diff --git a/mod-list.html b/mod-list.html index 78200bde..1c26c2cf 100644 --- a/mod-list.html +++ b/mod-list.html @@ -194,6 +194,7 @@ Science & Chemistry alcohol.jsMethanol, (iso-)propanol, and butanolAlice alkahest.jsThe alkahest, a liquid which dissolves anythingAlice +alkali_metal.jsThe missing alkali metals. (Inspired by nobegas.js and halogen.js)Cube14yt aScientistsWish.jsSeveral things related to science and physicsCarbon Monoxide, salmonfishy bettermetalscrap.jsMetal scrap can be melted back into its original materialnousernamefound bigger_star_spawners.jsSpawners for larger starsAlice diff --git a/mods/alkali_metal.js b/mods/alkali_metal.js new file mode 100644 index 00000000..88fa3524 --- /dev/null +++ b/mods/alkali_metal.js @@ -0,0 +1,308 @@ +// Inspiration from halogen.js +// --- Halogens and water-containing liquids --- +var halogens = [ + "fluorine", "liquid_fluorine", "fluorine_ice", + "chlorine", "liquid_chlorine", "chlorine_ice", + "bromine_ice", "bromine", "bromine_gas", + "iodine", "liquid_iodine", "iodine_gas", + "astatine", "molten_astatine", "astatine_gas", + "tennessine" +]; + +var water_containing = [ + "water", "dirty_water", "salt_water", "sugar_water", + "seltzer", "pool_water", "primordial_soup", "nut_milk" +]; + +// --- Alkali metal hydroxide densities (kg/m³) --- +const hydroxideDensities = { li: 1460, na: 2130, k: 2120, rb: 2350, cs: 2200, fr: 2400 }; + +// --- Normal alkali reaction with halogens --- +function normalAlkali(pixel, reactto = "pop") { + for (let i = 0; i < adjacentCoords.length; i++) { + const x = pixel.x + adjacentCoords[i][0]; + const y = pixel.y + adjacentCoords[i][1]; + const otherPixel = getPixel(x, y); + if (!isEmpty(x, y, true) && halogens.includes(otherPixel.element)) { + if (Math.random() <= 0.1) { + changePixel(pixel, "salt"); + changePixel(otherPixel, reactto); + } + } + } +} + + +function waterReaction(pixel, options = {}) { + const { tempIncrease = 100, reactionChance = 0.05, effectType = "pop" } = options; + + if (!pixel) return; + + for (let i = 0; i < adjacentCoords.length; i++) { + const x = pixel.x + adjacentCoords[i][0]; + const y = pixel.y + adjacentCoords[i][1]; + const otherPixel = getPixel(x, y); + + if (!otherPixel) continue; + if (!isEmpty(x, y, true) && water_containing.includes(otherPixel.element)) { + if (Math.random() <= reactionChance) { + const rand = Math.random(); + + if (rand <= 0.33 && pixel && (pixel.element !== "explosion" || pixel.element !== "pop")) { + if (effectType === "explosion") { + deletePixel(pixel.x, pixel.y) + explodeAt(pixel.x, pixel.y, 10) + } else { + changePixel(pixel, effectType); + } + + } else if (rand <= 0.66) { + // form hydroxide + const hydroxide = pixel.symbol + "oh"; + if (!elements[hydroxide]) { + addElement(hydroxide, { + color: "#dfefff", + category: "compounds", + behavior: behaviors.POWDER, + state: "solid", + density: hydroxideDensities[pixel.symbol] || 1500, + tempHigh: 500, + reactions: { + "acid": { elem1: "water", elem2: "salt" } + } + }); + } + changePixel(pixel, hydroxide); + deletePixel(otherPixel.x, otherPixel.y); + + } else { + // produce hydrogen gas + createPixel("hydrogen", otherPixel.x, otherPixel.y); + } + + pixel.temp += tempIncrease; + } + } + } +} + + +// Solid lithium +elements.lithium = { + color: "#bfbfbf", + state: "solid", + behavior: behaviors.POWDER, + category: "alkali", + tempHigh: 180.5, + density: 533, + conduct: 0.42, + reactions: { + "chlorine": { elem1: "salt", elem2: "pop" }, + "vinegar": { elem1: "sodium_acetate", elem2: [null, null, null, "hydrogen"], attr1: { "foam": 15 } }, + "water": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "salt_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "sugar_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "dirty_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "seltzer": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "pool_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "primordial_soup": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "nut_milk": { elem1: ["pop", "pop", "pop", "hydrogen", "lioh"], chance: 0.01, temp2: 200 }, + "acid": { elem1: ["hydrogen", "salt", "salt", "pop"], elem2: ["hydrogen", "salt", "salt", "pop"], temp1: 100, temp2: 100 } + }, + properties: { symbol: "li" } +}; + +// Molten lithium +elements.molten_lithium = { + tempLow: 180.5, + tempHigh: 1334, + stateLow: "lithium", + density: 533, + conduct: 0.42, + category: "states", + reactions: { + "chlorine": { elem1: "salt", elem2: "pop" }, + "vinegar": { elem1: "sodium_acetate", elem2: [null, null, null, "hydrogen"], attr1: { "foam": 15 } }, + "water": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "salt_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "sugar_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "dirty_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "seltzer": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "pool_water": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "primordial_soup": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "nut_milk": { elem1: ["pop", "pop", "pop", "hydrogen", "lye"], chance: 0.01, temp2: 200 }, + "acid": { elem1: ["hydrogen", "salt", "salt", "pop"], elem2: ["hydrogen", "salt", "salt", "pop"], temp1: 100, temp2: 100 } + }, + properties: { symbol: "li" } +}; + +// Gas +elements.lithium_gas = { + color: "#bfbfbf", + state: "gas", + tempLow: 1334, + stateLow: "molten_lithium" +}; + +elements.lioh = { + color: "#dfefff", + category: "compounds", + behavior: behaviors.POWDER, + state: "solid", + density: 1460, + tempHigh: 500, + reactions: { + "acid": { elem1: "water", elem2: "salt" } + } +} + + +// --- Alkali metals configuration --- +const alkaliMetals = [ + { name: "rubidium", symbol: "rb", density: 1534, conduct: 0.6, melt: 39.3, boil: 688, color: ["#ffffff", "#e1e1e1", "#c0c0c0", "#bbbbbb"] }, + { name: "caesium", symbol: "cs", density: 1850, conduct: 0.59, melt: 28.44, boil: 671, color: ["#ffffff", "#e5e5e5", "#cfcfcf", "#bbbbbb"] } +]; + +// --- Generate elements dynamically --- +alkaliMetals.forEach(metal => { + // Solid + elements[metal.name] = { + color: metal.color, + state: "solid", + behavior: behaviors.POWDER, + category: "alkali", + tempHigh: metal.melt, + stateHigh: `liquid_${metal.name}`, + density: metal.density, + conduct: metal.conduct, + tick(pixel) { + normalAlkali(pixel); + waterReaction(pixel, { effectType: "explosion", reactionChance: 0.05 }); + }, + properties: { symbol: metal.symbol } + }; + + // Liquid + elements[`liquid_${metal.name}`] = { + color: metal.color, + state: "liquid", + behavior: behaviors.LIQUID, + tempLow: metal.melt, + temp: metal.melt, + tempHigh: metal.boil, + stateLow: metal.name, + stateHigh: `${metal.name}_gas`, + density: metal.density, + conduct: metal.conduct, + category: "states", + hidden: true, + tick(pixel) { + normalAlkali(pixel); + waterReaction(pixel, { effectType: "explosion", reactionChance: 0.05 }); + }, + properties: { symbol: metal.symbol } + }; + + // Gas + elements[`${metal.name}_gas`] = { + color: metal.color, + state: "gas", + tempLow: metal.boil, + stateLow: `liquid_${metal.name}`, + category: "states", + hidden: true, + behavior: behaviors.GAS, + temp: metal.boil + }; +}); + +elements.sodium.category = "alkali" +elements.potassium.category = "alkali" + +elements.francium = { + color: ["#ddddff", "#ccccff", "#aaaaff"], + category: "alkali", + behavior: behaviors.POWDER, + state: "solid", + density: 1870, + tempHigh: 27, + stateHigh: "molten_francium", + conduct: 0.2, + tick(pixel) { + normalAlkali(pixel); + waterReaction(pixel, { effectType: "explosion", reactionChance: 0.2, tempIncrease: 300 }); + if (Math.random() < 0.001) { + changePixel(pixel, "lead"); + } + for (var i = 0; i < adjacentCoords.length; i++) { + var x = pixel.x + adjacentCoords[i][0]; + var y = pixel.y + adjacentCoords[i][1]; + if (isEmpty(x, y) && Math.random() <= 0.02) { + createPixel("radiation", x, y) + getPixel(x, y).temp = pixel.temp + } + if (!isEmpty(x, y)) { + let p = getPixel(x, y) + if (p && p.element === "neutron" && Math.random() <= 0.5) { + var rand = Math.random() + if (rand <= 0.01) { + changePixel(pixel, "lead") + } + } + } + } + }, + properties: { + symbol: "fr" + } +} + +elements.molten_francium = { + color: ["#ddddff", "#ccccff", "#aaaaff"], + state: "liquid", + behavior: behaviors.LIQUID, + density: 1870, + tempLow: 27, + temp: 27, + tempHigh: 600, + stateLow: "francium", + stateHigh: "francium_gas", + category: "states", + hidden: true, + tick(pixel) { + normalAlkali(pixel); + waterReaction(pixel, { effectType: "explosion", reactionChance: 0.2, tempIncrease: 300 }); + if (Math.random() < 0.001) { + changePixel(pixel, "lead"); + } + for (var i = 0; i < adjacentCoords.length; i++) { + var x = pixel.x + adjacentCoords[i][0]; + var y = pixel.y + adjacentCoords[i][1]; + if (isEmpty(x, y) && Math.random() <= 0.02) { + createPixel("radiation", x, y) + getPixel(x, y).temp = pixel.temp + } + if (!isEmpty(x, y)) { + let p = getPixel(x, y) + if (p && p.element === "neutron" && Math.random() <= 0.5) { + var rand = Math.random() + if (rand <= 0.01) { + changePixel(pixel, "lead") + } + } + } + } + }, + properties: { symbol: "fr" } +} + +elements.francium_gas = { + color: "#ccccff", + behavior: behaviors.GAS, + state: "gas", + tempLow: 600, + temp: 600, + stateLow: "molten_francium", + category: "states", + hidden: true +}