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How to build an overclocking HBMR DFC dark nuclear fusion reactor and enlarged the Electric HBM's Nuclear Tech Exte

2024-12-10 17:48:49|Myriagame |source:minecraft skins

This tutorial is set by the author to use the CC By-NC-SA protocol.

Disclaimer: This article is only suitable for 1.12.2HBMR modules and NTM-EXTENDED modules. Other versions may have results.

(Test version: HBMR: V1.8.4A-G, NTMex: V2.0.1, display version: ntmex: v2.0.1))

** Effect display **

1e = 10 3 p = 10 6 T = 10 9 G = 10 12 M = 10 15 K = 10 18 As we all know, the overclocking of DFC is an indispensable step on HBM graduation road. Generally, the overclocking includes two cores, like this:

When closing

Runtime

At this time, the high -energy field interference is needed to prevent the second core from collapse, which also means that the stabilizer in the figure becomes a decoration, thereby maintaining the second core thermal saturation and stability at a level of higher than 100%.However, for the core of the two co -line, in addition to accurately control the input power by overlay the transmitter, the strength of the second core is maintained around its critical value to maximize the income (86000%thermal saturation is measured in the version.Left and right, input power 58+100) It can achieve the maximum income (with the highest fuel and core configuration) of the use of harmonious eyes and neutron catalysts (the highest fuel and core configuration)It's still a problem)

484.23phe/s

This obviously did not achieve the effect of the beginning, so a stack of core methods were born:

The picture shows the structure formed by the four cores of light and merging through the stack of four cores, including the large core of the three thermal saturation approximation limit and a starting core with a saturation of only 6%.Note: This method consumes the fuel very fast, reaching about 432 b/t each, and it brings the ultimate power generation value:

This time, I finally paired with the previous order, but in order to pursue the ultimate energy production rate and management, I designed the structure used by the opening chapter. A 8 -core cube:

Closure state

Open state

------detail------

Use the SA326 battery to turn off all the transmitter at the fastest speed when power off, and turn on all the transmitters at one time when starting (the DESH cannot do the fast opening, EP can not do the fastest stop for the fastest).Screen control

Fuel IO: Anti -SA326 & BF Wildfire Rocket Fuel@6400 MB/T × 18 (Battle gain) × 10 = 1152 B/T

Anti -material fuel solution for survival mode:

Use here: up: Energy condenser (Simten SA326 Capsule Automation): Magnetic Anti -material container (provided cache) under: General trash can (simulated air capsule recycling)

Subsequent fuel introduction heavy magnetic constraint storage tank backup

Reactor design diagram reaction parameters:

Fuel input 1152 B/T The total energy output of 2.49ehe (stable time) standby power 0.89Ghe/T (890mhe/T, 1.78 GHE/s ignored) (stable time) fastest stop speed 12.07s fastest opening speed at the fastest enabled pile speed1.21S

Hot saturation (C1-C8): 84546% 85981% 11454% 85258% 75916% 84546% 85981% 11454% of such stinky core (

Supplementary mechanism:

In any overclocking core chain that does not exist, it is necessary

(Example: Changing the thermal saturation of C5 should adjust the input of C4, the core of the chain cannot be affected by other core inputs)

Adjusting a core thermal saturation does not affect the core thermal saturation of overclocking. Even if the direct input of the latter has changed

(Example: The thermal saturation of C5 changes from 0 to 42+100 between 3%and 75916%, but in the process, C4 is maintained at 85258%)

Any DFC transmitter with no power is not to maximize the energy transmission efficiency when turning laser turning.

The DFC transmitter with any form (including reflection, refraction (turning), and simply launch) is fixed to 2%when laser emitting laser at a specific power (the emitted energy becomes the power × 98%)

Incidentally, he: RF: EU: GTEU (A/Maxv) = 4 × (2 31 -1): 4 × (2 31 -1): (2 31 -1): 1, convert the speed of this reaction, which can output the current of 289874152A per second at the MAXV grid of GT5.09 when ignoring the conversion speed, 14.81666191 seconds to complete the ultimate battery.Who used this electricity!