Whats the difference between plat and diamond

improve·6/2/2015, 4:27:56 PM·1 votes·1,108 views

Im plat IV right now with 50 lp trying to make it to diamond and i want to know peoples thoughts on the differences from plat to diamond prefferably diamond players thoughts.

4 Comments

Their Jungler6/2/2015, 4:56:01 PM10 votes

Diamond A clear octahedral stone protrudes from a black rock. The slightly misshapen octahedral shape of this rough diamond crystal in matrix is typical of the mineral. Its lustrous faces also indicate that this crystal is from a primary deposit. General Category Native Minerals Formula (repeating unit) C Strunz classification 01.CB.10a Identification Formula mass 12.01 g/mol Color Typically yellow, brown or gray to colorless. Less often blue, green, black, translucent white, pink, violet, orange, purple and red. Crystal habit Octahedral Crystal system Isometric-Hexoctahedral (Cubic) Twinning Spinel law common (yielding "macle") Cleavage 111 (perfect in four directions) Fracture Conchoidal (shell-like) Mohs scale hardness 10 Luster Adamantine Streak Colorless Diaphaneity Transparent to subtransparent to translucent Specific gravity 3.52±0.01 Density 3.5–3.53 g/cm3 Polish luster Adamantine Optical properties Isotropic Refractive index 2.418 (at 500 nm) Birefringence None Pleochroism None Dispersion 0.044

PLATINUM

Name, symbol platinum, Pt Pronunciation /ˈplætɨnəm/ Appearance silvery white Platinum in the periodic table Hydrogen (diatomic nonmetal) Helium (noble gas) Lithium (alkali metal) Beryllium (alkaline earth metal) Boron (metalloid) Carbon (polyatomic nonmetal) Nitrogen (diatomic nonmetal) Oxygen (diatomic nonmetal) Fluorine (diatomic nonmetal) Neon (noble gas) Sodium (alkali metal) Magnesium (alkaline earth metal) Aluminium (post-transition metal) Silicon (metalloid) Phosphorus (polyatomic nonmetal) Sulfur (polyatomic nonmetal) Chlorine (diatomic nonmetal) Argon (noble gas) Potassium (alkali metal) Calcium (alkaline earth metal) Scandium (transition metal) Titanium (transition metal) Vanadium (transition metal) Chromium (transition metal) Manganese (transition metal) Iron (transition metal) Cobalt (transition metal) Nickel (transition metal) Copper (transition metal) Zinc (transition metal) Gallium (post-transition metal) Germanium (metalloid) Arsenic (metalloid) Selenium (polyatomic nonmetal) Bromine (diatomic nonmetal) Krypton (noble gas) Rubidium (alkali metal) Strontium (alkaline earth metal) Yttrium (transition metal) Zirconium (transition metal) Niobium (transition metal) Molybdenum (transition metal) Technetium (transition metal) Ruthenium (transition metal) Rhodium (transition metal) Palladium (transition metal) Silver (transition metal) Cadmium (transition metal) Indium (post-transition metal) Tin (post-transition metal) Antimony (metalloid) Tellurium (metalloid) Iodine (diatomic nonmetal) Xenon (noble gas) Caesium (alkali metal) Barium (alkaline earth metal) Lanthanum (lanthanide) Cerium (lanthanide) Praseodymium (lanthanide) Neodymium (lanthanide) Promethium (lanthanide) Samarium (lanthanide) Europium (lanthanide) Gadolinium (lanthanide) Terbium (lanthanide) Dysprosium (lanthanide) Holmium (lanthanide) Erbium (lanthanide) Thulium (lanthanide) Ytterbium (lanthanide) Lutetium (lanthanide) Hafnium (transition metal) Tantalum (transition metal) Tungsten (transition metal) Rhenium (transition metal) Osmium (transition metal) Iridium (transition metal) Platinum (transition metal) Gold (transition metal) Mercury (transition metal) Thallium (post-transition metal) Lead (post-transition metal) Bismuth (post-transition metal) Polonium (post-transition metal) Astatine (metalloid) Radon (noble gas) Francium (alkali metal) Radium (alkaline earth metal) Actinium (actinide) Thorium (actinide) Protactinium (actinide) Uranium (actinide) Neptunium (actinide) Plutonium (actinide) Americium (actinide) Curium (actinide) Berkelium (actinide) Californium (actinide) Einsteinium (actinide) Fermium (actinide) Mendelevium (actinide) Nobelium (actinide) Lawrencium (actinide) Rutherfordium (transition metal) Dubnium (transition metal) Seaborgium (transition metal) Bohrium (transition metal) Hassium (transition metal) Meitnerium (unknown chemical properties) Darmstadtium (unknown chemical properties) Roentgenium (unknown chemical properties) Copernicium (transition metal) Ununtrium (unknown chemical properties) Flerovium (post-transition metal) Ununpentium (unknown chemical properties) Livermorium (unknown chemical properties) Ununseptium (unknown chemical properties) Ununoctium (unknown chemical properties) Pd ↑ Pt ↓ Ds iridium ← platinum → gold Atomic number 78 Standard atomic weight (±) 195.084(9)[1] Element category transition metal Group, block group 10, d-block Period period 6 Electron configuration [Xe] 4f14 5d9 6s1 per shell 2, 8, 18, 32, 17, 1 Physical properties Phase solid Melting point 2041.4 K ​(1768.3 °C, ​3214.9 °F) Boiling point 4098 K ​(3825 °C, ​6917 °F) Density near r.t. 21.45 g·cm−3 when liquid, at m.p. 19.77 g·cm−3 Heat of fusion 22.17 kJ·mol−1 Heat of vaporization 510 kJ·mol−1 Molar heat capacity 25.86 J·mol−1·K−1 vapor pressure P (Pa) 1 10 100 1 k 10 k 100 k at T (K) 2330 (2550) 2815 3143 3556 4094 Atomic properties Oxidation states 6, 5, 4, 3, 2, 1, −1, −2 ​(a mildly basic oxide) Electronegativity Pauling scale: 2.28 Ionization energies 1st: 870 kJ·mol−1 2nd: 1791 kJ·mol−1 Atomic radius empirical: 139 pm Covalent radius 136±5 pm Van der Waals radius 175 pm Miscellanea Crystal structure ​face-centered cubic (fcc) Face-centered cubic crystal structure for platinum Speed of sound thin rod 2800 m·s−1 (at r.t.) Thermal expansion 8.8 µm·m−1·K−1 (at 25 °C) Thermal conductivity 71.6 W·m−1·K−1 Electrical resistivity 105 nΩ·m (at 20 °C) Magnetic ordering paramagnetic Tensile strength 125–240 MPa Young's modulus 168 GPa Shear modulus 61 GPa Bulk modulus 230 GPa Poisson ratio 0.38 Mohs hardness 3.5 Vickers hardness 400–550 MPa Brinell hardness 300–500 MPa CAS Registry Number 7440-06-4 History Discovery and first isolation Antonio de Ulloa (1735) Most stable isotopes Main article: Isotopes of platinum iso NA half-life DM DE (MeV) DP 190Pt 0.014% 6.5×1011 y α 3.252 186Os 192Pt 0.782% >4.7×1016 y (α) 2.4181 188Os 193Pt syn 50 y ε – 193Ir 194Pt 32.967% – (α) 1.5045 190Os 195Pt 33.832% – (α) 1.1581 191Os 196Pt 25.242% – (α) 0.7942 192Os 198Pt 7.163% >3.2×1014 y (α) 0.0870 194Os (β−β−) 1.0472 198Hg Decay modes in parentheses are predicted, but have not

devdev4636/2/2015, 7:35:56 PM1 votes

The difference is diamond players have better decision making and are less likely to throw.

AwesomeChad6/2/2015, 7:47:21 PM1 votes

The major difference is better decision-making and faster rotations. Mechanics are slightly better. I'm a diamond 3 player and when i've seen plat games, the major thing that stands out is that theres some awful decision-making and the rotations are very slow.

ALYX6/3/2015, 12:08:08 AM1 votes

More mechanical outplays. More Decisiveness. More players who master a limited champion pool.