Nargon's Reactors: Mark I, Mark II, Mark III, Mark IV, Breeder

Materials:
10x Integrated Heat Dispenser
18x Cooling cells

Heating:
2x Uranium cell, 2 pulses, 3 cooler slot (2heat each)
2*2*3*2 = 24 h/s

Cooling:
1 Reactor, 2 chambers, 4 air blocks, 18 Cooling cells
1 + 2*2 + 4/4 + 18 = 24 h/s

Heat balance:
24 - 24 = 0 h/s => Mark I-O

Energy:
2x Uranium cell, 2 pulses
2*2*10 = 40 EU/t

Materials:
11x Integrated Heat Dispenser
28x Cooling cells

Heating:
2x Uranium cell, 2 pulses, 3 cooler slot (2heat each)
1x Uranium cell, 3 pulses, 2 cooler slot (4heat each)
2*2*3*2 + 1*3*2*4 = 48 h/s

Cooling:
1 Reactor, 4 chambers, 11 water blocks, 28 Cooling cells
1 + 2*4 + 11 + 28 = 48 h/s
1 Reactor, 4 chambers, 9 water blocks, 8 air blocks, 28 Cooling cells
1 + 2*4 + 9 + 8/4 + 28 = 48 h/s

Heat balance:
48 - 48 = 0 h/s => Mark I-O

Energy:
2x Uranium cell, 2 pulses
1x Uranium cell, 3 pulses
2*2 + 1*3 = 7*10 = 70 EU/t

Materials:
13x Integrated Heat Dispenser
33x Cooling cells

Heating:
4x Uranium cell, 2 pulses, 3 cooler slot (2heat each)
4x Uranium cell, 1 pulse, 4 cooler slot (1heat each)
4*2*3*2 + 4*1*4*1 = 64 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 33 Cooling cells
1 + 2*6 + 20 + 33 = 66 h/s

Heat balance:
64 - 66 = -2 h/s => Mark I-O

Energy:
4x Uranium cell, 2 pulses
4x Uranium cell, 1 pulses
4*2*10 + 4*1*10 = 120 EU/t

Materials:
16x Integrated Heat Dispenser
34x Cooling cells

Heating:
2x Uranium cell, 3 pulses, 2 cooler slot (4heat each)
2x Uranium cell, 2 pulses, 3 cooler slot (2heat each)
2*3*2*4 + 2*2*3*2 = 72 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 34 Cooling cells
1 + 2*6 + 20 + 34 = 67 h/s

Heat balance:
72 - 67 = +5 h/s

Heat distribution:
1 reactor, 16 dispensers, 34 cooling cells
1+16+34 = 51, each can accumulate 10k heat, but i use 8K, because evaporating water
51*8000/5 = max 81600s of non-stop running => more than 8*10000s -> Mark II-8

Cooldown:
After 8 full cycles of non-stop running is accumulated heat 8*10000*5 = 400k
400000/67 = 5970s = 1h 40m

Energy:
2x Uranium cell, 3 pulses
2x Uranium cell, 2 pulses
2*3*10 + 2*2*10 = 100 EU/t

Materials:
14x Integrated Heat Dispenser
34x Cooling cells

Heating:
6x Uranium cell, 2 pulses, 3 cooler slot (2heat each)
6*2*3*2 = 72 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 34 Cooling cells
1 + 2*6 + 20 + 34 = 67 h/s

Heat balance:
72 - 67 = +5 h/s

Heat distribution:
1 reactor, 14 dispensers, 34 cooling cells
1+14+34 = 49, each can accumulate 10k heat, but i use 8K, because evaporating water
49*8000/5 = max 78400s of non-stop running => more than 7*10000s -> Mark II-7
OR with special water construction is possible Mark II-8 see Mark X Perfect Breeder

Cooldown:
After 7 full cycles of non-stop running is accumulated heat 7*10000*5 = 350k
350000/67 = 5223s = 1h 28m

Energy:
6x Uranium cell, 2 pulses
6*2*10 = 120 EU/t

Materials:
17x Integrated Heat Dispenser
33x Cooling cells

Heating:
4x Uranium cell, 3 pulses, 2 cooler slot (4heat each)
4*3*2*4 = 96 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 33 Cooling cells
1 + 2*6 + 20 + 33 = 66 h/s

Heat balance:
96 - 66 = +30 h/s

Heat distribution:
1 reactor, 17 dispensers, 33 cooling cells
1+17+33 = 51, each can accumulate 10k heat
510000/30 = max 17000s of non-stop running => more than 10k but less than 20k -> Mark II-1

Cooldown:
After 10000s (one uranium cycle) accumulated heat is 10000*30 = 300k heat
300000/66 = 4545s = 1h 15m

Energy:
4x Uranium cell, 3 pulses
4*3*10 = 120 EU/t

Materials:
4x Reactor Plating (but not necessary)
18x Integrated Heat Dispenser
24x Cooling cells

Heating:
8x Uranium cell, 3 pulses, 2 cooler slot (4heat each)
8*3*2*4 = 192 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 24 Cooling cells
1 + 2*6 + 20 + 24 = 57 h/s

Heat balance:
192 - 57 = +135 h/s

Heat distribution:
1 reactor, 18 dispensers, 24 cooling cells
1+18+24 = 43, each can accumulate 10k heat
430000/135 = max 3185s of non-stop running => more than 1000s -> Mark III

Good time is 2500s non-stop running, because 10000/2500 = 4 same cycles with one pack of Uranium
2500s = 41m 40s (about 2MC days)

Cooldown:
After 2500s accumulated heat is 2500*135 = 337500h
337500/57 = 5921s = 1h 39m

Energy:
8x Uranium cell, 3 pulses
8*3*10 = 240 EU/t
Total Energy in runtime 2500s:
240*20*2500 = 12M EU

Materials:
16x Integrated Heat Dispenser
24x Cooling cells

Heating:
14x Uranium cell, 2 pulses, 3 cooler slot (2heat each)
14*2*3*2 = 168 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 24 Cooling cells
1 + 2*6 + 20 + 24 = 57 h/s

Heat balance:
168 - 57 = +111 h/s

Heat distribution:
1 reactor, 16 dispensers, 24 cooling cells
1+16+24 = 41, each can accumulate 10k heat
410000/111 = max 3693s of non-stop running => more than 1000s -> Mark III

Good time is 2500s non-stop running, because 10000/2500 = 4 same cycles with one pack of Uranium
2500s = 41m 40s (about 2MC days)
Next possible value is 3333s, but with this value the reactor heat up to 9023. And at 8000 heat the water can evaporate.
This is possible with same construction as Mark X Perfect Breeder. But with 2500s max heat is cca 6800 and water can't evaporate.

Cooldown:
After 2500s accumulated heat is 2500*111 = 277500h
277500/57 = 4868s = 1h 22m

Energy:
14x Uranium cell, 2 pulses
14*2*10 = 280 EU/t
Total Energy in runtime 2500s:
280*20*2500 = 14M EU

Materials:
20x Integrated Heat Dispenser
18x Cooling cells

Heating:
8x Uranium cell, 3 pulses, 2 cooler slot (4heat each)
8x Uranium cell, 2 pulses, 3 cooler slot (2heat each)
8*3*2*4 + 8*2*3*2 = 288 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 18 Cooling cells
1 + 2*6 + 20 + 18 = 51 h/s

Heat balance:
288 - 51 = +237 h/s

Heat distribution:
1 reactor, 20 dispensers, 18 cooling cells
1+20+18 = 39, each can accumulate 10k heat
390000/237 = max 1645s of non-stop running => more than 1000s -> Mark III

Good time is 1250s non-stop running, because 10000/1250 = 8 same cycles with one pack of Uranium
1250s = 20m 50s (about 1MC day)

Cooldown:
After 1250s accumulated heat is 1250*237 = 296250h
296250/51 = 5809s = 1h 37m

Energy:
8x Uranium cell, 3 pulses
8x Uranium cell, 2 pulses
8*3 + 8*2 = 40*10 = 400 EU/t
Total Energy in runtime 1250s:
400*20*1250 = 10M EU

Materials:
16x Integrated Heat Dispenser
20x Cooling cells

Heating:
18x Uranium cell, 3 pulses, 2 cooler slot (4heat each)
18*3*2*4 = 432 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 20 Cooling cells
1 + 2*6 + 20 + 20 = 53 h/s

Heat balance:
432 - 53 = +379 h/s

Heat distribution:
1 reactor, 16 dispensers, 20 cooling cells
1+16+20 = 37, each can accumulate 10k heat
370000/379 = max 976s of non-stop running => less than 1000s -> Mark V

Good time is 625s non-stop running, because 10000/625 = 16 same cycles with one pack of Uranium
625s = 10m 25s (about half MC day)

Cooldown:
After 625s accumulated heat is 625*379 = 236875h
236875/53 = 4469s = 1h 15m

Energy:
18x Uranium cell, 3 pulses
18*3*10 = 540 EU/t
Total Energy in runtime 625s:
540*20*625 = 6.75M EU

Materials:
16x Integrated Heat Dispenser
16x Cooling cells

Heating:
18x Uranium cell, 3 pulses, 2 cooler slot (4heat each)
2x Uranium cell, 4 pulses, no cooler slot (10heat hull)
18*3*2*4 + 2*4*10 = 512 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 18 Cooling cells
1 + 2*6 + 20 + 18 = 51 h/s

Heat balance:
512 - 51 = +461 h/s

Heat distribution:
1 reactor, 16 dispensers, 16 cooling cells
1+16+16 = 33, each can accumulate 10k heat
330000/461 = max 715s of non-stop running => less than 1000s -> Mark V

Good time is 625s non-stop running, because 10000/625 = 16 same cycles with one pack of Uranium
625s = 10m 25s (about half MC day)
WARNING! after 625s hull has heat up to 8700 and water can evaporate. Use special water construction
see Mark X Perfect Breeder.

Cooldown:
After 625s accumulated heat is 625*461 = 288125h
288125/51 = 5649s = 1h 35m

Energy:
18x Uranium cell, 3 pulses
2x Uranium cell, 4 pulses
18*3*5 + 2*4*5 = 620 EU/t
Total Energy in runtime 625s:
620*20*625 = 7.75M EU

Materials:
6x Reactor Plating
14x Integrated Heat Dispenser
21x Cooling cells
Breeding configuration
Heating configuration

Heating:
1x Uranium cell, 5 pulses, 10 heat to hull, 4 Depleted isotope cells
1*5*10+4 = 54 h/s

Cooling:
1 Reactor, 6 chambers, 20 water blocks, 21 Cooling cells
1 + 2*6 + 20 + 21 = 54 h/s

Heat balance:
54 - 54 = 0 h/s => Perfect Breeder

Heat distribution:
1 reactor, 14 dispensers, 21 cooling cells
1+14+21 = 36 Optimal heat is 9k - 10k heat
for 9k Heat:
36*9000/2000 = 162 buckets of lava
OR use "heating configuration"
4 Uranium Cells (each 5 pulses, 10 heat to hull), 8 Depleted Isotope Cells, -cooling
4*5*10+8 = 208 h/s
208-54(water on) = 154 h/s OR 208-39(water off) = 169 h/s
Heat distribute between 14x HD, 21x Cell, 1x Hull = 36
36*9000/154 = 2103s, 36*10000/154 = 2337s (Water on) OR 36*9000/169 = 1917s, 36*10000/169 = 2130s (water off)
Heating up to 9-10k heat is in 35m 4s - 38m 57s with water OR 31m 58s - 35m 30s without water.

Energy:
"breeding configuration": 10 EU/t
"heating configuration": 120 EU/t

Construction: (layers, from bottom to top)
W - Wall (nothing burnable like wool, wood, etc. Use stone, glowstone...)
S - Water source
R - Reactor Core
C - Reactor Chamber
X - Possible places for cable (4x, use one, other replace with Wall)
1.      2.      3.      4.      5.      6.      7.
WWWWW   WWWWW   WWXWW   WWWWW   WWWWW   WWWWW   WWWWW
WWWWW   W   W   W C W   W   W   WW WW   WWWWW   WWWWW
WWXWW   W C W   XCRCX   W C W   W   W   WW WW   WWSWW
WWWWW   W   W   W C W   W   W   WW WW   WWWWW   WWWWW 
WWWWW   WWWWW   WW WW   WWWWW   WWWWW   WWWWW   WWWWW




Water source block must be minimal 3 blocks above Reactor core (on 4th block). In here water doesn't evaporate
and permanently flowing around reactor. Flowing water can evaporate, but is immediately restored. This doesn't
effect on the reactor cooling, because water first cool down reactor, then evaporate it, then restore.
On layer 6 you can add piston for water on/off.