Assorted and Sundry Hypotheses in Physics and Medicine

[PLCoulomb]

Publication #46 - On the True Purpose of the Ancient Egyptian Pyramids (2026 September 30)

Synopsis:

The pharaohs used the pyramids to keep cool in the summer and warm in the winter; using the pyramids as living spaces rather than as burial grounds.  The pyramids, a symbol of Egyptian military power in the Middle Kingdom, were ordered sealed for all time by the Canaanites after their victory in 1661 B.C.  The myth of a "Pharaoh's Curse" was started by the Canaanites in order to reduce the chances of the pyramids once again coming to represent a seat of power for the Egyptian government.

These pyramids and their oft-narrow passageways were lit with a series of mirrors and members of the royal family were moved through these narrow passageways on stretchers featuring primitive castors.  Pharaohs could sleep in sub-terranean levels during the winter months, or could use residual heat absorbed by the exterior stone to keep comfortable at night in the upper chambers of the pyramids during the summer.  The pharaohs and their servants were the only people on the planet to enjoy any sort of artificial climate control until the invention of a primitive air conditioner in 1851 by a physician named John Gorrie, meaning that, amongst its many consequences, the Canaanite victory over the Egyptians meant that no one would enjoy artificial air conditioning for fully 3512 years after it was arguably invented by engineers working for King Djoser some 4700 years ago.  These massive air conditioning systems were utilized by the pharaohs for 1100 years and were ordered abandoned under the terms of a treaty with the Canaanites 3500 years ago which has since been lost to time.

[PLCoulomb]

Publication #47 - Gamma-Enabled Induced Current Cathodic Protection for Manufacture of Titanium Products in Non-Vacuum Environments (2026 October 1)

Synopsis:

The manufacture of titanium products has traditionally been complicated by the need to use either an atmospheric vacuum or the use of inert gases such as argon in order to prevent the inclusion of atmospheric gases in the titanium which would embrittle the metal, rendering it useless for applications calling for high tensile strength.

When in the molten state, titanium is susceptible to corruption by atmospheric gases. This can happen more rapidly when a metal is in a molten state, but the principle behind this corruption is much the same as the oxidation of iron over time. Therefore, we should be able to prevent that corruption using techniques such as Induced Current Cathodic Protection (ICCP,) with the caveat being that traditional ICCP is rendered impractical in the context of molten metals by the inability to connect electrodes to molten metals. The operation of an electrical system in proximity to furnace hot enough to bring titanium to its melting point would simply not be feasible.

However, if there were a means of causing the molten titanium to take on a highly negative electrical charge without the need to run electrodes to the metal, it would be rendered impervious to atmospheric inclusion with oxygen, nitrogen and carbon without the need to employ vacuum chambers.

[PLCoulomb]

Publication #48 - Subtractive Mode of Operation for Voltage Cells in L1 Cache Architecture Enabled by Magnetically-Actuated Voltage Drains (2026 October 10)

Synopsis:

Performance-critical computing tasks are increasingly calling for expanded L1 and L2 caches which collocate high-performance memory more closely with processing architectures. Some computing tasks require that significant changes be made to stored information in memory, but many tasks require that only small changes be made. Even state-of-the-art L1 Cache systems currently require that active voltage be applied in order to re-write the entire contents of this cache with each processing cycle.

The most significant self-imposed bottleneck created by the way in which L1 is currently employed is related to the fact that L1 voltage cells are treated as a type of memory which is in need of a constant supply of voltage in order for information to be remembered. At the other end of the spectrum is NAND, which can “remember” information without the need to actively provide voltage.

What is currently being overlooked by industry is the fact that even volatile memory can remember information after voltage is suspended, particularly over the sub-microsecond timescales involved in L1 Cache retrieval. As volatile memory “forgets,” it does so in a way which is not necessarily symmetrical or predictable. This inconsistency has caused many to abandon hope of controlling the chaos of this volatility.

We can exploit that tendency of voltage dissipation in order to store entire new datasets upon old, similar to the way that Renaissance painters would paint new portraits upon old ones in order to keep from having to buy new canvas. The primary difference, in this case, is that instead of adding, we would be subtracting. In our case, we would be treating L1 Cache like an MLC cell in which the baseline voltage is in freefall and in which the harmonic between the voltage values is used to encode information, irrespective of “key,” to use a musical analogy. As voltage decreases, the key of the music decreases, but the general relationship between the notes remains the same.

[PLCoulomb]

This isn't a new publication, but there was an interesting publication recently from North Carolina State University.  Anyone who has been following this thread from the beginning may remember, back on page 1, the one about using magnetism in order to create antennae of variable length.  That was May 31st.  On September 1st, this https://ieeexplore.ieee.org/document/11674160  got published and the corresponding author is listed as "Prya Darshni."  On October 5th, this was published: news.ncsu.edu/2026/10/plasma-beam-antenna/ on the official website of North Carolina State University.

I'll leave it to readers to judge for themselves, based upon the timing of the publications and their content, which publication inspired which.

https://archive.org/details/Public_Domai...Frequency/

In any case, it's an impressive achievement and I'm quite frankly surprised that people are even able to read it, given the applications.

[PLCoulomb]

Publication #49 - Induced Capacitance in Non-Capacitant Materials Using Density-Tapered Semi-Permeable Plasma Membranes (2026 October 15)

Synopsis:

A novel method is described which allows abundant, low-cost metals such as copper and aluminium, traditionally thought of as merely being useful as conductors, to be used as both rapid and gradual-discharge capacitors made suitable for the replacement of tantalum by the addition of something called a density-tapered plasma membrane.  These membranes, which are magnetically controlled, constitute a first-in-class unidirectional electrical conductor.  You might think of this as a "Tesla Valve" for electrons.  Titration of the electrical field reduces the grade of the plasma field and allows electricity to be gradually siphoned off.  Suspending the field entirely results in all of the energy being dumped at once, causing an abrupt power surge useful for portable high-powered LASERs.

Enjoy.

[PLCoulomb]

Publication #50 - Mechanism for the Efficient Generation of Supplementary Neutrino Fields in Support of Quantum Augmentation of the Discrete Magnetism and Negativity of Electrons (2026 October 17)

Synopsis:

In this publication, I intend to explain how electrons and their associated magnetic fields act as accumulators of neutrino energy associated with the gravity of the atoms they orbit. That neutrino-based quantum electricity, as it becomes more concentrated, in turn, increases the power of discrete magnetism. As mentioned in previous publications, the properties of chemical compounds can be altered by attenuating the amount of quantum electrical energy in each electron. We may wish to weaken a chemical bond by weakening the charge of electrons, or we may wish to strengthen it by amplifying that charge. There are numerous potential applications for increasing the amount of electrical charge; and therefore magnetism; carried by each electron. Rather than trying to create more powerful fields by cramming greater numbers of electrons into confined spaces (resulting in overheating and electrical arcing,) this author proposes that it may make more sense to use smaller numbers of electrons each of which are more powerful than standard, unaugmented electrons. We may term the use of electromagnets augmented in this manner Neutrino-Augmented Electro-Magnets (NAEMs.)

The electrons (and their magnetic component, the spinon,) are already doing much of the difficult work of accumulating neutrinos, which could be thought of as candy inside of a piñata.  If that magnetic vortex of an individual electron were disrupted, the neutrino energy within may be made to be uniformly ejected from the magnetic vortex, like pocket change coming flying out of a trouser pocket abruptly turned inside-out.

The applications for such a mechanism would range from medical MRI to particle colliders, the ability of which to introduce energy into colliding particles is limited by the size and number of the magnets used. If each magnet could be made to pack more punch, as it were, then it would open new possibilities for particle colliders.

Another technology which could benefit from NAEMs are toroidal fusion reactors. Interestingly, if the Quark-Gluon Plasma, were, itself, composed of electrons with greater intensities of electrical charge and magnetism, such a QGP would have a tendency to ignite at lower temperatures. Two protons, for example, occupying a shared space between two electrons exuding amplified electroweak repulsion as well as magnetism, would be more likely to be forced together in a fusion reaction, all things being equal, than protons in a standard QGP.

Interestingly, if taken to an extreme, gravity, itself, would become amplified by such a field. A strong enough supplementary neutrino field would exert some modest mechanical force against neighboring objects but, long before it did this, would meaningfully impact the electrical charge and discrete magnetism of individual electrons, opening up new possibilities for technologies which rely upon the use of magnetism.