K, 528.15°R
20.27°C, 68.48°F
@ 19.529 nPa, 1.4648 × 10−10 torr
Critical point 1877.97 K, 3380.35°R
1604.82°C, 2920.68°F
@ 32.1246 MPa, 317.046 atm
Heat of fusion 2.617 kJ/mol
Heat of vaporization 94.595 kJ/mol
Heat capacity 0.11487 J/(g•K), 0.20676 J/(g•°R)
36.717 J/(mol•K), 66.090 J/(mol•°R)
Universe (by mass) Relative: 3.10 × 10−26
Absolute: 1.04 × 1027 kg

Newtonium is the fabricated name of an undiscovered element with the symbol Nw and atomic number 119. Newtonium was named in honor of Isaac Newton (1642–1727), father of modern physics who developed three laws of motion and law of universal gravitation. This element is known in the scientific literature as ununennium (Uue), eka-francium, or simply element 119. Newtonium is the seventh alkali metal and located in the periodic table coordinate 8s1, meaning it is the first period 8 element.

Properties Edit

Physical Edit

Newtonium is a silvery liquid metal at the room temperature of 25°C (77°F, 537°R), but it freezes very near that temperature at 20°C (68°F, 528°R), just above the average world temperature of 15°C (59°F, 518°R) and right about the traditional room temp. It freezing point is a couple degrees below the freezing point of the lighter homologue francium, still below the room temperature, consistent with decreasing and narrowing trend of melting points with increasing weights of alkali metals. Similar trend is observed for boiling points. Newtonium boils at 655°C (1210°F, 1670°R), low enough for wood fire to boil this liquid. Newtonium has a liquid ratio of 3.16, identical in value to francium and similar to lighter homologues. Its liquid range is 1142°R, very similar to rubidium, cesium, and francium.

Like phase points, density increases with increasing atomic numbers of alkali metals. In this case, newtonium's density is 2.77 g/cm3, denser than every lighter alkali metals and more diffuse than an alkali metal below newtonium. Its molar volume is 115.32 cm3/mol, and molar mass 319.65 g/mol. The sound travels through thin rod of this metal at 786 m/s (0.488 mi/s). Atoms arrange to form body centered cubic, a feature every alkali metal exhibit. Another property that all alkali metal exhibit is paramagnetism, including newtonium.

Atomic Edit

Newtonium contains 119 protons and 198 neutrons that make up the nucleus, corresponding to its nuclear ratio of 1.66. Newtonium is the lightest element to have 8 energy levels and 20 orbitals. According to the Madelung rule, an electron would occupy in the 8s orbital with its first electron. To equal the charge equal to 119 protons, there must be 119 electrons since electrons carry same amount of opposite charge as protons.

Isotopes Edit

Like every other element heavier than lead, newtonium has no stable isotopes. The most stable isotope is 317Nw with a half-life of 3 months, which is about 6000 times longer than the most stable isotope of above element francium whose half-life is just 22 minutes for 223Fr. It alpha decays to 313J. Another example of isotope is 325Nw, which beta decays to 325Gl with a half-life of 15 days. Also there are metastable isomers, the longest is 318mNw whose half-life is 7.8 days and decays to 318Nw (t½ = 28.9 days) through gamma emission. The second longest m-isotope is 321mNw with a half-life of 6.2 hours. The third longest is 319mNw at 4.3 minutes.

Chemical Edit

It is expected from periodic trend that newtonium is even more reactive than all lighter homologues since the atom would be even bigger with the additional shell. However, because there are so many electrons in so many orbitals and shells and so many protons that make up big nucleus, strong attractive forces between those would decrease its atomic size. In consequence to this, an electron in the outermost orbital is not as easily removed than otherwise would be, which in turn decrease the reactivity of newtonium. Higher ionization energy than francium would be required to remove an electron and so would have higher electronegativity. Newtonium would then have chemical properties similar to rubidium and cesium. Like all other alkali metal elements, newtonium exhibits a strong +1 oxidation state (monovalent), meaning it can only need to give up the only electron in its outermost orbital and forms Nw+ ions when dissolved in water. However, due to shorter separation between outermost shell and the next shell further in, newtonium is also the first alkali metal to exhibit a +3 oxidation state (trivalent), meaning it can give up an 8s electron and both 7p1/2 electrons. Newtonium would still burn in the air to form an oxide and water to form a strong base.

Compounds Edit

Since newtonium is a very reactive element, it can form a lot of different compounds. Newtonium monofluoride (NwF) is a pale peach crystalline salt, while newtonium trifluoride (NwF3) is a pale blue crystalline salt. Newtonium monochloride (NwCl): white crystalline salt, while newtonium trichloride (NwCl3): pink crystalline salt. Newtonium(I) oxide (Nw2O) and newtonium(III) oxide (Nw2O3) are both white solids. Newtonium(I) hydroxide (NwOH) is a white powder that is a strong base when dissolved in water. Newtonium(I) nitrate (NwNO3) is a pale yellow powder when Nw2O is cautiously reacted with nitric acid.

Nw2O + 2 HNO3 → 2 NwNO3 + H2O

Interestingly, when newtonium reacts with concentrated sulfuric acid, the metal reduces sulfuric acid first to sulfurous acid, then to hydrogen sulfide.

2 Nw + 2 H2SO4 → Nw2(SO4)3 + H2SO3 + Nw2O
6 Nw + H2SO3 → H2S + 3 Nw2O

Newtonium halides can hydrolyze in water to form newtonium oxyhalides in the +3 oxistate for Nw, like NwF→NwOF and NwCl→NwOCl. There are other compounds of newtonium, like Nw2S, Nw3N, NwN, NwBr, NwI, NwAt, NwJ, and Nw2Se.

Newtonium don't just form inorganic compounds, but organic compounds as well. Such newtonium compounds are called organonewtonium. There are few examples: newtonium tert-butoxide (Nw(CH3)3CO), newtonium bis(trimethylsilyl)amide (((Nw(CH3)3Si)2)NNw), newtonium sucrose (C12H21O11Nw), newtonium stearate (C18H35O2Nw), and newtonium formate (NwHCO2).

Occurrence and synthesis Edit

Newtonium is virtually nonexistent on Earth, although in theory this element should exist on Earth as part of the decay chain of democritium, teslium, and maxwellium. This element can only be made naturally in tiny amounts by biggest supernovae or colliding neutron stars due to the requirement of a tremendous amount of energy. Additionally, this element can also be made artificially in much larger quantities by advanced technological civilizations, making artificial newtonium more abundant than natural newtonium in the universe. An estimated abundance of newtonium in the universe by mass is 3.10 × 10−26, which amounts to 1.04 × 1027 kilograms or over half a Jupiter worth of this element in mass.

To go along with other such civilizations, humans on Earth may soon have the capability to synthesize newtonium. To synthesize most stable isotopes of newtonium, nuclei of a couple lighter elements must be fused together, and right amount of neutrons must be seeded. This operation would be very difficult since it requires a great deal of energy. Here's couple of example equations in the production of the most stable isotope, 317Nw.

Pb + 80
Br + 29 1
n → 317
U + 59
Co + 20 1
n → 317

There had been couple of failed attempts to synthesize newtonium without enriching it with neutrons. In the near future, newtonium shall successfully be made here on Earth.

Periodic table
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18
1 H He
2 Li Be B C N O F Ne
3 Na Mg Al Si P S Cl Ar
4 K Ca Sc Ti V Cr Mn Fe Co Ni Cu Zn Ga Ge As Se Br Kr
5 Rb Sr Y Zr Nb Mo Tc Ru Rh Pd Ag Cd In Sn Sb Te I Xe
6 Cs Ba La Ce Pr Nd Pm Sm Eu Gd Tb Dy Ho Er Tm Yb Lu Hf Ta W Re Os Ir Pt Au Hg Tl Pb Bi Po At Rn
7 Fr Ra Ac Th Pa U Np Pu Am Cm Bk Cf Es Fm Md No Lr Rf Db Sg Bh Hs Mt Ds Rg Cn Bc Fl Lz Lv J Mc
8 Nw Gl * Du Bu Ab Sh Hi Da Bo Fa Av So Hr Wt Dr Le Vh Hk Ke Ap Vw Hu Fh Ma Kp Gb
9 Ps Hb Kf Bn Ju Hm Bs Rs
* Ls Dm Ms Ts Dt Mw Pk By Bz Fk Dw To Pl Ah My Cv Fy Ch An Ed

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