alert("this requires code library and i am out of time to add a dependency if-block"); function defaultIonizationColorFormula(state) { return convertColorFormats({r: 255, g: 221 - ((state + 1) * 32), b: 255 - ((state + 1) * 8)},"hex"); }; function secondTestDefaultIonizationColorFormula(state) { return convertColorFormats({r: 221 - ((state + 1) * 32), g: 255, b: 255 - ((state + 1) * 8)},"hex"); }; function thirdTestDefaultIonizationColorFormula(state) { var lum = 17 + (state * 10); return convertColorFormats({r: lum, g: lum, b: lum},"hex"); }; scientificElements = { defaultium: { sublimates: false, solidColor: "#EEEEEE", solidDensity: 1000, meltingPoint: 1200, solidHardness: 0.8, liquidColor: "#FFFFFF", liquidDensity: 850, liquidViscosity: 4000, boilingPoint: 2500, gasColor: "#FFDDFF", gasDensity: 3.5, ionizationEnergies_eV: [15,30,45,60,100], ionizationColorFormula: defaultIonizationColorFormula, defaultState: "solid" }, sublimatestium: { sublimates: true, solidColor: "#FFFFCC", solidDensity: 813, meltingPoint: 1033, solidHardness: 0.5, liquidColor: "#EEEEAA", liquidDensity: 420, liquidViscosity: 420, boilingPoint: 42069, gasColor: "#FFFF96", gasDensity: 3.2, ionizationEnergies_eV: [12,41,99], ionizationColorFormula: secondTestDefaultIonizationColorFormula, defaultState: "solid" }, pneumagvnigium: { sublimates: false, solidColor: "#100810", solidDensity: 814, meltingPoint: -191, solidHardness: 0.7, liquidColor: "#131011", liquidDensity: 1013, liquidViscosity: 131, boilingPoint: -83, gasColor: "#202020", gasDensity: 14.6, ionizationEnergies_eV: [11,22,33,44,55,66,77,88,99,110,121,1337], ionizationColorFormula: thirdTestDefaultIonizationColorFormula, defaultState: "gas" } }; behaviors.HOT_GAS = [ "CR:fire%0.25 AND M2|M1|CR:fire%0.25 AND M2", "M1|XX|M1", "CR:fire%0.25 AND M2|M1|CR:fire%0.25 AND M2" ], behaviors.SUPERHOT_GAS = [ "CR:plasma%0.1 AND M2|M1|CR:plasma%0.1 AND M2", "M1|XX|M1", "CR:plasma%0.1 AND M2|M1|CR:plasma%0.1 AND M2" ], tupleAdverbs = ['Singly', 'Doubly', 'Triply', 'Quadruply', 'Quintuply', 'Sextuply', 'Septuply', 'Octuply', 'Nonuply', 'Decuply', 'Undecuply', 'Duodecuply', 'Tredecuply', 'Quattuordecuply', 'Quindecuply', 'Sexdecuply', 'Septendecuply', 'Octodecuply', 'Novemdecuply', 'Vigintuply', 'Unvigintuply', 'Duovigintuply', 'Trevigintuply', 'Quattuorvigintuply', 'Quinvigintuply', 'Sexvigintuply', 'Septenvigintuply', 'Octovigintuply', 'Novemvigintuply', 'Trigintuply'].map(x => x.toLowerCase()); for(element in scientificElements) { var elemInfo = scientificElements[element]; if(!elemInfo.liquidColor) { elemInfo.liquidColor = makeMoltenColor(elemInfo.solidColor); }; if(!elemInfo.gasColor) { elemInfo.gasColor = makeGasColor(elemInfo.solidColor); }; var names = { solid: elemInfo.meltingPoint <= 0 ? element + "_ice" : "solid_" + element, liquid: (elemInfo.meltingPoint > 200 ? "molten_" : "liquid_") + element, gas: element + "_gas" }; names[elemInfo.defaultState] = element; //"hydrogen" is not "hydrogen_gas", iron is not "solid_iron", etc. if(elemInfo.defaultState == "liquid" && elemInfo.sublimates) { throw new Error("A sublimating element can't have a liquid default state, idiot!"); }; var ionizationTemperatures = elemInfo.ionizationEnergies_eV.map(x => (x * 16021766340) / 1380649); var liquidIsHot = (elemInfo.meltingPoint > 600); var gasIsHot = (elemInfo.boilingPoint > 600); var solidIsCold = (elemInfo.meltingPoint < 0); //"nullish"-piecewise definition to preserve reactions elements[names.solid] ??= {}; elements[names.solid].color = elemInfo.solidColor; elements[names.solid].density = elemInfo.solidDensity; elements[names.solid].hardness = elemInfo.solidHardness; elements[names.solid].temp = Math.min(20, elemInfo.meltingPoint * 1.1); elements[names.solid].tempHigh = elemInfo.meltingPoint; elements[names.solid].stateHigh = elemInfo.sublimates ? names.gas : names.liquid; elements[names.solid].behavior = behaviors.POWDER; elements[names.solid].category = "powders"; elements[names.solid].state = "solid"; elements[names.solid].hidden = true; if(elemInfo.sublimates != true) { elements[names.liquid] ??= {}; elements[names.liquid].color = elemInfo.liquidColor; elements[names.liquid].density = elemInfo.liquidDensity; elements[names.liquid].temp = (elemInfo.meltingPoint + elemInfo.boilingPoint) / 2; elements[names.liquid].tempHigh = elemInfo.boilingPoint; elements[names.liquid].stateHigh = names.gas; elements[names.liquid].tempLow = elemInfo.meltingPoint; elements[names.liquid].stateLow = names.solid; elements[names.liquid].viscosity = elemInfo.liquidViscosity; elements[names.liquid].behavior = liquidIsHot ? behaviors.MOLTEN : behaviors.LIQUID; elements[names.liquid].category = "liquids"; elements[names.liquid].state = "liquid"; elements[names.liquid].hidden = true; }; elements[names.gas] ??= {} elements[names.gas].color = elemInfo.gasColor; elements[names.gas].density = elemInfo.gasDensity; elements[names.gas].temp = (elemInfo.sublimates ? elemInfo.meltingPoint : elemInfo.boilingPoint) * 1.1; elements[names.gas].tempLow = (elemInfo.sublimates ? elemInfo.meltingPoint : elemInfo.boilingPoint); elements[names.gas].stateLow = elemInfo.sublimates ? names.solid : names.liquid; elements[names.gas].behavior = gasIsHot ? behaviors.HOT_GAS : behaviors.GAS; elements[names.gas].category = "gases"; elements[names.gas].state = "gas"; elements[names.gas].hidden = true; if(elemInfo.ionizationEnergies_eV && elemInfo.ionizationEnergies_eV.length > 0 && elemInfo.ionizationColorFormula) { elements[names.gas].tempHigh = ionizationTemperatures[0]; elements[names.gas].stateHigh = "ionized_" + element; var lastTempsIndex = ionizationTemperatures.length - 1; for(j in ionizationTemperatures) { j = parseInt(j); // for some reason JS is suddenly deciding to use strings for array iterators var plasmaName = (tupleAdverbs[j] + "_ionized_" + element).replace("singly_",""); var lastPlasmaName = (tupleAdverbs[j - 1] + "_ionized_" + element).replace("singly_",""); var nextPlasmaName = (tupleAdverbs[j + 1] + "_ionized_" + element).replace("singly_",""); var plasmaTemp = ionizationTemperatures[j]; elements[plasmaName] = { color: elemInfo.ionizationColorFormula(j), density: elemInfo.gasDensity * (0.99 ** (j + 1)), temp: (Math.ceil(plasmaTemp/10000)*10000) + 1000, tempLow: ionizationTemperatures[j], stateLow: j == 0 ? names.gas : lastPlasmaName, behavior: behaviors.SUPERHOT_GAS, category: "energy", state: "gas", hidden: true, }; if(j < lastTempsIndex) { elements[plasmaName].tempHigh = ionizationTemperatures[j + 1]; //console.log(j,tupleAdverbs[j],nextPlasmaName); elements[plasmaName].stateHigh = nextPlasmaName; }; }; }; elements[names[elemInfo.defaultState]].hidden = false; };