Monday, August 13, 2018

Some tables.......have the 1st row....of 18....a full row.........starting at 4 and ending at 6........4 + 6 = 10......the base..........4 - 6.........set theory..........like the 1st 5 non primes.......4, 6...........8, 9, 10.......grouped by 2 and 3.......the 1st two primes............1/2......1st two becomes 1/2.....like the critical line........hydrogen and helium...1 proton then 2 protons.......are separated.....a quantum leap of sorts,,,,,,,,8, 9, 10........sum to 27.....a fractal e.....imp b/c 2 and 3........are the only two primes but a digit apart,.............more fractal patterns......b/c the Riemann zeta function levels off to 1 above sea level to the east.........7/6 and 11/10.......4 and 5.......are like 45 degree angle..........and a horizontal.....where slope is zero...........5/4 is the 3rd..........a 45...from bottom to top....symmetry....they are at a 90 degree angle..............

18281828.........8 numbers in e.............then 459045........6 numbers.........68 backwards........68%.....the 1st standard dev. from the norm..............they are in that order....continuous..........



Overview

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Group123 456789101112131415161718
Alkali metalsAlkaline earth metalsPnicto­gensChal­co­gensHalo­gensNoble gases
Period
1
Hydro­gen1H1.008He­lium2He4.0026
2Lith­ium3Li6.94Beryl­lium4Be9.0122Boron5B10.81Carbon6C12.011Nitro­gen7N14.007Oxy­gen8O15.999Fluor­ine9F18.998Neon10Ne20.180
3So­dium11Na22.990Magne­sium12Mg24.305Alumin­ium13Al26.982Sili­con14Si28.085Phos­phorus15P30.974Sulfur16S32.06Chlor­ine17Cl35.45Argon18Ar39.948
4Potas­sium19K39.098Cal­cium20Ca40.078Scan­dium21Sc44.956Tita­nium22Ti47.867Vana­dium23V50.942Chrom­ium24Cr51.996Manga­nese25Mn54.938Iron26Fe55.845Cobalt27Co58.933Nickel28Ni58.693Copper29Cu63.546Zinc30Zn65.38Gallium31Ga69.723Germa­nium32Ge72.630Arsenic33As74.922Sele­nium34Se78.971Bromine35Br79.904Kryp­ton36Kr83.798
5Rubid­ium37Rb85.468Stront­ium38Sr87.62Yttrium39Y88.906Zirco­nium40Zr91.224Nio­bium41Nb92.906Molyb­denum42Mo95.95Tech­netium43Tc​[98]Ruthe­nium44Ru101.07Rho­dium45Rh102.91Pallad­ium46Pd106.42Silver47Ag107.87Cad­mium48Cd112.41Indium49In114.82Tin50Sn118.71Anti­mony51Sb121.76Tellur­ium52Te127.60Iodine53I126.90Xenon54Xe131.29
6Cae­sium55Cs132.91Ba­rium56Ba137.33Lan­thanum57La138.911 asteriskHaf­nium72Hf178.49Tanta­lum73Ta180.95Tung­sten74W183.84Rhe­nium75Re186.21Os­mium76Os190.23Iridium77Ir192.22Plat­inum78Pt195.08Gold79Au196.97Mer­cury80Hg200.59Thallium81Tl204.38Lead82Pb207.2Bis­muth83Bi208.98Polo­nium84Po​[209]Asta­tine85At​[210]Radon86Rn​[222]
7Fran­cium87Fr​[223]Ra­dium88Ra​[226]Actin­ium89Ac​[227]1 asteriskRuther­fordium104Rf​[267]Dub­nium105Db​[268]Sea­borgium106Sg​[269]Bohr­ium107Bh​[270]Has­sium108Hs​[270]Meit­nerium109Mt​[278]Darm­stadtium110Ds​[281]Roent­genium111Rg​[282]Coper­nicium112Cn​[285]Nihon­ium113Nh​[286]Flerov­ium114Fl​[289]Moscov­ium115Mc​[290]Liver­morium116Lv​[293]Tenness­ine117Ts​[294]Oga­nesson118Og​[294]
1 asteriskCerium58Ce140.12Praseo­dymium59Pr140.91Neo­dymium60Nd144.24Prome­thium61Pm​[145]Sama­rium62Sm150.36Europ­ium63Eu151.96Gadolin­ium64Gd157.25Ter­bium65Tb158.93Dyspro­sium66Dy162.50Hol­mium67Ho164.93Erbium68Er167.26Thulium69Tm168.93Ytter­bium70Yb173.05Lute­tium71Lu174.97 
1 asteriskThor­ium90Th232.04Protac­tinium91Pa231.04Ura­nium92U238.03Neptu­nium93Np​[237]Pluto­nium94Pu​[244]Ameri­cium95Am​[243]Curium96Cm​[247]Berkel­ium97Bk​[247]Califor­nium98Cf​[251]Einstei­nium99Es​[252]Fer­mium100Fm​[257]Mende­levium101Md​[258]Nobel­ium102No​[259]Lawren­cium103Lr​[266]
Each chemical element has a unique atomic number (Z) representing the number of protons in its nucleus.[n 2] Most elements have differing numbers of neutrons among different atoms, with these variants being referred to as isotopes. For example, carbon has three naturally occurring isotopes: all of its atoms have six protons and most have six neutrons as well, but about one per cent have seven neutrons, and a very small fraction have eight neutrons. Isotopes are never separated in the periodic table; they are always grouped together under a single element. Elements with no stable isotopes have the atomic masses of their most stable isotopes, where such masses are shown, listed in parentheses.[6]
In the standard periodic table, the elements are listed in order of increasing atomic number Z (the number of protons in the nucleus of an atom). A new row (period) is started when a new electron shell has its first electron. Columns (groups) are determined by the electron configuration of the atom; elements with the same number of electrons in a particular subshell fall into the same columns (e.g. oxygen and selenium are in the same column because they both have four electrons in the outermost p-subshell). Elements with similar chemical properties generally fall into the same group in the periodic table, although in the f-block, and to some respect in the d-block, the elements in the same period tend to have similar properties, as well. Thus, it is relatively easy to predict the chemical properties of an element if one knows the properties of the elements around it.[7]

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