9000 K)¶

Drawers first: naquadah dust (Keep Exact 12), zinc dust. Drums: fluoroantimonic acid, sulfuric acid, hydrogen, liquid helium, and one drum per solution (impure enriched, impure naquadria, enriched, naquadria). Each machine on its own router or Pipez pipe, with a Robot Arm cover in Keep Exact mode on the output. — functionalstorage:oak_1, gtceu:naquadah_dust, gtceu:zinc_dust, gtceu:fluoroantimonic_acid_bucket
Reactor: the Large Chemical Reactor on a LuV hatch takes 6 naquadah dust + 1 B fluoroantimonic acid and gives 2 B of each impure solution + 4 titanium trifluoride in 30 s. Two output hatches to two drums; the dust goes to the titanium line. — gtceu:large_chemical_reactor, gtceu:titanium_trifluoride_dust, gtceu:impure_enriched_naquadah_solution_bucket
Two IV Centrifuges (IV power; the naquadria one is exactly 7680 EU/t): 4 B impure enriched → 3 trinium sulfide + 4 antimony trifluoride + 3 B enriched solution (40 s); 4 B impure naquadria → 2 indium phosphide + 1 trinium sulfide + 4 antimony trifluoride + 3 B naquadria solution (30 s). Sulfide into one drawer, antimony trifluoride back to the acid line. — gtceu:iv_centrifuge, gtceu:trinium_sulfide_dust, gtceu:antimony_trifluoride_dust
Trinium EBF: 16 naquadah coil blocks (7200 K), a 4A hatch, circuit as the recipe wants, 2 trinium sulfide + 1 zinc dust → hot trinium in 37.5 s; then the Vacuum Freezer with liquid helium. The first ingots feed the trinium coils. — gtceu:electric_blast_furnace, gtceu:naquadah_coil_block, gtceu:trinium_ingot
Enriched: HV Mixer (1 B solution + 2 B sulfuric acid → 3 B acidic solution), HV Centrifuge (3 B → 2 B waste + 500 mB fluorine + 6 sulfate), then the 7000 K EBF with 2 B hydrogen → hot enriched ingot + 1 B acid. 7680 EU/t, 25 s. — gtceu:hv_mixer, gtceu:enriched_naquadah_sulfate_dust, gtceu:enriched_naquadah_ingot
Naquadria: same two steps, then an EBF with 16 trinium coil blocks (9001 K) and a 4A LuV or ZPM hatch for 122 880 EU/t: 6 naquadria sulfate + 2 B hydrogen → hot naquadria in 30 s, then the freezer. — gtceu:electric_blast_furnace, gtceu:trinium_coil_block, gtceu:naquadria_ingot
Easy to miss: loop the waste. A distillation tower takes the 2 B waste of each acid step and returns 250 mB of its own solution; without it you lose about 15 % of the line. Keep trinium for the coils first, only then spend it on foils. — functionalstorage:oak_1, gtceu:trinium_ingot

Tips¶

The base line is in the naquadah chain (naquadah dust → 6 dust + 1 B fluoroantimonic acid → 2 B impure enriched + 2 B impure naquadria + 4 titanium trifluoride, Large Chemical Reactor 600 ticks at 30 720 EU/t, NaquadahRecipes naquadah_separation). This chain is what happens next. Pack change (kjs additions/recipe_changes.js, ‘naquadah changes’): the impure-solution centrifuges are replaced: 4 B impure enriched naquadah solution → 3 trinium sulfide + 4 antimony trifluoride + 3 B enriched naquadah solution, 800 ticks, VHA[IV]; 4 B impure naquadria solution → 2 indium phosphide + 1 trinium sulfide + 4 antimony trifluoride + 3 B naquadria solution, 600 ticks, VA[IV].
Yield (derived from those recipes and cross-checked with the Chemical Plant skip, which gives 12 naquadah → 3 enriched + 3 naquadria + 2 trinium): 6 naquadah dust give 2 B + 2 B impure solution, i.e. 1.5 + 0.5 trinium sulfide = 2 sulfide = 1 trinium ingot, 1.5 B enriched solution and 1.5 B naquadria solution = 1.5 enriched naquadah ingots + 1.5 naquadria ingots, before the waste loops add a little more. The antimony trifluoride goes back into the fluoroantimonic acid line (4 antimony trifluoride + 4 B hydrofluoric acid → 1 B acid + 2 B hydrogen, 300 ticks, 480 EU/t), the indium phosphide into the indium line, the titanium trifluoride into titanium.
Acid loops (NaquadahRecipes, not changed by the pack): enriched: Mixer (HV, 100 ticks, 480 EU/t) 1 B solution + 2 B sulfuric acid → 3 B acidic solution; Centrifuge (HV, 100 ticks, 480 EU/t) 3 B acidic → 2 B waste + 500 mB fluorine + 6 enriched naquadah sulfate; EBF 7000 K, 500 ticks at 7680 EU/t: 6 sulfate + 2 B hydrogen → hot enriched naquadah ingot + 1 B sulfuric acid (freezer: 150 ticks at 2048, liquid helium above 5000 K). Naquadria is the same with the sulfate EBF at 9000 K, 600 ticks, VA[ZPM] = 122 880 EU/t (freezer 200 ticks at VA[LuV]). The waste loop: distillation tower 2 B waste → 50 % barium sulfide (enriched) or gallium sulfide (naquadria) + 500 mB sulfuric acid + 250 mB own solution + 100 mB of the other solution, 300 ticks at 480 EU/t.
Trinium: EBF 7200 K, EUt VA[LuV] = 30 720, 750 ticks: 2 trinium sulfide + 1 zinc dust → hot trinium ingot + 2 zinc sulfide (the zinc sulfide goes to the zinc loop); freezer 300 ticks at VA[IV] (ElementMaterials trinium: 7200 K, vacuum VA[IV] 300). 7200 K is exactly a NAQUADAH coil; so the first trinium needs naquadah coils (zpm_coils), which only need naquadah, not trinium. Naquadria needs 9000 K = TRINIUM coils (9001 K): the coils are made from trinium double wire, so the first naquadria comes only after the first 16 trinium ingots.
Power: the 9000 K recipe is 122 880 EU/t: an EBF on a LuV 4A hatch (4 x 32 768) or a ZPM hatch. The 7200 K and 7000 K ones fit a 4A IV hatch (30 720) and an IV hatch (7680). One EBF per recipe, each with its own coils: a single furnace cannot switch between 7000 K, 7200 K and 9000 K runs when circuit and hatch must differ.
Machines (verified): naquadah_separation is a Large Chemical Reactor recipe (LuV, 600 ticks). The LCR runs it with perfect overclock and NO parallel hatch; the Extreme Chemical Reactor (ECR) is the multi that accepts a parallel hatch (non-perfect overclock, batch mode), so scale this line with an ECR. The last step (naquadria sulfate, 9000 K, VA[ZPM], 600 ticks) can run in the Hardened Industrial Furnace [HIF, gtceu:super_ebf]: it takes ONE energy hatch and any heating coil, with batch mode and throughput boosting; a trinium coil (9001 K) covers 9000 K, the tritanium coil (10 800 K) is for hotter recipes. Unverified: how many HIFs equal one ECR.
Why you want all three: trinium is the foil of every ZPM emitter and sensor (96 foil = 24 ingots each, zpm_components2) and of the trinium coil and trinium gears; enriched naquadah is the foil of the trinium coil block and the ZPM fusion/UV casings; naquadria is molten in the stargate ring and the later UV recipes (and a fusion ingredient: the double naquadria plate of the ZPM fusion reactor). Trinium is the real bottleneck: 6 naquadah dust per ingot.
Sub-steps people skip: (1) the zinc dust of the trinium recipe is CONSUMED (2 zinc sulfide come back), unlike the zinc catalyst in the PBI line; (2) hot ingots must go through the Vacuum Freezer with liquid helium (all three are above 5000 K); (3) each acid loop returns its own sulfuric acid, so pipe EBF outputs into the sulfuric acid drum; (4) keep Keep Exact 16 on the sulfate drawers, an EBF waiting for hydrogen blocks the loop; (5) the 20 raw naquadah per run of the destabiliser is only about a quarter of an ingot each: plan the nether star line for dozens of shards.
Unverified the Centrifuge tier names (an IV Centrifuge for the 7680 EU/t centrifuges; the HV ones 480 EU/t), the hydrogen helium and sulfuric acid sources (earlier chains), and the exact yield of naquadah dust per raw naquadah ore.

Bill of materials¶

Item	Qty
`gtceu:large_chemical_reactor`	1
`gtceu:iv_centrifuge`	2
`gtceu:hv_centrifuge`	2
`gtceu:hv_mixer`	2
`gtceu:electric_blast_furnace`	3
`gtceu:naquadah_coil_block`	16
`gtceu:vacuum_freezer`	1
`gtceu:distillation_tower`	1
`functionalstorage:oak_1`	14
`modularrouters:modular_router`	10
`gtceu:lv_robot_arm`	10
`gtceu:item_filter`	10
`pipez:item_pipe`	16
`pipez:fluid_pipe`	10
`gtceu:steel_drum`	8

Needs / Feeds¶

Main source for: gtceu:trinium_ingot, gtceu:trinium_sulfide_dust, gtceu:enriched_naquadah_ingot, gtceu:naquadria_ingot, gtceu:trinium_foil, gtceu:trinium_dust