Batman’s Son in Marvel

Chapter 22: Chapter 22: Complex Principles



Technology never develops in isolation. Its growth depends on the foundation of an entire scientific system. Yet, some advancements leap so far ahead that they become known as black technologies. Tony Stark's steel armor is one such marvel, but at its core, the true black technology lies in its power source—the arc reactor.

The arc reactor operates on the principles of controllable miniature cold fusion, a concept rooted in nuclear fusion. But why is nuclear fusion so difficult to achieve?

To answer that, one must first understand the basics of fusion. All modern electrical systems trace back to Michael Faraday, the scientist who discovered the link between electricity and magnetism. His work led to the invention of electromagnetic generators, which form the backbone of today's power generation methods.

Even nuclear power plants rely on this principle, simply using nuclear reactions to generate heat, which then drives steam turbines connected to magnetic generators. The difficulty arises in attempting to harness the energy of nuclear fusion—the same reaction that powers the sun—within a controlled environment.

Fusion reactions require temperatures of hundreds of millions of degrees, far exceeding the sun's core. Scientists attempt to contain this plasma in reactors using magnetic fields, but the process is inherently unstable and complex.

Yet, Tony Stark built a miniature arc reactor inside a cave with nothing but scraps. It defied logic and physics, showcasing a technological leap seemingly beyond human reach.

Adam Wayne, fortunately, didn't face the same harsh constraints as Stark. With the resources of Wayne Enterprises and access to cutting-edge materials, he had a much stronger foundation to work from.

"Skynet, generate a magnetic field model for the Tokamak device. Simulate the magnetic field behavior within a small, controllable nuclear fusion system."

Nuclear fusion involves the merging of light atomic nuclei to form heavier nuclei, releasing massive amounts of energy in the process. This energy primarily takes the form of photons—light particles.

The challenge of controllable fusion lies in capturing and containing these photons without allowing the energy to scatter uncontrollably. Tony Stark's reactor solved this by employing a magnetic confinement system that used the very photons produced by the reaction to stabilize and contain the energy.

"Skynet, record experimental principles."

Adam began dictating as he refined his thoughts.

"The photons generated by nuclear fusion possess extremely high energy. Based on the principles of electromagnetism, these photons interact to produce electromagnetic forces.

"We can interfere with these photons and direct them to form a spontaneous electromagnetic field. This field will confine the photons, creating a self-stabilizing containment structure."

He paused to take a breath, staring at the complex 3D projection of the reactor model hovering before him.

Tony Stark's brilliance was undeniable. Using the reaction's own energy to form its containment was a stroke of genius. It eliminated the need for bulky external systems, enabling miniaturization.

Adam shook his head, clearing the thought. He couldn't afford distractions.

"Skynet, continue recording."

"Add a magnetic field cutting device on the reactor's periphery to capture the electromagnetic energy and convert it into electricity."

This was another key breakthrough. Instead of relying on traditional generators, the arc reactor used its own magnetic field to induce electric currents, maximizing efficiency.

But Adam knew he still faced two major hurdles—neutralizing the interference caused by the magnetic field and enabling fusion to occur at room temperature.

"Skynet, note this down—integrate high-purity silicon diamagnetic materials with iron oxide compounds to neutralize the external magnetic field. At the same time, this layer will serve as a protective barrier around the reactor."

The arc reactor's protective layer wasn't just a shield; it was an active part of the design. By absorbing and neutralizing stray magnetic fields, it prevented interference while reinforcing the containment structure.

This design had another surprising benefit. The electromagnetic forces acting on the protective layer compressed its molecular structure, strengthening it to near-indestructible levels.

No wonder even Loki's scepter couldn't penetrate the armor.

Adam smirked, reviewing the notes stored in Skynet. Everything was falling into place.

"Cold fusion stabilization—note this principle. Use entropy suppression to convert fusion-generated photons into high-energy particles before they can generate heat. This avoids the formation of plasma and eliminates the risk of thermal explosions."

Traditional nuclear fusion relied on heating plasma to unimaginable temperatures. Even slight instabilities could cause catastrophic failures.

But cold fusion avoided this entirely. Instead of allowing the photons to produce plasma, it converted them directly into usable energy.

Adam couldn't help but marvel at the simplicity and elegance of this solution.

Without plasma, there was no need for massive cooling systems or concrete shielding. The reactor could operate safely at room temperature, emitting only a faint blue glow.

It was brilliant—both as a concept and in its execution.

Looking at the completed virtual model of the arc reactor floating in front of him, Adam smiled. This was more than just an invention.

It was a symbol of limitless energy and technological advancement.

With this, power shortages and energy crises would be a thing of the past. More importantly, it was the key to unlocking an army of steel armors capable of protecting the world—or dominating it.

Adam stepped back, admiring the projection.

Now, all he had to do was build it.

The hum of machinery and the flicker of holograms filled the lab as Skynet began preparing the manufacturing process. Adam grinned.

The future had just begun.

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