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Elements Aug 4th 2018 |
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When you make a direct application from table of elements, iron converts to manganese, when corrosion consumes it. Corrupted iron is weaker and lighter than fresh iron, but other qualities are almost unchanged. |
Bohr's table defines atoms by the number of protons and neutrons in the core, wow. Bohr's table of elements obviously used to define the atoms with their weight.
Bohr's table of elements cannot be correct. Qualities of atom must come from somewhere else. Weight is one typical quality of an atom. Since number of electrons can change, qualities come from the proton. Proton is built from quantum particles, then it maintains gravitational and rotational fields. The qualities of an atom comes from construction material and the fields the proton maintains.
Most common elements were discovered long before electrons and protons.
- - - -
Currently it is impossible to research qualities of quantum particles. Not very easy to find a way to see electrons in solid material, either.
With projector microscope it is already possible to research proton's fields. You can get the rotation speeds, possibly also the sizes of the fields. Quantum particles are obviously too small for projector microscope : Estimation is that pressure threads are bigger than quantum particles. When so, threads ignore the quantum particles.
Wednesday 8th August 2018 - Radio active elements
What happened to Bohr's table of elements ?
In my opinion nuke boys knew the weigh system. Most acquired awards to themselves with synthetic elements ... temporal elements with new atom weighs. Think that they decided to mess the table, so that they can get some credibility to their x-proton and neutron theorems. With the mess they managed to create a direct connection to Bohr.The major mess could go like follows :
Element 91 - Protactinium should be 235U.
Element 92 - Uranium is 238U.
- Isotope numbers seems to refer to atom weigh. Uranium's weigh is 238.0289, when so Element 91 - Protactinium atom weigh is 235.Element 93 - Neptunium, has obviously incorrect atom weigh, the weigh could be hidden to Americium. If so Neptunium's weigh is 243.
Element 94 - Plutonium ends the natural elements.- Element 91 - Protactinium or 235U is very rare element in our nature. Natural uranium contains less than 1 % protactinium.
- Americium and Protactinium are said to be synthetic elements.
- After fixing natural elements from 1 - 94 have still few "manmade" elements.
- If bullshit about x-protons, isotopes and halving times were true, 238U would convert to 235U all the time. Such halving is not known to happen.
- Without x-proton goal it is very difficult to find any sense from this show - no show mess.
Sunday 5th August 2018 - Rollback to atom's form
You said, that isotope defines the number of electrons in the Uranium atom. It is not right.
Ooops. Not a chemist. Let me see. Isotope is said to refer to the number of neutrons in atoms core ? And it seems that element number is nowadays the number of protons in atom's core. Cool.Originally ... before team Einstein and their two nuclear weapons : lesser atom bomb and major nuclear plant ... element number referred to atom weigh. Lower the number, lesser the weigh. You are free to check the claim, with some detective works.
Definition of atom weigh is possible with average diameter and measurable amount of atoms. Diameter of Uranium atom is 274.52 pica Meters, Uranium belongs to mid-sized atoms. If you can detect 92+238 balls from Uranium atoms core, you got to have a quantum level microscope. For the detection of inner protons and neutrons you need quantum level xRay microscope. Projector and scanner microscope principle clears the visibility of electrons and protons. But not the sub-Protons and sub-Neutrons. Idea of getting view from quantum particles and shapes is currently utopist. Maybe someday.
Isotopes belong to the things, which are based on Eintein's 3rd fake for physics. Bohr classified atoms with weigh. Isotopes and neutrons ruin Bohr's classification.
If you are interested, the number of operating principles for nuclear chain reaction, is almost equal to the number of printed explanations. Books are saying that the development began, when proton was bombed to pieces with neutron ( = electron ) cannon. According to x-proton model, when core gets broke, it leads to two or more new elements. The new elements should have less, not more protons than the broken core. Claims about widespread, controlled conversion from Uranium [92] to Plutonium [94] are very unlikely. Close to a dirty and disgusting insult. In X-Proton scheme, the lethal mess comes from the detached protons and neutrons. The energy comes from the pressure changes, the splitting creates. Weigh-loss comes from the lost protons and neutrons. The cleaning of the X-Proton mess is almost equal to the lava-mess. Idea of detached protons and neutrons is difficult.
The number of gravitational and rotational centers should be one. Two or more rotational centers disturbs and prevents rotational flows from core. When so, atoms have only one actual proton or core. Term proton meant originally the core as one. In graphical presentation from the core is traditionally drawn with overlapping balls, which forms an enclosed bigger ball. Separate protons and neutrons should be drawn with detaching balls.
The fact is that chain reaction releases busloads of heat. The nuclear scent obviously stops the surrounding atoms. Scent and anomalies kills all life. The former radioactive radiation is almost 100% sure to be harmless side-effect from the lethal scent-anomaly effect.
Where did you got the idea, that proton is charge-less electron ?
Old fashioned, held proton as coherent object. If neutron exists, it must be an electron-like satellite.
It does not exist ... what is atom weigh ?
Atom weigh is derivate from common mass units. It is 1.66 * 10-24 grams. Official definition is "Atom weigh is Carbon atom's weigh per 12". There aren't SI divisor for 10-24. In electricity, smells and others you need the diameters of the atoms. Electron counts and rotation speeds are new things.
Incorrect atom form is not lethal. You do not get a thing from it. Why did you correct it ?
You'll never know. Started to compose in 2006, just for fun. Without a clue from the things it led. X-proton form conflicts with field research. Easy to play with things, which cannot be verified for a very long time. I was calculating box sizes for elements yesterday. Near to slash Bohr's table of elements as obsolete. As you can read from the above, nuke boys were busy in 1930's and 1940's. The incorrect form had negative effected to many things around nuclear reaction.
Isotopes and synthetic elements does not exist ?
No. Not really. Quite obvious, that there are atoms from the same element, whose sizes and weighs varies. But they are not isotopes. Random variance belongs to world. After you get rotation speeds and static electric charges into Bohr's table, it becomes much more better than now.Possibly also average electron counts. Electron count has lots of meaning to strength of chemical compounds and materials. When count grows, the attachment becomes stronger. Fire and corrosion are well known to reduce electron count. Corrupted iron is totally different material from non-corrupted iron. Qualities and color are different.
To us rotation and atom level induction are important. Chemical compounds are made with atom's rotational fields. The attachment method is still unknown. Research of fields and rotation are important. They have so much meaning and applications.
- - How to research - -
With scanner tech you can build systems, which takes snapshots from the outer atom layers of the objects. Solid, liquid and gas. Heat and pressure does not affect to electron counts, not necessarily much to rotation speed. Gas form element is almost 10 times bigger than solid. In gas form elements / atoms are easier to view and examine.
In principle, you can build a pressure bulb from the heavy element, which produces gamma-rays. Another thing in atom level microscopes is that in principle transparent object, allows light waves go through the atoms without interference. There is a small chance that light wave would go through the proton. More likely explanation is that distance in between protons is big and the number of electrons is small.
The size of bulb is not important. When bulb vibrates, it activates an area from the pressure flow. The problem is in the conversion of the pressure back to atom level. You must magnify the flow pressure, before you can make it visible at atom level. Besides projector principle, you can use dispersion for magnifying the image. Dispersion principle needs rounded radiator / bulb.
Scanner principle is kind of a miniature radar, with tilted ray. When light wave hits something with titled angle, part from the wave continues with new angle. You can get the magnified image from the wave with new angle.
Helium atoms diameter is 3 338.28 pM, Diameters of solid/liquid elements varies from Boron's 197.21 pM to Francium's 582.81 pM. When you strip helium from electron's, you can get enough free space for viewing solid and liquid elements without interference. You do not need vacuums and heating.
Helium proton is 4 times heavier than hydrogen's, hydrogen atom's diameter is 2 650.30 pM. Helium is safer, noble gas. Weigh do not necessarily have 1 to 1 connection to the protons size.
Tables, which are made for strength calculations, have all kinds of density oriented data from the elements and materials. With atom's diameter's it is easy to convert existing density oriented data to atom level.
Possible, that Bohr is the inventor of density oriented researches. Invention lead into table of elements. If so, Bohr is far from the first and only one. General knowledge from our world is often based on some invention or brand new idea.
Molar mass - October 2020
From the year 2018 molar mass has been weight of 6.02214076 x 10^23 atoms.
If one oxygen atom weighs 15.9994 the weight in grams is 15.9994 * 1.66 * 10^-24 = 2,6559004 * 10^-23.
Molar mass is 2,6559004*10^-23 * 6,02214076*10^23 = 15,9942060533403 grams.When one liter weighs 1,4290 grams and mol weighs 16 grams, one liter is not enough for mole. One liter has 1,429/15,994 or 0,0893460047517819 moles.
When so one liter has 0,0893460047517819 * 6,02214076*10^23 atoms. This counts to 5,3805421695886*10^22 atoms per liter.
One liter is 100 000 000 nm * 100 000 000 nm * 100 000 000 nm = 1 * 10^24 and 100 * 10^22
- One liter is 10 * 10 * 10 cm box ==> 10 cm = 100 mm = 100 000 ym = 100 000 000 nm = 100 000 000 000 pm.In this volume there is the earlier 5,3805421695886*10^22 atoms. Volume for each atom is 18,5855 nm3
When you put the volume into logical boxes with equal sides one side is 2,6489 nm.
When you have O2 molecules, the distance in between protons are announced in Angstroms. One Angstrom is 0.1 nm and 100 pm.
- In common O2 molecule distance is 1,21 A = 0,121 nm and 121 pm.
- When compare distance singular box, it is very small. O2 molecule size is not 2 x singular size. It goes to near common gases 3,33 nm box size.
Table with field size
With atom weigh and density it is already possible to simply calculate estimation from atom's field sizes. With atom weigh, you get the number of atoms in volume. When you know the number of atoms in volume, you can calculate how much space each atom takes in the volume. Atoms' fields are balls. Vertical and horizontal diameters are almost the same. Magnetic drag field is different from drag and rotation fields. It is obviously created with atoms' rotation.
In the table field sizes are clamped with default density. Gases have 1000 times bigger fields than solid and liquid elements.
Atom weigh is 1.66 * 10-24 grams. One carbon atom weighs 12 units. It is needed when you calculate SI sizes for the fields. In the table Size pM is size in pica meters ( 10-12). Conversion and calculation of diameter flattens the numbers, in the conversion you remove the power of 3 effect.- The table shows you very clearly, that element number and atom weigh does not have a connection to field size.
- Table shows also, that electric conductivity is not dependent on field size.
Number | Symbol | Gas | Weigh | Density-g/L | Field Size | Size pM | Melts C | Boils C | Phase | Type | Classification |
---|---|---|---|---|---|---|---|---|---|---|---|
17 | Cl | Chlorine | 35.4530 | 3.2000 | 11.0791 | 2 639.59 | -101.50 | -34.04 | Gas | G | Non-Metal, Toxic |
9 | F | Fluorine | 18.9984 | 1.7000 | 11.1755 | 2 647.23 | -219.62 | -188.12 | Gas | G | Non-Metal, Toxic |
8 | O | Oxygen | 15.9994 | 1.4290 | 11.1962 | 2 648.87 | -218.79 | -182.95 | Gas | G | Non-Metal |
7 | N | Nitrogen | 14.0067 | 1.2510 | 11.1964 | 2 648.88 | -210.00 | -195.79 | Gas | G | Non-Metal |
1 | H | Hydrogen | 1.0079 | 0.0899 | 11.2143 | 2 650.30 | -259.14 | -252.87 | Gas | G | Non-Metal |
54 | Xe | Xenon | 131.2930 | 5.8940 | 22.2757 | 3 331.55 | -111.70 | -108.12 | Gas | G | Noble Gas |
36 | Kr | Krypton | 83.7980 | 3.7490 | 22.3521 | 3 335.36 | -157.36 | -153.22 | Gas | G | Noble Gas |
18 | Ar | Argon | 39.9480 | 1.7840 | 22.3924 | 3 337.36 | -189.35 | -185.85 | Gas | G | Noble Gas |
2 | He | Helium | 4.0026 | 0.1786 | 22.4110 | 3 338.28 | -272.20 | -268.93 | Gas | G | Noble Gas |
10 | Ne | Neon | 20.1797 | 0.9002 | 22.4169 | 3 338.58 | -248.59 | -246.08 | Gas | G | Noble Gas |
86 | Rn | Radon | 222.0000 | 9.7300 | 22.8160 | 3 358.27 | -71.15 | -61.85 | Gas | G | Noble Gas, Radioactive, Toxic |
Number | Symbol | Solid - Liquid | Weigh | g/cm3 | Field Size | Size pM | Melts C | Boils C | Phase | Type | Classification |
5 | B | Boron | 10.8110 | 2.3400 | 4.6201 | 197.21 | 2 076.00 | 3 927.00 | Solid | S | Semi-Metal, Toxic |
4 | Be | Beryllium | 9.0122 | 1.8500 | 4.8714 | 200.72 | 1 287.00 | 2 469.00 | Solid | S | Alkaline Earth Metal, Toxic |
6 | C | Carbon | 12.0107 | 2.2670 | 5.2981 | 206.42 | 3 550.00 | 3 800.00 | Solid | S | Non-Metal |
28 | Ni | Nickel | 58.6934 | 8.9080 | 6.5888 | 221.98 | 1 455.00 | 2 913.00 | Solid | S | Metal, Toxic |
27 | Co | Cobalt | 58.9332 | 8.9000 | 6.6217 | 222.34 | 1 495.00 | 2 927.00 | Solid | S | Metal, Toxic |
29 | Cu | Copper - Cuprum | 63.5460 | 8.9600 | 7.0922 | 227.49 | 1 084.62 | 2 562.00 | Solid | S | Metal, Toxic |
26 | Fe | Iron - Ferrum | 55.8450 | 7.8600 | 7.1050 | 227.63 | 1 538.00 | 2 861.00 | Solid | S | Metal |
24 | Cr | Chromium | 51.9961 | 7.1500 | 7.2722 | 229.40 | 1 907.00 | 2 671.00 | Solid | S | Metal, Toxic |
25 | Mn | Manganese | 54.9380 | 7.4300 | 7.3941 | 230.67 | 1 246.00 | 2 061.00 | Solid | S | Metal, Toxic |
44 | Ru | Ruthenium | 101.0700 | 12.4500 | 8.1181 | 237.97 | 2 334.00 | 4 150.00 | Solid | S | Noble Metal |
45 | Rh | Rhodium | 102.9050 | 12.4100 | 8.2921 | 239.66 | 1 964.00 | 3 695.00 | Solid | S | Noble Metal |
76 | Os | Osmium | 190.2300 | 22.6100 | 8.4135 | 240.82 | 3 033.00 | 5 012.00 | Solid | S | Noble Metal |
77 | Ir | Iridium | 192.2170 | 22.6500 | 8.4864 | 241.51 | 2 446.00 | 4 428.00 | Solid | S | Noble Metal |
23 | V | Vanadium | 50.9415 | 6.0000 | 8.4903 | 241.55 | 1 910.00 | 3 407.00 | Solid | S | Metal, Toxic |
46 | Pd | Palladium | 106.4200 | 12.0230 | 8.8514 | 244.93 | 1 554.90 | 2 963.00 | Solid | S | Noble Metal |
75 | Re | Rhenium | 186.2070 | 21.0200 | 8.8586 | 244.99 | 3 186.00 | 5 596.00 | Solid | S | Noble Metal |
43 | Tc | Technetium | 98.0000 | 11.0000 | 8.9091 | 245.46 | 2 157.00 | 4 265.00 | Solid | X | Metal, Radioactive, Synthetic |
78 | Pt | Platinum | 195.0840 | 21.4500 | 9.0948 | 247.15 | 1 768.30 | 3 825.00 | Solid | S | Noble Metal |
30 | Zn | Zinc | 65.4090 | 7.1400 | 9.1609 | 247.75 | 419.53 | 907.00 | Solid | S | Metal, Toxic |
42 | Mo | Molybdenum | 95.9400 | 10.2800 | 9.3327 | 249.29 | 2 623.00 | 4 639.00 | Solid | S | Metal |
74 | W | Tungsten - Wolfram | 183.8400 | 19.2500 | 9.5501 | 251.21 | 3 422.00 | 5 555.00 | Solid | S | Metal |
13 | Al | Aluminum - Aluminium | 26.9815 | 2.7000 | 9.9932 | 255.04 | 660.32 | 2 519.00 | Solid | S | Metal, Toxic |
79 | Au | Gold - Aurum | 196.9666 | 19.3000 | 10.2055 | 256.83 | 1 064.18 | 2 856.00 | Solid | S | Noble Metal |
47 | Ag | Silver - Argentum | 107.8682 | 10.4900 | 10.2830 | 257.48 | 961.78 | 2 162.00 | Solid | S | Noble Metal, Toxic |
22 | Ti | Titanium | 47.8670 | 4.5060 | 10.6229 | 260.29 | 1 668.00 | 3 287.00 | Solid | S | Metal |
41 | Nb | Niobium | 92.9060 | 8.5700 | 10.8408 | 262.05 | 2 477.00 | 4 744.00 | Solid | S | Metal |
73 | Ta | Tantalum | 180.9479 | 16.6900 | 10.8417 | 262.06 | 3 017.00 | 5 458.00 | Solid | S | Noble Metal |
93 | Np | Neptunium | 237.0000 | 20.2000 | 11.7327 | 269.05 | 637.00 | 4 000.00 | Solid | S | Metal, Radioactive, Toxic |
31 | Ga | Gallium | 69.7230 | 5.9100 | 11.7975 | 269.55 | 29.76 | 2 204.00 | Solid | S | Metal |
14 | Si | Silicon | 28.0855 | 2.3300 | 12.0539 | 271.48 | 1 414.00 | 3 265.00 | Solid | S | Semi-Metal |
94 | Pu | Plutonium | 244.0000 | 19.8160 | 12.3133 | 273.42 | 639.40 | 3 228.00 | Solid | S | Metal, Radioactive, Toxic |
92 | U | Uranium | 238.0289 | 19.1000 | 12.4622 | 274.52 | 1 132.20 | 4 131.00 | Solid | S | Metal, Radioactive, Toxic |
48 | Cd | Cadmium | 112.4110 | 8.6500 | 12.9955 | 278.38 | 321.07 | 767.00 | Solid | S | Metal, Toxic |
3 | Li | Lithium | 6.9410 | 0.5340 | 12.9981 | 278.40 | 180.54 | 1 342.00 | Solid | S | Alkali Metal |
33 | As | Arsenic | 74.9216 | 5.7270 | 13.0822 | 278.99 | 817.00 | 614.00 | Solid | S | Semi-Metal, Toxic |
72 | Hf | Hafnium | 178.4900 | 13.3100 | 13.4102 | 281.31 | 2 233.00 | 4 603.00 | Solid | S | Metal |
32 | Ge | Germanium | 72.6400 | 5.3230 | 13.6464 | 282.95 | 938.25 | 2 833.00 | Solid | S | Semi-Metal |
12 | Mg | Magnesium | 24.3050 | 1.7380 | 13.9845 | 285.27 | 650.00 | 1 090.00 | Solid | S | Alkaline Earth Metal |
40 | Zr | Zirconium | 91.2240 | 6.5200 | 13.9914 | 285.31 | 1 855.00 | 4 409.00 | Solid | S | Metal |
80 | Hg | Mercury - Hydrargyrum | 200.5900 | 13.5340 | 14.8212 | 290.85 | -38.83 | 356.73 | Liquid | S | Metal, Toxic |
91 | Pa | Protactinium | 231.0359 | 15.3700 | 15.0316 | 292.22 | 1 568.00 | 4 027.00 | Solid | X | Metal, Radioactive, Synthetic |
21 | Sc | Scandium | 44.9559 | 2.9850 | 15.0606 | 292.40 | 1 541.00 | 2 836.00 | Solid | S | Metal |
16 | S | Sulfur | 32.0650 | 2.0670 | 15.5128 | 295.30 | 115.21 | 444.60 | Solid | S | Non-Metal |
49 | In | Indium | 114.8180 | 7.3100 | 15.7070 | 296.53 | 156.60 | 2 072.00 | Solid | S | Metal |
50 | Sn | Tin - Stannum | 118.7100 | 7.2870 | 16.2907 | 300.16 | 231.93 | 2 602.00 | Solid | S | Metal |
34 | Se | Selenium | 78.9600 | 4.8090 | 16.4192 | 300.94 | 221.00 | 685.00 | Solid | S | Non-Metal, Toxic |
15 | P | Phosphorus | 30.9738 | 1.8200 | 17.0186 | 304.56 | 44.20 | 277.00 | Solid | S | Non-Metal, Toxic |
81 | Tl | Thallium | 204.3833 | 11.8500 | 17.2475 | 305.92 | 304.00 | 1 473.00 | Solid | S | Metal, Toxic |
71 | Lu | Lutetium | 174.9670 | 9.8410 | 17.7794 | 309.04 | 1 652.00 | 3 402.00 | Solid | S | Metal |
69 | Tm | Thulium | 168.9342 | 9.3200 | 18.1260 | 311.03 | 1 545.00 | 1 950.00 | Solid | S | Metal |
51 | Sb | Antimony - Stibium | 121.7600 | 6.6970 | 18.1813 | 311.35 | 630.63 | 1 587.00 | Solid | S | Semi-Metal, Toxic |
82 | Pb | Lead - Plumbum | 207.2000 | 11.3400 | 18.2716 | 311.86 | 327.46 | 1 749.00 | Solid | S | Metal, Toxic |
68 | Er | Erbium | 167.2590 | 9.0660 | 18.4490 | 312.87 | 1 529.00 | 2 868.00 | Solid | S | Metal |
67 | Ho | Holmium | 164.9303 | 8.7900 | 18.7634 | 314.63 | 1 461.00 | 2 720.00 | Solid | S | Metal |
66 | Dy | Dysprosium | 162.5000 | 8.5400 | 19.0281 | 316.11 | 1 407.00 | 2 567.00 | Solid | S | Metal |
65 | Tb | Terbium | 158.9254 | 8.2300 | 19.3105 | 317.66 | 1 356.00 | 3 230.00 | Solid | S | Metal |
90 | Th | Thorium | 232.0381 | 11.7000 | 19.8323 | 320.50 | 1 842.00 | 4 788.00 | Solid | S | Metal, Radioactive, Toxic |
39 | Y | Yttrium | 88.9059 | 4.4720 | 19.8806 | 320.76 | 1 526.00 | 3 336.00 | Solid | S | Metal |
64 | Gd | Gadolinium | 157.2500 | 7.9000 | 19.9051 | 320.89 | 1 312.00 | 3 273.00 | Solid | S | Metal |
61 | Pm | Promethium | 145.0000 | 7.2600 | 19.9725 | 321.25 | 1 042.00 | 3 000.00 | Solid | X | Metal, Radioactive, Synthetic |
62 | Sm | Samarium | 150.3600 | 7.5200 | 19.9947 | 321.37 | 1 072.00 | 1 794.00 | Solid | S | Metal |
52 | Te | Tellurium | 127.6000 | 6.2400 | 20.4487 | 323.79 | 449.51 | 988.00 | Solid | S | Semi-Metal |
60 | Nd | Neodymium | 144.2420 | 7.0100 | 20.5766 | 324.46 | 1 024.00 | 3 074.00 | Solid | S | Metal |
58 | Ce | Cerium | 140.1160 | 6.7700 | 20.6966 | 325.09 | 795.00 | 3 443.00 | Solid | S | Metal |
59 | Pr | Praseodymium | 140.9077 | 6.7700 | 20.8135 | 325.70 | 935.00 | 3 520.00 | Solid | S | Metal |
83 | Bi | Bismuth | 208.9804 | 9.7800 | 21.3681 | 328.57 | 271.50 | 1 564.00 | Solid | S | Metal |
84 | Po | Polonium | 209.0000 | 9.3200 | 22.4249 | 333.90 | 254.00 | 962.00 | Solid | S | Metal, Radioactive, Toxic |
57 | La | Lanthanum | 138.9055 | 6.1620 | 22.5423 | 334.48 | 920.00 | 3 464.00 | Solid | S | Metal |
89 | Ac | Actinium | 227.0000 | 10.0000 | 22.7000 | 335.26 | 1 050.00 | 3 198.00 | Solid | S | Metal, Radioactive |
11 | Na | Sodium - Natrium | 22.9898 | 0.9680 | 23.7498 | 340.35 | 97.72 | 883.00 | Solid | S | Alkali Metal |
70 | Yb | Ytterbium | 173.0400 | 6.9000 | 25.0783 | 346.58 | 824.00 | 1 196.00 | Solid | S | Metal |
53 | I | Iodine | 126.9040 | 4.9330 | 25.7255 | 349.54 | 113.70 | 184.30 | Solid | S | Non-Metal, Toxic |
35 | Br | Bromine | 79.9040 | 3.1028 | 25.7522 | 349.66 | -7.30 | 58.80 | Liquid | S | Non-Metal, Toxic |
20 | Ca | Calcium | 40.0780 | 1.5500 | 25.8568 | 350.13 | 842.00 | 1 484.00 | Solid | S | Alkaline Earth Metal |
63 | Eu | Europium | 151.9640 | 5.2440 | 28.9786 | 363.69 | 826.00 | 1 529.00 | Solid | S | Metal |
85 | At | Astatine | 210.0000 | 7.0000 | 30.0000 | 367.91 | 302.00 | 337.00 | Solid | X | Semi-Metal, Radioactive, Synthetic |
38 | Sr | Strontium | 87.6200 | 2.6400 | 33.1894 | 380.51 | 777.00 | 1 382.00 | Solid | S | Alkaline Earth Metal, Toxic |
56 | Ba | Barium | 137.3270 | 3.5100 | 39.1245 | 401.96 | 727.00 | 1 897.00 | Solid | S | Alkaline Earth Metal, Toxic |
88 | Ra | Radium | 226.0000 | 5.5000 | 41.0909 | 408.59 | 700.00 | 1 737.00 | Solid | S | Alkaline Earth Metal, Radioactive, Toxic |
19 | K | Potassium - Kalium | 39.0983 | 0.8900 | 43.9307 | 417.79 | 63.38 | 759.00 | Solid | S | Alkali Metal |
37 | Rb | Rubidium | 85.4678 | 1.5320 | 55.7884 | 452.43 | 39.31 | 688.00 | Solid | S | Alkali Metal |
55 | Cs | Cesium - Caesium | 132.9055 | 1.9300 | 68.8629 | 485.32 | 28.44 | 671.00 | Solid | S | Alkali Metal |
87 | Fr | Francium | 223.0000 | 1.8700 | 119.2513 | 582.81 | 27.00 | 677.00 | Solid | S | Alkali Metal, Radioactive |
When you search gas for projector microscope, from the field size column you find out that helium is the best gas for the microscope. Helium protons and electrons weigh a lot. Helium proton maintains a bigger field than for example hydrogen. Another good thing in helium is that, it has only two electrons rolling in the field.
- Table ends to plutonium ( the last natural element ). Table misses self made elements. They are mods from existing elements.
- Quantum particles are so small, that their meaning to our world is marginal. Quantum effect comes from the qualities of atoms.
- The field size is not necessarily the actual rotational field size of the atom. It is the space atom takes in normal temperature and pressure. The actual field can be smaller and it can also overlap with another rotational fields.GASES : Common gases field size is around 11. Noble gases field size is 2 x 11 = 22
OTHERS : Word noble seems to have a connection to money and value of the element.Also possible to think that noble gases are single core and common gases are double core gases. In nature common gas has two atoms and the same molecule size of 22.
Gamma-Ray elements start from Polonium [84].
- Francium [87] is exceptional gamma-ray element. It ends alkali metals, it has considerably bigger field than other elements.
- Radium [88] is an exception in the gamma ray range. It does not produce gamma rays. When exceptional Francium is not counted, Radium's field is twice as big as others.
- In principle rotating electrons produces the gamma rays. When atom has many electrons, these nearby electrons creates vibrations to the pressure flow.- - Chemical compounds overlap, with water - -
Water Density Volume H 0,0899 5,2 H 0,0899 5,2 O 1,429 5,2 Total 1,6088 15,6 Per 3 0,5363 Water's formula H2O. When you simply calculate atom sizes, and densities, without overlap water's density would be 0,5363. Measured density of water vapor is quite a lot bigger, 0803 grams per liter. In water molecule overlap in between three atoms is around 33%.
In the picture you see oxygen and hydrogen on the left. Water on the right. Water is a atom mesh, which continues to all directions.
Mechanics says, that chemical compound's overlapping fields must synchronize rotation directions and speeds.
Without equal atom cell size, gases and liquids atom meshes would have conflicts, which would stop the rotation.
Rotation would be possible only in fully ordered atom meshes. When random titled mesh skips over row or column, there is a conflict.CO2 density is 1.977 g/L, CO is 1.250 g/L, one carbon liter weighs 2 267 grams.
O is 1.4290 g/L, it is obviously calculated so, that you had bag of O2 atoms, you scaled the bag and divided the result with two.
Rotational field does not have to fill the space, underlying field will fill the corners. In meshes empty corners local rotational force should be zero.
- - Strength - -
Fields force can be estimated with strength calculation tables. They have been measured for solid materials and elements. Liquids and gases do not have measurable strength. With density and solid state strength you can calculate estimations from the forces of an individual atom.
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What is hydrogen isotope ?
When atoms are classified with weight, hydrogen isotope is general name for various elements. An alternative name to for example helium.How did chemistries of 1950's created those great manmade elements ?
They either lied or used element 91 for enriching selected elements with lethal atom lava. Since the greatest of all survived ... they didn't die, they obviously lied.