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UEV power: plasma → Supreme Plasma Turbine with a UEV rotor holder (tungsten disulfide + superstate helium 3 boost) → laser or dynamo hatch

Chain id: uev_power · Tags: Infinite source, Unverified

Plan modules: UEV fusion and plasma power

Tips: 6, 1 unverified

Machines

Assembly Line · 20 s · 7 864 320 EU/t · research of the UHV rotor holder 160 CWU/tMultiblock
Oak 1UEV rotor holder: 1 uev machine hull · 4 starium alloy gear · 2 uev electric motor · 6 small mythrolic alloy gear · 8 magmada alloy round · 1 mythrolic alloy ring · 2 uev transmission assembly · 1 uev precision drive mechanism · 1 UEV circuit · 12 fine adamantine wire · 576 mB polyether ether ketone · 5 000 mB tungsten disulfideuev machine hullstarium alloy gearuev electric motorsmall mythrolic alloy gearmagmada alloy roundmythrolic alloy ring1
20 s
UEV Rotor Holder1
gtceu:assembly_line
Supreme Plasma Turbine (UHV controller: UHV page) · base 16 384 EU/t · 6 parallelsGregTech
UEV Rotor Holder1Magmatic PlasmaPlasma: magmatic (tier 5 fusion) · nickel · iron · oxygen · nitrogen · argon · helium · americium · tinplasmaSuperstate Helium 3Boost per hour: 1000 B tungsten disulfide (+25 %), 2500 B superstate helium 3 (+75 %)boost
UEV 256a Laser Source HatchUEV 256A laser source hatch (uev_hatches) → UEV power lineEU
gtceu:supreme_plasma_turbine

Flow

How to build

  1. Rotor holder parts first: hull, starium gears, UEV motors, small mythrolic gears, magmada rounds, ring, transmission assemblies, precision drive, circuit, adamantine wire. Drums: PEEK and tungsten disulfide. — functionalstorage:oak_1, gtceu:uev_machine_hull, kubejs:uev_transmission_assembly
  2. Assembly Line: station research of the UHV rotor holder, then 20 s per holder at 7 864 320 EU/t. Output drawer Keep Exact 2. — gtceu:assembly_line, gtceu:uev_rotor_holder
  3. Swap the UEV rotor holder into the Supreme Plasma Turbine's holder slot; fluid input and output hatches are UHV ones. — gtceu:supreme_plasma_turbine, gtceu:uev_rotor_holder
  4. Plasma by a Pipez fluid pipe with a pump cover from the reactor drum; returned gas or concentrate by a second pipe into its own drum. — gtceu:magmatic_plasma_bucket, gtceu:infernal_concentrate_bucket
  5. Boost drums: tungsten disulfide first, then superstate helium 3; each with Keep Exact 2500 so the turbine does not lose 10 %. — gtceu:superstate_helium_3_bucket, gtceu:tungsten_disulfide_bucket
  6. Output: UEV 256A laser source hatch into the grid, or UEV dynamo hatches for a short run. — gtceu:uev_256a_laser_source_hatch, gtceu:uev_energy_output_hatch

Tips

  • Verified from the pack lang file (assets/gtceu/lang/en_us.json) and kjs systems/fusion/plasma_turbines.js: Supreme Plasma Turbine = boosted Large Plasma Turbine, base production 16 384 EU/t; each rotor holder above IV multiplies EU/t by 2 and adds 10 % efficiency; up to 6x the parallels of a standard Large Plasma Turbine; lubricant boosting: 1000 B tungsten disulfide per hour for +25 % EU/t, skipping it costs -10 %; coolant boosting: 2500 B superstate helium 3 per hour for +75 %, only while lubricant boosting is active; accepts laser hatches. By the first rule a UEV rotor holder (LuV, ZPM, UV, UHV, UEV = 5 steps above IV) gives 16 384 x 32 = 524 288 EU/t and +50 % efficiency per turbine (verified from the lang formula); the final total with the 6 parallels and the lubricant / coolant boosts is applied by the mod code (BoostedPlasmaTurbine) and could not be read, so treat 524 288 EU/t as the base figure.
  • Plasma recipes (plasma_turbines.js, plasma_generator): 5 mB (gases) or 1 mB (metals) per run at -2048 EU/t base: nickel 180 ticks, iron 135, oxygen 98, nitrogen 110, argon 116, helium 27, americium 984, tin 84; magmatic plasma is the one special case: 1 mB → 1 mB infernal concentrate over 748 ticks at -8192 EU/t base. Infernal concentrate is also the input of the tier 5 magmatic plasma fusion recipe (500 mB + 288 mB iron plasma → 144 mB, uev_fusion), so the loop is: burn magmatic plasma, return concentrate to the reactor.
  • UEV rotor holder: Assembly Line, 400 ticks, VA[UEV] = 7 864 320 EU/t, station research of the UHV rotor holder (VA[UHV], 160 CWU/t): UEV hull, 4 starium gears, 2 UEV motors, 6 small mythrolic gears, 8 magmada rounds, 1 mythrolic ring, 2 UEV transmission assemblies, 1 UEV precision drive mechanism, 1 UEV circuit, 12 fine adamantine wire, 576 mB PEEK, 5000 mB tungsten disulfide. The Ultimate EBF of the UIV page ALSO uses one UEV rotor holder in its pattern.
  • Controller: Supreme Plasma Turbine = UHV hull + 6 dense enriched naquadah plates + 4 neutronium gears + 6 small naquadah alloy gears + 8 enriched naquadah huge pipes + 6 UHV circuits + 64 fine RTA neutronate wire + 64 UHPIC chips, 4320 mB PEEK + 5000 mB naquadria + 2500 mB lubricant, 600 ticks, VHA[UHV], research Large Plasma Turbine (128 CWU/t). The Nyinsane Plasma Turbine (UIV page) is the 12x version that boosts with oganesson stabilized BEC.
  • Sub-steps people skip: (1) the holder is a hatch of the turbine structure, not a casing: it replaces the rotor holder slot (R in the pattern); (2) the boost fluids are per HOUR of runtime: put 1000 B and 2500 B in drums with a pump cover, a missing lubricant reduces output by 10 %; (3) the 256A laser hatch (not a dynamo) is the output: both ends need a laser cable; (4) fusion output (magmatic plasma needs tier 5 reflectors) is the real limit.
  • Unverified exact output of the UEV setup, which rotor material, and whether the plasma is gated by the reactor tier.

Bill of materials

Item Qty
gtceu:supreme_plasma_turbine 1
gtceu:uev_rotor_holder 1
gtceu:uev_256a_laser_source_hatch 1
gtceu:assembly_line 1
functionalstorage:oak_1 10
modularrouters:modular_router 6
gtceu:lv_robot_arm 6
gtceu:item_filter 6
pipez:item_pipe 16
pipez:fluid_pipe 6
gtceu:steel_drum 6

Needs / Feeds

  • Main source for: gtceu:uev_rotor_holder