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Online Calculator: The State of Matter

{CalQlata © 01/01/20}

Matter

This calculator identifies the properties of any same-element matter.
Refer to our webpage for the state of matter for a detailed description of elemental structure and behaviour.

ZsymnameRAMN
1HHydrogen2.007941
2HeHelium4.0026021
3LiLithium6.9411
4BeBeryllium9.0121821
5BBoron10.81111
6CCarbon12.01071
7NNitrogen14.00672
8OOxygen15.99992
9FFluorine18.9984032
10NeNeon20.17971
11NaSodium22.989771
12MgMagnesium24.3051
13AlAluminium26.9815381
14SiSilicon28.08551
15PPhosphorus30.9737611
16SSulphur32.0651
17ClChlorine35.4532
18ArArgon39.9481
19KPotassium39.09831
20CaCalcium40.0781
21ScScandium44.955911
22TiTitanium47.8671
23VVanadium50.94151
24CrChromium51.99611
25MnManganese54.9380491
26FeIron55.8471
27CoCobalt58.93321
28NiNickel58.69341
29CuCopper63.5461
30ZnZinc65.3851
31GaGallium69.7231
32GeGermanium72.611
33AsArsenic74.92161
34SeSelenium78.961
35BrBromine79.9042
36KrKrypton83.7981
37RbRubidium85.46781
38SrStrontium87.621
39YYttrium88.905851
40ZrZirconium91.2241
41NbNiobium92.906381
42MoMolybdenum95.941
43TcTechnetium98.90621
44RuRuthenium101.071
45RhRhodium102.90551
46PdPalladium106.421
47AgSilver107.86821
48CdCadmium112.4111
49InIndium114.8181
50SnTin118.691
51SbAntimony121.751
52TeTellurium127.61
53IIodine126.904471
54XeXenon131.9041
55CsCaesium132.904541
56BaBarium137.3271
57LaLanthanum138.90551
58CeCerium140.1161
59PrPraseodymium140.907651
60NdNeodymium144.241
61PmPromethium1451
62SmSamarium150.361
63EuEuropium151.9641
64GdGadolinium157.251
65TbTerbium158.925341
66DyDysprosium162.51
67HoHolmium164.930321
68ErErbium167.2591
69TmThulium168.934211
70YbYtterbium173.041
71LuLutetium174.9671
72HfHafnium178.491
73TaTantalum180.94791
74WTungsten183.851
75ReRhenium186.2071
76OsOsmium190.231
77IrIridium192.2171
78PtPlatinum195.0781
79AuGold196.966551
80HgMercury200.591
81TlThallium204.38331
82PbLead207.21
83BiBismuth208.980381
84PoPolonium208.9821
85AtAstatine209.9871
86RnRadon220.0111
87FrFrancium223.021
88RaRadium226.0251
89AcActinium227.0281
90ThThorium232.03811
91PaProtactinium2341
92UUranium238.028911

The Matter Calculator

the structure of the true atom

Enter known properties:

temperature (Ṯ): Kelvin
atomic number (Z):
relative atomic mass (RAM):
molecular number (N):


Calculation results for the outermost electron-shell:

property: value units:
total kinetic energy (KEt): J
total potential energy (PEt): J
atomic mass (mₐ): kg
neutronic ratio (ψ):
structural constant (Γ):
lattice constant (ζ):
radial separation (R): m
specific heat capacity (SHC): J/K/kg
gas transition temperature (Ṯg): K
viscous density (ρ): kg/m³
magnetic force (Fₘ): N
electrical force (Fₑ): N
magnetic attraction acceleration (gₘ): m/s²
electrical repulsion acceleration (gₑ): m/s²
dynamic viscosity (μ): N.s/m²
kinematic viscosity (ν): m²/s
tensile modulus (E): N/m²

Help

This Matter calculator is accessible from anywhere in the website using the shortcut key; "Alt" + "m".
The "Reset" button clears all calculations on the page and reinstalls default values (this button may not respond in the FireFox browser).
Reset can also be achieved by pressing the "F5" key.
Hover your cursor over the symbols for an associated description.

ψ, Γ, ζ

ψ is the ratio of neutrons in an atom to its atomic number (Z). This number will always be between 1 and 1.6
Oxygen is the odd-man-out here because it is less than 1. Atoms with a neutronic ratio greater than 1.6 are unnatural and will lose neutrons rapidly and continually, frequently breaking up the matter in the process.

Γ is not used in the calculations, however, it may be used to predict the noble gases.

ζ is a constant that defines the elemental structure of the atoms when arranged in a crystal lattice.

Fₘ & Fₑ

The magnetic [field] attractive force (Fₘ) between adjacent atoms holds them together. This value is constant, irrespective of temperature.
The electrical [charge] repulsion force (Fₑ) between adjacent atoms is pushing them apart. This value varies proportionally with temperature.
If Fₘ > Fₑ, the elements will exist as viscous matter.
If Fₘ = Fₑ, the elements will exist at their gas transition temperature.
If Fₘ < Fₑ, the elements will exist as gaseous matter.

gₘ & gₑ

These properties are the potential acceleration (magnetic and electrical) between adjacent atoms, both of which should be identical if the calculation was successful.

E

The tensile modulus of viscous matter is a measure of the magnetic pressure induced between adjacent atoms. As temperature rises electrical repulsion will also rise, causing the tensile modulus to fall.
It is important to understand that the values obtained here only apply at the temperature entered and only for a single pure crystal of the elemental matter. As soon at the crystal is [internally] broken (plastic defomation), this calculated value will fall. This is the reason that some of the values differ to those documented. However, iron has been extensively tested and is the default elemental matter in this calculator; this value reflects reality; 1.92E+11 N/m².

Gaseous Matter

If 'Fₘ<Fₑ'; the matter will be gaseous, i.e. adjacent atoms will repel each other, so it will have no viscosity or tensile modulus.

Pressure

Both viscous and gaseaous matter are subject to inter-atomic pressure. But if you wish to calculate them you will need to use different online calculators:
Viscous matter: use the Core-Pressure online calculator or the downloadable calculator,
Gaseous matter: use the PVRT online calculator or calculate it by hand.

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