Chapter 88: Reactors
Keon glanced at the blueprint data materialized beside him as holographic projections. The projections flickered with real-time telemetry, mapping the flow of energy, neutron flux, and confinement fields for all three reactors simultaneously.
PURE FISSION REACTOR CORE (PFIR)
Core Design:
A spherical containment core constructed from a Unified Heavy-Element Lattice (UHEL). It houses a densely packed sub-critical-to-critical Uranium grid suspended inside a high-velocity electromagnetic fluid channel loop.
Size:
2 Meters (Core Diameter)
Materials/Components:
Structural Shell: Unified Heavy-Element Lattice (UHEL) Outer Pressure and Energy Extraction Vessel
Primary Fuel: Enriched Uranium Dioxide (UO2) Ceramic Rod Matrix
Thermal Conduit: Non-Boiling Ferro-Liquid Coolant (FLC) Loop
Flow Control: Integrated Electromagnetic Liquid Pumps (EMLP)
Field Stabilization: Structural Gravity Damping Matrix (SGDM)
Core Monitoring: Scintillating Solid-State Crystal Array (SSCA)
Function/Properties:
Continuous Heavy Output: Generates 0.8 to 2.5 GWe (1.6 to 5 GWt) of continuous electrical power.
Zero-Boil Thermal Removal: FLC remains completely liquid across all operational temperatures, allowing ultra-high thermal extraction without pressure-vessel boiling risks.
Non-Mechanical Fluid Dynamics: EMLP circulates liquid coolant continuously using electromagnetic induction, eliminating moving parts and mechanical pump failures.
Passive Structural Damping: SGDM stabilizes heavy gravitational and vibration stresses across the 2-meter sphere.
Description:
The PFIR represents an ultra-compact revolution in nuclear fission technology. By replacing standard water-cooling loops with Non-Boiling Ferro-Liquid Coolant (FLC) driven by Electromagnetic Liquid Pumps (EMLP), the reactor bypasses traditional thermal density limits. The core uses Scintillating Solid-State Crystal Arrays (SSCA) for real-time neutron flux monitoring, allowing the Unified Heavy-Element Lattice (UHEL) vessel to safely extract up to 2.5 GWe from a footprint no larger than a small SUV.
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PURE FUSION REACTOR CORE (PFUR)
Core Design:
A spherical fusion chamber featuring a central focal core anchored by a Luminous Compression Crystal. Deuterium gas is injected directly into the crystal's central focus, where localized gravity fields compress it into superheated plasma.
Size:
2 Meters (Core Diameter)
Materials/Components:
Structural Shell: Unified Adaptive Lattice Composite (UALC)
Core Ignition/Storage: Solid-State Luminous Energy Crystal (SLEC Core)
Fuel Source: High-Purity Deuterium Gas (D2) Micro-Injection System
Compression Engine: Gravitational Plasma Confinement Array (GPCA)
Plasma Control: High-Intensity Electromagnetic Vectoring Nozzles (HEVN)
Coolant & Shielding: Liquid Lead-Lithium (Pb-Li) Thermal Blanket
Function/Properties:
Metropolis-Grade Output: Produces 6 to 10 GWe (12 to 20 GWt) of clean electrical power.
Magnetless Plasma Confinement: GPCA utilizes direct gravitational compression instead of massive external magnetic coils to achieve fusion ignition densities.
Solid-State Photon Compression: SLEC Core absorbs ambient/laser energy and compresses deuterium gas internally, acting as both fuel reservoir and ignition trigger.
Direct Vectoring Exhaust: HEVN allows the reactor to vent charged particle streams directly for spaceborne propulsion or high-efficiency MHD power harvesting.
Description:
The PFUR eliminates the traditional size and weight bottlenecks of magnetic confinement fusion (Tokamaks). At its center, the Solid-State Luminous Energy Crystal works in tandem with the Gravitational Plasma Confinement Array (GPCA) to compress deuterium gas into fusion-ignited plasma without needing multi-ton superconducting magnets. The surrounding Liquid Lead-Lithium blanket absorbs escaping high-energy heat, delivering up to 10 GWe of clean energy from a 2-meter spherical chamber.
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FISSION-FUSION HYBRID REACTOR CORE (FFHR)
Core Design:
A dual-stage spherical core consisting of an inner 1-meter SLEC Fusion Spark Core enveloped by an outer 0.5-meter Depleted Uranium/Thorium fast-fission multiplier blanket.
Size:
2 Meters (Core Diameter)
Materials/Components:
Structural Shell: Reinforced Unified Adaptive Lattice Composite Hull (RUALCH)
Inner Core (Driver): SLEC Core with Gravitational Plasma Confinement Array (GPCA)
Outer Core (Multiplier): Sub-Critical Depleted Uranium-238 (238U) / Thorium-232 (232Th) Blanket
Fluidics & Coolant: Ultra-Stable Magnetic Liquid Fluid (USMLF)
Flow & Propulsion Engine: Electromagnetic Induction Flow Field (EMIFF)
Safety Trigger: Gravitational Decay Containment Shield (GDCS)
Function/Properties:
Peak Energy Density: Generates 15 to 25 GWe (30 to 50 GWt) of electrical energy, rivaling planetary-scale power stations.
Fission Neutron Multiplication: Fusion neutrons from the central SLEC spark induce fast fission in the outer 238U blanket, multiplying energy yield by 10\times.
Sub-Critical Absolute Safety: Fission in the outer blanket cannot self-sustain without the central fusion neutron flux; shutting off the SLEC core instantly halts all fission within milliseconds.
Nuclear Waste Transmutation: Capable of consuming un-enriched, depleted uranium and long-lived nuclear waste as primary fuel.
Description:
The FFHR is the pinnacle of compact heavy energy production. Combining the precision ignition of the Solid-State Luminous Energy Crystal (SLEC Core) with a fast-fission blanket, the reactor uses 2.45 MeV fusion neutrons to split non-fissile 238U atoms. Driven by an Electromagnetic Induction Flow Field (EMIFF) that circulates temperature-immune USMLF coolant across the core, this two meter reactor converts 52.9 kg of raw fuel per day into 25 GWe of usable electricity with zero risk of catastrophic meltdown.
Note: GWe and GWt are energy industry units used to measure two different types of power output in power plants: GWe stands for gigawatts of electrical power, and GWt stands for gigawatts of thermal (heat) power.
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Keon watched the telemetry feed with a precision that bordered on the reverent. As he reviewed the finalized blueprints on his retinal overlay, he issued the mental command to commence the test sequence.
Hiss! Hiss! Hiss!
Within the sterile confines of the testing bay, the silence was instantly replaced by a series of precise, mechanical engagements. Modular conduits emerged from the ceiling, locking onto the inlet ports of the three-reactor array with seamless efficiency.
With a silent, high-frequency hum that vibrated through the floor plates of the control room, the reactors flickered to life. Plasma ignited within the chambers, a controlled, violent surge of energy that the system immediately caught and tethered to the magnetic injectors. Fuel flowed through the nozzles, a steady, measured pulse that kept the temperature climbing toward the optimal threshold. Meanwhile, the heavy pipelines designated for neutron discharge engaged, siphoning off the decay particles and recycling them back into the fission blanket.
Keon stood motionless, his Bio Exoshell sensors processing the multi-layered data stream in real-time. He monitored the thermal dissipation, the delicate balance of the fission-to-fusion cycle, and the positive and negative neutron flux. It was a flawless, recursive loop. After observing it for a while, seeing no error or failure, no overload, no thermal runaway in all of these reactors.
‘Finally, a proper energy source,’ Keon processed, the satisfaction of the perfect read-out resonating through his core. ‘I won't feel poor when purchasing the items in the system shop after implementing these reactors in my UHS1.’ The credit cost of high-tier materials would no longer be a barrier to his exponential growth. He could clear his backlog of system shop purchases within days, not months.
He shifted his gaze to the two-meter reactor housings. ‘These are just scaled-down prototypes to avoid catastrophic failure. Once I build true, massive-scale reactors on this planet, there won't be any problem satisfying the grid’s demand. But there is an issue with Luminous Crystal... I have to solve it first.
His attention snapped to the projection of the Luminous Crystals. He had the original—the one he had painstakingly saved from his early system purchases—and the artificial synthesis he had generated through his research and talent. They appeared identical in composition, yet their reactive behavior under stress was fundamentally different.
‘I haven't thought of it before; probably every property of a material can't be synthesized artificially,’ Keon mused as he magnified the holographic data of the luminous crystal.
While his artificial luminous crystal version remained static, reaching a fixed compression limit before risking structural failure, the original luminous crystal reacted dynamically to thermal input. As the plasma and light energy heated the crystal, its internal particles tightened in a strange, non-linear reaction. This increased the crystal's hardness, turning it into a self-strengthening vessel that prevented over-pressurization. As it heats, it increases the compression and free up the room to store more light and plasma. Conversely, as it cooled, it relaxes, releasing the stored energy in a measured, controlled flow.
‘It’s not just a battery. It’s an adaptive pressure regulator. Based on thermal stress, the original luminous crystal can store up to five times more than the artificial synthesized crystal. I hope this completion of phase five rewards another universal upgrade token, so that I can upgrade my nano fabrication and be able to replicate these materials at atomic scale. Till then I have to shelve the idea to build massive reactors as it will require millions of tons of original luminous crystal.’
Keon thought and then he raised his pupil, and a system communication panel opened in front of him. It shows the message he wrote a few months ago after finding the difference between original and artificial luminous crystal. It was a message to the original player who consigned the luminous crystal in the shop, offering him a direct trade. But seeing there is no response under his message, His gaze became deeper. ‘I hope someone contacts me soon. If I can get it in a large quantity through trade then it will be best, or I will have to go with sub talent upgrade plan.’
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