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author | Alkalus <draknyte1@hotmail.com> | 2016-09-19 20:08:42 +1000 |
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committer | GitHub <noreply@github.com> | 2016-09-19 20:08:42 +1000 |
commit | 9f386c3c2914ba786ece2afddb8eaa6df80a1adc (patch) | |
tree | a46fe4cc2ccd26ff83f3de8eeba7d3abb7aea58c /src/Java/gtPlusPlus/core/material | |
parent | 6c74b062034508a0ef00a68c5b4c164b3f155fc4 (diff) | |
parent | 2c4e3716a4b72f67be3bde170096394a39c80480 (diff) | |
download | GT5-Unofficial-9f386c3c2914ba786ece2afddb8eaa6df80a1adc.tar.gz GT5-Unofficial-9f386c3c2914ba786ece2afddb8eaa6df80a1adc.tar.bz2 GT5-Unofficial-9f386c3c2914ba786ece2afddb8eaa6df80a1adc.zip |
Merge pull request #13 from draknyte1/NewMatSystem
New Back-end systems for dynamic Material (Alloys) and Tool generation.
Also fixes a few issues with other things, which were noticed during development of the new systems.
Diffstat (limited to 'src/Java/gtPlusPlus/core/material')
-rw-r--r-- | src/Java/gtPlusPlus/core/material/ALLOY.java | 479 | ||||
-rw-r--r-- | src/Java/gtPlusPlus/core/material/ELEMENT.java | 85 | ||||
-rw-r--r-- | src/Java/gtPlusPlus/core/material/Material.java | 154 | ||||
-rw-r--r-- | src/Java/gtPlusPlus/core/material/MaterialStack.java | 72 |
4 files changed, 790 insertions, 0 deletions
diff --git a/src/Java/gtPlusPlus/core/material/ALLOY.java b/src/Java/gtPlusPlus/core/material/ALLOY.java new file mode 100644 index 0000000000..a4cdd77d59 --- /dev/null +++ b/src/Java/gtPlusPlus/core/material/ALLOY.java @@ -0,0 +1,479 @@ +package gtPlusPlus.core.material; + + +public final class ALLOY { + + public static final Material ENERGYCRYSTAL = new Material( + "Energy Crystal", //Material Name + new short[]{228, 255, 0, 0}, //Material Colour + 5660, //Melting Point in C + 0, //Boiling Point in C + 100, //Protons + 100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + null); + + public static final Material BLOODSTEEL = new Material( + "Blood Steel", //Material Name + new short[]{142, 28, 0, 0}, //Material Colour + 2500, //Melting Point in C + 0, //Boiling Point in C + 100, //Protons + 100, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + null); + + public static final Material STABALLOY = new Material( + "Staballoy", //Material Name + new short[]{68, 75, 66, 0}, //Material Colour + 3450, //Melting Point in C + ((ELEMENT.URANIUM.getBoilingPoint_C()*9)+(ELEMENT.TITANIUM.getBoilingPoint_C()*1))/10, //Boiling Point in C + ((ELEMENT.URANIUM.getProtons()*9)+ELEMENT.TITANIUM.getProtons())/10, //Protons + ((ELEMENT.URANIUM.getNeutrons()*9)+ELEMENT.TITANIUM.getNeutrons())/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.URANIUM, 90), + new MaterialStack(ELEMENT.TITANIUM, 10) + }); + + public static final Material TANTALLOY_60 = new Material( + "Tantalloy-60", //Material Name + new short[]{66, 75, 166, 0}, //Material Colour + 3025, //Melting Point in C + ((ELEMENT.TUNGSTEN.getBoilingPoint_C()*1)+(ELEMENT.TANTALUM.getBoilingPoint_C()*8)+(ELEMENT.TITANIUM.getBoilingPoint_C()*1))/10, //Boiling Point in C + ((ELEMENT.TUNGSTEN.getProtons()*1)+(ELEMENT.TANTALUM.getProtons()*8)+(ELEMENT.TITANIUM.getProtons()*1))/10, //Protons + ((ELEMENT.TUNGSTEN.getNeutrons()*1)+(ELEMENT.TANTALUM.getNeutrons()*8)+(ELEMENT.TITANIUM.getNeutrons()*1))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.TUNGSTEN, 7), + new MaterialStack(ELEMENT.TANTALUM, 90), + new MaterialStack(ELEMENT.TANTALUM, 2) + }); + + public static final Material TANTALLOY_61 = new Material( + "Tantalloy-61", //Material Name + new short[]{122, 135, 196, 0}, //Material Colour + 3030, //Melting Point in C + ((ELEMENT.TUNGSTEN.getBoilingPoint_C()*1)+(ELEMENT.TANTALUM.getBoilingPoint_C()*7)+(ELEMENT.TITANIUM.getBoilingPoint_C()*1)+(ELEMENT.YTTRIUM.getBoilingPoint_C()*1))/10, //Boiling Point in C + ((ELEMENT.TUNGSTEN.getProtons()*1)+(ELEMENT.TANTALUM.getProtons()*7)+(ELEMENT.TITANIUM.getProtons()*1)+(ELEMENT.YTTRIUM.getProtons()*1))/10, //Protons + ((ELEMENT.TUNGSTEN.getNeutrons()*1)+(ELEMENT.TANTALUM.getNeutrons()*7)+(ELEMENT.TITANIUM.getNeutrons()*1)+(ELEMENT.YTTRIUM.getNeutrons()*1))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.TUNGSTEN, 10), + new MaterialStack(ELEMENT.TANTALUM, 70), + new MaterialStack(ELEMENT.TITANIUM, 10), + new MaterialStack(ELEMENT.YTTRIUM, 10) + }); + + public static final Material QUANTUM = new Material( + "Quantum", //Material Name + new short[]{128, 128, 128, 0}, //Material Colour + 9999, //Melting Point in C + 0, //Boiling Point in C + 100, //Protons + 100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + null); + + public static final Material BRONZE = new Material( + "Bronze", //Material Name + new short[]{128, 128, 128, 0}, //Material Colour + ((ELEMENT.TIN.getMeltingPoint_C()*1)+(ELEMENT.COPPER.getMeltingPoint_C()*3))/4, //Melting point in C + ((ELEMENT.TIN.getBoilingPoint_C()*1)+(ELEMENT.COPPER.getBoilingPoint_C()*3))/4, //Boiling Point in C + ((ELEMENT.TIN.getProtons()*1)+(ELEMENT.COPPER.getProtons()*3))/4, //Protons + ((ELEMENT.TIN.getNeutrons()*1)+(ELEMENT.COPPER.getNeutrons()*3))/4, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.COPPER, 75), + new MaterialStack(ELEMENT.TIN, 25) + }); + + public static final Material TUMBAGA = new Material( + "Tumbaga", //Material Name + new short[]{255,178,15, 0}, //Material Colour + ((ELEMENT.GOLD.getMeltingPoint_C()*7)+(ELEMENT.COPPER.getMeltingPoint_C()*3))/10, //Melting point in C + ((ELEMENT.GOLD.getBoilingPoint_C()*7)+(ELEMENT.COPPER.getBoilingPoint_C()*3))/10, //Boiling Point in C + ((ELEMENT.GOLD.getProtons()*7)+(ELEMENT.COPPER.getProtons()*3))/10, //Protons + ((ELEMENT.GOLD.getNeutrons()*7)+(ELEMENT.COPPER.getNeutrons()*3))/10, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.GOLD, 70), + new MaterialStack(ELEMENT.COPPER, 30) + }); + + public static final Material POTIN = new Material( + "Potin", //Material Name + new short[]{201,151,129, 0}, //Material Colour + ((ELEMENT.LEAD.getMeltingPoint_C()*4)+(ALLOY.BRONZE.getMeltingPoint_C()*4)+(ELEMENT.TIN.getMeltingPoint_C()*2))/10, //Melting point in C + ((ELEMENT.LEAD.getBoilingPoint_C()*4)+(ALLOY.BRONZE.getBoilingPoint_C()*4)+(ELEMENT.TIN.getBoilingPoint_C()*2))/10, //Boiling Point in C + ((ELEMENT.LEAD.getProtons()*4)+(ALLOY.BRONZE.getProtons()*4)+(ELEMENT.TIN.getProtons()*2))/10, //Protons + ((ELEMENT.LEAD.getNeutrons()*4)+(ALLOY.BRONZE.getNeutrons()*4)+(ELEMENT.TIN.getNeutrons()*2))/10, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.LEAD, 40), + new MaterialStack(ALLOY.BRONZE, 40), + new MaterialStack(ELEMENT.TIN, 20) + }); + + public static final Material BEDROCKIUM = new Material( + "Bedrockium", //Material Name + new short[]{32, 32, 32, 0}, //Material Colour + 7735, //Melting Point in C + 0, //Boiling Point in C + 100, //Protons + 100, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + null); + + public static final Material INCONEL_625 = new Material( + "Inconel-625", //Material Name + new short[]{128, 200, 128, 0}, //Material Colour + 1425, //Melting Point in C + ((ELEMENT.NICKEL.getBoilingPoint_C()*6)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*2)+(ELEMENT.IRON.getBoilingPoint_C()*1)+(ELEMENT.MOLYBDENUM.getBoilingPoint_C()*1))/10, //Boiling Point in C + ((ELEMENT.NICKEL.getProtons()*6)+(ELEMENT.CHROMIUM.getProtons()*2)+(ELEMENT.IRON.getProtons()*1)+(ELEMENT.MOLYBDENUM.getProtons()*1))/10, //Protons + ((ELEMENT.NICKEL.getNeutrons()*6)+(ELEMENT.CHROMIUM.getNeutrons()*2)+(ELEMENT.IRON.getNeutrons()*1)+(ELEMENT.MOLYBDENUM.getNeutrons()*1))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.NICKEL, 60), + new MaterialStack(ELEMENT.CHROMIUM, 20), + new MaterialStack(ELEMENT.IRON, 10), + new MaterialStack(ELEMENT.MOLYBDENUM, 10) + }); + + public static final Material INCONEL_690 = new Material( + "Inconel-690", //Material Name + new short[]{118, 220, 138, 0}, //Material Colour + 1425, //Melting Point in C + ((ELEMENT.NICKEL.getBoilingPoint_C()*6)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*2)+(ELEMENT.NIOBIUM.getBoilingPoint_C()*1)+(ELEMENT.MOLYBDENUM.getBoilingPoint_C()*1))/10, //Boiling Point in C + ((ELEMENT.NICKEL.getProtons()*6)+(ELEMENT.CHROMIUM.getProtons()*2)+(ELEMENT.NIOBIUM.getProtons()*1)+(ELEMENT.MOLYBDENUM.getProtons()*1))/10, //Protons + ((ELEMENT.NICKEL.getNeutrons()*6)+(ELEMENT.CHROMIUM.getNeutrons()*2)+(ELEMENT.NIOBIUM.getNeutrons()*1)+(ELEMENT.MOLYBDENUM.getNeutrons()*1))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.NICKEL, 60), + new MaterialStack(ELEMENT.CHROMIUM, 20), + new MaterialStack(ELEMENT.NIOBIUM, 10), + new MaterialStack(ELEMENT.MOLYBDENUM, 10) + }); + + public static final Material INCONEL_792 = new Material( + "Inconel-792", //Material Name + new short[]{108, 240, 118, 0}, //Material Colour + 1425, //Melting Point in C + ((ELEMENT.NICKEL.getBoilingPoint_C()*6)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*1)+(ELEMENT.IRON.getBoilingPoint_C()*1)+(ELEMENT.ALUMINIUM.getBoilingPoint_C()*2))/10, //Boiling Point in C + ((ELEMENT.NICKEL.getProtons()*6)+(ELEMENT.CHROMIUM.getProtons()*1)+(ELEMENT.IRON.getProtons()*1)+(ELEMENT.ALUMINIUM.getProtons()*2))/10, //Protons + ((ELEMENT.NICKEL.getNeutrons()*6)+(ELEMENT.CHROMIUM.getNeutrons()*1)+(ELEMENT.IRON.getNeutrons()*1)+(ELEMENT.ALUMINIUM.getNeutrons()*2))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.NICKEL, 60), + new MaterialStack(ELEMENT.CHROMIUM, 10), + new MaterialStack(ELEMENT.NIOBIUM, 10), + new MaterialStack(ELEMENT.ALUMINIUM, 20) + }); + + public static final Material STEEL = new Material( + "Steel", //Material Name + new short[]{180, 180, 20, 0}, //Material Colour + ((ELEMENT.CARBON.getMeltingPoint_C()*5)+(ELEMENT.IRON.getMeltingPoint_C()*95))/100, //Melting point in C + ((ELEMENT.CARBON.getBoilingPoint_C()*5)+(ELEMENT.IRON.getBoilingPoint_C()*95))/100, //Boiling Point in C + ((ELEMENT.CARBON.getProtons()*5)+(ELEMENT.IRON.getProtons()*95))/100, //Protons + ((ELEMENT.CARBON.getNeutrons()*5)+(ELEMENT.IRON.getNeutrons()*95))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.CARBON, 05), + new MaterialStack(ELEMENT.IRON, 95) + }); + + public static final Material ZERON_100 = new Material( + "Zeron-100", //Material Name + new short[]{180, 180, 20, 0}, //Material Colour + ((ELEMENT.CHROMIUM.getMeltingPoint_C()*25)+(ELEMENT.NICKEL.getMeltingPoint_C()*6)+(ELEMENT.COBALT.getMeltingPoint_C()*9)+(ALLOY.STEEL.getMeltingPoint_C()*60))/100, //Melting Point in C + ((ELEMENT.CHROMIUM.getBoilingPoint_C()*25)+(ELEMENT.NICKEL.getBoilingPoint_C()*6)+(ELEMENT.COBALT.getBoilingPoint_C()*9)+(ALLOY.STEEL.getBoilingPoint_C()*60))/100, //Boiling Point in C + ((ELEMENT.CHROMIUM.getProtons()*25)+(ELEMENT.NICKEL.getProtons()*6)+(ELEMENT.COBALT.getProtons()*9)+(ALLOY.STEEL.getProtons()*60))/100, //Protons + ((ELEMENT.CHROMIUM.getNeutrons()*25)+(ELEMENT.NICKEL.getNeutrons()*6)+(ELEMENT.COBALT.getNeutrons()*9)+(ALLOY.STEEL.getNeutrons()*60))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.CHROMIUM, 25), + new MaterialStack(ELEMENT.NICKEL, 6), + new MaterialStack(ELEMENT.COBALT, 9), + new MaterialStack(ALLOY.STEEL, 60) + }); + + public static final Material MARAGING250 = new Material( + "Maraging Steel 250", //Material Name + new short[]{140, 140, 140, 0}, //Material Colour + 1413, //Melting Point in C + ((ELEMENT.TITANIUM.getBoilingPoint_C()*5)+(ELEMENT.NICKEL.getBoilingPoint_C()*16)+(ELEMENT.COBALT.getBoilingPoint_C()*9)+(ALLOY.STEEL.getBoilingPoint_C()*70))/100, //Boiling Point in C + ((ELEMENT.TITANIUM.getProtons()*5)+(ELEMENT.NICKEL.getProtons()*16)+(ELEMENT.COBALT.getProtons()*9)+(ALLOY.STEEL.getProtons()*70))/100, //Protons + ((ELEMENT.TITANIUM.getNeutrons()*5)+(ELEMENT.NICKEL.getNeutrons()*16)+(ELEMENT.COBALT.getNeutrons()*9)+(ALLOY.STEEL.getNeutrons()*70))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.TITANIUM, 5), + new MaterialStack(ELEMENT.NICKEL, 16), + new MaterialStack(ELEMENT.COBALT, 9), + new MaterialStack(ALLOY.STEEL, 70) + }); + + public static final Material MARAGING300 = new Material( + "Maraging Steel 300", //Material Name + new short[]{150, 150, 150, 0}, //Material Colour + 1413, //Melting Point in C + ((ELEMENT.TITANIUM.getBoilingPoint_C()*10)+(ELEMENT.NICKEL.getBoilingPoint_C()*21)+(ELEMENT.COBALT.getBoilingPoint_C()*14)+(ALLOY.STEEL.getBoilingPoint_C()*55))/100, //Boiling Point in C + ((ELEMENT.TITANIUM.getProtons()*10)+(ELEMENT.NICKEL.getProtons()*21)+(ELEMENT.COBALT.getProtons()*14)+(ALLOY.STEEL.getProtons()*55))/100, //Protons + ((ELEMENT.TITANIUM.getNeutrons()*10)+(ELEMENT.NICKEL.getNeutrons()*21)+(ELEMENT.COBALT.getNeutrons()*14)+(ALLOY.STEEL.getNeutrons()*55))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.TITANIUM, 10), + new MaterialStack(ELEMENT.NICKEL, 21), + new MaterialStack(ELEMENT.COBALT, 14), + new MaterialStack(ALLOY.STEEL, 55) + }); + + public static final Material MARAGING350 = new Material( + "Maraging Steel 350", //Material Name + new short[]{160, 160, 160, 0}, //Material Colour + 1413, //Melting Point in C + ((ELEMENT.TITANIUM.getBoilingPoint_C()*15)+(ELEMENT.NICKEL.getBoilingPoint_C()*21)+(ELEMENT.COBALT.getBoilingPoint_C()*9)+(ALLOY.STEEL.getBoilingPoint_C()*55))/100, //Boiling Point in C + ((ELEMENT.TITANIUM.getProtons()*15)+(ELEMENT.NICKEL.getProtons()*21)+(ELEMENT.COBALT.getProtons()*9)+(ALLOY.STEEL.getProtons()*55))/100, //Protons + ((ELEMENT.TITANIUM.getNeutrons()*15)+(ELEMENT.NICKEL.getNeutrons()*21)+(ELEMENT.COBALT.getNeutrons()*9)+(ALLOY.STEEL.getNeutrons()*55))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.TITANIUM, 15), + new MaterialStack(ELEMENT.NICKEL, 21), + new MaterialStack(ELEMENT.COBALT, 9), + new MaterialStack(ALLOY.STEEL, 55) + }); + + public static final Material STELLITE = new Material( + "Stellite", //Material Name + new short[]{129, 75, 120, 0}, //Material Colour + 1310, //Melting Point in C + ((ELEMENT.TITANIUM.getBoilingPoint_C()*10)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*35)+(ELEMENT.COBALT.getBoilingPoint_C()*35)+(ELEMENT.MANGANESE.getBoilingPoint_C()*20))/100, //Boiling Point in C + ((ELEMENT.TITANIUM.getProtons()*10)+(ELEMENT.CHROMIUM.getProtons()*35)+(ELEMENT.COBALT.getProtons()*35)+(ELEMENT.MANGANESE.getProtons()*20))/100, //Protons + ((ELEMENT.TITANIUM.getNeutrons()*10)+(ELEMENT.CHROMIUM.getNeutrons()*35)+(ELEMENT.COBALT.getNeutrons()*35)+(ELEMENT.MANGANESE.getNeutrons()*20))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.COBALT, 35), + new MaterialStack(ELEMENT.CHROMIUM, 35), + new MaterialStack(ELEMENT.MANGANESE, 20), + new MaterialStack(ELEMENT.TITANIUM, 10) + }); + + public static final Material TALONITE = new Material( + "Talonite", //Material Name + new short[]{228, 75, 120, 0}, //Material Colour + 1454, //Melting Point in C + ((ELEMENT.MOLYBDENUM.getBoilingPoint_C()*10)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*30)+(ELEMENT.COBALT.getBoilingPoint_C()*40)+(ELEMENT.PHOSPHORUS.getBoilingPoint_C()*20))/100, //Boiling Point in C + ((ELEMENT.MOLYBDENUM.getProtons()*10)+(ELEMENT.CHROMIUM.getProtons()*30)+(ELEMENT.COBALT.getProtons()*40)+(ELEMENT.PHOSPHORUS.getProtons()*20))/100, //Protons + ((ELEMENT.MOLYBDENUM.getNeutrons()*10)+(ELEMENT.CHROMIUM.getNeutrons()*30)+(ELEMENT.COBALT.getNeutrons()*40)+(ELEMENT.PHOSPHORUS.getNeutrons()*20))/100, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.COBALT, 40), + new MaterialStack(ELEMENT.CHROMIUM, 30), + new MaterialStack(ELEMENT.PHOSPHORUS, 20), + new MaterialStack(ELEMENT.MOLYBDENUM, 10) + }); + + public static final Material HASTELLOY_W = new Material( + "Hastelloy-W", //Material Name + new short[]{218, 165, 32, 0}, //Material Colour + 1350, //Melting Point in C + ((ELEMENT.IRON.getBoilingPoint_C()*6)+(ELEMENT.MOLYBDENUM.getBoilingPoint_C()*24)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*5)+(ELEMENT.NICKEL.getBoilingPoint_C()*65))/100, //Boiling Point in C + ((ELEMENT.IRON.getProtons()*6)+(ELEMENT.MOLYBDENUM.getProtons()*24)+(ELEMENT.CHROMIUM.getProtons()*5)+(ELEMENT.NICKEL.getProtons()*65))/100, //Protons + ((ELEMENT.IRON.getNeutrons()*6)+(ELEMENT.MOLYBDENUM.getNeutrons()*24)+(ELEMENT.CHROMIUM.getNeutrons()*5)+(ELEMENT.NICKEL.getNeutrons()*65))/100, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.IRON, 06), + new MaterialStack(ELEMENT.MOLYBDENUM, 24), + new MaterialStack(ELEMENT.CHROMIUM, 5), + new MaterialStack(ELEMENT.NICKEL, 65) + }); + + public static final Material HASTELLOY_X = new Material( + "Hastelloy-X", //Material Name + new short[]{255, 193, 37, 0}, //Material Colour + 1350, //Melting Point in C + ((ELEMENT.IRON.getBoilingPoint_C()*18)+(ELEMENT.MOLYBDENUM.getBoilingPoint_C()*9)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*22)+(ELEMENT.NICKEL.getBoilingPoint_C()*51))/100, //Boiling Point in C + ((ELEMENT.IRON.getProtons()*18)+(ELEMENT.MOLYBDENUM.getProtons()*9)+(ELEMENT.CHROMIUM.getProtons()*22)+(ELEMENT.NICKEL.getProtons()*51))/100, //Protons + ((ELEMENT.IRON.getNeutrons()*18)+(ELEMENT.MOLYBDENUM.getNeutrons()*9)+(ELEMENT.CHROMIUM.getNeutrons()*22)+(ELEMENT.NICKEL.getNeutrons()*51))/100, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.IRON, 18), + new MaterialStack(ELEMENT.MOLYBDENUM, 9), + new MaterialStack(ELEMENT.CHROMIUM, 22), + new MaterialStack(ELEMENT.NICKEL, 51) + }); + + public static final Material HASTELLOY_N = new Material( + "Hastelloy-N", //Material Name + new short[]{236, 213, 48, 0}, //Material Colour + 1350, //Melting Point in C + ((ELEMENT.YTTRIUM.getBoilingPoint_C()*5)+(ELEMENT.MOLYBDENUM.getBoilingPoint_C()*16)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*7)+(ELEMENT.NICKEL.getBoilingPoint_C()*72))/100, //Boiling Point in C + ((ELEMENT.YTTRIUM.getProtons()*5)+(ELEMENT.MOLYBDENUM.getProtons()*16)+(ELEMENT.CHROMIUM.getProtons()*7)+(ELEMENT.NICKEL.getProtons()*72))/100, //Protons + ((ELEMENT.YTTRIUM.getNeutrons()*5)+(ELEMENT.MOLYBDENUM.getNeutrons()*16)+(ELEMENT.CHROMIUM.getNeutrons()*7)+(ELEMENT.NICKEL.getNeutrons()*72))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.YTTRIUM, 05), + new MaterialStack(ELEMENT.MOLYBDENUM, 16), + new MaterialStack(ELEMENT.CHROMIUM, 7), + new MaterialStack(ELEMENT.NICKEL, 72) + }); + + public static final Material HASTELLOY_C276 = new Material( + "Hastelloy-C276", //Material Name + new short[]{238, 180, 34, 0}, //Material Colour + 1350, //Melting Point in C + ((ELEMENT.COBALT.getBoilingPoint_C()*2)+(ELEMENT.MOLYBDENUM.getBoilingPoint_C()*16)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*16)+(ELEMENT.NICKEL.getBoilingPoint_C()*66))/100, //Boiling Point in C + ((ELEMENT.COBALT.getProtons()*2)+(ELEMENT.MOLYBDENUM.getProtons()*16)+(ELEMENT.CHROMIUM.getProtons()*16)+(ELEMENT.NICKEL.getProtons()*66))/100, //Protons + ((ELEMENT.COBALT.getNeutrons()*2)+(ELEMENT.MOLYBDENUM.getNeutrons()*16)+(ELEMENT.CHROMIUM.getNeutrons()*16)+(ELEMENT.NICKEL.getNeutrons()*66))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.COBALT, 02), + new MaterialStack(ELEMENT.MOLYBDENUM, 16), + new MaterialStack(ELEMENT.CHROMIUM, 16), + new MaterialStack(ELEMENT.NICKEL, 66) + }); + + public static final Material INCOLOY_020 = new Material( + "Incoloy-020", //Material Name + new short[]{101, 81, 71, 0}, //Material Colour + 1425, //Melting Point in C + ((ELEMENT.IRON.getBoilingPoint_C()*40)+(ELEMENT.COPPER.getBoilingPoint_C()*4)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*20)+(ELEMENT.NICKEL.getBoilingPoint_C()*36))/100, //Boiling Point in C + ((ELEMENT.IRON.getProtons()*40)+(ELEMENT.COPPER.getProtons()*4)+(ELEMENT.CHROMIUM.getProtons()*20)+(ELEMENT.NICKEL.getProtons()*36))/100, //Protons + ((ELEMENT.IRON.getNeutrons()*40)+(ELEMENT.COPPER.getNeutrons()*4)+(ELEMENT.CHROMIUM.getNeutrons()*20)+(ELEMENT.NICKEL.getNeutrons()*36))/100, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.IRON, 40), + new MaterialStack(ELEMENT.COPPER, 4), + new MaterialStack(ELEMENT.CHROMIUM, 20), + new MaterialStack(ELEMENT.NICKEL, 36) + }); + + public static final Material INCOLOY_DS = new Material( + "Incoloy-DS", //Material Name + new short[]{71, 101, 81, 0}, //Material Colour + 1425, //Melting Point in C + ((ELEMENT.IRON.getBoilingPoint_C()*46)+(ELEMENT.COBALT.getBoilingPoint_C()*18)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*18)+(ELEMENT.NICKEL.getBoilingPoint_C()*18))/100, //Boiling Point in C + ((ELEMENT.IRON.getProtons()*46)+(ELEMENT.COBALT.getProtons()*18)+(ELEMENT.CHROMIUM.getProtons()*18)+(ELEMENT.NICKEL.getProtons()*18))/100, //Protons + ((ELEMENT.IRON.getNeutrons()*46)+(ELEMENT.COBALT.getNeutrons()*18)+(ELEMENT.CHROMIUM.getNeutrons()*18)+(ELEMENT.NICKEL.getNeutrons()*18))/100, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.IRON, 46), + new MaterialStack(ELEMENT.COBALT, 18), + new MaterialStack(ELEMENT.CHROMIUM, 18), + new MaterialStack(ELEMENT.NICKEL, 18) + }); + + public static final Material INCOLOY_MA956 = new Material( + "Incoloy-MA956", //Material Name + new short[]{81, 71, 101, 0}, //Material Colour + 1425, //Melting Point in C + ((ELEMENT.IRON.getBoilingPoint_C()*75)+(ELEMENT.ALUMINIUM.getBoilingPoint_C()*4)+(ELEMENT.CHROMIUM.getBoilingPoint_C()*20)+(ELEMENT.YTTRIUM.getBoilingPoint_C()*1))/100, //Boiling Point in C + ((ELEMENT.IRON.getProtons()*75)+(ELEMENT.ALUMINIUM.getProtons()*4)+(ELEMENT.CHROMIUM.getProtons()*20)+(ELEMENT.YTTRIUM.getProtons()*1))/100, //Protons + ((ELEMENT.IRON.getNeutrons()*75)+(ELEMENT.ALUMINIUM.getNeutrons()*4)+(ELEMENT.CHROMIUM.getNeutrons()*20)+(ELEMENT.YTTRIUM.getNeutrons()*1))/100, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.IRON, 75), + new MaterialStack(ELEMENT.ALUMINIUM, 4), + new MaterialStack(ELEMENT.CHROMIUM, 20), + new MaterialStack(ELEMENT.YTTRIUM, 1) + }); + + public static final Material TUNGSTEN_CARBIDE = new Material( + "Tungsten Carbide", //Material Name + new short[]{44, 44, 44, 0}, //Material Colour + 3422, //Melting Point in C + ((ELEMENT.TUNGSTEN.getBoilingPoint_C()*5)+(ELEMENT.CARBON.getBoilingPoint_C()*5))/10, //Boiling Point in C + ((ELEMENT.TUNGSTEN.getProtons()*5)+(ELEMENT.CARBON.getProtons()*5))/10, //Protons + ((ELEMENT.TUNGSTEN.getNeutrons()*5)+(ELEMENT.CARBON.getNeutrons()*5))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.CARBON, 50), + new MaterialStack(ELEMENT.TUNGSTEN, 50) + }); + + public static final Material SILICON_CARBIDE = new Material( + "Silicon Carbide", //Material Name + new short[]{40, 48, 36, 0}, //Material Colour + 1414, //Melting Point in C + ((ELEMENT.SILICON.getBoilingPoint_C()*5)+(ELEMENT.CARBON.getBoilingPoint_C()*5))/10, //Boiling Point in C + ((ELEMENT.SILICON.getProtons()*5)+(ELEMENT.CARBON.getProtons()*5))/10, //Protons + ((ELEMENT.SILICON.getNeutrons()*5)+(ELEMENT.CARBON.getNeutrons()*5))/10, //Neutrons + false, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.CARBON, 50), + new MaterialStack(ELEMENT.SILICON, 50) + }); + + public static final Material TANTALUM_CARBIDE = new Material( + "Tantalum Carbide", //Material Name + new short[]{139, 136, 120, 0}, //Material Colour + 2980, //Melting Point in C + ((ELEMENT.TANTALUM.getBoilingPoint_C()*5)+(ELEMENT.CARBON.getBoilingPoint_C()*5))/10, //Boiling Point in C + ((ELEMENT.TANTALUM.getProtons()*5)+(ELEMENT.CARBON.getProtons()*5))/10, //Protons + ((ELEMENT.TANTALUM.getNeutrons()*5)+(ELEMENT.CARBON.getNeutrons()*5))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.CARBON, 50), + new MaterialStack(ELEMENT.TANTALUM, 50) + }); + + public static final Material ZIRCONIUM_CARBIDE = new Material( + "Zirconium Carbide", //Material Name + new short[]{222, 202, 180, 0}, //Material Colour + 1855, //Melting Point in C + ((ELEMENT.ZIRCONIUM.getBoilingPoint_C()*5)+(ELEMENT.CARBON.getBoilingPoint_C()*5))/10, //Boiling Point in C + ((ELEMENT.ZIRCONIUM.getProtons()*5)+(ELEMENT.CARBON.getProtons()*5))/10, //Protons + ((ELEMENT.ZIRCONIUM.getNeutrons()*5)+(ELEMENT.CARBON.getNeutrons()*5))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.CARBON, 50), + new MaterialStack(ELEMENT.ZIRCONIUM, 50) + }); + + public static final Material NIOBIUM_CARBIDE = new Material( + "Niobium Carbide", //Material Name + new short[]{205, 197, 191, 0}, //Material Colour + 2477, //Melting Point in C + ((ELEMENT.NIOBIUM.getBoilingPoint_C()*5)+(ELEMENT.CARBON.getBoilingPoint_C()*5))/10, //Boiling Point in C + ((ELEMENT.NIOBIUM.getProtons()*5)+(ELEMENT.CARBON.getProtons()*5))/10, //Protons + ((ELEMENT.NIOBIUM.getNeutrons()*5)+(ELEMENT.CARBON.getNeutrons()*5))/10, //Neutrons + true, //Uses Blast furnace? + //Material Stacks with Percentage of required elements. + new MaterialStack[]{ + new MaterialStack(ELEMENT.CARBON, 50), + new MaterialStack(ELEMENT.NIOBIUM, 50) + }); + + +} diff --git a/src/Java/gtPlusPlus/core/material/ELEMENT.java b/src/Java/gtPlusPlus/core/material/ELEMENT.java new file mode 100644 index 0000000000..307105eaf0 --- /dev/null +++ b/src/Java/gtPlusPlus/core/material/ELEMENT.java @@ -0,0 +1,85 @@ +package gtPlusPlus.core.material; + +import gregtech.api.enums.Materials; +import gtPlusPlus.core.util.materials.MaterialUtils; + +public final class ELEMENT { + + + //First 50 Elements + public static final Material HYDROGEN = MaterialUtils.generateMaterialFromGtENUM(Materials.Hydrogen); + public static final Material HELIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Helium); + public static final Material LITHIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Lithium); + public static final Material BERYLLIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Beryllium); + public static final Material BORON = MaterialUtils.generateMaterialFromGtENUM(Materials.Boron); + public static final Material CARBON = MaterialUtils.generateMaterialFromGtENUM(Materials.Carbon); + public static final Material NITROGEN = MaterialUtils.generateMaterialFromGtENUM(Materials.Nitrogen); + public static final Material OXYGEN = MaterialUtils.generateMaterialFromGtENUM(Materials.Oxygen); + public static final Material FLUORINE = MaterialUtils.generateMaterialFromGtENUM(Materials.Fluorine); + //public static final Material NEON = MaterialUtils.generateMaterialFromGtENUM(Materials.Ne); + public static final Material SODIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Sodium); + public static final Material MAGNESIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Magnesium); + public static final Material ALUMINIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Aluminium); + public static final Material SILICON = MaterialUtils.generateMaterialFromGtENUM(Materials.Silicon); + public static final Material PHOSPHORUS = MaterialUtils.generateMaterialFromGtENUM(Materials.Phosphorus); + public static final Material SULFUR = MaterialUtils.generateMaterialFromGtENUM(Materials.Sulfur); + public static final Material CHLORINE = MaterialUtils.generateMaterialFromGtENUM(Materials.Chlorine); + public static final Material ARGON = MaterialUtils.generateMaterialFromGtENUM(Materials.Argon); + public static final Material POTASSIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Potassium); + public static final Material CALCIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Calcium); + public static final Material SCANDIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Scandium); + public static final Material TITANIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Titanium); + public static final Material VANADIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Vanadium); + public static final Material CHROMIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Chrome); + public static final Material MANGANESE = MaterialUtils.generateMaterialFromGtENUM(Materials.Manganese); + public static final Material IRON = MaterialUtils.generateMaterialFromGtENUM(Materials.Iron); + public static final Material COBALT = MaterialUtils.generateMaterialFromGtENUM(Materials.Cobalt); + public static final Material NICKEL = MaterialUtils.generateMaterialFromGtENUM(Materials.Nickel); + public static final Material COPPER = MaterialUtils.generateMaterialFromGtENUM(Materials.Copper); + public static final Material ZINC = MaterialUtils.generateMaterialFromGtENUM(Materials.Zinc); + public static final Material GALLIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Gallium); + //public static final Material GERMANIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Germanium); + public static final Material ARSENIC = MaterialUtils.generateMaterialFromGtENUM(Materials.Arsenic); + //public static final Material SELENIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Selenium); + //public static final Material BROMINE = MaterialUtils.generateMaterialFromGtENUM(Materials.Bromine); + //public static final Material KRYPTON = MaterialUtils.generateMaterialFromGtENUM(Materials.Krypton); + public static final Material RUBIDIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Rubidium); + public static final Material STRONTIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Strontium); + public static final Material YTTRIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Yttrium); + public static final Material ZIRCONIUM = new Material("Zirconium", new short[]{255, 250, 205}, 1855, 4377, 40, 51, false, null);//Not a GT Inherited Material + public static final Material NIOBIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Niobium); + public static final Material MOLYBDENUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Molybdenum); + //public static final Material TECHNETIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Technetium); + //public static final Material RUTHENIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Ruthenium); + //public static final Material RHODIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Rhodium); + public static final Material PALLADIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Palladium); + public static final Material SILVER = MaterialUtils.generateMaterialFromGtENUM(Materials.Silver); + public static final Material CADMIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Cadmium); + public static final Material INDIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Indium); + public static final Material TIN = MaterialUtils.generateMaterialFromGtENUM(Materials.Tin); + + + + + + + + + + //Second 50 elements + public static final Material TANTALUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Tantalum); + public static final Material TUNGSTEN = MaterialUtils.generateMaterialFromGtENUM(Materials.Tungsten); + public static final Material OSMIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Osmium); + public static final Material IRIDIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Iridium); + public static final Material PLATINUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Platinum); + public static final Material GOLD = MaterialUtils.generateMaterialFromGtENUM(Materials.Gold); + public static final Material LEAD = MaterialUtils.generateMaterialFromGtENUM(Materials.Lead); + public static final Material BISMUTH = MaterialUtils.generateMaterialFromGtENUM(Materials.Bismuth); + public static final Material RADON = MaterialUtils.generateMaterialFromGtENUM(Materials.Radon); + public static final Material THORIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Thorium); + public static final Material URANIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Uranium); + public static final Material PLUTONIUM = MaterialUtils.generateMaterialFromGtENUM(Materials.Plutonium); + public static final Material URANIUM233 = new Material("Uranium-233", new short[]{73, 220, 83, 0}, 1132, 4131, 92, 141, false, null);//Not a GT Inherited Material + + +} diff --git a/src/Java/gtPlusPlus/core/material/Material.java b/src/Java/gtPlusPlus/core/material/Material.java new file mode 100644 index 0000000000..2939016798 --- /dev/null +++ b/src/Java/gtPlusPlus/core/material/Material.java @@ -0,0 +1,154 @@ +package gtPlusPlus.core.material; + +import gtPlusPlus.core.util.Utils; +import gtPlusPlus.core.util.item.UtilsItems; +import gtPlusPlus.core.util.math.MathUtils; +import net.minecraft.item.ItemStack; + +public class Material { + + final String unlocalizedName; + final String localizedName; + + private MaterialStack[] materialInput = new MaterialStack[4]; + + final short[] RGBA; + + final boolean usesBlastFurnace; + + final int meltingPointK; + final int boilingPointK; + final int meltingPointC; + final int boilingPointC; + final long vProtons; + final long vNeutrons; + final long vMass; + + public Material(String materialName, short[] rgba, int meltingPoint, int boilingPoint, long protons, long neutrons, boolean blastFurnace, MaterialStack[] inputs){ + + this.unlocalizedName = Utils.sanitizeString(materialName); + this.localizedName = materialName; + this.RGBA = rgba; + this.meltingPointC = meltingPoint; + if (boilingPoint == 0){ + boilingPoint = meltingPoint*4; + } + this.boilingPointC = boilingPoint; + this.meltingPointK = (int) MathUtils.celsiusToKelvin(meltingPointC); + this.boilingPointK = (int) MathUtils.celsiusToKelvin(boilingPointC); + this.vProtons = protons; + this.vNeutrons = neutrons; + this.vMass = getMass(); + this.usesBlastFurnace = blastFurnace; + + if (inputs == null){ + this.materialInput = null; + } + else { + if (inputs.length != 0){ + for (int i=0; i < inputs.length; i++){ + if (inputs[i] != null){ + this.materialInput[i] = inputs[i]; + } + } + } + } + Utils.LOG_INFO("Creating a Material instance for "+materialName); + Utils.LOG_INFO("Protons: "+vProtons); + Utils.LOG_INFO("Neutrons: "+vNeutrons); + Utils.LOG_INFO("Mass: "+vMass+"/units"); + Utils.LOG_INFO("Melting Point: "+meltingPointC+"C."); + Utils.LOG_INFO("Boiling Point: "+boilingPointC+"C."); + } + + public String getLocalizedName(){ + return localizedName; + } + + public String getUnlocalizedName(){ + return unlocalizedName; + } + + public short[] getRGBA(){ + return RGBA; + } + + public long getProtons() { + return vProtons; + } + + public long getNeutrons() { + return vNeutrons; + } + + public long getMass() { + return vProtons + vNeutrons; + } + + public int getMeltingPoint_C() { + return meltingPointC; + } + + public int getBoilingPoint_C() { + return boilingPointC; + } + + public boolean requiresBlastFurnace(){ + return usesBlastFurnace; + } + + public ItemStack getDust(int stacksize){ + return UtilsItems.getItemStackOfAmountFromOreDictNoBroken("dust"+unlocalizedName, stacksize); + } + + public ItemStack getSmallDust(int stacksize){ + return UtilsItems.getItemStackOfAmountFromOreDictNoBroken("dustSmall"+unlocalizedName, stacksize); + } + + public ItemStack getTinyDust(int stacksize){ + return UtilsItems.getItemStackOfAmountFromOreDictNoBroken("dustTiny"+unlocalizedName, stacksize); + } + + public ItemStack[] getValidInputStacks(){ + return UtilsItems.validItemsForOreDict(unlocalizedName); + } + + public ItemStack[] getMaterialComposites(){ + //Utils.LOG_INFO("Something requested the materials needed for "+localizedName); + if (materialInput != null && materialInput.length >= 1){ + ItemStack[] temp = new ItemStack[materialInput.length]; + for (int i=0;i<materialInput.length;i++){ + //Utils.LOG_INFO("i:"+i); + ItemStack testNull = null; + try { + testNull = materialInput[i].getDustStack(); + } catch (Throwable r){ + Utils.LOG_INFO("Failed gathering material stack for "+localizedName+"."); + Utils.LOG_INFO("What Failed: Length:"+materialInput.length+" current:"+i); + } + try { + if (testNull != null){ + //Utils.LOG_INFO("not null"); + temp[i] = materialInput[i].getDustStack(); + } + } catch (Throwable r){ + Utils.LOG_INFO("Failed setting slot "+i+", using "+localizedName); + } + } + return temp; + } + return new ItemStack[]{}; + } + + public int[] getMaterialCompositeStackSizes(){ + if (materialInput != null && materialInput.length >= 1){ + int[] temp = new int[materialInput.length]; + for (int i=0;i<materialInput.length;i++){ + temp[i] = materialInput[i].getDustStack().stackSize; + } + return temp; + } + return new int[]{}; + } + +} diff --git a/src/Java/gtPlusPlus/core/material/MaterialStack.java b/src/Java/gtPlusPlus/core/material/MaterialStack.java new file mode 100644 index 0000000000..f8b9b35bd8 --- /dev/null +++ b/src/Java/gtPlusPlus/core/material/MaterialStack.java @@ -0,0 +1,72 @@ +package gtPlusPlus.core.material; + +import gtPlusPlus.core.util.item.UtilsItems; +import net.minecraft.item.ItemStack; + +public class MaterialStack { + + final Material materialInput; + final double percentageToUse; + + public MaterialStack(Material inputs, double percentage){ + + this.materialInput = inputs; + this.percentageToUse = percentage; + + + } + + public ItemStack getDustStack(){ + int caseStatus = 0; + int amount = 0; + if (percentageToUse >= 0 && percentageToUse <= 0.99){ + caseStatus = 1; + amount = (int) (1/percentageToUse); + //amount = Integer.valueOf(String.valueOf(percentageToUse).charAt(2)); + } + else if (percentageToUse >= 1 && percentageToUse <= 9.99){ + caseStatus = 2; + amount = (int) (percentageToUse); + //amount = Integer.valueOf(String.valueOf(percentageToUse).charAt(0)); + } + else if (percentageToUse >= 10 && percentageToUse <= 99.99){ + caseStatus = 3; + amount = (int) (percentageToUse/10); + //amount = Integer.valueOf(String.valueOf(percentageToUse).charAt(0)); + } + else if (percentageToUse == 100){ + caseStatus = 4; + amount = 10; + } + else { + amount = 0; + } + switch (caseStatus) { + case 1: { + return UtilsItems.getItemStackOfAmountFromOreDictNoBroken("dustTiny"+materialInput.unlocalizedName, amount); + } + case 2: { + return UtilsItems.getItemStackOfAmountFromOreDictNoBroken("dustSmall"+materialInput.unlocalizedName, amount); + } + case 3: { + return UtilsItems.getItemStackOfAmountFromOreDictNoBroken("dust"+materialInput.unlocalizedName, amount); + } + case 4: { + return UtilsItems.getItemStackOfAmountFromOreDictNoBroken("dust"+materialInput.unlocalizedName, amount); + } + default: + return null; + } + + } + + public ItemStack[] getValidItemStacks(){ + return UtilsItems.validItemsForOreDict(materialInput.unlocalizedName); + } + + + + + + +} |