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Smelting Superalloys with the Energized Alloyer

guide

The Energized Alloyer enables high-temperature thermal fusion to create advanced superalloys, specialty steels, and reinforced transparent ceramics in Electrodynamics. Rather than relying on simple crafting blends, the alloyer uses electric induction heating to fuse dissimilar metals into heat-resistant and superconductive ingots.

Operating the Energized Alloyer

The Energized Alloyer accepts multiple solid metal charges and draws continuous electrical power to fuse them into composite alloys:

Upgraded Yields in the Reinforced Alloyer

Upgrading to the multi-chamber Reinforced Alloyer unlocks higher metallurgical yields and extreme superalloy recipes:

Metallurgical Hierarchy and Applications

Progressing through the alloy tiers unlocks specific structural applications:

  • Stainless steel withstands corrosive acids in chemical tanks and advanced transformers.
  • HSLA steel provides extreme tensile strength for high-pressure gas storage and heavy drill heads.
  • Titanium carbide forms wear-resistant tooling inserts for high-speed lathes.
  • Superconductive ingots form zero-resistance High Voltage (HV) electrical wiring.

Stocking coal coke, chromium, and molybdenum guarantees continuous alloy output for heavy construction projects.

Titanium Carbide IngotStainless Steel IngotSuperconductive IngotVanadium Steel IngotReinforced AlloyerEnergized AlloyerHSLA Steel IngotMolybdenum IngotAluminum IngotChromium IngotTitanium IngotVanadium Ingot