What Really Limits Hot Fusion Reactors

Deuterium-tritium fusion has the highest cross-section at the lowest temperature making it the preferred hot fusion reaction.

Evidence: The cross-section curves show that DT fusion maximizes fusion probability at temperatures much lower than other fuel combinations

Cold fusion may work through resonance effects using relativistic vibration to overcome the Coulomb barrier at lower temperatures.

Evidence: The presenter proposes that vibrating molecules creates relativistic effects that could enable fusion without extreme temperatures akin to cold fusion

Hot fusion research discounts relativistic effects assuming plasma operates far below light speed.

Evidence: The presenter notes that mainstream plasma science dismisses relativistic effects because plasmas operate below light speed but this may be excluding important physics

Magnetic fields can confine plasma without physical walls allowing creation of plasma smoke rings.

Evidence: Magnetic confinement fusion shows that charged particles must follow magnetic field lines enabling confinement without physical boundaries

Exotic vacuum objects or plasma orbs could be created using magnetic fields as the confinement mechanism.

Evidence: Once it is understood that magnetic fields confine plasma the logical next step is asking why anything needs to be inside the plasma ball at all

Tokamak fusion reactors have the largest temperature gradient in the solar system between plasma center and wall.

Evidence: The presenter notes the gradient from 100 million degrees Celsius at plasma center to room temperature at wall over one meter exceeds solar gradients

The orbs in MH370 videos are fusion reactors with distinctive heat signatures serving as design fingerprints.

Evidence: The orbs show heat signatures like orange slices and axial jets matching field reverse configuration indicating their origin could be identified

Nature abhors gradients and thermal gradients cause plasma turbulence requiring complex simulations.

Evidence: The presenter explains that hot plasma flows toward cold creating turbulence that requires massive computational resources to simulate

Plasma turbulence simulations require 18 million CPU hours to model thermal gradients and electron conductivity.

Evidence: A single simulation cost 18 million CPU hours to model the complex turbulent plasma behavior capturing both ion and electron scale phenomena

Spinning plasma can stabilize it and overcome turbulences through centrifugal motion.

Evidence: The stirring of plasma creates faster mixing similar to spinning cotton candy where centrifugal motion stabilizes the system

The orbs in MH370 videos spin on their axis to stabilize the plasma within them.

Evidence: Observations show the orbs spinning with stable heat signatures and axial flipping suggesting spinning stabilizes the plasma fusion reactors

Advanced fusion technology would require massive supercomputers for both development and real-time control.

Evidence: The computational demands of modeling plasma turbulence suggest that advanced fusion reactors need corresponding supercomputing capabilities

Tokamak walls are vulnerable to plasma disruptions that can melt walls similar to solar flares.

Evidence: When plasma confinement fails coronal discharges and filaments are expelled hitting walls with enough energy to melt through tiles